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Update C sources, add new functions and rename package to

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This commit is contained in:
Milan Nikolic 2018-10-08 18:56:34 +02:00
parent 391c25482d
commit 08aa518a46
156 changed files with 34542 additions and 19573 deletions
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16
README.md
View file

@ -72,21 +72,21 @@ package main
import "github.com/gen2brain/raylib-go/raylib" import "github.com/gen2brain/raylib-go/raylib"
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - basic window") rl.InitWindow(800, 450, "raylib [core] example - basic window")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Congrats! You created your first window!", 190, 200, 20, raylib.LightGray) rl.DrawText("Congrats! You created your first window!", 190, 200, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }
``` ```

28
easings/easings.go
View file

@ -10,21 +10,25 @@ import (
// Linear Easing functions // Linear Easing functions
// LinearNone easing // LinearNone easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func LinearNone(t, b, c, d float32) float32 { func LinearNone(t, b, c, d float32) float32 {
return c*t/d + b return c*t/d + b
} }
// LinearIn easing // LinearIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func LinearIn(t, b, c, d float32) float32 { func LinearIn(t, b, c, d float32) float32 {
return c*t/d + b return c*t/d + b
} }
// LinearOut easing // LinearOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func LinearOut(t, b, c, d float32) float32 { func LinearOut(t, b, c, d float32) float32 {
return c*t/d + b return c*t/d + b
} }
// LinearInOut easing // LinearInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func LinearInOut(t, b, c, d float32) float32 { func LinearInOut(t, b, c, d float32) float32 {
return c*t/d + b return c*t/d + b
} }
@ -32,16 +36,19 @@ func LinearInOut(t, b, c, d float32) float32 {
// Sine Easing functions // Sine Easing functions
// SineIn easing // SineIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func SineIn(t, b, c, d float32) float32 { func SineIn(t, b, c, d float32) float32 {
return -c*float32(math.Cos(float64(t/d)*(math.Pi/2))) + c + b return -c*float32(math.Cos(float64(t/d)*(math.Pi/2))) + c + b
} }
// SineOut easing // SineOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func SineOut(t, b, c, d float32) float32 { func SineOut(t, b, c, d float32) float32 {
return c*float32(math.Sin(float64(t/d)*(math.Pi/2))) + b return c*float32(math.Sin(float64(t/d)*(math.Pi/2))) + b
} }
// SineInOut easing // SineInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func SineInOut(t, b, c, d float32) float32 { func SineInOut(t, b, c, d float32) float32 {
return -c/2*(float32(math.Cos(math.Pi*float64(t/d)))-1) + b return -c/2*(float32(math.Cos(math.Pi*float64(t/d)))-1) + b
} }
@ -49,17 +56,20 @@ func SineInOut(t, b, c, d float32) float32 {
// Circular Easing functions // Circular Easing functions
// CircIn easing // CircIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CircIn(t, b, c, d float32) float32 { func CircIn(t, b, c, d float32) float32 {
t = t / d t = t / d
return -c*(float32(math.Sqrt(float64(1-t*t)))-1) + b return -c*(float32(math.Sqrt(float64(1-t*t)))-1) + b
} }
// CircOut easing // CircOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CircOut(t, b, c, d float32) float32 { func CircOut(t, b, c, d float32) float32 {
return c*float32(math.Sqrt(1-float64((t/d-1)*t))) + b return c*float32(math.Sqrt(1-float64((t/d-1)*t))) + b
} }
// CircInOut easing // CircInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CircInOut(t, b, c, d float32) float32 { func CircInOut(t, b, c, d float32) float32 {
t = t / d * 2 t = t / d * 2
@ -74,18 +84,21 @@ func CircInOut(t, b, c, d float32) float32 {
// Cubic Easing functions // Cubic Easing functions
// CubicIn easing // CubicIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CubicIn(t, b, c, d float32) float32 { func CubicIn(t, b, c, d float32) float32 {
t = t / d t = t / d
return c*t*t*t + b return c*t*t*t + b
} }
// CubicOut easing // CubicOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CubicOut(t, b, c, d float32) float32 { func CubicOut(t, b, c, d float32) float32 {
t = t/d - 1 t = t/d - 1
return c*(t*t*t+1) + b return c*(t*t*t+1) + b
} }
// CubicInOut easing // CubicInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func CubicInOut(t, b, c, d float32) float32 { func CubicInOut(t, b, c, d float32) float32 {
t = t / d * 2 t = t / d * 2
if t < 1 { if t < 1 {
@ -99,18 +112,21 @@ func CubicInOut(t, b, c, d float32) float32 {
// Quadratic Easing functions // Quadratic Easing functions
// QuadIn easing // QuadIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func QuadIn(t, b, c, d float32) float32 { func QuadIn(t, b, c, d float32) float32 {
t = t / d t = t / d
return c*t*t + b return c*t*t + b
} }
// QuadOut easing // QuadOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func QuadOut(t, b, c, d float32) float32 { func QuadOut(t, b, c, d float32) float32 {
t = t / d t = t / d
return (-c*t*(t-2) + b) return (-c*t*(t-2) + b)
} }
// QuadInOut easing // QuadInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func QuadInOut(t, b, c, d float32) float32 { func QuadInOut(t, b, c, d float32) float32 {
t = t / d * 2 t = t / d * 2
if t < 1 { if t < 1 {
@ -123,6 +139,7 @@ func QuadInOut(t, b, c, d float32) float32 {
// Exponential Easing functions // Exponential Easing functions
// ExpoIn easing // ExpoIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ExpoIn(t, b, c, d float32) float32 { func ExpoIn(t, b, c, d float32) float32 {
if t == 0 { if t == 0 {
return b return b
@ -132,6 +149,7 @@ func ExpoIn(t, b, c, d float32) float32 {
} }
// ExpoOut easing // ExpoOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ExpoOut(t, b, c, d float32) float32 { func ExpoOut(t, b, c, d float32) float32 {
if t == d { if t == d {
return (b + c) return (b + c)
@ -141,6 +159,7 @@ func ExpoOut(t, b, c, d float32) float32 {
} }
// ExpoInOut easing // ExpoInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ExpoInOut(t, b, c, d float32) float32 { func ExpoInOut(t, b, c, d float32) float32 {
if t == 0 { if t == 0 {
return b return b
@ -162,6 +181,7 @@ func ExpoInOut(t, b, c, d float32) float32 {
// Back Easing functions // Back Easing functions
// BackIn easing // BackIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BackIn(t, b, c, d float32) float32 { func BackIn(t, b, c, d float32) float32 {
s := float32(1.70158) s := float32(1.70158)
t = t / d t = t / d
@ -169,6 +189,7 @@ func BackIn(t, b, c, d float32) float32 {
} }
// BackOut easing // BackOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BackOut(t, b, c, d float32) float32 { func BackOut(t, b, c, d float32) float32 {
s := float32(1.70158) s := float32(1.70158)
t = t/d - 1 t = t/d - 1
@ -176,6 +197,7 @@ func BackOut(t, b, c, d float32) float32 {
} }
// BackInOut easing // BackInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BackInOut(t, b, c, d float32) float32 { func BackInOut(t, b, c, d float32) float32 {
s := float32(1.70158) s := float32(1.70158)
s = s * 1.525 s = s * 1.525
@ -192,11 +214,13 @@ func BackInOut(t, b, c, d float32) float32 {
// Bounce Easing functions // Bounce Easing functions
// BounceIn easing // BounceIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BounceIn(t, b, c, d float32) float32 { func BounceIn(t, b, c, d float32) float32 {
return (c - BounceOut(d-t, 0, c, d) + b) return (c - BounceOut(d-t, 0, c, d) + b)
} }
// BounceOut easing // BounceOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BounceOut(t, b, c, d float32) float32 { func BounceOut(t, b, c, d float32) float32 {
t = t / d t = t / d
if t < (1 / 2.75) { if t < (1 / 2.75) {
@ -214,6 +238,7 @@ func BounceOut(t, b, c, d float32) float32 {
} }
// BounceInOut easing // BounceInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func BounceInOut(t, b, c, d float32) float32 { func BounceInOut(t, b, c, d float32) float32 {
if t < d/2 { if t < d/2 {
return BounceIn(t*2, 0, c, d)*0.5 + b return BounceIn(t*2, 0, c, d)*0.5 + b
@ -225,6 +250,7 @@ func BounceInOut(t, b, c, d float32) float32 {
// Elastic Easing functions // Elastic Easing functions
// ElasticIn easing // ElasticIn easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ElasticIn(t, b, c, d float32) float32 { func ElasticIn(t, b, c, d float32) float32 {
if t == 0 { if t == 0 {
return b return b
@ -245,6 +271,7 @@ func ElasticIn(t, b, c, d float32) float32 {
} }
// ElasticOut easing // ElasticOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ElasticOut(t, b, c, d float32) float32 { func ElasticOut(t, b, c, d float32) float32 {
if t == 0 { if t == 0 {
return b return b
@ -264,6 +291,7 @@ func ElasticOut(t, b, c, d float32) float32 {
} }
// ElasticInOut easing // ElasticInOut easing
// t: current time, b: begInnIng value, c: change In value, d: duration
func ElasticInOut(t, b, c, d float32) float32 { func ElasticInOut(t, b, c, d float32) float32 {
if t == 0 { if t == 0 {
return b return b

84
examples/audio/module_playing/main.go
View file

@ -7,27 +7,27 @@ import (
const maxCircles = 64 const maxCircles = 64
type circleWave struct { type circleWave struct {
Position raylib.Vector2 Position rl.Vector2
Radius float32 Radius float32
Alpha float32 Alpha float32
Speed float32 Speed float32
Color raylib.Color Color rl.Color
} }
func main() { func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) // NOTE: Try to enable MSAA 4X rl.SetConfigFlags(rl.FlagMsaa4xHint) // NOTE: Try to enable MSAA 4X
raylib.InitWindow(screenWidth, screenHeight, "raylib [audio] example - module playing (streaming)") rl.InitWindow(screenWidth, screenHeight, "raylib [audio] example - module playing (streaming)")
raylib.InitAudioDevice() rl.InitAudioDevice()
colors := []raylib.Color{ colors := []rl.Color{
raylib.Orange, raylib.Red, raylib.Gold, raylib.Lime, raylib.Blue, rl.Orange, rl.Red, rl.Gold, rl.Lime, rl.Blue,
raylib.Violet, raylib.Brown, raylib.LightGray, raylib.Pink, rl.Violet, rl.Brown, rl.LightGray, rl.Pink,
raylib.Yellow, raylib.Green, raylib.SkyBlue, raylib.Purple, raylib.Beige, rl.Yellow, rl.Green, rl.SkyBlue, rl.Purple, rl.Beige,
} }
circles := make([]circleWave, maxCircles) circles := make([]circleWave, maxCircles)
@ -36,47 +36,47 @@ func main() {
c := circleWave{} c := circleWave{}
c.Alpha = 0 c.Alpha = 0
c.Radius = float32(raylib.GetRandomValue(10, 40)) c.Radius = float32(rl.GetRandomValue(10, 40))
x := raylib.GetRandomValue(int32(c.Radius), screenWidth-int32(c.Radius)) x := rl.GetRandomValue(int32(c.Radius), screenWidth-int32(c.Radius))
y := raylib.GetRandomValue(int32(c.Radius), screenHeight-int32(c.Radius)) y := rl.GetRandomValue(int32(c.Radius), screenHeight-int32(c.Radius))
c.Position = raylib.NewVector2(float32(x), float32(y)) c.Position = rl.NewVector2(float32(x), float32(y))
c.Speed = float32(raylib.GetRandomValue(1, 100)) / 20000.0 c.Speed = float32(rl.GetRandomValue(1, 100)) / 20000.0
c.Color = colors[raylib.GetRandomValue(0, int32(len(colors)-1))] c.Color = colors[rl.GetRandomValue(0, int32(len(colors)-1))]
circles[i] = c circles[i] = c
} }
xm := raylib.LoadMusicStream("mini1111.xm") xm := rl.LoadMusicStream("mini1111.xm")
raylib.PlayMusicStream(xm) rl.PlayMusicStream(xm)
pause := false pause := false
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateMusicStream(xm) // Update music buffer with new stream data rl.UpdateMusicStream(xm) // Update music buffer with new stream data
// Restart music playing (stop and play) // Restart music playing (stop and play)
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
raylib.StopMusicStream(xm) rl.StopMusicStream(xm)
raylib.PlayMusicStream(xm) rl.PlayMusicStream(xm)
} }
// Pause/Resume music playing // Pause/Resume music playing
if raylib.IsKeyPressed(raylib.KeyP) { if rl.IsKeyPressed(rl.KeyP) {
pause = !pause pause = !pause
if pause { if pause {
raylib.PauseMusicStream(xm) rl.PauseMusicStream(xm)
} else { } else {
raylib.ResumeMusicStream(xm) rl.ResumeMusicStream(xm)
} }
} }
// Get timePlayed scaled to bar dimensions // Get timePlayed scaled to bar dimensions
timePlayed := int32(raylib.GetMusicTimePlayed(xm)/raylib.GetMusicTimeLength(xm)*float32(screenWidth-40)) * 2 timePlayed := int32(rl.GetMusicTimePlayed(xm)/rl.GetMusicTimeLength(xm)*float32(screenWidth-40)) * 2
// Color circles animation // Color circles animation
for i := maxCircles - 1; (i >= 0) && !pause; i-- { for i := maxCircles - 1; (i >= 0) && !pause; i-- {
@ -89,33 +89,33 @@ func main() {
if circles[i].Alpha <= 0.0 { if circles[i].Alpha <= 0.0 {
circles[i].Alpha = 0.0 circles[i].Alpha = 0.0
circles[i].Radius = float32(raylib.GetRandomValue(10, 40)) circles[i].Radius = float32(rl.GetRandomValue(10, 40))
circles[i].Position.X = float32(raylib.GetRandomValue(int32(circles[i].Radius), screenWidth-int32(circles[i].Radius))) circles[i].Position.X = float32(rl.GetRandomValue(int32(circles[i].Radius), screenWidth-int32(circles[i].Radius)))
circles[i].Position.Y = float32(raylib.GetRandomValue(int32(circles[i].Radius), screenHeight-int32(circles[i].Radius))) circles[i].Position.Y = float32(rl.GetRandomValue(int32(circles[i].Radius), screenHeight-int32(circles[i].Radius)))
circles[i].Color = colors[raylib.GetRandomValue(0, 13)] circles[i].Color = colors[rl.GetRandomValue(0, 13)]
circles[i].Speed = float32(raylib.GetRandomValue(1, 100)) / 20000.0 circles[i].Speed = float32(rl.GetRandomValue(1, 100)) / 20000.0
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
for i := maxCircles - 1; i >= 0; i-- { for i := maxCircles - 1; i >= 0; i-- {
raylib.DrawCircleV(circles[i].Position, float32(circles[i].Radius), raylib.Fade(circles[i].Color, circles[i].Alpha)) rl.DrawCircleV(circles[i].Position, float32(circles[i].Radius), rl.Fade(circles[i].Color, circles[i].Alpha))
} }
// Draw time bar // Draw time bar
raylib.DrawRectangle(20, screenHeight-20-12, screenWidth-40, 12, raylib.LightGray) rl.DrawRectangle(20, screenHeight-20-12, screenWidth-40, 12, rl.LightGray)
raylib.DrawRectangle(20, screenHeight-20-12, timePlayed, 12, raylib.Maroon) rl.DrawRectangle(20, screenHeight-20-12, timePlayed, 12, rl.Maroon)
raylib.DrawRectangleLines(20, screenHeight-20-12, screenWidth-40, 12, raylib.Gray) rl.DrawRectangleLines(20, screenHeight-20-12, screenWidth-40, 12, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadMusicStream(xm) rl.UnloadMusicStream(xm)
raylib.CloseAudioDevice() rl.CloseAudioDevice()
raylib.CloseWindow() rl.CloseWindow()
} }

52
examples/audio/music_stream/main.go
View file

@ -5,56 +5,56 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [audio] example - music playing (streaming)") rl.InitWindow(800, 450, "raylib [audio] example - music playing (streaming)")
raylib.InitAudioDevice() rl.InitAudioDevice()
music := raylib.LoadMusicStream("guitar_noodling.ogg") music := rl.LoadMusicStream("guitar_noodling.ogg")
pause := false pause := false
raylib.PlayMusicStream(music) rl.PlayMusicStream(music)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateMusicStream(music) // Update music buffer with new stream data rl.UpdateMusicStream(music) // Update music buffer with new stream data
// Restart music playing (stop and play) // Restart music playing (stop and play)
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
raylib.StopMusicStream(music) rl.StopMusicStream(music)
raylib.PlayMusicStream(music) rl.PlayMusicStream(music)
} }
// Pause/Resume music playing // Pause/Resume music playing
if raylib.IsKeyPressed(raylib.KeyP) { if rl.IsKeyPressed(rl.KeyP) {
pause = !pause pause = !pause
if pause { if pause {
raylib.PauseMusicStream(music) rl.PauseMusicStream(music)
} else { } else {
raylib.ResumeMusicStream(music) rl.ResumeMusicStream(music)
} }
} }
// Get timePlayed scaled to bar dimensions (400 pixels) // Get timePlayed scaled to bar dimensions (400 pixels)
timePlayed := raylib.GetMusicTimePlayed(music) / raylib.GetMusicTimeLength(music) * 100 * 4 timePlayed := rl.GetMusicTimePlayed(music) / rl.GetMusicTimeLength(music) * 100 * 4
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("MUSIC SHOULD BE PLAYING!", 255, 150, 20, raylib.LightGray) rl.DrawText("MUSIC SHOULD BE PLAYING!", 255, 150, 20, rl.LightGray)
raylib.DrawRectangle(200, 200, 400, 12, raylib.LightGray) rl.DrawRectangle(200, 200, 400, 12, rl.LightGray)
raylib.DrawRectangle(200, 200, int32(timePlayed), 12, raylib.Maroon) rl.DrawRectangle(200, 200, int32(timePlayed), 12, rl.Maroon)
raylib.DrawRectangleLines(200, 200, 400, 12, raylib.Gray) rl.DrawRectangleLines(200, 200, 400, 12, rl.Gray)
raylib.DrawText("PRESS SPACE TO RESTART MUSIC", 215, 250, 20, raylib.LightGray) rl.DrawText("PRESS SPACE TO RESTART MUSIC", 215, 250, 20, rl.LightGray)
raylib.DrawText("PRESS P TO PAUSE/RESUME MUSIC", 208, 280, 20, raylib.LightGray) rl.DrawText("PRESS P TO PAUSE/RESUME MUSIC", 208, 280, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadMusicStream(music) // Unload music stream buffers from RAM rl.UnloadMusicStream(music) // Unload music stream buffers from RAM
raylib.CloseAudioDevice() // Close audio device (music streaming is automatically stopped) rl.CloseAudioDevice() // Close audio device (music streaming is automatically stopped)
raylib.CloseWindow() rl.CloseWindow()
} }

38
examples/audio/raw_stream/main.go
View file

@ -12,34 +12,34 @@ const (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [audio] example - raw audio streaming") rl.InitWindow(800, 450, "raylib [audio] example - raw audio streaming")
raylib.InitAudioDevice() rl.InitAudioDevice()
// Init raw audio stream (sample rate: 22050, sample size: 32bit-float, channels: 1-mono) // Init raw audio stream (sample rate: 22050, sample size: 32bit-float, channels: 1-mono)
stream := raylib.InitAudioStream(22050, 32, 1) stream := rl.InitAudioStream(22050, 32, 1)
//// Fill audio stream with some samples (sine wave) //// Fill audio stream with some samples (sine wave)
data := make([]float32, maxSamples) data := make([]float32, maxSamples)
for i := 0; i < maxSamples; i++ { for i := 0; i < maxSamples; i++ {
data[i] = float32(math.Sin(float64((2*raylib.Pi*float32(i))/2) * raylib.Deg2rad)) data[i] = float32(math.Sin(float64((2*rl.Pi*float32(i))/2) * rl.Deg2rad))
} }
// NOTE: The generated MAX_SAMPLES do not fit to close a perfect loop // NOTE: The generated MAX_SAMPLES do not fit to close a perfect loop
// for that reason, there is a clip everytime audio stream is looped // for that reason, there is a clip everytime audio stream is looped
raylib.PlayAudioStream(stream) rl.PlayAudioStream(stream)
totalSamples := int32(maxSamples) totalSamples := int32(maxSamples)
samplesLeft := int32(totalSamples) samplesLeft := int32(totalSamples)
position := raylib.NewVector2(0, 0) position := rl.NewVector2(0, 0)
raylib.SetTargetFPS(30) rl.SetTargetFPS(30)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Refill audio stream if required // Refill audio stream if required
if raylib.IsAudioBufferProcessed(stream) { if rl.IsAudioBufferProcessed(stream) {
numSamples := int32(0) numSamples := int32(0)
if samplesLeft >= maxSamplesPerUpdate { if samplesLeft >= maxSamplesPerUpdate {
numSamples = maxSamplesPerUpdate numSamples = maxSamplesPerUpdate
@ -47,7 +47,7 @@ func main() {
numSamples = samplesLeft numSamples = samplesLeft
} }
raylib.UpdateAudioStream(stream, data[totalSamples-samplesLeft:], numSamples) rl.UpdateAudioStream(stream, data[totalSamples-samplesLeft:], numSamples)
samplesLeft -= numSamples samplesLeft -= numSamples
@ -57,25 +57,25 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("SINE WAVE SHOULD BE PLAYING!", 240, 140, 20, raylib.LightGray) rl.DrawText("SINE WAVE SHOULD BE PLAYING!", 240, 140, 20, rl.LightGray)
// NOTE: Draw a part of the sine wave (only screen width) // NOTE: Draw a part of the sine wave (only screen width)
for i := 0; i < int(raylib.GetScreenWidth()); i++ { for i := 0; i < int(rl.GetScreenWidth()); i++ {
position.X = float32(i) position.X = float32(i)
position.Y = 250 + 50*data[i] position.Y = 250 + 50*data[i]
raylib.DrawPixelV(position, raylib.Red) rl.DrawPixelV(position, rl.Red)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseAudioStream(stream) // Close raw audio stream and delete buffers from RAM rl.CloseAudioStream(stream) // Close raw audio stream and delete buffers from RAM
raylib.CloseAudioDevice() // Close audio device (music streaming is automatically stopped) rl.CloseAudioDevice() // Close audio device (music streaming is automatically stopped)
raylib.CloseWindow() rl.CloseWindow()
} }

38
examples/audio/sound_loading/main.go
View file

@ -5,37 +5,37 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [audio] example - sound loading and playing") rl.InitWindow(800, 450, "raylib [audio] example - sound loading and playing")
raylib.InitAudioDevice() rl.InitAudioDevice()
fxWav := raylib.LoadSound("weird.wav") fxWav := rl.LoadSound("weird.wav")
fxOgg := raylib.LoadSound("tanatana.ogg") fxOgg := rl.LoadSound("tanatana.ogg")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
raylib.PlaySound(fxWav) rl.PlaySound(fxWav)
} }
if raylib.IsKeyPressed(raylib.KeyEnter) { if rl.IsKeyPressed(rl.KeyEnter) {
raylib.PlaySound(fxOgg) rl.PlaySound(fxOgg)
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Press SPACE to PLAY the WAV sound!", 200, 180, 20, raylib.LightGray) rl.DrawText("Press SPACE to PLAY the WAV sound!", 200, 180, 20, rl.LightGray)
raylib.DrawText("Press ENTER to PLAY the OGG sound!", 200, 220, 20, raylib.LightGray) rl.DrawText("Press ENTER to PLAY the OGG sound!", 200, 220, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadSound(fxWav) rl.UnloadSound(fxWav)
raylib.UnloadSound(fxOgg) rl.UnloadSound(fxOgg)
raylib.CloseAudioDevice() rl.CloseAudioDevice()
raylib.CloseWindow() rl.CloseWindow()
} }

86
examples/core/2d_camera/main.go
View file

@ -12,54 +12,54 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - 2d camera") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - 2d camera")
player := raylib.NewRectangle(400, 280, 40, 40) player := rl.NewRectangle(400, 280, 40, 40)
buildings := make([]raylib.Rectangle, maxBuildings) buildings := make([]rl.Rectangle, maxBuildings)
buildColors := make([]raylib.Color, maxBuildings) buildColors := make([]rl.Color, maxBuildings)
spacing := float32(0) spacing := float32(0)
for i := 0; i < maxBuildings; i++ { for i := 0; i < maxBuildings; i++ {
r := raylib.Rectangle{} r := rl.Rectangle{}
r.Width = float32(raylib.GetRandomValue(50, 200)) r.Width = float32(rl.GetRandomValue(50, 200))
r.Height = float32(raylib.GetRandomValue(100, 800)) r.Height = float32(rl.GetRandomValue(100, 800))
r.Y = float32(screenHeight) - 130 - r.Height r.Y = float32(screenHeight) - 130 - r.Height
r.X = -6000 + spacing r.X = -6000 + spacing
spacing += r.Width spacing += r.Width
c := raylib.NewColor(byte(raylib.GetRandomValue(200, 240)), byte(raylib.GetRandomValue(200, 240)), byte(raylib.GetRandomValue(200, 250)), byte(255)) c := rl.NewColor(byte(rl.GetRandomValue(200, 240)), byte(rl.GetRandomValue(200, 240)), byte(rl.GetRandomValue(200, 250)), byte(255))
buildings[i] = r buildings[i] = r
buildColors[i] = c buildColors[i] = c
} }
camera := raylib.Camera2D{} camera := rl.Camera2D{}
camera.Target = raylib.NewVector2(float32(player.X+20), float32(player.Y+20)) camera.Target = rl.NewVector2(float32(player.X+20), float32(player.Y+20))
camera.Offset = raylib.NewVector2(0, 0) camera.Offset = rl.NewVector2(0, 0)
camera.Rotation = 0.0 camera.Rotation = 0.0
camera.Zoom = 1.0 camera.Zoom = 1.0
raylib.SetTargetFPS(30) rl.SetTargetFPS(30)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyDown(raylib.KeyRight) { if rl.IsKeyDown(rl.KeyRight) {
player.X += 2 // Player movement player.X += 2 // Player movement
camera.Offset.X -= 2 // Camera displacement with player movement camera.Offset.X -= 2 // Camera displacement with player movement
} else if raylib.IsKeyDown(raylib.KeyLeft) { } else if rl.IsKeyDown(rl.KeyLeft) {
player.X -= 2 // Player movement player.X -= 2 // Player movement
camera.Offset.X += 2 // Camera displacement with player movement camera.Offset.X += 2 // Camera displacement with player movement
} }
// Camera target follows player // Camera target follows player
camera.Target = raylib.NewVector2(float32(player.X+20), float32(player.Y+20)) camera.Target = rl.NewVector2(float32(player.X+20), float32(player.Y+20))
// Camera rotation controls // Camera rotation controls
if raylib.IsKeyDown(raylib.KeyA) { if rl.IsKeyDown(rl.KeyA) {
camera.Rotation-- camera.Rotation--
} else if raylib.IsKeyDown(raylib.KeyS) { } else if rl.IsKeyDown(rl.KeyS) {
camera.Rotation++ camera.Rotation++
} }
@ -71,7 +71,7 @@ func main() {
} }
// Camera zoom controls // Camera zoom controls
camera.Zoom += float32(raylib.GetMouseWheelMove()) * 0.05 camera.Zoom += float32(rl.GetMouseWheelMove()) * 0.05
if camera.Zoom > 3.0 { if camera.Zoom > 3.0 {
camera.Zoom = 3.0 camera.Zoom = 3.0
@ -80,48 +80,48 @@ func main() {
} }
// Camera reset (zoom and rotation) // Camera reset (zoom and rotation)
if raylib.IsKeyPressed(raylib.KeyR) { if rl.IsKeyPressed(rl.KeyR) {
camera.Zoom = 1.0 camera.Zoom = 1.0
camera.Rotation = 0.0 camera.Rotation = 0.0
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode2D(camera) rl.BeginMode2D(camera)
raylib.DrawRectangle(-6000, 320, 13000, 8000, raylib.DarkGray) rl.DrawRectangle(-6000, 320, 13000, 8000, rl.DarkGray)
for i := 0; i < maxBuildings; i++ { for i := 0; i < maxBuildings; i++ {
raylib.DrawRectangleRec(buildings[i], buildColors[i]) rl.DrawRectangleRec(buildings[i], buildColors[i])
} }
raylib.DrawRectangleRec(player, raylib.Red) rl.DrawRectangleRec(player, rl.Red)
raylib.DrawRectangle(int32(camera.Target.X), -500, 1, screenHeight*4, raylib.Green) rl.DrawRectangle(int32(camera.Target.X), -500, 1, screenHeight*4, rl.Green)
raylib.DrawRectangle(-500, int32(camera.Target.Y), screenWidth*4, 1, raylib.Green) rl.DrawRectangle(-500, int32(camera.Target.Y), screenWidth*4, 1, rl.Green)
raylib.EndMode2D() rl.EndMode2D()
raylib.DrawText("SCREEN AREA", 640, 10, 20, raylib.Red) rl.DrawText("SCREEN AREA", 640, 10, 20, rl.Red)
raylib.DrawRectangle(0, 0, screenWidth, 5, raylib.Red) rl.DrawRectangle(0, 0, screenWidth, 5, rl.Red)
raylib.DrawRectangle(0, 5, 5, screenHeight-10, raylib.Red) rl.DrawRectangle(0, 5, 5, screenHeight-10, rl.Red)
raylib.DrawRectangle(screenWidth-5, 5, 5, screenHeight-10, raylib.Red) rl.DrawRectangle(screenWidth-5, 5, 5, screenHeight-10, rl.Red)
raylib.DrawRectangle(0, screenHeight-5, screenWidth, 5, raylib.Red) rl.DrawRectangle(0, screenHeight-5, screenWidth, 5, rl.Red)
raylib.DrawRectangle(10, 10, 250, 113, raylib.Fade(raylib.SkyBlue, 0.5)) rl.DrawRectangle(10, 10, 250, 113, rl.Fade(rl.SkyBlue, 0.5))
raylib.DrawRectangleLines(10, 10, 250, 113, raylib.Blue) rl.DrawRectangleLines(10, 10, 250, 113, rl.Blue)
raylib.DrawText("Free 2d camera controls:", 20, 20, 10, raylib.Black) rl.DrawText("Free 2d camera controls:", 20, 20, 10, rl.Black)
raylib.DrawText("- Right/Left to move Offset", 40, 40, 10, raylib.DarkGray) rl.DrawText("- Right/Left to move Offset", 40, 40, 10, rl.DarkGray)
raylib.DrawText("- Mouse Wheel to Zoom in-out", 40, 60, 10, raylib.DarkGray) rl.DrawText("- Mouse Wheel to Zoom in-out", 40, 60, 10, rl.DarkGray)
raylib.DrawText("- A / S to Rotate", 40, 80, 10, raylib.DarkGray) rl.DrawText("- A / S to Rotate", 40, 80, 10, rl.DarkGray)
raylib.DrawText("- R to reset Zoom and Rotation", 40, 100, 10, raylib.DarkGray) rl.DrawText("- R to reset Zoom and Rotation", 40, 100, 10, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

64
examples/core/3d_camera_first_person/main.go
View file

@ -9,61 +9,61 @@ const (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - 3d camera first person") rl.InitWindow(800, 450, "raylib [core] example - 3d camera first person")
camera := raylib.Camera3D{} camera := rl.Camera3D{}
camera.Position = raylib.NewVector3(4.0, 2.0, 4.0) camera.Position = rl.NewVector3(4.0, 2.0, 4.0)
camera.Target = raylib.NewVector3(0.0, 1.8, 0.0) camera.Target = rl.NewVector3(0.0, 1.8, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 60.0 camera.Fovy = 60.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
// Generates some random columns // Generates some random columns
heights := make([]float32, maxColumns) heights := make([]float32, maxColumns)
positions := make([]raylib.Vector3, maxColumns) positions := make([]rl.Vector3, maxColumns)
colors := make([]raylib.Color, maxColumns) colors := make([]rl.Color, maxColumns)
for i := 0; i < maxColumns; i++ { for i := 0; i < maxColumns; i++ {
heights[i] = float32(raylib.GetRandomValue(1, 12)) heights[i] = float32(rl.GetRandomValue(1, 12))
positions[i] = raylib.NewVector3(float32(raylib.GetRandomValue(-15, 15)), heights[i]/2, float32(raylib.GetRandomValue(-15, 15))) positions[i] = rl.NewVector3(float32(rl.GetRandomValue(-15, 15)), heights[i]/2, float32(rl.GetRandomValue(-15, 15)))
colors[i] = raylib.NewColor(uint8(raylib.GetRandomValue(20, 255)), uint8(raylib.GetRandomValue(10, 55)), 30, 255) colors[i] = rl.NewColor(uint8(rl.GetRandomValue(20, 255)), uint8(rl.GetRandomValue(10, 55)), 30, 255)
} }
raylib.SetCameraMode(camera, raylib.CameraFirstPerson) // Set a first person camera mode rl.SetCameraMode(camera, rl.CameraFirstPerson) // Set a first person camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawPlane(raylib.NewVector3(0.0, 0.0, 0.0), raylib.NewVector2(32.0, 32.0), raylib.LightGray) // Draw ground rl.DrawPlane(rl.NewVector3(0.0, 0.0, 0.0), rl.NewVector2(32.0, 32.0), rl.LightGray) // Draw ground
raylib.DrawCube(raylib.NewVector3(-16.0, 2.5, 0.0), 1.0, 5.0, 32.0, raylib.Blue) // Draw a blue wall rl.DrawCube(rl.NewVector3(-16.0, 2.5, 0.0), 1.0, 5.0, 32.0, rl.Blue) // Draw a blue wall
raylib.DrawCube(raylib.NewVector3(16.0, 2.5, 0.0), 1.0, 5.0, 32.0, raylib.Lime) // Draw a green wall rl.DrawCube(rl.NewVector3(16.0, 2.5, 0.0), 1.0, 5.0, 32.0, rl.Lime) // Draw a green wall
raylib.DrawCube(raylib.NewVector3(0.0, 2.5, 16.0), 32.0, 5.0, 1.0, raylib.Gold) // Draw a yellow wall rl.DrawCube(rl.NewVector3(0.0, 2.5, 16.0), 32.0, 5.0, 1.0, rl.Gold) // Draw a yellow wall
// Draw some cubes around // Draw some cubes around
for i := 0; i < maxColumns; i++ { for i := 0; i < maxColumns; i++ {
raylib.DrawCube(positions[i], 2.0, heights[i], 2.0, colors[i]) rl.DrawCube(positions[i], 2.0, heights[i], 2.0, colors[i])
raylib.DrawCubeWires(positions[i], 2.0, heights[i], 2.0, raylib.Maroon) rl.DrawCubeWires(positions[i], 2.0, heights[i], 2.0, rl.Maroon)
} }
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawRectangle(10, 10, 220, 70, raylib.Fade(raylib.SkyBlue, 0.5)) rl.DrawRectangle(10, 10, 220, 70, rl.Fade(rl.SkyBlue, 0.5))
raylib.DrawRectangleLines(10, 10, 220, 70, raylib.Blue) rl.DrawRectangleLines(10, 10, 220, 70, rl.Blue)
raylib.DrawText("First person camera default controls:", 20, 20, 10, raylib.Black) rl.DrawText("First person camera default controls:", 20, 20, 10, rl.Black)
raylib.DrawText("- Move with keys: W, A, S, D", 40, 40, 10, raylib.DarkGray) rl.DrawText("- Move with keys: W, A, S, D", 40, 40, 10, rl.DarkGray)
raylib.DrawText("- Mouse move to look around", 40, 60, 10, raylib.DarkGray) rl.DrawText("- Mouse move to look around", 40, 60, 10, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

60
examples/core/3d_camera_free/main.go
View file

@ -5,53 +5,53 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - 3d camera free") rl.InitWindow(800, 450, "raylib [core] example - 3d camera free")
camera := raylib.Camera3D{} camera := rl.Camera3D{}
camera.Position = raylib.NewVector3(10.0, 10.0, 10.0) camera.Position = rl.NewVector3(10.0, 10.0, 10.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
cubePosition := raylib.NewVector3(0.0, 0.0, 0.0) cubePosition := rl.NewVector3(0.0, 0.0, 0.0)
raylib.SetCameraMode(camera, raylib.CameraFree) // Set a free camera mode rl.SetCameraMode(camera, rl.CameraFree) // Set a free camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
if raylib.IsKeyDown(raylib.KeyZ) { if rl.IsKeyDown(rl.KeyZ) {
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawCube(cubePosition, 2.0, 2.0, 2.0, raylib.Red) rl.DrawCube(cubePosition, 2.0, 2.0, 2.0, rl.Red)
raylib.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, raylib.Maroon) rl.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, rl.Maroon)
raylib.DrawGrid(10, 1.0) rl.DrawGrid(10, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawRectangle(10, 10, 320, 133, raylib.Fade(raylib.SkyBlue, 0.5)) rl.DrawRectangle(10, 10, 320, 133, rl.Fade(rl.SkyBlue, 0.5))
raylib.DrawRectangleLines(10, 10, 320, 133, raylib.Blue) rl.DrawRectangleLines(10, 10, 320, 133, rl.Blue)
raylib.DrawText("Free camera default controls:", 20, 20, 10, raylib.Black) rl.DrawText("Free camera default controls:", 20, 20, 10, rl.Black)
raylib.DrawText("- Mouse Wheel to Zoom in-out", 40, 40, 10, raylib.DarkGray) rl.DrawText("- Mouse Wheel to Zoom in-out", 40, 40, 10, rl.DarkGray)
raylib.DrawText("- Mouse Wheel Pressed to Pan", 40, 60, 10, raylib.DarkGray) rl.DrawText("- Mouse Wheel Pressed to Pan", 40, 60, 10, rl.DarkGray)
raylib.DrawText("- Alt + Mouse Wheel Pressed to Rotate", 40, 80, 10, raylib.DarkGray) rl.DrawText("- Alt + Mouse Wheel Pressed to Rotate", 40, 80, 10, rl.DarkGray)
raylib.DrawText("- Alt + Ctrl + Mouse Wheel Pressed for Smooth Zoom", 40, 100, 10, raylib.DarkGray) rl.DrawText("- Alt + Ctrl + Mouse Wheel Pressed for Smooth Zoom", 40, 100, 10, rl.DarkGray)
raylib.DrawText("- Z to zoom to (0, 0, 0)", 40, 120, 10, raylib.DarkGray) rl.DrawText("- Z to zoom to (0, 0, 0)", 40, 120, 10, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

40
examples/core/3d_mode/main.go
View file

@ -5,39 +5,39 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - 3d mode") rl.InitWindow(800, 450, "raylib [core] example - 3d mode")
camera := raylib.Camera3D{} camera := rl.Camera3D{}
camera.Position = raylib.NewVector3(0.0, 10.0, 10.0) camera.Position = rl.NewVector3(0.0, 10.0, 10.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
cubePosition := raylib.NewVector3(0.0, 0.0, 0.0) cubePosition := rl.NewVector3(0.0, 0.0, 0.0)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawCube(cubePosition, 2.0, 2.0, 2.0, raylib.Red) rl.DrawCube(cubePosition, 2.0, 2.0, 2.0, rl.Red)
raylib.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, raylib.Maroon) rl.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, rl.Maroon)
raylib.DrawGrid(10, 1.0) rl.DrawGrid(10, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("Welcome to the third dimension!", 10, 40, 20, raylib.DarkGray) rl.DrawText("Welcome to the third dimension!", 10, 40, 20, rl.DarkGray)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

69
examples/core/3d_picking/main.go
View file

@ -8,70 +8,71 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - 3d picking") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - 3d picking")
camera := raylib.Camera3D{} camera := rl.Camera3D{}
camera.Position = raylib.NewVector3(10.0, 10.0, 10.0) camera.Position = rl.NewVector3(10.0, 10.0, 10.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
cubePosition := raylib.NewVector3(0.0, 1.0, 0.0) cubePosition := rl.NewVector3(0.0, 1.0, 0.0)
cubeSize := raylib.NewVector3(2.0, 2.0, 2.0) cubeSize := rl.NewVector3(2.0, 2.0, 2.0)
var ray raylib.Ray var ray rl.Ray
collision := false collision := false
raylib.SetCameraMode(camera, raylib.CameraFree) // Set a free camera mode rl.SetCameraMode(camera, rl.CameraFree) // Set a free camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
ray = raylib.GetMouseRay(raylib.GetMousePosition(), camera) // NOTE: This function is NOT WORKING properly!
ray = rl.GetMouseRay(rl.GetMousePosition(), camera)
// Check collision between ray and box // Check collision between ray and box
min := raylib.NewVector3(cubePosition.X-cubeSize.X/2, cubePosition.Y-cubeSize.Y/2, cubePosition.Z-cubeSize.Z/2) min := rl.NewVector3(cubePosition.X-cubeSize.X/2, cubePosition.Y-cubeSize.Y/2, cubePosition.Z-cubeSize.Z/2)
max := raylib.NewVector3(cubePosition.X+cubeSize.X/2, cubePosition.Y+cubeSize.Y/2, cubePosition.Z+cubeSize.Z/2) max := rl.NewVector3(cubePosition.X+cubeSize.X/2, cubePosition.Y+cubeSize.Y/2, cubePosition.Z+cubeSize.Z/2)
collision = raylib.CheckCollisionRayBox(ray, raylib.NewBoundingBox(min, max)) collision = rl.CheckCollisionRayBox(ray, rl.NewBoundingBox(min, max))
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
if collision { if collision {
raylib.DrawCube(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, raylib.Red) rl.DrawCube(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, rl.Red)
raylib.DrawCubeWires(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, raylib.Maroon) rl.DrawCubeWires(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, rl.Maroon)
raylib.DrawCubeWires(cubePosition, cubeSize.X+0.2, cubeSize.Y+0.2, cubeSize.Z+0.2, raylib.Green) rl.DrawCubeWires(cubePosition, cubeSize.X+0.2, cubeSize.Y+0.2, cubeSize.Z+0.2, rl.Green)
} else { } else {
raylib.DrawCube(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, raylib.Gray) rl.DrawCube(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, rl.Gray)
raylib.DrawCubeWires(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, raylib.DarkGray) rl.DrawCubeWires(cubePosition, cubeSize.X, cubeSize.Y, cubeSize.Z, rl.DarkGray)
} }
raylib.DrawRay(ray, raylib.Maroon) rl.DrawRay(ray, rl.Maroon)
raylib.DrawGrid(10, 1.0) rl.DrawGrid(10, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("Try selecting the box with mouse!", 240, 10, 20, raylib.DarkGray) rl.DrawText("Try selecting the box with mouse!", 240, 10, 20, rl.DarkGray)
if collision { if collision {
raylib.DrawText("BOX SELECTED", (screenWidth-raylib.MeasureText("BOX SELECTED", 30))/2, int32(float32(screenHeight)*0.1), 30, raylib.Green) rl.DrawText("BOX SELECTED", (screenWidth-rl.MeasureText("BOX SELECTED", 30))/2, int32(float32(screenHeight)*0.1), 30, rl.Green)
} }
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

18
examples/core/basic_window/main.go
View file

@ -3,20 +3,20 @@ package main
import "github.com/gen2brain/raylib-go/raylib" import "github.com/gen2brain/raylib-go/raylib"
func main() { func main() {
raylib.SetConfigFlags(raylib.FlagVsyncHint) rl.SetConfigFlags(rl.FlagVsyncHint)
raylib.InitWindow(800, 450, "raylib [core] example - basic window") rl.InitWindow(800, 450, "raylib [core] example - basic window")
//raylib.SetTargetFPS(60) //rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Congrats! You created your first window!", 190, 200, 20, raylib.LightGray) rl.DrawText("Congrats! You created your first window!", 190, 200, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

44
examples/core/color_select/main.go
View file

@ -5,19 +5,19 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - color selection (collision detection)") rl.InitWindow(800, 450, "raylib [core] example - color selection (collision detection)")
colors := [21]raylib.Color{ colors := [21]rl.Color{
raylib.DarkGray, raylib.Maroon, raylib.Orange, raylib.DarkGreen, raylib.DarkBlue, raylib.DarkPurple, rl.DarkGray, rl.Maroon, rl.Orange, rl.DarkGreen, rl.DarkBlue, rl.DarkPurple,
raylib.DarkBrown, raylib.Gray, raylib.Red, raylib.Gold, raylib.Lime, raylib.Blue, raylib.Violet, raylib.Brown, rl.DarkBrown, rl.Gray, rl.Red, rl.Gold, rl.Lime, rl.Blue, rl.Violet, rl.Brown,
raylib.LightGray, raylib.Pink, raylib.Yellow, raylib.Green, raylib.SkyBlue, raylib.Purple, raylib.Beige, rl.LightGray, rl.Pink, rl.Yellow, rl.Green, rl.SkyBlue, rl.Purple, rl.Beige,
} }
colorsRecs := make([]raylib.Rectangle, 21) // Rectangles array colorsRecs := make([]rl.Rectangle, 21) // Rectangles array
// Fills colorsRecs data (for every rectangle) // Fills colorsRecs data (for every rectangle)
for i := 0; i < 21; i++ { for i := 0; i < 21; i++ {
r := raylib.Rectangle{} r := rl.Rectangle{}
r.X = float32(20 + 100*(i%7) + 10*(i%7)) r.X = float32(20 + 100*(i%7) + 10*(i%7))
r.Y = float32(60 + 100*(i/7) + 10*(i/7)) r.Y = float32(60 + 100*(i/7) + 10*(i/7))
r.Width = 100 r.Width = 100
@ -28,18 +28,18 @@ func main() {
selected := make([]bool, 21) // Selected rectangles indicator selected := make([]bool, 21) // Selected rectangles indicator
mousePoint := raylib.Vector2{} mousePoint := rl.Vector2{}
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
mousePoint = raylib.GetMousePosition() mousePoint = rl.GetMousePosition()
for i := 0; i < 21; i++ { // Iterate along all the rectangles for i := 0; i < 21; i++ { // Iterate along all the rectangles
if raylib.CheckCollisionPointRec(mousePoint, colorsRecs[i]) { if rl.CheckCollisionPointRec(mousePoint, colorsRecs[i]) {
colors[i].A = 120 colors[i].A = 120
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
selected[i] = !selected[i] selected[i] = !selected[i]
} }
} else { } else {
@ -47,24 +47,24 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
for i := 0; i < 21; i++ { // Draw all rectangles for i := 0; i < 21; i++ { // Draw all rectangles
raylib.DrawRectangleRec(colorsRecs[i], colors[i]) rl.DrawRectangleRec(colorsRecs[i], colors[i])
// Draw four rectangles around selected rectangle // Draw four rectangles around selected rectangle
if selected[i] { if selected[i] {
raylib.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y), 100, 10, raylib.RayWhite) // Square top rectangle rl.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y), 100, 10, rl.RayWhite) // Square top rectangle
raylib.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y), 10, 100, raylib.RayWhite) // Square left rectangle rl.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y), 10, 100, rl.RayWhite) // Square left rectangle
raylib.DrawRectangle(int32(colorsRecs[i].X+90), int32(colorsRecs[i].Y), 10, 100, raylib.RayWhite) // Square right rectangle rl.DrawRectangle(int32(colorsRecs[i].X+90), int32(colorsRecs[i].Y), 10, 100, rl.RayWhite) // Square right rectangle
raylib.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y)+90, 100, 10, raylib.RayWhite) // Square bottom rectangle rl.DrawRectangle(int32(colorsRecs[i].X), int32(colorsRecs[i].Y)+90, 100, 10, rl.RayWhite) // Square bottom rectangle
} }
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

32
examples/core/drop_files/main.go
View file

@ -8,43 +8,43 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - drop files") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - drop files")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
count := int32(0) count := int32(0)
var droppedFiles []string var droppedFiles []string
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsFileDropped() { if rl.IsFileDropped() {
droppedFiles = raylib.GetDroppedFiles(&count) droppedFiles = rl.GetDroppedFiles(&count)
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
if count == 0 { if count == 0 {
raylib.DrawText("Drop your files to this window!", 100, 40, 20, raylib.DarkGray) rl.DrawText("Drop your files to this window!", 100, 40, 20, rl.DarkGray)
} else { } else {
raylib.DrawText("Dropped files:", 100, 40, 20, raylib.DarkGray) rl.DrawText("Dropped files:", 100, 40, 20, rl.DarkGray)
for i := int32(0); i < count; i++ { for i := int32(0); i < count; i++ {
if i%2 == 0 { if i%2 == 0 {
raylib.DrawRectangle(0, int32(85+40*i), screenWidth, 40, raylib.Fade(raylib.LightGray, 0.5)) rl.DrawRectangle(0, int32(85+40*i), screenWidth, 40, rl.Fade(rl.LightGray, 0.5))
} else { } else {
raylib.DrawRectangle(0, int32(85+40*i), screenWidth, 40, raylib.Fade(raylib.LightGray, 0.3)) rl.DrawRectangle(0, int32(85+40*i), screenWidth, 40, rl.Fade(rl.LightGray, 0.3))
} }
raylib.DrawText(droppedFiles[i], 120, int32(100+i*40), 10, raylib.Gray) rl.DrawText(droppedFiles[i], 120, int32(100), 10, rl.Gray)
} }
raylib.DrawText("Drop new files...", 100, int32(150+count*40), 20, raylib.DarkGray) rl.DrawText("Drop new files...", 100, int32(150), 20, rl.DarkGray)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.ClearDroppedFiles() rl.ClearDroppedFiles()
raylib.CloseWindow() rl.CloseWindow()
} }

72
examples/core/gestures_detection/main.go
View file

@ -12,47 +12,47 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - gestures detection") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - gestures detection")
touchPosition := raylib.NewVector2(0, 0) touchPosition := rl.NewVector2(0, 0)
touchArea := raylib.NewRectangle(220, 10, float32(screenWidth)-230, float32(screenHeight)-20) touchArea := rl.NewRectangle(220, 10, float32(screenWidth)-230, float32(screenHeight)-20)
gestureStrings := make([]string, 0) gestureStrings := make([]string, 0)
currentGesture := raylib.GestureNone currentGesture := rl.GestureNone
lastGesture := raylib.GestureNone lastGesture := rl.GestureNone
//raylib.SetGesturesEnabled(uint32(raylib.GestureHold | raylib.GestureDrag)) // Enable only some gestures to be detected //rl.SetGesturesEnabled(uint32(rl.GestureHold | rl.GestureDrag)) // Enable only some gestures to be detected
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
lastGesture = currentGesture lastGesture = currentGesture
currentGesture = raylib.GetGestureDetected() currentGesture = rl.GetGestureDetected()
touchPosition = raylib.GetTouchPosition(0) touchPosition = rl.GetTouchPosition(0)
if raylib.CheckCollisionPointRec(touchPosition, touchArea) && currentGesture != raylib.GestureNone { if rl.CheckCollisionPointRec(touchPosition, touchArea) && currentGesture != rl.GestureNone {
if currentGesture != lastGesture { if currentGesture != lastGesture {
switch currentGesture { switch currentGesture {
case raylib.GestureTap: case rl.GestureTap:
gestureStrings = append(gestureStrings, "GESTURE TAP") gestureStrings = append(gestureStrings, "GESTURE TAP")
case raylib.GestureDoubletap: case rl.GestureDoubletap:
gestureStrings = append(gestureStrings, "GESTURE DOUBLETAP") gestureStrings = append(gestureStrings, "GESTURE DOUBLETAP")
case raylib.GestureHold: case rl.GestureHold:
gestureStrings = append(gestureStrings, "GESTURE HOLD") gestureStrings = append(gestureStrings, "GESTURE HOLD")
case raylib.GestureDrag: case rl.GestureDrag:
gestureStrings = append(gestureStrings, "GESTURE DRAG") gestureStrings = append(gestureStrings, "GESTURE DRAG")
case raylib.GestureSwipeRight: case rl.GestureSwipeRight:
gestureStrings = append(gestureStrings, "GESTURE SWIPE RIGHT") gestureStrings = append(gestureStrings, "GESTURE SWIPE RIGHT")
case raylib.GestureSwipeLeft: case rl.GestureSwipeLeft:
gestureStrings = append(gestureStrings, "GESTURE SWIPE LEFT") gestureStrings = append(gestureStrings, "GESTURE SWIPE LEFT")
case raylib.GestureSwipeUp: case rl.GestureSwipeUp:
gestureStrings = append(gestureStrings, "GESTURE SWIPE UP") gestureStrings = append(gestureStrings, "GESTURE SWIPE UP")
case raylib.GestureSwipeDown: case rl.GestureSwipeDown:
gestureStrings = append(gestureStrings, "GESTURE SWIPE DOWN") gestureStrings = append(gestureStrings, "GESTURE SWIPE DOWN")
case raylib.GesturePinchIn: case rl.GesturePinchIn:
gestureStrings = append(gestureStrings, "GESTURE PINCH IN") gestureStrings = append(gestureStrings, "GESTURE PINCH IN")
case raylib.GesturePinchOut: case rl.GesturePinchOut:
gestureStrings = append(gestureStrings, "GESTURE PINCH OUT") gestureStrings = append(gestureStrings, "GESTURE PINCH OUT")
} }
@ -62,38 +62,38 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawRectangleRec(touchArea, raylib.Gray) rl.DrawRectangleRec(touchArea, rl.Gray)
raylib.DrawRectangle(225, 15, screenWidth-240, screenHeight-30, raylib.RayWhite) rl.DrawRectangle(225, 15, screenWidth-240, screenHeight-30, rl.RayWhite)
raylib.DrawText("GESTURES TEST AREA", screenWidth-270, screenHeight-40, 20, raylib.Fade(raylib.Gray, 0.5)) rl.DrawText("GESTURES TEST AREA", screenWidth-270, screenHeight-40, 20, rl.Fade(rl.Gray, 0.5))
for i := 0; i < len(gestureStrings); i++ { for i := 0; i < len(gestureStrings); i++ {
if i%2 == 0 { if i%2 == 0 {
raylib.DrawRectangle(10, int32(30+20*i), 200, 20, raylib.Fade(raylib.LightGray, 0.5)) rl.DrawRectangle(10, int32(30+20*i), 200, 20, rl.Fade(rl.LightGray, 0.5))
} else { } else {
raylib.DrawRectangle(10, int32(30+20*i), 200, 20, raylib.Fade(raylib.LightGray, 0.3)) rl.DrawRectangle(10, int32(30+20*i), 200, 20, rl.Fade(rl.LightGray, 0.3))
} }
if i < len(gestureStrings)-1 { if i < len(gestureStrings)-1 {
raylib.DrawText(gestureStrings[i], 35, int32(36+20*i), 10, raylib.DarkGray) rl.DrawText(gestureStrings[i], 35, int32(36+20*i), 10, rl.DarkGray)
} else { } else {
raylib.DrawText(gestureStrings[i], 35, int32(36+20*i), 10, raylib.Maroon) rl.DrawText(gestureStrings[i], 35, int32(36+20*i), 10, rl.Maroon)
} }
} }
raylib.DrawRectangleLines(10, 29, 200, screenHeight-50, raylib.Gray) rl.DrawRectangleLines(10, 29, 200, screenHeight-50, rl.Gray)
raylib.DrawText("DETECTED GESTURES", 50, 15, 10, raylib.Gray) rl.DrawText("DETECTED GESTURES", 50, 15, 10, rl.Gray)
if currentGesture != raylib.GestureNone { if currentGesture != rl.GestureNone {
raylib.DrawCircleV(touchPosition, 30, raylib.Maroon) rl.DrawCircleV(touchPosition, 30, rl.Maroon)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

214
examples/core/input_gamepad/main.go
View file

@ -12,190 +12,190 @@ const (
) )
func main() { func main() {
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) // Set MSAA 4X hint before windows creation rl.SetConfigFlags(rl.FlagMsaa4xHint) // Set MSAA 4X hint before windows creation
raylib.InitWindow(800, 450, "raylib [core] example - gamepad input") rl.InitWindow(800, 450, "raylib [core] example - gamepad input")
texPs3Pad := raylib.LoadTexture("ps3.png") texPs3Pad := rl.LoadTexture("ps3.png")
texXboxPad := raylib.LoadTexture("xbox.png") texXboxPad := rl.LoadTexture("xbox.png")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
if raylib.IsGamepadAvailable(raylib.GamepadPlayer1) { if rl.IsGamepadAvailable(rl.GamepadPlayer1) {
raylib.DrawText(fmt.Sprintf("GP1: %s", raylib.GetGamepadName(raylib.GamepadPlayer1)), 10, 10, 10, raylib.Black) rl.DrawText(fmt.Sprintf("GP1: %s", rl.GetGamepadName(rl.GamepadPlayer1)), 10, 10, 10, rl.Black)
if raylib.IsGamepadName(raylib.GamepadPlayer1, xbox360NameID) { if rl.IsGamepadName(rl.GamepadPlayer1, xbox360NameID) {
raylib.DrawTexture(texXboxPad, 0, 0, raylib.DarkGray) rl.DrawTexture(texXboxPad, 0, 0, rl.DarkGray)
// Draw buttons: xbox home // Draw buttons: xbox home
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonHome) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonHome) {
raylib.DrawCircle(394, 89, 19, raylib.Red) rl.DrawCircle(394, 89, 19, rl.Red)
} }
// Draw buttons: basic // Draw buttons: basic
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonStart) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonStart) {
raylib.DrawCircle(436, 150, 9, raylib.Red) rl.DrawCircle(436, 150, 9, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonSelect) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonSelect) {
raylib.DrawCircle(352, 150, 9, raylib.Red) rl.DrawCircle(352, 150, 9, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonX) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonX) {
raylib.DrawCircle(501, 151, 15, raylib.Blue) rl.DrawCircle(501, 151, 15, rl.Blue)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonA) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonA) {
raylib.DrawCircle(536, 187, 15, raylib.Lime) rl.DrawCircle(536, 187, 15, rl.Lime)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonB) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonB) {
raylib.DrawCircle(572, 151, 15, raylib.Maroon) rl.DrawCircle(572, 151, 15, rl.Maroon)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonY) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonY) {
raylib.DrawCircle(536, 115, 15, raylib.Gold) rl.DrawCircle(536, 115, 15, rl.Gold)
} }
// Draw buttons: d-pad // Draw buttons: d-pad
raylib.DrawRectangle(317, 202, 19, 71, raylib.Black) rl.DrawRectangle(317, 202, 19, 71, rl.Black)
raylib.DrawRectangle(293, 228, 69, 19, raylib.Black) rl.DrawRectangle(293, 228, 69, 19, rl.Black)
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonUp) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonUp) {
raylib.DrawRectangle(317, 202, 19, 26, raylib.Red) rl.DrawRectangle(317, 202, 19, 26, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonDown) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonDown) {
raylib.DrawRectangle(317, 202+45, 19, 26, raylib.Red) rl.DrawRectangle(317, 202+45, 19, 26, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonLeft) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonLeft) {
raylib.DrawRectangle(292, 228, 25, 19, raylib.Red) rl.DrawRectangle(292, 228, 25, 19, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonRight) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonRight) {
raylib.DrawRectangle(292+44, 228, 26, 19, raylib.Red) rl.DrawRectangle(292+44, 228, 26, 19, rl.Red)
} }
// Draw buttons: left-right back // Draw buttons: left-right back
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonLb) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonLb) {
raylib.DrawCircle(259, 61, 20, raylib.Red) rl.DrawCircle(259, 61, 20, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadXboxButtonRb) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadXboxButtonRb) {
raylib.DrawCircle(536, 61, 20, raylib.Red) rl.DrawCircle(536, 61, 20, rl.Red)
} }
// Draw axis: left joystick // Draw axis: left joystick
raylib.DrawCircle(259, 152, 39, raylib.Black) rl.DrawCircle(259, 152, 39, rl.Black)
raylib.DrawCircle(259, 152, 34, raylib.LightGray) rl.DrawCircle(259, 152, 34, rl.LightGray)
raylib.DrawCircle(int32(259+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisLeftX)*20)), rl.DrawCircle(int32(259+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisLeftX)*20)),
int32(152-(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisLeftY)*20)), 25, raylib.Black) int32(152-(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisLeftY)*20)), 25, rl.Black)
// Draw axis: right joystick // Draw axis: right joystick
raylib.DrawCircle(461, 237, 38, raylib.Black) rl.DrawCircle(461, 237, 38, rl.Black)
raylib.DrawCircle(461, 237, 33, raylib.LightGray) rl.DrawCircle(461, 237, 33, rl.LightGray)
raylib.DrawCircle(int32(461+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisRightX)*20)), rl.DrawCircle(int32(461+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisRightX)*20)),
int32(237-(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisRightY)*20)), 25, raylib.Black) int32(237-(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisRightY)*20)), 25, rl.Black)
// Draw axis: left-right triggers // Draw axis: left-right triggers
raylib.DrawRectangle(170, 30, 15, 70, raylib.Gray) rl.DrawRectangle(170, 30, 15, 70, rl.Gray)
raylib.DrawRectangle(604, 30, 15, 70, raylib.Gray) rl.DrawRectangle(604, 30, 15, 70, rl.Gray)
raylib.DrawRectangle(170, 30, 15, int32(((1.0+raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisLt))/2.0)*70), raylib.Red) rl.DrawRectangle(170, 30, 15, int32(((1.0+rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisLt))/2.0)*70), rl.Red)
raylib.DrawRectangle(604, 30, 15, int32(((1.0+raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadXboxAxisRt))/2.0)*70), raylib.Red) rl.DrawRectangle(604, 30, 15, int32(((1.0+rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadXboxAxisRt))/2.0)*70), rl.Red)
} else if raylib.IsGamepadName(raylib.GamepadPlayer1, ps3NameID) { } else if rl.IsGamepadName(rl.GamepadPlayer1, ps3NameID) {
raylib.DrawTexture(texPs3Pad, 0, 0, raylib.DarkGray) rl.DrawTexture(texPs3Pad, 0, 0, rl.DarkGray)
// Draw buttons: ps // Draw buttons: ps
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonPs) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonPs) {
raylib.DrawCircle(396, 222, 13, raylib.Red) rl.DrawCircle(396, 222, 13, rl.Red)
} }
// Draw buttons: basic // Draw buttons: basic
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonSelect) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonSelect) {
raylib.DrawRectangle(328, 170, 32, 13, raylib.Red) rl.DrawRectangle(328, 170, 32, 13, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonStart) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonStart) {
raylib.DrawTriangle(raylib.NewVector2(436, 168), raylib.NewVector2(436, 185), raylib.NewVector2(464, 177), raylib.Red) rl.DrawTriangle(rl.NewVector2(436, 168), rl.NewVector2(436, 185), rl.NewVector2(464, 177), rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonTriangle) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonTriangle) {
raylib.DrawCircle(557, 144, 13, raylib.Lime) rl.DrawCircle(557, 144, 13, rl.Lime)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonCircle) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonCircle) {
raylib.DrawCircle(586, 173, 13, raylib.Red) rl.DrawCircle(586, 173, 13, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonCross) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonCross) {
raylib.DrawCircle(557, 203, 13, raylib.Violet) rl.DrawCircle(557, 203, 13, rl.Violet)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonSquare) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonSquare) {
raylib.DrawCircle(527, 173, 13, raylib.Pink) rl.DrawCircle(527, 173, 13, rl.Pink)
} }
// Draw buttons: d-pad // Draw buttons: d-pad
raylib.DrawRectangle(225, 132, 24, 84, raylib.Black) rl.DrawRectangle(225, 132, 24, 84, rl.Black)
raylib.DrawRectangle(195, 161, 84, 25, raylib.Black) rl.DrawRectangle(195, 161, 84, 25, rl.Black)
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonUp) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonUp) {
raylib.DrawRectangle(225, 132, 24, 29, raylib.Red) rl.DrawRectangle(225, 132, 24, 29, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonDown) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonDown) {
raylib.DrawRectangle(225, 132+54, 24, 30, raylib.Red) rl.DrawRectangle(225, 132+54, 24, 30, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonLeft) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonLeft) {
raylib.DrawRectangle(195, 161, 30, 25, raylib.Red) rl.DrawRectangle(195, 161, 30, 25, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonRight) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonRight) {
raylib.DrawRectangle(195+54, 161, 30, 25, raylib.Red) rl.DrawRectangle(195+54, 161, 30, 25, rl.Red)
} }
// Draw buttons: left-right back buttons // Draw buttons: left-right back buttons
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonL1) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonL1) {
raylib.DrawCircle(239, 82, 20, raylib.Red) rl.DrawCircle(239, 82, 20, rl.Red)
} }
if raylib.IsGamepadButtonDown(raylib.GamepadPlayer1, raylib.GamepadPs3ButtonR1) { if rl.IsGamepadButtonDown(rl.GamepadPlayer1, rl.GamepadPs3ButtonR1) {
raylib.DrawCircle(557, 82, 20, raylib.Red) rl.DrawCircle(557, 82, 20, rl.Red)
} }
// Draw axis: left joystick // Draw axis: left joystick
raylib.DrawCircle(319, 255, 35, raylib.Black) rl.DrawCircle(319, 255, 35, rl.Black)
raylib.DrawCircle(319, 255, 31, raylib.LightGray) rl.DrawCircle(319, 255, 31, rl.LightGray)
raylib.DrawCircle(int32(319+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisLeftX)*20)), rl.DrawCircle(int32(319+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisLeftX)*20)),
int32(255+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisLeftY)*20)), 25, raylib.Black) int32(255+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisLeftY)*20)), 25, rl.Black)
// Draw axis: right joystick // Draw axis: right joystick
raylib.DrawCircle(475, 255, 35, raylib.Black) rl.DrawCircle(475, 255, 35, rl.Black)
raylib.DrawCircle(475, 255, 31, raylib.LightGray) rl.DrawCircle(475, 255, 31, rl.LightGray)
raylib.DrawCircle(int32(475+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisRightX)*20)), rl.DrawCircle(int32(475+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisRightX)*20)),
int32(255+(raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisRightY)*20)), 25, raylib.Black) int32(255+(rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisRightY)*20)), 25, rl.Black)
// Draw axis: left-right triggers // Draw axis: left-right triggers
raylib.DrawRectangle(169, 48, 15, 70, raylib.Gray) rl.DrawRectangle(169, 48, 15, 70, rl.Gray)
raylib.DrawRectangle(611, 48, 15, 70, raylib.Gray) rl.DrawRectangle(611, 48, 15, 70, rl.Gray)
raylib.DrawRectangle(169, 48, 15, int32(((1.0-raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisL2))/2.0)*70), raylib.Red) rl.DrawRectangle(169, 48, 15, int32(((1.0-rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisL2))/2.0)*70), rl.Red)
raylib.DrawRectangle(611, 48, 15, int32(((1.0-raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, raylib.GamepadPs3AxisR2))/2.0)*70), raylib.Red) rl.DrawRectangle(611, 48, 15, int32(((1.0-rl.GetGamepadAxisMovement(rl.GamepadPlayer1, rl.GamepadPs3AxisR2))/2.0)*70), rl.Red)
} else { } else {
raylib.DrawText("- GENERIC GAMEPAD -", 280, 180, 20, raylib.Gray) rl.DrawText("- GENERIC GAMEPAD -", 280, 180, 20, rl.Gray)
// TODO: Draw generic gamepad // TODO: Draw generic gamepad
} }
raylib.DrawText(fmt.Sprintf("DETECTED AXIS [%d]:", raylib.GetGamepadAxisCount(raylib.GamepadPlayer1)), 10, 50, 10, raylib.Maroon) rl.DrawText(fmt.Sprintf("DETECTED AXIS [%d]:", rl.GetGamepadAxisCount(rl.GamepadPlayer1)), 10, 50, 10, rl.Maroon)
for i := int32(0); i < raylib.GetGamepadAxisCount(raylib.GamepadPlayer1); i++ { for i := int32(0); i < rl.GetGamepadAxisCount(rl.GamepadPlayer1); i++ {
raylib.DrawText(fmt.Sprintf("AXIS %d: %.02f", i, raylib.GetGamepadAxisMovement(raylib.GamepadPlayer1, i)), 20, 70+20*i, 10, raylib.DarkGray) rl.DrawText(fmt.Sprintf("AXIS %d: %.02f", i, rl.GetGamepadAxisMovement(rl.GamepadPlayer1, i)), 20, 70+20*i, 10, rl.DarkGray)
} }
if raylib.GetGamepadButtonPressed() != -1 { if rl.GetGamepadButtonPressed() != -1 {
raylib.DrawText(fmt.Sprintf("DETECTED BUTTON: %d", raylib.GetGamepadButtonPressed()), 10, 430, 10, raylib.Red) rl.DrawText(fmt.Sprintf("DETECTED BUTTON: %d", rl.GetGamepadButtonPressed()), 10, 430, 10, rl.Red)
} else { } else {
raylib.DrawText("DETECTED BUTTON: NONE", 10, 430, 10, raylib.Gray) rl.DrawText("DETECTED BUTTON: NONE", 10, 430, 10, rl.Gray)
} }
} else { } else {
raylib.DrawText("GP1: NOT DETECTED", 10, 10, 10, raylib.Gray) rl.DrawText("GP1: NOT DETECTED", 10, 10, 10, rl.Gray)
raylib.DrawTexture(texXboxPad, 0, 0, raylib.LightGray) rl.DrawTexture(texXboxPad, 0, 0, rl.LightGray)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texPs3Pad) rl.UnloadTexture(texPs3Pad)
raylib.UnloadTexture(texXboxPad) rl.UnloadTexture(texXboxPad)
raylib.CloseWindow() rl.CloseWindow()
} }

28
examples/core/input_keys/main.go
View file

@ -8,34 +8,34 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - keyboard input") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - keyboard input")
ballPosition := raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2) ballPosition := rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyDown(raylib.KeyRight) { if rl.IsKeyDown(rl.KeyRight) {
ballPosition.X += 0.8 ballPosition.X += 0.8
} }
if raylib.IsKeyDown(raylib.KeyLeft) { if rl.IsKeyDown(rl.KeyLeft) {
ballPosition.X -= 0.8 ballPosition.X -= 0.8
} }
if raylib.IsKeyDown(raylib.KeyUp) { if rl.IsKeyDown(rl.KeyUp) {
ballPosition.Y -= 0.8 ballPosition.Y -= 0.8
} }
if raylib.IsKeyDown(raylib.KeyDown) { if rl.IsKeyDown(rl.KeyDown) {
ballPosition.Y += 0.8 ballPosition.Y += 0.8
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("move the ball with arrow keys", 10, 10, 20, raylib.DarkGray) rl.DrawText("move the ball with arrow keys", 10, 10, 20, rl.DarkGray)
raylib.DrawCircleV(ballPosition, 50, raylib.Maroon) rl.DrawCircleV(ballPosition, 50, rl.Maroon)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

34
examples/core/input_mouse/main.go
View file

@ -5,31 +5,31 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - mouse input") rl.InitWindow(800, 450, "raylib [core] example - mouse input")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
ballColor := raylib.DarkBlue ballColor := rl.DarkBlue
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
ballPosition := raylib.GetMousePosition() ballPosition := rl.GetMousePosition()
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
ballColor = raylib.Maroon ballColor = rl.Maroon
} else if raylib.IsMouseButtonPressed(raylib.MouseMiddleButton) { } else if rl.IsMouseButtonPressed(rl.MouseMiddleButton) {
ballColor = raylib.Lime ballColor = rl.Lime
} else if raylib.IsMouseButtonPressed(raylib.MouseRightButton) { } else if rl.IsMouseButtonPressed(rl.MouseRightButton) {
ballColor = raylib.DarkBlue ballColor = rl.DarkBlue
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawCircleV(ballPosition, 40, ballColor) rl.DrawCircleV(ballPosition, 40, ballColor)
raylib.DrawText("move ball with mouse and click mouse button to change color", 10, 10, 20, raylib.DarkGray) rl.DrawText("move ball with mouse and click mouse button to change color", 10, 10, 20, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

22
examples/core/mouse_wheel/main.go
View file

@ -10,27 +10,27 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - mouse wheel") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - mouse wheel")
boxPositionY := screenHeight/2 - 40 boxPositionY := screenHeight/2 - 40
scrollSpeed := int32(4) // Scrolling speed in pixels scrollSpeed := int32(4) // Scrolling speed in pixels
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
boxPositionY -= raylib.GetMouseWheelMove() * scrollSpeed boxPositionY -= rl.GetMouseWheelMove() * scrollSpeed
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawRectangle(screenWidth/2-40, boxPositionY, 80, 80, raylib.Maroon) rl.DrawRectangle(screenWidth/2-40, boxPositionY, 80, 80, rl.Maroon)
raylib.DrawText("Use mouse wheel to move the square up and down!", 10, 10, 20, raylib.Gray) rl.DrawText("Use mouse wheel to move the cube up and down!", 10, 10, 20, rl.Gray)
raylib.DrawText(fmt.Sprintf("Box position Y: %d", boxPositionY), 10, 40, 20, raylib.LightGray) rl.DrawText(fmt.Sprintf("Box position Y: %d", boxPositionY), 10, 40, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

22
examples/core/random_values/main.go
View file

@ -7,32 +7,32 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - generate random values") rl.InitWindow(800, 450, "raylib [core] example - generate random values")
framesCounter := 0 // Variable used to count frames framesCounter := 0 // Variable used to count frames
randValue := raylib.GetRandomValue(-8, 5) // Get a random integer number between -8 and 5 (both included) randValue := rl.GetRandomValue(-8, 5) // Get a random integer number between -8 and 5 (both included)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
framesCounter++ framesCounter++
// Every two seconds (120 frames) a new random value is generated // Every two seconds (120 frames) a new random value is generated
if ((framesCounter / 120) % 2) == 1 { if ((framesCounter / 120) % 2) == 1 {
randValue = raylib.GetRandomValue(-8, 5) randValue = rl.GetRandomValue(-8, 5)
framesCounter = 0 framesCounter = 0
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Every 2 seconds a new random value is generated:", 130, 100, 20, raylib.Maroon) rl.DrawText("Every 2 seconds a new random value is generated:", 130, 100, 20, rl.Maroon)
raylib.DrawText(fmt.Sprintf("%d", randValue), 360, 180, 80, raylib.LightGray) rl.DrawText(fmt.Sprintf("%d", randValue), 360, 180, 80, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

44
examples/core/storage_values/main.go
View file

@ -12,47 +12,47 @@ const (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [core] example - storage save/load values") rl.InitWindow(800, 450, "raylib [core] example - storage save/load values")
score := int32(0) score := int32(0)
hiscore := int32(0) hiscore := int32(0)
framesCounter := 0 framesCounter := 0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyPressed(raylib.KeyR) { if rl.IsKeyPressed(rl.KeyR) {
score = raylib.GetRandomValue(1000, 2000) score = rl.GetRandomValue(1000, 2000)
hiscore = raylib.GetRandomValue(2000, 4000) hiscore = rl.GetRandomValue(2000, 4000)
} }
if raylib.IsKeyPressed(raylib.KeyEnter) { if rl.IsKeyPressed(rl.KeyEnter) {
raylib.StorageSaveValue(storageScore, score) rl.StorageSaveValue(storageScore, score)
raylib.StorageSaveValue(storageHiscore, hiscore) rl.StorageSaveValue(storageHiscore, hiscore)
} else if raylib.IsKeyPressed(raylib.KeySpace) { } else if rl.IsKeyPressed(rl.KeySpace) {
// NOTE: If requested position could not be found, value 0 is returned // NOTE: If requested position could not be found, value 0 is returned
score = raylib.StorageLoadValue(storageScore) score = rl.StorageLoadValue(storageScore)
hiscore = raylib.StorageLoadValue(storageHiscore) hiscore = rl.StorageLoadValue(storageHiscore)
} }
framesCounter++ framesCounter++
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText(fmt.Sprintf("SCORE: %d", score), 280, 130, 40, raylib.Maroon) rl.DrawText(fmt.Sprintf("SCORE: %d", score), 280, 130, 40, rl.Maroon)
raylib.DrawText(fmt.Sprintf("HI-SCORE: %d", hiscore), 210, 200, 50, raylib.Black) rl.DrawText(fmt.Sprintf("HI-SCORE: %d", hiscore), 210, 200, 50, rl.Black)
raylib.DrawText(fmt.Sprintf("frames: %d", framesCounter), 10, 10, 20, raylib.Lime) rl.DrawText(fmt.Sprintf("frames: %d", framesCounter), 10, 10, 20, rl.Lime)
raylib.DrawText("Press R to generate random numbers", 220, 40, 20, raylib.LightGray) rl.DrawText("Press R to generate random numbers", 220, 40, 20, rl.LightGray)
raylib.DrawText("Press ENTER to SAVE values", 250, 310, 20, raylib.LightGray) rl.DrawText("Press ENTER to SAVE values", 250, 310, 20, rl.LightGray)
raylib.DrawText("Press SPACE to LOAD values", 252, 350, 20, raylib.LightGray) rl.DrawText("Press SPACE to LOAD values", 252, 350, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

54
examples/core/vr_simulator/main.go
View file

@ -5,50 +5,54 @@ import (
) )
func main() { func main() {
hmd := raylib.GetVrDeviceInfo(raylib.HmdOculusRiftCv1) // Oculus Rift CV1 screenWidth := int32(1080)
raylib.InitWindow(int32(hmd.HScreenSize), int32(hmd.VScreenSize), "raylib [core] example - vr simulator") screenHeight := int32(600)
// NOTE: screenWidth/screenHeight should match VR device aspect ratio
rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - vr simulator")
// NOTE: default device (simulator) // NOTE: default device (simulator)
raylib.InitVrSimulator(hmd) // Init VR device rl.InitVrSimulator(rl.GetVrDeviceInfo(rl.HmdOculusRiftCv1)) // Init VR device (Oculus Rift CV1)
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(5.0, 2.0, 5.0) // Camera position camera.Position = rl.NewVector3(5.0, 2.0, 5.0) // Camera position
camera.Target = raylib.NewVector3(0.0, 2.0, 0.0) // Camera looking at point camera.Target = rl.NewVector3(0.0, 2.0, 0.0) // Camera looking at point
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) // Camera up vector (rotation towards target) camera.Up = rl.NewVector3(0.0, 1.0, 0.0) // Camera up vector (rotation towards target)
camera.Fovy = 60.0 // Camera field-of-view Y camera.Fovy = 60.0 // Camera field-of-view Y
cubePosition := raylib.NewVector3(0.0, 0.0, 0.0) cubePosition := rl.NewVector3(0.0, 0.0, 0.0)
raylib.SetCameraMode(camera, raylib.CameraFirstPerson) // Set first person camera mode rl.SetCameraMode(camera, rl.CameraFirstPerson) // Set first person camera mode
raylib.SetTargetFPS(90) rl.SetTargetFPS(90)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera (simulator mode) rl.UpdateCamera(&camera) // Update camera (simulator mode)
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginVrDrawing() rl.BeginVrDrawing()
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawCube(cubePosition, 2.0, 2.0, 2.0, raylib.Red) rl.DrawCube(cubePosition, 2.0, 2.0, 2.0, rl.Red)
raylib.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, raylib.Maroon) rl.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, rl.Maroon)
raylib.DrawGrid(40, 1.0) rl.DrawGrid(40, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.EndVrDrawing() rl.EndVrDrawing()
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseVrSimulator() // Close VR simulator rl.CloseVrSimulator() // Close VR simulator
raylib.CloseWindow() rl.CloseWindow()
} }

46
examples/core/world_screen/main.go
View file

@ -8,45 +8,45 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - 3d camera free") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - 3d camera free")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(10.0, 10.0, 10.0) // Camera position camera.Position = rl.NewVector3(10.0, 10.0, 10.0) // Camera position
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) // Camera looking at point camera.Target = rl.NewVector3(0.0, 0.0, 0.0) // Camera looking at point
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) // Camera up vector (rotation towards target) camera.Up = rl.NewVector3(0.0, 1.0, 0.0) // Camera up vector (rotation towards target)
camera.Fovy = 45.0 // Camera field-of-view Y camera.Fovy = 45.0 // Camera field-of-view Y
cubePosition := raylib.NewVector3(0.0, 0.0, 0.0) cubePosition := rl.NewVector3(0.0, 0.0, 0.0)
cubeScreenPosition := raylib.Vector2{} cubeScreenPosition := rl.Vector2{}
raylib.SetCameraMode(camera, raylib.CameraFree) // Set a free camera mode rl.SetCameraMode(camera, rl.CameraFree) // Set a free camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
// Calculate cube screen space position (with a little offset to be in top) // Calculate cube screen space position (with a little offset to be in top)
cubeScreenPosition = raylib.GetWorldToScreen(raylib.NewVector3(cubePosition.X, cubePosition.Y+2.5, cubePosition.Z), camera) cubeScreenPosition = rl.GetWorldToScreen(rl.NewVector3(cubePosition.X, cubePosition.Y+2.5, cubePosition.Z), camera)
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawCube(cubePosition, 2.0, 2.0, 2.0, raylib.Red) rl.DrawCube(cubePosition, 2.0, 2.0, 2.0, rl.Red)
raylib.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, raylib.Maroon) rl.DrawCubeWires(cubePosition, 2.0, 2.0, 2.0, rl.Maroon)
raylib.DrawGrid(10, 1.0) rl.DrawGrid(10, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("Enemy: 100 / 100", int32(cubeScreenPosition.X)-raylib.MeasureText("Enemy: 100 / 100", 20)/2, int32(cubeScreenPosition.Y), 20, raylib.Black) rl.DrawText("Enemy: 100 / 100", int32(cubeScreenPosition.X)-rl.MeasureText("Enemy: 100 / 100", 20)/2, int32(cubeScreenPosition.Y), 20, rl.Black)
raylib.DrawText("Text is always on top of the cube", (screenWidth-raylib.MeasureText("Text is always on top of the cube", 20))/2, 25, 20, raylib.Gray) rl.DrawText("Text is always on top of the cube", (screenWidth-rl.MeasureText("Text is always on top of the cube", 20))/2, 25, 20, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

28
examples/easings/easings/main.go
View file

@ -10,8 +10,8 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagVsyncHint) rl.SetConfigFlags(rl.FlagVsyncHint)
raylib.InitWindow(screenWidth, screenHeight, "raylib [easings] example - easings") rl.InitWindow(screenWidth, screenHeight, "raylib [easings] example - easings")
currentTime := 0 currentTime := 0
duration := float32(60) duration := float32(60)
@ -19,7 +19,7 @@ func main() {
finalPositionX := startPositionX * 3 finalPositionX := startPositionX * 3
currentPositionX := startPositionX currentPositionX := startPositionX
ballPosition := raylib.NewVector2(startPositionX, float32(screenHeight)/2) ballPosition := rl.NewVector2(startPositionX, float32(screenHeight)/2)
comboActive := 0 comboActive := 0
comboLastActive := 0 comboLastActive := 0
@ -27,10 +27,10 @@ func main() {
easingTypes := []string{"SineIn", "SineOut", "SineInOut", "BounceIn", "BounceOut", "BounceInOut", "BackIn", "BackOut", "BackInOut"} easingTypes := []string{"SineIn", "SineOut", "SineInOut", "BounceIn", "BounceOut", "BounceInOut", "BackIn", "BackOut", "BackInOut"}
ease := easingTypes[comboActive] ease := easingTypes[comboActive]
//raylib.SetTargetFPS(60) //rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyDown(raylib.KeyR) { if rl.IsKeyDown(rl.KeyR) {
currentTime = 0 currentTime = 0
currentPositionX = startPositionX currentPositionX = startPositionX
ballPosition.X = currentPositionX ballPosition.X = currentPositionX
@ -71,18 +71,18 @@ func main() {
currentTime++ currentTime++
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raygui.Label(raylib.NewRectangle(20, 20, 200, 20), "Easing Type:") raygui.Label(rl.NewRectangle(20, 20, 200, 20), "Easing Type:")
comboActive = raygui.ComboBox(raylib.NewRectangle(20, 40, 200, 20), easingTypes, comboActive) comboActive = raygui.ComboBox(rl.NewRectangle(20, 40, 200, 20), easingTypes, comboActive)
raygui.Label(raylib.NewRectangle(20, 80, 200, 20), "Press R to reset") raygui.Label(rl.NewRectangle(20, 80, 200, 20), "Press R to reset")
raylib.DrawCircleV(ballPosition, 50, raylib.Maroon) rl.DrawCircleV(ballPosition, 50, rl.Maroon)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

170
examples/games/floppy/main.go
View file

@ -35,20 +35,20 @@ const (
// Floppy type // Floppy type
type Floppy struct { type Floppy struct {
Position raylib.Vector2 Position rl.Vector2
} }
// Pipe type // Pipe type
type Pipe struct { type Pipe struct {
Rec raylib.Rectangle Rec rl.Rectangle
Color raylib.Color Color rl.Color
Active bool Active bool
} }
// Particle type // Particle type
type Particle struct { type Particle struct {
Position raylib.Vector2 Position rl.Vector2
Color raylib.Color Color rl.Color
Alpha float32 Alpha float32
Size float32 Size float32
Rotation float32 Rotation float32
@ -57,17 +57,17 @@ type Particle struct {
// Game type // Game type
type Game struct { type Game struct {
FxFlap raylib.Sound FxFlap rl.Sound
FxSlap raylib.Sound FxSlap rl.Sound
FxPoint raylib.Sound FxPoint rl.Sound
FxClick raylib.Sound FxClick rl.Sound
TxSprites raylib.Texture2D TxSprites rl.Texture2D
TxSmoke raylib.Texture2D TxSmoke rl.Texture2D
TxClouds raylib.Texture2D TxClouds rl.Texture2D
CloudRec raylib.Rectangle CloudRec rl.Rectangle
FrameRec raylib.Rectangle FrameRec rl.Rectangle
GameOver bool GameOver bool
Dead bool Dead bool
@ -84,7 +84,7 @@ type Game struct {
Particles []Particle Particles []Particle
Pipes []Pipe Pipes []Pipe
PipesPos []raylib.Vector2 PipesPos []rl.Vector2
} }
// NewGame - Start new game // NewGame - Start new game
@ -95,7 +95,7 @@ func NewGame() (g Game) {
// On Android this sets callback function to be used for android_main // On Android this sets callback function to be used for android_main
func init() { func init() {
raylib.SetCallbackFunc(main) rl.SetCallbackFunc(main)
} }
func main() { func main() {
@ -104,16 +104,16 @@ func main() {
game.GameOver = true game.GameOver = true
// Initialize window // Initialize window
raylib.InitWindow(screenWidth, screenHeight, "Floppy Gopher") rl.InitWindow(screenWidth, screenHeight, "Floppy Gopher")
// Initialize audio // Initialize audio
raylib.InitAudioDevice() rl.InitAudioDevice()
// NOTE: Textures and Sounds MUST be loaded after Window/Audio initialization // NOTE: Textures and Sounds MUST be loaded after Window/Audio initialization
game.Load() game.Load()
// Limit FPS // Limit FPS
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
// Main loop // Main loop
for !game.WindowShouldClose { for !game.WindowShouldClose {
@ -128,10 +128,10 @@ func main() {
game.Unload() game.Unload()
// Close audio // Close audio
raylib.CloseAudioDevice() rl.CloseAudioDevice()
// Close window // Close window
raylib.CloseWindow() rl.CloseWindow()
// Exit // Exit
os.Exit(0) os.Exit(0)
@ -141,37 +141,37 @@ func main() {
func (g *Game) Init() { func (g *Game) Init() {
// Gopher // Gopher
g.Floppy = Floppy{raylib.NewVector2(80, float32(screenHeight)/2-spriteSize/2)} g.Floppy = Floppy{rl.NewVector2(80, float32(screenHeight)/2-spriteSize/2)}
// Sprite rectangle // Sprite rectangle
g.FrameRec = raylib.NewRectangle(0, 0, spriteSize, spriteSize) g.FrameRec = rl.NewRectangle(0, 0, spriteSize, spriteSize)
// Cloud rectangle // Cloud rectangle
g.CloudRec = raylib.NewRectangle(0, 0, float32(screenWidth), float32(g.TxClouds.Height)) g.CloudRec = rl.NewRectangle(0, 0, float32(screenWidth), float32(g.TxClouds.Height))
// Initialize particles // Initialize particles
g.Particles = make([]Particle, maxParticles) g.Particles = make([]Particle, maxParticles)
for i := 0; i < maxParticles; i++ { for i := 0; i < maxParticles; i++ {
g.Particles[i].Position = raylib.NewVector2(0, 0) g.Particles[i].Position = rl.NewVector2(0, 0)
g.Particles[i].Color = raylib.RayWhite g.Particles[i].Color = rl.RayWhite
g.Particles[i].Alpha = 1.0 g.Particles[i].Alpha = 1.0
g.Particles[i].Size = float32(raylib.GetRandomValue(1, 30)) / 20.0 g.Particles[i].Size = float32(rl.GetRandomValue(1, 30)) / 20.0
g.Particles[i].Rotation = float32(raylib.GetRandomValue(0, 360)) g.Particles[i].Rotation = float32(rl.GetRandomValue(0, 360))
g.Particles[i].Active = false g.Particles[i].Active = false
} }
// Pipes positions // Pipes positions
g.PipesPos = make([]raylib.Vector2, maxPipes) g.PipesPos = make([]rl.Vector2, maxPipes)
for i := 0; i < maxPipes; i++ { for i := 0; i < maxPipes; i++ {
g.PipesPos[i].X = float32(480 + 360*i) g.PipesPos[i].X = float32(480 + 360*i)
g.PipesPos[i].Y = -float32(raylib.GetRandomValue(0, 240)) g.PipesPos[i].Y = -float32(rl.GetRandomValue(0, 240))
} }
// Pipes colors // Pipes colors
colors := []raylib.Color{ colors := []rl.Color{
raylib.Orange, raylib.Red, raylib.Gold, raylib.Lime, rl.Orange, rl.Red, rl.Gold, rl.Lime,
raylib.Violet, raylib.Brown, raylib.LightGray, raylib.Blue, rl.Violet, rl.Brown, rl.LightGray, rl.Blue,
raylib.Yellow, raylib.Green, raylib.Purple, raylib.Beige, rl.Yellow, rl.Green, rl.Purple, rl.Beige,
} }
// Pipes // Pipes
@ -181,7 +181,7 @@ func (g *Game) Init() {
g.Pipes[i].Rec.Y = g.PipesPos[i/2].Y g.Pipes[i].Rec.Y = g.PipesPos[i/2].Y
g.Pipes[i].Rec.Width = pipesWidth g.Pipes[i].Rec.Width = pipesWidth
g.Pipes[i].Rec.Height = 550 g.Pipes[i].Rec.Height = 550
g.Pipes[i].Color = colors[raylib.GetRandomValue(0, int32(len(colors)-1))] g.Pipes[i].Color = colors[rl.GetRandomValue(0, int32(len(colors)-1))]
g.Pipes[i+1].Rec.X = g.PipesPos[i/2].X g.Pipes[i+1].Rec.X = g.PipesPos[i/2].X
g.Pipes[i+1].Rec.Y = 1200 + g.PipesPos[i/2].Y - 550 g.Pipes[i+1].Rec.Y = 1200 + g.PipesPos[i/2].Y - 550
@ -203,35 +203,35 @@ func (g *Game) Init() {
// Load - Load resources // Load - Load resources
func (g *Game) Load() { func (g *Game) Load() {
g.FxFlap = raylib.LoadSound("sounds/flap.wav") g.FxFlap = rl.LoadSound("sounds/flap.wav")
g.FxSlap = raylib.LoadSound("sounds/slap.wav") g.FxSlap = rl.LoadSound("sounds/slap.wav")
g.FxPoint = raylib.LoadSound("sounds/point.wav") g.FxPoint = rl.LoadSound("sounds/point.wav")
g.FxClick = raylib.LoadSound("sounds/click.wav") g.FxClick = rl.LoadSound("sounds/click.wav")
g.TxSprites = raylib.LoadTexture("images/sprite.png") g.TxSprites = rl.LoadTexture("images/sprite.png")
g.TxSmoke = raylib.LoadTexture("images/smoke.png") g.TxSmoke = rl.LoadTexture("images/smoke.png")
g.TxClouds = raylib.LoadTexture("images/clouds.png") g.TxClouds = rl.LoadTexture("images/clouds.png")
} }
// Unload - Unload resources // Unload - Unload resources
func (g *Game) Unload() { func (g *Game) Unload() {
raylib.UnloadSound(g.FxFlap) rl.UnloadSound(g.FxFlap)
raylib.UnloadSound(g.FxSlap) rl.UnloadSound(g.FxSlap)
raylib.UnloadSound(g.FxPoint) rl.UnloadSound(g.FxPoint)
raylib.UnloadSound(g.FxClick) rl.UnloadSound(g.FxClick)
raylib.UnloadTexture(g.TxSprites) rl.UnloadTexture(g.TxSprites)
raylib.UnloadTexture(g.TxSmoke) rl.UnloadTexture(g.TxSmoke)
raylib.UnloadTexture(g.TxClouds) rl.UnloadTexture(g.TxClouds)
} }
// Update - Update game // Update - Update game
func (g *Game) Update() { func (g *Game) Update() {
if raylib.WindowShouldClose() { if rl.WindowShouldClose() {
g.WindowShouldClose = true g.WindowShouldClose = true
} }
if !g.GameOver { if !g.GameOver {
if raylib.IsKeyPressed(raylib.KeyP) || raylib.IsKeyPressed(raylib.KeyBack) { if rl.IsKeyPressed(rl.KeyP) || rl.IsKeyPressed(rl.KeyBack) {
raylib.PlaySound(g.FxClick) rl.PlaySound(g.FxClick)
if runtime.GOOS == "android" && g.Pause { if runtime.GOOS == "android" && g.Pause {
g.WindowShouldClose = true g.WindowShouldClose = true
@ -259,8 +259,8 @@ func (g *Game) Update() {
} }
// Movement/Controls // Movement/Controls
if raylib.IsKeyDown(raylib.KeySpace) || raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsKeyDown(rl.KeySpace) || rl.IsMouseButtonDown(rl.MouseLeftButton) {
raylib.PlaySound(g.FxFlap) rl.PlaySound(g.FxFlap)
// Activate one particle every frame // Activate one particle every frame
for i := 0; i < maxParticles; i++ { for i := 0; i < maxParticles; i++ {
@ -315,11 +315,11 @@ func (g *Game) Update() {
// Check Collisions // Check Collisions
for i := 0; i < maxPipes*2; i++ { for i := 0; i < maxPipes*2; i++ {
if raylib.CheckCollisionRecs(raylib.NewRectangle(g.Floppy.Position.X, g.Floppy.Position.Y, spriteSize, spriteSize), g.Pipes[i].Rec) { if rl.CheckCollisionRecs(rl.NewRectangle(g.Floppy.Position.X, g.Floppy.Position.Y, spriteSize, spriteSize), g.Pipes[i].Rec) {
// OMG You killed Gopher you bastard! // OMG You killed Gopher you bastard!
g.Dead = true g.Dead = true
raylib.PlaySound(g.FxSlap) rl.PlaySound(g.FxSlap)
} else if (g.PipesPos[i/2].X < g.Floppy.Position.X-spriteSize) && g.Pipes[i/2].Active && !g.GameOver { } else if (g.PipesPos[i/2].X < g.Floppy.Position.X-spriteSize) && g.Pipes[i/2].Active && !g.GameOver {
// Score point // Score point
g.Score += 1 g.Score += 1
@ -333,7 +333,7 @@ func (g *Game) Update() {
g.HiScore = g.Score g.HiScore = g.Score
} }
raylib.PlaySound(g.FxPoint) rl.PlaySound(g.FxPoint)
} }
} }
} else { } else {
@ -351,17 +351,17 @@ func (g *Game) Update() {
} }
} }
} else { } else {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
g.Pause = !g.Pause g.Pause = !g.Pause
} }
} }
} else { } else {
if raylib.IsKeyPressed(raylib.KeyEnter) || raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsKeyPressed(rl.KeyEnter) || rl.IsMouseButtonDown(rl.MouseLeftButton) {
raylib.PlaySound(g.FxClick) rl.PlaySound(g.FxClick)
// Return of the Gopher! // Return of the Gopher!
g.Init() g.Init()
} else if runtime.GOOS == "android" && raylib.IsKeyDown(raylib.KeyBack) { } else if runtime.GOOS == "android" && rl.IsKeyDown(rl.KeyBack) {
g.WindowShouldClose = true g.WindowShouldClose = true
} }
@ -379,32 +379,32 @@ func (g *Game) Update() {
// Draw - Draw game // Draw - Draw game
func (g *Game) Draw() { func (g *Game) Draw() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.SkyBlue) rl.ClearBackground(rl.SkyBlue)
if !g.GameOver { if !g.GameOver {
// Draw clouds // Draw clouds
raylib.DrawTextureRec(g.TxClouds, g.CloudRec, raylib.NewVector2(0, float32(screenHeight-g.TxClouds.Height)), raylib.RayWhite) rl.DrawTextureRec(g.TxClouds, g.CloudRec, rl.NewVector2(0, float32(screenHeight-g.TxClouds.Height)), rl.RayWhite)
// Draw rotated clouds // Draw rotated clouds
raylib.DrawTexturePro(g.TxClouds, raylib.NewRectangle(-g.CloudRec.X, 0, float32(g.TxClouds.Width), float32(g.TxClouds.Height)), rl.DrawTexturePro(g.TxClouds, rl.NewRectangle(-g.CloudRec.X, 0, float32(g.TxClouds.Width), float32(g.TxClouds.Height)),
raylib.NewRectangle(0, 0, float32(g.TxClouds.Width), float32(g.TxClouds.Height)), raylib.NewVector2(float32(g.TxClouds.Width), float32(g.TxClouds.Height)), 180, raylib.White) rl.NewRectangle(0, 0, float32(g.TxClouds.Width), float32(g.TxClouds.Height)), rl.NewVector2(float32(g.TxClouds.Width), float32(g.TxClouds.Height)), 180, rl.White)
// Draw Gopher // Draw Gopher
raylib.DrawTextureRec(g.TxSprites, g.FrameRec, g.Floppy.Position, raylib.RayWhite) rl.DrawTextureRec(g.TxSprites, g.FrameRec, g.Floppy.Position, rl.RayWhite)
// Draw active particles // Draw active particles
if !g.Dead { if !g.Dead {
for i := 0; i < maxParticles; i++ { for i := 0; i < maxParticles; i++ {
if g.Particles[i].Active { if g.Particles[i].Active {
raylib.DrawTexturePro( rl.DrawTexturePro(
g.TxSmoke, g.TxSmoke,
raylib.NewRectangle(0, 0, float32(g.TxSmoke.Width), float32(g.TxSmoke.Height)), rl.NewRectangle(0, 0, float32(g.TxSmoke.Width), float32(g.TxSmoke.Height)),
raylib.NewRectangle(g.Particles[i].Position.X, g.Particles[i].Position.Y, float32(g.TxSmoke.Width)*g.Particles[i].Size, float32(g.TxSmoke.Height)*g.Particles[i].Size), rl.NewRectangle(g.Particles[i].Position.X, g.Particles[i].Position.Y, float32(g.TxSmoke.Width)*g.Particles[i].Size, float32(g.TxSmoke.Height)*g.Particles[i].Size),
raylib.NewVector2(float32(g.TxSmoke.Width)*g.Particles[i].Size/2, float32(g.TxSmoke.Height)*g.Particles[i].Size/2), rl.NewVector2(float32(g.TxSmoke.Width)*g.Particles[i].Size/2, float32(g.TxSmoke.Height)*g.Particles[i].Size/2),
g.Particles[i].Rotation, g.Particles[i].Rotation,
raylib.Fade(g.Particles[i].Color, g.Particles[i].Alpha), rl.Fade(g.Particles[i].Color, g.Particles[i].Alpha),
) )
} }
} }
@ -412,41 +412,41 @@ func (g *Game) Draw() {
// Draw pipes // Draw pipes
for i := 0; i < maxPipes; i++ { for i := 0; i < maxPipes; i++ {
raylib.DrawRectangle(int32(g.Pipes[i*2].Rec.X), int32(g.Pipes[i*2].Rec.Y), int32(g.Pipes[i*2].Rec.Width), int32(g.Pipes[i*2].Rec.Height), g.Pipes[i*2].Color) rl.DrawRectangle(int32(g.Pipes[i*2].Rec.X), int32(g.Pipes[i*2].Rec.Y), int32(g.Pipes[i*2].Rec.Width), int32(g.Pipes[i*2].Rec.Height), g.Pipes[i*2].Color)
raylib.DrawRectangle(int32(g.Pipes[i*2+1].Rec.X), int32(g.Pipes[i*2+1].Rec.Y), int32(g.Pipes[i*2+1].Rec.Width), int32(g.Pipes[i*2+1].Rec.Height), g.Pipes[i*2].Color) rl.DrawRectangle(int32(g.Pipes[i*2+1].Rec.X), int32(g.Pipes[i*2+1].Rec.Y), int32(g.Pipes[i*2+1].Rec.Width), int32(g.Pipes[i*2+1].Rec.Height), g.Pipes[i*2].Color)
// Draw borders // Draw borders
raylib.DrawRectangleLines(int32(g.Pipes[i*2].Rec.X), int32(g.Pipes[i*2].Rec.Y), int32(g.Pipes[i*2].Rec.Width), int32(g.Pipes[i*2].Rec.Height), raylib.Black) rl.DrawRectangleLines(int32(g.Pipes[i*2].Rec.X), int32(g.Pipes[i*2].Rec.Y), int32(g.Pipes[i*2].Rec.Width), int32(g.Pipes[i*2].Rec.Height), rl.Black)
raylib.DrawRectangleLines(int32(g.Pipes[i*2+1].Rec.X), int32(g.Pipes[i*2+1].Rec.Y), int32(g.Pipes[i*2+1].Rec.Width), int32(g.Pipes[i*2+1].Rec.Height), raylib.Black) rl.DrawRectangleLines(int32(g.Pipes[i*2+1].Rec.X), int32(g.Pipes[i*2+1].Rec.Y), int32(g.Pipes[i*2+1].Rec.Width), int32(g.Pipes[i*2+1].Rec.Height), rl.Black)
} }
// Draw Super Flashing FX (one frame only) // Draw Super Flashing FX (one frame only)
if g.SuperFX { if g.SuperFX {
raylib.DrawRectangle(0, 0, screenWidth, screenHeight, raylib.White) rl.DrawRectangle(0, 0, screenWidth, screenHeight, rl.White)
g.SuperFX = false g.SuperFX = false
} }
// Draw HI-SCORE // Draw HI-SCORE
raylib.DrawText(fmt.Sprintf("%02d", g.Score), 20, 20, 32, raylib.Black) rl.DrawText(fmt.Sprintf("%02d", g.Score), 20, 20, 32, rl.Black)
raylib.DrawText(fmt.Sprintf("HI-SCORE: %02d", g.HiScore), 20, 64, 20, raylib.Black) rl.DrawText(fmt.Sprintf("HI-SCORE: %02d", g.HiScore), 20, 64, 20, rl.Black)
if g.Pause { if g.Pause {
// Draw PAUSED text // Draw PAUSED text
raylib.DrawText("PAUSED", screenWidth/2-raylib.MeasureText("PAUSED", 24)/2, screenHeight/2-50, 20, raylib.Black) rl.DrawText("PAUSED", screenWidth/2-rl.MeasureText("PAUSED", 24)/2, screenHeight/2-50, 20, rl.Black)
} }
} else { } else {
// Draw text // Draw text
raylib.DrawText("Floppy Gopher", raylib.GetScreenWidth()/2-raylib.MeasureText("Floppy Gopher", 40)/2, raylib.GetScreenHeight()/2-150, 40, raylib.RayWhite) rl.DrawText("Floppy Gopher", rl.GetScreenWidth()/2-rl.MeasureText("Floppy Gopher", 40)/2, rl.GetScreenHeight()/2-150, 40, rl.RayWhite)
if runtime.GOOS == "android" { if runtime.GOOS == "android" {
raylib.DrawText("[TAP] TO PLAY", raylib.GetScreenWidth()/2-raylib.MeasureText("[TAP] TO PLAY", 20)/2, raylib.GetScreenHeight()/2-50, 20, raylib.Black) rl.DrawText("[TAP] TO PLAY", rl.GetScreenWidth()/2-rl.MeasureText("[TAP] TO PLAY", 20)/2, rl.GetScreenHeight()/2-50, 20, rl.Black)
} else { } else {
raylib.DrawText("[ENTER] TO PLAY", raylib.GetScreenWidth()/2-raylib.MeasureText("[ENTER] TO PLAY", 20)/2, raylib.GetScreenHeight()/2-50, 20, raylib.Black) rl.DrawText("[ENTER] TO PLAY", rl.GetScreenWidth()/2-rl.MeasureText("[ENTER] TO PLAY", 20)/2, rl.GetScreenHeight()/2-50, 20, rl.Black)
} }
// Draw Gopher // Draw Gopher
raylib.DrawTextureRec(g.TxSprites, g.FrameRec, raylib.NewVector2(float32(raylib.GetScreenWidth()/2-spriteSize/2), float32(raylib.GetScreenHeight()/2)), raylib.RayWhite) rl.DrawTextureRec(g.TxSprites, g.FrameRec, rl.NewVector2(float32(rl.GetScreenWidth()/2-spriteSize/2), float32(rl.GetScreenHeight()/2)), rl.RayWhite)
} }
raylib.EndDrawing() rl.EndDrawing()
} }

54
examples/games/life/main.go
View file

@ -13,8 +13,8 @@ const (
// Cell type // Cell type
type Cell struct { type Cell struct {
Position raylib.Vector2 Position rl.Vector2
Size raylib.Vector2 Size rl.Vector2
Alive bool Alive bool
Next bool Next bool
Visited bool Visited bool
@ -37,10 +37,10 @@ func main() {
game := Game{} game := Game{}
game.Init(false) game.Init(false)
raylib.InitWindow(game.ScreenWidth, game.ScreenHeight, "Conway's Game of Life") rl.InitWindow(game.ScreenWidth, game.ScreenHeight, "Conway's Game of Life")
raylib.SetTargetFPS(20) rl.SetTargetFPS(20)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if game.Playing { if game.Playing {
game.Update() game.Update()
} }
@ -50,7 +50,7 @@ func main() {
game.Draw() game.Draw()
} }
raylib.CloseWindow() rl.CloseWindow()
} }
// Init - Initialize game // Init - Initialize game
@ -70,8 +70,8 @@ func (g *Game) Init(clear bool) {
for x := int32(0); x <= g.Cols; x++ { for x := int32(0); x <= g.Cols; x++ {
for y := int32(0); y <= g.Rows; y++ { for y := int32(0); y <= g.Rows; y++ {
g.Cells[x][y] = &Cell{} g.Cells[x][y] = &Cell{}
g.Cells[x][y].Position = raylib.NewVector2((float32(x) * squareSize), (float32(y)*squareSize)+1) g.Cells[x][y].Position = rl.NewVector2((float32(x) * squareSize), (float32(y)*squareSize)+1)
g.Cells[x][y].Size = raylib.NewVector2(squareSize-1, squareSize-1) g.Cells[x][y].Size = rl.NewVector2(squareSize-1, squareSize-1)
if rand.Float64() < 0.1 && clear == false { if rand.Float64() < 0.1 && clear == false {
g.Cells[x][y].Alive = true g.Cells[x][y].Alive = true
} }
@ -82,19 +82,19 @@ func (g *Game) Init(clear bool) {
// Input - Game input // Input - Game input
func (g *Game) Input() { func (g *Game) Input() {
// control // control
if raylib.IsKeyPressed(raylib.KeyR) { if rl.IsKeyPressed(rl.KeyR) {
g.Init(false) g.Init(false)
} }
if raylib.IsKeyPressed(raylib.KeyC) { if rl.IsKeyPressed(rl.KeyC) {
g.Init(true) g.Init(true)
} }
if raylib.IsKeyDown(raylib.KeyRight) && !g.Playing { if rl.IsKeyDown(rl.KeyRight) && !g.Playing {
g.Update() g.Update()
} }
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
g.Click(raylib.GetMouseX(), raylib.GetMouseY()) g.Click(rl.GetMouseX(), rl.GetMouseY())
} }
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
g.Playing = !g.Playing g.Playing = !g.Playing
} }
@ -165,36 +165,36 @@ func (g *Game) CountNeighbors(x, y int32) int {
// Draw - Draw game // Draw - Draw game
func (g *Game) Draw() { func (g *Game) Draw() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
// Draw cells // Draw cells
for x := int32(0); x <= g.Cols; x++ { for x := int32(0); x <= g.Cols; x++ {
for y := int32(0); y <= g.Rows; y++ { for y := int32(0); y <= g.Rows; y++ {
if g.Cells[x][y].Alive { if g.Cells[x][y].Alive {
raylib.DrawRectangleV(g.Cells[x][y].Position, g.Cells[x][y].Size, raylib.Blue) rl.DrawRectangleV(g.Cells[x][y].Position, g.Cells[x][y].Size, rl.Blue)
} else if g.Cells[x][y].Visited { } else if g.Cells[x][y].Visited {
raylib.DrawRectangleV(g.Cells[x][y].Position, g.Cells[x][y].Size, raylib.Color{R: 128, G: 177, B: 136, A: 255}) rl.DrawRectangleV(g.Cells[x][y].Position, g.Cells[x][y].Size, rl.Color{R: 128, G: 177, B: 136, A: 255})
} }
} }
} }
// Draw grid lines // Draw grid lines
for i := int32(0); i < g.Cols+1; i++ { for i := int32(0); i < g.Cols+1; i++ {
raylib.DrawLineV( rl.DrawLineV(
raylib.NewVector2(float32(squareSize*i), 0), rl.NewVector2(float32(squareSize*i), 0),
raylib.NewVector2(float32(squareSize*i), float32(g.ScreenHeight)), rl.NewVector2(float32(squareSize*i), float32(g.ScreenHeight)),
raylib.LightGray, rl.LightGray,
) )
} }
for i := int32(0); i < g.Rows+1; i++ { for i := int32(0); i < g.Rows+1; i++ {
raylib.DrawLineV( rl.DrawLineV(
raylib.NewVector2(0, float32(squareSize*i)), rl.NewVector2(0, float32(squareSize*i)),
raylib.NewVector2(float32(g.ScreenWidth), float32(squareSize*i)), rl.NewVector2(float32(g.ScreenWidth), float32(squareSize*i)),
raylib.LightGray, rl.LightGray,
) )
} }
raylib.EndDrawing() rl.EndDrawing()
} }

114
examples/games/snake/main.go
View file

@ -11,18 +11,18 @@ const (
// Snake type // Snake type
type Snake struct { type Snake struct {
Position raylib.Vector2 Position rl.Vector2
Size raylib.Vector2 Size rl.Vector2
Speed raylib.Vector2 Speed rl.Vector2
Color raylib.Color Color rl.Color
} }
// Food type // Food type
type Food struct { type Food struct {
Position raylib.Vector2 Position rl.Vector2
Size raylib.Vector2 Size rl.Vector2
Active bool Active bool
Color raylib.Color Color rl.Color
} }
// Game type // Game type
@ -36,9 +36,9 @@ type Game struct {
Fruit Food Fruit Food
Snake []Snake Snake []Snake
SnakePosition []raylib.Vector2 SnakePosition []rl.Vector2
AllowMove bool AllowMove bool
Offset raylib.Vector2 Offset rl.Vector2
CounterTail int CounterTail int
} }
@ -46,17 +46,17 @@ func main() {
game := Game{} game := Game{}
game.Init() game.Init()
raylib.InitWindow(game.ScreenWidth, game.ScreenHeight, "sample game: snake") rl.InitWindow(game.ScreenWidth, game.ScreenHeight, "sample game: snake")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
game.Update() game.Update()
game.Draw() game.Draw()
} }
raylib.CloseWindow() rl.CloseWindow()
} }
// Init - Initialize game // Init - Initialize game
@ -71,58 +71,58 @@ func (g *Game) Init() {
g.CounterTail = 1 g.CounterTail = 1
g.AllowMove = false g.AllowMove = false
g.Offset = raylib.Vector2{} g.Offset = rl.Vector2{}
g.Offset.X = float32(g.ScreenWidth % squareSize) g.Offset.X = float32(g.ScreenWidth % squareSize)
g.Offset.Y = float32(g.ScreenHeight % squareSize) g.Offset.Y = float32(g.ScreenHeight % squareSize)
g.Snake = make([]Snake, snakeLength) g.Snake = make([]Snake, snakeLength)
for i := 0; i < snakeLength; i++ { for i := 0; i < snakeLength; i++ {
g.Snake[i].Position = raylib.NewVector2(g.Offset.X/2, g.Offset.Y/2) g.Snake[i].Position = rl.NewVector2(g.Offset.X/2, g.Offset.Y/2)
g.Snake[i].Size = raylib.NewVector2(squareSize, squareSize) g.Snake[i].Size = rl.NewVector2(squareSize, squareSize)
g.Snake[i].Speed = raylib.NewVector2(squareSize, 0) g.Snake[i].Speed = rl.NewVector2(squareSize, 0)
if i == 0 { if i == 0 {
g.Snake[i].Color = raylib.DarkBlue g.Snake[i].Color = rl.DarkBlue
} else { } else {
g.Snake[i].Color = raylib.Blue g.Snake[i].Color = rl.Blue
} }
} }
g.SnakePosition = make([]raylib.Vector2, snakeLength) g.SnakePosition = make([]rl.Vector2, snakeLength)
for i := 0; i < snakeLength; i++ { for i := 0; i < snakeLength; i++ {
g.SnakePosition[i] = raylib.NewVector2(0.0, 0.0) g.SnakePosition[i] = rl.NewVector2(0.0, 0.0)
} }
g.Fruit.Size = raylib.NewVector2(squareSize, squareSize) g.Fruit.Size = rl.NewVector2(squareSize, squareSize)
g.Fruit.Color = raylib.SkyBlue g.Fruit.Color = rl.SkyBlue
g.Fruit.Active = false g.Fruit.Active = false
} }
// Update - Update game // Update - Update game
func (g *Game) Update() { func (g *Game) Update() {
if !g.GameOver { if !g.GameOver {
if raylib.IsKeyPressed(raylib.KeyP) { if rl.IsKeyPressed('P') {
g.Pause = !g.Pause g.Pause = !g.Pause
} }
if !g.Pause { if !g.Pause {
// control // control
if raylib.IsKeyPressed(raylib.KeyRight) && g.Snake[0].Speed.X == 0 && g.AllowMove { if rl.IsKeyPressed(rl.KeyRight) && g.Snake[0].Speed.X == 0 && g.AllowMove {
g.Snake[0].Speed = raylib.NewVector2(squareSize, 0) g.Snake[0].Speed = rl.NewVector2(squareSize, 0)
g.AllowMove = false g.AllowMove = false
} }
if raylib.IsKeyPressed(raylib.KeyLeft) && g.Snake[0].Speed.X == 0 && g.AllowMove { if rl.IsKeyPressed(rl.KeyLeft) && g.Snake[0].Speed.X == 0 && g.AllowMove {
g.Snake[0].Speed = raylib.NewVector2(-squareSize, 0) g.Snake[0].Speed = rl.NewVector2(-squareSize, 0)
g.AllowMove = false g.AllowMove = false
} }
if raylib.IsKeyPressed(raylib.KeyUp) && g.Snake[0].Speed.Y == 0 && g.AllowMove { if rl.IsKeyPressed(rl.KeyUp) && g.Snake[0].Speed.Y == 0 && g.AllowMove {
g.Snake[0].Speed = raylib.NewVector2(0, -squareSize) g.Snake[0].Speed = rl.NewVector2(0, -squareSize)
g.AllowMove = false g.AllowMove = false
} }
if raylib.IsKeyPressed(raylib.KeyDown) && g.Snake[0].Speed.Y == 0 && g.AllowMove { if rl.IsKeyPressed(rl.KeyDown) && g.Snake[0].Speed.Y == 0 && g.AllowMove {
g.Snake[0].Speed = raylib.NewVector2(0, squareSize) g.Snake[0].Speed = rl.NewVector2(0, squareSize)
g.AllowMove = false g.AllowMove = false
} }
@ -159,16 +159,16 @@ func (g *Game) Update() {
if !g.Fruit.Active { if !g.Fruit.Active {
g.Fruit.Active = true g.Fruit.Active = true
g.Fruit.Position = raylib.NewVector2( g.Fruit.Position = rl.NewVector2(
float32(raylib.GetRandomValue(0, (g.ScreenWidth/squareSize)-1)*squareSize+int32(g.Offset.X)/2), float32(rl.GetRandomValue(0, (g.ScreenWidth/squareSize)-1)*squareSize+int32(g.Offset.X)/2),
float32(raylib.GetRandomValue(0, (g.ScreenHeight/squareSize)-1)*squareSize+int32(g.Offset.Y)/2), float32(rl.GetRandomValue(0, (g.ScreenHeight/squareSize)-1)*squareSize+int32(g.Offset.Y)/2),
) )
for i := 0; i < g.CounterTail; i++ { for i := 0; i < g.CounterTail; i++ {
for (g.Fruit.Position.X == g.Snake[i].Position.X) && (g.Fruit.Position.Y == g.Snake[i].Position.Y) { for (g.Fruit.Position.X == g.Snake[i].Position.X) && (g.Fruit.Position.Y == g.Snake[i].Position.Y) {
g.Fruit.Position = raylib.NewVector2( g.Fruit.Position = rl.NewVector2(
float32(raylib.GetRandomValue(0, (g.ScreenWidth/squareSize)-1)*squareSize), float32(rl.GetRandomValue(0, (g.ScreenWidth/squareSize)-1)*squareSize),
float32(raylib.GetRandomValue(0, (g.ScreenHeight/squareSize)-1)*squareSize), float32(rl.GetRandomValue(0, (g.ScreenHeight/squareSize)-1)*squareSize),
) )
i = 0 i = 0
} }
@ -176,9 +176,9 @@ func (g *Game) Update() {
} }
// collision // collision
if raylib.CheckCollisionRecs( if rl.CheckCollisionRecs(
raylib.NewRectangle(g.Snake[0].Position.X, g.Snake[0].Position.Y, g.Snake[0].Size.X, g.Snake[0].Size.Y), rl.NewRectangle(g.Snake[0].Position.X, g.Snake[0].Position.Y, g.Snake[0].Size.X, g.Snake[0].Size.Y),
raylib.NewRectangle(g.Fruit.Position.X, g.Fruit.Position.Y, g.Fruit.Size.X, g.Fruit.Size.Y), rl.NewRectangle(g.Fruit.Position.X, g.Fruit.Position.Y, g.Fruit.Size.X, g.Fruit.Size.Y),
) { ) {
g.Snake[g.CounterTail].Position = g.SnakePosition[g.CounterTail-1] g.Snake[g.CounterTail].Position = g.SnakePosition[g.CounterTail-1]
g.CounterTail += 1 g.CounterTail += 1
@ -188,7 +188,7 @@ func (g *Game) Update() {
g.FramesCounter++ g.FramesCounter++
} }
} else { } else {
if raylib.IsKeyPressed(raylib.KeyEnter) { if rl.IsKeyPressed(rl.KeyEnter) {
g.Init() g.Init()
g.GameOver = false g.GameOver = false
} }
@ -197,42 +197,42 @@ func (g *Game) Update() {
// Draw - Draw game // Draw - Draw game
func (g *Game) Draw() { func (g *Game) Draw() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
if !g.GameOver { if !g.GameOver {
// Draw grid lines // Draw grid lines
for i := int32(0); i < g.ScreenWidth/squareSize+1; i++ { for i := int32(0); i < g.ScreenWidth/squareSize+1; i++ {
raylib.DrawLineV( rl.DrawLineV(
raylib.NewVector2(float32(squareSize*i)+g.Offset.X/2, g.Offset.Y/2), rl.NewVector2(float32(squareSize*i)+g.Offset.X/2, g.Offset.Y/2),
raylib.NewVector2(float32(squareSize*i)+g.Offset.X/2, float32(g.ScreenHeight)-g.Offset.Y/2), rl.NewVector2(float32(squareSize*i)+g.Offset.X/2, float32(g.ScreenHeight)-g.Offset.Y/2),
raylib.LightGray, rl.LightGray,
) )
} }
for i := int32(0); i < g.ScreenHeight/squareSize+1; i++ { for i := int32(0); i < g.ScreenHeight/squareSize+1; i++ {
raylib.DrawLineV( rl.DrawLineV(
raylib.NewVector2(g.Offset.X/2, float32(squareSize*i)+g.Offset.Y/2), rl.NewVector2(g.Offset.X/2, float32(squareSize*i)+g.Offset.Y/2),
raylib.NewVector2(float32(g.ScreenWidth)-g.Offset.X/2, float32(squareSize*i)+g.Offset.Y/2), rl.NewVector2(float32(g.ScreenWidth)-g.Offset.X/2, float32(squareSize*i)+g.Offset.Y/2),
raylib.LightGray, rl.LightGray,
) )
} }
// Draw snake // Draw snake
for i := 0; i < g.CounterTail; i++ { for i := 0; i < g.CounterTail; i++ {
raylib.DrawRectangleV(g.Snake[i].Position, g.Snake[i].Size, g.Snake[i].Color) rl.DrawRectangleV(g.Snake[i].Position, g.Snake[i].Size, g.Snake[i].Color)
} }
// Draw fruit to pick // Draw fruit to pick
raylib.DrawRectangleV(g.Fruit.Position, g.Fruit.Size, g.Fruit.Color) rl.DrawRectangleV(g.Fruit.Position, g.Fruit.Size, g.Fruit.Color)
if g.Pause { if g.Pause {
raylib.DrawText("GAME PAUSED", g.ScreenWidth/2-raylib.MeasureText("GAME PAUSED", 40)/2, g.ScreenHeight/2-40, 40, raylib.Gray) rl.DrawText("GAME PAUSED", g.ScreenWidth/2-rl.MeasureText("GAME PAUSED", 40)/2, g.ScreenHeight/2-40, 40, rl.Gray)
} }
} else { } else {
raylib.DrawText("PRESS [ENTER] TO PLAY AGAIN", raylib.GetScreenWidth()/2-raylib.MeasureText("PRESS [ENTER] TO PLAY AGAIN", 20)/2, raylib.GetScreenHeight()/2-50, 20, raylib.Gray) rl.DrawText("PRESS [ENTER] TO PLAY AGAIN", rl.GetScreenWidth()/2-rl.MeasureText("PRESS [ENTER] TO PLAY AGAIN", 20)/2, rl.GetScreenHeight()/2-50, 20, rl.Gray)
} }
raylib.EndDrawing() rl.EndDrawing()
} }

60
examples/gui/basic_controls/main.go
View file

@ -11,9 +11,9 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagVsyncHint) rl.SetConfigFlags(rl.FlagVsyncHint)
raylib.InitWindow(screenWidth, screenHeight, "raylib [gui] example - basic controls") rl.InitWindow(screenWidth, screenHeight, "raylib [gui] example - basic controls")
buttonToggle := true buttonToggle := true
buttonClicked := false buttonClicked := false
@ -33,9 +33,9 @@ func main() {
var inputText string var inputText string
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if buttonClicked { if buttonClicked {
progressValue += 0.1 progressValue += 0.1
if progressValue >= 1.1 { if progressValue >= 1.1 {
@ -43,50 +43,50 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Beige) rl.ClearBackground(rl.Beige)
raygui.Label(raylib.NewRectangle(50, 50, 80, 20), "Label") raygui.Label(rl.NewRectangle(50, 50, 80, 20), "Label")
buttonClicked = raygui.Button(raylib.NewRectangle(50, 70, 80, 40), "Button") buttonClicked = raygui.Button(rl.NewRectangle(50, 70, 80, 40), "Button")
raygui.Label(raylib.NewRectangle(70, 140, 20, 20), "Checkbox") raygui.Label(rl.NewRectangle(70, 140, 20, 20), "Checkbox")
checkboxChecked = raygui.CheckBox(raylib.NewRectangle(50, 140, 20, 20), checkboxChecked) checkboxChecked = raygui.CheckBox(rl.NewRectangle(50, 140, 20, 20), checkboxChecked)
raygui.Label(raylib.NewRectangle(50, 190, 200, 20), "ProgressBar") raygui.Label(rl.NewRectangle(50, 190, 200, 20), "ProgressBar")
raygui.ProgressBar(raylib.NewRectangle(50, 210, 200, 20), progressValue) raygui.ProgressBar(rl.NewRectangle(50, 210, 200, 20), progressValue)
raygui.Label(raylib.NewRectangle(200+50+5, 210, 20, 20), fmt.Sprintf("%.1f", progressValue)) raygui.Label(rl.NewRectangle(200+50+5, 210, 20, 20), fmt.Sprintf("%.1f", progressValue))
raygui.Label(raylib.NewRectangle(50, 260, 200, 20), "Slider") raygui.Label(rl.NewRectangle(50, 260, 200, 20), "Slider")
sliderValue = raygui.Slider(raylib.NewRectangle(50, 280, 200, 20), sliderValue, 0, 100) sliderValue = raygui.Slider(rl.NewRectangle(50, 280, 200, 20), sliderValue, 0, 100)
raygui.Label(raylib.NewRectangle(200+50+5, 280, 20, 20), fmt.Sprintf("%.0f", sliderValue)) raygui.Label(rl.NewRectangle(200+50+5, 280, 20, 20), fmt.Sprintf("%.0f", sliderValue))
buttonToggle = raygui.ToggleButton(raylib.NewRectangle(50, 350, 100, 40), "ToggleButton", buttonToggle) buttonToggle = raygui.ToggleButton(rl.NewRectangle(50, 350, 100, 40), "ToggleButton", buttonToggle)
raygui.Label(raylib.NewRectangle(500, 50, 200, 20), "ToggleGroup") raygui.Label(rl.NewRectangle(500, 50, 200, 20), "ToggleGroup")
toggleActive = raygui.ToggleGroup(raylib.NewRectangle(500, 70, 60, 30), toggleText, toggleActive) toggleActive = raygui.ToggleGroup(rl.NewRectangle(500, 70, 60, 30), toggleText, toggleActive)
raygui.Label(raylib.NewRectangle(500, 120, 200, 20), "SliderBar") raygui.Label(rl.NewRectangle(500, 120, 200, 20), "SliderBar")
sliderBarValue = raygui.SliderBar(raylib.NewRectangle(500, 140, 200, 20), sliderBarValue, 0, 100) sliderBarValue = raygui.SliderBar(rl.NewRectangle(500, 140, 200, 20), sliderBarValue, 0, 100)
raygui.Label(raylib.NewRectangle(500+200+5, 140, 20, 20), fmt.Sprintf("%.0f", sliderBarValue)) raygui.Label(rl.NewRectangle(500+200+5, 140, 20, 20), fmt.Sprintf("%.0f", sliderBarValue))
raygui.Label(raylib.NewRectangle(500, 190, 200, 20), "Spinner") raygui.Label(rl.NewRectangle(500, 190, 200, 20), "Spinner")
spinnerValue = raygui.Spinner(raylib.NewRectangle(500, 210, 200, 20), spinnerValue, 0, 100) spinnerValue = raygui.Spinner(rl.NewRectangle(500, 210, 200, 20), spinnerValue, 0, 100)
raygui.Label(raylib.NewRectangle(500, 260, 200, 20), "ComboBox") raygui.Label(rl.NewRectangle(500, 260, 200, 20), "ComboBox")
comboActive = raygui.ComboBox(raylib.NewRectangle(500, 280, 200, 20), comboText, comboActive) comboActive = raygui.ComboBox(rl.NewRectangle(500, 280, 200, 20), comboText, comboActive)
if comboLastActive != comboActive { if comboLastActive != comboActive {
raygui.LoadGuiStyle(fmt.Sprintf("styles/%s.style", comboText[comboActive])) raygui.LoadGuiStyle(fmt.Sprintf("styles/%s.style", comboText[comboActive]))
comboLastActive = comboActive comboLastActive = comboActive
} }
raygui.Label(raylib.NewRectangle(500, 330, 200, 20), "TextBox") raygui.Label(rl.NewRectangle(500, 330, 200, 20), "TextBox")
inputText = raygui.TextBox(raylib.NewRectangle(500, 350, 200, 20), inputText) inputText = raygui.TextBox(rl.NewRectangle(500, 350, 200, 20), inputText)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

42
examples/models/billboard/main.go
View file

@ -8,41 +8,41 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - drawing billboards") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - drawing billboards")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(5.0, 4.0, 5.0) camera.Position = rl.NewVector3(5.0, 4.0, 5.0)
camera.Target = raylib.NewVector3(0.0, 2.0, 0.0) camera.Target = rl.NewVector3(0.0, 2.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
bill := raylib.LoadTexture("billboard.png") // Our texture billboard bill := rl.LoadTexture("billboard.png") // Our texture billboard
billPosition := raylib.NewVector3(0.0, 2.0, 0.0) // Position where draw billboard billPosition := rl.NewVector3(0.0, 2.0, 0.0) // Position where draw billboard
raylib.SetCameraMode(camera, raylib.CameraOrbital) // Set an orbital camera mode rl.SetCameraMode(camera, rl.CameraOrbital) // Set an orbital camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawBillboard(camera, bill, billPosition, 2.0, raylib.White) rl.DrawBillboard(camera, bill, billPosition, 2.0, rl.White)
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(bill) // Unload texture rl.UnloadTexture(bill) // Unload texture
raylib.CloseWindow() rl.CloseWindow()
} }

90
examples/models/box_collisions/main.go
View file

@ -8,62 +8,62 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - box collisions") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - box collisions")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(0.0, 10.0, 10.0) camera.Position = rl.NewVector3(0.0, 10.0, 10.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
playerPosition := raylib.NewVector3(0.0, 1.0, 2.0) playerPosition := rl.NewVector3(0.0, 1.0, 2.0)
playerSize := raylib.NewVector3(1.0, 2.0, 1.0) playerSize := rl.NewVector3(1.0, 2.0, 1.0)
playerColor := raylib.Green playerColor := rl.Green
enemyBoxPos := raylib.NewVector3(-4.0, 1.0, 0.0) enemyBoxPos := rl.NewVector3(-4.0, 1.0, 0.0)
enemyBoxSize := raylib.NewVector3(2.0, 2.0, 2.0) enemyBoxSize := rl.NewVector3(2.0, 2.0, 2.0)
enemySpherePos := raylib.NewVector3(4.0, 0.0, 0.0) enemySpherePos := rl.NewVector3(4.0, 0.0, 0.0)
enemySphereSize := float32(1.5) enemySphereSize := float32(1.5)
collision := false collision := false
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
// Move player // Move player
if raylib.IsKeyDown(raylib.KeyRight) { if rl.IsKeyDown(rl.KeyRight) {
playerPosition.X += 0.2 playerPosition.X += 0.2
} else if raylib.IsKeyDown(raylib.KeyLeft) { } else if rl.IsKeyDown(rl.KeyLeft) {
playerPosition.X -= 0.2 playerPosition.X -= 0.2
} else if raylib.IsKeyDown(raylib.KeyDown) { } else if rl.IsKeyDown(rl.KeyDown) {
playerPosition.Z += 0.2 playerPosition.Z += 0.2
} else if raylib.IsKeyDown(raylib.KeyUp) { } else if rl.IsKeyDown(rl.KeyUp) {
playerPosition.Z -= 0.2 playerPosition.Z -= 0.2
} }
collision = false collision = false
// Check collisions player vs enemy-box // Check collisions player vs enemy-box
if raylib.CheckCollisionBoxes( if rl.CheckCollisionBoxes(
raylib.NewBoundingBox( rl.NewBoundingBox(
raylib.NewVector3(playerPosition.X-playerSize.X/2, playerPosition.Y-playerSize.Y/2, playerPosition.Z-playerSize.Z/2), rl.NewVector3(playerPosition.X-playerSize.X/2, playerPosition.Y-playerSize.Y/2, playerPosition.Z-playerSize.Z/2),
raylib.NewVector3(playerPosition.X+playerSize.X/2, playerPosition.Y+playerSize.Y/2, playerPosition.Z+playerSize.Z/2)), rl.NewVector3(playerPosition.X+playerSize.X/2, playerPosition.Y+playerSize.Y/2, playerPosition.Z+playerSize.Z/2)),
raylib.NewBoundingBox( rl.NewBoundingBox(
raylib.NewVector3(enemyBoxPos.X-enemyBoxSize.X/2, enemyBoxPos.Y-enemyBoxSize.Y/2, enemyBoxPos.Z-enemyBoxSize.Z/2), rl.NewVector3(enemyBoxPos.X-enemyBoxSize.X/2, enemyBoxPos.Y-enemyBoxSize.Y/2, enemyBoxPos.Z-enemyBoxSize.Z/2),
raylib.NewVector3(enemyBoxPos.X+enemyBoxSize.X/2, enemyBoxPos.Y+enemyBoxSize.Y/2, enemyBoxPos.Z+enemyBoxSize.Z/2)), rl.NewVector3(enemyBoxPos.X+enemyBoxSize.X/2, enemyBoxPos.Y+enemyBoxSize.Y/2, enemyBoxPos.Z+enemyBoxSize.Z/2)),
) { ) {
collision = true collision = true
} }
// Check collisions player vs enemy-sphere // Check collisions player vs enemy-sphere
if raylib.CheckCollisionBoxSphere( if rl.CheckCollisionBoxSphere(
raylib.NewBoundingBox( rl.NewBoundingBox(
raylib.NewVector3(playerPosition.X-playerSize.X/2, playerPosition.Y-playerSize.Y/2, playerPosition.Z-playerSize.Z/2), rl.NewVector3(playerPosition.X-playerSize.X/2, playerPosition.Y-playerSize.Y/2, playerPosition.Z-playerSize.Z/2),
raylib.NewVector3(playerPosition.X+playerSize.X/2, playerPosition.Y+playerSize.Y/2, playerPosition.Z+playerSize.Z/2)), rl.NewVector3(playerPosition.X+playerSize.X/2, playerPosition.Y+playerSize.Y/2, playerPosition.Z+playerSize.Z/2)),
enemySpherePos, enemySpherePos,
enemySphereSize, enemySphereSize,
) { ) {
@ -71,40 +71,40 @@ func main() {
} }
if collision { if collision {
playerColor = raylib.Red playerColor = rl.Red
} else { } else {
playerColor = raylib.Green playerColor = rl.Green
} }
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
// Draw enemy-box // Draw enemy-box
raylib.DrawCube(enemyBoxPos, enemyBoxSize.X, enemyBoxSize.Y, enemyBoxSize.Z, raylib.Gray) rl.DrawCube(enemyBoxPos, enemyBoxSize.X, enemyBoxSize.Y, enemyBoxSize.Z, rl.Gray)
raylib.DrawCubeWires(enemyBoxPos, enemyBoxSize.X, enemyBoxSize.Y, enemyBoxSize.Z, raylib.DarkGray) rl.DrawCubeWires(enemyBoxPos, enemyBoxSize.X, enemyBoxSize.Y, enemyBoxSize.Z, rl.DarkGray)
// Draw enemy-sphere // Draw enemy-sphere
raylib.DrawSphere(enemySpherePos, enemySphereSize, raylib.Gray) rl.DrawSphere(enemySpherePos, enemySphereSize, rl.Gray)
raylib.DrawSphereWires(enemySpherePos, enemySphereSize, 16, 16, raylib.DarkGray) rl.DrawSphereWires(enemySpherePos, enemySphereSize, 16, 16, rl.DarkGray)
// Draw player // Draw player
raylib.DrawCubeV(playerPosition, playerSize, playerColor) rl.DrawCubeV(playerPosition, playerSize, playerColor)
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("Move player with cursors to collide", 220, 40, 20, raylib.Gray) rl.DrawText("Move player with cursors to collide", 220, 40, 20, rl.Gray)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

66
examples/models/cubicmap/main.go
View file

@ -8,64 +8,64 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - cubesmap loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - cubesmap loading and drawing")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(16.0, 14.0, 16.0) camera.Position = rl.NewVector3(16.0, 14.0, 16.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
camera.Type = raylib.CameraPerspective camera.Type = rl.CameraPerspective
image := raylib.LoadImage("cubicmap.png") // Load cubicmap image (RAM) image := rl.LoadImage("cubicmap.png") // Load cubicmap image (RAM)
cubicmap := raylib.LoadTextureFromImage(image) // Convert image to texture to display (VRAM) cubicmap := rl.LoadTextureFromImage(image) // Convert image to texture to display (VRAM)
mesh := raylib.GenMeshCubicmap(*image, raylib.NewVector3(1.0, 1.0, 1.0)) mesh := rl.GenMeshCubicmap(*image, rl.NewVector3(1.0, 1.0, 1.0))
model := raylib.LoadModelFromMesh(mesh) model := rl.LoadModelFromMesh(mesh)
// NOTE: By default each cube is mapped to one part of texture atlas // NOTE: By default each cube is mapped to one part of texture atlas
texture := raylib.LoadTexture("cubicmap_atlas.png") // Load map texture texture := rl.LoadTexture("cubicmap_atlas.png") // Load map texture
model.Material.Maps[raylib.MapDiffuse].Texture = texture // Set map diffuse texture model.Material.Maps[rl.MapDiffuse].Texture = texture // Set map diffuse texture
mapPosition := raylib.NewVector3(-16.0, 0.0, -8.0) // Set model position mapPosition := rl.NewVector3(-16.0, 0.0, -8.0) // Set model position
raylib.UnloadImage(image) // Unload cubicmap image from RAM, already uploaded to VRAM rl.UnloadImage(image) // Unload cubicmap image from RAM, already uploaded to VRAM
raylib.SetCameraMode(camera, raylib.CameraOrbital) // Set an orbital camera mode rl.SetCameraMode(camera, rl.CameraOrbital) // Set an orbital camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(model, mapPosition, 1.0, raylib.White) rl.DrawModel(model, mapPosition, 1.0, rl.White)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawTextureEx(cubicmap, raylib.NewVector2(float32(screenWidth-cubicmap.Width*4-20), 20), 0.0, 4.0, raylib.White) rl.DrawTextureEx(cubicmap, rl.NewVector2(float32(screenWidth-cubicmap.Width*4-20), 20), 0.0, 4.0, rl.White)
raylib.DrawRectangleLines(screenWidth-cubicmap.Width*4-20, 20, cubicmap.Width*4, cubicmap.Height*4, raylib.Green) rl.DrawRectangleLines(screenWidth-cubicmap.Width*4-20, 20, cubicmap.Width*4, cubicmap.Height*4, rl.Green)
raylib.DrawText("cubicmap image used to", 658, 90, 10, raylib.Gray) rl.DrawText("cubicmap image used to", 658, 90, 10, rl.Gray)
raylib.DrawText("generate map 3d model", 658, 104, 10, raylib.Gray) rl.DrawText("generate map 3d model", 658, 104, 10, rl.Gray)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(cubicmap) // Unload cubicmap texture rl.UnloadTexture(cubicmap) // Unload cubicmap texture
raylib.UnloadTexture(texture) // Unload map texture rl.UnloadTexture(texture) // Unload map texture
raylib.UnloadModel(model) // Unload map model rl.UnloadModel(model) // Unload map model
raylib.CloseWindow() rl.CloseWindow()
} }

50
examples/models/geometric_shapes/main.go
View file

@ -8,45 +8,45 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - geometric shapes") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - geometric shapes")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(0.0, 10.0, 10.0) camera.Position = rl.NewVector3(0.0, 10.0, 10.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawCube(raylib.NewVector3(-4.0, 0.0, 2.0), 2.0, 5.0, 2.0, raylib.Red) rl.DrawCube(rl.NewVector3(-4.0, 0.0, 2.0), 2.0, 5.0, 2.0, rl.Red)
raylib.DrawCubeWires(raylib.NewVector3(-4.0, 0.0, 2.0), 2.0, 5.0, 2.0, raylib.Gold) rl.DrawCubeWires(rl.NewVector3(-4.0, 0.0, 2.0), 2.0, 5.0, 2.0, rl.Gold)
raylib.DrawCubeWires(raylib.NewVector3(-4.0, 0.0, -2.0), 3.0, 6.0, 2.0, raylib.Maroon) rl.DrawCubeWires(rl.NewVector3(-4.0, 0.0, -2.0), 3.0, 6.0, 2.0, rl.Maroon)
raylib.DrawSphere(raylib.NewVector3(-1.0, 0.0, -2.0), 1.0, raylib.Green) rl.DrawSphere(rl.NewVector3(-1.0, 0.0, -2.0), 1.0, rl.Green)
raylib.DrawSphereWires(raylib.NewVector3(1.0, 0.0, 2.0), 2.0, 16, 16, raylib.Lime) rl.DrawSphereWires(rl.NewVector3(1.0, 0.0, 2.0), 2.0, 16, 16, rl.Lime)
raylib.DrawCylinder(raylib.NewVector3(4.0, 0.0, -2.0), 1.0, 2.0, 3.0, 4, raylib.SkyBlue) rl.DrawCylinder(rl.NewVector3(4.0, 0.0, -2.0), 1.0, 2.0, 3.0, 4, rl.SkyBlue)
raylib.DrawCylinderWires(raylib.NewVector3(4.0, 0.0, -2.0), 1.0, 2.0, 3.0, 4, raylib.DarkBlue) rl.DrawCylinderWires(rl.NewVector3(4.0, 0.0, -2.0), 1.0, 2.0, 3.0, 4, rl.DarkBlue)
raylib.DrawCylinderWires(raylib.NewVector3(4.5, -1.0, 2.0), 1.0, 1.0, 2.0, 6, raylib.Brown) rl.DrawCylinderWires(rl.NewVector3(4.5, -1.0, 2.0), 1.0, 1.0, 2.0, 6, rl.Brown)
raylib.DrawCylinder(raylib.NewVector3(1.0, 0.0, -4.0), 0.0, 1.5, 3.0, 8, raylib.Gold) rl.DrawCylinder(rl.NewVector3(1.0, 0.0, -4.0), 0.0, 1.5, 3.0, 8, rl.Gold)
raylib.DrawCylinderWires(raylib.NewVector3(1.0, 0.0, -4.0), 0.0, 1.5, 3.0, 8, raylib.Pink) rl.DrawCylinderWires(rl.NewVector3(1.0, 0.0, -4.0), 0.0, 1.5, 3.0, 8, rl.Pink)
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

58
examples/models/heightmap/main.go
View file

@ -8,58 +8,58 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - heightmap loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - heightmap loading and drawing")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(18.0, 16.0, 18.0) camera.Position = rl.NewVector3(18.0, 16.0, 18.0)
camera.Target = raylib.NewVector3(0.0, 0.0, 0.0) camera.Target = rl.NewVector3(0.0, 0.0, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
image := raylib.LoadImage("heightmap.png") // Load heightmap image (RAM) image := rl.LoadImage("heightmap.png") // Load heightmap image (RAM)
texture := raylib.LoadTextureFromImage(image) // Convert image to texture (VRAM) texture := rl.LoadTextureFromImage(image) // Convert image to texture (VRAM)
mesh := raylib.GenMeshHeightmap(*image, raylib.NewVector3(16, 8, 16)) // Generate heightmap mesh (RAM and VRAM) mesh := rl.GenMeshHeightmap(*image, rl.NewVector3(16, 8, 16)) // Generate heightmap mesh (RAM and VRAM)
model := raylib.LoadModelFromMesh(mesh) // Load model from generated mesh model := rl.LoadModelFromMesh(mesh) // Load model from generated mesh
model.Material.Maps[raylib.MapDiffuse].Texture = texture // Set map diffuse texture model.Material.Maps[rl.MapDiffuse].Texture = texture // Set map diffuse texture
mapPosition := raylib.NewVector3(-8.0, 0.0, -8.0) // Set model position mapPosition := rl.NewVector3(-8.0, 0.0, -8.0) // Set model position
raylib.UnloadImage(image) // Unload heightmap image from RAM, already uploaded to VRAM rl.UnloadImage(image) // Unload heightmap image from RAM, already uploaded to VRAM
raylib.SetCameraMode(camera, raylib.CameraOrbital) // Set an orbital camera mode rl.SetCameraMode(camera, rl.CameraOrbital) // Set an orbital camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(model, mapPosition, 1.0, raylib.Red) rl.DrawModel(model, mapPosition, 1.0, rl.Red)
raylib.DrawGrid(20, 1.0) rl.DrawGrid(20, 1.0)
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawTexture(texture, screenWidth-texture.Width-20, 20, raylib.White) rl.DrawTexture(texture, screenWidth-texture.Width-20, 20, rl.White)
raylib.DrawRectangleLines(screenWidth-texture.Width-20, 20, texture.Width, texture.Height, raylib.Green) rl.DrawRectangleLines(screenWidth-texture.Width-20, 20, texture.Width, texture.Height, rl.Green)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) // Unload map texture rl.UnloadTexture(texture) // Unload map texture
raylib.UnloadModel(model) // Unload map model rl.UnloadModel(model) // Unload map model
raylib.CloseWindow() rl.CloseWindow()
} }

46
examples/models/obj_loading/main.go
View file

@ -8,45 +8,45 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [models] example - obj model loading") rl.InitWindow(screenWidth, screenHeight, "raylib [models] example - obj model loading")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(3.0, 3.0, 3.0) camera.Position = rl.NewVector3(3.0, 3.0, 3.0)
camera.Target = raylib.NewVector3(0.0, 1.5, 0.0) camera.Target = rl.NewVector3(0.0, 1.5, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
dwarf := raylib.LoadModel("dwarf.obj") // Load OBJ model dwarf := rl.LoadModel("dwarf.obj") // Load OBJ model
texture := raylib.LoadTexture("dwarf_diffuse.png") // Load model texture texture := rl.LoadTexture("dwarf_diffuse.png") // Load model texture
dwarf.Material.Maps[raylib.MapDiffuse].Texture = texture // Set dwarf model diffuse texture dwarf.Material.Maps[rl.MapDiffuse].Texture = texture // Set dwarf model diffuse texture
position := raylib.NewVector3(0.0, 0.0, 0.0) // Set model position position := rl.NewVector3(0.0, 0.0, 0.0) // Set model position
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(dwarf, position, 2.0, raylib.White) // Draw 3d model with texture rl.DrawModel(dwarf, position, 2.0, rl.White) // Draw 3d model with texture
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.DrawGizmo(position) // Draw gizmo rl.DrawGizmo(position) // Draw gizmo
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) // Unload texture rl.UnloadTexture(texture) // Unload texture
raylib.UnloadModel(dwarf) // Unload model rl.UnloadModel(dwarf) // Unload model
raylib.CloseWindow() rl.CloseWindow()
} }

74
examples/others/android/example/main.go
View file

@ -16,36 +16,36 @@ const (
) )
func init() { func init() {
raylib.SetCallbackFunc(main) rl.SetCallbackFunc(main)
} }
func main() { func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagVsyncHint) rl.SetConfigFlags(rl.FlagVsyncHint)
raylib.InitWindow(screenWidth, screenHeight, "Android example") rl.InitWindow(screenWidth, screenHeight, "Android example")
raylib.InitAudioDevice() rl.InitAudioDevice()
currentScreen := Logo currentScreen := Logo
windowShouldClose := false windowShouldClose := false
texture := raylib.LoadTexture("raylib_logo.png") // Load texture (placed on assets folder) texture := rl.LoadTexture("raylib_logo.png") // Load texture (placed on assets folder)
fx := raylib.LoadSound("coin.wav") // Load WAV audio file (placed on assets folder) fx := rl.LoadSound("coin.wav") // Load WAV audio file (placed on assets folder)
ambient := raylib.LoadMusicStream("ambient.ogg") // Load music ambient := rl.LoadMusicStream("ambient.ogg") // Load music
raylib.PlayMusicStream(ambient) rl.PlayMusicStream(ambient)
framesCounter := 0 // Used to count frames framesCounter := 0 // Used to count frames
//raylib.SetTargetFPS(60) //rl.SetTargetFPS(60)
for !windowShouldClose { for !windowShouldClose {
raylib.UpdateMusicStream(ambient) rl.UpdateMusicStream(ambient)
if runtime.GOOS == "android" && raylib.IsKeyDown(raylib.KeyBack) || raylib.WindowShouldClose() { if runtime.GOOS == "android" && rl.IsKeyDown(rl.KeyBack) || rl.WindowShouldClose() {
windowShouldClose = true windowShouldClose = true
} }
@ -60,64 +60,64 @@ func main() {
break break
case Title: case Title:
// Press enter to change to GamePlay screen // Press enter to change to GamePlay screen
if raylib.IsGestureDetected(raylib.GestureTap) { if rl.IsGestureDetected(rl.GestureTap) {
raylib.PlaySound(fx) rl.PlaySound(fx)
currentScreen = GamePlay currentScreen = GamePlay
} }
break break
case GamePlay: case GamePlay:
// Press enter to change to Ending screen // Press enter to change to Ending screen
if raylib.IsGestureDetected(raylib.GestureTap) { if rl.IsGestureDetected(rl.GestureTap) {
raylib.PlaySound(fx) rl.PlaySound(fx)
currentScreen = Ending currentScreen = Ending
} }
break break
case Ending: case Ending:
// Press enter to return to Title screen // Press enter to return to Title screen
if raylib.IsGestureDetected(raylib.GestureTap) { if rl.IsGestureDetected(rl.GestureTap) {
raylib.PlaySound(fx) rl.PlaySound(fx)
currentScreen = Title currentScreen = Title
} }
break break
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
switch currentScreen { switch currentScreen {
case Logo: case Logo:
raylib.DrawText("LOGO SCREEN", 20, 20, 40, raylib.LightGray) rl.DrawText("LOGO SCREEN", 20, 20, 40, rl.LightGray)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawText("WAIT for 4 SECONDS...", 290, 400, 20, raylib.Gray) rl.DrawText("WAIT for 4 SECONDS...", 290, 400, 20, rl.Gray)
break break
case Title: case Title:
raylib.DrawRectangle(0, 0, screenWidth, screenHeight, raylib.Green) rl.DrawRectangle(0, 0, screenWidth, screenHeight, rl.Green)
raylib.DrawText("TITLE SCREEN", 20, 20, 40, raylib.DarkGreen) rl.DrawText("TITLE SCREEN", 20, 20, 40, rl.DarkGreen)
raylib.DrawText("TAP SCREEN to JUMP to GAMEPLAY SCREEN", 160, 220, 20, raylib.DarkGreen) rl.DrawText("TAP SCREEN to JUMP to GAMEPLAY SCREEN", 160, 220, 20, rl.DarkGreen)
break break
case GamePlay: case GamePlay:
raylib.DrawRectangle(0, 0, screenWidth, screenHeight, raylib.Purple) rl.DrawRectangle(0, 0, screenWidth, screenHeight, rl.Purple)
raylib.DrawText("GAMEPLAY SCREEN", 20, 20, 40, raylib.Maroon) rl.DrawText("GAMEPLAY SCREEN", 20, 20, 40, rl.Maroon)
raylib.DrawText("TAP SCREEN to JUMP to ENDING SCREEN", 170, 220, 20, raylib.Maroon) rl.DrawText("TAP SCREEN to JUMP to ENDING SCREEN", 170, 220, 20, rl.Maroon)
break break
case Ending: case Ending:
raylib.DrawRectangle(0, 0, screenWidth, screenHeight, raylib.Blue) rl.DrawRectangle(0, 0, screenWidth, screenHeight, rl.Blue)
raylib.DrawText("ENDING SCREEN", 20, 20, 40, raylib.DarkBlue) rl.DrawText("ENDING SCREEN", 20, 20, 40, rl.DarkBlue)
raylib.DrawText("TAP SCREEN to RETURN to TITLE SCREEN", 160, 220, 20, raylib.DarkBlue) rl.DrawText("TAP SCREEN to RETURN to TITLE SCREEN", 160, 220, 20, rl.DarkBlue)
break break
default: default:
break break
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadSound(fx) // Unload sound data rl.UnloadSound(fx) // Unload sound data
raylib.UnloadMusicStream(ambient) // Unload music stream data rl.UnloadMusicStream(ambient) // Unload music stream data
raylib.CloseAudioDevice() // Close audio device (music streaming is automatically stopped) rl.CloseAudioDevice() // Close audio device (music streaming is automatically stopped)
raylib.UnloadTexture(texture) // Unload texture data rl.UnloadTexture(texture) // Unload texture data
raylib.CloseWindow() // Close window rl.CloseWindow() // Close window
os.Exit(0) os.Exit(0)
} }

42
examples/others/bunnymark/main.go
View file

@ -8,33 +8,33 @@ import (
// Bunny type // Bunny type
type Bunny struct { type Bunny struct {
Position raylib.Vector2 Position rl.Vector2
Speed raylib.Vector2 Speed rl.Vector2
Color raylib.Color Color rl.Color
} }
func main() { func main() {
screenWidth := int32(1280) screenWidth := int32(1280)
screenHeight := int32(960) screenHeight := int32(960)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - Bunnymark") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - Bunnymark")
texture := raylib.LoadTexture("wabbit_alpha.png") texture := rl.LoadTexture("wabbit_alpha.png")
bunnies := make([]*Bunny, 0) bunnies := make([]*Bunny, 0)
bunniesCount := 0 bunniesCount := 0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
// Create more bunnies // Create more bunnies
for i := 0; i < 100; i++ { for i := 0; i < 100; i++ {
b := &Bunny{} b := &Bunny{}
b.Position = raylib.GetMousePosition() b.Position = rl.GetMousePosition()
b.Speed.X = float32(raylib.GetRandomValue(250, 500)) / 60.0 b.Speed.X = float32(rl.GetRandomValue(250, 500)) / 60.0
b.Speed.Y = float32(raylib.GetRandomValue(250, 500)-500) / 60.0 b.Speed.Y = float32(rl.GetRandomValue(250, 500)-500) / 60.0
bunnies = append(bunnies, b) bunnies = append(bunnies, b)
bunniesCount++ bunniesCount++
@ -55,27 +55,27 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
for _, b := range bunnies { for _, b := range bunnies {
// NOTE: When internal QUADS batch limit is reached, a draw call is launched and // NOTE: When internal QUADS batch limit is reached, a draw call is launched and
// batching buffer starts being filled again; before launching the draw call, // batching buffer starts being filled again; before launching the draw call,
// updated vertex data from internal buffer is send to GPU... it seems it generates // updated vertex data from internal buffer is send to GPU... it seems it generates
// a stall and consequently a frame drop, limiting number of bunnies drawn at 60 fps // a stall and consequently a frame drop, limiting number of bunnies drawn at 60 fps
raylib.DrawTexture(texture, int32(b.Position.X), int32(b.Position.Y), raylib.RayWhite) rl.DrawTexture(texture, int32(b.Position.X), int32(b.Position.Y), rl.RayWhite)
} }
raylib.DrawRectangle(0, 0, screenWidth, 40, raylib.LightGray) rl.DrawRectangle(0, 0, screenWidth, 40, rl.LightGray)
raylib.DrawText("raylib bunnymark", 10, 10, 20, raylib.DarkGray) rl.DrawText("raylib bunnymark", 10, 10, 20, rl.DarkGray)
raylib.DrawText(fmt.Sprintf("bunnies: %d", bunniesCount), 400, 10, 20, raylib.Red) rl.DrawText(fmt.Sprintf("bunnies: %d", bunniesCount), 400, 10, 20, rl.Red)
raylib.DrawFPS(260, 10) rl.DrawFPS(260, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

60
examples/others/resources/main.go
View file

@ -13,14 +13,14 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [core] example - resources loading") rl.InitWindow(screenWidth, screenHeight, "raylib [core] example - resources loading")
raylib.InitAudioDevice() rl.InitAudioDevice()
// OpenAsset() will also work on Android (reads files from assets/) // OpenAsset() will also work on Android (reads files from assets/)
reader, err := raylib.OpenAsset("data.rres") reader, err := rl.OpenAsset("data.rres")
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogWarning, "[%s] rRES raylib resource file could not be opened: %v", "data.rres", err) rl.TraceLog(rl.LogWarning, "[%s] rRES raylib resource file could not be opened: %v", "data.rres", err)
} }
defer reader.Close() defer reader.Close()
@ -30,67 +30,67 @@ func main() {
//reader := bytes.NewReader(b) //reader := bytes.NewReader(b)
res := rres.LoadResource(reader, 0, []byte("passwordpassword")) res := rres.LoadResource(reader, 0, []byte("passwordpassword"))
wav := raylib.LoadWaveEx(res.Data, int32(res.Param1), int32(res.Param2), int32(res.Param3), int32(res.Param4)) wav := rl.LoadWaveEx(res.Data, int32(res.Param1), int32(res.Param2), int32(res.Param3), int32(res.Param4))
snd := raylib.LoadSoundFromWave(wav) snd := rl.LoadSoundFromWave(wav)
raylib.UnloadWave(wav) rl.UnloadWave(wav)
textures := make([]raylib.Texture2D, numTextures) textures := make([]rl.Texture2D, numTextures)
for i := 0; i < numTextures; i++ { for i := 0; i < numTextures; i++ {
r := rres.LoadResource(reader, i+1, []byte("passwordpassword")) r := rres.LoadResource(reader, i+1, []byte("passwordpassword"))
image := raylib.LoadImagePro(r.Data, int32(r.Param1), int32(r.Param2), raylib.PixelFormat(r.Param3)) image := rl.LoadImagePro(r.Data, int32(r.Param1), int32(r.Param2), rl.PixelFormat(r.Param3))
textures[i] = raylib.LoadTextureFromImage(image) textures[i] = rl.LoadTextureFromImage(image)
raylib.UnloadImage(image) rl.UnloadImage(image)
} }
currentTexture := 0 currentTexture := 0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
raylib.PlaySound(snd) rl.PlaySound(snd)
} }
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
currentTexture = (currentTexture + 1) % numTextures // Cycle between the textures currentTexture = (currentTexture + 1) % numTextures // Cycle between the textures
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(textures[currentTexture], screenWidth/2-textures[currentTexture].Width/2, screenHeight/2-textures[currentTexture].Height/2, raylib.RayWhite) rl.DrawTexture(textures[currentTexture], screenWidth/2-textures[currentTexture].Width/2, screenHeight/2-textures[currentTexture].Height/2, rl.RayWhite)
raylib.DrawText("MOUSE LEFT BUTTON to CYCLE TEXTURES", 40, 410, 10, raylib.Gray) rl.DrawText("MOUSE LEFT BUTTON to CYCLE TEXTURES", 40, 410, 10, rl.Gray)
raylib.DrawText("SPACE to PLAY SOUND", 40, 430, 10, raylib.Gray) rl.DrawText("SPACE to PLAY SOUND", 40, 430, 10, rl.Gray)
switch currentTexture { switch currentTexture {
case 0: case 0:
raylib.DrawText("GIF", 272, 70, 20, raylib.Gray) rl.DrawText("GIF", 272, 70, 20, rl.Gray)
break break
case 1: case 1:
raylib.DrawText("JPEG", 272, 70, 20, raylib.Gray) rl.DrawText("JPEG", 272, 70, 20, rl.Gray)
break break
case 2: case 2:
raylib.DrawText("PNG", 272, 70, 20, raylib.Gray) rl.DrawText("PNG", 272, 70, 20, rl.Gray)
break break
case 3: case 3:
raylib.DrawText("TGA", 272, 70, 20, raylib.Gray) rl.DrawText("TGA", 272, 70, 20, rl.Gray)
break break
default: default:
break break
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadSound(snd) rl.UnloadSound(snd)
for _, t := range textures { for _, t := range textures {
raylib.UnloadTexture(t) rl.UnloadTexture(t)
} }
raylib.CloseAudioDevice() rl.CloseAudioDevice()
raylib.CloseWindow() rl.CloseWindow()
} }

16
examples/others/rpi/basic_window/main.go
View file

@ -3,19 +3,19 @@ package main
import "github.com/gen2brain/raylib-go/raylib" import "github.com/gen2brain/raylib-go/raylib"
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [rpi] example - basic window") rl.InitWindow(800, 450, "raylib [rpi] example - basic window")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Congrats! You created your first window!", 190, 200, 20, raylib.LightGray) rl.DrawText("Congrats! You created your first window!", 190, 200, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

50
examples/physics/box2d/main.go
View file

@ -30,28 +30,28 @@ func (g *Game) Init() {
// Update - Update game // Update - Update game
func (g *Game) Update() { func (g *Game) Update() {
// Keys 1-9 switch demos // Keys 1-9 switch demos
switch raylib.GetKeyPressed() { switch rl.GetKeyPressed() {
case raylib.KeyOne: case rl.KeyOne:
g.Demo1() g.Demo1()
case raylib.KeyTwo: case rl.KeyTwo:
g.Demo2() g.Demo2()
case raylib.KeyThree: case rl.KeyThree:
g.Demo3() g.Demo3()
case raylib.KeyFour: case rl.KeyFour:
g.Demo4() g.Demo4()
case raylib.KeyFive: case rl.KeyFive:
g.Demo5() g.Demo5()
case raylib.KeySix: case rl.KeySix:
g.Demo6() g.Demo6()
case raylib.KeySeven: case rl.KeySeven:
g.Demo7() g.Demo7()
case raylib.KeyEight: case rl.KeyEight:
g.Demo8() g.Demo8()
case raylib.KeyNine: case rl.KeyNine:
g.Demo9() g.Demo9()
} }
g.TimeStep = float64(raylib.GetFrameTime()) g.TimeStep = float64(rl.GetFrameTime())
// Physics steps calculations // Physics steps calculations
g.World.Step(g.TimeStep) g.World.Step(g.TimeStep)
@ -66,7 +66,7 @@ func (g *Game) Draw() {
g.DrawJoint(j) g.DrawJoint(j)
} }
raylib.DrawText("Use keys 1-9 to switch current demo", 20, 20, 10, raylib.RayWhite) rl.DrawText("Use keys 1-9 to switch current demo", 20, 20, 10, rl.RayWhite)
} }
// DrawBody - Draw body // DrawBody - Draw body
@ -83,10 +83,10 @@ func (g *Game) DrawBody(b *box2d.Body) {
v3 := o.Add(S.MulV(x.Add(R.MulV(box2d.Vec2{h.X, h.Y})))) v3 := o.Add(S.MulV(x.Add(R.MulV(box2d.Vec2{h.X, h.Y}))))
v4 := o.Add(S.MulV(x.Add(R.MulV(box2d.Vec2{-h.X, h.Y})))) v4 := o.Add(S.MulV(x.Add(R.MulV(box2d.Vec2{-h.X, h.Y}))))
raylib.DrawLine(int32(v1.X), int32(v1.Y), int32(v2.X), int32(v2.Y), raylib.RayWhite) rl.DrawLine(int32(v1.X), int32(v1.Y), int32(v2.X), int32(v2.Y), rl.RayWhite)
raylib.DrawLine(int32(v2.X), int32(v2.Y), int32(v3.X), int32(v3.Y), raylib.RayWhite) rl.DrawLine(int32(v2.X), int32(v2.Y), int32(v3.X), int32(v3.Y), rl.RayWhite)
raylib.DrawLine(int32(v3.X), int32(v3.Y), int32(v4.X), int32(v4.Y), raylib.RayWhite) rl.DrawLine(int32(v3.X), int32(v3.Y), int32(v4.X), int32(v4.Y), rl.RayWhite)
raylib.DrawLine(int32(v4.X), int32(v4.Y), int32(v1.X), int32(v1.Y), raylib.RayWhite) rl.DrawLine(int32(v4.X), int32(v4.Y), int32(v1.X), int32(v1.Y), rl.RayWhite)
} }
// DrawJoint - Draw joint // DrawJoint - Draw joint
@ -111,8 +111,8 @@ func (g *Game) DrawJoint(j *box2d.Joint) {
x2 = o.Add(S.MulV(x2)) x2 = o.Add(S.MulV(x2))
p2 = o.Add(S.MulV(p2)) p2 = o.Add(S.MulV(p2))
raylib.DrawLine(int32(x1.X), int32(x1.Y), int32(p1.X), int32(p1.Y), raylib.RayWhite) rl.DrawLine(int32(x1.X), int32(x1.Y), int32(p1.X), int32(p1.Y), rl.RayWhite)
raylib.DrawLine(int32(x2.X), int32(x2.Y), int32(p2.X), int32(p2.Y), raylib.RayWhite) rl.DrawLine(int32(x2.X), int32(x2.Y), int32(p2.X), int32(p2.Y), rl.RayWhite)
} }
// Demo1 - Single box // Demo1 - Single box
@ -489,25 +489,25 @@ func (g *Game) Demo9() {
} }
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [physics] example - box2d") rl.InitWindow(800, 450, "raylib [physics] example - box2d")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
game := NewGame() game := NewGame()
game.Demo1() game.Demo1()
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
game.Update() game.Update()
game.Draw() game.Draw()
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

242
examples/physics/chipmunk/main.go
View file

@ -1,163 +1,139 @@
package main package main
import ( import (
"fmt"
"math" "math"
"math/rand" "math/rand"
"github.com/gen2brain/raylib-go/raylib" "github.com/gen2brain/raylib-go/raylib"
"github.com/jakecoffman/cp"
"github.com/vova616/chipmunk"
"github.com/vova616/chipmunk/vect"
) )
var grabbableMaskBit uint = 1 << 31 const (
var grabFilter = cp.ShapeFilter{ ballRadius = 25
cp.NO_GROUP, grabbableMaskBit, grabbableMaskBit, ballMass = 1
)
// Game type
type Game struct {
Space *chipmunk.Space
Balls []*chipmunk.Shape
StaticLines []*chipmunk.Shape
ticksToNextBall int
} }
func randUnitCircle() cp.Vector { // NewGame - Start new game
v := cp.Vector{X: rand.Float64()*2.0 - 1.0, Y: rand.Float64()*2.0 - 1.0} func NewGame() (g Game) {
if v.LengthSq() < 1.0 { g.Init()
return v return
}
return randUnitCircle()
} }
var simpleTerrainVerts = []cp.Vector{ // Init - Initialize game
{350.00, 425.07}, {336.00, 436.55}, {272.00, 435.39}, {258.00, 427.63}, {225.28, 420.00}, {202.82, 396.00}, func (g *Game) Init() {
{191.81, 388.00}, {189.00, 381.89}, {173.00, 380.39}, {162.59, 368.00}, {150.47, 319.00}, {128.00, 311.55}, g.createBodies()
{119.14, 286.00}, {126.84, 263.00}, {120.56, 227.00}, {141.14, 178.00}, {137.52, 162.00}, {146.51, 142.00},
{156.23, 136.00}, {158.00, 118.27}, {170.00, 100.77}, {208.43, 84.00}, {224.00, 69.65}, {249.30, 68.00}, g.ticksToNextBall = 10
{257.00, 54.77}, {363.00, 45.94}, {374.15, 54.00}, {386.00, 69.60}, {413.00, 70.73}, {456.00, 84.89},
{468.09, 99.00}, {467.09, 123.00}, {464.92, 135.00}, {469.00, 141.03}, {497.00, 148.67}, {513.85, 180.00},
{509.56, 223.00}, {523.51, 247.00}, {523.00, 277.00}, {497.79, 311.00}, {478.67, 348.00}, {467.90, 360.00},
{456.76, 382.00}, {432.95, 389.00}, {417.00, 411.32}, {373.00, 433.19}, {361.00, 430.02}, {350.00, 425.07},
} }
// creates a circle with random placement // Update - Update game
func addCircle(space *cp.Space, radius float64) { func (g *Game) Update() {
mass := radius * radius / 25.0 g.ticksToNextBall--
body := space.AddBody(cp.NewBody(mass, cp.MomentForCircle(mass, 0, radius, cp.Vector{}))) if g.ticksToNextBall == 0 {
body.SetPosition(randUnitCircle().Mult(180)) g.ticksToNextBall = rand.Intn(100) + 1
g.addBall()
shape := space.AddShape(cp.NewCircle(body, radius, cp.Vector{}))
shape.SetElasticity(0)
shape.SetFriction(0.9)
}
// creates a simple terrain to contain bodies
func simpleTerrain() *cp.Space {
space := cp.NewSpace()
space.Iterations = 10
space.SetGravity(cp.Vector{0, -100})
space.SetCollisionSlop(0.5)
offset := cp.Vector{X: -320, Y: -240}
for i := 0; i < len(simpleTerrainVerts)-1; i++ {
a := simpleTerrainVerts[i]
b := simpleTerrainVerts[i+1]
space.AddShape(cp.NewSegment(space.StaticBody, a.Add(offset), b.Add(offset), 0))
} }
return space // Physics steps calculations
g.step(rl.GetFrameTime())
}
// Draw - Draw game
func (g *Game) Draw() {
for i := range g.StaticLines {
x := g.StaticLines[i].GetAsSegment().A.X
y := g.StaticLines[i].GetAsSegment().A.Y
x2 := g.StaticLines[i].GetAsSegment().B.X
y2 := g.StaticLines[i].GetAsSegment().B.Y
rl.DrawLine(int32(x), int32(y), int32(x2), int32(y2), rl.DarkBlue)
}
for _, b := range g.Balls {
pos := b.Body.Position()
rl.DrawCircleLines(int32(pos.X), int32(pos.Y), float32(ballRadius), rl.DarkBlue)
}
}
// createBodies sets up the chipmunk space and static bodies
func (g *Game) createBodies() {
g.Space = chipmunk.NewSpace()
g.Space.Gravity = vect.Vect{0, 900}
staticBody := chipmunk.NewBodyStatic()
g.StaticLines = []*chipmunk.Shape{
chipmunk.NewSegment(vect.Vect{250.0, 240.0}, vect.Vect{550.0, 280.0}, 0),
chipmunk.NewSegment(vect.Vect{550.0, 280.0}, vect.Vect{550.0, 180.0}, 0),
}
for _, segment := range g.StaticLines {
segment.SetElasticity(0.6)
staticBody.AddShape(segment)
}
g.Space.AddBody(staticBody)
}
// addBall adds ball to chipmunk space and body
func (g *Game) addBall() {
x := rand.Intn(600-200) + 200
ball := chipmunk.NewCircle(vect.Vector_Zero, float32(ballRadius))
ball.SetElasticity(0.95)
body := chipmunk.NewBody(vect.Float(ballMass), ball.Moment(float32(ballMass)))
body.SetPosition(vect.Vect{vect.Float(x), 0.0})
body.SetAngle(vect.Float(rand.Float32() * 2 * math.Pi))
body.AddShape(ball)
g.Space.AddBody(body)
g.Balls = append(g.Balls, ball)
}
// step advances the physics engine and cleans up any balls that are off-screen
func (g *Game) step(dt float32) {
g.Space.Step(vect.Float(dt))
for i := 0; i < len(g.Balls); i++ {
p := g.Balls[i].Body.Position()
if p.Y < -100 {
g.Space.RemoveBody(g.Balls[i].Body)
g.Balls[i] = nil
g.Balls = append(g.Balls[:i], g.Balls[i+1:]...)
i-- // consider same index again
}
}
} }
func main() { func main() {
const width, height = 800, 450 rl.InitWindow(800, 450, "raylib [physics] example - chipmunk")
const physicsTickrate = 1.0 / 60.0
raylib.SetConfigFlags(raylib.FlagVsyncHint) rl.SetTargetFPS(60)
raylib.InitWindow(width, height, "raylib [physics] example - chipmunk")
offset := raylib.Vector2{X: width / 2, Y: height / 2} game := NewGame()
// since the example ported from elsewhere, flip the camera 180 and offset to center it
camera := raylib.NewCamera2D(offset, raylib.Vector2{}, 180, 1)
space := simpleTerrain() for !rl.WindowShouldClose() {
for i := 0; i < 1000; i++ { rl.BeginDrawing()
addCircle(space, 5)
}
mouseBody := cp.NewKinematicBody()
var mouse cp.Vector
var mouseJoint *cp.Constraint
var accumulator, dt float32 rl.ClearBackground(rl.RayWhite)
lastTime := raylib.GetTime()
for !raylib.WindowShouldClose() {
// calculate dt
now := raylib.GetTime()
dt = now - lastTime
lastTime = now
// update the mouse position game.Update()
mousePos := raylib.GetMousePosition()
// alter the mouse coordinates based on the camera position, rotation
mouse.X = float64(mousePos.X-camera.Offset.X) * -1
mouse.Y = float64(mousePos.Y-camera.Offset.Y) * -1
// smooth mouse movements to new position
newPoint := mouseBody.Position().Lerp(mouse, 0.25)
mouseBody.SetVelocityVector(newPoint.Sub(mouseBody.Position()).Mult(60.0))
mouseBody.SetPosition(newPoint)
// handle grabbing game.Draw()
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) {
result := space.PointQueryNearest(mouse, 5, grabFilter)
if result.Shape != nil && result.Shape.Body().Mass() < cp.INFINITY {
var nearest cp.Vector
if result.Distance > 0 {
nearest = result.Point
} else {
nearest = mouse
}
// create a new constraint where the mouse is to draw the body towards the mouse rl.EndDrawing()
body := result.Shape.Body()
mouseJoint = cp.NewPivotJoint2(mouseBody, body, cp.Vector{}, body.WorldToLocal(nearest))
mouseJoint.SetMaxForce(50000)
mouseJoint.SetErrorBias(math.Pow(1.0-0.15, 60.0))
space.AddConstraint(mouseJoint)
}
} else if raylib.IsMouseButtonReleased(raylib.MouseLeftButton) && mouseJoint != nil {
space.RemoveConstraint(mouseJoint)
mouseJoint = nil
}
// perform a fixed rate physics tick
accumulator += dt
for accumulator >= physicsTickrate {
space.Step(physicsTickrate)
accumulator -= physicsTickrate
}
raylib.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite)
raylib.BeginMode2D(camera)
// this is a generic way to iterate over the shapes in a space,
// to avoid the type switch just keep a pointer to the shapes when they've been created
space.EachShape(func(s *cp.Shape) {
switch s.Class.(type) {
case *cp.Segment:
segment := s.Class.(*cp.Segment)
a := segment.A()
b := segment.B()
raylib.DrawLineV(v(a), v(b), raylib.Black)
case *cp.Circle:
circle := s.Class.(*cp.Circle)
pos := circle.Body().Position()
raylib.DrawCircleV(v(pos), float32(circle.Radius()), raylib.Red)
default:
fmt.Println("unexpected shape", s.Class)
}
})
raylib.EndMode2D()
raylib.DrawFPS(0, 0)
raylib.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
}
func v(v cp.Vector) raylib.Vector2 {
return raylib.Vector2{X: float32(v.X), Y: float32(v.Y)}
} }

50
examples/physics/physac/demo/main.go
View file

@ -9,46 +9,46 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) rl.SetConfigFlags(rl.FlagMsaa4xHint)
raylib.InitWindow(screenWidth, screenHeight, "Physac [raylib] - physics demo") rl.InitWindow(screenWidth, screenHeight, "Physac [raylib] - physics demo")
// Physac logo drawing position // Physac logo drawing position
logoX := screenWidth - raylib.MeasureText("Physac", 30) - 10 logoX := screenWidth - rl.MeasureText("Physac", 30) - 10
logoY := int32(15) logoY := int32(15)
// Initialize physics and default physics bodies // Initialize physics and default physics bodies
physics.Init() physics.Init()
// Create floor rectangle physics body // Create floor rectangle physics body
floor := physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)), 500, 100, 10) floor := physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)), 500, 100, 10)
floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
// Create obstacle circle physics body // Create obstacle circle physics body
circle := physics.NewBodyCircle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2), 45, 10) circle := physics.NewBodyCircle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2), 45, 10)
circle.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) circle.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update created physics objects // Update created physics objects
physics.Update() physics.Update()
if raylib.IsKeyPressed(raylib.KeyR) { // Reset physics input if rl.IsKeyPressed(rl.KeyR) { // Reset physics input
physics.Reset() physics.Reset()
floor = physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)), 500, 100, 10) floor = physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)), 500, 100, 10)
floor.Enabled = false floor.Enabled = false
circle = physics.NewBodyCircle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2), 45, 10) circle = physics.NewBodyCircle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)/2), 45, 10)
circle.Enabled = false circle.Enabled = false
} }
// Physics body creation inputs // Physics body creation inputs
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
physics.NewBodyPolygon(raylib.GetMousePosition(), float32(raylib.GetRandomValue(20, 80)), int(raylib.GetRandomValue(3, 8)), 10) physics.NewBodyPolygon(rl.GetMousePosition(), float32(rl.GetRandomValue(20, 80)), int(rl.GetRandomValue(3, 8)), 10)
} else if raylib.IsMouseButtonPressed(raylib.MouseRightButton) { } else if rl.IsMouseButtonPressed(rl.MouseRightButton) {
physics.NewBodyCircle(raylib.GetMousePosition(), float32(raylib.GetRandomValue(10, 45)), 10) physics.NewBodyCircle(rl.GetMousePosition(), float32(rl.GetRandomValue(10, 45)), 10)
} }
// Destroy falling physics bodies // Destroy falling physics bodies
@ -58,11 +58,11 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
raylib.DrawFPS(screenWidth-90, screenHeight-30) rl.DrawFPS(screenWidth-90, screenHeight-30)
// Draw created physics bodies // Draw created physics bodies
for i, body := range physics.GetBodies() { for i, body := range physics.GetBodies() {
@ -79,21 +79,21 @@ func main() {
vertexB := body.GetShapeVertex(jj) vertexB := body.GetShapeVertex(jj)
raylib.DrawLineV(vertexA, vertexB, raylib.Green) // Draw a line between two vertex positions rl.DrawLineV(vertexA, vertexB, rl.Green) // Draw a line between two vertex positions
} }
} }
raylib.DrawText("Left mouse button to create a polygon", 10, 10, 10, raylib.White) rl.DrawText("Left mouse button to create a polygon", 10, 10, 10, rl.White)
raylib.DrawText("Right mouse button to create a circle", 10, 25, 10, raylib.White) rl.DrawText("Right mouse button to create a circle", 10, 25, 10, rl.White)
raylib.DrawText("Press 'R' to reset example", 10, 40, 10, raylib.White) rl.DrawText("Press 'R' to reset example", 10, 40, 10, rl.White)
raylib.DrawText("Physac", logoX, logoY, 30, raylib.White) rl.DrawText("Physac", logoX, logoY, 30, rl.White)
raylib.DrawText("Powered by", logoX+50, logoY-7, 10, raylib.White) rl.DrawText("Powered by", logoX+50, logoY-7, 10, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
physics.Close() // Unitialize physics physics.Close() // Unitialize physics
raylib.CloseWindow() rl.CloseWindow()
} }

70
examples/physics/physac/friction/main.go
View file

@ -9,67 +9,67 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) rl.SetConfigFlags(rl.FlagMsaa4xHint)
raylib.InitWindow(screenWidth, screenHeight, "Physac [raylib] - physics friction") rl.InitWindow(screenWidth, screenHeight, "Physac [raylib] - physics friction")
// Physac logo drawing position // Physac logo drawing position
logoX := screenWidth - raylib.MeasureText("Physac", 30) - 10 logoX := screenWidth - rl.MeasureText("Physac", 30) - 10
logoY := int32(15) logoY := int32(15)
// Initialize physics and default physics bodies // Initialize physics and default physics bodies
physics.Init() physics.Init()
// Create floor rectangle physics body // Create floor rectangle physics body
floor := physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)), float32(screenHeight), 100, 10) floor := physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)), float32(screenHeight), 100, 10)
floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
wall := physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)/2, float32(screenHeight)*0.8), 10, 80, 10) wall := physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)/2, float32(screenHeight)*0.8), 10, 80, 10)
wall.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) wall.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
// Create left ramp physics body // Create left ramp physics body
rectLeft := physics.NewBodyRectangle(raylib.NewVector2(25, float32(screenHeight)-5), 250, 250, 10) rectLeft := physics.NewBodyRectangle(rl.NewVector2(25, float32(screenHeight)-5), 250, 250, 10)
rectLeft.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) rectLeft.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
rectLeft.SetRotation(30 * raylib.Deg2rad) rectLeft.SetRotation(30 * rl.Deg2rad)
// Create right ramp physics body // Create right ramp physics body
rectRight := physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)-25, float32(screenHeight)-5), 250, 250, 10) rectRight := physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)-25, float32(screenHeight)-5), 250, 250, 10)
rectRight.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) rectRight.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
rectRight.SetRotation(330 * raylib.Deg2rad) rectRight.SetRotation(330 * rl.Deg2rad)
// Create dynamic physics bodies // Create dynamic physics bodies
bodyA := physics.NewBodyRectangle(raylib.NewVector2(35, float32(screenHeight)*0.6), 40, 40, 10) bodyA := physics.NewBodyRectangle(rl.NewVector2(35, float32(screenHeight)*0.6), 40, 40, 10)
bodyA.StaticFriction = 0.1 bodyA.StaticFriction = 0.1
bodyA.DynamicFriction = 0.1 bodyA.DynamicFriction = 0.1
bodyA.SetRotation(30 * raylib.Deg2rad) bodyA.SetRotation(30 * rl.Deg2rad)
bodyB := physics.NewBodyRectangle(raylib.NewVector2(float32(screenWidth)-35, float32(screenHeight)*0.6), 40, 40, 10) bodyB := physics.NewBodyRectangle(rl.NewVector2(float32(screenWidth)-35, float32(screenHeight)*0.6), 40, 40, 10)
bodyB.StaticFriction = 1 bodyB.StaticFriction = 1
bodyB.DynamicFriction = 1 bodyB.DynamicFriction = 1
bodyB.SetRotation(330 * raylib.Deg2rad) bodyB.SetRotation(330 * rl.Deg2rad)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Physics steps calculations // Physics steps calculations
physics.Update() physics.Update()
if raylib.IsKeyPressed(raylib.KeyR) { // Reset physics input if rl.IsKeyPressed(rl.KeyR) { // Reset physics input
// Reset dynamic physics bodies position, velocity and rotation // Reset dynamic physics bodies position, velocity and rotation
bodyA.Position = raylib.NewVector2(35, float32(screenHeight)*0.6) bodyA.Position = rl.NewVector2(35, float32(screenHeight)*0.6)
bodyA.Velocity = raylib.NewVector2(0, 0) bodyA.Velocity = rl.NewVector2(0, 0)
bodyA.AngularVelocity = 0 bodyA.AngularVelocity = 0
bodyA.SetRotation(30 * raylib.Deg2rad) bodyA.SetRotation(30 * rl.Deg2rad)
bodyB.Position = raylib.NewVector2(float32(screenWidth)-35, float32(screenHeight)*0.6) bodyB.Position = rl.NewVector2(float32(screenWidth)-35, float32(screenHeight)*0.6)
bodyB.Velocity = raylib.NewVector2(0, 0) bodyB.Velocity = rl.NewVector2(0, 0)
bodyB.AngularVelocity = 0 bodyB.AngularVelocity = 0
bodyB.SetRotation(330 * raylib.Deg2rad) bodyB.SetRotation(330 * rl.Deg2rad)
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
raylib.DrawFPS(screenWidth-90, screenHeight-30) rl.DrawFPS(screenWidth-90, screenHeight-30)
// Draw created physics bodies // Draw created physics bodies
bodiesCount := physics.GetBodiesCount() bodiesCount := physics.GetBodiesCount()
@ -89,25 +89,25 @@ func main() {
vertexB := body.GetShapeVertex(jj) vertexB := body.GetShapeVertex(jj)
raylib.DrawLineV(vertexA, vertexB, raylib.Green) // Draw a line between two vertex positions rl.DrawLineV(vertexA, vertexB, rl.Green) // Draw a line between two vertex positions
} }
} }
raylib.DrawRectangle(0, screenHeight-49, screenWidth, 49, raylib.Black) rl.DrawRectangle(0, screenHeight-49, screenWidth, 49, rl.Black)
raylib.DrawText("Friction amount", (screenWidth-raylib.MeasureText("Friction amount", 30))/2, 75, 30, raylib.White) rl.DrawText("Friction amount", (screenWidth-rl.MeasureText("Friction amount", 30))/2, 75, 30, rl.White)
raylib.DrawText("0.1", int32(bodyA.Position.X)-raylib.MeasureText("0.1", 20)/2, int32(bodyA.Position.Y)-7, 20, raylib.White) rl.DrawText("0.1", int32(bodyA.Position.X)-rl.MeasureText("0.1", 20)/2, int32(bodyA.Position.Y)-7, 20, rl.White)
raylib.DrawText("1", int32(bodyB.Position.X)-raylib.MeasureText("1", 20)/2, int32(bodyB.Position.Y)-7, 20, raylib.White) rl.DrawText("1", int32(bodyB.Position.X)-rl.MeasureText("1", 20)/2, int32(bodyB.Position.Y)-7, 20, rl.White)
raylib.DrawText("Press 'R' to reset example", 10, 10, 10, raylib.White) rl.DrawText("Press 'R' to reset example", 10, 10, 10, rl.White)
raylib.DrawText("Physac", logoX, logoY, 30, raylib.White) rl.DrawText("Physac", logoX, logoY, 30, rl.White)
raylib.DrawText("Powered by", logoX+50, logoY-7, 10, raylib.White) rl.DrawText("Powered by", logoX+50, logoY-7, 10, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
physics.Close() // Unitialize physics physics.Close() // Unitialize physics
raylib.CloseWindow() rl.CloseWindow()
} }

54
examples/physics/physac/movement/main.go
View file

@ -13,22 +13,22 @@ func main() {
screenWidth := float32(800) screenWidth := float32(800)
screenHeight := float32(450) screenHeight := float32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) rl.SetConfigFlags(rl.FlagMsaa4xHint)
raylib.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - physics movement") rl.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - physics movement")
// Physac logo drawing position // Physac logo drawing position
logoX := int32(screenWidth) - raylib.MeasureText("Physac", 30) - 10 logoX := int32(screenWidth) - rl.MeasureText("Physac", 30) - 10
logoY := int32(15) logoY := int32(15)
// Initialize physics and default physics bodies // Initialize physics and default physics bodies
physics.Init() physics.Init()
// Create floor and walls rectangle physics body // Create floor and walls rectangle physics body
floor := physics.NewBodyRectangle(raylib.NewVector2(screenWidth/2, screenHeight), screenWidth, 100, 10) floor := physics.NewBodyRectangle(rl.NewVector2(screenWidth/2, screenHeight), screenWidth, 100, 10)
platformLeft := physics.NewBodyRectangle(raylib.NewVector2(screenWidth*0.25, screenHeight*0.6), screenWidth*0.25, 10, 10) platformLeft := physics.NewBodyRectangle(rl.NewVector2(screenWidth*0.25, screenHeight*0.6), screenWidth*0.25, 10, 10)
platformRight := physics.NewBodyRectangle(raylib.NewVector2(screenWidth*0.75, screenHeight*0.6), screenWidth*0.25, 10, 10) platformRight := physics.NewBodyRectangle(rl.NewVector2(screenWidth*0.75, screenHeight*0.6), screenWidth*0.25, 10, 10)
wallLeft := physics.NewBodyRectangle(raylib.NewVector2(-5, screenHeight/2), 10, screenHeight, 10) wallLeft := physics.NewBodyRectangle(rl.NewVector2(-5, screenHeight/2), 10, screenHeight, 10)
wallRight := physics.NewBodyRectangle(raylib.NewVector2(screenWidth+5, screenHeight/2), 10, screenHeight, 10) wallRight := physics.NewBodyRectangle(rl.NewVector2(screenWidth+5, screenHeight/2), 10, screenHeight, 10)
// Disable dynamics to floor and walls physics bodies // Disable dynamics to floor and walls physics bodies
floor.Enabled = false floor.Enabled = false
@ -38,38 +38,38 @@ func main() {
wallRight.Enabled = false wallRight.Enabled = false
// Create movement physics body // Create movement physics body
body := physics.NewBodyRectangle(raylib.NewVector2(screenWidth/2, screenHeight/2), 50, 50, 1) body := physics.NewBodyRectangle(rl.NewVector2(screenWidth/2, screenHeight/2), 50, 50, 1)
body.FreezeOrient = true // Constrain body rotation to avoid little collision torque amounts body.FreezeOrient = true // Constrain body rotation to avoid little collision torque amounts
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update created physics objects // Update created physics objects
physics.Update() physics.Update()
if raylib.IsKeyPressed(raylib.KeyR) { // Reset physics input if rl.IsKeyPressed(rl.KeyR) { // Reset physics input
// Reset movement physics body position, velocity and rotation // Reset movement physics body position, velocity and rotation
body.Position = raylib.NewVector2(screenWidth/2, screenHeight/2) body.Position = rl.NewVector2(screenWidth/2, screenHeight/2)
body.Velocity = raylib.NewVector2(0, 0) body.Velocity = rl.NewVector2(0, 0)
body.SetRotation(0) body.SetRotation(0)
} }
// Physics body creation inputs // Physics body creation inputs
if raylib.IsKeyDown(raylib.KeyRight) { if rl.IsKeyDown(rl.KeyRight) {
body.Velocity.X = velocity body.Velocity.X = velocity
} else if raylib.IsKeyDown(raylib.KeyLeft) { } else if rl.IsKeyDown(rl.KeyLeft) {
body.Velocity.X = -velocity body.Velocity.X = -velocity
} }
if raylib.IsKeyDown(raylib.KeyUp) && body.IsGrounded { if rl.IsKeyDown(rl.KeyUp) && body.IsGrounded {
body.Velocity.Y = -velocity * 4 body.Velocity.Y = -velocity * 4
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
raylib.DrawFPS(int32(screenWidth)-90, int32(screenHeight)-30) rl.DrawFPS(int32(screenWidth)-90, int32(screenHeight)-30)
// Draw created physics bodies // Draw created physics bodies
for i, body := range physics.GetBodies() { for i, body := range physics.GetBodies() {
@ -86,20 +86,20 @@ func main() {
vertexB := body.GetShapeVertex(jj) vertexB := body.GetShapeVertex(jj)
raylib.DrawLineV(vertexA, vertexB, raylib.Green) // Draw a line between two vertex positions rl.DrawLineV(vertexA, vertexB, rl.Green) // Draw a line between two vertex positions
} }
} }
raylib.DrawText("Use 'ARROWS' to move player", 10, 10, 10, raylib.White) rl.DrawText("Use 'ARROWS' to move player", 10, 10, 10, rl.White)
raylib.DrawText("Press 'R' to reset example", 10, 30, 10, raylib.White) rl.DrawText("Press 'R' to reset example", 10, 30, 10, rl.White)
raylib.DrawText("Physac", logoX, logoY, 30, raylib.White) rl.DrawText("Physac", logoX, logoY, 30, rl.White)
raylib.DrawText("Powered by", logoX+50, logoY-7, 10, raylib.White) rl.DrawText("Powered by", logoX+50, logoY-7, 10, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
physics.Close() // Unitialize physics physics.Close() // Unitialize physics
raylib.CloseWindow() rl.CloseWindow()
} }

58
examples/physics/physac/restitution/main.go
View file

@ -13,50 +13,50 @@ func main() {
screenWidth := float32(800) screenWidth := float32(800)
screenHeight := float32(450) screenHeight := float32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) rl.SetConfigFlags(rl.FlagMsaa4xHint)
raylib.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - physics restitution") rl.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - physics restitution")
// Physac logo drawing position // Physac logo drawing position
logoX := int32(screenWidth) - raylib.MeasureText("Physac", 30) - 10 logoX := int32(screenWidth) - rl.MeasureText("Physac", 30) - 10
logoY := int32(15) logoY := int32(15)
// Initialize physics and default physics bodies // Initialize physics and default physics bodies
physics.Init() physics.Init()
// Create floor rectangle physics body // Create floor rectangle physics body
floor := physics.NewBodyRectangle(raylib.NewVector2(screenWidth/2, screenHeight), screenWidth, 100, 10) floor := physics.NewBodyRectangle(rl.NewVector2(screenWidth/2, screenHeight), screenWidth, 100, 10)
floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions) floor.Enabled = false // Disable body state to convert it to static (no dynamics, but collisions)
floor.Restitution = 1 floor.Restitution = 1
// Create circles physics body // Create circles physics body
circleA := physics.NewBodyCircle(raylib.NewVector2(screenWidth*0.25, screenHeight/2), 30, 10) circleA := physics.NewBodyCircle(rl.NewVector2(screenWidth*0.25, screenHeight/2), 30, 10)
circleA.Restitution = 0 circleA.Restitution = 0
circleB := physics.NewBodyCircle(raylib.NewVector2(screenWidth*0.5, screenHeight/2), 30, 10) circleB := physics.NewBodyCircle(rl.NewVector2(screenWidth*0.5, screenHeight/2), 30, 10)
circleB.Restitution = 0.5 circleB.Restitution = 0.5
circleC := physics.NewBodyCircle(raylib.NewVector2(screenWidth*0.75, screenHeight/2), 30, 10) circleC := physics.NewBodyCircle(rl.NewVector2(screenWidth*0.75, screenHeight/2), 30, 10)
circleC.Restitution = 1 circleC.Restitution = 1
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update created physics objects // Update created physics objects
physics.Update() physics.Update()
if raylib.IsKeyPressed(raylib.KeyR) { // Reset physics input if rl.IsKeyPressed(rl.KeyR) { // Reset physics input
// Reset circles physics bodies position and velocity // Reset circles physics bodies position and velocity
circleA.Position = raylib.NewVector2(screenWidth*0.25, screenHeight/2) circleA.Position = rl.NewVector2(screenWidth*0.25, screenHeight/2)
circleA.Velocity = raylib.NewVector2(0, 0) circleA.Velocity = rl.NewVector2(0, 0)
circleB.Position = raylib.NewVector2(screenWidth*0.5, screenHeight/2) circleB.Position = rl.NewVector2(screenWidth*0.5, screenHeight/2)
circleB.Velocity = raylib.NewVector2(0, 0) circleB.Velocity = rl.NewVector2(0, 0)
circleC.Position = raylib.NewVector2(screenWidth*0.75, screenHeight/2) circleC.Position = rl.NewVector2(screenWidth*0.75, screenHeight/2)
circleC.Velocity = raylib.NewVector2(0, 0) circleC.Velocity = rl.NewVector2(0, 0)
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
raylib.DrawFPS(int32(screenWidth)-90, int32(screenHeight)-30) rl.DrawFPS(int32(screenWidth)-90, int32(screenHeight)-30)
// Draw created physics bodies // Draw created physics bodies
for i, body := range physics.GetBodies() { for i, body := range physics.GetBodies() {
@ -73,24 +73,24 @@ func main() {
vertexB := body.GetShapeVertex(jj) vertexB := body.GetShapeVertex(jj)
raylib.DrawLineV(vertexA, vertexB, raylib.Green) // Draw a line between two vertex positions rl.DrawLineV(vertexA, vertexB, rl.Green) // Draw a line between two vertex positions
} }
} }
raylib.DrawText("Restitution amount", (int32(screenWidth)-raylib.MeasureText("Restitution amount", 30))/2, 75, 30, raylib.White) rl.DrawText("Restitution amount", (int32(screenWidth)-rl.MeasureText("Restitution amount", 30))/2, 75, 30, rl.White)
raylib.DrawText("0", int32(circleA.Position.X)-raylib.MeasureText("0", 20)/2, int32(circleA.Position.Y)-7, 20, raylib.White) rl.DrawText("0", int32(circleA.Position.X)-rl.MeasureText("0", 20)/2, int32(circleA.Position.Y)-7, 20, rl.White)
raylib.DrawText("0.5", int32(circleB.Position.X)-raylib.MeasureText("0.5", 20)/2, int32(circleB.Position.Y)-7, 20, raylib.White) rl.DrawText("0.5", int32(circleB.Position.X)-rl.MeasureText("0.5", 20)/2, int32(circleB.Position.Y)-7, 20, rl.White)
raylib.DrawText("1", int32(circleC.Position.X)-raylib.MeasureText("1", 20)/2, int32(circleC.Position.Y)-7, 20, raylib.White) rl.DrawText("1", int32(circleC.Position.X)-rl.MeasureText("1", 20)/2, int32(circleC.Position.Y)-7, 20, rl.White)
raylib.DrawText("Press 'R' to reset example", 10, 10, 10, raylib.White) rl.DrawText("Press 'R' to reset example", 10, 10, 10, rl.White)
raylib.DrawText("Physac", logoX, logoY, 30, raylib.White) rl.DrawText("Physac", logoX, logoY, 30, rl.White)
raylib.DrawText("Powered by", logoX+50, logoY-7, 10, raylib.White) rl.DrawText("Powered by", logoX+50, logoY-7, 10, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
physics.Close() // Unitialize physics physics.Close() // Unitialize physics
raylib.CloseWindow() rl.CloseWindow()
} }

36
examples/physics/physac/shatter/main.go
View file

@ -13,11 +13,11 @@ func main() {
screenWidth := float32(800) screenWidth := float32(800)
screenHeight := float32(450) screenHeight := float32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) rl.SetConfigFlags(rl.FlagMsaa4xHint)
raylib.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - body shatter") rl.InitWindow(int32(screenWidth), int32(screenHeight), "Physac [raylib] - body shatter")
// Physac logo drawing position // Physac logo drawing position
logoX := int32(screenWidth) - raylib.MeasureText("Physac", 30) - 10 logoX := int32(screenWidth) - rl.MeasureText("Physac", 30) - 10
logoY := int32(15) logoY := int32(15)
// Initialize physics and default physics bodies // Initialize physics and default physics bodies
@ -25,30 +25,30 @@ func main() {
physics.SetGravity(0, 0) physics.SetGravity(0, 0)
// Create random polygon physics body to shatter // Create random polygon physics body to shatter
physics.NewBodyPolygon(raylib.NewVector2(screenWidth/2, screenHeight/2), float32(raylib.GetRandomValue(80, 200)), int(raylib.GetRandomValue(3, 8)), 10) physics.NewBodyPolygon(rl.NewVector2(screenWidth/2, screenHeight/2), float32(rl.GetRandomValue(80, 200)), int(rl.GetRandomValue(3, 8)), 10)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update created physics objects // Update created physics objects
physics.Update() physics.Update()
if raylib.IsKeyPressed(raylib.KeyR) { // Reset physics input if rl.IsKeyPressed(rl.KeyR) { // Reset physics input
physics.Reset() physics.Reset()
// Create random polygon physics body to shatter // Create random polygon physics body to shatter
physics.NewBodyPolygon(raylib.NewVector2(screenWidth/2, screenHeight/2), float32(raylib.GetRandomValue(80, 200)), int(raylib.GetRandomValue(3, 8)), 10) physics.NewBodyPolygon(rl.NewVector2(screenWidth/2, screenHeight/2), float32(rl.GetRandomValue(80, 200)), int(rl.GetRandomValue(3, 8)), 10)
} }
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
for _, b := range physics.GetBodies() { for _, b := range physics.GetBodies() {
b.Shatter(raylib.GetMousePosition(), 10/b.InverseMass) b.Shatter(rl.GetMousePosition(), 10/b.InverseMass)
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.Black) rl.ClearBackground(rl.Black)
// Draw created physics bodies // Draw created physics bodies
for i, body := range physics.GetBodies() { for i, body := range physics.GetBodies() {
@ -65,19 +65,19 @@ func main() {
vertexB := body.GetShapeVertex(jj) vertexB := body.GetShapeVertex(jj)
raylib.DrawLineV(vertexA, vertexB, raylib.Green) // Draw a line between two vertex positions rl.DrawLineV(vertexA, vertexB, rl.Green) // Draw a line between two vertex positions
} }
} }
raylib.DrawText("Left mouse button in polygon area to shatter body\nPress 'R' to reset example", 10, 10, 10, raylib.White) rl.DrawText("Left mouse button in polygon area to shatter body\nPress 'R' to reset example", 10, 10, 10, rl.White)
raylib.DrawText("Physac", logoX, logoY, 30, raylib.White) rl.DrawText("Physac", logoX, logoY, 30, rl.White)
raylib.DrawText("Powered by", logoX+50, logoY-7, 10, raylib.White) rl.DrawText("Powered by", logoX+50, logoY-7, 10, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
physics.Close() // Unitialize physics physics.Close() // Unitialize physics
raylib.CloseWindow() rl.CloseWindow()
} }

78
examples/shaders/custom_uniform/main.go
View file

@ -8,90 +8,90 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) // Enable Multi Sampling Anti Aliasing 4x (if available) rl.SetConfigFlags(rl.FlagMsaa4xHint) // Enable Multi Sampling Anti Aliasing 4x (if available)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - custom uniform variable") rl.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - custom uniform variable")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(3.0, 3.0, 3.0) camera.Position = rl.NewVector3(3.0, 3.0, 3.0)
camera.Target = raylib.NewVector3(0.0, 1.5, 0.0) camera.Target = rl.NewVector3(0.0, 1.5, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
dwarf := raylib.LoadModel("dwarf.obj") // Load OBJ model dwarf := rl.LoadModel("dwarf.obj") // Load OBJ model
texture := raylib.LoadTexture("dwarf_diffuse.png") // Load model texture texture := rl.LoadTexture("dwarf_diffuse.png") // Load model texture
dwarf.Material.Maps[raylib.MapDiffuse].Texture = texture // Set dwarf model diffuse texture dwarf.Material.Maps[rl.MapDiffuse].Texture = texture // Set dwarf model diffuse texture
position := raylib.NewVector3(0.0, 0.0, 0.0) // Set model position position := rl.NewVector3(0.0, 0.0, 0.0) // Set model position
shader := raylib.LoadShader("glsl330/base.vs", "glsl330/swirl.fs") // Load postpro shader shader := rl.LoadShader("glsl330/base.vs", "glsl330/swirl.fs") // Load postpro shader
// Get variable (uniform) location on the shader to connect with the program // Get variable (uniform) location on the shader to connect with the program
// NOTE: If uniform variable could not be found in the shader, function returns -1 // NOTE: If uniform variable could not be found in the shader, function returns -1
swirlCenterLoc := raylib.GetShaderLocation(shader, "center") swirlCenterLoc := rl.GetShaderLocation(shader, "center")
swirlCenter := make([]float32, 2) swirlCenter := make([]float32, 2)
swirlCenter[0] = float32(screenWidth) / 2 swirlCenter[0] = float32(screenWidth) / 2
swirlCenter[1] = float32(screenHeight) / 2 swirlCenter[1] = float32(screenHeight) / 2
// Create a RenderTexture2D to be used for render to texture // Create a RenderTexture2D to be used for render to texture
target := raylib.LoadRenderTexture(screenWidth, screenHeight) target := rl.LoadRenderTexture(screenWidth, screenHeight)
// Setup orbital camera // Setup orbital camera
raylib.SetCameraMode(camera, raylib.CameraOrbital) // Set an orbital camera mode rl.SetCameraMode(camera, rl.CameraOrbital) // Set an orbital camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
mousePosition := raylib.GetMousePosition() mousePosition := rl.GetMousePosition()
swirlCenter[0] = mousePosition.X swirlCenter[0] = mousePosition.X
swirlCenter[1] = float32(screenHeight) - mousePosition.Y swirlCenter[1] = float32(screenHeight) - mousePosition.Y
// Send new value to the shader to be used on drawing // Send new value to the shader to be used on drawing
raylib.SetShaderValue(shader, swirlCenterLoc, swirlCenter, 2) rl.SetShaderValue(shader, swirlCenterLoc, swirlCenter, 2)
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginTextureMode(target) // Enable drawing to texture rl.BeginTextureMode(target) // Enable drawing to texture
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(dwarf, position, 2.0, raylib.White) // Draw 3d model with texture rl.DrawModel(dwarf, position, 2.0, rl.White) // Draw 3d model with texture
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("TEXT DRAWN IN RENDER TEXTURE", 200, 10, 30, raylib.Red) rl.DrawText("TEXT DRAWN IN RENDER TEXTURE", 200, 10, 30, rl.Red)
raylib.EndTextureMode() // End drawing to texture (now we have a texture available for next passes) rl.EndTextureMode() // End drawing to texture (now we have a texture available for next passes)
raylib.BeginShaderMode(shader) rl.BeginShaderMode(shader)
// NOTE: Render texture must be y-flipped due to default OpenGL coordinates (left-bottom) // NOTE: Render texture must be y-flipped due to default OpenGL coordinates (left-bottom)
raylib.DrawTextureRec(target.Texture, raylib.NewRectangle(0, 0, float32(target.Texture.Width), float32(-target.Texture.Height)), raylib.NewVector2(0, 0), raylib.White) rl.DrawTextureRec(target.Texture, rl.NewRectangle(0, 0, float32(target.Texture.Width), float32(-target.Texture.Height)), rl.NewVector2(0, 0), rl.White)
raylib.EndShaderMode() rl.EndShaderMode()
raylib.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, rl.Gray)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadShader(shader) // Unload shader rl.UnloadShader(shader) // Unload shader
raylib.UnloadTexture(texture) // Unload texture rl.UnloadTexture(texture) // Unload texture
raylib.UnloadModel(dwarf) // Unload model rl.UnloadModel(dwarf) // Unload model
raylib.UnloadRenderTexture(target) // Unload render texture rl.UnloadRenderTexture(target) // Unload render texture
raylib.CloseWindow() rl.CloseWindow()
} }

60
examples/shaders/model_shader/main.go
View file

@ -10,57 +10,57 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint) // Enable Multi Sampling Anti Aliasing 4x (if available) rl.SetConfigFlags(rl.FlagMsaa4xHint) // Enable Multi Sampling Anti Aliasing 4x (if available)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - model shader") rl.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - model shader")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(3.0, 3.0, 3.0) camera.Position = rl.NewVector3(3.0, 3.0, 3.0)
camera.Target = raylib.NewVector3(0.0, 1.5, 0.0) camera.Target = rl.NewVector3(0.0, 1.5, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
dwarf := raylib.LoadModel("dwarf.obj") // Load OBJ model dwarf := rl.LoadModel("dwarf.obj") // Load OBJ model
texture := raylib.LoadTexture("dwarf_diffuse.png") // Load model texture texture := rl.LoadTexture("dwarf_diffuse.png") // Load model texture
shader := raylib.LoadShader("glsl330/base.vs", "glsl330/grayscale.fs") // Load model shader shader := rl.LoadShader("glsl330/base.vs", "glsl330/grayscale.fs") // Load model shader
dwarf.Material.Shader = shader // Set shader effect to 3d model dwarf.Material.Shader = shader // Set shader effect to 3d model
dwarf.Material.Maps[raylib.MapDiffuse].Texture = texture // Set dwarf model diffuse texture dwarf.Material.Maps[rl.MapDiffuse].Texture = texture // Set dwarf model diffuse texture
position := raylib.NewVector3(0.0, 0.0, 0.0) // Set model position position := rl.NewVector3(0.0, 0.0, 0.0) // Set model position
raylib.SetCameraMode(camera, raylib.CameraFree) // Set free camera mode rl.SetCameraMode(camera, rl.CameraFree) // Set free camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(dwarf, position, 2.0, raylib.White) // Draw 3d model with texture rl.DrawModel(dwarf, position, 2.0, rl.White) // Draw 3d model with texture
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, rl.Gray)
raylib.DrawText(fmt.Sprintf("Camera position: (%.2f, %.2f, %.2f)", camera.Position.X, camera.Position.Y, camera.Position.Z), 600, 20, 10, raylib.Black) rl.DrawText(fmt.Sprintf("Camera position: (%.2f, %.2f, %.2f)", camera.Position.X, camera.Position.Y, camera.Position.Z), 600, 20, 10, rl.Black)
raylib.DrawText(fmt.Sprintf("Camera target: (%.2f, %.2f, %.2f)", camera.Target.X, camera.Target.Y, camera.Target.Z), 600, 40, 10, raylib.Gray) rl.DrawText(fmt.Sprintf("Camera target: (%.2f, %.2f, %.2f)", camera.Target.X, camera.Target.Y, camera.Target.Z), 600, 40, 10, rl.Gray)
raylib.DrawFPS(10, 10) rl.DrawFPS(10, 10)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadShader(shader) // Unload shader rl.UnloadShader(shader) // Unload shader
raylib.UnloadTexture(texture) // Unload texture rl.UnloadTexture(texture) // Unload texture
raylib.UnloadModel(dwarf) // Unload model rl.UnloadModel(dwarf) // Unload model
raylib.CloseWindow() rl.CloseWindow()
} }

106
examples/shaders/postprocessing/main.go
View file

@ -40,53 +40,53 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.SetConfigFlags(raylib.FlagMsaa4xHint | raylib.FlagVsyncHint) // Enable Multi Sampling Anti Aliasing 4x (if available) rl.SetConfigFlags(rl.FlagMsaa4xHint | rl.FlagVsyncHint) // Enable Multi Sampling Anti Aliasing 4x (if available)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - postprocessing shader") rl.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - postprocessing shader")
camera := raylib.Camera{} camera := rl.Camera{}
camera.Position = raylib.NewVector3(3.0, 3.0, 3.0) camera.Position = rl.NewVector3(3.0, 3.0, 3.0)
camera.Target = raylib.NewVector3(0.0, 1.5, 0.0) camera.Target = rl.NewVector3(0.0, 1.5, 0.0)
camera.Up = raylib.NewVector3(0.0, 1.0, 0.0) camera.Up = rl.NewVector3(0.0, 1.0, 0.0)
camera.Fovy = 45.0 camera.Fovy = 45.0
dwarf := raylib.LoadModel("dwarf.obj") // Load OBJ model dwarf := rl.LoadModel("dwarf.obj") // Load OBJ model
texture := raylib.LoadTexture("dwarf_diffuse.png") // Load model texture texture := rl.LoadTexture("dwarf_diffuse.png") // Load model texture
dwarf.Material.Maps[raylib.MapDiffuse].Texture = texture // Set dwarf model diffuse texture dwarf.Material.Maps[rl.MapDiffuse].Texture = texture // Set dwarf model diffuse texture
position := raylib.NewVector3(0.0, 0.0, 0.0) // Set model position position := rl.NewVector3(0.0, 0.0, 0.0) // Set model position
// Load all postpro shaders // Load all postpro shaders
// NOTE 1: All postpro shader use the base vertex shader (DEFAULT_VERTEX_SHADER) // NOTE 1: All postpro shader use the base vertex shader (DEFAULT_VERTEX_SHADER)
shaders := make([]raylib.Shader, MaxPostproShaders) shaders := make([]rl.Shader, MaxPostproShaders)
shaders[FxGrayscale] = raylib.LoadShader("", "glsl330/grayscale.fs") shaders[FxGrayscale] = rl.LoadShader("", "glsl330/grayscale.fs")
shaders[FxPosterization] = raylib.LoadShader("", "glsl330/posterization.fs") shaders[FxPosterization] = rl.LoadShader("", "glsl330/posterization.fs")
shaders[FxDreamVision] = raylib.LoadShader("", "glsl330/dream_vision.fs") shaders[FxDreamVision] = rl.LoadShader("", "glsl330/dream_vision.fs")
shaders[FxPixelizer] = raylib.LoadShader("", "glsl330/pixelizer.fs") shaders[FxPixelizer] = rl.LoadShader("", "glsl330/pixelizer.fs")
shaders[FxCrossHatching] = raylib.LoadShader("", "glsl330/cross_hatching.fs") shaders[FxCrossHatching] = rl.LoadShader("", "glsl330/cross_hatching.fs")
shaders[FxCrossStitching] = raylib.LoadShader("", "glsl330/cross_stitching.fs") shaders[FxCrossStitching] = rl.LoadShader("", "glsl330/cross_stitching.fs")
shaders[FxPredatorView] = raylib.LoadShader("", "glsl330/predator.fs") shaders[FxPredatorView] = rl.LoadShader("", "glsl330/predator.fs")
shaders[FxScanlines] = raylib.LoadShader("", "glsl330/scanlines.fs") shaders[FxScanlines] = rl.LoadShader("", "glsl330/scanlines.fs")
shaders[FxFisheye] = raylib.LoadShader("", "glsl330/fisheye.fs") shaders[FxFisheye] = rl.LoadShader("", "glsl330/fisheye.fs")
shaders[FxSobel] = raylib.LoadShader("", "glsl330/sobel.fs") shaders[FxSobel] = rl.LoadShader("", "glsl330/sobel.fs")
shaders[FxBlur] = raylib.LoadShader("", "glsl330/blur.fs") shaders[FxBlur] = rl.LoadShader("", "glsl330/blur.fs")
shaders[FxBloom] = raylib.LoadShader("", "glsl330/bloom.fs") shaders[FxBloom] = rl.LoadShader("", "glsl330/bloom.fs")
currentShader := FxGrayscale currentShader := FxGrayscale
// Create a RenderTexture2D to be used for render to texture // Create a RenderTexture2D to be used for render to texture
target := raylib.LoadRenderTexture(screenWidth, screenHeight) target := rl.LoadRenderTexture(screenWidth, screenHeight)
raylib.SetCameraMode(camera, raylib.CameraOrbital) // Set free camera mode rl.SetCameraMode(camera, rl.CameraOrbital) // Set free camera mode
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.UpdateCamera(&camera) // Update camera rl.UpdateCamera(&camera) // Update camera
if raylib.IsKeyPressed(raylib.KeyRight) { if rl.IsKeyPressed(rl.KeyRight) {
currentShader++ currentShader++
} else if raylib.IsKeyPressed(raylib.KeyLeft) { } else if rl.IsKeyPressed(rl.KeyLeft) {
currentShader-- currentShader--
} }
@ -96,51 +96,51 @@ func main() {
currentShader = MaxPostproShaders - 1 currentShader = MaxPostproShaders - 1
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.BeginTextureMode(target) // Enable drawing to texture rl.BeginTextureMode(target) // Enable drawing to texture
raylib.BeginMode3D(camera) rl.BeginMode3D(camera)
raylib.DrawModel(dwarf, position, 2.0, raylib.White) // Draw 3d model with texture rl.DrawModel(dwarf, position, 2.0, rl.White) // Draw 3d model with texture
raylib.DrawGrid(10, 1.0) // Draw a grid rl.DrawGrid(10, 1.0) // Draw a grid
raylib.EndMode3D() rl.EndMode3D()
raylib.EndTextureMode() // End drawing to texture (now we have a texture available for next passes) rl.EndTextureMode() // End drawing to texture (now we have a texture available for next passes)
// Render previously generated texture using selected postpro shader // Render previously generated texture using selected postpro shader
raylib.BeginShaderMode(shaders[currentShader]) rl.BeginShaderMode(shaders[currentShader])
// NOTE: Render texture must be y-flipped due to default OpenGL coordinates (left-bottom) // NOTE: Render texture must be y-flipped due to default OpenGL coordinates (left-bottom)
raylib.DrawTextureRec(target.Texture, raylib.NewRectangle(0, 0, float32(target.Texture.Width), float32(-target.Texture.Height)), raylib.NewVector2(0, 0), raylib.White) rl.DrawTextureRec(target.Texture, rl.NewRectangle(0, 0, float32(target.Texture.Width), float32(-target.Texture.Height)), rl.NewVector2(0, 0), rl.White)
raylib.EndShaderMode() rl.EndShaderMode()
raylib.DrawRectangle(0, 9, 580, 30, raylib.Fade(raylib.LightGray, 0.7)) rl.DrawRectangle(0, 9, 580, 30, rl.Fade(rl.LightGray, 0.7))
raylib.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, raylib.DarkGray) rl.DrawText("(c) Dwarf 3D model by David Moreno", screenWidth-200, screenHeight-20, 10, rl.DarkGray)
raylib.DrawText("CURRENT POSTPRO SHADER:", 10, 15, 20, raylib.Black) rl.DrawText("CURRENT POSTPRO SHADER:", 10, 15, 20, rl.Black)
raylib.DrawText(postproShaderText[currentShader], 330, 15, 20, raylib.Red) rl.DrawText(postproShaderText[currentShader], 330, 15, 20, rl.Red)
raylib.DrawText("< >", 540, 10, 30, raylib.DarkBlue) rl.DrawText("< >", 540, 10, 30, rl.DarkBlue)
raylib.DrawFPS(700, 15) rl.DrawFPS(700, 15)
raylib.EndDrawing() rl.EndDrawing()
} }
// Unload all postpro shaders // Unload all postpro shaders
for i := 0; i < MaxPostproShaders; i++ { for i := 0; i < MaxPostproShaders; i++ {
raylib.UnloadShader(shaders[i]) rl.UnloadShader(shaders[i])
} }
raylib.UnloadTexture(texture) // Unload texture rl.UnloadTexture(texture) // Unload texture
raylib.UnloadModel(dwarf) // Unload model rl.UnloadModel(dwarf) // Unload model
raylib.UnloadRenderTexture(target) // Unload render texture rl.UnloadRenderTexture(target) // Unload render texture
raylib.CloseWindow() rl.CloseWindow()
} }

66
examples/shaders/shapes_textures/main.go
View file

@ -8,67 +8,67 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - shapes and texture shaders") rl.InitWindow(screenWidth, screenHeight, "raylib [shaders] example - shapes and texture shaders")
fudesumi := raylib.LoadTexture("fudesumi.png") fudesumi := rl.LoadTexture("fudesumi.png")
// NOTE: Using GLSL 330 shader version, on OpenGL ES 2.0 use GLSL 100 shader version // NOTE: Using GLSL 330 shader version, on OpenGL ES 2.0 use GLSL 100 shader version
shader := raylib.LoadShader("glsl330/base.vs", "glsl330/grayscale.fs") shader := rl.LoadShader("glsl330/base.vs", "glsl330/grayscale.fs")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
// Start drawing with default shader // Start drawing with default shader
raylib.DrawText("USING DEFAULT SHADER", 20, 40, 10, raylib.Red) rl.DrawText("USING DEFAULT SHADER", 20, 40, 10, rl.Red)
raylib.DrawCircle(80, 120, 35, raylib.DarkBlue) rl.DrawCircle(80, 120, 35, rl.DarkBlue)
raylib.DrawCircleGradient(80, 220, 60, raylib.Green, raylib.SkyBlue) rl.DrawCircleGradient(80, 220, 60, rl.Green, rl.SkyBlue)
raylib.DrawCircleLines(80, 340, 80, raylib.DarkBlue) rl.DrawCircleLines(80, 340, 80, rl.DarkBlue)
// Activate our custom shader to be applied on next shapes/textures drawings // Activate our custom shader to be applied on next shapes/textures drawings
raylib.BeginShaderMode(shader) rl.BeginShaderMode(shader)
raylib.DrawText("USING CUSTOM SHADER", 190, 40, 10, raylib.Red) rl.DrawText("USING CUSTOM SHADER", 190, 40, 10, rl.Red)
raylib.DrawRectangle(250-60, 90, 120, 60, raylib.Red) rl.DrawRectangle(250-60, 90, 120, 60, rl.Red)
raylib.DrawRectangleGradientH(250-90, 170, 180, 130, raylib.Maroon, raylib.Gold) rl.DrawRectangleGradientH(250-90, 170, 180, 130, rl.Maroon, rl.Gold)
raylib.DrawRectangleLines(250-40, 320, 80, 60, raylib.Orange) rl.DrawRectangleLines(250-40, 320, 80, 60, rl.Orange)
// Activate our default shader for next drawings // Activate our default shader for next drawings
raylib.EndShaderMode() rl.EndShaderMode()
raylib.DrawText("USING DEFAULT SHADER", 370, 40, 10, raylib.Red) rl.DrawText("USING DEFAULT SHADER", 370, 40, 10, rl.Red)
raylib.DrawTriangle(raylib.NewVector2(430, 80), rl.DrawTriangle(rl.NewVector2(430, 80),
raylib.NewVector2(430-60, 150), rl.NewVector2(430-60, 150),
raylib.NewVector2(430+60, 150), raylib.Violet) rl.NewVector2(430+60, 150), rl.Violet)
raylib.DrawTriangleLines(raylib.NewVector2(430, 160), rl.DrawTriangleLines(rl.NewVector2(430, 160),
raylib.NewVector2(430-20, 230), rl.NewVector2(430-20, 230),
raylib.NewVector2(430+20, 230), raylib.DarkBlue) rl.NewVector2(430+20, 230), rl.DarkBlue)
raylib.DrawPoly(raylib.NewVector2(430, 320), 6, 80, 0, raylib.Brown) rl.DrawPoly(rl.NewVector2(430, 320), 6, 80, 0, rl.Brown)
// Activate our custom shader to be applied on next shapes/textures drawings // Activate our custom shader to be applied on next shapes/textures drawings
raylib.BeginShaderMode(shader) rl.BeginShaderMode(shader)
raylib.DrawTexture(fudesumi, 500, -30, raylib.White) // Using custom shader rl.DrawTexture(fudesumi, 500, -30, rl.White) // Using custom shader
// Activate our default shader for next drawings // Activate our default shader for next drawings
raylib.EndShaderMode() rl.EndShaderMode()
raylib.DrawText("(c) Fudesumi sprite by Eiden Marsal", 380, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Fudesumi sprite by Eiden Marsal", 380, screenHeight-20, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadShader(shader) // Unload shader rl.UnloadShader(shader) // Unload shader
raylib.UnloadTexture(fudesumi) // Unload texture rl.UnloadTexture(fudesumi) // Unload texture
raylib.CloseWindow() // Close window and OpenGL context rl.CloseWindow() // Close window and OpenGL context
} }

44
examples/shapes/basic_shapes/main.go
View file

@ -8,38 +8,38 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - basic shapes drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - basic shapes drawing")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("some basic shapes available on raylib", 20, 20, 20, raylib.DarkGray) rl.DrawText("some basic shapes available on raylib", 20, 20, 20, rl.DarkGray)
raylib.DrawLine(18, 42, screenWidth-18, 42, raylib.Black) rl.DrawLine(18, 42, screenWidth-18, 42, rl.Black)
raylib.DrawCircle(screenWidth/4, 120, 35, raylib.DarkBlue) rl.DrawCircle(screenWidth/4, 120, 35, rl.DarkBlue)
raylib.DrawCircleGradient(screenWidth/4, 220, 60, raylib.Green, raylib.SkyBlue) rl.DrawCircleGradient(screenWidth/4, 220, 60, rl.Green, rl.SkyBlue)
raylib.DrawCircleLines(screenWidth/4, 340, 80, raylib.DarkBlue) rl.DrawCircleLines(screenWidth/4, 340, 80, rl.DarkBlue)
raylib.DrawRectangle(screenWidth/4*2-60, 100, 120, 60, raylib.Red) rl.DrawRectangle(screenWidth/4*2-60, 100, 120, 60, rl.Red)
raylib.DrawRectangleGradientH(screenWidth/4*2-90, 170, 180, 130, raylib.Maroon, raylib.Gold) rl.DrawRectangleGradientH(screenWidth/4*2-90, 170, 180, 130, rl.Maroon, rl.Gold)
raylib.DrawRectangleLines(screenWidth/4*2-40, 320, 80, 60, raylib.Orange) rl.DrawRectangleLines(screenWidth/4*2-40, 320, 80, 60, rl.Orange)
raylib.DrawTriangle(raylib.NewVector2(float32(screenWidth)/4*3, 80), rl.DrawTriangle(rl.NewVector2(float32(screenWidth)/4*3, 80),
raylib.NewVector2(float32(screenWidth)/4*3-60, 150), rl.NewVector2(float32(screenWidth)/4*3-60, 150),
raylib.NewVector2(float32(screenWidth)/4*3+60, 150), raylib.Violet) rl.NewVector2(float32(screenWidth)/4*3+60, 150), rl.Violet)
raylib.DrawTriangleLines(raylib.NewVector2(float32(screenWidth)/4*3, 160), rl.DrawTriangleLines(rl.NewVector2(float32(screenWidth)/4*3, 160),
raylib.NewVector2(float32(screenWidth)/4*3-20, 230), rl.NewVector2(float32(screenWidth)/4*3-20, 230),
raylib.NewVector2(float32(screenWidth)/4*3+20, 230), raylib.DarkBlue) rl.NewVector2(float32(screenWidth)/4*3+20, 230), rl.DarkBlue)
raylib.DrawPoly(raylib.NewVector2(float32(screenWidth)/4*3, 320), 6, 80, 0, raylib.Brown) rl.DrawPoly(rl.NewVector2(float32(screenWidth)/4*3, 320), 6, 80, 0, rl.Brown)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

100
examples/shapes/colors_pallete/main.go
View file

@ -5,62 +5,62 @@ import (
) )
func main() { func main() {
raylib.InitWindow(800, 450, "raylib [shapes] example - raylib color palette") rl.InitWindow(800, 450, "raylib [shapes] example - raylib color palette")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("raylib color palette", 28, 42, 20, raylib.Black) rl.DrawText("raylib color palette", 28, 42, 20, rl.Black)
raylib.DrawRectangle(26, 80, 100, 100, raylib.DarkGray) rl.DrawRectangle(26, 80, 100, 100, rl.DarkGray)
raylib.DrawRectangle(26, 188, 100, 100, raylib.Gray) rl.DrawRectangle(26, 188, 100, 100, rl.Gray)
raylib.DrawRectangle(26, 296, 100, 100, raylib.LightGray) rl.DrawRectangle(26, 296, 100, 100, rl.LightGray)
raylib.DrawRectangle(134, 80, 100, 100, raylib.Maroon) rl.DrawRectangle(134, 80, 100, 100, rl.Maroon)
raylib.DrawRectangle(134, 188, 100, 100, raylib.Red) rl.DrawRectangle(134, 188, 100, 100, rl.Red)
raylib.DrawRectangle(134, 296, 100, 100, raylib.Pink) rl.DrawRectangle(134, 296, 100, 100, rl.Pink)
raylib.DrawRectangle(242, 80, 100, 100, raylib.Orange) rl.DrawRectangle(242, 80, 100, 100, rl.Orange)
raylib.DrawRectangle(242, 188, 100, 100, raylib.Gold) rl.DrawRectangle(242, 188, 100, 100, rl.Gold)
raylib.DrawRectangle(242, 296, 100, 100, raylib.Yellow) rl.DrawRectangle(242, 296, 100, 100, rl.Yellow)
raylib.DrawRectangle(350, 80, 100, 100, raylib.DarkGreen) rl.DrawRectangle(350, 80, 100, 100, rl.DarkGreen)
raylib.DrawRectangle(350, 188, 100, 100, raylib.Lime) rl.DrawRectangle(350, 188, 100, 100, rl.Lime)
raylib.DrawRectangle(350, 296, 100, 100, raylib.Green) rl.DrawRectangle(350, 296, 100, 100, rl.Green)
raylib.DrawRectangle(458, 80, 100, 100, raylib.DarkBlue) rl.DrawRectangle(458, 80, 100, 100, rl.DarkBlue)
raylib.DrawRectangle(458, 188, 100, 100, raylib.Blue) rl.DrawRectangle(458, 188, 100, 100, rl.Blue)
raylib.DrawRectangle(458, 296, 100, 100, raylib.SkyBlue) rl.DrawRectangle(458, 296, 100, 100, rl.SkyBlue)
raylib.DrawRectangle(566, 80, 100, 100, raylib.DarkPurple) rl.DrawRectangle(566, 80, 100, 100, rl.DarkPurple)
raylib.DrawRectangle(566, 188, 100, 100, raylib.Violet) rl.DrawRectangle(566, 188, 100, 100, rl.Violet)
raylib.DrawRectangle(566, 296, 100, 100, raylib.Purple) rl.DrawRectangle(566, 296, 100, 100, rl.Purple)
raylib.DrawRectangle(674, 80, 100, 100, raylib.DarkBrown) rl.DrawRectangle(674, 80, 100, 100, rl.DarkBrown)
raylib.DrawRectangle(674, 188, 100, 100, raylib.Brown) rl.DrawRectangle(674, 188, 100, 100, rl.Brown)
raylib.DrawRectangle(674, 296, 100, 100, raylib.Beige) rl.DrawRectangle(674, 296, 100, 100, rl.Beige)
raylib.DrawText("DARKGRAY", 65, 166, 10, raylib.Black) rl.DrawText("DARKGRAY", 65, 166, 10, rl.Black)
raylib.DrawText("GRAY", 93, 274, 10, raylib.Black) rl.DrawText("GRAY", 93, 274, 10, rl.Black)
raylib.DrawText("LIGHTGRAY", 61, 382, 10, raylib.Black) rl.DrawText("LIGHTGRAY", 61, 382, 10, rl.Black)
raylib.DrawText("MAROON", 186, 166, 10, raylib.Black) rl.DrawText("MAROON", 186, 166, 10, rl.Black)
raylib.DrawText("RED", 208, 274, 10, raylib.Black) rl.DrawText("RED", 208, 274, 10, rl.Black)
raylib.DrawText("PINK", 204, 382, 10, raylib.Black) rl.DrawText("PINK", 204, 382, 10, rl.Black)
raylib.DrawText("ORANGE", 295, 166, 10, raylib.Black) rl.DrawText("ORANGE", 295, 166, 10, rl.Black)
raylib.DrawText("GOLD", 310, 274, 10, raylib.Black) rl.DrawText("GOLD", 310, 274, 10, rl.Black)
raylib.DrawText("YELLOW", 300, 382, 10, raylib.Black) rl.DrawText("YELLOW", 300, 382, 10, rl.Black)
raylib.DrawText("DARKGREEN", 382, 166, 10, raylib.Black) rl.DrawText("DARKGREEN", 382, 166, 10, rl.Black)
raylib.DrawText("LIME", 420, 274, 10, raylib.Black) rl.DrawText("LIME", 420, 274, 10, rl.Black)
raylib.DrawText("GREEN", 410, 382, 10, raylib.Black) rl.DrawText("GREEN", 410, 382, 10, rl.Black)
raylib.DrawText("DARKBLUE", 498, 166, 10, raylib.Black) rl.DrawText("DARKBLUE", 498, 166, 10, rl.Black)
raylib.DrawText("BLUE", 526, 274, 10, raylib.Black) rl.DrawText("BLUE", 526, 274, 10, rl.Black)
raylib.DrawText("SKYBLUE", 505, 382, 10, raylib.Black) rl.DrawText("SKYBLUE", 505, 382, 10, rl.Black)
raylib.DrawText("DARKPURPLE", 592, 166, 10, raylib.Black) rl.DrawText("DARKPURPLE", 592, 166, 10, rl.Black)
raylib.DrawText("VIOLET", 621, 274, 10, raylib.Black) rl.DrawText("VIOLET", 621, 274, 10, rl.Black)
raylib.DrawText("PURPLE", 620, 382, 10, raylib.Black) rl.DrawText("PURPLE", 620, 382, 10, rl.Black)
raylib.DrawText("DARKBROWN", 705, 166, 10, raylib.Black) rl.DrawText("DARKBROWN", 705, 166, 10, rl.Black)
raylib.DrawText("BROWN", 733, 274, 10, raylib.Black) rl.DrawText("BROWN", 733, 274, 10, rl.Black)
raylib.DrawText("BEIGE", 737, 382, 10, raylib.Black) rl.DrawText("BEIGE", 737, 382, 10, rl.Black)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

30
examples/shapes/lines_bezier/main.go
View file

@ -8,29 +8,29 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - cubic-bezier lines") rl.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - cubic-bezier lines")
start := raylib.NewVector2(0, 0) start := rl.NewVector2(0, 0)
end := raylib.NewVector2(float32(screenWidth), float32(screenHeight)) end := rl.NewVector2(float32(screenWidth), float32(screenHeight))
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
start = raylib.GetMousePosition() start = rl.GetMousePosition()
} else if raylib.IsMouseButtonDown(raylib.MouseRightButton) { } else if rl.IsMouseButtonDown(rl.MouseRightButton) {
end = raylib.GetMousePosition() end = rl.GetMousePosition()
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("USE MOUSE LEFT-RIGHT CLICK to DEFINE LINE START and END POINTS", 15, 20, 20, raylib.Gray) rl.DrawText("USE MOUSE LEFT-RIGHT CLICK to DEFINE LINE START and END POINTS", 15, 20, 20, rl.Gray)
raylib.DrawLineBezier(start, end, 2.0, raylib.Red) rl.DrawLineBezier(start, end, 2.0, rl.Red)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

22
examples/shapes/logo_raylib/main.go
View file

@ -8,22 +8,22 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - raylib logo using shapes") rl.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - raylib logo using shapes")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawRectangle(screenWidth/2-128, screenHeight/2-128, 256, 256, raylib.Black) rl.DrawRectangle(screenWidth/2-128, screenHeight/2-128, 256, 256, rl.Black)
raylib.DrawRectangle(screenWidth/2-112, screenHeight/2-112, 224, 224, raylib.RayWhite) rl.DrawRectangle(screenWidth/2-112, screenHeight/2-112, 224, 224, rl.RayWhite)
raylib.DrawText("raylib", screenWidth/2-44, screenHeight/2+48, 50, raylib.Black) rl.DrawText("raylib", screenWidth/2-44, screenHeight/2+48, 50, rl.Black)
raylib.DrawText("this is NOT a texture!", 350, 370, 10, raylib.Gray) rl.DrawText("this is NOT a texture!", 350, 370, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

44
examples/shapes/logo_raylib_anim/main.go
View file

@ -8,7 +8,7 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - raylib logo animation") rl.InitWindow(screenWidth, screenHeight, "raylib [shapes] example - raylib logo animation")
logoPositionX := screenWidth/2 - 128 logoPositionX := screenWidth/2 - 128
logoPositionY := screenHeight/2 - 128 logoPositionY := screenHeight/2 - 128
@ -25,9 +25,9 @@ func main() {
state := 0 // Tracking animation states (State Machine) state := 0 // Tracking animation states (State Machine)
alpha := float32(1.0) // Useful for fading alpha := float32(1.0) // Useful for fading
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if state == 0 { // State 0: Small box blinking if state == 0 { // State 0: Small box blinking
framesCounter++ framesCounter++
@ -66,7 +66,7 @@ func main() {
} }
} }
} else if state == 4 { // State 4: Reset and Replay } else if state == 4 { // State 4: Reset and Replay
if raylib.IsKeyPressed(raylib.KeyR) { if rl.IsKeyPressed(rl.KeyR) {
framesCounter = 0 framesCounter = 0
lettersCount = 0 lettersCount = 0
@ -81,30 +81,30 @@ func main() {
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
if state == 0 { if state == 0 {
if (framesCounter/15)%2 == 0 { if (framesCounter/15)%2 == 0 {
raylib.DrawRectangle(logoPositionX, logoPositionY, 16, 16, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY, 16, 16, rl.Black)
} }
} else if state == 1 { } else if state == 1 {
raylib.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, rl.Black)
raylib.DrawRectangle(logoPositionX, logoPositionY, 16, leftSideRecHeight, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY, 16, leftSideRecHeight, rl.Black)
} else if state == 2 { } else if state == 2 {
raylib.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, rl.Black)
raylib.DrawRectangle(logoPositionX, logoPositionY, 16, leftSideRecHeight, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY, 16, leftSideRecHeight, rl.Black)
raylib.DrawRectangle(logoPositionX+240, logoPositionY, 16, rightSideRecHeight, raylib.Black) rl.DrawRectangle(logoPositionX+240, logoPositionY, 16, rightSideRecHeight, rl.Black)
raylib.DrawRectangle(logoPositionX, logoPositionY+240, bottomSideRecWidth, 16, raylib.Black) rl.DrawRectangle(logoPositionX, logoPositionY+240, bottomSideRecWidth, 16, rl.Black)
} else if state == 3 { } else if state == 3 {
raylib.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, raylib.Fade(raylib.Black, alpha)) rl.DrawRectangle(logoPositionX, logoPositionY, topSideRecWidth, 16, rl.Fade(rl.Black, alpha))
raylib.DrawRectangle(logoPositionX, logoPositionY+16, 16, leftSideRecHeight-32, raylib.Fade(raylib.Black, alpha)) rl.DrawRectangle(logoPositionX, logoPositionY+16, 16, leftSideRecHeight-32, rl.Fade(rl.Black, alpha))
raylib.DrawRectangle(logoPositionX+240, logoPositionY+16, 16, rightSideRecHeight-32, raylib.Fade(raylib.Black, alpha)) rl.DrawRectangle(logoPositionX+240, logoPositionY+16, 16, rightSideRecHeight-32, rl.Fade(rl.Black, alpha))
raylib.DrawRectangle(logoPositionX, logoPositionY+240, bottomSideRecWidth, 16, raylib.Fade(raylib.Black, alpha)) rl.DrawRectangle(logoPositionX, logoPositionY+240, bottomSideRecWidth, 16, rl.Fade(rl.Black, alpha))
raylib.DrawRectangle(screenWidth/2-112, screenHeight/2-112, 224, 224, raylib.Fade(raylib.RayWhite, alpha)) rl.DrawRectangle(screenWidth/2-112, screenHeight/2-112, 224, 224, rl.Fade(rl.RayWhite, alpha))
text := "raylib" text := "raylib"
length := int32(len(text)) length := int32(len(text))
@ -112,13 +112,13 @@ func main() {
lettersCount = length lettersCount = length
} }
raylib.DrawText(text[0:lettersCount], screenWidth/2-44, screenHeight/2+48, 50, raylib.Fade(raylib.Black, alpha)) rl.DrawText(text[0:lettersCount], screenWidth/2-44, screenHeight/2+48, 50, rl.Fade(rl.Black, alpha))
} else if state == 4 { } else if state == 4 {
raylib.DrawText("[R] REPLAY", 340, 200, 20, raylib.Gray) rl.DrawText("[R] REPLAY", 340, 200, 20, rl.Gray)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

30
examples/text/bmfont_ttf/main.go
View file

@ -8,35 +8,35 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - bmfont and ttf sprite fonts loading") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - bmfont and ttf sprite fonts loading")
msgBm := "THIS IS AN AngelCode SPRITE FONT" msgBm := "THIS IS AN AngelCode SPRITE FONT"
msgTtf := "THIS SPRITE FONT has been GENERATED from a TTF" msgTtf := "THIS SPRITE FONT has been GENERATED from a TTF"
// NOTE: Textures/Fonts MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures/Fonts MUST be loaded after Window initialization (OpenGL context is required)
fontBm := raylib.LoadFont("fonts/bmfont.fnt") // BMFont (AngelCode) fontBm := rl.LoadFont("fonts/bmfont.fnt") // BMFont (AngelCode)
fontTtf := raylib.LoadFont("fonts/pixantiqua.ttf") // TTF font fontTtf := rl.LoadFont("fonts/pixantiqua.ttf") // TTF font
fontPosition := raylib.Vector2{} fontPosition := rl.Vector2{}
fontPosition.X = float32(screenWidth)/2 - raylib.MeasureTextEx(fontBm, msgBm, float32(fontBm.BaseSize), 0).X/2 fontPosition.X = float32(screenWidth)/2 - rl.MeasureTextEx(fontBm, msgBm, float32(fontBm.BaseSize), 0).X/2
fontPosition.Y = float32(screenHeight)/2 - float32(fontBm.BaseSize)/2 - 80 fontPosition.Y = float32(screenHeight)/2 - float32(fontBm.BaseSize)/2 - 80
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTextEx(fontBm, msgBm, fontPosition, float32(fontBm.BaseSize), 0, raylib.Maroon) rl.DrawTextEx(fontBm, msgBm, fontPosition, float32(fontBm.BaseSize), 0, rl.Maroon)
raylib.DrawTextEx(fontTtf, msgTtf, raylib.NewVector2(75.0, 240.0), float32(fontTtf.BaseSize)*0.8, 2, raylib.Lime) rl.DrawTextEx(fontTtf, msgTtf, rl.NewVector2(75.0, 240.0), float32(fontTtf.BaseSize)*0.8, 2, rl.Lime)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadFont(fontBm) // AngelCode Font unloading rl.UnloadFont(fontBm) // AngelCode Font unloading
raylib.UnloadFont(fontTtf) // TTF Font unloading rl.UnloadFont(fontTtf) // TTF Font unloading
raylib.CloseWindow() rl.CloseWindow()
} }

26
examples/text/bmfont_unordered/main.go
View file

@ -10,32 +10,32 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - bmfont unordered loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - bmfont unordered loading and drawing")
// NOTE: Using chars outside the [32..127] limits! // NOTE: Using chars outside the [32..127] limits!
// NOTE: If a character is not found in the font, it just renders a space // NOTE: If a character is not found in the font, it just renders a space
msg := "ASCII extended characters:\n¡¢£¤¥¦§¨©ª«¬®¯°±²³´µ¶·¸¹º»¼½¾¿ÀÁÂÃÄÅÆ\nÇÈÉÊËÌÍÎÏÐÑÒÓÔÕÖ×ØÙÚÛÜÝÞßàáâãäåæ\nçèéêëìíîïðñòóôõö÷øùúûüýþÿ" msg := "ASCII extended characters:\n¡¢£¤¥¦§¨©ª«¬®¯°±²³´µ¶·¸¹º»¼½¾¿ÀÁÂÃÄÅÆ\nÇÈÉÊËÌÍÎÏÐÑÒÓÔÕÖ×ØÙÚÛÜÝÞßàáâãäåæ\nçèéêëìíîïðñòóôõö÷øùúûüýþÿ"
// NOTE: Loaded font has an unordered list of characters (chars in the range 32..255) // NOTE: Loaded font has an unordered list of characters (chars in the range 32..255)
font := raylib.LoadFont("fonts/pixantiqua.fnt") // BMFont (AngelCode) font := rl.LoadFont("fonts/pixantiqua.fnt") // BMFont (AngelCode)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Font name: PixAntiqua", 40, 50, 20, raylib.Gray) rl.DrawText("Font name: PixAntiqua", 40, 50, 20, rl.Gray)
raylib.DrawText(fmt.Sprintf("Font base size: %d", font.BaseSize), 40, 80, 20, raylib.Gray) rl.DrawText(fmt.Sprintf("Font base size: %d", font.BaseSize), 40, 80, 20, rl.Gray)
raylib.DrawText(fmt.Sprintf("Font chars number: %d", font.CharsCount), 40, 110, 20, raylib.Gray) rl.DrawText(fmt.Sprintf("Font chars number: %d", font.CharsCount), 40, 110, 20, rl.Gray)
raylib.DrawTextEx(font, msg, raylib.NewVector2(40, 180), float32(font.BaseSize), 0, raylib.Maroon) rl.DrawTextEx(font, msg, rl.NewVector2(40, 180), float32(font.BaseSize), 0, rl.Maroon)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadFont(font) // AngelCode Font unloading rl.UnloadFont(font) // AngelCode Font unloading
raylib.CloseWindow() rl.CloseWindow()
} }

22
examples/text/format_text/main.go
View file

@ -10,29 +10,29 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - text formatting") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - text formatting")
score := 100020 score := 100020
hiscore := 200450 hiscore := 200450
lives := 5 lives := 5
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText(fmt.Sprintf("Score: %08d", score), 200, 80, 20, raylib.Red) rl.DrawText(fmt.Sprintf("Score: %08d", score), 200, 80, 20, rl.Red)
raylib.DrawText(fmt.Sprintf("HiScore: %08d", hiscore), 200, 120, 20, raylib.Green) rl.DrawText(fmt.Sprintf("HiScore: %08d", hiscore), 200, 120, 20, rl.Green)
raylib.DrawText(fmt.Sprintf("Lives: %02d", lives), 200, 160, 40, raylib.Blue) rl.DrawText(fmt.Sprintf("Lives: %02d", lives), 200, 160, 40, rl.Blue)
raylib.DrawText(fmt.Sprintf("Elapsed Time: %02.02f ms", raylib.GetFrameTime()*1000), 200, 220, 20, raylib.Black) rl.DrawText(fmt.Sprintf("Elapsed Time: %02.02f ms", rl.GetFrameTime()*1000), 200, 220, 20, rl.Black)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

48
examples/text/raylib_fonts/main.go
View file

@ -10,17 +10,17 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - raylib fonts") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - raylib fonts")
fonts := make([]raylib.Font, maxFonts) fonts := make([]rl.Font, maxFonts)
fonts[0] = raylib.LoadFont("fonts/alagard.png") fonts[0] = rl.LoadFont("fonts/alagard.png")
fonts[1] = raylib.LoadFont("fonts/pixelplay.png") fonts[1] = rl.LoadFont("fonts/pixelplay.png")
fonts[2] = raylib.LoadFont("fonts/mecha.png") fonts[2] = rl.LoadFont("fonts/mecha.png")
fonts[3] = raylib.LoadFont("fonts/setback.png") fonts[3] = rl.LoadFont("fonts/setback.png")
fonts[4] = raylib.LoadFont("fonts/romulus.png") fonts[4] = rl.LoadFont("fonts/romulus.png")
fonts[5] = raylib.LoadFont("fonts/pixantiqua.png") fonts[5] = rl.LoadFont("fonts/pixantiqua.png")
fonts[6] = raylib.LoadFont("fonts/alpha_beta.png") fonts[6] = rl.LoadFont("fonts/alpha_beta.png")
fonts[7] = raylib.LoadFont("fonts/jupiter_crash.png") fonts[7] = rl.LoadFont("fonts/jupiter_crash.png")
messages := []string{ messages := []string{
"ALAGARD FONT designed by Hewett Tsoi", "ALAGARD FONT designed by Hewett Tsoi",
@ -34,13 +34,13 @@ func main() {
} }
spacings := []float32{2, 4, 8, 4, 3, 4, 4, 1} spacings := []float32{2, 4, 8, 4, 3, 4, 4, 1}
positions := make([]raylib.Vector2, maxFonts) positions := make([]rl.Vector2, maxFonts)
var i int32 var i int32
for i = 0; i < maxFonts; i++ { for i = 0; i < maxFonts; i++ {
x := screenWidth/2 - int32(raylib.MeasureTextEx(fonts[i], messages[i], float32(fonts[i].BaseSize*2), spacings[i]).X/2) x := screenWidth/2 - int32(rl.MeasureTextEx(fonts[i], messages[i], float32(fonts[i].BaseSize*2), spacings[i]).X/2)
y := 60 + fonts[i].BaseSize + 45*i y := 60 + fonts[i].BaseSize + 45*i
positions[i] = raylib.NewVector2(float32(x), float32(y)) positions[i] = rl.NewVector2(float32(x), float32(y))
} }
// Small Y position corrections // Small Y position corrections
@ -48,27 +48,27 @@ func main() {
positions[4].Y += 2 positions[4].Y += 2
positions[7].Y -= 8 positions[7].Y -= 8
colors := []raylib.Color{raylib.Maroon, raylib.Orange, raylib.DarkGreen, raylib.DarkBlue, raylib.DarkPurple, raylib.Lime, raylib.Gold, raylib.DarkBrown} colors := []rl.Color{rl.Maroon, rl.Orange, rl.DarkGreen, rl.DarkBlue, rl.DarkPurple, rl.Lime, rl.Gold, rl.DarkBrown}
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("free fonts included with raylib", 250, 20, 20, raylib.DarkGray) rl.DrawText("free fonts included with raylib", 250, 20, 20, rl.DarkGray)
raylib.DrawLine(220, 50, 590, 50, raylib.DarkGray) rl.DrawLine(220, 50, 590, 50, rl.DarkGray)
for i = 0; i < maxFonts; i++ { for i = 0; i < maxFonts; i++ {
raylib.DrawTextEx(fonts[i], messages[i], positions[i], float32(fonts[i].BaseSize*2), spacings[i], colors[i]) rl.DrawTextEx(fonts[i], messages[i], positions[i], float32(fonts[i].BaseSize*2), spacings[i], colors[i])
} }
raylib.EndDrawing() rl.EndDrawing()
} }
for i = 0; i < maxFonts; i++ { for i = 0; i < maxFonts; i++ {
raylib.UnloadFont(fonts[i]) rl.UnloadFont(fonts[i])
} }
raylib.CloseWindow() rl.CloseWindow()
} }

40
examples/text/sprite_fonts/main.go
View file

@ -8,45 +8,45 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - sprite fonts usage") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - sprite fonts usage")
msg1 := "THIS IS A custom SPRITE FONT..." msg1 := "THIS IS A custom SPRITE FONT..."
msg2 := "...and this is ANOTHER CUSTOM font..." msg2 := "...and this is ANOTHER CUSTOM font..."
msg3 := "...and a THIRD one! GREAT! :D" msg3 := "...and a THIRD one! GREAT! :D"
// NOTE: Textures/Fonts MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures/Fonts MUST be loaded after Window initialization (OpenGL context is required)
font1 := raylib.LoadFont("fonts/custom_mecha.png") // Font loading font1 := rl.LoadFont("fonts/custom_mecha.png") // Font loading
font2 := raylib.LoadFont("fonts/custom_alagard.png") // Font loading font2 := rl.LoadFont("fonts/custom_alagard.png") // Font loading
font3 := raylib.LoadFont("fonts/custom_jupiter_crash.png") // Font loading font3 := rl.LoadFont("fonts/custom_jupiter_crash.png") // Font loading
var fontPosition1, fontPosition2, fontPosition3 raylib.Vector2 var fontPosition1, fontPosition2, fontPosition3 rl.Vector2
fontPosition1.X = float32(screenWidth)/2 - raylib.MeasureTextEx(font1, msg1, float32(font1.BaseSize), -3).X/2 fontPosition1.X = float32(screenWidth)/2 - rl.MeasureTextEx(font1, msg1, float32(font1.BaseSize), -3).X/2
fontPosition1.Y = float32(screenHeight)/2 - float32(font1.BaseSize)/2 - 80 fontPosition1.Y = float32(screenHeight)/2 - float32(font1.BaseSize)/2 - 80
fontPosition2.X = float32(screenWidth)/2 - raylib.MeasureTextEx(font2, msg2, float32(font2.BaseSize), -2).X/2 fontPosition2.X = float32(screenWidth)/2 - rl.MeasureTextEx(font2, msg2, float32(font2.BaseSize), -2).X/2
fontPosition2.Y = float32(screenHeight)/2 - float32(font2.BaseSize)/2 - 10 fontPosition2.Y = float32(screenHeight)/2 - float32(font2.BaseSize)/2 - 10
fontPosition3.X = float32(screenWidth)/2 - raylib.MeasureTextEx(font3, msg3, float32(font3.BaseSize), 2).X/2 fontPosition3.X = float32(screenWidth)/2 - rl.MeasureTextEx(font3, msg3, float32(font3.BaseSize), 2).X/2
fontPosition3.Y = float32(screenHeight)/2 - float32(font3.BaseSize)/2 + 50 fontPosition3.Y = float32(screenHeight)/2 - float32(font3.BaseSize)/2 + 50
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTextEx(font1, msg1, fontPosition1, float32(font1.BaseSize), -3, raylib.White) rl.DrawTextEx(font1, msg1, fontPosition1, float32(font1.BaseSize), -3, rl.White)
raylib.DrawTextEx(font2, msg2, fontPosition2, float32(font2.BaseSize), -2, raylib.White) rl.DrawTextEx(font2, msg2, fontPosition2, float32(font2.BaseSize), -2, rl.White)
raylib.DrawTextEx(font3, msg3, fontPosition3, float32(font3.BaseSize), 2, raylib.White) rl.DrawTextEx(font3, msg3, fontPosition3, float32(font3.BaseSize), 2, rl.White)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadFont(font1) // Font unloading rl.UnloadFont(font1) // Font unloading
raylib.UnloadFont(font2) // Font unloading rl.UnloadFont(font2) // Font unloading
raylib.UnloadFont(font3) // Font unloading rl.UnloadFont(font3) // Font unloading
raylib.CloseWindow() rl.CloseWindow()
} }

84
examples/text/ttf_loading/main.go
View file

@ -10,7 +10,7 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - ttf loading") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - ttf loading")
msg := "TTF Font" msg := "TTF Font"
@ -19,94 +19,94 @@ func main() {
fontChars := int32(0) fontChars := int32(0)
// TTF Font loading with custom generation parameters // TTF Font loading with custom generation parameters
font := raylib.LoadFontEx("fonts/KAISG.ttf", 96, 0, &fontChars) font := rl.LoadFontEx("fonts/KAISG.ttf", 96, 0, &fontChars)
// Generate mipmap levels to use trilinear filtering // Generate mipmap levels to use trilinear filtering
// NOTE: On 2D drawing it won't be noticeable, it looks like FILTER_BILINEAR // NOTE: On 2D drawing it won't be noticeable, it looks like FILTER_BILINEAR
raylib.GenTextureMipmaps(&font.Texture) rl.GenTextureMipmaps(&font.Texture)
fontSize := font.BaseSize fontSize := font.BaseSize
fontPosition := raylib.NewVector2(40, float32(screenHeight)/2+50) fontPosition := rl.NewVector2(40, float32(screenHeight)/2+50)
textSize := raylib.Vector2{} textSize := rl.Vector2{}
raylib.SetTextureFilter(font.Texture, raylib.FilterPoint) rl.SetTextureFilter(font.Texture, rl.FilterPoint)
currentFontFilter := 0 // FilterPoint currentFontFilter := 0 // FilterPoint
count := int32(0) count := int32(0)
droppedFiles := make([]string, 0) droppedFiles := make([]string, 0)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
fontSize += raylib.GetMouseWheelMove() * 4.0 fontSize += rl.GetMouseWheelMove() * 4.0
// Choose font texture filter method // Choose font texture filter method
if raylib.IsKeyPressed(raylib.KeyOne) { if rl.IsKeyPressed(rl.KeyOne) {
raylib.SetTextureFilter(font.Texture, raylib.FilterPoint) rl.SetTextureFilter(font.Texture, rl.FilterPoint)
currentFontFilter = 0 currentFontFilter = 0
} else if raylib.IsKeyPressed(raylib.KeyTwo) { } else if rl.IsKeyPressed(rl.KeyTwo) {
raylib.SetTextureFilter(font.Texture, raylib.FilterBilinear) rl.SetTextureFilter(font.Texture, rl.FilterBilinear)
currentFontFilter = 1 currentFontFilter = 1
} else if raylib.IsKeyPressed(raylib.KeyThree) { } else if rl.IsKeyPressed(rl.KeyThree) {
// NOTE: Trilinear filter won't be noticed on 2D drawing // NOTE: Trilinear filter won't be noticed on 2D drawing
raylib.SetTextureFilter(font.Texture, raylib.FilterTrilinear) rl.SetTextureFilter(font.Texture, rl.FilterTrilinear)
currentFontFilter = 2 currentFontFilter = 2
} }
textSize = raylib.MeasureTextEx(font, msg, float32(fontSize), 0) textSize = rl.MeasureTextEx(font, msg, float32(fontSize), 0)
if raylib.IsKeyDown(raylib.KeyLeft) { if rl.IsKeyDown(rl.KeyLeft) {
fontPosition.X -= 10 fontPosition.X -= 10
} else if raylib.IsKeyDown(raylib.KeyRight) { } else if rl.IsKeyDown(rl.KeyRight) {
fontPosition.X += 10 fontPosition.X += 10
} }
// Load a dropped TTF file dynamically (at current fontSize) // Load a dropped TTF file dynamically (at current fontSize)
if raylib.IsFileDropped() { if rl.IsFileDropped() {
droppedFiles = raylib.GetDroppedFiles(&count) droppedFiles = rl.GetDroppedFiles(&count)
if count == 1 { // Only support one ttf file dropped if count == 1 { // Only support one ttf file dropped
raylib.UnloadFont(font) rl.UnloadFont(font)
font = raylib.LoadFontEx(droppedFiles[0], fontSize, 0, &fontChars) font = rl.LoadFontEx(droppedFiles[0], fontSize, 0, &fontChars)
raylib.ClearDroppedFiles() rl.ClearDroppedFiles()
} }
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("Use mouse wheel to change font size", 20, 20, 10, raylib.Gray) rl.DrawText("Use mouse wheel to change font size", 20, 20, 10, rl.Gray)
raylib.DrawText("Use KEY_RIGHT and KEY_LEFT to move text", 20, 40, 10, raylib.Gray) rl.DrawText("Use KEY_RIGHT and KEY_LEFT to move text", 20, 40, 10, rl.Gray)
raylib.DrawText("Use 1, 2, 3 to change texture filter", 20, 60, 10, raylib.Gray) rl.DrawText("Use 1, 2, 3 to change texture filter", 20, 60, 10, rl.Gray)
raylib.DrawText("Drop a new TTF font for dynamic loading", 20, 80, 10, raylib.DarkGray) rl.DrawText("Drop a new TTF font for dynamic loading", 20, 80, 10, rl.DarkGray)
raylib.DrawTextEx(font, msg, fontPosition, float32(fontSize), 0, raylib.Black) rl.DrawTextEx(font, msg, fontPosition, float32(fontSize), 0, rl.Black)
// TODO: It seems texSize measurement is not accurate due to chars offsets... // TODO: It seems texSize measurement is not accurate due to chars offsets...
//raylib.DrawRectangleLines(int32(fontPosition.X), int32(fontPosition.Y), int32(textSize.X), int32(textSize.Y), raylib.Red) //rl.DrawRectangleLines(int32(fontPosition.X), int32(fontPosition.Y), int32(textSize.X), int32(textSize.Y), rl.Red)
raylib.DrawRectangle(0, screenHeight-80, screenWidth, 80, raylib.LightGray) rl.DrawRectangle(0, screenHeight-80, screenWidth, 80, rl.LightGray)
raylib.DrawText(fmt.Sprintf("Font size: %02.02f", float32(fontSize)), 20, screenHeight-50, 10, raylib.DarkGray) rl.DrawText(fmt.Sprintf("Font size: %02.02f", float32(fontSize)), 20, screenHeight-50, 10, rl.DarkGray)
raylib.DrawText(fmt.Sprintf("Text size: [%02.02f, %02.02f]", textSize.X, textSize.Y), 20, screenHeight-30, 10, raylib.DarkGray) rl.DrawText(fmt.Sprintf("Text size: [%02.02f, %02.02f]", textSize.X, textSize.Y), 20, screenHeight-30, 10, rl.DarkGray)
raylib.DrawText("CURRENT TEXTURE FILTER:", 250, 400, 20, raylib.Gray) rl.DrawText("CURRENT TEXTURE FILTER:", 250, 400, 20, rl.Gray)
if currentFontFilter == 0 { if currentFontFilter == 0 {
raylib.DrawText("POINT", 570, 400, 20, raylib.Black) rl.DrawText("POINT", 570, 400, 20, rl.Black)
} else if currentFontFilter == 1 { } else if currentFontFilter == 1 {
raylib.DrawText("BILINEAR", 570, 400, 20, raylib.Black) rl.DrawText("BILINEAR", 570, 400, 20, rl.Black)
} else if currentFontFilter == 2 { } else if currentFontFilter == 2 {
raylib.DrawText("TRILINEAR", 570, 400, 20, raylib.Black) rl.DrawText("TRILINEAR", 570, 400, 20, rl.Black)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadFont(font) // Font unloading rl.UnloadFont(font) // Font unloading
raylib.ClearDroppedFiles() // Clear internal buffers rl.ClearDroppedFiles() // Clear internal buffers
raylib.CloseWindow() rl.CloseWindow()
} }

24
examples/text/writing_anim/main.go
View file

@ -8,24 +8,24 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [text] example - text writing anim") rl.InitWindow(screenWidth, screenHeight, "raylib [text] example - text writing anim")
message := "This sample illustrates a text writing\nanimation effect! Check it out! ;)" message := "This sample illustrates a text writing\nanimation effect! Check it out! ;)"
length := len(message) length := len(message)
framesCounter := 0 framesCounter := 0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
if raylib.IsKeyDown(raylib.KeySpace) { if rl.IsKeyDown(rl.KeySpace) {
framesCounter += 8 framesCounter += 8
} else { } else {
framesCounter++ framesCounter++
} }
if raylib.IsKeyPressed(raylib.KeyEnter) { if rl.IsKeyPressed(rl.KeyEnter) {
framesCounter = 0 framesCounter = 0
} }
@ -34,17 +34,17 @@ func main() {
} }
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText(message[0:framesCounter/10], 210, 160, 20, raylib.Maroon) rl.DrawText(message[0:framesCounter/10], 210, 160, 20, rl.Maroon)
raylib.DrawText("PRESS [ENTER] to RESTART!", 240, 260, 20, raylib.LightGray) rl.DrawText("PRESS [ENTER] to RESTART!", 240, 260, 20, rl.LightGray)
raylib.DrawText("PRESS [SPACE] to SPEED UP!", 239, 300, 20, raylib.LightGray) rl.DrawText("PRESS [SPACE] to SPEED UP!", 239, 300, 20, rl.LightGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.CloseWindow() rl.CloseWindow()
} }

44
examples/textures/image_drawing/main.go
View file

@ -8,42 +8,42 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
cat := raylib.LoadImage("cat.png") // Load image in CPU memory (RAM) cat := rl.LoadImage("cat.png") // Load image in CPU memory (RAM)
raylib.ImageCrop(cat, raylib.NewRectangle(100, 10, 280, 380)) // Crop an image piece rl.ImageCrop(cat, rl.NewRectangle(100, 10, 280, 380)) // Crop an image piece
raylib.ImageFlipHorizontal(cat) // Flip cropped image horizontally rl.ImageFlipHorizontal(cat) // Flip cropped image horizontally
raylib.ImageResize(cat, 150, 200) // Resize flipped-cropped image rl.ImageResize(cat, 150, 200) // Resize flipped-cropped image
parrots := raylib.LoadImage("parrots.png") // Load image in CPU memory (RAM) parrots := rl.LoadImage("parrots.png") // Load image in CPU memory (RAM)
// Draw one image over the other with a scaling of 1.5f // Draw one image over the other with a scaling of 1.5f
raylib.ImageDraw(parrots, cat, raylib.NewRectangle(0, 0, float32(cat.Width), float32(cat.Height)), raylib.NewRectangle(30, 40, float32(cat.Width)*1.5, float32(cat.Height)*1.5)) rl.ImageDraw(parrots, cat, rl.NewRectangle(0, 0, float32(cat.Width), float32(cat.Height)), rl.NewRectangle(30, 40, float32(cat.Width)*1.5, float32(cat.Height)*1.5))
raylib.ImageCrop(parrots, raylib.NewRectangle(0, 50, float32(parrots.Width), float32(parrots.Height-100))) // Crop resulting image rl.ImageCrop(parrots, rl.NewRectangle(0, 50, float32(parrots.Width), float32(parrots.Height-100))) // Crop resulting image
raylib.UnloadImage(cat) // Unload image from RAM rl.UnloadImage(cat) // Unload image from RAM
texture := raylib.LoadTextureFromImage(parrots) // Image converted to texture, uploaded to GPU memory (VRAM) texture := rl.LoadTextureFromImage(parrots) // Image converted to texture, uploaded to GPU memory (VRAM)
raylib.UnloadImage(parrots) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM rl.UnloadImage(parrots) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2-40, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2-40, rl.White)
raylib.DrawRectangleLines(screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2-40, texture.Width, texture.Height, raylib.DarkGray) rl.DrawRectangleLines(screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2-40, texture.Width, texture.Height, rl.DarkGray)
raylib.DrawText("We are drawing only one texture from various images composed!", 240, 350, 10, raylib.DarkGray) rl.DrawText("We are drawing only one texture from various images composed!", 240, 350, 10, rl.DarkGray)
raylib.DrawText("Source images have been cropped, scaled, flipped and copied one over the other.", 190, 370, 10, raylib.DarkGray) rl.DrawText("Source images have been cropped, scaled, flipped and copied one over the other.", 190, 370, 10, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

84
examples/textures/image_generation/main.go
View file

@ -10,85 +10,85 @@ func main() {
screenWidth := 800 screenWidth := 800
screenHeight := 450 screenHeight := 450
raylib.InitWindow(int32(screenWidth), int32(screenHeight), "raylib [textures] example - procedural images generation") rl.InitWindow(int32(screenWidth), int32(screenHeight), "raylib [textures] example - procedural images generation")
verticalGradient := raylib.GenImageGradientV(screenWidth, screenHeight, raylib.Red, raylib.Blue) verticalGradient := rl.GenImageGradientV(screenWidth, screenHeight, rl.Red, rl.Blue)
horizontalGradient := raylib.GenImageGradientH(screenWidth, screenHeight, raylib.Red, raylib.Blue) horizontalGradient := rl.GenImageGradientH(screenWidth, screenHeight, rl.Red, rl.Blue)
radialGradient := raylib.GenImageGradientRadial(screenWidth, screenHeight, 0, raylib.White, raylib.Black) radialGradient := rl.GenImageGradientRadial(screenWidth, screenHeight, 0, rl.White, rl.Black)
checked := raylib.GenImageChecked(screenWidth, screenHeight, 32, 32, raylib.Red, raylib.Blue) checked := rl.GenImageChecked(screenWidth, screenHeight, 32, 32, rl.Red, rl.Blue)
whiteNoise := raylib.GenImageWhiteNoise(screenWidth, screenHeight, 0.5) whiteNoise := rl.GenImageWhiteNoise(screenWidth, screenHeight, 0.5)
perlinNoise := raylib.GenImagePerlinNoise(screenWidth, screenHeight, 50, 50, 4.0) perlinNoise := rl.GenImagePerlinNoise(screenWidth, screenHeight, 50, 50, 4.0)
cellular := raylib.GenImageCellular(screenWidth, screenHeight, 32) cellular := rl.GenImageCellular(screenWidth, screenHeight, 32)
textures := make([]raylib.Texture2D, numTextures) textures := make([]rl.Texture2D, numTextures)
textures[0] = raylib.LoadTextureFromImage(verticalGradient) textures[0] = rl.LoadTextureFromImage(verticalGradient)
textures[1] = raylib.LoadTextureFromImage(horizontalGradient) textures[1] = rl.LoadTextureFromImage(horizontalGradient)
textures[2] = raylib.LoadTextureFromImage(radialGradient) textures[2] = rl.LoadTextureFromImage(radialGradient)
textures[3] = raylib.LoadTextureFromImage(checked) textures[3] = rl.LoadTextureFromImage(checked)
textures[4] = raylib.LoadTextureFromImage(whiteNoise) textures[4] = rl.LoadTextureFromImage(whiteNoise)
textures[5] = raylib.LoadTextureFromImage(perlinNoise) textures[5] = rl.LoadTextureFromImage(perlinNoise)
textures[6] = raylib.LoadTextureFromImage(cellular) textures[6] = rl.LoadTextureFromImage(cellular)
// Unload image data (CPU RAM) // Unload image data (CPU RAM)
raylib.UnloadImage(verticalGradient) rl.UnloadImage(verticalGradient)
raylib.UnloadImage(horizontalGradient) rl.UnloadImage(horizontalGradient)
raylib.UnloadImage(radialGradient) rl.UnloadImage(radialGradient)
raylib.UnloadImage(checked) rl.UnloadImage(checked)
raylib.UnloadImage(whiteNoise) rl.UnloadImage(whiteNoise)
raylib.UnloadImage(perlinNoise) rl.UnloadImage(perlinNoise)
raylib.UnloadImage(cellular) rl.UnloadImage(cellular)
currentTexture := 0 currentTexture := 0
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
currentTexture = (currentTexture + 1) % numTextures // Cycle between the textures currentTexture = (currentTexture + 1) % numTextures // Cycle between the textures
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(textures[currentTexture], 0, 0, raylib.White) rl.DrawTexture(textures[currentTexture], 0, 0, rl.White)
raylib.DrawRectangle(30, 400, 325, 30, raylib.Fade(raylib.SkyBlue, 0.5)) rl.DrawRectangle(30, 400, 325, 30, rl.Fade(rl.SkyBlue, 0.5))
raylib.DrawRectangleLines(30, 400, 325, 30, raylib.Fade(raylib.White, 0.5)) rl.DrawRectangleLines(30, 400, 325, 30, rl.Fade(rl.White, 0.5))
raylib.DrawText("MOUSE LEFT BUTTON to CYCLE PROCEDURAL TEXTURES", 40, 410, 10, raylib.White) rl.DrawText("MOUSE LEFT BUTTON to CYCLE PROCEDURAL TEXTURES", 40, 410, 10, rl.White)
switch currentTexture { switch currentTexture {
case 0: case 0:
raylib.DrawText("VERTICAL GRADIENT", 560, 10, 20, raylib.RayWhite) rl.DrawText("VERTICAL GRADIENT", 560, 10, 20, rl.RayWhite)
break break
case 1: case 1:
raylib.DrawText("HORIZONTAL GRADIENT", 540, 10, 20, raylib.RayWhite) rl.DrawText("HORIZONTAL GRADIENT", 540, 10, 20, rl.RayWhite)
break break
case 2: case 2:
raylib.DrawText("RADIAL GRADIENT", 580, 10, 20, raylib.LightGray) rl.DrawText("RADIAL GRADIENT", 580, 10, 20, rl.LightGray)
break break
case 3: case 3:
raylib.DrawText("CHECKED", 680, 10, 20, raylib.RayWhite) rl.DrawText("CHECKED", 680, 10, 20, rl.RayWhite)
break break
case 4: case 4:
raylib.DrawText("WHITE NOISE", 640, 10, 20, raylib.Red) rl.DrawText("WHITE NOISE", 640, 10, 20, rl.Red)
break break
case 5: case 5:
raylib.DrawText("PERLIN NOISE", 630, 10, 20, raylib.RayWhite) rl.DrawText("PERLIN NOISE", 630, 10, 20, rl.RayWhite)
break break
case 6: case 6:
raylib.DrawText("CELLULAR", 670, 10, 20, raylib.RayWhite) rl.DrawText("CELLULAR", 670, 10, 20, rl.RayWhite)
break break
default: default:
break break
} }
raylib.EndDrawing() rl.EndDrawing()
} }
for _, t := range textures { for _, t := range textures {
raylib.UnloadTexture(t) rl.UnloadTexture(t)
} }
raylib.CloseWindow() rl.CloseWindow()
} }

42
examples/textures/image_image/main.go
View file

@ -11,57 +11,57 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture from image.Image") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture from image.Image")
r, err := os.Open("raylib_logo.png") r, err := os.Open("raylib_logo.png")
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogError, err.Error()) rl.TraceLog(rl.LogError, err.Error())
} }
defer r.Close() defer r.Close()
img, err := png.Decode(r) img, err := png.Decode(r)
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogError, err.Error()) rl.TraceLog(rl.LogError, err.Error())
} }
// Create raylib.Image from Go image.Image and create texture // Create rl.Image from Go image.Image and create texture
im := raylib.NewImageFromImage(img) im := rl.NewImageFromImage(img)
texture := raylib.LoadTextureFromImage(im) texture := rl.LoadTextureFromImage(im)
// Unload CPU (RAM) image data // Unload CPU (RAM) image data
raylib.UnloadImage(im) rl.UnloadImage(im)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyPressed(raylib.KeyS) { if rl.IsKeyPressed(rl.KeyS) {
rimg := raylib.GetTextureData(texture) rimg := rl.GetTextureData(texture)
f, err := os.Create("image_saved.png") f, err := os.Create("image_saved.png")
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogError, err.Error()) rl.TraceLog(rl.LogError, err.Error())
} }
err = png.Encode(f, rimg.ToImage()) err = png.Encode(f, rimg.ToImage())
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogError, err.Error()) rl.TraceLog(rl.LogError, err.Error())
} }
f.Close() f.Close()
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("PRESS S TO SAVE IMAGE FROM TEXTURE", 20, 20, 12, raylib.LightGray) rl.DrawText("PRESS S TO SAVE IMAGE FROM TEXTURE", 20, 20, 12, rl.LightGray)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawText("this IS a texture loaded from an image.Image!", 285, 370, 10, raylib.Gray) rl.DrawText("this IS a texture loaded from an image.Image!", 285, 370, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

26
examples/textures/image_loading/main.go
View file

@ -8,30 +8,30 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image loading") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image loading")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
image := raylib.LoadImage("raylib_logo.png") // Loaded in CPU memory (RAM) image := rl.LoadImage("raylib_logo.png") // Loaded in CPU memory (RAM)
texture := raylib.LoadTextureFromImage(image) // Image converted to texture, GPU memory (VRAM) texture := rl.LoadTextureFromImage(image) // Image converted to texture, GPU memory (VRAM)
raylib.UnloadImage(image) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM rl.UnloadImage(image) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawText("this IS a texture loaded from an image!", 300, 370, 10, raylib.Gray) rl.DrawText("this IS a texture loaded from an image!", 300, 370, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

70
examples/textures/image_processing/main.go
View file

@ -33,31 +33,31 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image processing") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image processing")
image := raylib.LoadImage("parrots.png") // Loaded in CPU memory (RAM) image := rl.LoadImage("parrots.png") // Loaded in CPU memory (RAM)
raylib.ImageFormat(image, raylib.UncompressedR8g8b8a8) // Format image to RGBA 32bit (required for texture update) rl.ImageFormat(image, rl.UncompressedR8g8b8a8) // Format image to RGBA 32bit (required for texture update)
texture := raylib.LoadTextureFromImage(image) // Image converted to texture, GPU memory (VRAM) texture := rl.LoadTextureFromImage(image) // Image converted to texture, GPU memory (VRAM)
currentProcess := None currentProcess := None
textureReload := false textureReload := false
selectRecs := make([]raylib.Rectangle, numProcesses) selectRecs := make([]rl.Rectangle, numProcesses)
for i := 0; i < numProcesses; i++ { for i := 0; i < numProcesses; i++ {
selectRecs[i] = raylib.NewRectangle(40, 50+32*float32(i), 150, 30) selectRecs[i] = rl.NewRectangle(40, 50+32*float32(i), 150, 30)
} }
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyPressed(raylib.KeyDown) { if rl.IsKeyPressed(rl.KeyDown) {
currentProcess++ currentProcess++
if currentProcess > 7 { if currentProcess > 7 {
currentProcess = 0 currentProcess = 0
} }
textureReload = true textureReload = true
} else if raylib.IsKeyPressed(raylib.KeyUp) { } else if rl.IsKeyPressed(rl.KeyUp) {
currentProcess-- currentProcess--
if currentProcess < 0 { if currentProcess < 0 {
currentProcess = 7 currentProcess = 7
@ -66,70 +66,70 @@ func main() {
} }
if textureReload { if textureReload {
raylib.UnloadImage(image) // Unload current image data rl.UnloadImage(image) // Unload current image data
image = raylib.LoadImage("parrots.png") // Re-load image data image = rl.LoadImage("parrots.png") // Re-load image data
// NOTE: Image processing is a costly CPU process to be done every frame, // NOTE: Image processing is a costly CPU process to be done every frame,
// If image processing is required in a frame-basis, it should be done // If image processing is required in a frame-basis, it should be done
// with a texture and by shaders // with a texture and by shaders
switch currentProcess { switch currentProcess {
case ColorGrayscale: case ColorGrayscale:
raylib.ImageColorGrayscale(image) rl.ImageColorGrayscale(image)
break break
case ColorTint: case ColorTint:
raylib.ImageColorTint(image, raylib.Green) rl.ImageColorTint(image, rl.Green)
break break
case ColorInvert: case ColorInvert:
raylib.ImageColorInvert(image) rl.ImageColorInvert(image)
break break
case ColorContrast: case ColorContrast:
raylib.ImageColorContrast(image, -40) rl.ImageColorContrast(image, -40)
break break
case ColorBrightness: case ColorBrightness:
raylib.ImageColorBrightness(image, -80) rl.ImageColorBrightness(image, -80)
break break
case FlipVertical: case FlipVertical:
raylib.ImageFlipVertical(image) rl.ImageFlipVertical(image)
break break
case FlipHorizontal: case FlipHorizontal:
raylib.ImageFlipHorizontal(image) rl.ImageFlipHorizontal(image)
break break
default: default:
break break
} }
pixels := raylib.GetImageData(image) // Get pixel data from image (RGBA 32bit) pixels := rl.GetImageData(image) // Get pixel data from image (RGBA 32bit)
raylib.UpdateTexture(texture, pixels) // Update texture with new image data rl.UpdateTexture(texture, pixels) // Update texture with new image data
textureReload = false textureReload = false
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawText("IMAGE PROCESSING:", 40, 30, 10, raylib.DarkGray) rl.DrawText("IMAGE PROCESSING:", 40, 30, 10, rl.DarkGray)
// Draw rectangles // Draw rectangles
for i := 0; i < numProcesses; i++ { for i := 0; i < numProcesses; i++ {
if i == currentProcess { if i == currentProcess {
raylib.DrawRectangleRec(selectRecs[i], raylib.SkyBlue) rl.DrawRectangleRec(selectRecs[i], rl.SkyBlue)
raylib.DrawRectangleLines(int32(selectRecs[i].X), int32(selectRecs[i].Y), int32(selectRecs[i].Width), int32(selectRecs[i].Height), raylib.Blue) rl.DrawRectangleLines(int32(selectRecs[i].X), int32(selectRecs[i].Y), int32(selectRecs[i].Width), int32(selectRecs[i].Height), rl.Blue)
raylib.DrawText(processText[i], int32(selectRecs[i].X+selectRecs[i].Width/2)-raylib.MeasureText(processText[i], 10)/2, int32(selectRecs[i].Y)+11, 10, raylib.DarkBlue) rl.DrawText(processText[i], int32(selectRecs[i].X+selectRecs[i].Width/2)-rl.MeasureText(processText[i], 10)/2, int32(selectRecs[i].Y)+11, 10, rl.DarkBlue)
} else { } else {
raylib.DrawRectangleRec(selectRecs[i], raylib.LightGray) rl.DrawRectangleRec(selectRecs[i], rl.LightGray)
raylib.DrawRectangleLines(int32(selectRecs[i].X), int32(selectRecs[i].Y), int32(selectRecs[i].Width), int32(selectRecs[i].Height), raylib.Gray) rl.DrawRectangleLines(int32(selectRecs[i].X), int32(selectRecs[i].Y), int32(selectRecs[i].Width), int32(selectRecs[i].Height), rl.Gray)
raylib.DrawText(processText[i], int32(selectRecs[i].X+selectRecs[i].Width/2)-raylib.MeasureText(processText[i], 10)/2, int32(selectRecs[i].Y)+11, 10, raylib.DarkGray) rl.DrawText(processText[i], int32(selectRecs[i].X+selectRecs[i].Width/2)-rl.MeasureText(processText[i], 10)/2, int32(selectRecs[i].Y)+11, 10, rl.DarkGray)
} }
} }
raylib.DrawTexture(texture, screenWidth-texture.Width-60, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth-texture.Width-60, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawRectangleLines(screenWidth-texture.Width-60, screenHeight/2-texture.Height/2, texture.Width, texture.Height, raylib.Black) rl.DrawRectangleLines(screenWidth-texture.Width-60, screenHeight/2-texture.Height/2, texture.Width, texture.Height, rl.Black)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

40
examples/textures/image_text/main.go
View file

@ -8,55 +8,55 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image text drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - image text drawing")
// TTF Font loading with custom generation parameters // TTF Font loading with custom generation parameters
var fontChars int32 var fontChars int32
font := raylib.LoadFontEx("fonts/KAISG.ttf", 64, 0, &fontChars) font := rl.LoadFontEx("fonts/KAISG.ttf", 64, 0, &fontChars)
parrots := raylib.LoadImage("parrots.png") // Load image in CPU memory (RAM) parrots := rl.LoadImage("parrots.png") // Load image in CPU memory (RAM)
// Draw over image using custom font // Draw over image using custom font
raylib.ImageDrawTextEx(parrots, raylib.NewVector2(20, 20), font, "[Parrots font drawing]", float32(font.BaseSize), 0, raylib.White) rl.ImageDrawTextEx(parrots, rl.NewVector2(20, 20), font, "[Parrots font drawing]", float32(font.BaseSize), 0, rl.White)
texture := raylib.LoadTextureFromImage(parrots) // Image converted to texture, uploaded to GPU memory (VRAM) texture := rl.LoadTextureFromImage(parrots) // Image converted to texture, uploaded to GPU memory (VRAM)
raylib.UnloadImage(parrots) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM rl.UnloadImage(parrots) // Once image has been converted to texture and uploaded to VRAM, it can be unloaded from RAM
position := raylib.NewVector2(float32(screenWidth)/2-float32(texture.Width)/2, float32(screenHeight)/2-float32(texture.Height)/2-20) position := rl.NewVector2(float32(screenWidth)/2-float32(texture.Width)/2, float32(screenHeight)/2-float32(texture.Height)/2-20)
showFont := false showFont := false
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
if raylib.IsKeyDown(raylib.KeySpace) { if rl.IsKeyDown(rl.KeySpace) {
showFont = true showFont = true
} else { } else {
showFont = false showFont = false
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
if !showFont { if !showFont {
// Draw texture with text already drawn inside // Draw texture with text already drawn inside
raylib.DrawTextureV(texture, position, raylib.White) rl.DrawTextureV(texture, position, rl.White)
// Draw text directly using sprite font // Draw text directly using sprite font
raylib.DrawTextEx(font, "[Parrots font drawing]", raylib.NewVector2(position.X+20, position.Y+20+280), float32(font.BaseSize), 0, raylib.White) rl.DrawTextEx(font, "[Parrots font drawing]", rl.NewVector2(position.X+20, position.Y+20+280), float32(font.BaseSize), 0, rl.White)
} else { } else {
raylib.DrawTexture(font.Texture, screenWidth/2-font.Texture.Width/2, 50, raylib.Black) rl.DrawTexture(font.Texture, screenWidth/2-font.Texture.Width/2, 50, rl.Black)
} }
raylib.DrawText("PRESS SPACE to SEE USED SPRITEFONT ", 290, 420, 10, raylib.DarkGray) rl.DrawText("PRESS SPACE to SEE USED SPRITEFONT ", 290, 420, 10, rl.DarkGray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.UnloadFont(font) rl.UnloadFont(font)
raylib.CloseWindow() rl.CloseWindow()
} }

22
examples/textures/logo_raylib/main.go
View file

@ -8,24 +8,24 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
texture := raylib.LoadTexture("raylib_logo.png") texture := rl.LoadTexture("raylib_logo.png")
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawText("this IS a texture!", 360, 370, 10, raylib.Gray) rl.DrawText("this IS a texture!", 360, 370, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

66
examples/textures/particles_blending/main.go
View file

@ -9,8 +9,8 @@ const (
) )
type particle struct { type particle struct {
Position raylib.Vector2 Position rl.Vector2
Color raylib.Color Color rl.Color
Alpha float32 Alpha float32
Size float32 Size float32
Rotation float32 Rotation float32
@ -21,31 +21,31 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
//raylib.SetConfigFlags(raylib.FlagVsyncHint) //rl.SetConfigFlags(rl.FlagVsyncHint)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - particles blending") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - particles blending")
// Particles pool, reuse them! // Particles pool, reuse them!
mouseTail := make([]particle, maxParticles) mouseTail := make([]particle, maxParticles)
// Initialize particles // Initialize particles
for i := 0; i < maxParticles; i++ { for i := 0; i < maxParticles; i++ {
mouseTail[i].Position = raylib.NewVector2(0, 0) mouseTail[i].Position = rl.NewVector2(0, 0)
mouseTail[i].Color = raylib.NewColor(byte(raylib.GetRandomValue(0, 255)), byte(raylib.GetRandomValue(0, 255)), byte(raylib.GetRandomValue(0, 255)), 255) mouseTail[i].Color = rl.NewColor(byte(rl.GetRandomValue(0, 255)), byte(rl.GetRandomValue(0, 255)), byte(rl.GetRandomValue(0, 255)), 255)
mouseTail[i].Alpha = 1.0 mouseTail[i].Alpha = 1.0
mouseTail[i].Size = float32(raylib.GetRandomValue(1, 30)) / 20.0 mouseTail[i].Size = float32(rl.GetRandomValue(1, 30)) / 20.0
mouseTail[i].Rotation = float32(raylib.GetRandomValue(0, 360)) mouseTail[i].Rotation = float32(rl.GetRandomValue(0, 360))
mouseTail[i].Active = false mouseTail[i].Active = false
} }
gravity := float32(3.0) gravity := float32(3.0)
smoke := raylib.LoadTexture("smoke.png") smoke := rl.LoadTexture("smoke.png")
blending := raylib.BlendAlpha blending := rl.BlendAlpha
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
// Activate one particle every frame and Update active particles // Activate one particle every frame and Update active particles
@ -56,7 +56,7 @@ func main() {
if !mouseTail[i].Active { if !mouseTail[i].Active {
mouseTail[i].Active = true mouseTail[i].Active = true
mouseTail[i].Alpha = 1.0 mouseTail[i].Alpha = 1.0
mouseTail[i].Position = raylib.GetMousePosition() mouseTail[i].Position = rl.GetMousePosition()
i = maxParticles i = maxParticles
} }
} }
@ -74,50 +74,50 @@ func main() {
} }
} }
if raylib.IsKeyPressed(raylib.KeySpace) { if rl.IsKeyPressed(rl.KeySpace) {
if blending == raylib.BlendAlpha { if blending == rl.BlendAlpha {
blending = raylib.BlendAdditive blending = rl.BlendAdditive
} else { } else {
blending = raylib.BlendAlpha blending = rl.BlendAlpha
} }
} }
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.DarkGray) rl.ClearBackground(rl.DarkGray)
raylib.BeginBlendMode(blending) rl.BeginBlendMode(blending)
// Draw active particles // Draw active particles
for i := 0; i < maxParticles; i++ { for i := 0; i < maxParticles; i++ {
if mouseTail[i].Active { if mouseTail[i].Active {
raylib.DrawTexturePro( rl.DrawTexturePro(
smoke, smoke,
raylib.NewRectangle(0, 0, float32(smoke.Width), float32(smoke.Height)), rl.NewRectangle(0, 0, float32(smoke.Width), float32(smoke.Height)),
raylib.NewRectangle(mouseTail[i].Position.X, mouseTail[i].Position.Y, float32(smoke.Width)*mouseTail[i].Size, float32(smoke.Height)*mouseTail[i].Size), rl.NewRectangle(mouseTail[i].Position.X, mouseTail[i].Position.Y, float32(smoke.Width)*mouseTail[i].Size, float32(smoke.Height)*mouseTail[i].Size),
raylib.NewVector2(float32(smoke.Width)*mouseTail[i].Size/2, float32(smoke.Height)*mouseTail[i].Size/2), rl.NewVector2(float32(smoke.Width)*mouseTail[i].Size/2, float32(smoke.Height)*mouseTail[i].Size/2),
mouseTail[i].Rotation, mouseTail[i].Rotation,
raylib.Fade(mouseTail[i].Color, mouseTail[i].Alpha), rl.Fade(mouseTail[i].Color, mouseTail[i].Alpha),
) )
} }
} }
raylib.EndBlendMode() rl.EndBlendMode()
raylib.DrawText("PRESS SPACE to CHANGE BLENDING MODE", 180, 20, 20, raylib.Black) rl.DrawText("PRESS SPACE to CHANGE BLENDING MODE", 180, 20, 20, rl.Black)
if blending == raylib.BlendAlpha { if blending == rl.BlendAlpha {
raylib.DrawText("ALPHA BLENDING", 290, screenHeight-40, 20, raylib.Black) rl.DrawText("ALPHA BLENDING", 290, screenHeight-40, 20, rl.Black)
} else { } else {
raylib.DrawText("ADDITIVE BLENDING", 280, screenHeight-40, 20, raylib.RayWhite) rl.DrawText("ADDITIVE BLENDING", 280, screenHeight-40, 20, rl.RayWhite)
} }
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(smoke) rl.UnloadTexture(smoke)
raylib.CloseWindow() rl.CloseWindow()
} }

46
examples/textures/raw_data/main.go
View file

@ -8,56 +8,56 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture from raw data") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture from raw data")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
// Load RAW image data (384x512, 32bit RGBA, no file header) // Load RAW image data (384x512, 32bit RGBA, no file header)
fudesumiRaw := raylib.LoadImageRaw("texture_formats/fudesumi.raw", 384, 512, raylib.UncompressedR8g8b8a8, 0) fudesumiRaw := rl.LoadImageRaw("texture_formats/fudesumi.raw", 384, 512, rl.UncompressedR8g8b8a8, 0)
fudesumi := raylib.LoadTextureFromImage(fudesumiRaw) // Upload CPU (RAM) image to GPU (VRAM) fudesumi := rl.LoadTextureFromImage(fudesumiRaw) // Upload CPU (RAM) image to GPU (VRAM)
raylib.UnloadImage(fudesumiRaw) // Unload CPU (RAM) image data rl.UnloadImage(fudesumiRaw) // Unload CPU (RAM) image data
// Generate a checked texture by code (1024x1024 pixels) // Generate a checked texture by code (1024x1024 pixels)
width := 1024 width := 1024
height := 1024 height := 1024
// Dynamic memory allocation to store pixels data (Color type) // Dynamic memory allocation to store pixels data (Color type)
pixels := make([]raylib.Color, width*height) pixels := make([]rl.Color, width*height)
for y := 0; y < height; y++ { for y := 0; y < height; y++ {
for x := 0; x < width; x++ { for x := 0; x < width; x++ {
if ((x/32+y/32)/1)%2 == 0 { if ((x/32+y/32)/1)%2 == 0 {
pixels[y*height+x] = raylib.Orange pixels[y*height+x] = rl.Orange
} else { } else {
pixels[y*height+x] = raylib.Gold pixels[y*height+x] = rl.Gold
} }
} }
} }
// Load pixels data into an image structure and create texture // Load pixels data into an image structure and create texture
checkedIm := raylib.LoadImageEx(pixels, int32(width), int32(height)) checkedIm := rl.LoadImageEx(pixels, int32(width), int32(height))
checked := raylib.LoadTextureFromImage(checkedIm) checked := rl.LoadTextureFromImage(checkedIm)
raylib.UnloadImage(checkedIm) // Unload CPU (RAM) image data rl.UnloadImage(checkedIm) // Unload CPU (RAM) image data
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(checked, screenWidth/2-checked.Width/2, screenHeight/2-checked.Height/2, raylib.Fade(raylib.White, 0.5)) rl.DrawTexture(checked, screenWidth/2-checked.Width/2, screenHeight/2-checked.Height/2, rl.Fade(rl.White, 0.5))
raylib.DrawTexture(fudesumi, 430, -30, raylib.White) rl.DrawTexture(fudesumi, 430, -30, rl.White)
raylib.DrawText("CHECKED TEXTURE ", 84, 100, 30, raylib.Brown) rl.DrawText("CHECKED TEXTURE ", 84, 100, 30, rl.Brown)
raylib.DrawText("GENERATED by CODE", 72, 164, 30, raylib.Brown) rl.DrawText("GENERATED by CODE", 72, 164, 30, rl.Brown)
raylib.DrawText("and RAW IMAGE LOADING", 46, 226, 30, raylib.Brown) rl.DrawText("and RAW IMAGE LOADING", 46, 226, 30, rl.Brown)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(fudesumi) // Texture unloading rl.UnloadTexture(fudesumi) // Texture unloading
raylib.UnloadTexture(checked) // Texture unloading rl.UnloadTexture(checked) // Texture unloading
raylib.CloseWindow() rl.CloseWindow()
} }

46
examples/textures/rectangle/main.go
View file

@ -15,21 +15,21 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture loading and drawing")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
scarfy := raylib.LoadTexture("scarfy.png") // Texture loading scarfy := rl.LoadTexture("scarfy.png") // Texture loading
position := raylib.NewVector2(350.0, 280.0) position := rl.NewVector2(350.0, 280.0)
frameRec := raylib.NewRectangle(0, 0, float32(scarfy.Width/6), float32(scarfy.Height)) frameRec := rl.NewRectangle(0, 0, float32(scarfy.Width/6), float32(scarfy.Height))
currentFrame := float32(0) currentFrame := float32(0)
framesCounter := 0 framesCounter := 0
framesSpeed := 8 // Number of spritesheet frames shown by second framesSpeed := 8 // Number of spritesheet frames shown by second
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
framesCounter++ framesCounter++
if framesCounter >= (60 / framesSpeed) { if framesCounter >= (60 / framesSpeed) {
@ -43,9 +43,9 @@ func main() {
frameRec.X = currentFrame * float32(scarfy.Width) / 6 frameRec.X = currentFrame * float32(scarfy.Width) / 6
} }
if raylib.IsKeyPressed(raylib.KeyRight) { if rl.IsKeyPressed(rl.KeyRight) {
framesSpeed++ framesSpeed++
} else if raylib.IsKeyPressed(raylib.KeyLeft) { } else if rl.IsKeyPressed(rl.KeyLeft) {
framesSpeed-- framesSpeed--
} }
@ -55,33 +55,33 @@ func main() {
framesSpeed = minFrameSpeed framesSpeed = minFrameSpeed
} }
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(scarfy, 15, 40, raylib.White) rl.DrawTexture(scarfy, 15, 40, rl.White)
raylib.DrawRectangleLines(15, 40, scarfy.Width, scarfy.Height, raylib.Lime) rl.DrawRectangleLines(15, 40, scarfy.Width, scarfy.Height, rl.Lime)
raylib.DrawRectangleLines(15+int32(frameRec.X), 40+int32(frameRec.Y), int32(frameRec.Width), int32(frameRec.Height), raylib.Red) rl.DrawRectangleLines(15+int32(frameRec.X), 40+int32(frameRec.Y), int32(frameRec.Width), int32(frameRec.Height), rl.Red)
raylib.DrawText("FRAME SPEED: ", 165, 210, 10, raylib.DarkGray) rl.DrawText("FRAME SPEED: ", 165, 210, 10, rl.DarkGray)
raylib.DrawText(fmt.Sprintf("%02d FPS", framesSpeed), 575, 210, 10, raylib.DarkGray) rl.DrawText(fmt.Sprintf("%02d FPS", framesSpeed), 575, 210, 10, rl.DarkGray)
raylib.DrawText("PRESS RIGHT/LEFT KEYS to CHANGE SPEED!", 290, 240, 10, raylib.DarkGray) rl.DrawText("PRESS RIGHT/LEFT KEYS to CHANGE SPEED!", 290, 240, 10, rl.DarkGray)
for i := 0; i < maxFrameSpeed; i++ { for i := 0; i < maxFrameSpeed; i++ {
if i < framesSpeed { if i < framesSpeed {
raylib.DrawRectangle(int32(250+21*i), 205, 20, 20, raylib.Red) rl.DrawRectangle(int32(250+21*i), 205, 20, 20, rl.Red)
} }
raylib.DrawRectangleLines(int32(250+21*i), 205, 20, 20, raylib.Maroon) rl.DrawRectangleLines(int32(250+21*i), 205, 20, 20, rl.Maroon)
} }
raylib.DrawTextureRec(scarfy, frameRec, position, raylib.White) // Draw part of the texture rl.DrawTextureRec(scarfy, frameRec, position, rl.White) // Draw part of the texture
raylib.DrawText("(c) Scarfy sprite by Eiden Marsal", screenWidth-200, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Scarfy sprite by Eiden Marsal", screenWidth-200, screenHeight-20, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(scarfy) rl.UnloadTexture(scarfy)
raylib.CloseWindow() rl.CloseWindow()
} }

32
examples/textures/srcrec_dstrec/main.go
View file

@ -8,52 +8,52 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] examples - texture source and destination rectangles") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] examples - texture source and destination rectangles")
// NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required) // NOTE: Textures MUST be loaded after Window initialization (OpenGL context is required)
scarfy := raylib.LoadTexture("scarfy.png") // Texture loading scarfy := rl.LoadTexture("scarfy.png") // Texture loading
frameWidth := float32(scarfy.Width) / 7 frameWidth := float32(scarfy.Width) / 7
frameHeight := float32(scarfy.Height) frameHeight := float32(scarfy.Height)
// NOTE: Source rectangle (part of the texture to use for drawing) // NOTE: Source rectangle (part of the texture to use for drawing)
sourceRec := raylib.NewRectangle(0, 0, frameWidth, frameHeight) sourceRec := rl.NewRectangle(0, 0, frameWidth, frameHeight)
// NOTE: Destination rectangle (screen rectangle where drawing part of texture) // NOTE: Destination rectangle (screen rectangle where drawing part of texture)
destRec := raylib.NewRectangle(float32(screenWidth)/2, float32(screenHeight)/2, frameWidth*2, frameHeight*2) destRec := rl.NewRectangle(float32(screenWidth)/2, float32(screenHeight)/2, frameWidth*2, frameHeight*2)
// NOTE: Origin of the texture (rotation/scale point), it's relative to destination rectangle size // NOTE: Origin of the texture (rotation/scale point), it's relative to destination rectangle size
origin := raylib.NewVector2(float32(frameWidth), float32(frameHeight)) origin := rl.NewVector2(float32(frameWidth), float32(frameHeight))
rotation := float32(0) rotation := float32(0)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
// Update // Update
rotation++ rotation++
// Draw // Draw
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
// NOTE: Using DrawTexturePro() we can easily rotate and scale the part of the texture we draw // NOTE: Using DrawTexturePro() we can easily rotate and scale the part of the texture we draw
// sourceRec defines the part of the texture we use for drawing // sourceRec defines the part of the texture we use for drawing
// destRec defines the rectangle where our texture part will fit (scaling it to fit) // destRec defines the rectangle where our texture part will fit (scaling it to fit)
// origin defines the point of the texture used as reference for rotation and scaling // origin defines the point of the texture used as reference for rotation and scaling
// rotation defines the texture rotation (using origin as rotation point) // rotation defines the texture rotation (using origin as rotation point)
raylib.DrawTexturePro(scarfy, sourceRec, destRec, origin, rotation, raylib.White) rl.DrawTexturePro(scarfy, sourceRec, destRec, origin, rotation, rl.White)
raylib.DrawLine(int32(destRec.X), 0, int32(destRec.X), screenHeight, raylib.Gray) rl.DrawLine(int32(destRec.X), 0, int32(destRec.X), screenHeight, rl.Gray)
raylib.DrawLine(0, int32(destRec.Y), screenWidth, int32(destRec.Y), raylib.Gray) rl.DrawLine(0, int32(destRec.Y), screenWidth, int32(destRec.Y), rl.Gray)
raylib.DrawText("(c) Scarfy sprite by Eiden Marsal", screenWidth-200, screenHeight-20, 10, raylib.Gray) rl.DrawText("(c) Scarfy sprite by Eiden Marsal", screenWidth-200, screenHeight-20, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(scarfy) rl.UnloadTexture(scarfy)
raylib.CloseWindow() rl.CloseWindow()
} }

34
examples/textures/to_image/main.go
View file

@ -8,32 +8,32 @@ func main() {
screenWidth := int32(800) screenWidth := int32(800)
screenHeight := int32(450) screenHeight := int32(450)
raylib.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture to image") rl.InitWindow(screenWidth, screenHeight, "raylib [textures] example - texture to image")
image := raylib.LoadImage("raylib_logo.png") // Load image data into CPU memory (RAM) image := rl.LoadImage("raylib_logo.png") // Load image data into CPU memory (RAM)
texture := raylib.LoadTextureFromImage(image) // Image converted to texture, GPU memory (RAM -> VRAM) texture := rl.LoadTextureFromImage(image) // Image converted to texture, GPU memory (RAM -> VRAM)
raylib.UnloadImage(image) // Unload image data from CPU memory (RAM) rl.UnloadImage(image) // Unload image data from CPU memory (RAM)
image = raylib.GetTextureData(texture) // Retrieve image data from GPU memory (VRAM -> RAM) image = rl.GetTextureData(texture) // Retrieve image data from GPU memory (VRAM -> RAM)
raylib.UnloadTexture(texture) // Unload texture from GPU memory (VRAM) rl.UnloadTexture(texture) // Unload texture from GPU memory (VRAM)
texture = raylib.LoadTextureFromImage(image) // Recreate texture from retrieved image data (RAM -> VRAM) texture = rl.LoadTextureFromImage(image) // Recreate texture from retrieved image data (RAM -> VRAM)
raylib.UnloadImage(image) // Unload retrieved image data from CPU memory (RAM) rl.UnloadImage(image) // Unload retrieved image data from CPU memory (RAM)
raylib.SetTargetFPS(60) rl.SetTargetFPS(60)
for !raylib.WindowShouldClose() { for !rl.WindowShouldClose() {
raylib.BeginDrawing() rl.BeginDrawing()
raylib.ClearBackground(raylib.RayWhite) rl.ClearBackground(rl.RayWhite)
raylib.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, raylib.White) rl.DrawTexture(texture, screenWidth/2-texture.Width/2, screenHeight/2-texture.Height/2, rl.White)
raylib.DrawText("this IS a texture loaded from an image!", 300, 370, 10, raylib.Gray) rl.DrawText("this IS a texture loaded from an image!", 300, 370, 10, rl.Gray)
raylib.EndDrawing() rl.EndDrawing()
} }
raylib.UnloadTexture(texture) rl.UnloadTexture(texture)
raylib.CloseWindow() rl.CloseWindow()
} }

178
physics/physics.go
View file

@ -26,11 +26,11 @@ type Polygon struct {
// Current used vertex and normals count // Current used vertex and normals count
VertexCount int VertexCount int
// Polygon vertex positions vectors // Polygon vertex positions vectors
Vertices [maxVertices]raylib.Vector2 Vertices [maxVertices]rl.Vector2
// Polygon vertex normals vectors // Polygon vertex normals vectors
Normals [maxVertices]raylib.Vector2 Normals [maxVertices]rl.Vector2
// Vertices transform matrix 2x2 // Vertices transform matrix 2x2
Transform raylib.Mat2 Transform rl.Mat2
} }
// Shape type // Shape type
@ -50,11 +50,11 @@ type Body struct {
// Enabled dynamics state (collisions are calculated anyway) // Enabled dynamics state (collisions are calculated anyway)
Enabled bool Enabled bool
// Physics body shape pivot // Physics body shape pivot
Position raylib.Vector2 Position rl.Vector2
// Current linear velocity applied to position // Current linear velocity applied to position
Velocity raylib.Vector2 Velocity rl.Vector2
// Current linear force (reset to 0 every step) // Current linear force (reset to 0 every step)
Force raylib.Vector2 Force rl.Vector2
// Current angular velocity applied to orient // Current angular velocity applied to orient
AngularVelocity float32 AngularVelocity float32
// Current angular force (reset to 0 every step) // Current angular force (reset to 0 every step)
@ -94,9 +94,9 @@ type manifold struct {
// Depth of penetration from collision // Depth of penetration from collision
Penetration float32 Penetration float32
// Normal direction vector from 'a' to 'b' // Normal direction vector from 'a' to 'b'
Normal raylib.Vector2 Normal rl.Vector2
// Points of contact during collision // Points of contact during collision
Contacts [2]raylib.Vector2 Contacts [2]rl.Vector2
// Current collision number of contacts // Current collision number of contacts
ContactsCount int ContactsCount int
// Mixed restitution during collision // Mixed restitution during collision
@ -132,20 +132,26 @@ var (
manifolds []*manifold manifolds []*manifold
// Physics world gravity force // Physics world gravity force
gravityForce raylib.Vector2 gravityForce rl.Vector2
// Delta time used for physics steps // Delta time used for physics steps, in milliseconds
deltaTime float32 deltaTime float32
) )
// Init - initializes physics values // Init - initializes physics values
func Init() { func Init() {
gravityForce = raylib.NewVector2(0, 9.81/1000) deltaTime = 1.0 / 60.0 / 10.0 * 1000
gravityForce = rl.NewVector2(0, 9.81)
bodies = make([]*Body, 0, maxBodies) bodies = make([]*Body, 0, maxBodies)
manifolds = make([]*manifold, 0, maxManifolds) manifolds = make([]*manifold, 0, maxManifolds)
} }
// Sets physics fixed time step in milliseconds. 1.666666 by default
func SetPhysicsTimeStep(delta float32) {
deltaTime = delta
}
// SetGravity - Sets physics global gravity force // SetGravity - Sets physics global gravity force
func SetGravity(x, y float32) { func SetGravity(x, y float32) {
gravityForce.X = x gravityForce.X = x
@ -153,19 +159,19 @@ func SetGravity(x, y float32) {
} }
// NewBodyCircle - Creates a new circle physics body with generic parameters // NewBodyCircle - Creates a new circle physics body with generic parameters
func NewBodyCircle(pos raylib.Vector2, radius, density float32) *Body { func NewBodyCircle(pos rl.Vector2, radius, density float32) *Body {
return NewBodyPolygon(pos, radius, circleVertices, density) return NewBodyPolygon(pos, radius, circleVertices, density)
} }
// NewBodyRectangle - Creates a new rectangle physics body with generic parameters // NewBodyRectangle - Creates a new rectangle physics body with generic parameters
func NewBodyRectangle(pos raylib.Vector2, width, height, density float32) *Body { func NewBodyRectangle(pos rl.Vector2, width, height, density float32) *Body {
newBody := &Body{} newBody := &Body{}
// Initialize new body with generic values // Initialize new body with generic values
newBody.Enabled = true newBody.Enabled = true
newBody.Position = pos newBody.Position = pos
newBody.Velocity = raylib.Vector2{} newBody.Velocity = rl.Vector2{}
newBody.Force = raylib.Vector2{} newBody.Force = rl.Vector2{}
newBody.AngularVelocity = 0 newBody.AngularVelocity = 0
newBody.Torque = 0 newBody.Torque = 0
newBody.Orient = 0 newBody.Orient = 0
@ -173,10 +179,10 @@ func NewBodyRectangle(pos raylib.Vector2, width, height, density float32) *Body
newBody.Shape = Shape{} newBody.Shape = Shape{}
newBody.Shape.Type = PolygonShape newBody.Shape.Type = PolygonShape
newBody.Shape.Body = newBody newBody.Shape.Body = newBody
newBody.Shape.VertexData = newRectanglePolygon(pos, raylib.NewVector2(width, height)) newBody.Shape.VertexData = newRectanglePolygon(pos, rl.NewVector2(width, height))
// Calculate centroid and moment of inertia // Calculate centroid and moment of inertia
center := raylib.Vector2{} center := rl.Vector2{}
area := float32(0.0) area := float32(0.0)
inertia := float32(0.0) inertia := float32(0.0)
k := float32(1.0) / 3.0 k := float32(1.0) / 3.0
@ -238,14 +244,14 @@ func NewBodyRectangle(pos raylib.Vector2, width, height, density float32) *Body
} }
// NewBodyPolygon - Creates a new polygon physics body with generic parameters // NewBodyPolygon - Creates a new polygon physics body with generic parameters
func NewBodyPolygon(pos raylib.Vector2, radius float32, sides int, density float32) *Body { func NewBodyPolygon(pos rl.Vector2, radius float32, sides int, density float32) *Body {
newBody := &Body{} newBody := &Body{}
// Initialize new body with generic values // Initialize new body with generic values
newBody.Enabled = true newBody.Enabled = true
newBody.Position = pos newBody.Position = pos
newBody.Velocity = raylib.Vector2{} newBody.Velocity = rl.Vector2{}
newBody.Force = raylib.Vector2{} newBody.Force = rl.Vector2{}
newBody.AngularVelocity = 0 newBody.AngularVelocity = 0
newBody.Torque = 0 newBody.Torque = 0
newBody.Orient = 0 newBody.Orient = 0
@ -256,7 +262,7 @@ func NewBodyPolygon(pos raylib.Vector2, radius float32, sides int, density float
newBody.Shape.VertexData = newRandomPolygon(radius, sides) newBody.Shape.VertexData = newRandomPolygon(radius, sides)
// Calculate centroid and moment of inertia // Calculate centroid and moment of inertia
center := raylib.Vector2{} center := rl.Vector2{}
area := float32(0.0) area := float32(0.0)
inertia := float32(0.0) inertia := float32(0.0)
alpha := float32(1.0) / 3.0 alpha := float32(1.0) / 3.0
@ -334,7 +340,7 @@ func GetBody(index int) *Body {
if index < len(bodies) { if index < len(bodies) {
body = bodies[index] body = bodies[index]
} else { } else {
raylib.TraceLog(raylib.LogDebug, "[PHYSAC] physics body index is out of bounds") rl.TraceLog(rl.LogDebug, "[PHYSAC] physics body index is out of bounds")
} }
return body return body
@ -347,7 +353,7 @@ func GetShapeType(index int) ShapeType {
if index < len(bodies) { if index < len(bodies) {
result = bodies[index].Shape.Type result = bodies[index].Shape.Type
} else { } else {
raylib.TraceLog(raylib.LogDebug, "[PHYSAC] physics body index is out of bounds") rl.TraceLog(rl.LogDebug, "[PHYSAC] physics body index is out of bounds")
} }
return result return result
@ -367,7 +373,7 @@ func GetShapeVerticesCount(index int) int {
break break
} }
} else { } else {
raylib.TraceLog(raylib.LogDebug, "[PHYSAC] physics body index is out of bounds") rl.TraceLog(rl.LogDebug, "[PHYSAC] physics body index is out of bounds")
} }
return result return result
@ -388,7 +394,7 @@ func DestroyBody(body *Body) bool {
// Update - Physics steps calculations (dynamics, collisions and position corrections) // Update - Physics steps calculations (dynamics, collisions and position corrections)
func Update() { func Update() {
deltaTime = raylib.GetFrameTime() * 1000 deltaTime = rl.GetFrameTime() * 1000
// Clear previous generated collisions information // Clear previous generated collisions information
for _, m := range manifolds { for _, m := range manifolds {
@ -470,7 +476,7 @@ func Update() {
// Clear physics bodies forces // Clear physics bodies forces
for _, b := range bodies { for _, b := range bodies {
b.Force = raylib.Vector2{} b.Force = rl.Vector2{}
b.Torque = 0 b.Torque = 0
} }
} }
@ -495,7 +501,7 @@ func Close() {
} }
// AddForce - Adds a force to a physics body // AddForce - Adds a force to a physics body
func (b *Body) AddForce(force raylib.Vector2) { func (b *Body) AddForce(force rl.Vector2) {
b.Force = raymath.Vector2Add(b.Force, force) b.Force = raymath.Vector2Add(b.Force, force)
} }
@ -505,7 +511,7 @@ func (b *Body) AddTorque(amount float32) {
} }
// Shatter - Shatters a polygon shape physics body to little physics bodies with explosion force // Shatter - Shatters a polygon shape physics body to little physics bodies with explosion force
func (b *Body) Shatter(position raylib.Vector2, force float32) { func (b *Body) Shatter(position rl.Vector2, force float32) {
if b.Shape.Type != PolygonShape { if b.Shape.Type != PolygonShape {
return return
} }
@ -543,7 +549,7 @@ func (b *Body) Shatter(position raylib.Vector2, force float32) {
count := vertexData.VertexCount count := vertexData.VertexCount
bodyPos := b.Position bodyPos := b.Position
vertices := make([]raylib.Vector2, count) vertices := make([]rl.Vector2, count)
trans := vertexData.Transform trans := vertexData.Transform
for i := 0; i < count; i++ { for i := 0; i < count; i++ {
vertices[i] = vertexData.Vertices[i] vertices[i] = vertexData.Vertices[i]
@ -558,7 +564,7 @@ func (b *Body) Shatter(position raylib.Vector2, force float32) {
nextIndex = i + 1 nextIndex = i + 1
} }
center := triangleBarycenter(vertices[i], vertices[nextIndex], raylib.NewVector2(0, 0)) center := triangleBarycenter(vertices[i], vertices[nextIndex], rl.NewVector2(0, 0))
center = raymath.Vector2Add(bodyPos, center) center = raymath.Vector2Add(bodyPos, center)
offset := raymath.Vector2Subtract(center, bodyPos) offset := raymath.Vector2Subtract(center, bodyPos)
@ -589,7 +595,7 @@ func (b *Body) Shatter(position raylib.Vector2, force float32) {
face := raymath.Vector2Subtract(newData.Vertices[nextVertex], newData.Vertices[j]) face := raymath.Vector2Subtract(newData.Vertices[nextVertex], newData.Vertices[j])
newData.Normals[j] = raylib.NewVector2(face.Y, -face.X) newData.Normals[j] = rl.NewVector2(face.Y, -face.X)
normalize(&newData.Normals[j]) normalize(&newData.Normals[j])
} }
@ -597,7 +603,7 @@ func (b *Body) Shatter(position raylib.Vector2, force float32) {
newBody.Shape.VertexData = newData newBody.Shape.VertexData = newData
// Calculate centroid and moment of inertia // Calculate centroid and moment of inertia
center = raylib.NewVector2(0, 0) center = rl.NewVector2(0, 0)
area := float32(0.0) area := float32(0.0)
inertia := float32(0.0) inertia := float32(0.0)
k := float32(1.0) / 3.0 k := float32(1.0) / 3.0
@ -656,13 +662,13 @@ func (b *Body) Shatter(position raylib.Vector2, force float32) {
} }
// GetShapeVertex - Returns transformed position of a body shape (body position + vertex transformed position) // GetShapeVertex - Returns transformed position of a body shape (body position + vertex transformed position)
func (b *Body) GetShapeVertex(vertex int) raylib.Vector2 { func (b *Body) GetShapeVertex(vertex int) rl.Vector2 {
position := raylib.Vector2{} position := rl.Vector2{}
switch b.Shape.Type { switch b.Shape.Type {
case CircleShape: case CircleShape:
position.X = b.Position.X + float32(math.Cos(360/float64(circleVertices)*float64(vertex)*raylib.Deg2rad))*b.Shape.Radius position.X = b.Position.X + float32(math.Cos(360/float64(circleVertices)*float64(vertex)*rl.Deg2rad))*b.Shape.Radius
position.Y = b.Position.Y + float32(math.Sin(360/float64(circleVertices)*float64(vertex)*raylib.Deg2rad))*b.Shape.Radius position.Y = b.Position.Y + float32(math.Sin(360/float64(circleVertices)*float64(vertex)*rl.Deg2rad))*b.Shape.Radius
break break
case PolygonShape: case PolygonShape:
position = raymath.Vector2Add(b.Position, raymath.Mat2MultiplyVector2(b.Shape.VertexData.Transform, b.Shape.VertexData.Vertices[vertex])) position = raymath.Vector2Add(b.Position, raymath.Mat2MultiplyVector2(b.Shape.VertexData.Transform, b.Shape.VertexData.Vertices[vertex]))
@ -709,8 +715,8 @@ func (b *Body) integrateForces() {
b.Velocity.Y += (b.Force.Y * b.InverseMass) * (deltaTime / 2) b.Velocity.Y += (b.Force.Y * b.InverseMass) * (deltaTime / 2)
if b.UseGravity { if b.UseGravity {
b.Velocity.X += gravityForce.X * (deltaTime / 2) b.Velocity.X += gravityForce.X * (deltaTime / 1000 / 2)
b.Velocity.Y += gravityForce.Y * (deltaTime / 2) b.Velocity.Y += gravityForce.Y * (deltaTime / 1000 / 2)
} }
if !b.FreezeOrient { if !b.FreezeOrient {
@ -723,13 +729,13 @@ func newRandomPolygon(radius float32, sides int) Polygon {
data := Polygon{} data := Polygon{}
data.VertexCount = sides data.VertexCount = sides
orient := raylib.GetRandomValue(0, 360) orient := rl.GetRandomValue(0, 360)
data.Transform = raymath.Mat2Radians(float32(orient) * raylib.Deg2rad) data.Transform = raymath.Mat2Radians(float32(orient) * rl.Deg2rad)
// Calculate polygon vertices positions // Calculate polygon vertices positions
for i := 0; i < data.VertexCount; i++ { for i := 0; i < data.VertexCount; i++ {
data.Vertices[i].X = float32(math.Cos(360/float64(sides)*float64(i)*raylib.Deg2rad)) * radius data.Vertices[i].X = float32(math.Cos(360/float64(sides)*float64(i)*rl.Deg2rad)) * radius
data.Vertices[i].Y = float32(math.Sin(360/float64(sides)*float64(i)*raylib.Deg2rad)) * radius data.Vertices[i].Y = float32(math.Sin(360/float64(sides)*float64(i)*rl.Deg2rad)) * radius
} }
// Calculate polygon faces normals // Calculate polygon faces normals
@ -741,7 +747,7 @@ func newRandomPolygon(radius float32, sides int) Polygon {
face := raymath.Vector2Subtract(data.Vertices[nextIndex], data.Vertices[i]) face := raymath.Vector2Subtract(data.Vertices[nextIndex], data.Vertices[i])
data.Normals[i] = raylib.NewVector2(face.Y, -face.X) data.Normals[i] = rl.NewVector2(face.Y, -face.X)
normalize(&data.Normals[i]) normalize(&data.Normals[i])
} }
@ -749,17 +755,17 @@ func newRandomPolygon(radius float32, sides int) Polygon {
} }
// newRectanglePolygon - Creates a rectangle polygon shape based on a min and max positions // newRectanglePolygon - Creates a rectangle polygon shape based on a min and max positions
func newRectanglePolygon(pos, size raylib.Vector2) Polygon { func newRectanglePolygon(pos, size rl.Vector2) Polygon {
data := Polygon{} data := Polygon{}
data.VertexCount = 4 data.VertexCount = 4
data.Transform = raymath.Mat2Radians(0) data.Transform = raymath.Mat2Radians(0)
// Calculate polygon vertices positions // Calculate polygon vertices positions
data.Vertices[0] = raylib.NewVector2(pos.X+size.X/2, pos.Y-size.Y/2) data.Vertices[0] = rl.NewVector2(pos.X+size.X/2, pos.Y-size.Y/2)
data.Vertices[1] = raylib.NewVector2(pos.X+size.X/2, pos.Y+size.Y/2) data.Vertices[1] = rl.NewVector2(pos.X+size.X/2, pos.Y+size.Y/2)
data.Vertices[2] = raylib.NewVector2(pos.X-size.X/2, pos.Y+size.Y/2) data.Vertices[2] = rl.NewVector2(pos.X-size.X/2, pos.Y+size.Y/2)
data.Vertices[3] = raylib.NewVector2(pos.X-size.X/2, pos.Y-size.Y/2) data.Vertices[3] = rl.NewVector2(pos.X-size.X/2, pos.Y-size.Y/2)
// Calculate polygon faces normals // Calculate polygon faces normals
for i := 0; i < data.VertexCount; i++ { for i := 0; i < data.VertexCount; i++ {
@ -769,7 +775,7 @@ func newRectanglePolygon(pos, size raylib.Vector2) Polygon {
} }
face := raymath.Vector2Subtract(data.Vertices[nextIndex], data.Vertices[i]) face := raymath.Vector2Subtract(data.Vertices[nextIndex], data.Vertices[i])
data.Normals[i] = raylib.NewVector2(face.Y, -face.X) data.Normals[i] = rl.NewVector2(face.Y, -face.X)
normalize(&data.Normals[i]) normalize(&data.Normals[i])
} }
@ -784,9 +790,9 @@ func newManifold(a, b *Body) *manifold {
newManifold.BodyA = a newManifold.BodyA = a
newManifold.BodyB = b newManifold.BodyB = b
newManifold.Penetration = 0 newManifold.Penetration = 0
newManifold.Normal = raylib.Vector2{} newManifold.Normal = rl.Vector2{}
newManifold.Contacts[0] = raylib.Vector2{} newManifold.Contacts[0] = rl.Vector2{}
newManifold.Contacts[1] = raylib.Vector2{} newManifold.Contacts[1] = rl.Vector2{}
newManifold.ContactsCount = 0 newManifold.ContactsCount = 0
newManifold.Restitution = 0 newManifold.Restitution = 0
newManifold.DynamicFriction = 0 newManifold.DynamicFriction = 0
@ -862,12 +868,12 @@ func (m *manifold) solveCircleToCircle() {
if distance == 0 { if distance == 0 {
m.Penetration = bodyA.Shape.Radius m.Penetration = bodyA.Shape.Radius
m.Normal = raylib.NewVector2(1, 0) m.Normal = rl.NewVector2(1, 0)
m.Contacts[0] = bodyA.Position m.Contacts[0] = bodyA.Position
} else { } else {
m.Penetration = radius - distance m.Penetration = radius - distance
m.Normal = raylib.NewVector2(normal.X/distance, normal.Y/distance) // Faster than using normalize() due to sqrt is already performed m.Normal = rl.NewVector2(normal.X/distance, normal.Y/distance) // Faster than using normalize() due to sqrt is already performed
m.Contacts[0] = raylib.NewVector2(m.Normal.X*bodyA.Shape.Radius+bodyA.Position.X, m.Normal.Y*bodyA.Shape.Radius+bodyA.Position.Y) m.Contacts[0] = rl.NewVector2(m.Normal.X*bodyA.Shape.Radius+bodyA.Position.X, m.Normal.Y*bodyA.Shape.Radius+bodyA.Position.Y)
} }
// Update physics body grounded state if normal direction is down // Update physics body grounded state if normal direction is down
@ -915,8 +921,8 @@ func (m *manifold) solveCircleToPolygon() {
if separation < epsilon { if separation < epsilon {
m.ContactsCount = 1 m.ContactsCount = 1
normal := raymath.Mat2MultiplyVector2(vertexData.Transform, vertexData.Normals[faceNormal]) normal := raymath.Mat2MultiplyVector2(vertexData.Transform, vertexData.Normals[faceNormal])
m.Normal = raylib.NewVector2(-normal.X, -normal.Y) m.Normal = rl.NewVector2(-normal.X, -normal.Y)
m.Contacts[0] = raylib.NewVector2(m.Normal.X*m.BodyA.Shape.Radius+m.BodyA.Position.X, m.Normal.Y*m.BodyA.Shape.Radius+m.BodyA.Position.Y) m.Contacts[0] = rl.NewVector2(m.Normal.X*m.BodyA.Shape.Radius+m.BodyA.Position.X, m.Normal.Y*m.BodyA.Shape.Radius+m.BodyA.Position.Y)
m.Penetration = m.BodyA.Shape.Radius m.Penetration = m.BodyA.Shape.Radius
return return
} }
@ -960,8 +966,8 @@ func (m *manifold) solveCircleToPolygon() {
} }
normal = raymath.Mat2MultiplyVector2(vertexData.Transform, normal) normal = raymath.Mat2MultiplyVector2(vertexData.Transform, normal)
m.Normal = raylib.NewVector2(-normal.X, -normal.Y) m.Normal = rl.NewVector2(-normal.X, -normal.Y)
m.Contacts[0] = raylib.NewVector2(m.Normal.X*m.BodyA.Shape.Radius+m.BodyA.Position.X, m.Normal.Y*m.BodyA.Shape.Radius+m.BodyA.Position.Y) m.Contacts[0] = rl.NewVector2(m.Normal.X*m.BodyA.Shape.Radius+m.BodyA.Position.X, m.Normal.Y*m.BodyA.Shape.Radius+m.BodyA.Position.Y)
m.ContactsCount = 1 m.ContactsCount = 1
} }
} }
@ -1017,8 +1023,8 @@ func (m *manifold) solvePolygonToPolygon() {
} }
// World space incident face // World space incident face
incidentFace0 := raylib.Vector2{} incidentFace0 := rl.Vector2{}
incidentFace1 := raylib.Vector2{} incidentFace1 := rl.Vector2{}
findIncidentFace(&incidentFace0, &incidentFace1, refPoly, incPoly, referenceIndex) findIncidentFace(&incidentFace0, &incidentFace1, refPoly, incPoly, referenceIndex)
// Setup reference face vertices // Setup reference face vertices
@ -1042,13 +1048,13 @@ func (m *manifold) solvePolygonToPolygon() {
normalize(&sidePlaneNormal) normalize(&sidePlaneNormal)
// Orthogonalize // Orthogonalize
refFaceNormal := raylib.NewVector2(sidePlaneNormal.Y, -sidePlaneNormal.X) refFaceNormal := rl.NewVector2(sidePlaneNormal.Y, -sidePlaneNormal.X)
refC := raymath.Vector2DotProduct(refFaceNormal, v1) refC := raymath.Vector2DotProduct(refFaceNormal, v1)
negSide := raymath.Vector2DotProduct(sidePlaneNormal, v1) * -1 negSide := raymath.Vector2DotProduct(sidePlaneNormal, v1) * -1
posSide := raymath.Vector2DotProduct(sidePlaneNormal, v2) posSide := raymath.Vector2DotProduct(sidePlaneNormal, v2)
// clip incident face to reference face side planes (due to floating point error, possible to not have required points // clip incident face to reference face side planes (due to floating point error, possible to not have required points
if clip(raylib.NewVector2(-sidePlaneNormal.X, -sidePlaneNormal.Y), negSide, &incidentFace0, &incidentFace1) < 2 { if clip(rl.NewVector2(-sidePlaneNormal.X, -sidePlaneNormal.Y), negSide, &incidentFace0, &incidentFace1) < 2 {
return return
} }
if clip(sidePlaneNormal, posSide, &incidentFace0, &incidentFace1) < 2 { if clip(sidePlaneNormal, posSide, &incidentFace0, &incidentFace1) < 2 {
@ -1057,7 +1063,7 @@ func (m *manifold) solvePolygonToPolygon() {
// Flip normal if required // Flip normal if required
if flip { if flip {
m.Normal = raylib.NewVector2(-refFaceNormal.X, -refFaceNormal.Y) m.Normal = rl.NewVector2(-refFaceNormal.X, -refFaceNormal.Y)
} else { } else {
m.Normal = refFaceNormal m.Normal = refFaceNormal
} }
@ -1105,13 +1111,13 @@ func (m *manifold) initializeManifolds() {
crossA := raymath.Vector2Cross(bodyA.AngularVelocity, radiusA) crossA := raymath.Vector2Cross(bodyA.AngularVelocity, radiusA)
crossB := raymath.Vector2Cross(bodyB.AngularVelocity, radiusB) crossB := raymath.Vector2Cross(bodyB.AngularVelocity, radiusB)
radiusV := raylib.Vector2{} radiusV := rl.Vector2{}
radiusV.X = bodyB.Velocity.X + crossB.X - bodyA.Velocity.X - crossA.X radiusV.X = bodyB.Velocity.X + crossB.X - bodyA.Velocity.X - crossA.X
radiusV.Y = bodyB.Velocity.Y + crossB.Y - bodyA.Velocity.Y - crossA.Y radiusV.Y = bodyB.Velocity.Y + crossB.Y - bodyA.Velocity.Y - crossA.Y
// Determine if we should perform a resting collision or not; // Determine if we should perform a resting collision or not;
// The idea is if the only thing moving this object is gravity, then the collision should be performed without any restitution // The idea is if the only thing moving this object is gravity, then the collision should be performed without any restitution
if raymath.Vector2LenSqr(radiusV) < (raymath.Vector2LenSqr(raylib.NewVector2(gravityForce.X*deltaTime, gravityForce.Y*deltaTime)) + epsilon) { if raymath.Vector2LenSqr(radiusV) < (raymath.Vector2LenSqr(rl.NewVector2(gravityForce.X*deltaTime/1000, gravityForce.Y*deltaTime/1000)) + epsilon) {
m.Restitution = 0 m.Restitution = 0
} }
} }
@ -1124,8 +1130,8 @@ func (m *manifold) integrateImpulses() {
// Early out and positional correct if both objects have infinite mass // Early out and positional correct if both objects have infinite mass
if math.Abs(float64(bodyA.InverseMass+bodyB.InverseMass)) <= epsilon { if math.Abs(float64(bodyA.InverseMass+bodyB.InverseMass)) <= epsilon {
bodyA.Velocity = raylib.Vector2{} bodyA.Velocity = rl.Vector2{}
bodyB.Velocity = raylib.Vector2{} bodyB.Velocity = rl.Vector2{}
return return
} }
@ -1135,7 +1141,7 @@ func (m *manifold) integrateImpulses() {
radiusB := raymath.Vector2Subtract(m.Contacts[i], bodyB.Position) radiusB := raymath.Vector2Subtract(m.Contacts[i], bodyB.Position)
// Calculate relative velocity // Calculate relative velocity
radiusV := raylib.Vector2{} radiusV := rl.Vector2{}
radiusV.X = bodyB.Velocity.X + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).X - bodyA.Velocity.X - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).X radiusV.X = bodyB.Velocity.X + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).X - bodyA.Velocity.X - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).X
radiusV.Y = bodyB.Velocity.Y + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).Y - bodyA.Velocity.Y - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).Y radiusV.Y = bodyB.Velocity.Y + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).Y - bodyA.Velocity.Y - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).Y
@ -1158,13 +1164,13 @@ func (m *manifold) integrateImpulses() {
impulse /= float32(m.ContactsCount) impulse /= float32(m.ContactsCount)
// Apply impulse to each physics body // Apply impulse to each physics body
impulseV := raylib.NewVector2(m.Normal.X*impulse, m.Normal.Y*impulse) impulseV := rl.NewVector2(m.Normal.X*impulse, m.Normal.Y*impulse)
if bodyA.Enabled { if bodyA.Enabled {
bodyA.Velocity.X += bodyA.InverseMass * (-impulseV.X) bodyA.Velocity.X += bodyA.InverseMass * (-impulseV.X)
bodyA.Velocity.Y += bodyA.InverseMass * (-impulseV.Y) bodyA.Velocity.Y += bodyA.InverseMass * (-impulseV.Y)
if !bodyA.FreezeOrient { if !bodyA.FreezeOrient {
bodyA.AngularVelocity += bodyA.InverseInertia * raymath.Vector2CrossProduct(radiusA, raylib.NewVector2(-impulseV.X, -impulseV.Y)) bodyA.AngularVelocity += bodyA.InverseInertia * raymath.Vector2CrossProduct(radiusA, rl.NewVector2(-impulseV.X, -impulseV.Y))
} }
} }
@ -1180,7 +1186,7 @@ func (m *manifold) integrateImpulses() {
radiusV.X = bodyB.Velocity.X + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).X - bodyA.Velocity.X - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).X radiusV.X = bodyB.Velocity.X + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).X - bodyA.Velocity.X - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).X
radiusV.Y = bodyB.Velocity.Y + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).Y - bodyA.Velocity.Y - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).Y radiusV.Y = bodyB.Velocity.Y + raymath.Vector2Cross(bodyB.AngularVelocity, radiusB).Y - bodyA.Velocity.Y - raymath.Vector2Cross(bodyA.AngularVelocity, radiusA).Y
tangent := raylib.NewVector2(radiusV.X-(m.Normal.X*raymath.Vector2DotProduct(radiusV, m.Normal)), radiusV.Y-(m.Normal.Y*raymath.Vector2DotProduct(radiusV, m.Normal))) tangent := rl.NewVector2(radiusV.X-(m.Normal.X*raymath.Vector2DotProduct(radiusV, m.Normal)), radiusV.Y-(m.Normal.Y*raymath.Vector2DotProduct(radiusV, m.Normal)))
normalize(&tangent) normalize(&tangent)
// Calculate impulse tangent magnitude // Calculate impulse tangent magnitude
@ -1196,11 +1202,11 @@ func (m *manifold) integrateImpulses() {
} }
// Apply coulumb's law // Apply coulumb's law
tangentImpulse := raylib.Vector2{} tangentImpulse := rl.Vector2{}
if absImpulseTangent < impulse*m.StaticFriction { if absImpulseTangent < impulse*m.StaticFriction {
tangentImpulse = raylib.NewVector2(tangent.X*impulseTangent, tangent.Y*impulseTangent) tangentImpulse = rl.NewVector2(tangent.X*impulseTangent, tangent.Y*impulseTangent)
} else { } else {
tangentImpulse = raylib.NewVector2(tangent.X*-impulse*m.DynamicFriction, tangent.Y*-impulse*m.DynamicFriction) tangentImpulse = rl.NewVector2(tangent.X*-impulse*m.DynamicFriction, tangent.Y*-impulse*m.DynamicFriction)
} }
// Apply friction impulse // Apply friction impulse
@ -1209,7 +1215,7 @@ func (m *manifold) integrateImpulses() {
bodyA.Velocity.Y += bodyA.InverseMass * (-tangentImpulse.Y) bodyA.Velocity.Y += bodyA.InverseMass * (-tangentImpulse.Y)
if !bodyA.FreezeOrient { if !bodyA.FreezeOrient {
bodyA.AngularVelocity += bodyA.InverseInertia * raymath.Vector2CrossProduct(radiusA, raylib.NewVector2(-tangentImpulse.X, -tangentImpulse.Y)) bodyA.AngularVelocity += bodyA.InverseInertia * raymath.Vector2CrossProduct(radiusA, rl.NewVector2(-tangentImpulse.X, -tangentImpulse.Y))
} }
} }
@ -1229,7 +1235,7 @@ func (m *manifold) correctPositions() {
bodyA := m.BodyA bodyA := m.BodyA
bodyB := m.BodyB bodyB := m.BodyB
correction := raylib.Vector2{} correction := rl.Vector2{}
correction.X = float32(math.Max(float64(m.Penetration-penetrationAllowance), 0)) / (bodyA.InverseMass + bodyB.InverseMass) * m.Normal.X * penetrationCorrection correction.X = float32(math.Max(float64(m.Penetration-penetrationAllowance), 0)) / (bodyA.InverseMass + bodyB.InverseMass) * m.Normal.X * penetrationCorrection
correction.Y = float32(math.Max(float64(m.Penetration-penetrationAllowance), 0)) / (bodyA.InverseMass + bodyB.InverseMass) * m.Normal.Y * penetrationCorrection correction.Y = float32(math.Max(float64(m.Penetration-penetrationAllowance), 0)) / (bodyA.InverseMass + bodyB.InverseMass) * m.Normal.Y * penetrationCorrection
@ -1245,9 +1251,9 @@ func (m *manifold) correctPositions() {
} }
// getSupport - Returns the extreme point along a direction within a polygon // getSupport - Returns the extreme point along a direction within a polygon
func getSupport(shape Shape, dir raylib.Vector2) raylib.Vector2 { func getSupport(shape Shape, dir rl.Vector2) rl.Vector2 {
bestProjection := float32(-fltMax) bestProjection := float32(-fltMax)
bestVertex := raylib.Vector2{} bestVertex := rl.Vector2{}
for i := 0; i < shape.VertexData.VertexCount; i++ { for i := 0; i < shape.VertexData.VertexCount; i++ {
vertex := shape.VertexData.Vertices[i] vertex := shape.VertexData.Vertices[i]
@ -1280,7 +1286,7 @@ func findAxisLeastPenetration(shapeA, shapeB Shape) (int, float32) {
normal = raymath.Mat2MultiplyVector2(buT, transNormal) normal = raymath.Mat2MultiplyVector2(buT, transNormal)
// Retrieve support point from B shape along -n // Retrieve support point from B shape along -n
support := getSupport(shapeB, raylib.NewVector2(-normal.X, -normal.Y)) support := getSupport(shapeB, rl.NewVector2(-normal.X, -normal.Y))
// Retrieve vertex on face from A shape, transform into B shape's model space // Retrieve vertex on face from A shape, transform into B shape's model space
vertex := dataA.Vertices[i] vertex := dataA.Vertices[i]
@ -1303,7 +1309,7 @@ func findAxisLeastPenetration(shapeA, shapeB Shape) (int, float32) {
} }
// findIncidentFace - Finds two polygon shapes incident face // findIncidentFace - Finds two polygon shapes incident face
func findIncidentFace(v0, v1 *raylib.Vector2, ref, inc Shape, index int) { func findIncidentFace(v0, v1 *rl.Vector2, ref, inc Shape, index int) {
refData := ref.VertexData refData := ref.VertexData
incData := inc.VertexData incData := inc.VertexData
@ -1341,10 +1347,10 @@ func findIncidentFace(v0, v1 *raylib.Vector2, ref, inc Shape, index int) {
} }
// clip - Calculates clipping based on a normal and two faces // clip - Calculates clipping based on a normal and two faces
func clip(normal raylib.Vector2, clip float32, faceA, faceB *raylib.Vector2) int { func clip(normal rl.Vector2, clip float32, faceA, faceB *rl.Vector2) int {
sp := 0 sp := 0
out := make([]raylib.Vector2, 2) out := make([]rl.Vector2, 2)
out[0] = *faceA out[0] = *faceA
out[1] = *faceB out[1] = *faceB
@ -1387,8 +1393,8 @@ func biasGreaterThan(valueA, valueB float32) bool {
} }
// triangleBarycenter - Returns the barycenter of a triangle given by 3 points // triangleBarycenter - Returns the barycenter of a triangle given by 3 points
func triangleBarycenter(v1, v2, v3 raylib.Vector2) raylib.Vector2 { func triangleBarycenter(v1, v2, v3 rl.Vector2) rl.Vector2 {
result := raylib.Vector2{} result := rl.Vector2{}
result.X = (v1.X + v2.X + v3.X) / 3 result.X = (v1.X + v2.X + v3.X) / 3
result.Y = (v1.Y + v2.Y + v3.Y) / 3 result.Y = (v1.Y + v2.Y + v3.Y) / 3
@ -1397,7 +1403,7 @@ func triangleBarycenter(v1, v2, v3 raylib.Vector2) raylib.Vector2 {
} }
// normalize - Normalize provided vector // normalize - Normalize provided vector
func normalize(v *raylib.Vector2) { func normalize(v *rl.Vector2) {
var length, ilength float32 var length, ilength float32
aux := *v aux := *v

382
raygui/raygui.go
View file

@ -339,30 +339,30 @@ var (
) )
// BackgroundColor - Get background color // BackgroundColor - Get background color
func BackgroundColor() raylib.Color { func BackgroundColor() rl.Color {
return raylib.GetColor(int32(style[GlobalBackgroundColor])) return rl.GetColor(int32(style[GlobalBackgroundColor]))
} }
// LinesColor - Get lines color // LinesColor - Get lines color
func LinesColor() raylib.Color { func LinesColor() rl.Color {
return raylib.GetColor(int32(style[GlobalLinesColor])) return rl.GetColor(int32(style[GlobalLinesColor]))
} }
// TextColor - Get text color for normal state // TextColor - Get text color for normal state
func TextColor() raylib.Color { func TextColor() rl.Color {
return raylib.GetColor(int32(style[GlobalTextColor])) return rl.GetColor(int32(style[GlobalTextColor]))
} }
// Label - Label element, show text // Label - Label element, show text
func Label(bounds raylib.Rectangle, text string) { func Label(bounds rl.Rectangle, text string) {
LabelEx(bounds, text, raylib.GetColor(int32(style[LabelTextColor])), raylib.NewColor(0, 0, 0, 0), raylib.NewColor(0, 0, 0, 0)) LabelEx(bounds, text, rl.GetColor(int32(style[LabelTextColor])), rl.NewColor(0, 0, 0, 0), rl.NewColor(0, 0, 0, 0))
} }
// LabelEx - Label element extended, configurable colors // LabelEx - Label element extended, configurable colors
func LabelEx(bounds raylib.Rectangle, text string, textColor, border, inner raylib.Color) { func LabelEx(bounds rl.Rectangle, text string, textColor, border, inner rl.Color) {
b := bounds.ToInt32() b := bounds.ToInt32()
// Update control // Update control
textWidth := raylib.MeasureText(text, int32(style[GlobalTextFontsize])) textWidth := rl.MeasureText(text, int32(style[GlobalTextFontsize]))
textHeight := int32(style[GlobalTextFontsize]) textHeight := int32(style[GlobalTextFontsize])
if b.Width < textWidth { if b.Width < textWidth {
@ -373,19 +373,19 @@ func LabelEx(bounds raylib.Rectangle, text string, textColor, border, inner rayl
} }
// Draw control // Draw control
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, border) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, border)
raylib.DrawRectangle(b.X+int32(style[LabelBorderWidth]), b.Y+int32(style[LabelBorderWidth]), b.Width-(2*int32(style[LabelBorderWidth])), b.Height-(2*int32(style[LabelBorderWidth])), inner) rl.DrawRectangle(b.X+int32(style[LabelBorderWidth]), b.Y+int32(style[LabelBorderWidth]), b.Width-(2*int32(style[LabelBorderWidth])), b.Height-(2*int32(style[LabelBorderWidth])), inner)
raylib.DrawText(text, b.X+((b.Width/2)-(textWidth/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), textColor) rl.DrawText(text, b.X+((b.Width/2)-(textWidth/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), textColor)
} }
// Button - Button element, returns true when clicked // Button - Button element, returns true when clicked
func Button(bounds raylib.Rectangle, text string) bool { func Button(bounds rl.Rectangle, text string) bool {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
clicked := false clicked := false
textWidth := raylib.MeasureText(text, int32(style[GlobalTextFontsize])) textWidth := rl.MeasureText(text, int32(style[GlobalTextFontsize]))
textHeight := int32(style[GlobalTextFontsize]) textHeight := int32(style[GlobalTextFontsize])
// Update control // Update control
@ -397,10 +397,10 @@ func Button(bounds raylib.Rectangle, text string) bool {
b.Height = textHeight + int32(style[ButtonTextPadding])/2 b.Height = textHeight + int32(style[ButtonTextPadding])/2
} }
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
} else if raylib.IsMouseButtonReleased(raylib.MouseLeftButton) || raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { } else if rl.IsMouseButtonReleased(rl.MouseLeftButton) || rl.IsMouseButtonPressed(rl.MouseLeftButton) {
clicked = true clicked = true
} else { } else {
state = Focused state = Focused
@ -410,21 +410,21 @@ func Button(bounds raylib.Rectangle, text string) bool {
// Draw control // Draw control
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ButtonDefaultBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ButtonDefaultBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), raylib.GetColor(int32(style[ButtonDefaultInsideColor]))) rl.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), rl.GetColor(int32(style[ButtonDefaultInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ButtonDefaultTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ButtonDefaultTextColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ButtonHoverBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ButtonHoverBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), raylib.GetColor(int32(style[ButtonHoverInsideColor]))) rl.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), rl.GetColor(int32(style[ButtonHoverInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ButtonHoverTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ButtonHoverTextColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ButtonPressedBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ButtonPressedBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), raylib.GetColor(int32(style[ButtonPressedInsideColor]))) rl.DrawRectangle(b.X+int32(style[ButtonBorderWidth]), b.Y+int32(style[ButtonBorderWidth]), b.Width-(2*int32(style[ButtonBorderWidth])), b.Height-(2*int32(style[ButtonBorderWidth])), rl.GetColor(int32(style[ButtonPressedInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ButtonPressedTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ButtonPressedTextColor])))
break break
default: default:
@ -439,12 +439,12 @@ func Button(bounds raylib.Rectangle, text string) bool {
} }
// ToggleButton - Toggle Button element, returns true when active // ToggleButton - Toggle Button element, returns true when active
func ToggleButton(bounds raylib.Rectangle, text string, active bool) bool { func ToggleButton(bounds rl.Rectangle, text string, active bool) bool {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
textWidth := raylib.MeasureText(text, int32(style[GlobalTextFontsize])) textWidth := rl.MeasureText(text, int32(style[GlobalTextFontsize]))
textHeight := int32(style[GlobalTextFontsize]) textHeight := int32(style[GlobalTextFontsize])
// Update control // Update control
@ -455,10 +455,10 @@ func ToggleButton(bounds raylib.Rectangle, text string, active bool) bool {
b.Height = textHeight + int32(style[ToggleTextPadding])/2 b.Height = textHeight + int32(style[ToggleTextPadding])/2
} }
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
} else if raylib.IsMouseButtonReleased(raylib.MouseLeftButton) || raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { } else if rl.IsMouseButtonReleased(rl.MouseLeftButton) || rl.IsMouseButtonPressed(rl.MouseLeftButton) {
state = Normal state = Normal
active = !active active = !active
} else { } else {
@ -470,24 +470,24 @@ func ToggleButton(bounds raylib.Rectangle, text string, active bool) bool {
switch state { switch state {
case Normal: case Normal:
if active { if active {
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ToggleActiveBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ToggleActiveBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[ToggleActiveInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[ToggleActiveInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ToggleDefaultTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ToggleDefaultTextColor])))
} else { } else {
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ToggleDefaultBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ToggleDefaultBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[ToggleDefaultInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[ToggleDefaultInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ToggleDefaultTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ToggleDefaultTextColor])))
} }
break break
case Focused: case Focused:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ToggleHoverBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ToggleHoverBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[ToggleHoverInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[ToggleHoverInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ToggleHoverTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ToggleHoverTextColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[TogglePressedBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[TogglePressedBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[TogglePressedInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[TogglePressedInsideColor])))
raylib.DrawText(text, b.X+((b.Width/2)-(raylib.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[TogglePressedTextColor]))) rl.DrawText(text, b.X+((b.Width/2)-(rl.MeasureText(text, int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[TogglePressedTextColor])))
break break
default: default:
break break
@ -497,11 +497,11 @@ func ToggleButton(bounds raylib.Rectangle, text string, active bool) bool {
} }
// ToggleGroup - Toggle Group element, returns toggled button index // ToggleGroup - Toggle Group element, returns toggled button index
func ToggleGroup(bounds raylib.Rectangle, toggleText []string, active int) int { func ToggleGroup(bounds rl.Rectangle, toggleText []string, active int) int {
for i := 0; i < len(toggleText); i++ { for i := 0; i < len(toggleText); i++ {
if i == active { if i == active {
ToggleButton(raylib.NewRectangle(bounds.X+float32(i)*(bounds.Width+float32(style[TogglegroupPadding])), bounds.Y, bounds.Width, bounds.Height), toggleText[i], true) ToggleButton(rl.NewRectangle(bounds.X+float32(i)*(bounds.Width+float32(style[TogglegroupPadding])), bounds.Y, bounds.Width, bounds.Height), toggleText[i], true)
} else if ToggleButton(raylib.NewRectangle(bounds.X+float32(i)*(bounds.Width+float32(style[TogglegroupPadding])), bounds.Y, bounds.Width, bounds.Height), toggleText[i], false) { } else if ToggleButton(rl.NewRectangle(bounds.X+float32(i)*(bounds.Width+float32(style[TogglegroupPadding])), bounds.Y, bounds.Width, bounds.Height), toggleText[i], false) {
active = i active = i
} }
} }
@ -510,15 +510,15 @@ func ToggleGroup(bounds raylib.Rectangle, toggleText []string, active int) int {
} }
// ComboBox - Combo Box element, returns selected item index // ComboBox - Combo Box element, returns selected item index
func ComboBox(bounds raylib.Rectangle, comboText []string, active int) int { func ComboBox(bounds rl.Rectangle, comboText []string, active int) int {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
clicked := false clicked := false
click := raylib.NewRectangle(bounds.X+bounds.Width+float32(style[ComboboxPadding]), bounds.Y, float32(style[boundsWidth]), float32(style[boundsHeight])) click := rl.NewRectangle(bounds.X+bounds.Width+float32(style[ComboboxPadding]), bounds.Y, float32(style[boundsWidth]), float32(style[boundsHeight]))
c := click.ToInt32() c := click.ToInt32()
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
textWidth := int32(0) textWidth := int32(0)
textHeight := int32(style[GlobalTextFontsize]) textHeight := int32(style[GlobalTextFontsize])
@ -528,7 +528,7 @@ func ComboBox(bounds raylib.Rectangle, comboText []string, active int) int {
for i := 0; i < comboCount; i++ { for i := 0; i < comboCount; i++ {
if i == active { if i == active {
// Update control // Update control
textWidth = raylib.MeasureText(comboText[i], int32(style[GlobalTextFontsize])) textWidth = rl.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))
if b.Width < textWidth { if b.Width < textWidth {
b.Width = textWidth + int32(style[ToggleTextPadding]) b.Width = textWidth + int32(style[ToggleTextPadding])
@ -537,10 +537,10 @@ func ComboBox(bounds raylib.Rectangle, comboText []string, active int) int {
b.Height = textHeight + int32(style[ToggleTextPadding])/2 b.Height = textHeight + int32(style[ToggleTextPadding])/2
} }
if raylib.CheckCollisionPointRec(mousePoint, bounds) || raylib.CheckCollisionPointRec(mousePoint, click) { if rl.CheckCollisionPointRec(mousePoint, bounds) || rl.CheckCollisionPointRec(mousePoint, click) {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
} else if raylib.IsMouseButtonReleased(raylib.MouseLeftButton) || raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { } else if rl.IsMouseButtonReleased(rl.MouseLeftButton) || rl.IsMouseButtonPressed(rl.MouseLeftButton) {
clicked = true clicked = true
} else { } else {
state = Focused state = Focused
@ -550,51 +550,51 @@ func ComboBox(bounds raylib.Rectangle, comboText []string, active int) int {
// Draw control // Draw control
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ComboboxDefaultBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ComboboxDefaultBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxDefaultInsideColor]))) rl.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxDefaultInsideColor])))
raylib.DrawRectangle(c.X, c.Y, c.Width, c.Height, raylib.GetColor(int32(style[ComboboxDefaultBorderColor]))) rl.DrawRectangle(c.X, c.Y, c.Width, c.Height, rl.GetColor(int32(style[ComboboxDefaultBorderColor])))
raylib.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxDefaultInsideColor]))) rl.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxDefaultInsideColor])))
raylib.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(raylib.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxDefaultListTextColor]))) rl.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(rl.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxDefaultListTextColor])))
raylib.DrawText(comboText[i], b.X+((b.Width/2)-(raylib.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxDefaultTextColor]))) rl.DrawText(comboText[i], b.X+((b.Width/2)-(rl.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxDefaultTextColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ComboboxHoverBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ComboboxHoverBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxHoverInsideColor]))) rl.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxHoverInsideColor])))
raylib.DrawRectangle(c.X, c.Y, c.Width, c.Height, raylib.GetColor(int32(style[ComboboxHoverBorderColor]))) rl.DrawRectangle(c.X, c.Y, c.Width, c.Height, rl.GetColor(int32(style[ComboboxHoverBorderColor])))
raylib.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxHoverInsideColor]))) rl.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxHoverInsideColor])))
raylib.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(raylib.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxHoverListTextColor]))) rl.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(rl.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxHoverListTextColor])))
raylib.DrawText(comboText[i], b.X+((b.Width/2)-(raylib.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxHoverTextColor]))) rl.DrawText(comboText[i], b.X+((b.Width/2)-(rl.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxHoverTextColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ComboboxPressedBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ComboboxPressedBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxPressedInsideColor]))) rl.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxPressedInsideColor])))
raylib.DrawRectangle(c.X, c.Y, c.Width, c.Height, raylib.GetColor(int32(style[ComboboxPressedListBorderColor]))) rl.DrawRectangle(c.X, c.Y, c.Width, c.Height, rl.GetColor(int32(style[ComboboxPressedListBorderColor])))
raylib.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxPressedListInsideColor]))) rl.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxPressedListInsideColor])))
raylib.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(raylib.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxPressedListTextColor]))) rl.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(rl.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxPressedListTextColor])))
raylib.DrawText(comboText[i], b.X+((b.Width/2)-(raylib.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxPressedTextColor]))) rl.DrawText(comboText[i], b.X+((b.Width/2)-(rl.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxPressedTextColor])))
break break
default: default:
break break
} }
if clicked { if clicked {
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ComboboxPressedBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ComboboxPressedBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxPressedInsideColor]))) rl.DrawRectangle(b.X+int32(style[ComboboxBorderWidth]), b.Y+int32(style[ComboboxBorderWidth]), b.Width-(2*int32(style[ComboboxBorderWidth])), b.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxPressedInsideColor])))
raylib.DrawRectangle(c.X, c.Y, c.Width, c.Height, raylib.GetColor(int32(style[ComboboxPressedListBorderColor]))) rl.DrawRectangle(c.X, c.Y, c.Width, c.Height, rl.GetColor(int32(style[ComboboxPressedListBorderColor])))
raylib.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), raylib.GetColor(int32(style[ComboboxPressedListInsideColor]))) rl.DrawRectangle(c.X+int32(style[ComboboxBorderWidth]), c.Y+int32(style[ComboboxBorderWidth]), c.Width-(2*int32(style[ComboboxBorderWidth])), c.Height-(2*int32(style[ComboboxBorderWidth])), rl.GetColor(int32(style[ComboboxPressedListInsideColor])))
raylib.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(raylib.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxPressedListTextColor]))) rl.DrawText(fmt.Sprintf("%d/%d", active+1, comboCount), c.X+((c.Width/2)-(rl.MeasureText(fmt.Sprintf("%d/%d", active+1, comboCount), int32(style[GlobalTextFontsize]))/2)), c.Y+((c.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxPressedListTextColor])))
raylib.DrawText(comboText[i], b.X+((b.Width/2)-(raylib.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[ComboboxPressedTextColor]))) rl.DrawText(comboText[i], b.X+((b.Width/2)-(rl.MeasureText(comboText[i], int32(style[GlobalTextFontsize]))/2)), b.Y+((b.Height/2)-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[ComboboxPressedTextColor])))
} }
} }
} }
if raylib.CheckCollisionPointRec(mousePoint, bounds) || raylib.CheckCollisionPointRec(mousePoint, click) { if rl.CheckCollisionPointRec(mousePoint, bounds) || rl.CheckCollisionPointRec(mousePoint, click) {
if raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { if rl.IsMouseButtonPressed(rl.MouseLeftButton) {
active++ active++
if active >= comboCount { if active >= comboCount {
active = 0 active = 0
@ -606,16 +606,16 @@ func ComboBox(bounds raylib.Rectangle, comboText []string, active int) int {
} }
// CheckBox - Check Box element, returns true when active // CheckBox - Check Box element, returns true when active
func CheckBox(bounds raylib.Rectangle, checked bool) bool { func CheckBox(bounds rl.Rectangle, checked bool) bool {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
// Update control // Update control
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
} else if raylib.IsMouseButtonReleased(raylib.MouseLeftButton) || raylib.IsMouseButtonPressed(raylib.MouseLeftButton) { } else if rl.IsMouseButtonReleased(rl.MouseLeftButton) || rl.IsMouseButtonPressed(rl.MouseLeftButton) {
state = Normal state = Normal
checked = !checked checked = !checked
} else { } else {
@ -626,36 +626,36 @@ func CheckBox(bounds raylib.Rectangle, checked bool) bool {
// Draw control // Draw control
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[CheckboxDefaultBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[CheckboxDefaultBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[CheckboxDefaultInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[CheckboxDefaultInsideColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[CheckboxHoverBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[CheckboxHoverBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[CheckboxHoverInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[CheckboxHoverInsideColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[CheckboxClickBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[CheckboxClickBorderColor])))
raylib.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), raylib.GetColor(int32(style[CheckboxClickInsideColor]))) rl.DrawRectangle(b.X+int32(style[ToggleBorderWidth]), b.Y+int32(style[ToggleBorderWidth]), b.Width-(2*int32(style[ToggleBorderWidth])), b.Height-(2*int32(style[ToggleBorderWidth])), rl.GetColor(int32(style[CheckboxClickInsideColor])))
break break
default: default:
break break
} }
if checked { if checked {
raylib.DrawRectangle(b.X+int32(style[CheckboxInsideWidth]), b.Y+int32(style[CheckboxInsideWidth]), b.Width-(2*int32(style[CheckboxInsideWidth])), b.Height-(2*int32(style[CheckboxInsideWidth])), raylib.GetColor(int32(style[CheckboxDefaultActiveColor]))) rl.DrawRectangle(b.X+int32(style[CheckboxInsideWidth]), b.Y+int32(style[CheckboxInsideWidth]), b.Width-(2*int32(style[CheckboxInsideWidth])), b.Height-(2*int32(style[CheckboxInsideWidth])), rl.GetColor(int32(style[CheckboxDefaultActiveColor])))
} }
return checked return checked
} }
// Slider - Slider element, returns selected value // Slider - Slider element, returns selected value
func Slider(bounds raylib.Rectangle, value, minValue, maxValue float32) float32 { func Slider(bounds rl.Rectangle, value, minValue, maxValue float32) float32 {
b := bounds.ToInt32() b := bounds.ToInt32()
sliderPos := float32(0) sliderPos := float32(0)
state := Normal state := Normal
buttonTravelDistance := float32(0) buttonTravelDistance := float32(0)
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
// Update control // Update control
if value < minValue { if value < minValue {
@ -666,7 +666,7 @@ func Slider(bounds raylib.Rectangle, value, minValue, maxValue float32) float32
sliderPos = (value - minValue) / (maxValue - minValue) sliderPos = (value - minValue) / (maxValue - minValue)
sliderButton := raylib.RectangleInt32{} sliderButton := rl.RectangleInt32{}
sliderButton.Width = (b.Width-(2*int32(style[SliderButtonBorderWidth])))/10 - 8 sliderButton.Width = (b.Width-(2*int32(style[SliderButtonBorderWidth])))/10 - 8
sliderButton.Height = b.Height - (2 * int32(style[SliderBorderWidth]+2*style[SliderButtonBorderWidth])) sliderButton.Height = b.Height - (2 * int32(style[SliderBorderWidth]+2*style[SliderButtonBorderWidth]))
@ -678,14 +678,14 @@ func Slider(bounds raylib.Rectangle, value, minValue, maxValue float32) float32
sliderButton.X = b.X + int32(style[SliderBorderWidth]) + int32(style[SliderButtonBorderWidth]) + int32(sliderPos*buttonTravelDistance) sliderButton.X = b.X + int32(style[SliderBorderWidth]) + int32(style[SliderButtonBorderWidth]) + int32(sliderPos*buttonTravelDistance)
sliderButton.Y = b.Y + int32(style[SliderBorderWidth]) + int32(style[SliderButtonBorderWidth]) sliderButton.Y = b.Y + int32(style[SliderBorderWidth]) + int32(style[SliderButtonBorderWidth])
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
state = Focused state = Focused
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
} }
if state == Pressed && raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if state == Pressed && rl.IsMouseButtonDown(rl.MouseLeftButton) {
sliderButton.X = int32(mousePoint.X) - sliderButton.Width/2 sliderButton.X = int32(mousePoint.X) - sliderButton.Width/2
if sliderButton.X <= sliderButtonMinPos { if sliderButton.X <= sliderButtonMinPos {
@ -701,18 +701,18 @@ func Slider(bounds raylib.Rectangle, value, minValue, maxValue float32) float32
} }
// Draw control // Draw control
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[SliderBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[SliderBorderColor])))
raylib.DrawRectangle(b.X+int32(style[SliderBorderWidth]), b.Y+int32(style[SliderBorderWidth]), b.Width-(2*int32(style[SliderBorderWidth])), b.Height-(2*int32(style[SliderBorderWidth])), raylib.GetColor(int32(style[SliderInsideColor]))) rl.DrawRectangle(b.X+int32(style[SliderBorderWidth]), b.Y+int32(style[SliderBorderWidth]), b.Width-(2*int32(style[SliderBorderWidth])), b.Height-(2*int32(style[SliderBorderWidth])), rl.GetColor(int32(style[SliderInsideColor])))
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, raylib.GetColor(int32(style[SliderDefaultColor]))) rl.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, rl.GetColor(int32(style[SliderDefaultColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, raylib.GetColor(int32(style[SliderHoverColor]))) rl.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, rl.GetColor(int32(style[SliderHoverColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, raylib.GetColor(int32(style[SliderActiveColor]))) rl.DrawRectangle(sliderButton.X, sliderButton.Y, sliderButton.Width, sliderButton.Height, rl.GetColor(int32(style[SliderActiveColor])))
break break
default: default:
break break
@ -722,11 +722,11 @@ func Slider(bounds raylib.Rectangle, value, minValue, maxValue float32) float32
} }
// SliderBar - Slider Bar element, returns selected value // SliderBar - Slider Bar element, returns selected value
func SliderBar(bounds raylib.Rectangle, value, minValue, maxValue float32) float32 { func SliderBar(bounds rl.Rectangle, value, minValue, maxValue float32) float32 {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
fixedValue := float32(0) fixedValue := float32(0)
fixedMinValue := float32(0) fixedMinValue := float32(0)
@ -742,17 +742,17 @@ func SliderBar(bounds raylib.Rectangle, value, minValue, maxValue float32) float
fixedValue = maxValue fixedValue = maxValue
} }
sliderBar := raylib.RectangleInt32{} sliderBar := rl.RectangleInt32{}
sliderBar.X = b.X + int32(style[SliderBorderWidth]) sliderBar.X = b.X + int32(style[SliderBorderWidth])
sliderBar.Y = b.Y + int32(style[SliderBorderWidth]) sliderBar.Y = b.Y + int32(style[SliderBorderWidth])
sliderBar.Width = int32((fixedValue * (float32(b.Width) - 2*float32(style[SliderBorderWidth]))) / (maxValue - fixedMinValue)) sliderBar.Width = int32((fixedValue * (float32(b.Width) - 2*float32(style[SliderBorderWidth]))) / (maxValue - fixedMinValue))
sliderBar.Height = b.Height - 2*int32(style[SliderBorderWidth]) sliderBar.Height = b.Height - 2*int32(style[SliderBorderWidth])
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
state = Focused state = Focused
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
state = Pressed state = Pressed
sliderBar.Width = (int32(mousePoint.X) - b.X - int32(style[SliderBorderWidth])) sliderBar.Width = (int32(mousePoint.X) - b.X - int32(style[SliderBorderWidth]))
@ -770,32 +770,32 @@ func SliderBar(bounds raylib.Rectangle, value, minValue, maxValue float32) float
fixedValue = (float32(sliderBar.Width) * (maxValue - fixedMinValue)) / (float32(b.Width) - 2*float32(style[SliderBorderWidth])) fixedValue = (float32(sliderBar.Width) * (maxValue - fixedMinValue)) / (float32(b.Width) - 2*float32(style[SliderBorderWidth]))
// Draw control // Draw control
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[SliderbarBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[SliderbarBorderColor])))
raylib.DrawRectangle(b.X+int32(style[SliderBorderWidth]), b.Y+int32(style[SliderBorderWidth]), b.Width-(2*int32(style[SliderBorderWidth])), b.Height-(2*int32(style[SliderBorderWidth])), raylib.GetColor(int32(style[SliderbarInsideColor]))) rl.DrawRectangle(b.X+int32(style[SliderBorderWidth]), b.Y+int32(style[SliderBorderWidth]), b.Width-(2*int32(style[SliderBorderWidth])), b.Height-(2*int32(style[SliderBorderWidth])), rl.GetColor(int32(style[SliderbarInsideColor])))
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, raylib.GetColor(int32(style[SliderbarDefaultColor]))) rl.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, rl.GetColor(int32(style[SliderbarDefaultColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, raylib.GetColor(int32(style[SliderbarHoverColor]))) rl.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, rl.GetColor(int32(style[SliderbarHoverColor])))
break break
case Pressed: case Pressed:
raylib.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, raylib.GetColor(int32(style[SliderbarActiveColor]))) rl.DrawRectangle(sliderBar.X, sliderBar.Y, sliderBar.Width, sliderBar.Height, rl.GetColor(int32(style[SliderbarActiveColor])))
break break
default: default:
break break
} }
if minValue < 0 && maxValue > 0 { if minValue < 0 && maxValue > 0 {
raylib.DrawRectangle((b.X+int32(style[SliderBorderWidth]))-int32(minValue*(float32(b.Width-(int32(style[SliderBorderWidth])*2))/maxValue)), sliderBar.Y, 1, sliderBar.Height, raylib.GetColor(int32(style[SliderbarZeroLineColor]))) rl.DrawRectangle((b.X+int32(style[SliderBorderWidth]))-int32(minValue*(float32(b.Width-(int32(style[SliderBorderWidth])*2))/maxValue)), sliderBar.Y, 1, sliderBar.Height, rl.GetColor(int32(style[SliderbarZeroLineColor])))
} }
return fixedValue + minValue return fixedValue + minValue
} }
// ProgressBar - Progress Bar element, shows current progress value // ProgressBar - Progress Bar element, shows current progress value
func ProgressBar(bounds raylib.Rectangle, value float32) { func ProgressBar(bounds rl.Rectangle, value float32) {
b := bounds.ToInt32() b := bounds.ToInt32()
if value > 1.0 { if value > 1.0 {
value = 1.0 value = 1.0
@ -803,39 +803,39 @@ func ProgressBar(bounds raylib.Rectangle, value float32) {
value = 0.0 value = 0.0
} }
progressBar := raylib.RectangleInt32{b.X + int32(style[ProgressbarBorderWidth]), b.Y + int32(style[ProgressbarBorderWidth]), b.Width - (int32(style[ProgressbarBorderWidth]) * 2), b.Height - (int32(style[ProgressbarBorderWidth]) * 2)} progressBar := rl.RectangleInt32{b.X + int32(style[ProgressbarBorderWidth]), b.Y + int32(style[ProgressbarBorderWidth]), b.Width - (int32(style[ProgressbarBorderWidth]) * 2), b.Height - (int32(style[ProgressbarBorderWidth]) * 2)}
progressValue := raylib.RectangleInt32{b.X + int32(style[ProgressbarBorderWidth]), b.Y + int32(style[ProgressbarBorderWidth]), int32(value * float32(b.Width-int32(style[ProgressbarBorderWidth])*2)), b.Height - (int32(style[ProgressbarBorderWidth]) * 2)} progressValue := rl.RectangleInt32{b.X + int32(style[ProgressbarBorderWidth]), b.Y + int32(style[ProgressbarBorderWidth]), int32(value * float32(b.Width-int32(style[ProgressbarBorderWidth])*2)), b.Height - (int32(style[ProgressbarBorderWidth]) * 2)}
// Draw control // Draw control
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ProgressbarBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ProgressbarBorderColor])))
raylib.DrawRectangle(progressBar.X, progressBar.Y, progressBar.Width, progressBar.Height, raylib.GetColor(int32(style[ProgressbarInsideColor]))) rl.DrawRectangle(progressBar.X, progressBar.Y, progressBar.Width, progressBar.Height, rl.GetColor(int32(style[ProgressbarInsideColor])))
raylib.DrawRectangle(progressValue.X, progressValue.Y, progressValue.Width, progressValue.Height, raylib.GetColor(int32(style[ProgressbarProgressColor]))) rl.DrawRectangle(progressValue.X, progressValue.Y, progressValue.Width, progressValue.Height, rl.GetColor(int32(style[ProgressbarProgressColor])))
} }
// Spinner - Spinner element, returns selected value // Spinner - Spinner element, returns selected value
func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int { func Spinner(bounds rl.Rectangle, value, minValue, maxValue int) int {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
labelBoxBound := raylib.RectangleInt32{b.X + b.Width/4 + 1, b.Y, b.Width / 2, b.Height} labelBoxBound := rl.RectangleInt32{b.X + b.Width/4 + 1, b.Y, b.Width / 2, b.Height}
leftButtonBound := raylib.RectangleInt32{b.X, b.Y, b.Width / 4, b.Height} leftButtonBound := rl.RectangleInt32{b.X, b.Y, b.Width / 4, b.Height}
rightButtonBound := raylib.RectangleInt32{b.X + b.Width - b.Width/4 + 1, b.Y, b.Width / 4, b.Height} rightButtonBound := rl.RectangleInt32{b.X + b.Width - b.Width/4 + 1, b.Y, b.Width / 4, b.Height}
textWidth := raylib.MeasureText(fmt.Sprintf("%d", value), int32(style[GlobalTextFontsize])) textWidth := rl.MeasureText(fmt.Sprintf("%d", value), int32(style[GlobalTextFontsize]))
buttonSide := 0 buttonSide := 0
// Update control // Update control
if raylib.CheckCollisionPointRec(mousePoint, leftButtonBound.ToFloat32()) || raylib.CheckCollisionPointRec(mousePoint, rightButtonBound.ToFloat32()) || raylib.CheckCollisionPointRec(mousePoint, labelBoxBound.ToFloat32()) { if rl.CheckCollisionPointRec(mousePoint, leftButtonBound.ToFloat32()) || rl.CheckCollisionPointRec(mousePoint, rightButtonBound.ToFloat32()) || rl.CheckCollisionPointRec(mousePoint, labelBoxBound.ToFloat32()) {
if raylib.IsKeyDown(raylib.KeyLeft) { if rl.IsKeyDown(rl.KeyLeft) {
state = Pressed state = Pressed
buttonSide = 1 buttonSide = 1
if value > minValue { if value > minValue {
value-- value--
} }
} else if raylib.IsKeyDown(raylib.KeyRight) { } else if rl.IsKeyDown(rl.KeyRight) {
state = Pressed state = Pressed
buttonSide = 2 buttonSide = 2
@ -845,11 +845,11 @@ func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int {
} }
} }
if raylib.CheckCollisionPointRec(mousePoint, leftButtonBound.ToFloat32()) { if rl.CheckCollisionPointRec(mousePoint, leftButtonBound.ToFloat32()) {
buttonSide = 1 buttonSide = 1
state = Focused state = Focused
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
if !valueSpeed { if !valueSpeed {
if value > minValue { if value > minValue {
value-- value--
@ -867,11 +867,11 @@ func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int {
} }
} }
} }
} else if raylib.CheckCollisionPointRec(mousePoint, rightButtonBound.ToFloat32()) { } else if rl.CheckCollisionPointRec(mousePoint, rightButtonBound.ToFloat32()) {
buttonSide = 2 buttonSide = 2
state = Focused state = Focused
if raylib.IsMouseButtonDown(raylib.MouseLeftButton) { if rl.IsMouseButtonDown(rl.MouseLeftButton) {
if !valueSpeed { if !valueSpeed {
if value < maxValue { if value < maxValue {
value++ value++
@ -889,11 +889,11 @@ func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int {
} }
} }
} }
} else if !raylib.CheckCollisionPointRec(mousePoint, labelBoxBound.ToFloat32()) { } else if !rl.CheckCollisionPointRec(mousePoint, labelBoxBound.ToFloat32()) {
buttonSide = 0 buttonSide = 0
} }
if raylib.IsMouseButtonUp(raylib.MouseLeftButton) { if rl.IsMouseButtonUp(rl.MouseLeftButton) {
valueSpeed = false valueSpeed = false
framesCounter = 0 framesCounter = 0
} }
@ -901,71 +901,71 @@ func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int {
// Draw control // Draw control
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(raylib.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(rl.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
raylib.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(raylib.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(rl.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
raylib.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, raylib.GetColor(int32(style[SpinnerLabelBorderColor]))) rl.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, rl.GetColor(int32(style[SpinnerLabelBorderColor])))
raylib.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, raylib.GetColor(int32(style[SpinnerLabelInsideColor]))) rl.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, rl.GetColor(int32(style[SpinnerLabelInsideColor])))
raylib.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultTextColor]))) rl.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultTextColor])))
break break
case Focused: case Focused:
if buttonSide == 1 { if buttonSide == 1 {
raylib.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, raylib.GetColor(int32(style[SpinnerHoverButtonBorderColor]))) rl.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, rl.GetColor(int32(style[SpinnerHoverButtonBorderColor])))
raylib.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerHoverButtonInsideColor]))) rl.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, rl.GetColor(int32(style[SpinnerHoverButtonInsideColor])))
raylib.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(raylib.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerHoverSymbolColor]))) rl.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(rl.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerHoverSymbolColor])))
raylib.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(raylib.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(rl.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
} else if buttonSide == 2 { } else if buttonSide == 2 {
raylib.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, raylib.GetColor(int32(style[SpinnerHoverButtonBorderColor]))) rl.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, rl.GetColor(int32(style[SpinnerHoverButtonBorderColor])))
raylib.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerHoverButtonInsideColor]))) rl.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, rl.GetColor(int32(style[SpinnerHoverButtonInsideColor])))
raylib.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(raylib.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(rl.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
raylib.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(raylib.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerHoverSymbolColor]))) rl.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(rl.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerHoverSymbolColor])))
} }
raylib.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, raylib.GetColor(int32(style[SpinnerLabelBorderColor]))) rl.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, rl.GetColor(int32(style[SpinnerLabelBorderColor])))
raylib.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, raylib.GetColor(int32(style[SpinnerLabelInsideColor]))) rl.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, rl.GetColor(int32(style[SpinnerLabelInsideColor])))
raylib.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerHoverTextColor]))) rl.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerHoverTextColor])))
break break
case Pressed: case Pressed:
if buttonSide == 1 { if buttonSide == 1 {
raylib.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, raylib.GetColor(int32(style[SpinnerPressedButtonBorderColor]))) rl.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, rl.GetColor(int32(style[SpinnerPressedButtonBorderColor])))
raylib.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerPressedButtonInsideColor]))) rl.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, rl.GetColor(int32(style[SpinnerPressedButtonInsideColor])))
raylib.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(raylib.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerPressedSymbolColor]))) rl.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(rl.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerPressedSymbolColor])))
raylib.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(raylib.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(rl.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
} else if buttonSide == 2 { } else if buttonSide == 2 {
raylib.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, raylib.GetColor(int32(style[SpinnerDefaultButtonBorderColor]))) rl.DrawRectangle(leftButtonBound.X, leftButtonBound.Y, leftButtonBound.Width, leftButtonBound.Height, rl.GetColor(int32(style[SpinnerDefaultButtonBorderColor])))
raylib.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerDefaultButtonInsideColor]))) rl.DrawRectangle(leftButtonBound.X+2, leftButtonBound.Y+2, leftButtonBound.Width-4, leftButtonBound.Height-4, rl.GetColor(int32(style[SpinnerDefaultButtonInsideColor])))
raylib.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, raylib.GetColor(int32(style[SpinnerPressedButtonBorderColor]))) rl.DrawRectangle(rightButtonBound.X, rightButtonBound.Y, rightButtonBound.Width, rightButtonBound.Height, rl.GetColor(int32(style[SpinnerPressedButtonBorderColor])))
raylib.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, raylib.GetColor(int32(style[SpinnerPressedButtonInsideColor]))) rl.DrawRectangle(rightButtonBound.X+2, rightButtonBound.Y+2, rightButtonBound.Width-4, rightButtonBound.Height-4, rl.GetColor(int32(style[SpinnerPressedButtonInsideColor])))
raylib.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(raylib.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerDefaultSymbolColor]))) rl.DrawText("-", leftButtonBound.X+(leftButtonBound.Width/2-(rl.MeasureText("+", int32(style[GlobalTextFontsize])))/2), leftButtonBound.Y+(leftButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerDefaultSymbolColor])))
raylib.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(raylib.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerPressedSymbolColor]))) rl.DrawText("+", rightButtonBound.X+(rightButtonBound.Width/2-(rl.MeasureText("-", int32(style[GlobalTextFontsize])))/2), rightButtonBound.Y+(rightButtonBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerPressedSymbolColor])))
} }
raylib.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, raylib.GetColor(int32(style[SpinnerLabelBorderColor]))) rl.DrawRectangle(labelBoxBound.X, labelBoxBound.Y, labelBoxBound.Width, labelBoxBound.Height, rl.GetColor(int32(style[SpinnerLabelBorderColor])))
raylib.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, raylib.GetColor(int32(style[SpinnerLabelInsideColor]))) rl.DrawRectangle(labelBoxBound.X+1, labelBoxBound.Y+1, labelBoxBound.Width-2, labelBoxBound.Height-2, rl.GetColor(int32(style[SpinnerLabelInsideColor])))
raylib.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), raylib.GetColor(int32(style[SpinnerPressedTextColor]))) rl.DrawText(fmt.Sprintf("%d", value), labelBoxBound.X+(labelBoxBound.Width/2-textWidth/2), labelBoxBound.Y+(labelBoxBound.Height/2-(int32(style[GlobalTextFontsize])/2)), int32(style[GlobalTextFontsize]), rl.GetColor(int32(style[SpinnerPressedTextColor])))
break break
default: default:
break break
@ -975,27 +975,27 @@ func Spinner(bounds raylib.Rectangle, value, minValue, maxValue int) int {
} }
// TextBox - Text Box element, updates input text // TextBox - Text Box element, updates input text
func TextBox(bounds raylib.Rectangle, text string) string { func TextBox(bounds rl.Rectangle, text string) string {
b := bounds.ToInt32() b := bounds.ToInt32()
state := Normal state := Normal
mousePoint := raylib.GetMousePosition() mousePoint := rl.GetMousePosition()
letter := int32(-1) letter := int32(-1)
// Update control // Update control
if raylib.CheckCollisionPointRec(mousePoint, bounds) { if rl.CheckCollisionPointRec(mousePoint, bounds) {
state = Focused // NOTE: PRESSED state is not used on this control state = Focused // NOTE: PRESSED state is not used on this control
framesCounter2++ framesCounter2++
letter = raylib.GetKeyPressed() letter = rl.GetKeyPressed()
if letter != -1 { if letter != -1 {
if letter >= 32 && letter < 127 { if letter >= 32 && letter < 127 {
text = fmt.Sprintf("%s%c", text, letter) text = fmt.Sprintf("%s%c", text, letter)
} }
} }
if raylib.IsKeyPressed(raylib.KeyBackspace) { if rl.IsKeyPressed(rl.KeyBackspace) {
if len(text) > 0 { if len(text) > 0 {
text = text[:len(text)-1] text = text[:len(text)-1]
} }
@ -1005,17 +1005,17 @@ func TextBox(bounds raylib.Rectangle, text string) string {
// Draw control // Draw control
switch state { switch state {
case Normal: case Normal:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[TextboxBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[TextboxBorderColor])))
raylib.DrawRectangle(b.X+int32(style[TextboxBorderWidth]), b.Y+int32(style[TextboxBorderWidth]), b.Width-(int32(style[TextboxBorderWidth])*2), b.Height-(int32(style[TextboxBorderWidth])*2), raylib.GetColor(int32(style[TextboxInsideColor]))) rl.DrawRectangle(b.X+int32(style[TextboxBorderWidth]), b.Y+int32(style[TextboxBorderWidth]), b.Width-(int32(style[TextboxBorderWidth])*2), b.Height-(int32(style[TextboxBorderWidth])*2), rl.GetColor(int32(style[TextboxInsideColor])))
raylib.DrawText(text, b.X+2, b.Y+int32(style[TextboxBorderWidth])+b.Height/2-int32(style[TextboxTextFontsize])/2, int32(style[TextboxTextFontsize]), raylib.GetColor(int32(style[TextboxTextColor]))) rl.DrawText(text, b.X+2, b.Y+int32(style[TextboxBorderWidth])+b.Height/2-int32(style[TextboxTextFontsize])/2, int32(style[TextboxTextFontsize]), rl.GetColor(int32(style[TextboxTextColor])))
break break
case Focused: case Focused:
raylib.DrawRectangle(b.X, b.Y, b.Width, b.Height, raylib.GetColor(int32(style[ToggleActiveBorderColor]))) rl.DrawRectangle(b.X, b.Y, b.Width, b.Height, rl.GetColor(int32(style[ToggleActiveBorderColor])))
raylib.DrawRectangle(b.X+int32(style[TextboxBorderWidth]), b.Y+int32(style[TextboxBorderWidth]), b.Width-(int32(style[TextboxBorderWidth])*2), b.Height-(int32(style[TextboxBorderWidth])*2), raylib.GetColor(int32(style[TextboxInsideColor]))) rl.DrawRectangle(b.X+int32(style[TextboxBorderWidth]), b.Y+int32(style[TextboxBorderWidth]), b.Width-(int32(style[TextboxBorderWidth])*2), b.Height-(int32(style[TextboxBorderWidth])*2), rl.GetColor(int32(style[TextboxInsideColor])))
raylib.DrawText(text, b.X+2, b.Y+int32(style[TextboxBorderWidth])+b.Height/2-int32(style[TextboxTextFontsize])/2, int32(style[TextboxTextFontsize]), raylib.GetColor(int32(style[TextboxTextColor]))) rl.DrawText(text, b.X+2, b.Y+int32(style[TextboxBorderWidth])+b.Height/2-int32(style[TextboxTextFontsize])/2, int32(style[TextboxTextFontsize]), rl.GetColor(int32(style[TextboxTextColor])))
if (framesCounter2/20)%2 == 0 && raylib.CheckCollisionPointRec(mousePoint, bounds) { if (framesCounter2/20)%2 == 0 && rl.CheckCollisionPointRec(mousePoint, bounds) {
raylib.DrawRectangle(b.X+4+raylib.MeasureText(text, int32(style[GlobalTextFontsize])), b.Y+2, 1, b.Height-4, raylib.GetColor(int32(style[TextboxLineColor]))) rl.DrawRectangle(b.X+4+rl.MeasureText(text, int32(style[GlobalTextFontsize])), b.Y+2, 1, b.Height-4, rl.GetColor(int32(style[TextboxLineColor])))
} }
break break
case Pressed: case Pressed:
@ -1039,9 +1039,9 @@ func SaveGuiStyle(fileName string) {
// LoadGuiStyle - Load GUI style file // LoadGuiStyle - Load GUI style file
func LoadGuiStyle(fileName string) { func LoadGuiStyle(fileName string) {
file, err := raylib.OpenAsset(fileName) file, err := rl.OpenAsset(fileName)
if err != nil { if err != nil {
raylib.TraceLog(raylib.LogWarning, "[%s] GUI style file could not be opened", fileName) rl.TraceLog(rl.LogWarning, "[%s] GUI style file could not be opened", fileName)
return return
} }
defer file.Close() defer file.Close()

265
raylib/audio.c
View file

@ -19,7 +19,7 @@
* Required types and functions are defined in the same module. * Required types and functions are defined in the same module.
* *
* #define USE_OPENAL_BACKEND * #define USE_OPENAL_BACKEND
* Use OpenAL Soft audio backend usage * Use OpenAL Soft audio backend
* *
* #define SUPPORT_FILEFORMAT_WAV * #define SUPPORT_FILEFORMAT_WAV
* #define SUPPORT_FILEFORMAT_OGG * #define SUPPORT_FILEFORMAT_OGG
@ -75,20 +75,19 @@
* *
**********************************************************************************************/ **********************************************************************************************/
#include "config.h"
#if !defined(USE_OPENAL_BACKEND)
#define USE_MINI_AL 1 // Set to 1 to use mini_al; 0 to use OpenAL.
#endif
#if defined(AUDIO_STANDALONE) #if defined(AUDIO_STANDALONE)
#include "audio.h" #include "audio.h"
#include <stdarg.h> // Required for: va_list, va_start(), vfprintf(), va_end() #include <stdarg.h> // Required for: va_list, va_start(), vfprintf(), va_end()
#else #else
#include "raylib.h" #include "config.h" // Defines module configuration flags
#include "raylib.h" // Declares module functions
#include "utils.h" // Required for: fopen() Android mapping #include "utils.h" // Required for: fopen() Android mapping
#endif #endif
#if !defined(USE_OPENAL_BACKEND)
#define USE_MINI_AL 1 // Set to 1 to use mini_al; 0 to use OpenAL.
#endif
#include "external/mini_al.h" // Implemented in mini_al.c. Cannot implement this here because it conflicts with Win32 APIs such as CloseWindow(), etc. #include "external/mini_al.h" // Implemented in mini_al.c. Cannot implement this here because it conflicts with Win32 APIs such as CloseWindow(), etc.
#if !defined(USE_MINI_AL) || (USE_MINI_AL == 0) #if !defined(USE_MINI_AL) || (USE_MINI_AL == 0)
@ -166,6 +165,7 @@
typedef enum { typedef enum {
MUSIC_AUDIO_OGG = 0, MUSIC_AUDIO_OGG = 0,
MUSIC_AUDIO_FLAC, MUSIC_AUDIO_FLAC,
MUSIC_AUDIO_MP3,
MUSIC_MODULE_XM, MUSIC_MODULE_XM,
MUSIC_MODULE_MOD MUSIC_MODULE_MOD
} MusicContextType; } MusicContextType;
@ -179,6 +179,9 @@ typedef struct MusicData {
#if defined(SUPPORT_FILEFORMAT_FLAC) #if defined(SUPPORT_FILEFORMAT_FLAC)
drflac *ctxFlac; // FLAC audio context drflac *ctxFlac; // FLAC audio context
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
drmp3 ctxMp3; // MP3 audio context
#endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
jar_xm_context_t *ctxXm; // XM chiptune context jar_xm_context_t *ctxXm; // XM chiptune context
#endif #endif
@ -220,6 +223,9 @@ static Wave LoadOGG(const char *fileName); // Load OGG file
#if defined(SUPPORT_FILEFORMAT_FLAC) #if defined(SUPPORT_FILEFORMAT_FLAC)
static Wave LoadFLAC(const char *fileName); // Load FLAC file static Wave LoadFLAC(const char *fileName); // Load FLAC file
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
static Wave LoadMP3(const char *fileName); // Load MP3 file
#endif
#if defined(AUDIO_STANDALONE) #if defined(AUDIO_STANDALONE)
bool IsFileExtension(const char *fileName, const char *ext); // Check file extension bool IsFileExtension(const char *fileName, const char *ext); // Check file extension
@ -304,7 +310,7 @@ static mal_uint32 OnSendAudioDataToDevice(mal_device *pDevice, mal_uint32 frameC
(void)pDevice; (void)pDevice;
// Mixing is basically just an accumulation. We need to initialize the output buffer to 0. // Mixing is basically just an accumulation. We need to initialize the output buffer to 0.
memset(pFramesOut, 0, frameCount*pDevice->channels*mal_get_sample_size_in_bytes(pDevice->format)); memset(pFramesOut, 0, frameCount*pDevice->channels*mal_get_bytes_per_sample(pDevice->format));
// Using a mutex here for thread-safety which makes things not real-time. This is unlikely to be necessary for this project, but may // Using a mutex here for thread-safety which makes things not real-time. This is unlikely to be necessary for this project, but may
// want to consider how you might want to avoid this. // want to consider how you might want to avoid this.
@ -338,11 +344,7 @@ static mal_uint32 OnSendAudioDataToDevice(mal_device *pDevice, mal_uint32 frameC
framesToReadRightNow = sizeof(tempBuffer)/sizeof(tempBuffer[0])/DEVICE_CHANNELS; framesToReadRightNow = sizeof(tempBuffer)/sizeof(tempBuffer[0])/DEVICE_CHANNELS;
} }
// If we're not looping, we need to make sure we flush the internal buffers of the DSP pipeline to ensure we get the mal_uint32 framesJustRead = (mal_uint32)mal_dsp_read(&audioBuffer->dsp, framesToReadRightNow, tempBuffer, audioBuffer->dsp.pUserData);
// last few samples.
bool flushDSP = !audioBuffer->looping;
mal_uint32 framesJustRead = mal_dsp_read_frames_ex(&audioBuffer->dsp, framesToReadRightNow, tempBuffer, flushDSP);
if (framesJustRead > 0) if (framesJustRead > 0)
{ {
float *framesOut = (float *)pFramesOut + (framesRead*device.channels); float *framesOut = (float *)pFramesOut + (framesRead*device.channels);
@ -402,7 +404,7 @@ static mal_uint32 OnAudioBufferDSPRead(mal_dsp *pDSP, mal_uint32 frameCount, voi
isSubBufferProcessed[0] = audioBuffer->isSubBufferProcessed[0]; isSubBufferProcessed[0] = audioBuffer->isSubBufferProcessed[0];
isSubBufferProcessed[1] = audioBuffer->isSubBufferProcessed[1]; isSubBufferProcessed[1] = audioBuffer->isSubBufferProcessed[1];
mal_uint32 frameSizeInBytes = mal_get_sample_size_in_bytes(audioBuffer->dsp.config.formatIn)*audioBuffer->dsp.config.channelsIn; mal_uint32 frameSizeInBytes = mal_get_bytes_per_sample(audioBuffer->dsp.formatConverterIn.config.formatIn)*audioBuffer->dsp.formatConverterIn.config.channels;
// Fill out every frame until we find a buffer that's marked as processed. Then fill the remainder with 0. // Fill out every frame until we find a buffer that's marked as processed. Then fill the remainder with 0.
mal_uint32 framesRead = 0; mal_uint32 framesRead = 0;
@ -648,7 +650,7 @@ void SetMasterVolume(float volume)
// Create a new audio buffer. Initially filled with silence // Create a new audio buffer. Initially filled with silence
AudioBuffer *CreateAudioBuffer(mal_format format, mal_uint32 channels, mal_uint32 sampleRate, mal_uint32 bufferSizeInFrames, AudioBufferUsage usage) AudioBuffer *CreateAudioBuffer(mal_format format, mal_uint32 channels, mal_uint32 sampleRate, mal_uint32 bufferSizeInFrames, AudioBufferUsage usage)
{ {
AudioBuffer *audioBuffer = (AudioBuffer *)calloc(sizeof(*audioBuffer) + (bufferSizeInFrames*channels*mal_get_sample_size_in_bytes(format)), 1); AudioBuffer *audioBuffer = (AudioBuffer *)calloc(sizeof(*audioBuffer) + (bufferSizeInFrames*channels*mal_get_bytes_per_sample(format)), 1);
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "CreateAudioBuffer() : Failed to allocate memory for audio buffer"); TraceLog(LOG_ERROR, "CreateAudioBuffer() : Failed to allocate memory for audio buffer");
@ -664,10 +666,13 @@ AudioBuffer *CreateAudioBuffer(mal_format format, mal_uint32 channels, mal_uint3
dspConfig.channelsOut = DEVICE_CHANNELS; dspConfig.channelsOut = DEVICE_CHANNELS;
dspConfig.sampleRateIn = sampleRate; dspConfig.sampleRateIn = sampleRate;
dspConfig.sampleRateOut = DEVICE_SAMPLE_RATE; dspConfig.sampleRateOut = DEVICE_SAMPLE_RATE;
mal_result resultMAL = mal_dsp_init(&dspConfig, OnAudioBufferDSPRead, audioBuffer, &audioBuffer->dsp); dspConfig.onRead = OnAudioBufferDSPRead;
dspConfig.pUserData = audioBuffer;
dspConfig.allowDynamicSampleRate = MAL_TRUE; // <-- Required for pitch shifting.
mal_result resultMAL = mal_dsp_init(&dspConfig, &audioBuffer->dsp);
if (resultMAL != MAL_SUCCESS) if (resultMAL != MAL_SUCCESS)
{ {
TraceLog(LOG_ERROR, "LoadSoundFromWave() : Failed to create data conversion pipeline"); TraceLog(LOG_ERROR, "CreateAudioBuffer() : Failed to create data conversion pipeline");
free(audioBuffer); free(audioBuffer);
return NULL; return NULL;
} }
@ -695,7 +700,7 @@ void DeleteAudioBuffer(AudioBuffer *audioBuffer)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "DeleteAudioBuffer() : No audio buffer");
return; return;
} }
@ -708,7 +713,7 @@ bool IsAudioBufferPlaying(AudioBuffer *audioBuffer)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "IsAudioBufferPlaying() : No audio buffer");
return false; return false;
} }
@ -736,7 +741,7 @@ void StopAudioBuffer(AudioBuffer *audioBuffer)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "StopAudioBuffer() : No audio buffer");
return; return;
} }
@ -755,7 +760,7 @@ void PauseAudioBuffer(AudioBuffer *audioBuffer)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "PauseAudioBuffer() : No audio buffer");
return; return;
} }
@ -767,7 +772,7 @@ void ResumeAudioBuffer(AudioBuffer *audioBuffer)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "ResumeAudioBuffer() : No audio buffer");
return; return;
} }
@ -779,7 +784,7 @@ void SetAudioBufferVolume(AudioBuffer *audioBuffer, float volume)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "SetAudioBufferVolume() : No audio buffer");
return; return;
} }
@ -791,7 +796,7 @@ void SetAudioBufferPitch(AudioBuffer *audioBuffer, float pitch)
{ {
if (audioBuffer == NULL) if (audioBuffer == NULL)
{ {
TraceLog(LOG_ERROR, "PlayAudioBuffer() : No audio buffer"); TraceLog(LOG_ERROR, "SetAudioBufferPitch() : No audio buffer");
return; return;
} }
@ -799,7 +804,7 @@ void SetAudioBufferPitch(AudioBuffer *audioBuffer, float pitch)
// Pitching is just an adjustment of the sample rate. Note that this changes the duration of the sound - higher pitches // Pitching is just an adjustment of the sample rate. Note that this changes the duration of the sound - higher pitches
// will make the sound faster; lower pitches make it slower. // will make the sound faster; lower pitches make it slower.
mal_uint32 newOutputSampleRate = (mal_uint32)((((float)audioBuffer->dsp.config.sampleRateOut / (float)audioBuffer->dsp.config.sampleRateIn) / pitch) * audioBuffer->dsp.config.sampleRateIn); mal_uint32 newOutputSampleRate = (mal_uint32)((((float)audioBuffer->dsp.src.config.sampleRateOut / (float)audioBuffer->dsp.src.config.sampleRateIn) / pitch) * audioBuffer->dsp.src.config.sampleRateIn);
mal_dsp_set_output_sample_rate(&audioBuffer->dsp, newOutputSampleRate); mal_dsp_set_output_sample_rate(&audioBuffer->dsp, newOutputSampleRate);
} }
@ -857,6 +862,9 @@ Wave LoadWave(const char *fileName)
#endif #endif
#if defined(SUPPORT_FILEFORMAT_FLAC) #if defined(SUPPORT_FILEFORMAT_FLAC)
else if (IsFileExtension(fileName, ".flac")) wave = LoadFLAC(fileName); else if (IsFileExtension(fileName, ".flac")) wave = LoadFLAC(fileName);
#endif
#if defined(SUPPORT_FILEFORMAT_MP3)
else if (IsFileExtension(fileName, ".mp3")) wave = LoadMP3(fileName);
#endif #endif
else TraceLog(LOG_WARNING, "[%s] Audio fileformat not supported, it can't be loaded", fileName); else TraceLog(LOG_WARNING, "[%s] Audio fileformat not supported, it can't be loaded", fileName);
@ -915,13 +923,13 @@ Sound LoadSoundFromWave(Wave wave)
mal_format formatIn = ((wave.sampleSize == 8) ? mal_format_u8 : ((wave.sampleSize == 16) ? mal_format_s16 : mal_format_f32)); mal_format formatIn = ((wave.sampleSize == 8) ? mal_format_u8 : ((wave.sampleSize == 16) ? mal_format_s16 : mal_format_f32));
mal_uint32 frameCountIn = wave.sampleCount; // Is wave->sampleCount actually the frame count? That terminology needs to change, if so. mal_uint32 frameCountIn = wave.sampleCount; // Is wave->sampleCount actually the frame count? That terminology needs to change, if so.
mal_uint32 frameCount = mal_convert_frames(NULL, DEVICE_FORMAT, DEVICE_CHANNELS, DEVICE_SAMPLE_RATE, NULL, formatIn, wave.channels, wave.sampleRate, frameCountIn); mal_uint32 frameCount = (mal_uint32)mal_convert_frames(NULL, DEVICE_FORMAT, DEVICE_CHANNELS, DEVICE_SAMPLE_RATE, NULL, formatIn, wave.channels, wave.sampleRate, frameCountIn);
if (frameCount == 0) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Failed to get frame count for format conversion"); if (frameCount == 0) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Failed to get frame count for format conversion");
AudioBuffer* audioBuffer = CreateAudioBuffer(DEVICE_FORMAT, DEVICE_CHANNELS, DEVICE_SAMPLE_RATE, frameCount, AUDIO_BUFFER_USAGE_STATIC); AudioBuffer* audioBuffer = CreateAudioBuffer(DEVICE_FORMAT, DEVICE_CHANNELS, DEVICE_SAMPLE_RATE, frameCount, AUDIO_BUFFER_USAGE_STATIC);
if (audioBuffer == NULL) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Failed to create audio buffer"); if (audioBuffer == NULL) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Failed to create audio buffer");
frameCount = mal_convert_frames(audioBuffer->buffer, audioBuffer->dsp.config.formatIn, audioBuffer->dsp.config.channelsIn, audioBuffer->dsp.config.sampleRateIn, wave.data, formatIn, wave.channels, wave.sampleRate, frameCountIn); frameCount = (mal_uint32)mal_convert_frames(audioBuffer->buffer, audioBuffer->dsp.formatConverterIn.config.formatIn, audioBuffer->dsp.formatConverterIn.config.channels, audioBuffer->dsp.src.config.sampleRateIn, wave.data, formatIn, wave.channels, wave.sampleRate, frameCountIn);
if (frameCount == 0) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Format conversion failed"); if (frameCount == 0) TraceLog(LOG_WARNING, "LoadSoundFromWave() : Format conversion failed");
sound.audioBuffer = audioBuffer; sound.audioBuffer = audioBuffer;
@ -1023,7 +1031,7 @@ void UpdateSound(Sound sound, const void *data, int samplesCount)
StopAudioBuffer(audioBuffer); StopAudioBuffer(audioBuffer);
// TODO: May want to lock/unlock this since this data buffer is read at mixing time. // TODO: May want to lock/unlock this since this data buffer is read at mixing time.
memcpy(audioBuffer->buffer, data, samplesCount*audioBuffer->dsp.config.channelsIn*mal_get_sample_size_in_bytes(audioBuffer->dsp.config.formatIn)); memcpy(audioBuffer->buffer, data, samplesCount*audioBuffer->dsp.formatConverterIn.config.channels*mal_get_bytes_per_sample(audioBuffer->dsp.formatConverterIn.config.formatIn));
#else #else
ALint sampleRate, sampleSize, channels; ALint sampleRate, sampleSize, channels;
alGetBufferi(sound.buffer, AL_FREQUENCY, &sampleRate); alGetBufferi(sound.buffer, AL_FREQUENCY, &sampleRate);
@ -1049,6 +1057,89 @@ void UpdateSound(Sound sound, const void *data, int samplesCount)
#endif #endif
} }
// Export wave data to file
void ExportWave(Wave wave, const char *fileName)
{
bool success = false;
if (IsFileExtension(fileName, ".wav"))
{
// Basic WAV headers structs
typedef struct {
char chunkID[4];
int chunkSize;
char format[4];
} RiffHeader;
typedef struct {
char subChunkID[4];
int subChunkSize;
short audioFormat;
short numChannels;
int sampleRate;
int byteRate;
short blockAlign;
short bitsPerSample;
} WaveFormat;
typedef struct {
char subChunkID[4];
int subChunkSize;
} WaveData;
RiffHeader riffHeader;
WaveFormat waveFormat;
WaveData waveData;
// Fill structs with data
riffHeader.chunkID[0] = 'R';
riffHeader.chunkID[1] = 'I';
riffHeader.chunkID[2] = 'F';
riffHeader.chunkID[3] = 'F';
riffHeader.chunkSize = 44 - 4 + wave.sampleCount*wave.sampleSize/8;
riffHeader.format[0] = 'W';
riffHeader.format[1] = 'A';
riffHeader.format[2] = 'V';
riffHeader.format[3] = 'E';
waveFormat.subChunkID[0] = 'f';
waveFormat.subChunkID[1] = 'm';
waveFormat.subChunkID[2] = 't';
waveFormat.subChunkID[3] = ' ';
waveFormat.subChunkSize = 16;
waveFormat.audioFormat = 1;
waveFormat.numChannels = wave.channels;
waveFormat.sampleRate = wave.sampleRate;
waveFormat.byteRate = wave.sampleRate*wave.sampleSize/8;
waveFormat.blockAlign = wave.sampleSize/8;
waveFormat.bitsPerSample = wave.sampleSize;
waveData.subChunkID[0] = 'd';
waveData.subChunkID[1] = 'a';
waveData.subChunkID[2] = 't';
waveData.subChunkID[3] = 'a';
waveData.subChunkSize = wave.sampleCount*wave.channels*wave.sampleSize/8;
FILE *wavFile = fopen(fileName, "wb");
if (wavFile == NULL) return;
fwrite(&riffHeader, 1, sizeof(RiffHeader), wavFile);
fwrite(&waveFormat, 1, sizeof(WaveFormat), wavFile);
fwrite(&waveData, 1, sizeof(WaveData), wavFile);
fwrite(wave.data, 1, wave.sampleCount*wave.channels*wave.sampleSize/8, wavFile);
fclose(wavFile);
success = true;
}
else if (IsFileExtension(fileName, ".raw")) { } // TODO: Support additional file formats to export wave sample data
if (success) TraceLog(LOG_INFO, "Wave exported successfully: %s", fileName);
else TraceLog(LOG_WARNING, "Wave could not be exported.");
}
// Play a sound // Play a sound
void PlaySound(Sound sound) void PlaySound(Sound sound)
{ {
@ -1153,7 +1244,7 @@ void WaveFormat(Wave *wave, int sampleRate, int sampleSize, int channels)
mal_uint32 frameCountIn = wave->sampleCount; // Is wave->sampleCount actually the frame count? That terminology needs to change, if so. mal_uint32 frameCountIn = wave->sampleCount; // Is wave->sampleCount actually the frame count? That terminology needs to change, if so.
mal_uint32 frameCount = mal_convert_frames(NULL, formatOut, channels, sampleRate, NULL, formatIn, wave->channels, wave->sampleRate, frameCountIn); mal_uint32 frameCount = (mal_uint32)mal_convert_frames(NULL, formatOut, channels, sampleRate, NULL, formatIn, wave->channels, wave->sampleRate, frameCountIn);
if (frameCount == 0) if (frameCount == 0)
{ {
TraceLog(LOG_ERROR, "WaveFormat() : Failed to get frame count for format conversion."); TraceLog(LOG_ERROR, "WaveFormat() : Failed to get frame count for format conversion.");
@ -1162,7 +1253,7 @@ void WaveFormat(Wave *wave, int sampleRate, int sampleSize, int channels)
void *data = malloc(frameCount*channels*(sampleSize/8)); void *data = malloc(frameCount*channels*(sampleSize/8));
frameCount = mal_convert_frames(data, formatOut, channels, sampleRate, wave->data, formatIn, wave->channels, wave->sampleRate, frameCountIn); frameCount = (mal_uint32)mal_convert_frames(data, formatOut, channels, sampleRate, wave->data, formatIn, wave->channels, wave->sampleRate, frameCountIn);
if (frameCount == 0) if (frameCount == 0)
{ {
TraceLog(LOG_ERROR, "WaveFormat() : Format conversion failed."); TraceLog(LOG_ERROR, "WaveFormat() : Format conversion failed.");
@ -1284,7 +1375,7 @@ Wave WaveCopy(Wave wave)
void WaveCrop(Wave *wave, int initSample, int finalSample) void WaveCrop(Wave *wave, int initSample, int finalSample)
{ {
if ((initSample >= 0) && (initSample < finalSample) && if ((initSample >= 0) && (initSample < finalSample) &&
(finalSample > 0) && (finalSample < wave->sampleCount)) (finalSample > 0) && ((unsigned int)finalSample < wave->sampleCount))
{ {
int sampleCount = finalSample - initSample; int sampleCount = finalSample - initSample;
@ -1304,9 +1395,9 @@ float *GetWaveData(Wave wave)
{ {
float *samples = (float *)malloc(wave.sampleCount*wave.channels*sizeof(float)); float *samples = (float *)malloc(wave.sampleCount*wave.channels*sizeof(float));
for (int i = 0; i < wave.sampleCount; i++) for (unsigned int i = 0; i < wave.sampleCount; i++)
{ {
for (int j = 0; j < wave.channels; j++) for (unsigned int j = 0; j < wave.channels; j++)
{ {
if (wave.sampleSize == 8) samples[wave.channels*i + j] = (float)(((unsigned char *)wave.data)[wave.channels*i + j] - 127)/256.0f; if (wave.sampleSize == 8) samples[wave.channels*i + j] = (float)(((unsigned char *)wave.data)[wave.channels*i + j] - 127)/256.0f;
else if (wave.sampleSize == 16) samples[wave.channels*i + j] = (float)((short *)wave.data)[wave.channels*i + j]/32767.0f; else if (wave.sampleSize == 16) samples[wave.channels*i + j] = (float)((short *)wave.data)[wave.channels*i + j]/32767.0f;
@ -1325,13 +1416,14 @@ float *GetWaveData(Wave wave)
Music LoadMusicStream(const char *fileName) Music LoadMusicStream(const char *fileName)
{ {
Music music = (MusicData *)malloc(sizeof(MusicData)); Music music = (MusicData *)malloc(sizeof(MusicData));
bool musicLoaded = true;
if (IsFileExtension(fileName, ".ogg")) if (IsFileExtension(fileName, ".ogg"))
{ {
// Open ogg audio stream // Open ogg audio stream
music->ctxOgg = stb_vorbis_open_filename(fileName, NULL, NULL); music->ctxOgg = stb_vorbis_open_filename(fileName, NULL, NULL);
if (music->ctxOgg == NULL) TraceLog(LOG_WARNING, "[%s] OGG audio file could not be opened", fileName); if (music->ctxOgg == NULL) musicLoaded = false;
else else
{ {
stb_vorbis_info info = stb_vorbis_get_info(music->ctxOgg); // Get Ogg file info stb_vorbis_info info = stb_vorbis_get_info(music->ctxOgg); // Get Ogg file info
@ -1343,7 +1435,7 @@ Music LoadMusicStream(const char *fileName)
music->ctxType = MUSIC_AUDIO_OGG; music->ctxType = MUSIC_AUDIO_OGG;
music->loopCount = -1; // Infinite loop by default music->loopCount = -1; // Infinite loop by default
TraceLog(LOG_DEBUG, "[%s] FLAC total samples: %i", fileName, music->totalSamples); TraceLog(LOG_DEBUG, "[%s] OGG total samples: %i", fileName, music->totalSamples);
TraceLog(LOG_DEBUG, "[%s] OGG sample rate: %i", fileName, info.sample_rate); TraceLog(LOG_DEBUG, "[%s] OGG sample rate: %i", fileName, info.sample_rate);
TraceLog(LOG_DEBUG, "[%s] OGG channels: %i", fileName, info.channels); TraceLog(LOG_DEBUG, "[%s] OGG channels: %i", fileName, info.channels);
TraceLog(LOG_DEBUG, "[%s] OGG memory required: %i", fileName, info.temp_memory_required); TraceLog(LOG_DEBUG, "[%s] OGG memory required: %i", fileName, info.temp_memory_required);
@ -1354,7 +1446,7 @@ Music LoadMusicStream(const char *fileName)
{ {
music->ctxFlac = drflac_open_file(fileName); music->ctxFlac = drflac_open_file(fileName);
if (music->ctxFlac == NULL) TraceLog(LOG_WARNING, "[%s] FLAC audio file could not be opened", fileName); if (music->ctxFlac == NULL) musicLoaded = false;
else else
{ {
music->stream = InitAudioStream(music->ctxFlac->sampleRate, music->ctxFlac->bitsPerSample, music->ctxFlac->channels); music->stream = InitAudioStream(music->ctxFlac->sampleRate, music->ctxFlac->bitsPerSample, music->ctxFlac->channels);
@ -1370,6 +1462,27 @@ Music LoadMusicStream(const char *fileName)
} }
} }
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
else if (IsFileExtension(fileName, ".mp3"))
{
drmp3_init_file(&music->ctxMp3, fileName, NULL);
if (music->ctxMp3.framesRemaining <= 0) musicLoaded = false;
else
{
music->stream = InitAudioStream(music->ctxMp3.sampleRate, 16, music->ctxMp3.channels);
music->totalSamples = (unsigned int)music->ctxMp3.framesRemaining*music->ctxMp3.channels;
music->samplesLeft = music->totalSamples;
music->ctxType = MUSIC_AUDIO_MP3;
music->loopCount = -1; // Infinite loop by default
TraceLog(LOG_DEBUG, "[%s] MP3 total samples: %i", fileName, music->totalSamples);
TraceLog(LOG_DEBUG, "[%s] MP3 sample rate: %i", fileName, music->ctxMp3.sampleRate);
//TraceLog(LOG_DEBUG, "[%s] MP3 bits per sample: %i", fileName, music->ctxMp3.bitsPerSample);
TraceLog(LOG_DEBUG, "[%s] MP3 channels: %i", fileName, music->ctxMp3.channels);
}
}
#endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
else if (IsFileExtension(fileName, ".xm")) else if (IsFileExtension(fileName, ".xm"))
{ {
@ -1389,7 +1502,7 @@ Music LoadMusicStream(const char *fileName)
TraceLog(LOG_DEBUG, "[%s] XM number of samples: %i", fileName, music->totalSamples); TraceLog(LOG_DEBUG, "[%s] XM number of samples: %i", fileName, music->totalSamples);
TraceLog(LOG_DEBUG, "[%s] XM track length: %11.6f sec", fileName, (float)music->totalSamples/48000.0f); TraceLog(LOG_DEBUG, "[%s] XM track length: %11.6f sec", fileName, (float)music->totalSamples/48000.0f);
} }
else TraceLog(LOG_WARNING, "[%s] XM file could not be opened", fileName); else musicLoaded = false;
} }
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MOD) #if defined(SUPPORT_FILEFORMAT_MOD)
@ -1408,10 +1521,32 @@ Music LoadMusicStream(const char *fileName)
TraceLog(LOG_DEBUG, "[%s] MOD number of samples: %i", fileName, music->samplesLeft); TraceLog(LOG_DEBUG, "[%s] MOD number of samples: %i", fileName, music->samplesLeft);
TraceLog(LOG_DEBUG, "[%s] MOD track length: %11.6f sec", fileName, (float)music->totalSamples/48000.0f); TraceLog(LOG_DEBUG, "[%s] MOD track length: %11.6f sec", fileName, (float)music->totalSamples/48000.0f);
} }
else TraceLog(LOG_WARNING, "[%s] MOD file could not be opened", fileName); else musicLoaded = false;
} }
#endif #endif
else TraceLog(LOG_WARNING, "[%s] Audio fileformat not supported, it can't be loaded", fileName); else musicLoaded = false;
if (!musicLoaded)
{
if (music->ctxType == MUSIC_AUDIO_OGG) stb_vorbis_close(music->ctxOgg);
#if defined(SUPPORT_FILEFORMAT_FLAC)
else if (music->ctxType == MUSIC_AUDIO_FLAC) drflac_free(music->ctxFlac);
#endif
#if defined(SUPPORT_FILEFORMAT_MP3)
else if (music->ctxType == MUSIC_AUDIO_MP3) drmp3_uninit(&music->ctxMp3);
#endif
#if defined(SUPPORT_FILEFORMAT_XM)
else if (music->ctxType == MUSIC_MODULE_XM) jar_xm_free_context(music->ctxXm);
#endif
#if defined(SUPPORT_FILEFORMAT_MOD)
else if (music->ctxType == MUSIC_MODULE_MOD) jar_mod_unload(&music->ctxMod);
#endif
free(music);
music = NULL;
TraceLog(LOG_WARNING, "[%s] Music file could not be opened", fileName);
}
return music; return music;
} }
@ -1425,6 +1560,9 @@ void UnloadMusicStream(Music music)
#if defined(SUPPORT_FILEFORMAT_FLAC) #if defined(SUPPORT_FILEFORMAT_FLAC)
else if (music->ctxType == MUSIC_AUDIO_FLAC) drflac_free(music->ctxFlac); else if (music->ctxType == MUSIC_AUDIO_FLAC) drflac_free(music->ctxFlac);
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
else if (music->ctxType == MUSIC_AUDIO_MP3) drmp3_uninit(&music->ctxMp3);
#endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
else if (music->ctxType == MUSIC_MODULE_XM) jar_xm_free_context(music->ctxXm); else if (music->ctxType == MUSIC_MODULE_XM) jar_xm_free_context(music->ctxXm);
#endif #endif
@ -1516,7 +1654,10 @@ void StopMusicStream(Music music)
{ {
case MUSIC_AUDIO_OGG: stb_vorbis_seek_start(music->ctxOgg); break; case MUSIC_AUDIO_OGG: stb_vorbis_seek_start(music->ctxOgg); break;
#if defined(SUPPORT_FILEFORMAT_FLAC) #if defined(SUPPORT_FILEFORMAT_FLAC)
case MUSIC_MODULE_FLAC: /* TODO: Restart FLAC context */ break; case MUSIC_AUDIO_FLAC: /* TODO: Restart FLAC context */ break;
#endif
#if defined(SUPPORT_FILEFORMAT_MP3)
case MUSIC_AUDIO_MP3: /* TODO: Restart MP3 context */ break;
#endif #endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
case MUSIC_MODULE_XM: /* TODO: Restart XM context */ break; case MUSIC_MODULE_XM: /* TODO: Restart XM context */ break;
@ -1566,6 +1707,14 @@ void UpdateMusicStream(Music music)
} break; } break;
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
case MUSIC_AUDIO_MP3:
{
// NOTE: Returns the number of samples to process
unsigned int numSamplesMp3 = (unsigned int)drmp3_read_f32(&music->ctxMp3, samplesCount*music->stream.channels, (float *)pcm);
} break;
#endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
case MUSIC_MODULE_XM: jar_xm_generate_samples_16bit(music->ctxXm, pcm, samplesCount); break; case MUSIC_MODULE_XM: jar_xm_generate_samples_16bit(music->ctxXm, pcm, samplesCount); break;
#endif #endif
@ -1650,6 +1799,13 @@ void UpdateMusicStream(Music music)
} break; } break;
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
case MUSIC_AUDIO_MP3:
{
// NOTE: Returns the number of samples to process
unsigned int numSamplesMp3 = (unsigned int)drmp3_read_f32(&music->ctxMp3, samplesCount*music->stream.channels, (float *)pcm);
} break;
#endif
#if defined(SUPPORT_FILEFORMAT_XM) #if defined(SUPPORT_FILEFORMAT_XM)
case MUSIC_MODULE_XM: jar_xm_generate_samples_16bit(music->ctxXm, pcm, samplesCount); break; case MUSIC_MODULE_XM: jar_xm_generate_samples_16bit(music->ctxXm, pcm, samplesCount); break;
#endif #endif
@ -2239,6 +2395,33 @@ static Wave LoadFLAC(const char *fileName)
} }
#endif #endif
#if defined(SUPPORT_FILEFORMAT_MP3)
// Load MP3 file into Wave structure
// NOTE: Using dr_mp3 library
static Wave LoadMP3(const char *fileName)
{
Wave wave;
// Decode an entire MP3 file in one go
uint64_t totalSampleCount;
drmp3_config *config;
wave.data = drmp3_open_and_decode_file_f32(fileName, config, &totalSampleCount);
wave.channels = config->outputChannels;
wave.sampleRate = config->outputSampleRate;
wave.sampleCount = (int)totalSampleCount/wave.channels;
wave.sampleSize = 16;
// NOTE: Only support up to 2 channels (mono, stereo)
if (wave.channels > 2) TraceLog(LOG_WARNING, "[%s] MP3 channels number (%i) not supported", fileName, wave.channels);
if (wave.data == NULL) TraceLog(LOG_WARNING, "[%s] MP3 data could not be loaded", fileName);
else TraceLog(LOG_INFO, "[%s] MP3 file loaded successfully (%i Hz, %i bit, %s)", fileName, wave.sampleRate, wave.sampleSize, (wave.channels == 1) ? "Mono" : "Stereo");
return wave;
}
#endif
// Some required functions for audio standalone module version // Some required functions for audio standalone module version
#if defined(AUDIO_STANDALONE) #if defined(AUDIO_STANDALONE)
// Check file extension // Check file extension

2
raylib/audio.go
View file

@ -1,6 +1,6 @@
// +build !noaudio // +build !noaudio
package raylib package rl
/* /*
#include "external/stb_vorbis.c" #include "external/stb_vorbis.c"

2
raylib/camera.go
View file

@ -1,6 +1,6 @@
// +build !android // +build !android
package raylib package rl
/* /*
#include "raylib.h" #include "raylib.h"

4
raylib/camera.h
View file

@ -244,8 +244,8 @@ void SetCameraMode(Camera camera, int mode)
distance.y = sqrtf(dx*dx + dy*dy); distance.y = sqrtf(dx*dx + dy*dy);
// Camera angle calculation // Camera angle calculation
cameraAngle.x = asinf(fabsf(dx)/distance.x); // Camera angle in plane XZ (0 aligned with Z, move positive CCW) cameraAngle.x = asinf( (float)fabs(dx)/distance.x); // Camera angle in plane XZ (0 aligned with Z, move positive CCW)
cameraAngle.y = -asinf(fabsf(dy)/distance.y); // Camera angle in plane XY (0 aligned with X, move positive CW) cameraAngle.y = -asinf( (float)fabs(dy)/distance.y); // Camera angle in plane XY (0 aligned with X, move positive CW)
// NOTE: Just testing what cameraAngle means // NOTE: Just testing what cameraAngle means
//cameraAngle.x = 0.0f*DEG2RAD; // Camera angle in plane XZ (0 aligned with Z, move positive CCW) //cameraAngle.x = 0.0f*DEG2RAD; // Camera angle in plane XZ (0 aligned with Z, move positive CCW)

4
raylib/cgo.go
View file

@ -1,6 +1,6 @@
package raylib package rl
/* /*
#cgo CFLAGS: -std=gnu99 -Wno-missing-braces -Wno-unused-result #cgo CFLAGS: -std=gnu99 -Wno-missing-braces -Wno-unused-result -Wno-stringop-overflow
*/ */
import "C" import "C"

2
raylib/cgo_android.go
View file

@ -1,6 +1,6 @@
// +build android // +build android
package raylib package rl
/* /*
#include "external/android/native_app_glue/android_native_app_glue.c" #include "external/android/native_app_glue/android_native_app_glue.c"

2
raylib/cgo_darwin.go
View file

@ -1,6 +1,6 @@
// +build darwin // +build darwin
package raylib package rl
/* /*
#include "external/glfw/src/context.c" #include "external/glfw/src/context.c"

2
raylib/cgo_linux.go
View file

@ -1,6 +1,6 @@
// +build linux,!arm,!arm64 // +build linux,!arm,!arm64
package raylib package rl
/* /*
#include "external/glfw/src/context.c" #include "external/glfw/src/context.c"

2
raylib/cgo_linux_arm.go
View file

@ -1,6 +1,6 @@
// +build linux,arm,!android // +build linux,arm,!android
package raylib package rl
/* /*
#cgo linux,arm LDFLAGS: -L/opt/vc/lib -L/opt/vc/lib64 -lbrcmGLESv2 -lbrcmEGL -lpthread -lrt -lm -lbcm_host -lvcos -lvchiq_arm -ldl #cgo linux,arm LDFLAGS: -L/opt/vc/lib -L/opt/vc/lib64 -lbrcmGLESv2 -lbrcmEGL -lpthread -lrt -lm -lbcm_host -lvcos -lvchiq_arm -ldl

2
raylib/cgo_windows.go
View file

@ -1,6 +1,6 @@
// +build windows // +build windows
package raylib package rl
/* /*
#include "external/glfw/src/context.c" #include "external/glfw/src/context.c"

12
raylib/config.h
View file

@ -25,7 +25,7 @@
* *
**********************************************************************************************/ **********************************************************************************************/
#define RAYLIB_VERSION "2.0-dev" #define RAYLIB_VERSION "2.1-dev"
// Edit to control what features Makefile'd raylib is compiled with // Edit to control what features Makefile'd raylib is compiled with
#if defined(RAYLIB_CMAKE) #if defined(RAYLIB_CMAKE)
@ -86,10 +86,12 @@
//#define SUPPORT_FILEFORMAT_PKM 1 //#define SUPPORT_FILEFORMAT_PKM 1
//#define SUPPORT_FILEFORMAT_PVR 1 //#define SUPPORT_FILEFORMAT_PVR 1
// Support image export functionality (.png, .bmp, .tga, .jpg)
#define SUPPORT_IMAGE_EXPORT 1
// Support multiple image editing functions to scale, adjust colors, flip, draw on images, crop... // Support multiple image editing functions to scale, adjust colors, flip, draw on images, crop...
// If not defined only three image editing functions supported: ImageFormat(), ImageAlphaMask(), ImageToPOT() // If not defined only three image editing functions supported: ImageFormat(), ImageAlphaMask(), ImageToPOT()
#define SUPPORT_IMAGE_MANIPULATION 1 #define SUPPORT_IMAGE_MANIPULATION 1
// Support proedural image generation functionality (gradient, spot, perlin-noise, cellular) // Support procedural image generation functionality (gradient, spot, perlin-noise, cellular)
#define SUPPORT_IMAGE_GENERATION 1 #define SUPPORT_IMAGE_GENERATION 1
@ -124,7 +126,7 @@
#define SUPPORT_FILEFORMAT_XM 1 #define SUPPORT_FILEFORMAT_XM 1
#define SUPPORT_FILEFORMAT_MOD 1 #define SUPPORT_FILEFORMAT_MOD 1
//#define SUPPORT_FILEFORMAT_FLAC 1 //#define SUPPORT_FILEFORMAT_FLAC 1
//#define SUPPORT_FILEFORMAT_MP3 1 #define SUPPORT_FILEFORMAT_MP3 1
//------------------------------------------------------------------------------------ //------------------------------------------------------------------------------------
@ -133,10 +135,6 @@
// Show TraceLog() output messages // Show TraceLog() output messages
// NOTE: By default LOG_DEBUG traces not shown // NOTE: By default LOG_DEBUG traces not shown
#define SUPPORT_TRACELOG 1 #define SUPPORT_TRACELOG 1
// Support saving image data fileformats
// NOTE: Requires stb_image_write library
#define SUPPORT_SAVE_PNG 1
//#define SUPPORT_SAVE_BMP 1
#endif //defined(RAYLIB_CMAKE) #endif //defined(RAYLIB_CMAKE)

534
raylib/core.c
View file

@ -5,7 +5,7 @@
* PLATFORMS SUPPORTED: * PLATFORMS SUPPORTED:
* - PLATFORM_DESKTOP: Windows (Win32, Win64) * - PLATFORM_DESKTOP: Windows (Win32, Win64)
* - PLATFORM_DESKTOP: Linux (X11 desktop mode) * - PLATFORM_DESKTOP: Linux (X11 desktop mode)
* - PLATFORM_DESKTOP: FreeBSD (X11 desktop) * - PLATFORM_DESKTOP: FreeBSD, OpenBSD, NetBSD, DragonFly (X11 desktop)
* - PLATFORM_DESKTOP: OSX/macOS * - PLATFORM_DESKTOP: OSX/macOS
* - PLATFORM_ANDROID: Android 4.0 (ARM, ARM64) * - PLATFORM_ANDROID: Android 4.0 (ARM, ARM64)
* - PLATFORM_RPI: Raspberry Pi 0,1,2,3 (Raspbian) * - PLATFORM_RPI: Raspberry Pi 0,1,2,3 (Raspbian)
@ -15,7 +15,7 @@
* CONFIGURATION: * CONFIGURATION:
* *
* #define PLATFORM_DESKTOP * #define PLATFORM_DESKTOP
* Windowing and input system configured for desktop platforms: Windows, Linux, OSX, FreeBSD * Windowing and input system configured for desktop platforms: Windows, Linux, OSX, FreeBSD, OpenBSD, NetBSD, DragonFly
* NOTE: Oculus Rift CV1 requires PLATFORM_DESKTOP for mirror rendering - View [rlgl] module to enable it * NOTE: Oculus Rift CV1 requires PLATFORM_DESKTOP for mirror rendering - View [rlgl] module to enable it
* *
* #define PLATFORM_ANDROID * #define PLATFORM_ANDROID
@ -57,7 +57,7 @@
* Allow automatic gif recording of current screen pressing CTRL+F12, defined in KeyCallback() * Allow automatic gif recording of current screen pressing CTRL+F12, defined in KeyCallback()
* *
* DEPENDENCIES: * DEPENDENCIES:
* rglfw - Manage graphic device, OpenGL context and inputs on PLATFORM_DESKTOP (Windows, Linux, OSX. FreeBSD) * rglfw - Manage graphic device, OpenGL context and inputs on PLATFORM_DESKTOP (Windows, Linux, OSX. FreeBSD, OpenBSD, NetBSD, DragonFly)
* raymath - 3D math functionality (Vector2, Vector3, Matrix, Quaternion) * raymath - 3D math functionality (Vector2, Vector3, Matrix, Quaternion)
* camera - Multiple 3D camera modes (free, orbital, 1st person, 3rd person) * camera - Multiple 3D camera modes (free, orbital, 1st person, 3rd person)
* gestures - Gestures system for touch-ready devices (or simulated from mouse inputs) * gestures - Gestures system for touch-ready devices (or simulated from mouse inputs)
@ -95,7 +95,9 @@
#define RAYMATH_IMPLEMENTATION // Define external out-of-line implementation of raymath here #define RAYMATH_IMPLEMENTATION // Define external out-of-line implementation of raymath here
#include "raymath.h" // Required for: Vector3 and Matrix functions #include "raymath.h" // Required for: Vector3 and Matrix functions
#define RLGL_IMPLEMENTATION
#include "rlgl.h" // raylib OpenGL abstraction layer to OpenGL 1.1, 3.3+ or ES2 #include "rlgl.h" // raylib OpenGL abstraction layer to OpenGL 1.1, 3.3+ or ES2
#include "utils.h" // Required for: fopen() Android mapping #include "utils.h" // Required for: fopen() Android mapping
#if defined(SUPPORT_GESTURES_SYSTEM) #if defined(SUPPORT_GESTURES_SYSTEM)
@ -121,6 +123,7 @@
#include <string.h> // Required for: strrchr(), strcmp() #include <string.h> // Required for: strrchr(), strcmp()
//#include <errno.h> // Macros for reporting and retrieving error conditions through error codes //#include <errno.h> // Macros for reporting and retrieving error conditions through error codes
#include <ctype.h> // Required for: tolower() [Used in IsFileExtension()] #include <ctype.h> // Required for: tolower() [Used in IsFileExtension()]
#include <dirent.h> // Required for: DIR, opendir(), closedir() [Used in GetDirectoryFiles()]
#if defined(_WIN32) #if defined(_WIN32)
#include <direct.h> // Required for: _getch(), _chdir() #include <direct.h> // Required for: _getch(), _chdir()
@ -132,17 +135,25 @@
#define CHDIR chdir #define CHDIR chdir
#endif #endif
#if defined(__linux__) || defined(PLATFORM_WEB)
#include <sys/time.h> // Required for: timespec, nanosleep(), select() - POSIX
#elif defined(__APPLE__)
#include <unistd.h> // Required for: usleep()
#endif
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB)
#if defined(PLATFORM_WEB)
#define GLFW_INCLUDE_ES2
#endif
//#define GLFW_INCLUDE_NONE // Disable the standard OpenGL header inclusion on GLFW3 //#define GLFW_INCLUDE_NONE // Disable the standard OpenGL header inclusion on GLFW3
#include <GLFW/glfw3.h> // GLFW3 library: Windows, OpenGL context and Input management #include <GLFW/glfw3.h> // GLFW3 library: Windows, OpenGL context and Input management
// NOTE: GLFW3 already includes gl.h (OpenGL) headers // NOTE: GLFW3 already includes gl.h (OpenGL) headers
// Support retrieving native window handlers
#if defined(_WIN32)
#define GLFW_EXPOSE_NATIVE_WIN32
#include <GLFW/glfw3native.h> // WARNING: It requires customization to avoid windows.h inclusion!
#elif defined(__linux__)
//#define GLFW_EXPOSE_NATIVE_X11 // WARNING: Exposing Xlib.h > X.h results in dup symbols for Font type
//GLFW_EXPOSE_NATIVE_WAYLAND
//GLFW_EXPOSE_NATIVE_MIR
#endif
#if !defined(SUPPORT_BUSY_WAIT_LOOP) && defined(_WIN32) #if !defined(SUPPORT_BUSY_WAIT_LOOP) && defined(_WIN32)
// NOTE: Those functions require linking with winmm library // NOTE: Those functions require linking with winmm library
unsigned int __stdcall timeBeginPeriod(unsigned int uPeriod); unsigned int __stdcall timeBeginPeriod(unsigned int uPeriod);
@ -150,6 +161,16 @@
#endif #endif
#endif #endif
#if defined(__linux__) || defined(PLATFORM_WEB)
#include <sys/time.h> // Required for: timespec, nanosleep(), select() - POSIX
#elif defined(__APPLE__)
#include <unistd.h> // Required for: usleep()
#include <objc/message.h> // Required for: objc_msgsend(), sel_registerName()
#define GLFW_EXPOSE_NATIVE_COCOA
#define GLFW_EXPOSE_NATIVE_NSGL
#include <GLFW/glfw3native.h> // Required for: glfwGetCocoaWindow(), glfwGetNSGLContext()
#endif
#if defined(PLATFORM_ANDROID) #if defined(PLATFORM_ANDROID)
//#include <android/sensor.h> // Android sensors functions (accelerometer, gyroscope, light...) //#include <android/sensor.h> // Android sensors functions (accelerometer, gyroscope, light...)
#include <android/window.h> // Defines AWINDOW_FLAG_FULLSCREEN and others #include <android/window.h> // Defines AWINDOW_FLAG_FULLSCREEN and others
@ -220,14 +241,46 @@
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
// Global Variables Definition // Global Variables Definition
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
// Window/Graphics related variables
//-----------------------------------------------------------------------------------
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB)
static GLFWwindow *window; // Native window (graphic device) static GLFWwindow *window; // Native window (graphic device)
#endif #endif
static bool windowReady = false; // Check if window has been initialized successfully static bool windowReady = false; // Check if window has been initialized successfully
static bool windowMinimized = false; // Check if window has been minimized static bool windowMinimized = false; // Check if window has been minimized
static const char *windowTitle = NULL; // Window text title... static const char *windowTitle = NULL; // Window text title...
#if defined(__APPLE__)
static int windowNeedsUpdating = 2; // Times the Cocoa window needs to be updated initially
#endif
static unsigned int displayWidth, displayHeight;// Display width and height (monitor, device-screen, LCD, ...)
static int screenWidth, screenHeight; // Screen width and height (used render area)
static int renderWidth, renderHeight; // Framebuffer width and height (render area, including black bars if required)
static int renderOffsetX = 0; // Offset X from render area (must be divided by 2)
static int renderOffsetY = 0; // Offset Y from render area (must be divided by 2)
static bool fullscreen = false; // Fullscreen mode (useful only for PLATFORM_DESKTOP)
static Matrix downscaleView; // Matrix to downscale view (in case screen size bigger than display size)
#if defined(PLATFORM_RPI)
static EGL_DISPMANX_WINDOW_T nativeWindow; // Native window (graphic device)
#endif
#if defined(PLATFORM_ANDROID) || defined(PLATFORM_RPI) || defined(PLATFORM_UWP)
static EGLDisplay display; // Native display device (physical screen connection)
static EGLSurface surface; // Surface to draw on, framebuffers (connected to context)
static EGLContext context; // Graphic context, mode in which drawing can be done
static EGLConfig config; // Graphic config
static uint64_t baseTime; // Base time measure for hi-res timer
static bool windowShouldClose = false; // Flag to set window for closing
#endif
#if defined(PLATFORM_UWP)
extern EGLNativeWindowType uwpWindow; // Native EGL window handler for UWP (external, defined in UWP App)
#endif
//-----------------------------------------------------------------------------------
#if defined(PLATFORM_ANDROID) #if defined(PLATFORM_ANDROID)
static struct android_app *androidApp; // Android activity static struct android_app *androidApp; // Android activity
static struct android_poll_source *source; // Android events polling source static struct android_poll_source *source; // Android events polling source
@ -238,104 +291,86 @@ static bool appEnabled = true; // Used to detec if app is activ
static bool contextRebindRequired = false; // Used to know context rebind required static bool contextRebindRequired = false; // Used to know context rebind required
#endif #endif
#if defined(PLATFORM_RPI) // Inputs related variables
static EGL_DISPMANX_WINDOW_T nativeWindow; // Native window (graphic device) //-----------------------------------------------------------------------------------
// Keyboard states
static char previousKeyState[512] = { 0 }; // Registers previous frame key state
static char currentKeyState[512] = { 0 }; // Registers current frame key state
static int lastKeyPressed = -1; // Register last key pressed
static int exitKey = KEY_ESCAPE; // Default exit key (ESC)
// Keyboard input variables #if defined(PLATFORM_RPI)
// NOTE: For keyboard we will use the standard input (but reconfigured...) // NOTE: For keyboard we will use the standard input (but reconfigured...)
static struct termios defaultKeyboardSettings; // Used to store default keyboard settings static struct termios defaultKeyboardSettings; // Used to store default keyboard settings
static int defaultKeyboardMode; // Used to store default keyboard mode static int defaultKeyboardMode; // Used to store default keyboard mode
#endif
// Mouse input variables // Mouse states
static Vector2 mousePosition; // Mouse position on screen
static float mouseScale = 1.0f; // Mouse default scale
static bool cursorHidden = false; // Track if cursor is hidden
static bool cursorOnScreen = false; // Tracks if cursor is inside client area
static Vector2 touchPosition[MAX_TOUCH_POINTS]; // Touch position on screen
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_RPI) || defined(PLATFORM_WEB) || defined(PLATFORM_UWP)
static char previousMouseState[3] = { 0 }; // Registers previous mouse button state
static char currentMouseState[3] = { 0 }; // Registers current mouse button state
static int previousMouseWheelY = 0; // Registers previous mouse wheel variation
static int currentMouseWheelY = 0; // Registers current mouse wheel variation
#endif
#if defined(PLATFORM_RPI)
static int mouseStream = -1; // Mouse device file descriptor static int mouseStream = -1; // Mouse device file descriptor
static bool mouseReady = false; // Flag to know if mouse is ready static bool mouseReady = false; // Flag to know if mouse is ready
static pthread_t mouseThreadId; // Mouse reading thread id static pthread_t mouseThreadId; // Mouse reading thread id
// Touch input variables
static int touchStream = -1; // Touch device file descriptor static int touchStream = -1; // Touch device file descriptor
static bool touchReady = false; // Flag to know if touch interface is ready static bool touchReady = false; // Flag to know if touch interface is ready
static pthread_t touchThreadId; // Touch reading thread id static pthread_t touchThreadId; // Touch reading thread id
#endif
// Gamepad input variables #if defined(PLATFORM_WEB)
static int gamepadStream[MAX_GAMEPADS] = { -1 };// Gamepad device file descriptor static bool toggleCursorLock = false; // Ask for cursor pointer lock on next click
static pthread_t gamepadThreadId; // Gamepad reading thread id
static char gamepadName[64]; // Gamepad name holder
#endif #endif
#if defined(PLATFORM_ANDROID) || defined(PLATFORM_RPI) || defined(PLATFORM_UWP) // Gamepads states
static EGLDisplay display; // Native display device (physical screen connection) static int lastGamepadButtonPressed = -1; // Register last gamepad button pressed
static EGLSurface surface; // Surface to draw on, framebuffers (connected to context) static int gamepadAxisCount = 0; // Register number of available gamepad axis
static EGLContext context; // Graphic context, mode in which drawing can be done
static EGLConfig config; // Graphic config
static uint64_t baseTime; // Base time measure for hi-res timer
static bool windowShouldClose = false; // Flag to set window for closing
#endif
#if defined(PLATFORM_UWP)
extern EGLNativeWindowType uwpWindow; // Native EGL window handler for UWP (external, defined in UWP App)
#endif
// Screen related variables
static unsigned int displayWidth, displayHeight; // Display width and height (monitor, device-screen, LCD, ...)
static int screenWidth, screenHeight; // Screen width and height (used render area)
static int renderWidth, renderHeight; // Framebuffer width and height (render area, including black bars if required)
static int renderOffsetX = 0; // Offset X from render area (must be divided by 2)
static int renderOffsetY = 0; // Offset Y from render area (must be divided by 2)
static bool fullscreen = false; // Fullscreen mode (useful only for PLATFORM_DESKTOP)
static Matrix downscaleView; // Matrix to downscale view (in case screen size bigger than display size)
static bool cursorHidden = false; // Track if cursor is hidden
static bool cursorOnScreen = false; // Tracks if cursor is inside client area
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_RPI) || defined(PLATFORM_WEB) || defined(PLATFORM_UWP) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_RPI) || defined(PLATFORM_WEB) || defined(PLATFORM_UWP)
// Register mouse states
static char previousMouseState[3] = { 0 }; // Registers previous mouse button state
static char currentMouseState[3] = { 0 }; // Registers current mouse button state
static int previousMouseWheelY = 0; // Registers previous mouse wheel variation
static int currentMouseWheelY = 0; // Registers current mouse wheel variation
// Register gamepads states
static bool gamepadReady[MAX_GAMEPADS] = { false }; // Flag to know if gamepad is ready static bool gamepadReady[MAX_GAMEPADS] = { false }; // Flag to know if gamepad is ready
static float gamepadAxisState[MAX_GAMEPADS][MAX_GAMEPAD_AXIS]; // Gamepad axis state static float gamepadAxisState[MAX_GAMEPADS][MAX_GAMEPAD_AXIS]; // Gamepad axis state
static char previousGamepadState[MAX_GAMEPADS][MAX_GAMEPAD_BUTTONS]; // Previous gamepad buttons state static char previousGamepadState[MAX_GAMEPADS][MAX_GAMEPAD_BUTTONS]; // Previous gamepad buttons state
static char currentGamepadState[MAX_GAMEPADS][MAX_GAMEPAD_BUTTONS]; // Current gamepad buttons state static char currentGamepadState[MAX_GAMEPADS][MAX_GAMEPAD_BUTTONS]; // Current gamepad buttons state
// Keyboard configuration
static int exitKey = KEY_ESCAPE; // Default exit key (ESC)
#endif #endif
// Register keyboard states #if defined(PLATFORM_RPI)
static char previousKeyState[512] = { 0 }; // Registers previous frame key state static int gamepadStream[MAX_GAMEPADS] = { -1 };// Gamepad device file descriptor
static char currentKeyState[512] = { 0 }; // Registers current frame key state static pthread_t gamepadThreadId; // Gamepad reading thread id
static char gamepadName[64]; // Gamepad name holder
static int lastKeyPressed = -1; // Register last key pressed
static int lastGamepadButtonPressed = -1; // Register last gamepad button pressed
static int gamepadAxisCount = 0; // Register number of available gamepad axis
static Vector2 mousePosition; // Mouse position on screen
static float mouseScale = 1.0f; // Mouse default scale
#if defined(PLATFORM_WEB)
static bool toggleCursorLock = false; // Ask for cursor pointer lock on next click
#endif
static Vector2 touchPosition[MAX_TOUCH_POINTS]; // Touch position on screen
#if defined(PLATFORM_DESKTOP)
static char **dropFilesPath; // Store dropped files paths as strings
static int dropFilesCount = 0; // Count stored strings
#endif #endif
//-----------------------------------------------------------------------------------
// Timming system variables
//-----------------------------------------------------------------------------------
static double currentTime = 0.0; // Current time measure static double currentTime = 0.0; // Current time measure
static double previousTime = 0.0; // Previous time measure static double previousTime = 0.0; // Previous time measure
static double updateTime = 0.0; // Time measure for frame update static double updateTime = 0.0; // Time measure for frame update
static double drawTime = 0.0; // Time measure for frame draw static double drawTime = 0.0; // Time measure for frame draw
static double frameTime = 0.0; // Time measure for one frame static double frameTime = 0.0; // Time measure for one frame
static double targetTime = 0.0; // Desired time for one frame, if 0 not applied static double targetTime = 0.0; // Desired time for one frame, if 0 not applied
//-----------------------------------------------------------------------------------
// Config internal variables
//-----------------------------------------------------------------------------------
static unsigned char configFlags = 0; // Configuration flags (bit based) static unsigned char configFlags = 0; // Configuration flags (bit based)
static bool showLogo = false; // Track if showing logo at init is enabled static bool showLogo = false; // Track if showing logo at init is enabled
#if defined(PLATFORM_DESKTOP)
static char **dropFilesPath; // Store dropped files paths as strings
static int dropFilesCount = 0; // Count dropped files strings
#endif
static char **dirFilesPath; // Store directory files paths as strings
static int dirFilesCount = 0; // Count directory files strings
#if defined(SUPPORT_SCREEN_CAPTURE) #if defined(SUPPORT_SCREEN_CAPTURE)
static int screenshotCounter = 0; // Screenshots counter static int screenshotCounter = 0; // Screenshots counter
#endif #endif
@ -344,6 +379,7 @@ static int screenshotCounter = 0; // Screenshots counter
static int gifFramesCounter = 0; // GIF frames counter static int gifFramesCounter = 0; // GIF frames counter
static bool gifRecording = false; // GIF recording state static bool gifRecording = false; // GIF recording state
#endif #endif
//-----------------------------------------------------------------------------------
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
// Other Modules Functions Declaration (required by core) // Other Modules Functions Declaration (required by core)
@ -357,15 +393,18 @@ extern void UnloadDefaultFont(void); // [Module: text] Unloads default fo
// Module specific Functions Declaration // Module specific Functions Declaration
//---------------------------------------------------------------------------------- //----------------------------------------------------------------------------------
static bool InitGraphicsDevice(int width, int height); // Initialize graphics device static bool InitGraphicsDevice(int width, int height); // Initialize graphics device
static void SetupFramebufferSize(int displayWidth, int displayHeight); static void SetupFramebuffer(int width, int height); // Setup main framebuffer
static void SetupViewport(void); // Set viewport parameters
static void SwapBuffers(void); // Copy back buffer to front buffers
static void InitTimer(void); // Initialize timer static void InitTimer(void); // Initialize timer
static void Wait(float ms); // Wait for some milliseconds (stop program execution) static void Wait(float ms); // Wait for some milliseconds (stop program execution)
static bool GetKeyStatus(int key); // Returns if a key has been pressed static bool GetKeyStatus(int key); // Returns if a key has been pressed
static bool GetMouseButtonStatus(int button); // Returns if a mouse button has been pressed static bool GetMouseButtonStatus(int button); // Returns if a mouse button has been pressed
static void PollInputEvents(void); // Register user events static void PollInputEvents(void); // Register user events
static void SwapBuffers(void); // Copy back buffer to front buffers
static void LogoAnimation(void); // Plays raylib logo appearing animation static void LogoAnimation(void); // Plays raylib logo appearing animation
static void SetupViewport(void); // Set viewport parameters
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB)
static void ErrorCallback(int error, const char *description); // GLFW3 Error Callback, runs on GLFW3 error static void ErrorCallback(int error, const char *description); // GLFW3 Error Callback, runs on GLFW3 error
@ -378,7 +417,6 @@ static void CursorEnterCallback(GLFWwindow *window, int enter);
static void WindowSizeCallback(GLFWwindow *window, int width, int height); // GLFW3 WindowSize Callback, runs when window is resized static void WindowSizeCallback(GLFWwindow *window, int width, int height); // GLFW3 WindowSize Callback, runs when window is resized
static void WindowIconifyCallback(GLFWwindow *window, int iconified); // GLFW3 WindowIconify Callback, runs when window is minimized/restored static void WindowIconifyCallback(GLFWwindow *window, int iconified); // GLFW3 WindowIconify Callback, runs when window is minimized/restored
#endif #endif
#if defined(PLATFORM_DESKTOP) #if defined(PLATFORM_DESKTOP)
static void WindowDropCallback(GLFWwindow *window, int count, const char **paths); // GLFW3 Window Drop Callback, runs when drop files into window static void WindowDropCallback(GLFWwindow *window, int count, const char **paths); // GLFW3 Window Drop Callback, runs when drop files into window
#endif #endif
@ -634,7 +672,17 @@ bool IsWindowReady(void)
// Check if KEY_ESCAPE pressed or Close icon pressed // Check if KEY_ESCAPE pressed or Close icon pressed
bool WindowShouldClose(void) bool WindowShouldClose(void)
{ {
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_WEB)
// Emterpreter-Async required to run sync code
// https://github.com/kripken/emscripten/wiki/Emterpreter#emterpreter-async-run-synchronous-code
// By default, this function is never called on a web-ready raylib example because we encapsulate
// frame code in a UpdateDrawFrame() function, to allow browser manage execution asynchronously
// but now emscripten allows sync code to be executed in an interpreted way, using emterpreter!
emscripten_sleep(16);
return false;
#endif
#if defined(PLATFORM_DESKTOP)
if (windowReady) if (windowReady)
{ {
// While window minimized, stop loop execution // While window minimized, stop loop execution
@ -757,6 +805,124 @@ int GetScreenHeight(void)
return screenHeight; return screenHeight;
} }
// Get native window handle
void *GetWindowHandle(void)
{
#if defined(_WIN32)
// NOTE: Returned handle is: void *HWND (windows.h)
return glfwGetWin32Window(window);
#elif defined(__linux__)
// NOTE: Returned handle is: unsigned long Window (X.h)
// typedef unsigned long XID;
// typedef XID Window;
//unsigned long id = (unsigned long)glfwGetX11Window(window);
return NULL; // TODO: Find a way to return value... cast to void *?
#elif defined(__APPLE__)
// NOTE: Returned handle is: void *id
return glfwGetCocoaWindow(window);
#else
return NULL;
#endif
}
// Get number of monitors
int GetMonitorCount(void)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
glfwGetMonitors(&monitorCount);
return monitorCount;
#else
return 1;
#endif
}
// Get primary monitor width
int GetMonitorWidth(int monitor)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
GLFWmonitor** monitors = glfwGetMonitors(&monitorCount);
if ((monitor >= 0) && (monitor < monitorCount))
{
const GLFWvidmode *mode = glfwGetVideoMode(monitors[monitor]);
return mode->width;
}
else TraceLog(LOG_WARNING, "Selected monitor not found");
#endif
return 0;
}
// Get primary monitor width
int GetMonitorHeight(int monitor)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
GLFWmonitor** monitors = glfwGetMonitors(&monitorCount);
if ((monitor >= 0) && (monitor < monitorCount))
{
const GLFWvidmode *mode = glfwGetVideoMode(monitors[monitor]);
return mode->height;
}
else TraceLog(LOG_WARNING, "Selected monitor not found");
#endif
return 0;
}
// Get primary montior physical width in millimetres
int GetMonitorPhysicalWidth(int monitor)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
GLFWmonitor** monitors = glfwGetMonitors(&monitorCount);
if ((monitor >= 0) && (monitor < monitorCount))
{
int physicalWidth;
glfwGetMonitorPhysicalSize(monitors[monitor], &physicalWidth, NULL);
return physicalWidth;
}
else TraceLog(LOG_WARNING, "Selected monitor not found");
#endif
return 0;
}
// Get primary monitor physical height in millimetres
int GetMonitorPhysicalHeight(int monitor)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
GLFWmonitor** monitors = glfwGetMonitors(&monitorCount);
if ((monitor >= 0) && (monitor < monitorCount))
{
int physicalHeight;
glfwGetMonitorPhysicalSize(monitors[monitor], NULL, &physicalHeight);
return physicalHeight;
}
else TraceLog(LOG_WARNING, "Selected monitor not found");
#endif
return 0;
}
// Get the human-readable, UTF-8 encoded name of the primary monitor
const char *GetMonitorName(int monitor)
{
#if defined(PLATFORM_DESKTOP)
int monitorCount;
GLFWmonitor** monitors = glfwGetMonitors(&monitorCount);
if ((monitor >= 0) && (monitor < monitorCount))
{
return glfwGetMonitorName(monitors[monitor]);
}
else TraceLog(LOG_WARNING, "Selected monitor not found");
#endif
return "";
}
// Show mouse cursor // Show mouse cursor
void ShowCursor() void ShowCursor()
{ {
@ -873,7 +1039,7 @@ void EndDrawing(void)
// Wait for some milliseconds... // Wait for some milliseconds...
if (frameTime < targetTime) if (frameTime < targetTime)
{ {
Wait((targetTime - frameTime)*1000.0f); Wait((float)(targetTime - frameTime)*1000.0f);
currentTime = GetTime(); currentTime = GetTime();
double extraTime = currentTime - previousTime; double extraTime = currentTime - previousTime;
@ -1028,7 +1194,7 @@ Ray GetMouseRay(Vector2 mousePosition, Camera camera)
// Calculate view matrix from camera look at // Calculate view matrix from camera look at
Matrix matView = MatrixLookAt(camera.position, camera.target, camera.up); Matrix matView = MatrixLookAt(camera.position, camera.target, camera.up);
Matrix matProj; Matrix matProj = MatrixIdentity();
if (camera.type == CAMERA_PERSPECTIVE) if (camera.type == CAMERA_PERSPECTIVE)
{ {
@ -1040,6 +1206,7 @@ Ray GetMouseRay(Vector2 mousePosition, Camera camera)
float aspect = (float)screenWidth/(float)screenHeight; float aspect = (float)screenWidth/(float)screenHeight;
double top = camera.fovy/2.0; double top = camera.fovy/2.0;
double right = top*aspect; double right = top*aspect;
// Calculate projection matrix from orthographic // Calculate projection matrix from orthographic
matProj = MatrixOrtho(-right, right, -top, top, 0.01, 1000.0); matProj = MatrixOrtho(-right, right, -top, top, 0.01, 1000.0);
} }
@ -1069,18 +1236,19 @@ Ray GetMouseRay(Vector2 mousePosition, Camera camera)
Vector2 GetWorldToScreen(Vector3 position, Camera camera) Vector2 GetWorldToScreen(Vector3 position, Camera camera)
{ {
// Calculate projection matrix (from perspective instead of frustum // Calculate projection matrix (from perspective instead of frustum
Matrix matProj; Matrix matProj = MatrixIdentity();
if(camera.type == CAMERA_PERSPECTIVE) if (camera.type == CAMERA_PERSPECTIVE)
{ {
// Calculate projection matrix from perspective // Calculate projection matrix from perspective
matProj = MatrixPerspective(camera.fovy*DEG2RAD, ((double)GetScreenWidth()/(double)GetScreenHeight()), 0.01, 1000.0); matProj = MatrixPerspective(camera.fovy*DEG2RAD, ((double)GetScreenWidth()/(double)GetScreenHeight()), 0.01, 1000.0);
} }
else if(camera.type == CAMERA_ORTHOGRAPHIC) else if (camera.type == CAMERA_ORTHOGRAPHIC)
{ {
float aspect = (float)screenWidth/(float)screenHeight; float aspect = (float)screenWidth/(float)screenHeight;
double top = camera.fovy/2.0; double top = camera.fovy/2.0;
double right = top*aspect; double right = top*aspect;
// Calculate projection matrix from orthographic // Calculate projection matrix from orthographic
matProj = MatrixOrtho(-right, right, -top, top, 0.01, 1000.0); matProj = MatrixOrtho(-right, right, -top, top, 0.01, 1000.0);
} }
@ -1282,7 +1450,9 @@ void TakeScreenshot(const char *fileName)
{ {
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_RPI) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_RPI)
unsigned char *imgData = rlReadScreenPixels(renderWidth, renderHeight); unsigned char *imgData = rlReadScreenPixels(renderWidth, renderHeight);
SavePNG(fileName, imgData, renderWidth, renderHeight, 4); // Save image as PNG
Image image = { imgData, renderWidth, renderHeight, 1, UNCOMPRESSED_R8G8B8A8 };
ExportImage(image, fileName);
free(imgData); free(imgData);
TraceLog(LOG_INFO, "Screenshot taken: %s", fileName); TraceLog(LOG_INFO, "Screenshot taken: %s", fileName);
@ -1312,6 +1482,7 @@ bool IsFileExtension(const char *fileName, const char *ext)
} }
} }
} }
else result = false;
#else #else
if (strcmp(fileExt, ext) == 0) result = true; if (strcmp(fileExt, ext) == 0) result = true;
#endif #endif
@ -1330,10 +1501,18 @@ const char *GetExtension(const char *fileName)
return (dot + 1); return (dot + 1);
} }
// String pointer reverse break: returns right-most occurrence of charset in s
static const char *strprbrk(const char *s, const char *charset)
{
const char *latestMatch = NULL;
for (; s = strpbrk(s, charset), s != NULL; latestMatch = s++) { }
return latestMatch;
}
// Get pointer to filename for a path string // Get pointer to filename for a path string
const char *GetFileName(const char *filePath) const char *GetFileName(const char *filePath)
{ {
const char *fileName = strrchr(filePath, '\\'); const char *fileName = strprbrk(filePath, "\\/");
if (!fileName || fileName == filePath) return filePath; if (!fileName || fileName == filePath) return filePath;
@ -1344,11 +1523,13 @@ const char *GetFileName(const char *filePath)
// Get directory for a given fileName (with path) // Get directory for a given fileName (with path)
const char *GetDirectoryPath(const char *fileName) const char *GetDirectoryPath(const char *fileName)
{ {
char *lastSlash = NULL; const char *lastSlash = NULL;
static char filePath[256]; // MAX_DIRECTORY_PATH_SIZE = 256 static char filePath[256]; // MAX_DIRECTORY_PATH_SIZE = 256
memset(filePath, 0, 256); memset(filePath, 0, 256);
lastSlash = strrchr(fileName, '\\'); lastSlash = strprbrk(fileName, "\\/");
if (!lastSlash) return NULL;
strncpy(filePath, fileName, strlen(fileName) - (strlen(lastSlash) - 1)); strncpy(filePath, fileName, strlen(fileName) - (strlen(lastSlash) - 1));
filePath[strlen(fileName) - strlen(lastSlash)] = '\0'; filePath[strlen(fileName) - strlen(lastSlash)] = '\0';
@ -1366,6 +1547,57 @@ const char *GetWorkingDirectory(void)
return currentDir; return currentDir;
} }
// Get filenames in a directory path (max 256 files)
// NOTE: Files count is returned by parameters pointer
char **GetDirectoryFiles(const char *dirPath, int *fileCount)
{
#define MAX_FILEPATH_LENGTH 256
#define MAX_DIRECTORY_FILES 512
ClearDirectoryFiles();
// Memory allocation for MAX_DIRECTORY_FILES
dirFilesPath = (char **)malloc(sizeof(char *)*MAX_DIRECTORY_FILES);
for (int i = 0; i < MAX_DIRECTORY_FILES; i++) dirFilesPath[i] = (char *)malloc(sizeof(char)*MAX_FILEPATH_LENGTH);
int counter = 0;
struct dirent *ent;
DIR *dir = opendir(dirPath);
if (dir != NULL) // It's a directory
{
// TODO: Reading could be done in two passes,
// first one to count files and second one to read names
// That way we can allocate required memory, instead of a limited pool
while ((ent = readdir(dir)) != NULL)
{
strcpy(dirFilesPath[counter], ent->d_name);
counter++;
}
closedir(dir);
}
else TraceLog(LOG_WARNING, "Can not open directory...\n"); // Maybe it's a file...
dirFilesCount = counter;
*fileCount = dirFilesCount;
return dirFilesPath;
}
// Clear directory files paths buffers
void ClearDirectoryFiles(void)
{
if (dirFilesCount > 0)
{
for (int i = 0; i < dirFilesCount; i++) free(dirFilesPath[i]);
free(dirFilesPath);
dirFilesCount = 0;
}
}
// Change working directory, returns true if success // Change working directory, returns true if success
bool ChangeDirectory(const char *dir) bool ChangeDirectory(const char *dir)
{ {
@ -1853,6 +2085,10 @@ static bool InitGraphicsDevice(int width, int height)
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB)
glfwSetErrorCallback(ErrorCallback); glfwSetErrorCallback(ErrorCallback);
#if defined(__APPLE__)
glfwInitHint(GLFW_COCOA_CHDIR_RESOURCES, GLFW_FALSE);
#endif
if (!glfwInit()) if (!glfwInit())
{ {
TraceLog(LOG_WARNING, "Failed to initialize GLFW"); TraceLog(LOG_WARNING, "Failed to initialize GLFW");
@ -1883,30 +2119,29 @@ static bool InitGraphicsDevice(int width, int height)
displayHeight = screenHeight; displayHeight = screenHeight;
#endif // defined(PLATFORM_WEB) #endif // defined(PLATFORM_WEB)
glfwDefaultWindowHints(); // Set default windows hints glfwDefaultWindowHints(); // Set default windows hints:
//glfwWindowHint(GLFW_RED_BITS, 8); // Framebuffer red color component bits
//glfwWindowHint(GLFW_GREEN_BITS, 8); // Framebuffer green color component bits
//glfwWindowHint(GLFW_BLUE_BITS, 8); // Framebuffer blue color component bits
//glfwWindowHint(GLFW_ALPHA_BITS, 8); // Framebuffer alpha color component bits
//glfwWindowHint(GLFW_DEPTH_BITS, 24); // Depthbuffer bits
//glfwWindowHint(GLFW_REFRESH_RATE, 0); // Refresh rate for fullscreen window
//glfwWindowHint(GLFW_CLIENT_API, GLFW_OPENGL_API); // OpenGL API to use. Alternative: GLFW_OPENGL_ES_API
//glfwWindowHint(GLFW_AUX_BUFFERS, 0); // Number of auxiliar buffers
// Check some Window creation flags // Check some Window creation flags
if (configFlags & FLAG_WINDOW_RESIZABLE) glfwWindowHint(GLFW_RESIZABLE, GL_TRUE); // Resizable window if (configFlags & FLAG_WINDOW_RESIZABLE) glfwWindowHint(GLFW_RESIZABLE, GL_TRUE); // Resizable window
else glfwWindowHint(GLFW_RESIZABLE, GL_FALSE); // Avoid window being resizable else glfwWindowHint(GLFW_RESIZABLE, GL_FALSE); // Avoid window being resizable
if (configFlags & FLAG_WINDOW_DECORATED) glfwWindowHint(GLFW_DECORATED, GL_TRUE); // Border and buttons on Window if (configFlags & FLAG_WINDOW_UNDECORATED) glfwWindowHint(GLFW_DECORATED, GL_FALSE); // Border and buttons on Window
else glfwWindowHint(GLFW_DECORATED, GL_TRUE); // Decorated window
// FLAG_WINDOW_TRANSPARENT not supported on HTML5 and not included in any released GLFW version yet
#if defined(GLFW_TRANSPARENT_FRAMEBUFFER)
if (configFlags & FLAG_WINDOW_TRANSPARENT) glfwWindowHint(GLFW_TRANSPARENT_FRAMEBUFFER, GLFW_TRUE); // Transparent framebuffer
else glfwWindowHint(GLFW_TRANSPARENT_FRAMEBUFFER, GLFW_FALSE); // Opaque framebuffer
#endif
if (configFlags & FLAG_WINDOW_TRANSPARENT) if (configFlags & FLAG_MSAA_4X_HINT) glfwWindowHint(GLFW_SAMPLES, 4); // Tries to enable multisampling x4 (MSAA), default is 0
{
// TODO: Enable transparent window (not ready yet on GLFW 3.2)
}
if (configFlags & FLAG_MSAA_4X_HINT)
{
glfwWindowHint(GLFW_SAMPLES, 4); // Enables multisampling x4 (MSAA), default is 0
TraceLog(LOG_INFO, "Trying to enable MSAA x4");
}
//glfwWindowHint(GLFW_RED_BITS, 8); // Framebuffer red color component bits
//glfwWindowHint(GLFW_DEPTH_BITS, 16); // Depthbuffer bits (24 by default)
//glfwWindowHint(GLFW_REFRESH_RATE, 0); // Refresh rate for fullscreen window
//glfwWindowHint(GLFW_CLIENT_API, GLFW_OPENGL_API); // Default OpenGL API to use. Alternative: GLFW_OPENGL_ES_API
//glfwWindowHint(GLFW_AUX_BUFFERS, 0); // Number of auxiliar buffers
// NOTE: When asking for an OpenGL context version, most drivers provide highest supported version // NOTE: When asking for an OpenGL context version, most drivers provide highest supported version
// with forward compatibility to older OpenGL versions. // with forward compatibility to older OpenGL versions.
@ -1925,11 +2160,11 @@ static bool InitGraphicsDevice(int width, int height)
glfwWindowHint(GLFW_OPENGL_PROFILE, GLFW_OPENGL_CORE_PROFILE); // Profiles Hint: Only 3.3 and above! glfwWindowHint(GLFW_OPENGL_PROFILE, GLFW_OPENGL_CORE_PROFILE); // Profiles Hint: Only 3.3 and above!
// Other values: GLFW_OPENGL_ANY_PROFILE, GLFW_OPENGL_COMPAT_PROFILE // Other values: GLFW_OPENGL_ANY_PROFILE, GLFW_OPENGL_COMPAT_PROFILE
#if defined(__APPLE__) #if defined(__APPLE__)
glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_TRUE); // OSX Requires glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_TRUE); // OSX Requires fordward compatibility
#else #else
glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_FALSE); // Fordward Compatibility Hint: Only 3.3 and above! glfwWindowHint(GLFW_OPENGL_FORWARD_COMPAT, GL_FALSE); // Fordward Compatibility Hint: Only 3.3 and above!
#endif #endif
//glfwWindowHint(GLFW_OPENGL_DEBUG_CONTEXT, GL_TRUE); //glfwWindowHint(GLFW_OPENGL_DEBUG_CONTEXT, GL_TRUE); // Request OpenGL DEBUG context
} }
if (fullscreen) if (fullscreen)
@ -1962,7 +2197,7 @@ static bool InitGraphicsDevice(int width, int height)
// At this point we need to manage render size vs screen size // At this point we need to manage render size vs screen size
// NOTE: This function uses and modifies global module variables: // NOTE: This function uses and modifies global module variables:
// screenWidth/screenHeight - renderWidth/renderHeight - downscaleView // screenWidth/screenHeight - renderWidth/renderHeight - downscaleView
SetupFramebufferSize(displayWidth, displayHeight); SetupFramebuffer(displayWidth, displayHeight);
window = glfwCreateWindow(displayWidth, displayHeight, windowTitle, glfwGetPrimaryMonitor(), NULL); window = glfwCreateWindow(displayWidth, displayHeight, windowTitle, glfwGetPrimaryMonitor(), NULL);
@ -2196,7 +2431,7 @@ static bool InitGraphicsDevice(int width, int height)
} }
} }
//SetupFramebufferSize(displayWidth, displayHeight); //SetupFramebuffer(displayWidth, displayHeight);
EGLint numConfigs = 0; EGLint numConfigs = 0;
if ((eglChooseConfig(display, framebufferAttribs, &config, 1, &numConfigs) == EGL_FALSE) || (numConfigs == 0)) if ((eglChooseConfig(display, framebufferAttribs, &config, 1, &numConfigs) == EGL_FALSE) || (numConfigs == 0))
@ -2302,7 +2537,7 @@ static bool InitGraphicsDevice(int width, int height)
// At this point we need to manage render size vs screen size // At this point we need to manage render size vs screen size
// NOTE: This function use and modify global module variables: screenWidth/screenHeight and renderWidth/renderHeight and downscaleView // NOTE: This function use and modify global module variables: screenWidth/screenHeight and renderWidth/renderHeight and downscaleView
SetupFramebufferSize(displayWidth, displayHeight); SetupFramebuffer(displayWidth, displayHeight);
ANativeWindow_setBuffersGeometry(androidApp->window, renderWidth, renderHeight, displayFormat); ANativeWindow_setBuffersGeometry(androidApp->window, renderWidth, renderHeight, displayFormat);
//ANativeWindow_setBuffersGeometry(androidApp->window, 0, 0, displayFormat); // Force use of native display size //ANativeWindow_setBuffersGeometry(androidApp->window, 0, 0, displayFormat); // Force use of native display size
@ -2315,7 +2550,7 @@ static bool InitGraphicsDevice(int width, int height)
// At this point we need to manage render size vs screen size // At this point we need to manage render size vs screen size
// NOTE: This function use and modify global module variables: screenWidth/screenHeight and renderWidth/renderHeight and downscaleView // NOTE: This function use and modify global module variables: screenWidth/screenHeight and renderWidth/renderHeight and downscaleView
SetupFramebufferSize(displayWidth, displayHeight); SetupFramebuffer(displayWidth, displayHeight);
dstRect.x = 0; dstRect.x = 0;
dstRect.y = 0; dstRect.y = 0;
@ -2417,7 +2652,7 @@ static void SetupViewport(void)
// Compute framebuffer size relative to screen size and display size // Compute framebuffer size relative to screen size and display size
// NOTE: Global variables renderWidth/renderHeight and renderOffsetX/renderOffsetY can be modified // NOTE: Global variables renderWidth/renderHeight and renderOffsetX/renderOffsetY can be modified
static void SetupFramebufferSize(int displayWidth, int displayHeight) static void SetupFramebuffer(int width, int height)
{ {
// Calculate renderWidth and renderHeight, we have the display size (input params) and the desired screen size (global var) // Calculate renderWidth and renderHeight, we have the display size (input params) and the desired screen size (global var)
if ((screenWidth > displayWidth) || (screenHeight > displayHeight)) if ((screenWidth > displayWidth) || (screenHeight > displayHeight))
@ -2491,7 +2726,7 @@ static void SetupFramebufferSize(int displayWidth, int displayHeight)
// Initialize hi-resolution timer // Initialize hi-resolution timer
static void InitTimer(void) static void InitTimer(void)
{ {
srand(time(NULL)); // Initialize random seed srand((unsigned int)time(NULL)); // Initialize random seed
#if !defined(SUPPORT_BUSY_WAIT_LOOP) && defined(_WIN32) #if !defined(SUPPORT_BUSY_WAIT_LOOP) && defined(_WIN32)
timeBeginPeriod(1); // Setup high-resolution timer to 1ms (granularity of 1-2 ms) timeBeginPeriod(1); // Setup high-resolution timer to 1ms (granularity of 1-2 ms)
@ -2741,6 +2976,15 @@ static void SwapBuffers(void)
{ {
#if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB) #if defined(PLATFORM_DESKTOP) || defined(PLATFORM_WEB)
glfwSwapBuffers(window); glfwSwapBuffers(window);
#if __APPLE__
// workaround for missing/erroneous initial rendering on macOS
if (windowNeedsUpdating) {
// Desugared version of Objective C: [glfwGetNSGLContext(window) update]
((id (*)(id, SEL))objc_msgSend)(glfwGetNSGLContext(window),
sel_registerName("update"));
windowNeedsUpdating--;
}
#endif
#endif #endif
#if defined(PLATFORM_ANDROID) || defined(PLATFORM_RPI) || defined(PLATFORM_UWP) #if defined(PLATFORM_ANDROID) || defined(PLATFORM_RPI) || defined(PLATFORM_UWP)
@ -3079,7 +3323,8 @@ static void AndroidCommandCallback(struct android_app *app, int32_t cmd)
// Android: Get input events // Android: Get input events
static int32_t AndroidInputCallback(struct android_app *app, AInputEvent *event) static int32_t AndroidInputCallback(struct android_app *app, AInputEvent *event)
{ {
//http://developer.android.com/ndk/reference/index.html // If additional inputs are required check:
// https://developer.android.com/ndk/reference/group/input
int type = AInputEvent_getType(event); int type = AInputEvent_getType(event);
@ -3092,6 +3337,23 @@ static int32_t AndroidInputCallback(struct android_app *app, AInputEvent *event)
// Get second touch position // Get second touch position
touchPosition[1].x = AMotionEvent_getX(event, 1); touchPosition[1].x = AMotionEvent_getX(event, 1);
touchPosition[1].y = AMotionEvent_getY(event, 1); touchPosition[1].y = AMotionEvent_getY(event, 1);
// Useful functions for gamepad inputs:
//AMotionEvent_getAction()
//AMotionEvent_getAxisValue()
//AMotionEvent_getButtonState()
// Gamepad dpad button presses capturing
// TODO: That's weird, key input (or button)
// shouldn't come as a TYPE_MOTION event...
int32_t keycode = AKeyEvent_getKeyCode(event);
if (AKeyEvent_getAction(event) == AKEY_EVENT_ACTION_DOWN)
{
currentKeyState[keycode] = 1; // Key down
lastKeyPressed = keycode;
}
else currentKeyState[keycode] = 0; // Key up
} }
else if (type == AINPUT_EVENT_TYPE_KEY) else if (type == AINPUT_EVENT_TYPE_KEY)
{ {
@ -3100,9 +3362,9 @@ static int32_t AndroidInputCallback(struct android_app *app, AInputEvent *event)
// Save current button and its state // Save current button and its state
// NOTE: Android key action is 0 for down and 1 for up // NOTE: Android key action is 0 for down and 1 for up
if (AKeyEvent_getAction(event) == 0) if (AKeyEvent_getAction(event) == AKEY_EVENT_ACTION_DOWN)
{ {
currentKeyState[keycode] = 1; // Key down currentKeyState[keycode] = 1; // Key down
lastKeyPressed = keycode; lastKeyPressed = keycode;
} }
else currentKeyState[keycode] = 0; // Key up else currentKeyState[keycode] = 0; // Key up
@ -3140,26 +3402,32 @@ static int32_t AndroidInputCallback(struct android_app *app, AInputEvent *event)
else if (flags == AMOTION_EVENT_ACTION_MOVE) gestureEvent.touchAction = TOUCH_MOVE; else if (flags == AMOTION_EVENT_ACTION_MOVE) gestureEvent.touchAction = TOUCH_MOVE;
// Register touch points count // Register touch points count
// NOTE: Documentation says pointerCount is Always >= 1,
// but in practice it can be 0 or over a million
gestureEvent.pointCount = AMotionEvent_getPointerCount(event); gestureEvent.pointCount = AMotionEvent_getPointerCount(event);
// Register touch points id // Only enable gestures for 1-3 touch points
gestureEvent.pointerId[0] = AMotionEvent_getPointerId(event, 0); if ((gestureEvent.pointCount > 0) && (gestureEvent.pointCount < 4))
gestureEvent.pointerId[1] = AMotionEvent_getPointerId(event, 1); {
// Register touch points id
// NOTE: Only two points registered
gestureEvent.pointerId[0] = AMotionEvent_getPointerId(event, 0);
gestureEvent.pointerId[1] = AMotionEvent_getPointerId(event, 1);
// Register touch points position // Register touch points position
// NOTE: Only two points registered gestureEvent.position[0] = (Vector2){ AMotionEvent_getX(event, 0), AMotionEvent_getY(event, 0) };
gestureEvent.position[0] = (Vector2){ AMotionEvent_getX(event, 0), AMotionEvent_getY(event, 0) }; gestureEvent.position[1] = (Vector2){ AMotionEvent_getX(event, 1), AMotionEvent_getY(event, 1) };
gestureEvent.position[1] = (Vector2){ AMotionEvent_getX(event, 1), AMotionEvent_getY(event, 1) };
// Normalize gestureEvent.position[x] for screenWidth and screenHeight // Normalize gestureEvent.position[x] for screenWidth and screenHeight
gestureEvent.position[0].x /= (float)GetScreenWidth(); gestureEvent.position[0].x /= (float)GetScreenWidth();
gestureEvent.position[0].y /= (float)GetScreenHeight(); gestureEvent.position[0].y /= (float)GetScreenHeight();
gestureEvent.position[1].x /= (float)GetScreenWidth(); gestureEvent.position[1].x /= (float)GetScreenWidth();
gestureEvent.position[1].y /= (float)GetScreenHeight(); gestureEvent.position[1].y /= (float)GetScreenHeight();
// Gesture data is sent to gestures system for processing // Gesture data is sent to gestures system for processing
ProcessGestureEvent(gestureEvent); ProcessGestureEvent(gestureEvent);
}
#else #else
// Support only simple touch position // Support only simple touch position

69
raylib/core.go
View file

@ -1,4 +1,4 @@
package raylib package rl
/* /*
#include "raylib.h" #include "raylib.h"
@ -95,43 +95,90 @@ func SetWindowTitle(title string) {
} }
// SetWindowPosition - Set window position on screen (only PLATFORM_DESKTOP) // SetWindowPosition - Set window position on screen (only PLATFORM_DESKTOP)
func SetWindowPosition(x, y int32) { func SetWindowPosition(x, y int) {
cx := (C.int)(x) cx := (C.int)(x)
cy := (C.int)(y) cy := (C.int)(y)
C.SetWindowPosition(cx, cy) C.SetWindowPosition(cx, cy)
} }
// SetWindowMonitor - Set monitor for the current window (fullscreen mode) // SetWindowMonitor - Set monitor for the current window (fullscreen mode)
func SetWindowMonitor(monitor int32) { func SetWindowMonitor(monitor int) {
cmonitor := (C.int)(monitor) cmonitor := (C.int)(monitor)
C.SetWindowMonitor(cmonitor) C.SetWindowMonitor(cmonitor)
} }
// SetWindowMinSize - Set window minimum dimensions (for FLAG_WINDOW_RESIZABLE) // SetWindowMinSize - Set window minimum dimensions (for FLAG_WINDOW_RESIZABLE)
func SetWindowMinSize(w, h int32) { func SetWindowMinSize(w, h int) {
cw := (C.int)(w) cw := (C.int)(w)
ch := (C.int)(h) ch := (C.int)(h)
C.SetWindowMinSize(cw, ch) C.SetWindowMinSize(cw, ch)
} }
// SetWindowSize - Set window dimensions // SetWindowSize - Set window dimensions
func SetWindowSize(w, h int32) { func SetWindowSize(w, h int) {
cw := (C.int)(w) cw := (C.int)(w)
ch := (C.int)(h) ch := (C.int)(h)
C.SetWindowSize(cw, ch) C.SetWindowSize(cw, ch)
} }
// GetScreenWidth - Get current screen width // GetScreenWidth - Get current screen width
func GetScreenWidth() int32 { func GetScreenWidth() int {
ret := C.GetScreenWidth() ret := C.GetScreenWidth()
v := (int32)(ret) v := (int)(ret)
return v return v
} }
// GetScreenHeight - Get current screen height // GetScreenHeight - Get current screen height
func GetScreenHeight() int32 { func GetScreenHeight() int {
ret := C.GetScreenHeight() ret := C.GetScreenHeight()
v := (int32)(ret) v := (int)(ret)
return v
}
// GetMonitorCount - Get number of connected monitors
func GetMonitorCount() int {
ret := C.GetMonitorCount()
v := (int)(ret)
return v
}
// GetMonitorWidth - Get primary monitor width
func GetMonitorWidth(monitor int) int {
cmonitor := (C.int)(monitor)
ret := C.GetMonitorWidth(cmonitor)
v := (int)(ret)
return v
}
// GetMonitorHeight - Get primary monitor height
func GetMonitorHeight(monitor int) int {
cmonitor := (C.int)(monitor)
ret := C.GetMonitorHeight(cmonitor)
v := (int)(ret)
return v
}
// GetMonitorPhysicalWidth - Get primary monitor physical width in millimetres
func GetMonitorPhysicalWidth(monitor int) int {
cmonitor := (C.int)(monitor)
ret := C.GetMonitorPhysicalWidth(cmonitor)
v := (int)(ret)
return v
}
// GetMonitorPhysicalHeight - Get primary monitor physical height in millimetres
func GetMonitorPhysicalHeight(monitor int) int {
cmonitor := (C.int)(monitor)
ret := C.GetMonitorPhysicalHeight(cmonitor)
v := (int)(ret)
return v
}
// GetMonitorName - Get the human-readable, UTF-8 encoded name of the primary monitor
func GetMonitorName(monitor int) string {
cmonitor := (C.int)(monitor)
ret := C.GetMonitorName(cmonitor)
v := C.GoString(ret)
return v return v
} }
@ -275,7 +322,7 @@ func ColorNormalize(color Color) Vector4 {
// Vector3ToFloat - Converts Vector3 to float32 slice // Vector3ToFloat - Converts Vector3 to float32 slice
func Vector3ToFloat(vec Vector3) []float32 { func Vector3ToFloat(vec Vector3) []float32 {
data := make([]float32, 3) data := make([]float32, 0)
data[0] = vec.X data[0] = vec.X
data[1] = vec.Y data[1] = vec.Y
data[2] = vec.Z data[2] = vec.Z
@ -285,7 +332,7 @@ func Vector3ToFloat(vec Vector3) []float32 {
// MatrixToFloat - Converts Matrix to float32 slice // MatrixToFloat - Converts Matrix to float32 slice
func MatrixToFloat(mat Matrix) []float32 { func MatrixToFloat(mat Matrix) []float32 {
data := make([]float32, 16) data := make([]float32, 0)
data[0] = mat.M0 data[0] = mat.M0
data[1] = mat.M4 data[1] = mat.M4

55
raylib/external/alsa/alisp.h vendored
View file

@ -1,55 +0,0 @@
/*
* ALSA lisp implementation
* Copyright (c) 2003 by Jaroslav Kysela <perex@perex.cz>
*
*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
struct alisp_cfg {
int verbose: 1,
warning: 1,
debug: 1;
snd_input_t *in; /* program code */
snd_output_t *out; /* program output */
snd_output_t *eout; /* error output */
snd_output_t *vout; /* verbose output */
snd_output_t *wout; /* warning output */
snd_output_t *dout; /* debug output */
};
struct alisp_instance;
struct alisp_object;
struct alisp_seq_iterator;
struct alisp_cfg *alsa_lisp_default_cfg(snd_input_t *input);
void alsa_lisp_default_cfg_free(struct alisp_cfg *cfg);
int alsa_lisp(struct alisp_cfg *cfg, struct alisp_instance **instance);
void alsa_lisp_free(struct alisp_instance *instance);
int alsa_lisp_function(struct alisp_instance *instance, struct alisp_seq_iterator **result,
const char *id, const char *args, ...)
#ifndef DOC_HIDDEN
__attribute__ ((format (printf, 4, 5)))
#endif
;
void alsa_lisp_result_free(struct alisp_instance *instance,
struct alisp_seq_iterator *result);
int alsa_lisp_seq_first(struct alisp_instance *instance, const char *id,
struct alisp_seq_iterator **seq);
int alsa_lisp_seq_next(struct alisp_seq_iterator **seq);
int alsa_lisp_seq_count(struct alisp_seq_iterator *seq);
int alsa_lisp_seq_integer(struct alisp_seq_iterator *seq, long *val);
int alsa_lisp_seq_pointer(struct alisp_seq_iterator *seq, const char *ptr_id, void **ptr);

310
raylib/external/alsa/asoundef.h vendored
View file

@ -1,310 +0,0 @@
/**
* \file include/asoundef.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Definitions of constants for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_ASOUNDEF_H
#define __ALSA_ASOUNDEF_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Digital_Audio_Interface Constants for Digital Audio Interfaces
* AES/IEC958 channel status bits.
* \{
*/
#define IEC958_AES0_PROFESSIONAL (1<<0) /**< 0 = consumer, 1 = professional */
#define IEC958_AES0_NONAUDIO (1<<1) /**< 0 = audio, 1 = non-audio */
#define IEC958_AES0_PRO_EMPHASIS (7<<2) /**< mask - emphasis */
#define IEC958_AES0_PRO_EMPHASIS_NOTID (0<<2) /**< emphasis not indicated */
#define IEC958_AES0_PRO_EMPHASIS_NONE (1<<2) /**< no emphasis */
#define IEC958_AES0_PRO_EMPHASIS_5015 (3<<2) /**< 50/15us emphasis */
#define IEC958_AES0_PRO_EMPHASIS_CCITT (7<<2) /**< CCITT J.17 emphasis */
#define IEC958_AES0_PRO_FREQ_UNLOCKED (1<<5) /**< source sample frequency: 0 = locked, 1 = unlocked */
#define IEC958_AES0_PRO_FS (3<<6) /**< mask - sample frequency */
#define IEC958_AES0_PRO_FS_NOTID (0<<6) /**< fs not indicated */
#define IEC958_AES0_PRO_FS_44100 (1<<6) /**< 44.1kHz */
#define IEC958_AES0_PRO_FS_48000 (2<<6) /**< 48kHz */
#define IEC958_AES0_PRO_FS_32000 (3<<6) /**< 32kHz */
#define IEC958_AES0_CON_NOT_COPYRIGHT (1<<2) /**< 0 = copyright, 1 = not copyright */
#define IEC958_AES0_CON_EMPHASIS (7<<3) /**< mask - emphasis */
#define IEC958_AES0_CON_EMPHASIS_NONE (0<<3) /**< no emphasis */
#define IEC958_AES0_CON_EMPHASIS_5015 (1<<3) /**< 50/15us emphasis */
#define IEC958_AES0_CON_MODE (3<<6) /**< mask - mode */
#define IEC958_AES1_PRO_MODE (15<<0) /**< mask - channel mode */
#define IEC958_AES1_PRO_MODE_NOTID (0<<0) /**< mode not indicated */
#define IEC958_AES1_PRO_MODE_STEREOPHONIC (2<<0) /**< stereophonic - ch A is left */
#define IEC958_AES1_PRO_MODE_SINGLE (4<<0) /**< single channel */
#define IEC958_AES1_PRO_MODE_TWO (8<<0) /**< two channels */
#define IEC958_AES1_PRO_MODE_PRIMARY (12<<0) /**< primary/secondary */
#define IEC958_AES1_PRO_MODE_BYTE3 (15<<0) /**< vector to byte 3 */
#define IEC958_AES1_PRO_USERBITS (15<<4) /**< mask - user bits */
#define IEC958_AES1_PRO_USERBITS_NOTID (0<<4) /**< user bits not indicated */
#define IEC958_AES1_PRO_USERBITS_192 (8<<4) /**< 192-bit structure */
#define IEC958_AES1_PRO_USERBITS_UDEF (12<<4) /**< user defined application */
#define IEC958_AES1_CON_CATEGORY 0x7f /**< consumer category */
#define IEC958_AES1_CON_GENERAL 0x00 /**< general category */
#define IEC958_AES1_CON_LASEROPT_MASK 0x07 /**< Laser-optical mask */
#define IEC958_AES1_CON_LASEROPT_ID 0x01 /**< Laser-optical ID */
#define IEC958_AES1_CON_IEC908_CD (IEC958_AES1_CON_LASEROPT_ID|0x00) /**< IEC958 CD compatible device */
#define IEC958_AES1_CON_NON_IEC908_CD (IEC958_AES1_CON_LASEROPT_ID|0x08) /**< non-IEC958 CD compatible device */
#define IEC958_AES1_CON_MINI_DISC (IEC958_AES1_CON_LASEROPT_ID|0x48) /**< Mini-Disc device */
#define IEC958_AES1_CON_DVD (IEC958_AES1_CON_LASEROPT_ID|0x18) /**< DVD device */
#define IEC958_AES1_CON_LASTEROPT_OTHER (IEC958_AES1_CON_LASEROPT_ID|0x78) /**< Other laser-optical product */
#define IEC958_AES1_CON_DIGDIGCONV_MASK 0x07 /**< digital<->digital converter mask */
#define IEC958_AES1_CON_DIGDIGCONV_ID 0x02 /**< digital<->digital converter id */
#define IEC958_AES1_CON_PCM_CODER (IEC958_AES1_CON_DIGDIGCONV_ID|0x00) /**< PCM coder */
#define IEC958_AES1_CON_MIXER (IEC958_AES1_CON_DIGDIGCONV_ID|0x10) /**< Digital signal mixer */
#define IEC958_AES1_CON_RATE_CONVERTER (IEC958_AES1_CON_DIGDIGCONV_ID|0x18) /**< Rate converter */
#define IEC958_AES1_CON_SAMPLER (IEC958_AES1_CON_DIGDIGCONV_ID|0x20) /**< PCM sampler */
#define IEC958_AES1_CON_DSP (IEC958_AES1_CON_DIGDIGCONV_ID|0x28) /**< Digital sound processor */
#define IEC958_AES1_CON_DIGDIGCONV_OTHER (IEC958_AES1_CON_DIGDIGCONV_ID|0x78) /**< Other digital<->digital product */
#define IEC958_AES1_CON_MAGNETIC_MASK 0x07 /**< Magnetic device mask */
#define IEC958_AES1_CON_MAGNETIC_ID 0x03 /**< Magnetic device ID */
#define IEC958_AES1_CON_DAT (IEC958_AES1_CON_MAGNETIC_ID|0x00) /**< Digital Audio Tape */
#define IEC958_AES1_CON_VCR (IEC958_AES1_CON_MAGNETIC_ID|0x08) /**< Video recorder */
#define IEC958_AES1_CON_DCC (IEC958_AES1_CON_MAGNETIC_ID|0x40) /**< Digital compact cassette */
#define IEC958_AES1_CON_MAGNETIC_DISC (IEC958_AES1_CON_MAGNETIC_ID|0x18) /**< Magnetic disc digital audio device */
#define IEC958_AES1_CON_MAGNETIC_OTHER (IEC958_AES1_CON_MAGNETIC_ID|0x78) /**< Other magnetic device */
#define IEC958_AES1_CON_BROADCAST1_MASK 0x07 /**< Broadcast mask */
#define IEC958_AES1_CON_BROADCAST1_ID 0x04 /**< Broadcast ID */
#define IEC958_AES1_CON_DAB_JAPAN (IEC958_AES1_CON_BROADCAST1_ID|0x00) /**< Digital audio broadcast (Japan) */
#define IEC958_AES1_CON_DAB_EUROPE (IEC958_AES1_CON_BROADCAST1_ID|0x08) /**< Digital audio broadcast (Europe) */
#define IEC958_AES1_CON_DAB_USA (IEC958_AES1_CON_BROADCAST1_ID|0x60) /**< Digital audio broadcast (USA) */
#define IEC958_AES1_CON_SOFTWARE (IEC958_AES1_CON_BROADCAST1_ID|0x40) /**< Electronic software delivery */
#define IEC958_AES1_CON_IEC62105 (IEC958_AES1_CON_BROADCAST1_ID|0x20) /**< Used by another standard (IEC 62105) */
#define IEC958_AES1_CON_BROADCAST1_OTHER (IEC958_AES1_CON_BROADCAST1_ID|0x78) /**< Other broadcast product */
#define IEC958_AES1_CON_BROADCAST2_MASK 0x0f /**< Broadcast alternative mask */
#define IEC958_AES1_CON_BROADCAST2_ID 0x0e /**< Broadcast alternative ID */
#define IEC958_AES1_CON_MUSICAL_MASK 0x07 /**< Musical device mask */
#define IEC958_AES1_CON_MUSICAL_ID 0x05 /**< Musical device ID */
#define IEC958_AES1_CON_SYNTHESIZER (IEC958_AES1_CON_MUSICAL_ID|0x00) /**< Synthesizer */
#define IEC958_AES1_CON_MICROPHONE (IEC958_AES1_CON_MUSICAL_ID|0x08) /**< Microphone */
#define IEC958_AES1_CON_MUSICAL_OTHER (IEC958_AES1_CON_MUSICAL_ID|0x78) /**< Other musical device */
#define IEC958_AES1_CON_ADC_MASK 0x1f /**< ADC Mask */
#define IEC958_AES1_CON_ADC_ID 0x06 /**< ADC ID */
#define IEC958_AES1_CON_ADC (IEC958_AES1_CON_ADC_ID|0x00) /**< ADC without copyright information */
#define IEC958_AES1_CON_ADC_OTHER (IEC958_AES1_CON_ADC_ID|0x60) /**< Other ADC product (with no copyright information) */
#define IEC958_AES1_CON_ADC_COPYRIGHT_MASK 0x1f /**< ADC Copyright mask */
#define IEC958_AES1_CON_ADC_COPYRIGHT_ID 0x16 /**< ADC Copyright ID */
#define IEC958_AES1_CON_ADC_COPYRIGHT (IEC958_AES1_CON_ADC_COPYRIGHT_ID|0x00) /**< ADC with copyright information */
#define IEC958_AES1_CON_ADC_COPYRIGHT_OTHER (IEC958_AES1_CON_ADC_COPYRIGHT_ID|0x60) /**< Other ADC with copyright information product */
#define IEC958_AES1_CON_SOLIDMEM_MASK 0x0f /**< Solid memory based products mask */
#define IEC958_AES1_CON_SOLIDMEM_ID 0x08 /**< Solid memory based products ID */
#define IEC958_AES1_CON_SOLIDMEM_DIGITAL_RECORDER_PLAYER (IEC958_AES1_CON_SOLIDMEM_ID|0x00) /**< Digital audio recorder and player using solid state memory */
#define IEC958_AES1_CON_SOLIDMEM_OTHER (IEC958_AES1_CON_SOLIDMEM_ID|0x70) /**< Other solid state memory based product */
#define IEC958_AES1_CON_EXPERIMENTAL 0x40 /**< experimental category */
#define IEC958_AES1_CON_ORIGINAL (1<<7) /**< this bits depends on the category code */
#define IEC958_AES2_PRO_SBITS (7<<0) /**< mask - sample bits */
#define IEC958_AES2_PRO_SBITS_20 (2<<0) /**< 20-bit - coordination */
#define IEC958_AES2_PRO_SBITS_24 (4<<0) /**< 24-bit - main audio */
#define IEC958_AES2_PRO_SBITS_UDEF (6<<0) /**< user defined application */
#define IEC958_AES2_PRO_WORDLEN (7<<3) /**< mask - source word length */
#define IEC958_AES2_PRO_WORDLEN_NOTID (0<<3) /**< source word length not indicated */
#define IEC958_AES2_PRO_WORDLEN_22_18 (2<<3) /**< 22-bit or 18-bit */
#define IEC958_AES2_PRO_WORDLEN_23_19 (4<<3) /**< 23-bit or 19-bit */
#define IEC958_AES2_PRO_WORDLEN_24_20 (5<<3) /**< 24-bit or 20-bit */
#define IEC958_AES2_PRO_WORDLEN_20_16 (6<<3) /**< 20-bit or 16-bit */
#define IEC958_AES2_CON_SOURCE (15<<0) /**< mask - source number */
#define IEC958_AES2_CON_SOURCE_UNSPEC (0<<0) /**< source number unspecified */
#define IEC958_AES2_CON_CHANNEL (15<<4) /**< mask - channel number */
#define IEC958_AES2_CON_CHANNEL_UNSPEC (0<<4) /**< channel number unspecified */
#define IEC958_AES3_CON_FS (15<<0) /**< mask - sample frequency */
#define IEC958_AES3_CON_FS_44100 (0<<0) /**< 44.1kHz */
#define IEC958_AES3_CON_FS_NOTID (1<<0) /**< sample frequency non indicated */
#define IEC958_AES3_CON_FS_48000 (2<<0) /**< 48kHz */
#define IEC958_AES3_CON_FS_32000 (3<<0) /**< 32kHz */
#define IEC958_AES3_CON_FS_22050 (4<<0) /**< 22.05kHz */
#define IEC958_AES3_CON_FS_24000 (6<<0) /**< 24kHz */
#define IEC958_AES3_CON_FS_88200 (8<<0) /**< 88.2kHz */
#define IEC958_AES3_CON_FS_768000 (9<<0) /**< 768kHz */
#define IEC958_AES3_CON_FS_96000 (10<<0) /**< 96kHz */
#define IEC958_AES3_CON_FS_176400 (12<<0) /**< 176.4kHz */
#define IEC958_AES3_CON_FS_192000 (14<<0) /**< 192kHz */
#define IEC958_AES3_CON_CLOCK (3<<4) /**< mask - clock accuracy */
#define IEC958_AES3_CON_CLOCK_1000PPM (0<<4) /**< 1000 ppm */
#define IEC958_AES3_CON_CLOCK_50PPM (1<<4) /**< 50 ppm */
#define IEC958_AES3_CON_CLOCK_VARIABLE (2<<4) /**< variable pitch */
#define IEC958_AES4_CON_MAX_WORDLEN_24 (1<<0) /**< 0 = 20-bit, 1 = 24-bit */
#define IEC958_AES4_CON_WORDLEN (7<<1) /**< mask - sample word length */
#define IEC958_AES4_CON_WORDLEN_NOTID (0<<1) /**< not indicated */
#define IEC958_AES4_CON_WORDLEN_20_16 (1<<1) /**< 20-bit or 16-bit */
#define IEC958_AES4_CON_WORDLEN_22_18 (2<<1) /**< 22-bit or 18-bit */
#define IEC958_AES4_CON_WORDLEN_23_19 (4<<1) /**< 23-bit or 19-bit */
#define IEC958_AES4_CON_WORDLEN_24_20 (5<<1) /**< 24-bit or 20-bit */
#define IEC958_AES4_CON_WORDLEN_21_17 (6<<1) /**< 21-bit or 17-bit */
#define IEC958_AES4_CON_ORIGFS (15<<4) /**< mask - original sample frequency */
#define IEC958_AES4_CON_ORIGFS_NOTID (0<<4) /**< original sample frequency not indicated */
#define IEC958_AES4_CON_ORIGFS_192000 (1<<4) /**< 192kHz */
#define IEC958_AES4_CON_ORIGFS_12000 (2<<4) /**< 12kHz */
#define IEC958_AES4_CON_ORIGFS_176400 (3<<4) /**< 176.4kHz */
#define IEC958_AES4_CON_ORIGFS_96000 (5<<4) /**< 96kHz */
#define IEC958_AES4_CON_ORIGFS_8000 (6<<4) /**< 8kHz */
#define IEC958_AES4_CON_ORIGFS_88200 (7<<4) /**< 88.2kHz */
#define IEC958_AES4_CON_ORIGFS_16000 (8<<4) /**< 16kHz */
#define IEC958_AES4_CON_ORIGFS_24000 (9<<4) /**< 24kHz */
#define IEC958_AES4_CON_ORIGFS_11025 (10<<4) /**< 11.025kHz */
#define IEC958_AES4_CON_ORIGFS_22050 (11<<4) /**< 22.05kHz */
#define IEC958_AES4_CON_ORIGFS_32000 (12<<4) /**< 32kHz */
#define IEC958_AES4_CON_ORIGFS_48000 (13<<4) /**< 48kHz */
#define IEC958_AES4_CON_ORIGFS_44100 (15<<4) /**< 44.1kHz */
#define IEC958_AES5_CON_CGMSA (3<<0) /**< mask - CGMS-A */
#define IEC958_AES5_CON_CGMSA_COPYFREELY (0<<0) /**< copying is permitted without restriction */
#define IEC958_AES5_CON_CGMSA_COPYONCE (1<<0) /**< one generation of copies may be made */
#define IEC958_AES5_CON_CGMSA_COPYNOMORE (2<<0) /**< condition not be used */
#define IEC958_AES5_CON_CGMSA_COPYNEVER (3<<0) /**< no copying is permitted */
/** \} */
/**
* \defgroup MIDI_Interface Constants for MIDI v1.0
* Constants for MIDI v1.0.
* \{
*/
#define MIDI_CHANNELS 16 /**< Number of channels per port/cable. */
#define MIDI_GM_DRUM_CHANNEL (10-1) /**< Channel number for GM drums. */
/**
* \defgroup MIDI_Commands MIDI Commands
* MIDI command codes.
* \{
*/
#define MIDI_CMD_NOTE_OFF 0x80 /**< note off */
#define MIDI_CMD_NOTE_ON 0x90 /**< note on */
#define MIDI_CMD_NOTE_PRESSURE 0xa0 /**< key pressure */
#define MIDI_CMD_CONTROL 0xb0 /**< control change */
#define MIDI_CMD_PGM_CHANGE 0xc0 /**< program change */
#define MIDI_CMD_CHANNEL_PRESSURE 0xd0 /**< channel pressure */
#define MIDI_CMD_BENDER 0xe0 /**< pitch bender */
#define MIDI_CMD_COMMON_SYSEX 0xf0 /**< sysex (system exclusive) begin */
#define MIDI_CMD_COMMON_MTC_QUARTER 0xf1 /**< MTC quarter frame */
#define MIDI_CMD_COMMON_SONG_POS 0xf2 /**< song position */
#define MIDI_CMD_COMMON_SONG_SELECT 0xf3 /**< song select */
#define MIDI_CMD_COMMON_TUNE_REQUEST 0xf6 /**< tune request */
#define MIDI_CMD_COMMON_SYSEX_END 0xf7 /**< end of sysex */
#define MIDI_CMD_COMMON_CLOCK 0xf8 /**< clock */
#define MIDI_CMD_COMMON_START 0xfa /**< start */
#define MIDI_CMD_COMMON_CONTINUE 0xfb /**< continue */
#define MIDI_CMD_COMMON_STOP 0xfc /**< stop */
#define MIDI_CMD_COMMON_SENSING 0xfe /**< active sensing */
#define MIDI_CMD_COMMON_RESET 0xff /**< reset */
/** \} */
/**
* \defgroup MIDI_Controllers MIDI Controllers
* MIDI controller numbers.
* \{
*/
#define MIDI_CTL_MSB_BANK 0x00 /**< Bank selection */
#define MIDI_CTL_MSB_MODWHEEL 0x01 /**< Modulation */
#define MIDI_CTL_MSB_BREATH 0x02 /**< Breath */
#define MIDI_CTL_MSB_FOOT 0x04 /**< Foot */
#define MIDI_CTL_MSB_PORTAMENTO_TIME 0x05 /**< Portamento time */
#define MIDI_CTL_MSB_DATA_ENTRY 0x06 /**< Data entry */
#define MIDI_CTL_MSB_MAIN_VOLUME 0x07 /**< Main volume */
#define MIDI_CTL_MSB_BALANCE 0x08 /**< Balance */
#define MIDI_CTL_MSB_PAN 0x0a /**< Panpot */
#define MIDI_CTL_MSB_EXPRESSION 0x0b /**< Expression */
#define MIDI_CTL_MSB_EFFECT1 0x0c /**< Effect1 */
#define MIDI_CTL_MSB_EFFECT2 0x0d /**< Effect2 */
#define MIDI_CTL_MSB_GENERAL_PURPOSE1 0x10 /**< General purpose 1 */
#define MIDI_CTL_MSB_GENERAL_PURPOSE2 0x11 /**< General purpose 2 */
#define MIDI_CTL_MSB_GENERAL_PURPOSE3 0x12 /**< General purpose 3 */
#define MIDI_CTL_MSB_GENERAL_PURPOSE4 0x13 /**< General purpose 4 */
#define MIDI_CTL_LSB_BANK 0x20 /**< Bank selection */
#define MIDI_CTL_LSB_MODWHEEL 0x21 /**< Modulation */
#define MIDI_CTL_LSB_BREATH 0x22 /**< Breath */
#define MIDI_CTL_LSB_FOOT 0x24 /**< Foot */
#define MIDI_CTL_LSB_PORTAMENTO_TIME 0x25 /**< Portamento time */
#define MIDI_CTL_LSB_DATA_ENTRY 0x26 /**< Data entry */
#define MIDI_CTL_LSB_MAIN_VOLUME 0x27 /**< Main volume */
#define MIDI_CTL_LSB_BALANCE 0x28 /**< Balance */
#define MIDI_CTL_LSB_PAN 0x2a /**< Panpot */
#define MIDI_CTL_LSB_EXPRESSION 0x2b /**< Expression */
#define MIDI_CTL_LSB_EFFECT1 0x2c /**< Effect1 */
#define MIDI_CTL_LSB_EFFECT2 0x2d /**< Effect2 */
#define MIDI_CTL_LSB_GENERAL_PURPOSE1 0x30 /**< General purpose 1 */
#define MIDI_CTL_LSB_GENERAL_PURPOSE2 0x31 /**< General purpose 2 */
#define MIDI_CTL_LSB_GENERAL_PURPOSE3 0x32 /**< General purpose 3 */
#define MIDI_CTL_LSB_GENERAL_PURPOSE4 0x33 /**< General purpose 4 */
#define MIDI_CTL_SUSTAIN 0x40 /**< Sustain pedal */
#define MIDI_CTL_PORTAMENTO 0x41 /**< Portamento */
#define MIDI_CTL_SOSTENUTO 0x42 /**< Sostenuto */
#define MIDI_CTL_SUSTENUTO 0x42 /**< Sostenuto (a typo in the older version) */
#define MIDI_CTL_SOFT_PEDAL 0x43 /**< Soft pedal */
#define MIDI_CTL_LEGATO_FOOTSWITCH 0x44 /**< Legato foot switch */
#define MIDI_CTL_HOLD2 0x45 /**< Hold2 */
#define MIDI_CTL_SC1_SOUND_VARIATION 0x46 /**< SC1 Sound Variation */
#define MIDI_CTL_SC2_TIMBRE 0x47 /**< SC2 Timbre */
#define MIDI_CTL_SC3_RELEASE_TIME 0x48 /**< SC3 Release Time */
#define MIDI_CTL_SC4_ATTACK_TIME 0x49 /**< SC4 Attack Time */
#define MIDI_CTL_SC5_BRIGHTNESS 0x4a /**< SC5 Brightness */
#define MIDI_CTL_SC6 0x4b /**< SC6 */
#define MIDI_CTL_SC7 0x4c /**< SC7 */
#define MIDI_CTL_SC8 0x4d /**< SC8 */
#define MIDI_CTL_SC9 0x4e /**< SC9 */
#define MIDI_CTL_SC10 0x4f /**< SC10 */
#define MIDI_CTL_GENERAL_PURPOSE5 0x50 /**< General purpose 5 */
#define MIDI_CTL_GENERAL_PURPOSE6 0x51 /**< General purpose 6 */
#define MIDI_CTL_GENERAL_PURPOSE7 0x52 /**< General purpose 7 */
#define MIDI_CTL_GENERAL_PURPOSE8 0x53 /**< General purpose 8 */
#define MIDI_CTL_PORTAMENTO_CONTROL 0x54 /**< Portamento control */
#define MIDI_CTL_E1_REVERB_DEPTH 0x5b /**< E1 Reverb Depth */
#define MIDI_CTL_E2_TREMOLO_DEPTH 0x5c /**< E2 Tremolo Depth */
#define MIDI_CTL_E3_CHORUS_DEPTH 0x5d /**< E3 Chorus Depth */
#define MIDI_CTL_E4_DETUNE_DEPTH 0x5e /**< E4 Detune Depth */
#define MIDI_CTL_E5_PHASER_DEPTH 0x5f /**< E5 Phaser Depth */
#define MIDI_CTL_DATA_INCREMENT 0x60 /**< Data Increment */
#define MIDI_CTL_DATA_DECREMENT 0x61 /**< Data Decrement */
#define MIDI_CTL_NONREG_PARM_NUM_LSB 0x62 /**< Non-registered parameter number */
#define MIDI_CTL_NONREG_PARM_NUM_MSB 0x63 /**< Non-registered parameter number */
#define MIDI_CTL_REGIST_PARM_NUM_LSB 0x64 /**< Registered parameter number */
#define MIDI_CTL_REGIST_PARM_NUM_MSB 0x65 /**< Registered parameter number */
#define MIDI_CTL_ALL_SOUNDS_OFF 0x78 /**< All sounds off */
#define MIDI_CTL_RESET_CONTROLLERS 0x79 /**< Reset Controllers */
#define MIDI_CTL_LOCAL_CONTROL_SWITCH 0x7a /**< Local control switch */
#define MIDI_CTL_ALL_NOTES_OFF 0x7b /**< All notes off */
#define MIDI_CTL_OMNI_OFF 0x7c /**< Omni off */
#define MIDI_CTL_OMNI_ON 0x7d /**< Omni on */
#define MIDI_CTL_MONO1 0x7e /**< Mono1 */
#define MIDI_CTL_MONO2 0x7f /**< Mono2 */
/** \} */
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_ASOUNDEF_H */

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/**
* \file include/asoundlib.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ASOUNDLIB_H
#define __ASOUNDLIB_H
#include <unistd.h>
#include <stdio.h>
#include <stdlib.h>
#include <sys/types.h>
#include <string.h>
#include <fcntl.h>
#include <assert.h>
#include <poll.h>
#include <errno.h>
#include <stdarg.h>
#include <endian.h>
#ifndef __GNUC__
#define __inline__ inline
#endif
#include <alsa/asoundef.h>
#include <alsa/version.h>
#include <alsa/global.h>
#include <alsa/input.h>
#include <alsa/output.h>
#include <alsa/error.h>
#include <alsa/conf.h>
#include <alsa/pcm.h>
#include <alsa/rawmidi.h>
#include <alsa/timer.h>
#include <alsa/hwdep.h>
#include <alsa/control.h>
#include <alsa/mixer.h>
#include <alsa/seq_event.h>
#include <alsa/seq.h>
#include <alsa/seqmid.h>
#include <alsa/seq_midi_event.h>
#endif /* __ASOUNDLIB_H */

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/**
* \file include/conf.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_CONF_H
#define __ALSA_CONF_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Config Configuration Interface
* The configuration functions and types allow you to read, enumerate,
* modify and write the contents of ALSA configuration files.
* \{
*/
/** \brief \c dlsym version for the config evaluate callback. */
#define SND_CONFIG_DLSYM_VERSION_EVALUATE _dlsym_config_evaluate_001
/** \brief \c dlsym version for the config hook callback. */
#define SND_CONFIG_DLSYM_VERSION_HOOK _dlsym_config_hook_001
/** \brief Configuration node type. */
typedef enum _snd_config_type {
/** Integer number. */
SND_CONFIG_TYPE_INTEGER,
/** 64-bit integer number. */
SND_CONFIG_TYPE_INTEGER64,
/** Real number. */
SND_CONFIG_TYPE_REAL,
/** Character string. */
SND_CONFIG_TYPE_STRING,
/** Pointer (runtime only, cannot be saved). */
SND_CONFIG_TYPE_POINTER,
/** Compound node. */
SND_CONFIG_TYPE_COMPOUND = 1024
} snd_config_type_t;
/**
* \brief Internal structure for a configuration node object.
*
* The ALSA library uses a pointer to this structure as a handle to a
* configuration node. Applications don't access its contents directly.
*/
typedef struct _snd_config snd_config_t;
/**
* \brief Type for a configuration compound iterator.
*
* The ALSA library uses this pointer type as a handle to a configuration
* compound iterator. Applications don't directly access the contents of
* the structure pointed to by this type.
*/
typedef struct _snd_config_iterator *snd_config_iterator_t;
/**
* \brief Internal structure for a configuration private update object.
*
* The ALSA library uses this structure to save private update information.
*/
typedef struct _snd_config_update snd_config_update_t;
extern snd_config_t *snd_config;
const char *snd_config_topdir(void);
int snd_config_top(snd_config_t **config);
int snd_config_load(snd_config_t *config, snd_input_t *in);
int snd_config_load_override(snd_config_t *config, snd_input_t *in);
int snd_config_save(snd_config_t *config, snd_output_t *out);
int snd_config_update(void);
int snd_config_update_r(snd_config_t **top, snd_config_update_t **update, const char *path);
int snd_config_update_free(snd_config_update_t *update);
int snd_config_update_free_global(void);
int snd_config_update_ref(snd_config_t **top);
void snd_config_ref(snd_config_t *top);
void snd_config_unref(snd_config_t *top);
int snd_config_search(snd_config_t *config, const char *key,
snd_config_t **result);
int snd_config_searchv(snd_config_t *config,
snd_config_t **result, ...);
int snd_config_search_definition(snd_config_t *config,
const char *base, const char *key,
snd_config_t **result);
int snd_config_expand(snd_config_t *config, snd_config_t *root,
const char *args, snd_config_t *private_data,
snd_config_t **result);
int snd_config_evaluate(snd_config_t *config, snd_config_t *root,
snd_config_t *private_data, snd_config_t **result);
int snd_config_add(snd_config_t *config, snd_config_t *leaf);
int snd_config_delete(snd_config_t *config);
int snd_config_delete_compound_members(const snd_config_t *config);
int snd_config_copy(snd_config_t **dst, snd_config_t *src);
int snd_config_make(snd_config_t **config, const char *key,
snd_config_type_t type);
int snd_config_make_integer(snd_config_t **config, const char *key);
int snd_config_make_integer64(snd_config_t **config, const char *key);
int snd_config_make_real(snd_config_t **config, const char *key);
int snd_config_make_string(snd_config_t **config, const char *key);
int snd_config_make_pointer(snd_config_t **config, const char *key);
int snd_config_make_compound(snd_config_t **config, const char *key, int join);
int snd_config_imake_integer(snd_config_t **config, const char *key, const long value);
int snd_config_imake_integer64(snd_config_t **config, const char *key, const long long value);
int snd_config_imake_real(snd_config_t **config, const char *key, const double value);
int snd_config_imake_string(snd_config_t **config, const char *key, const char *ascii);
int snd_config_imake_safe_string(snd_config_t **config, const char *key, const char *ascii);
int snd_config_imake_pointer(snd_config_t **config, const char *key, const void *ptr);
snd_config_type_t snd_config_get_type(const snd_config_t *config);
int snd_config_set_id(snd_config_t *config, const char *id);
int snd_config_set_integer(snd_config_t *config, long value);
int snd_config_set_integer64(snd_config_t *config, long long value);
int snd_config_set_real(snd_config_t *config, double value);
int snd_config_set_string(snd_config_t *config, const char *value);
int snd_config_set_ascii(snd_config_t *config, const char *ascii);
int snd_config_set_pointer(snd_config_t *config, const void *ptr);
int snd_config_get_id(const snd_config_t *config, const char **value);
int snd_config_get_integer(const snd_config_t *config, long *value);
int snd_config_get_integer64(const snd_config_t *config, long long *value);
int snd_config_get_real(const snd_config_t *config, double *value);
int snd_config_get_ireal(const snd_config_t *config, double *value);
int snd_config_get_string(const snd_config_t *config, const char **value);
int snd_config_get_ascii(const snd_config_t *config, char **value);
int snd_config_get_pointer(const snd_config_t *config, const void **value);
int snd_config_test_id(const snd_config_t *config, const char *id);
snd_config_iterator_t snd_config_iterator_first(const snd_config_t *node);
snd_config_iterator_t snd_config_iterator_next(const snd_config_iterator_t iterator);
snd_config_iterator_t snd_config_iterator_end(const snd_config_t *node);
snd_config_t *snd_config_iterator_entry(const snd_config_iterator_t iterator);
/**
* \brief Helper macro to iterate over the children of a compound node.
* \param[in,out] pos Iterator variable for the current node.
* \param[in,out] next Temporary iterator variable for the next node.
* \param[in] node Handle to the compound configuration node to iterate over.
*
* Use this macro like a \c for statement, e.g.:
* \code
* snd_config_iterator_t pos, next;
* snd_config_for_each(pos, next, node) {
* snd_config_t *entry = snd_config_iterator_entry(pos);
* ...
* }
* \endcode
*
* This macro allows deleting or removing the current node.
*/
#define snd_config_for_each(pos, next, node) \
for (pos = snd_config_iterator_first(node), next = snd_config_iterator_next(pos); pos != snd_config_iterator_end(node); pos = next, next = snd_config_iterator_next(pos))
/* Misc functions */
int snd_config_get_bool_ascii(const char *ascii);
int snd_config_get_bool(const snd_config_t *conf);
int snd_config_get_ctl_iface_ascii(const char *ascii);
int snd_config_get_ctl_iface(const snd_config_t *conf);
/* Names functions */
/**
* Device-name list element
*/
typedef struct snd_devname snd_devname_t;
/**
* Device-name list element (definition)
*/
struct snd_devname {
char *name; /**< Device name string */
char *comment; /**< Comments */
snd_devname_t *next; /**< Next pointer */
};
int snd_names_list(const char *iface, snd_devname_t **list);
void snd_names_list_free(snd_devname_t *list);
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_CONF_H */

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/**
* \file include/control.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_CONTROL_H
#define __ALSA_CONTROL_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Control Control Interface
* The control interface.
* See \ref control page for more details.
* \{
*/
/** dlsym version for interface entry callback */
#define SND_CONTROL_DLSYM_VERSION _dlsym_control_001
/** IEC958 structure */
typedef struct snd_aes_iec958 {
unsigned char status[24]; /**< AES/IEC958 channel status bits */
unsigned char subcode[147]; /**< AES/IEC958 subcode bits */
unsigned char pad; /**< nothing */
unsigned char dig_subframe[4]; /**< AES/IEC958 subframe bits */
} snd_aes_iec958_t;
/** CTL card info container */
typedef struct _snd_ctl_card_info snd_ctl_card_info_t;
/** CTL element identifier container */
typedef struct _snd_ctl_elem_id snd_ctl_elem_id_t;
/** CTL element identifier list container */
typedef struct _snd_ctl_elem_list snd_ctl_elem_list_t;
/** CTL element info container */
typedef struct _snd_ctl_elem_info snd_ctl_elem_info_t;
/** CTL element value container */
typedef struct _snd_ctl_elem_value snd_ctl_elem_value_t;
/** CTL event container */
typedef struct _snd_ctl_event snd_ctl_event_t;
/** CTL element type */
typedef enum _snd_ctl_elem_type {
/** Invalid type */
SND_CTL_ELEM_TYPE_NONE = 0,
/** Boolean contents */
SND_CTL_ELEM_TYPE_BOOLEAN,
/** Integer contents */
SND_CTL_ELEM_TYPE_INTEGER,
/** Enumerated contents */
SND_CTL_ELEM_TYPE_ENUMERATED,
/** Bytes contents */
SND_CTL_ELEM_TYPE_BYTES,
/** IEC958 (S/PDIF) setting content */
SND_CTL_ELEM_TYPE_IEC958,
/** 64-bit integer contents */
SND_CTL_ELEM_TYPE_INTEGER64,
SND_CTL_ELEM_TYPE_LAST = SND_CTL_ELEM_TYPE_INTEGER64
} snd_ctl_elem_type_t;
/** CTL related interface */
typedef enum _snd_ctl_elem_iface {
/** Card level */
SND_CTL_ELEM_IFACE_CARD = 0,
/** Hardware dependent device */
SND_CTL_ELEM_IFACE_HWDEP,
/** Mixer */
SND_CTL_ELEM_IFACE_MIXER,
/** PCM */
SND_CTL_ELEM_IFACE_PCM,
/** RawMidi */
SND_CTL_ELEM_IFACE_RAWMIDI,
/** Timer */
SND_CTL_ELEM_IFACE_TIMER,
/** Sequencer */
SND_CTL_ELEM_IFACE_SEQUENCER,
SND_CTL_ELEM_IFACE_LAST = SND_CTL_ELEM_IFACE_SEQUENCER
} snd_ctl_elem_iface_t;
/** Event class */
typedef enum _snd_ctl_event_type {
/** Elements related event */
SND_CTL_EVENT_ELEM = 0,
SND_CTL_EVENT_LAST = SND_CTL_EVENT_ELEM
}snd_ctl_event_type_t;
/** Element has been removed (Warning: test this first and if set don't
* test the other masks) \hideinitializer */
#define SND_CTL_EVENT_MASK_REMOVE (~0U)
/** Element value has been changed \hideinitializer */
#define SND_CTL_EVENT_MASK_VALUE (1<<0)
/** Element info has been changed \hideinitializer */
#define SND_CTL_EVENT_MASK_INFO (1<<1)
/** Element has been added \hideinitializer */
#define SND_CTL_EVENT_MASK_ADD (1<<2)
/** Element's TLV value has been changed \hideinitializer */
#define SND_CTL_EVENT_MASK_TLV (1<<3)
/** CTL name helper */
#define SND_CTL_NAME_NONE ""
/** CTL name helper */
#define SND_CTL_NAME_PLAYBACK "Playback "
/** CTL name helper */
#define SND_CTL_NAME_CAPTURE "Capture "
/** CTL name helper */
#define SND_CTL_NAME_IEC958_NONE ""
/** CTL name helper */
#define SND_CTL_NAME_IEC958_SWITCH "Switch"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_VOLUME "Volume"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_DEFAULT "Default"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_MASK "Mask"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_CON_MASK "Con Mask"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_PRO_MASK "Pro Mask"
/** CTL name helper */
#define SND_CTL_NAME_IEC958_PCM_STREAM "PCM Stream"
/** Element name for IEC958 (S/PDIF) */
#define SND_CTL_NAME_IEC958(expl,direction,what) "IEC958 " expl SND_CTL_NAME_##direction SND_CTL_NAME_IEC958_##what
/** Mask for the major Power State identifier */
#define SND_CTL_POWER_MASK 0xff00
/** ACPI/PCI Power State D0 */
#define SND_CTL_POWER_D0 0x0000
/** ACPI/PCI Power State D1 */
#define SND_CTL_POWER_D1 0x0100
/** ACPI/PCI Power State D2 */
#define SND_CTL_POWER_D2 0x0200
/** ACPI/PCI Power State D3 */
#define SND_CTL_POWER_D3 0x0300
/** ACPI/PCI Power State D3hot */
#define SND_CTL_POWER_D3hot (SND_CTL_POWER_D3|0x0000)
/** ACPI/PCI Power State D3cold */
#define SND_CTL_POWER_D3cold (SND_CTL_POWER_D3|0x0001)
/** TLV type - Container */
#define SND_CTL_TLVT_CONTAINER 0x0000
/** TLV type - basic dB scale */
#define SND_CTL_TLVT_DB_SCALE 0x0001
/** TLV type - linear volume */
#define SND_CTL_TLVT_DB_LINEAR 0x0002
/** TLV type - dB range container */
#define SND_CTL_TLVT_DB_RANGE 0x0003
/** TLV type - dB scale specified by min/max values */
#define SND_CTL_TLVT_DB_MINMAX 0x0004
/** TLV type - dB scale specified by min/max values (with mute) */
#define SND_CTL_TLVT_DB_MINMAX_MUTE 0x0005
/** Mute state */
#define SND_CTL_TLV_DB_GAIN_MUTE -9999999
/** TLV type - fixed channel map positions */
#define SND_CTL_TLVT_CHMAP_FIXED 0x00101
/** TLV type - freely swappable channel map positions */
#define SND_CTL_TLVT_CHMAP_VAR 0x00102
/** TLV type - pair-wise swappable channel map positions */
#define SND_CTL_TLVT_CHMAP_PAIRED 0x00103
/** CTL type */
typedef enum _snd_ctl_type {
/** Kernel level CTL */
SND_CTL_TYPE_HW,
/** Shared memory client CTL */
SND_CTL_TYPE_SHM,
/** INET client CTL (not yet implemented) */
SND_CTL_TYPE_INET,
/** External control plugin */
SND_CTL_TYPE_EXT
} snd_ctl_type_t;
/** Non blocking mode (flag for open mode) \hideinitializer */
#define SND_CTL_NONBLOCK 0x0001
/** Async notification (flag for open mode) \hideinitializer */
#define SND_CTL_ASYNC 0x0002
/** Read only (flag for open mode) \hideinitializer */
#define SND_CTL_READONLY 0x0004
/** CTL handle */
typedef struct _snd_ctl snd_ctl_t;
/** Don't destroy the ctl handle when close */
#define SND_SCTL_NOFREE 0x0001
/** SCTL type */
typedef struct _snd_sctl snd_sctl_t;
int snd_card_load(int card);
int snd_card_next(int *card);
int snd_card_get_index(const char *name);
int snd_card_get_name(int card, char **name);
int snd_card_get_longname(int card, char **name);
int snd_device_name_hint(int card, const char *iface, void ***hints);
int snd_device_name_free_hint(void **hints);
char *snd_device_name_get_hint(const void *hint, const char *id);
int snd_ctl_open(snd_ctl_t **ctl, const char *name, int mode);
int snd_ctl_open_lconf(snd_ctl_t **ctl, const char *name, int mode, snd_config_t *lconf);
int snd_ctl_open_fallback(snd_ctl_t **ctl, snd_config_t *root, const char *name, const char *orig_name, int mode);
int snd_ctl_close(snd_ctl_t *ctl);
int snd_ctl_nonblock(snd_ctl_t *ctl, int nonblock);
static __inline__ int snd_ctl_abort(snd_ctl_t *ctl) { return snd_ctl_nonblock(ctl, 2); }
int snd_async_add_ctl_handler(snd_async_handler_t **handler, snd_ctl_t *ctl,
snd_async_callback_t callback, void *private_data);
snd_ctl_t *snd_async_handler_get_ctl(snd_async_handler_t *handler);
int snd_ctl_poll_descriptors_count(snd_ctl_t *ctl);
int snd_ctl_poll_descriptors(snd_ctl_t *ctl, struct pollfd *pfds, unsigned int space);
int snd_ctl_poll_descriptors_revents(snd_ctl_t *ctl, struct pollfd *pfds, unsigned int nfds, unsigned short *revents);
int snd_ctl_subscribe_events(snd_ctl_t *ctl, int subscribe);
int snd_ctl_card_info(snd_ctl_t *ctl, snd_ctl_card_info_t *info);
int snd_ctl_elem_list(snd_ctl_t *ctl, snd_ctl_elem_list_t *list);
int snd_ctl_elem_info(snd_ctl_t *ctl, snd_ctl_elem_info_t *info);
int snd_ctl_elem_read(snd_ctl_t *ctl, snd_ctl_elem_value_t *data);
int snd_ctl_elem_write(snd_ctl_t *ctl, snd_ctl_elem_value_t *data);
int snd_ctl_elem_lock(snd_ctl_t *ctl, snd_ctl_elem_id_t *id);
int snd_ctl_elem_unlock(snd_ctl_t *ctl, snd_ctl_elem_id_t *id);
int snd_ctl_elem_tlv_read(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
unsigned int *tlv, unsigned int tlv_size);
int snd_ctl_elem_tlv_write(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
const unsigned int *tlv);
int snd_ctl_elem_tlv_command(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
const unsigned int *tlv);
#ifdef __ALSA_HWDEP_H
int snd_ctl_hwdep_next_device(snd_ctl_t *ctl, int * device);
int snd_ctl_hwdep_info(snd_ctl_t *ctl, snd_hwdep_info_t * info);
#endif
#ifdef __ALSA_PCM_H
int snd_ctl_pcm_next_device(snd_ctl_t *ctl, int *device);
int snd_ctl_pcm_info(snd_ctl_t *ctl, snd_pcm_info_t * info);
int snd_ctl_pcm_prefer_subdevice(snd_ctl_t *ctl, int subdev);
#endif
#ifdef __ALSA_RAWMIDI_H
int snd_ctl_rawmidi_next_device(snd_ctl_t *ctl, int * device);
int snd_ctl_rawmidi_info(snd_ctl_t *ctl, snd_rawmidi_info_t * info);
int snd_ctl_rawmidi_prefer_subdevice(snd_ctl_t *ctl, int subdev);
#endif
int snd_ctl_set_power_state(snd_ctl_t *ctl, unsigned int state);
int snd_ctl_get_power_state(snd_ctl_t *ctl, unsigned int *state);
int snd_ctl_read(snd_ctl_t *ctl, snd_ctl_event_t *event);
int snd_ctl_wait(snd_ctl_t *ctl, int timeout);
const char *snd_ctl_name(snd_ctl_t *ctl);
snd_ctl_type_t snd_ctl_type(snd_ctl_t *ctl);
const char *snd_ctl_elem_type_name(snd_ctl_elem_type_t type);
const char *snd_ctl_elem_iface_name(snd_ctl_elem_iface_t iface);
const char *snd_ctl_event_type_name(snd_ctl_event_type_t type);
unsigned int snd_ctl_event_elem_get_mask(const snd_ctl_event_t *obj);
unsigned int snd_ctl_event_elem_get_numid(const snd_ctl_event_t *obj);
void snd_ctl_event_elem_get_id(const snd_ctl_event_t *obj, snd_ctl_elem_id_t *ptr);
snd_ctl_elem_iface_t snd_ctl_event_elem_get_interface(const snd_ctl_event_t *obj);
unsigned int snd_ctl_event_elem_get_device(const snd_ctl_event_t *obj);
unsigned int snd_ctl_event_elem_get_subdevice(const snd_ctl_event_t *obj);
const char *snd_ctl_event_elem_get_name(const snd_ctl_event_t *obj);
unsigned int snd_ctl_event_elem_get_index(const snd_ctl_event_t *obj);
int snd_ctl_elem_list_alloc_space(snd_ctl_elem_list_t *obj, unsigned int entries);
void snd_ctl_elem_list_free_space(snd_ctl_elem_list_t *obj);
char *snd_ctl_ascii_elem_id_get(snd_ctl_elem_id_t *id);
int snd_ctl_ascii_elem_id_parse(snd_ctl_elem_id_t *dst, const char *str);
int snd_ctl_ascii_value_parse(snd_ctl_t *handle,
snd_ctl_elem_value_t *dst,
snd_ctl_elem_info_t *info,
const char *value);
size_t snd_ctl_elem_id_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_elem_id_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_elem_id_alloca(ptr) __snd_alloca(ptr, snd_ctl_elem_id)
int snd_ctl_elem_id_malloc(snd_ctl_elem_id_t **ptr);
void snd_ctl_elem_id_free(snd_ctl_elem_id_t *obj);
void snd_ctl_elem_id_clear(snd_ctl_elem_id_t *obj);
void snd_ctl_elem_id_copy(snd_ctl_elem_id_t *dst, const snd_ctl_elem_id_t *src);
unsigned int snd_ctl_elem_id_get_numid(const snd_ctl_elem_id_t *obj);
snd_ctl_elem_iface_t snd_ctl_elem_id_get_interface(const snd_ctl_elem_id_t *obj);
unsigned int snd_ctl_elem_id_get_device(const snd_ctl_elem_id_t *obj);
unsigned int snd_ctl_elem_id_get_subdevice(const snd_ctl_elem_id_t *obj);
const char *snd_ctl_elem_id_get_name(const snd_ctl_elem_id_t *obj);
unsigned int snd_ctl_elem_id_get_index(const snd_ctl_elem_id_t *obj);
void snd_ctl_elem_id_set_numid(snd_ctl_elem_id_t *obj, unsigned int val);
void snd_ctl_elem_id_set_interface(snd_ctl_elem_id_t *obj, snd_ctl_elem_iface_t val);
void snd_ctl_elem_id_set_device(snd_ctl_elem_id_t *obj, unsigned int val);
void snd_ctl_elem_id_set_subdevice(snd_ctl_elem_id_t *obj, unsigned int val);
void snd_ctl_elem_id_set_name(snd_ctl_elem_id_t *obj, const char *val);
void snd_ctl_elem_id_set_index(snd_ctl_elem_id_t *obj, unsigned int val);
size_t snd_ctl_card_info_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_card_info_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_card_info_alloca(ptr) __snd_alloca(ptr, snd_ctl_card_info)
int snd_ctl_card_info_malloc(snd_ctl_card_info_t **ptr);
void snd_ctl_card_info_free(snd_ctl_card_info_t *obj);
void snd_ctl_card_info_clear(snd_ctl_card_info_t *obj);
void snd_ctl_card_info_copy(snd_ctl_card_info_t *dst, const snd_ctl_card_info_t *src);
int snd_ctl_card_info_get_card(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_id(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_driver(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_name(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_longname(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_mixername(const snd_ctl_card_info_t *obj);
const char *snd_ctl_card_info_get_components(const snd_ctl_card_info_t *obj);
size_t snd_ctl_event_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_event_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_event_alloca(ptr) __snd_alloca(ptr, snd_ctl_event)
int snd_ctl_event_malloc(snd_ctl_event_t **ptr);
void snd_ctl_event_free(snd_ctl_event_t *obj);
void snd_ctl_event_clear(snd_ctl_event_t *obj);
void snd_ctl_event_copy(snd_ctl_event_t *dst, const snd_ctl_event_t *src);
snd_ctl_event_type_t snd_ctl_event_get_type(const snd_ctl_event_t *obj);
size_t snd_ctl_elem_list_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_elem_list_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_elem_list_alloca(ptr) __snd_alloca(ptr, snd_ctl_elem_list)
int snd_ctl_elem_list_malloc(snd_ctl_elem_list_t **ptr);
void snd_ctl_elem_list_free(snd_ctl_elem_list_t *obj);
void snd_ctl_elem_list_clear(snd_ctl_elem_list_t *obj);
void snd_ctl_elem_list_copy(snd_ctl_elem_list_t *dst, const snd_ctl_elem_list_t *src);
void snd_ctl_elem_list_set_offset(snd_ctl_elem_list_t *obj, unsigned int val);
unsigned int snd_ctl_elem_list_get_used(const snd_ctl_elem_list_t *obj);
unsigned int snd_ctl_elem_list_get_count(const snd_ctl_elem_list_t *obj);
void snd_ctl_elem_list_get_id(const snd_ctl_elem_list_t *obj, unsigned int idx, snd_ctl_elem_id_t *ptr);
unsigned int snd_ctl_elem_list_get_numid(const snd_ctl_elem_list_t *obj, unsigned int idx);
snd_ctl_elem_iface_t snd_ctl_elem_list_get_interface(const snd_ctl_elem_list_t *obj, unsigned int idx);
unsigned int snd_ctl_elem_list_get_device(const snd_ctl_elem_list_t *obj, unsigned int idx);
unsigned int snd_ctl_elem_list_get_subdevice(const snd_ctl_elem_list_t *obj, unsigned int idx);
const char *snd_ctl_elem_list_get_name(const snd_ctl_elem_list_t *obj, unsigned int idx);
unsigned int snd_ctl_elem_list_get_index(const snd_ctl_elem_list_t *obj, unsigned int idx);
size_t snd_ctl_elem_info_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_elem_info_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_elem_info_alloca(ptr) __snd_alloca(ptr, snd_ctl_elem_info)
int snd_ctl_elem_info_malloc(snd_ctl_elem_info_t **ptr);
void snd_ctl_elem_info_free(snd_ctl_elem_info_t *obj);
void snd_ctl_elem_info_clear(snd_ctl_elem_info_t *obj);
void snd_ctl_elem_info_copy(snd_ctl_elem_info_t *dst, const snd_ctl_elem_info_t *src);
snd_ctl_elem_type_t snd_ctl_elem_info_get_type(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_readable(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_writable(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_volatile(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_inactive(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_locked(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_tlv_readable(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_tlv_writable(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_tlv_commandable(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_owner(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_is_user(const snd_ctl_elem_info_t *obj);
pid_t snd_ctl_elem_info_get_owner(const snd_ctl_elem_info_t *obj);
unsigned int snd_ctl_elem_info_get_count(const snd_ctl_elem_info_t *obj);
long snd_ctl_elem_info_get_min(const snd_ctl_elem_info_t *obj);
long snd_ctl_elem_info_get_max(const snd_ctl_elem_info_t *obj);
long snd_ctl_elem_info_get_step(const snd_ctl_elem_info_t *obj);
long long snd_ctl_elem_info_get_min64(const snd_ctl_elem_info_t *obj);
long long snd_ctl_elem_info_get_max64(const snd_ctl_elem_info_t *obj);
long long snd_ctl_elem_info_get_step64(const snd_ctl_elem_info_t *obj);
unsigned int snd_ctl_elem_info_get_items(const snd_ctl_elem_info_t *obj);
void snd_ctl_elem_info_set_item(snd_ctl_elem_info_t *obj, unsigned int val);
const char *snd_ctl_elem_info_get_item_name(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_get_dimensions(const snd_ctl_elem_info_t *obj);
int snd_ctl_elem_info_get_dimension(const snd_ctl_elem_info_t *obj, unsigned int idx);
int snd_ctl_elem_info_set_dimension(snd_ctl_elem_info_t *info,
const int dimension[4]);
void snd_ctl_elem_info_get_id(const snd_ctl_elem_info_t *obj, snd_ctl_elem_id_t *ptr);
unsigned int snd_ctl_elem_info_get_numid(const snd_ctl_elem_info_t *obj);
snd_ctl_elem_iface_t snd_ctl_elem_info_get_interface(const snd_ctl_elem_info_t *obj);
unsigned int snd_ctl_elem_info_get_device(const snd_ctl_elem_info_t *obj);
unsigned int snd_ctl_elem_info_get_subdevice(const snd_ctl_elem_info_t *obj);
const char *snd_ctl_elem_info_get_name(const snd_ctl_elem_info_t *obj);
unsigned int snd_ctl_elem_info_get_index(const snd_ctl_elem_info_t *obj);
void snd_ctl_elem_info_set_id(snd_ctl_elem_info_t *obj, const snd_ctl_elem_id_t *ptr);
void snd_ctl_elem_info_set_numid(snd_ctl_elem_info_t *obj, unsigned int val);
void snd_ctl_elem_info_set_interface(snd_ctl_elem_info_t *obj, snd_ctl_elem_iface_t val);
void snd_ctl_elem_info_set_device(snd_ctl_elem_info_t *obj, unsigned int val);
void snd_ctl_elem_info_set_subdevice(snd_ctl_elem_info_t *obj, unsigned int val);
void snd_ctl_elem_info_set_name(snd_ctl_elem_info_t *obj, const char *val);
void snd_ctl_elem_info_set_index(snd_ctl_elem_info_t *obj, unsigned int val);
int snd_ctl_add_integer_elem_set(snd_ctl_t *ctl, snd_ctl_elem_info_t *info,
unsigned int element_count,
unsigned int member_count,
long min, long max, long step);
int snd_ctl_add_integer64_elem_set(snd_ctl_t *ctl, snd_ctl_elem_info_t *info,
unsigned int element_count,
unsigned int member_count,
long long min, long long max,
long long step);
int snd_ctl_add_boolean_elem_set(snd_ctl_t *ctl, snd_ctl_elem_info_t *info,
unsigned int element_count,
unsigned int member_count);
int snd_ctl_add_enumerated_elem_set(snd_ctl_t *ctl, snd_ctl_elem_info_t *info,
unsigned int element_count,
unsigned int member_count,
unsigned int items,
const char *const labels[]);
int snd_ctl_add_bytes_elem_set(snd_ctl_t *ctl, snd_ctl_elem_info_t *info,
unsigned int element_count,
unsigned int member_count);
int snd_ctl_elem_add_integer(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id, unsigned int count, long imin, long imax, long istep);
int snd_ctl_elem_add_integer64(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id, unsigned int count, long long imin, long long imax, long long istep);
int snd_ctl_elem_add_boolean(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id, unsigned int count);
int snd_ctl_elem_add_enumerated(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id, unsigned int count, unsigned int items, const char *const names[]);
int snd_ctl_elem_add_iec958(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id);
int snd_ctl_elem_remove(snd_ctl_t *ctl, snd_ctl_elem_id_t *id);
size_t snd_ctl_elem_value_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_ctl_elem_value_t using standard alloca
* \param ptr returned pointer
*/
#define snd_ctl_elem_value_alloca(ptr) __snd_alloca(ptr, snd_ctl_elem_value)
int snd_ctl_elem_value_malloc(snd_ctl_elem_value_t **ptr);
void snd_ctl_elem_value_free(snd_ctl_elem_value_t *obj);
void snd_ctl_elem_value_clear(snd_ctl_elem_value_t *obj);
void snd_ctl_elem_value_copy(snd_ctl_elem_value_t *dst, const snd_ctl_elem_value_t *src);
int snd_ctl_elem_value_compare(snd_ctl_elem_value_t *left, const snd_ctl_elem_value_t *right);
void snd_ctl_elem_value_get_id(const snd_ctl_elem_value_t *obj, snd_ctl_elem_id_t *ptr);
unsigned int snd_ctl_elem_value_get_numid(const snd_ctl_elem_value_t *obj);
snd_ctl_elem_iface_t snd_ctl_elem_value_get_interface(const snd_ctl_elem_value_t *obj);
unsigned int snd_ctl_elem_value_get_device(const snd_ctl_elem_value_t *obj);
unsigned int snd_ctl_elem_value_get_subdevice(const snd_ctl_elem_value_t *obj);
const char *snd_ctl_elem_value_get_name(const snd_ctl_elem_value_t *obj);
unsigned int snd_ctl_elem_value_get_index(const snd_ctl_elem_value_t *obj);
void snd_ctl_elem_value_set_id(snd_ctl_elem_value_t *obj, const snd_ctl_elem_id_t *ptr);
void snd_ctl_elem_value_set_numid(snd_ctl_elem_value_t *obj, unsigned int val);
void snd_ctl_elem_value_set_interface(snd_ctl_elem_value_t *obj, snd_ctl_elem_iface_t val);
void snd_ctl_elem_value_set_device(snd_ctl_elem_value_t *obj, unsigned int val);
void snd_ctl_elem_value_set_subdevice(snd_ctl_elem_value_t *obj, unsigned int val);
void snd_ctl_elem_value_set_name(snd_ctl_elem_value_t *obj, const char *val);
void snd_ctl_elem_value_set_index(snd_ctl_elem_value_t *obj, unsigned int val);
int snd_ctl_elem_value_get_boolean(const snd_ctl_elem_value_t *obj, unsigned int idx);
long snd_ctl_elem_value_get_integer(const snd_ctl_elem_value_t *obj, unsigned int idx);
long long snd_ctl_elem_value_get_integer64(const snd_ctl_elem_value_t *obj, unsigned int idx);
unsigned int snd_ctl_elem_value_get_enumerated(const snd_ctl_elem_value_t *obj, unsigned int idx);
unsigned char snd_ctl_elem_value_get_byte(const snd_ctl_elem_value_t *obj, unsigned int idx);
void snd_ctl_elem_value_set_boolean(snd_ctl_elem_value_t *obj, unsigned int idx, long val);
void snd_ctl_elem_value_set_integer(snd_ctl_elem_value_t *obj, unsigned int idx, long val);
void snd_ctl_elem_value_set_integer64(snd_ctl_elem_value_t *obj, unsigned int idx, long long val);
void snd_ctl_elem_value_set_enumerated(snd_ctl_elem_value_t *obj, unsigned int idx, unsigned int val);
void snd_ctl_elem_value_set_byte(snd_ctl_elem_value_t *obj, unsigned int idx, unsigned char val);
void snd_ctl_elem_set_bytes(snd_ctl_elem_value_t *obj, void *data, size_t size);
const void * snd_ctl_elem_value_get_bytes(const snd_ctl_elem_value_t *obj);
void snd_ctl_elem_value_get_iec958(const snd_ctl_elem_value_t *obj, snd_aes_iec958_t *ptr);
void snd_ctl_elem_value_set_iec958(snd_ctl_elem_value_t *obj, const snd_aes_iec958_t *ptr);
int snd_tlv_parse_dB_info(unsigned int *tlv, unsigned int tlv_size,
unsigned int **db_tlvp);
int snd_tlv_get_dB_range(unsigned int *tlv, long rangemin, long rangemax,
long *min, long *max);
int snd_tlv_convert_to_dB(unsigned int *tlv, long rangemin, long rangemax,
long volume, long *db_gain);
int snd_tlv_convert_from_dB(unsigned int *tlv, long rangemin, long rangemax,
long db_gain, long *value, int xdir);
int snd_ctl_get_dB_range(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
long *min, long *max);
int snd_ctl_convert_to_dB(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
long volume, long *db_gain);
int snd_ctl_convert_from_dB(snd_ctl_t *ctl, const snd_ctl_elem_id_t *id,
long db_gain, long *value, int xdir);
/**
* \defgroup HControl High level Control Interface
* \ingroup Control
* The high level control interface.
* See \ref hcontrol page for more details.
* \{
*/
/** HCTL element handle */
typedef struct _snd_hctl_elem snd_hctl_elem_t;
/** HCTL handle */
typedef struct _snd_hctl snd_hctl_t;
/**
* \brief Compare function for sorting HCTL elements
* \param e1 First element
* \param e2 Second element
* \return -1 if e1 < e2, 0 if e1 == e2, 1 if e1 > e2
*/
typedef int (*snd_hctl_compare_t)(const snd_hctl_elem_t *e1,
const snd_hctl_elem_t *e2);
int snd_hctl_compare_fast(const snd_hctl_elem_t *c1,
const snd_hctl_elem_t *c2);
/**
* \brief HCTL callback function
* \param hctl HCTL handle
* \param mask event mask
* \param elem related HCTL element (if any)
* \return 0 on success otherwise a negative error code
*/
typedef int (*snd_hctl_callback_t)(snd_hctl_t *hctl,
unsigned int mask,
snd_hctl_elem_t *elem);
/**
* \brief HCTL element callback function
* \param elem HCTL element
* \param mask event mask
* \return 0 on success otherwise a negative error code
*/
typedef int (*snd_hctl_elem_callback_t)(snd_hctl_elem_t *elem,
unsigned int mask);
int snd_hctl_open(snd_hctl_t **hctl, const char *name, int mode);
int snd_hctl_open_ctl(snd_hctl_t **hctlp, snd_ctl_t *ctl);
int snd_hctl_close(snd_hctl_t *hctl);
int snd_hctl_nonblock(snd_hctl_t *hctl, int nonblock);
static __inline__ int snd_hctl_abort(snd_hctl_t *hctl) { return snd_hctl_nonblock(hctl, 2); }
int snd_hctl_poll_descriptors_count(snd_hctl_t *hctl);
int snd_hctl_poll_descriptors(snd_hctl_t *hctl, struct pollfd *pfds, unsigned int space);
int snd_hctl_poll_descriptors_revents(snd_hctl_t *ctl, struct pollfd *pfds, unsigned int nfds, unsigned short *revents);
unsigned int snd_hctl_get_count(snd_hctl_t *hctl);
int snd_hctl_set_compare(snd_hctl_t *hctl, snd_hctl_compare_t hsort);
snd_hctl_elem_t *snd_hctl_first_elem(snd_hctl_t *hctl);
snd_hctl_elem_t *snd_hctl_last_elem(snd_hctl_t *hctl);
snd_hctl_elem_t *snd_hctl_find_elem(snd_hctl_t *hctl, const snd_ctl_elem_id_t *id);
void snd_hctl_set_callback(snd_hctl_t *hctl, snd_hctl_callback_t callback);
void snd_hctl_set_callback_private(snd_hctl_t *hctl, void *data);
void *snd_hctl_get_callback_private(snd_hctl_t *hctl);
int snd_hctl_load(snd_hctl_t *hctl);
int snd_hctl_free(snd_hctl_t *hctl);
int snd_hctl_handle_events(snd_hctl_t *hctl);
const char *snd_hctl_name(snd_hctl_t *hctl);
int snd_hctl_wait(snd_hctl_t *hctl, int timeout);
snd_ctl_t *snd_hctl_ctl(snd_hctl_t *hctl);
snd_hctl_elem_t *snd_hctl_elem_next(snd_hctl_elem_t *elem);
snd_hctl_elem_t *snd_hctl_elem_prev(snd_hctl_elem_t *elem);
int snd_hctl_elem_info(snd_hctl_elem_t *elem, snd_ctl_elem_info_t * info);
int snd_hctl_elem_read(snd_hctl_elem_t *elem, snd_ctl_elem_value_t * value);
int snd_hctl_elem_write(snd_hctl_elem_t *elem, snd_ctl_elem_value_t * value);
int snd_hctl_elem_tlv_read(snd_hctl_elem_t *elem, unsigned int *tlv, unsigned int tlv_size);
int snd_hctl_elem_tlv_write(snd_hctl_elem_t *elem, const unsigned int *tlv);
int snd_hctl_elem_tlv_command(snd_hctl_elem_t *elem, const unsigned int *tlv);
snd_hctl_t *snd_hctl_elem_get_hctl(snd_hctl_elem_t *elem);
void snd_hctl_elem_get_id(const snd_hctl_elem_t *obj, snd_ctl_elem_id_t *ptr);
unsigned int snd_hctl_elem_get_numid(const snd_hctl_elem_t *obj);
snd_ctl_elem_iface_t snd_hctl_elem_get_interface(const snd_hctl_elem_t *obj);
unsigned int snd_hctl_elem_get_device(const snd_hctl_elem_t *obj);
unsigned int snd_hctl_elem_get_subdevice(const snd_hctl_elem_t *obj);
const char *snd_hctl_elem_get_name(const snd_hctl_elem_t *obj);
unsigned int snd_hctl_elem_get_index(const snd_hctl_elem_t *obj);
void snd_hctl_elem_set_callback(snd_hctl_elem_t *obj, snd_hctl_elem_callback_t val);
void * snd_hctl_elem_get_callback_private(const snd_hctl_elem_t *obj);
void snd_hctl_elem_set_callback_private(snd_hctl_elem_t *obj, void * val);
/** \} */
/** \} */
/**
* \defgroup SControl Setup Control Interface
* \ingroup Control
* The setup control interface - set or modify control elements from a configuration file.
* \{
*/
int snd_sctl_build(snd_sctl_t **ctl, snd_ctl_t *handle, snd_config_t *config,
snd_config_t *private_data, int mode);
int snd_sctl_free(snd_sctl_t *handle);
int snd_sctl_install(snd_sctl_t *handle);
int snd_sctl_remove(snd_sctl_t *handle);
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_CONTROL_H */

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/**
* \file include/control_external.h
* \brief External control plugin SDK
* \author Takashi Iwai <tiwai@suse.de>
* \date 2005
*
* External control plugin SDK.
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_CONTROL_EXTERNAL_H
#define __ALSA_CONTROL_EXTERNAL_H
#include "control.h"
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup CtlPlugin_SDK External Control Plugin SDK
* \{
*/
/**
* Define the object entry for external control plugins
*/
#define SND_CTL_PLUGIN_ENTRY(name) _snd_ctl_##name##_open
/**
* Define the symbols of the given control plugin with versions
*/
#define SND_CTL_PLUGIN_SYMBOL(name) SND_DLSYM_BUILD_VERSION(SND_CTL_PLUGIN_ENTRY(name), SND_CONTROL_DLSYM_VERSION);
/**
* Define the control plugin
*/
#define SND_CTL_PLUGIN_DEFINE_FUNC(plugin) \
int SND_CTL_PLUGIN_ENTRY(plugin) (snd_ctl_t **handlep, const char *name,\
snd_config_t *root, snd_config_t *conf, int mode)
/** External control plugin handle */
typedef struct snd_ctl_ext snd_ctl_ext_t;
/** Callback table of control ext */
typedef struct snd_ctl_ext_callback snd_ctl_ext_callback_t;
/** Key to access a control pointer */
typedef unsigned long snd_ctl_ext_key_t;
#ifdef DOC_HIDDEN
/* redefine typedef's for stupid doxygen */
typedef snd_ctl_ext snd_ctl_ext_t;
typedef snd_ctl_ext_callback snd_ctl_ext_callback_t;
#endif
/** Callback to handle TLV commands. */
typedef int (snd_ctl_ext_tlv_rw_t)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, int op_flag, unsigned int numid,
unsigned int *tlv, unsigned int tlv_size);
/*
* Protocol version
*/
#define SND_CTL_EXT_VERSION_MAJOR 1 /**< Protocol major version */
#define SND_CTL_EXT_VERSION_MINOR 0 /**< Protocol minor version */
#define SND_CTL_EXT_VERSION_TINY 1 /**< Protocol tiny version */
/**
* external plugin protocol version
*/
#define SND_CTL_EXT_VERSION ((SND_CTL_EXT_VERSION_MAJOR<<16) |\
(SND_CTL_EXT_VERSION_MINOR<<8) |\
(SND_CTL_EXT_VERSION_TINY))
/** Handle of control ext */
struct snd_ctl_ext {
/**
* protocol version; #SND_CTL_EXT_VERSION must be filled here
* before calling #snd_ctl_ext_create()
*/
unsigned int version;
/**
* Index of this card; must be filled before calling #snd_ctl_ext_create()
*/
int card_idx;
/**
* ID string of this card; must be filled before calling #snd_ctl_ext_create()
*/
char id[16];
/**
* Driver name of this card; must be filled before calling #snd_ctl_ext_create()
*/
char driver[16];
/**
* short name of this card; must be filled before calling #snd_ctl_ext_create()
*/
char name[32];
/**
* Long name of this card; must be filled before calling #snd_ctl_ext_create()
*/
char longname[80];
/**
* Mixer name of this card; must be filled before calling #snd_ctl_ext_create()
*/
char mixername[80];
/**
* poll descriptor
*/
int poll_fd;
/**
* callbacks of this plugin; must be filled before calling #snd_pcm_ioplug_create()
*/
const snd_ctl_ext_callback_t *callback;
/**
* private data, which can be used freely in the driver callbacks
*/
void *private_data;
/**
* control handle filled by #snd_ctl_ext_create()
*/
snd_ctl_t *handle;
int nonblock; /**< non-block mode; read-only */
int subscribed; /**< events subscribed; read-only */
/**
* optional TLV data for the control (since protocol 1.0.1)
*/
union {
snd_ctl_ext_tlv_rw_t *c;
const unsigned int *p;
} tlv;
};
/** Callback table of ext. */
struct snd_ctl_ext_callback {
/**
* close the control handle; optional
*/
void (*close)(snd_ctl_ext_t *ext);
/**
* return the total number of elements; required
*/
int (*elem_count)(snd_ctl_ext_t *ext);
/**
* return the element id of the given offset (array index); required
*/
int (*elem_list)(snd_ctl_ext_t *ext, unsigned int offset, snd_ctl_elem_id_t *id);
/**
* convert the element id to a search key; required
*/
snd_ctl_ext_key_t (*find_elem)(snd_ctl_ext_t *ext, const snd_ctl_elem_id_t *id);
/**
* the destructor of the key; optional
*/
void (*free_key)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key);
/**
* get the attribute of the element; required
*/
int (*get_attribute)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key,
int *type, unsigned int *acc, unsigned int *count);
/**
* get the element information of integer type
*/
int (*get_integer_info)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key,
long *imin, long *imax, long *istep);
/**
* get the element information of integer64 type
*/
int (*get_integer64_info)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key,
int64_t *imin, int64_t *imax, int64_t *istep);
/**
* get the element information of enumerated type
*/
int (*get_enumerated_info)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned int *items);
/**
* get the name of the enumerated item
*/
int (*get_enumerated_name)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned int item,
char *name, size_t name_max_len);
/**
* read the current values of integer type
*/
int (*read_integer)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, long *value);
/**
* read the current values of integer64 type
*/
int (*read_integer64)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, int64_t *value);
/**
* read the current values of enumerated type
*/
int (*read_enumerated)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned int *items);
/**
* read the current values of bytes type
*/
int (*read_bytes)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned char *data,
size_t max_bytes);
/**
* read the current values of iec958 type
*/
int (*read_iec958)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, snd_aes_iec958_t *iec958);
/**
* update the current values of integer type with the given values
*/
int (*write_integer)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, long *value);
/**
* update the current values of integer64 type with the given values
*/
int (*write_integer64)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, int64_t *value);
/**
* update the current values of enumerated type with the given values
*/
int (*write_enumerated)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned int *items);
/**
* update the current values of bytes type with the given values
*/
int (*write_bytes)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, unsigned char *data,
size_t max_bytes);
/**
* update the current values of iec958 type with the given values
*/
int (*write_iec958)(snd_ctl_ext_t *ext, snd_ctl_ext_key_t key, snd_aes_iec958_t *iec958);
/**
* subscribe/unsubscribe the event notification; optional
*/
void (*subscribe_events)(snd_ctl_ext_t *ext, int subscribe);
/**
* read a pending notification event; optional
*/
int (*read_event)(snd_ctl_ext_t *ext, snd_ctl_elem_id_t *id, unsigned int *event_mask);
/**
* return the number of poll descriptors; optional
*/
int (*poll_descriptors_count)(snd_ctl_ext_t *ext);
/**
* fill the poll descriptors; optional
*/
int (*poll_descriptors)(snd_ctl_ext_t *ext, struct pollfd *pfds, unsigned int space);
/**
* mangle the revents of poll descriptors
*/
int (*poll_revents)(snd_ctl_ext_t *ext, struct pollfd *pfds, unsigned int nfds, unsigned short *revents);
};
/**
* The access type bits stored in get_attribute callback
*/
typedef enum snd_ctl_ext_access {
SND_CTL_EXT_ACCESS_READ = (1<<0),
SND_CTL_EXT_ACCESS_WRITE = (1<<1),
SND_CTL_EXT_ACCESS_READWRITE = (3<<0),
SND_CTL_EXT_ACCESS_VOLATILE = (1<<2),
SND_CTL_EXT_ACCESS_TLV_READ = (1<<4),
SND_CTL_EXT_ACCESS_TLV_WRITE = (1<<5),
SND_CTL_EXT_ACCESS_TLV_READWRITE = (3<<4),
SND_CTL_EXT_ACCESS_TLV_COMMAND = (1<<6),
SND_CTL_EXT_ACCESS_INACTIVE = (1<<8),
SND_CTL_EXT_ACCESS_TLV_CALLBACK = (1<<28),
} snd_ctl_ext_access_t;
/**
* find_elem callback returns this if no matching control element is found
*/
#define SND_CTL_EXT_KEY_NOT_FOUND (snd_ctl_ext_key_t)(-1)
int snd_ctl_ext_create(snd_ctl_ext_t *ext, const char *name, int mode);
int snd_ctl_ext_delete(snd_ctl_ext_t *ext);
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_CONTROL_EXTERNAL_H */

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/**
* \file include/error.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_ERROR_H
#define __ALSA_ERROR_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Error Error handling
* Error handling macros and functions.
* \{
*/
#define SND_ERROR_BEGIN 500000 /**< Lower boundary of sound error codes. */
#define SND_ERROR_INCOMPATIBLE_VERSION (SND_ERROR_BEGIN+0) /**< Kernel/library protocols are not compatible. */
#define SND_ERROR_ALISP_NIL (SND_ERROR_BEGIN+1) /**< Lisp encountered an error during acall. */
const char *snd_strerror(int errnum);
/**
* \brief Error handler callback.
* \param file Source file name.
* \param line Line number.
* \param function Function name.
* \param err Value of \c errno, or 0 if not relevant.
* \param fmt \c printf(3) format.
* \param ... \c printf(3) arguments.
*
* A function of this type is called by the ALSA library when an error occurs.
* This function usually shows the message on the screen, and/or logs it.
*/
typedef void (*snd_lib_error_handler_t)(const char *file, int line, const char *function, int err, const char *fmt, ...) /* __attribute__ ((format (printf, 5, 6))) */;
extern snd_lib_error_handler_t snd_lib_error;
extern int snd_lib_error_set_handler(snd_lib_error_handler_t handler);
#if __GNUC__ > 2 || (__GNUC__ == 2 && __GNUC_MINOR__ > 95)
#define SNDERR(...) snd_lib_error(__FILE__, __LINE__, __FUNCTION__, 0, __VA_ARGS__) /**< Shows a sound error message. */
#define SYSERR(...) snd_lib_error(__FILE__, __LINE__, __FUNCTION__, errno, __VA_ARGS__) /**< Shows a system error message (related to \c errno). */
#else
#define SNDERR(args...) snd_lib_error(__FILE__, __LINE__, __FUNCTION__, 0, ##args) /**< Shows a sound error message. */
#define SYSERR(args...) snd_lib_error(__FILE__, __LINE__, __FUNCTION__, errno, ##args) /**< Shows a system error message (related to \c errno). */
#endif
/** \} */
#ifdef __cplusplus
}
#endif
/** Local error handler function type */
typedef void (*snd_local_error_handler_t)(const char *file, int line,
const char *func, int err,
const char *fmt, va_list arg);
snd_local_error_handler_t snd_lib_error_set_local(snd_local_error_handler_t func);
#endif /* __ALSA_ERROR_H */

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/**
* \file include/global.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_GLOBAL_H_
#define __ALSA_GLOBAL_H_
/* for timeval and timespec */
#include <time.h>
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Global Global defines and functions
* Global defines and functions.
* \par
* The ALSA library implementation uses these macros and functions.
* Most applications probably do not need them.
* \{
*/
const char *snd_asoundlib_version(void);
#ifndef ATTRIBUTE_UNUSED
/** do not print warning (gcc) when function parameter is not used */
#define ATTRIBUTE_UNUSED __attribute__ ((__unused__))
#endif
#ifdef PIC /* dynamic build */
/** \hideinitializer \brief Helper macro for #SND_DLSYM_BUILD_VERSION. */
#define __SND_DLSYM_VERSION(name, version) _ ## name ## version
/**
* \hideinitializer
* \brief Appends the build version to the name of a versioned dynamic symbol.
*/
#define SND_DLSYM_BUILD_VERSION(name, version) char __SND_DLSYM_VERSION(name, version);
#else /* static build */
struct snd_dlsym_link {
struct snd_dlsym_link *next;
const char *dlsym_name;
const void *dlsym_ptr;
};
extern struct snd_dlsym_link *snd_dlsym_start;
/** \hideinitializer \brief Helper macro for #SND_DLSYM_BUILD_VERSION. */
#define __SND_DLSYM_VERSION(prefix, name, version) _ ## prefix ## name ## version
/**
* \hideinitializer
* \brief Appends the build version to the name of a versioned dynamic symbol.
*/
#define SND_DLSYM_BUILD_VERSION(name, version) \
static struct snd_dlsym_link __SND_DLSYM_VERSION(snd_dlsym_, name, version); \
void __SND_DLSYM_VERSION(snd_dlsym_constructor_, name, version) (void) __attribute__ ((constructor)); \
void __SND_DLSYM_VERSION(snd_dlsym_constructor_, name, version) (void) { \
__SND_DLSYM_VERSION(snd_dlsym_, name, version).next = snd_dlsym_start; \
__SND_DLSYM_VERSION(snd_dlsym_, name, version).dlsym_name = # name; \
__SND_DLSYM_VERSION(snd_dlsym_, name, version).dlsym_ptr = (void *)&name; \
snd_dlsym_start = &__SND_DLSYM_VERSION(snd_dlsym_, name, version); \
}
#endif
#ifndef __STRING
/** \brief Return 'x' argument as string */
#define __STRING(x) #x
#endif
/** \brief Returns the version of a dynamic symbol as a string. */
#define SND_DLSYM_VERSION(version) __STRING(version)
void *snd_dlopen(const char *file, int mode);
void *snd_dlsym(void *handle, const char *name, const char *version);
int snd_dlclose(void *handle);
/** \brief alloca helper macro. */
#define __snd_alloca(ptr,type) do { *ptr = (type##_t *) alloca(type##_sizeof()); memset(*ptr, 0, type##_sizeof()); } while (0)
/**
* \brief Internal structure for an async notification client handler.
*
* The ALSA library uses a pointer to this structure as a handle to an async
* notification object. Applications don't access its contents directly.
*/
typedef struct _snd_async_handler snd_async_handler_t;
/**
* \brief Async notification callback.
*
* See the #snd_async_add_handler function for details.
*/
typedef void (*snd_async_callback_t)(snd_async_handler_t *handler);
int snd_async_add_handler(snd_async_handler_t **handler, int fd,
snd_async_callback_t callback, void *private_data);
int snd_async_del_handler(snd_async_handler_t *handler);
int snd_async_handler_get_fd(snd_async_handler_t *handler);
int snd_async_handler_get_signo(snd_async_handler_t *handler);
void *snd_async_handler_get_callback_private(snd_async_handler_t *handler);
struct snd_shm_area *snd_shm_area_create(int shmid, void *ptr);
struct snd_shm_area *snd_shm_area_share(struct snd_shm_area *area);
int snd_shm_area_destroy(struct snd_shm_area *area);
int snd_user_file(const char *file, char **result);
#ifdef __GLIBC__
#if !defined(_POSIX_C_SOURCE) && !defined(_POSIX_SOURCE)
struct timeval {
time_t tv_sec; /* seconds */
long tv_usec; /* microseconds */
};
struct timespec {
time_t tv_sec; /* seconds */
long tv_nsec; /* nanoseconds */
};
#endif
#endif
/** Timestamp */
typedef struct timeval snd_timestamp_t;
/** Hi-res timestamp */
typedef struct timespec snd_htimestamp_t;
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_GLOBAL_H */

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/**
* \file include/hwdep.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_HWDEP_H
#define __ALSA_HWDEP_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup HwDep Hardware Dependant Interface
* The Hardware Dependant Interface.
* \{
*/
/** dlsym version for interface entry callback */
#define SND_HWDEP_DLSYM_VERSION _dlsym_hwdep_001
/** HwDep information container */
typedef struct _snd_hwdep_info snd_hwdep_info_t;
/** HwDep DSP status container */
typedef struct _snd_hwdep_dsp_status snd_hwdep_dsp_status_t;
/** HwDep DSP image container */
typedef struct _snd_hwdep_dsp_image snd_hwdep_dsp_image_t;
/** HwDep interface */
typedef enum _snd_hwdep_iface {
SND_HWDEP_IFACE_OPL2 = 0, /**< OPL2 raw driver */
SND_HWDEP_IFACE_OPL3, /**< OPL3 raw driver */
SND_HWDEP_IFACE_OPL4, /**< OPL4 raw driver */
SND_HWDEP_IFACE_SB16CSP, /**< SB16CSP driver */
SND_HWDEP_IFACE_EMU10K1, /**< EMU10K1 driver */
SND_HWDEP_IFACE_YSS225, /**< YSS225 driver */
SND_HWDEP_IFACE_ICS2115, /**< ICS2115 driver */
SND_HWDEP_IFACE_SSCAPE, /**< Ensoniq SoundScape ISA card (MC68EC000) */
SND_HWDEP_IFACE_VX, /**< Digigram VX cards */
SND_HWDEP_IFACE_MIXART, /**< Digigram miXart cards */
SND_HWDEP_IFACE_USX2Y, /**< Tascam US122, US224 & US428 usb */
SND_HWDEP_IFACE_EMUX_WAVETABLE, /**< EmuX wavetable */
SND_HWDEP_IFACE_BLUETOOTH, /**< Bluetooth audio */
SND_HWDEP_IFACE_USX2Y_PCM, /**< Tascam US122, US224 & US428 raw USB PCM */
SND_HWDEP_IFACE_PCXHR, /**< Digigram PCXHR */
SND_HWDEP_IFACE_SB_RC, /**< SB Extigy/Audigy2NX remote control */
SND_HWDEP_IFACE_HDA, /**< HD-audio */
SND_HWDEP_IFACE_USB_STREAM, /**< direct access to usb stream */
SND_HWDEP_IFACE_FW_DICE, /**< TC DICE FireWire device */
SND_HWDEP_IFACE_FW_FIREWORKS, /**< Echo Audio Fireworks based device */
SND_HWDEP_IFACE_FW_BEBOB, /**< BridgeCo BeBoB based device */
SND_HWDEP_IFACE_FW_OXFW, /**< Oxford OXFW970/971 based device */
SND_HWDEP_IFACE_FW_DIGI00X, /* Digidesign Digi 002/003 family */
SND_HWDEP_IFACE_FW_TASCAM, /* TASCAM FireWire series */
SND_HWDEP_IFACE_LINE6, /* Line6 USB processors */
SND_HWDEP_IFACE_FW_MOTU, /* MOTU FireWire series */
SND_HWDEP_IFACE_FW_FIREFACE, /* RME Fireface series */
SND_HWDEP_IFACE_LAST = SND_HWDEP_IFACE_FW_FIREFACE, /**< last known hwdep interface */
} snd_hwdep_iface_t;
/** open for reading */
#define SND_HWDEP_OPEN_READ (O_RDONLY)
/** open for writing */
#define SND_HWDEP_OPEN_WRITE (O_WRONLY)
/** open for reading and writing */
#define SND_HWDEP_OPEN_DUPLEX (O_RDWR)
/** open mode flag: open in nonblock mode */
#define SND_HWDEP_OPEN_NONBLOCK (O_NONBLOCK)
/** HwDep handle type */
typedef enum _snd_hwdep_type {
/** Kernel level HwDep */
SND_HWDEP_TYPE_HW,
/** Shared memory client HwDep (not yet implemented) */
SND_HWDEP_TYPE_SHM,
/** INET client HwDep (not yet implemented) */
SND_HWDEP_TYPE_INET
} snd_hwdep_type_t;
/** HwDep handle */
typedef struct _snd_hwdep snd_hwdep_t;
int snd_hwdep_open(snd_hwdep_t **hwdep, const char *name, int mode);
int snd_hwdep_close(snd_hwdep_t *hwdep);
int snd_hwdep_poll_descriptors(snd_hwdep_t *hwdep, struct pollfd *pfds, unsigned int space);
int snd_hwdep_poll_descriptors_count(snd_hwdep_t *hwdep);
int snd_hwdep_poll_descriptors_revents(snd_hwdep_t *hwdep, struct pollfd *pfds, unsigned int nfds, unsigned short *revents);
int snd_hwdep_nonblock(snd_hwdep_t *hwdep, int nonblock);
int snd_hwdep_info(snd_hwdep_t *hwdep, snd_hwdep_info_t * info);
int snd_hwdep_dsp_status(snd_hwdep_t *hwdep, snd_hwdep_dsp_status_t *status);
int snd_hwdep_dsp_load(snd_hwdep_t *hwdep, snd_hwdep_dsp_image_t *block);
int snd_hwdep_ioctl(snd_hwdep_t *hwdep, unsigned int request, void * arg);
ssize_t snd_hwdep_write(snd_hwdep_t *hwdep, const void *buffer, size_t size);
ssize_t snd_hwdep_read(snd_hwdep_t *hwdep, void *buffer, size_t size);
size_t snd_hwdep_info_sizeof(void);
/** allocate #snd_hwdep_info_t container on stack */
#define snd_hwdep_info_alloca(ptr) __snd_alloca(ptr, snd_hwdep_info)
int snd_hwdep_info_malloc(snd_hwdep_info_t **ptr);
void snd_hwdep_info_free(snd_hwdep_info_t *obj);
void snd_hwdep_info_copy(snd_hwdep_info_t *dst, const snd_hwdep_info_t *src);
unsigned int snd_hwdep_info_get_device(const snd_hwdep_info_t *obj);
int snd_hwdep_info_get_card(const snd_hwdep_info_t *obj);
const char *snd_hwdep_info_get_id(const snd_hwdep_info_t *obj);
const char *snd_hwdep_info_get_name(const snd_hwdep_info_t *obj);
snd_hwdep_iface_t snd_hwdep_info_get_iface(const snd_hwdep_info_t *obj);
void snd_hwdep_info_set_device(snd_hwdep_info_t *obj, unsigned int val);
size_t snd_hwdep_dsp_status_sizeof(void);
/** allocate #snd_hwdep_dsp_status_t container on stack */
#define snd_hwdep_dsp_status_alloca(ptr) __snd_alloca(ptr, snd_hwdep_dsp_status)
int snd_hwdep_dsp_status_malloc(snd_hwdep_dsp_status_t **ptr);
void snd_hwdep_dsp_status_free(snd_hwdep_dsp_status_t *obj);
void snd_hwdep_dsp_status_copy(snd_hwdep_dsp_status_t *dst, const snd_hwdep_dsp_status_t *src);
unsigned int snd_hwdep_dsp_status_get_version(const snd_hwdep_dsp_status_t *obj);
const char *snd_hwdep_dsp_status_get_id(const snd_hwdep_dsp_status_t *obj);
unsigned int snd_hwdep_dsp_status_get_num_dsps(const snd_hwdep_dsp_status_t *obj);
unsigned int snd_hwdep_dsp_status_get_dsp_loaded(const snd_hwdep_dsp_status_t *obj);
unsigned int snd_hwdep_dsp_status_get_chip_ready(const snd_hwdep_dsp_status_t *obj);
size_t snd_hwdep_dsp_image_sizeof(void);
/** allocate #snd_hwdep_dsp_image_t container on stack */
#define snd_hwdep_dsp_image_alloca(ptr) __snd_alloca(ptr, snd_hwdep_dsp_image)
int snd_hwdep_dsp_image_malloc(snd_hwdep_dsp_image_t **ptr);
void snd_hwdep_dsp_image_free(snd_hwdep_dsp_image_t *obj);
void snd_hwdep_dsp_image_copy(snd_hwdep_dsp_image_t *dst, const snd_hwdep_dsp_image_t *src);
unsigned int snd_hwdep_dsp_image_get_index(const snd_hwdep_dsp_image_t *obj);
const char *snd_hwdep_dsp_image_get_name(const snd_hwdep_dsp_image_t *obj);
const void *snd_hwdep_dsp_image_get_image(const snd_hwdep_dsp_image_t *obj);
size_t snd_hwdep_dsp_image_get_length(const snd_hwdep_dsp_image_t *obj);
void snd_hwdep_dsp_image_set_index(snd_hwdep_dsp_image_t *obj, unsigned int _index);
void snd_hwdep_dsp_image_set_name(snd_hwdep_dsp_image_t *obj, const char *name);
void snd_hwdep_dsp_image_set_image(snd_hwdep_dsp_image_t *obj, void *buffer);
void snd_hwdep_dsp_image_set_length(snd_hwdep_dsp_image_t *obj, size_t length);
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_HWDEP_H */

83
raylib/external/alsa/input.h vendored
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@ -1,83 +0,0 @@
/**
* \file include/input.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_INPUT_H
#define __ALSA_INPUT_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Input Input Interface
*
* The input functions present an interface similar to the stdio functions
* on top of different underlying input sources.
*
* The #snd_config_load function uses such an input handle to be able to
* load configurations not only from standard files but also from other
* sources, e.g. from memory buffers.
*
* \{
*/
/**
* \brief Internal structure for an input object.
*
* The ALSA library uses a pointer to this structure as a handle to an
* input object. Applications don't access its contents directly.
*/
typedef struct _snd_input snd_input_t;
/** Input type. */
typedef enum _snd_input_type {
/** Input from a stdio stream. */
SND_INPUT_STDIO,
/** Input from a memory buffer. */
SND_INPUT_BUFFER
} snd_input_type_t;
int snd_input_stdio_open(snd_input_t **inputp, const char *file, const char *mode);
int snd_input_stdio_attach(snd_input_t **inputp, FILE *fp, int _close);
int snd_input_buffer_open(snd_input_t **inputp, const char *buffer, ssize_t size);
int snd_input_close(snd_input_t *input);
int snd_input_scanf(snd_input_t *input, const char *format, ...)
#ifndef DOC_HIDDEN
__attribute__ ((format (scanf, 2, 3)))
#endif
;
char *snd_input_gets(snd_input_t *input, char *str, size_t size);
int snd_input_getc(snd_input_t *input);
int snd_input_ungetc(snd_input_t *input, int c);
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_INPUT_H */

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@ -1,317 +0,0 @@
/**
* \file include/mixer.h
* \brief Application interface library for the ALSA driver
* \author Jaroslav Kysela <perex@perex.cz>
* \author Abramo Bagnara <abramo@alsa-project.org>
* \author Takashi Iwai <tiwai@suse.de>
* \date 1998-2001
*
* Application interface library for the ALSA driver
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_MIXER_H
#define __ALSA_MIXER_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Mixer Mixer Interface
* The mixer interface.
* \{
*/
/** Mixer handle */
typedef struct _snd_mixer snd_mixer_t;
/** Mixer elements class handle */
typedef struct _snd_mixer_class snd_mixer_class_t;
/** Mixer element handle */
typedef struct _snd_mixer_elem snd_mixer_elem_t;
/**
* \brief Mixer callback function
* \param mixer Mixer handle
* \param mask event mask
* \param elem related mixer element (if any)
* \return 0 on success otherwise a negative error code
*/
typedef int (*snd_mixer_callback_t)(snd_mixer_t *ctl,
unsigned int mask,
snd_mixer_elem_t *elem);
/**
* \brief Mixer element callback function
* \param elem Mixer element
* \param mask event mask
* \return 0 on success otherwise a negative error code
*/
typedef int (*snd_mixer_elem_callback_t)(snd_mixer_elem_t *elem,
unsigned int mask);
/**
* \brief Compare function for sorting mixer elements
* \param e1 First element
* \param e2 Second element
* \return -1 if e1 < e2, 0 if e1 == e2, 1 if e1 > e2
*/
typedef int (*snd_mixer_compare_t)(const snd_mixer_elem_t *e1,
const snd_mixer_elem_t *e2);
/**
* \brief Event callback for the mixer class
* \param class_ Mixer class
* \param mask Event mask (SND_CTL_EVENT_*)
* \param helem HCTL element which invoked the event
* \param melem Mixer element associated to HCTL element
* \return zero if success, otherwise a negative error value
*/
typedef int (*snd_mixer_event_t)(snd_mixer_class_t *class_, unsigned int mask,
snd_hctl_elem_t *helem, snd_mixer_elem_t *melem);
/** Mixer element type */
typedef enum _snd_mixer_elem_type {
/* Simple mixer elements */
SND_MIXER_ELEM_SIMPLE,
SND_MIXER_ELEM_LAST = SND_MIXER_ELEM_SIMPLE
} snd_mixer_elem_type_t;
int snd_mixer_open(snd_mixer_t **mixer, int mode);
int snd_mixer_close(snd_mixer_t *mixer);
snd_mixer_elem_t *snd_mixer_first_elem(snd_mixer_t *mixer);
snd_mixer_elem_t *snd_mixer_last_elem(snd_mixer_t *mixer);
int snd_mixer_handle_events(snd_mixer_t *mixer);
int snd_mixer_attach(snd_mixer_t *mixer, const char *name);
int snd_mixer_attach_hctl(snd_mixer_t *mixer, snd_hctl_t *hctl);
int snd_mixer_detach(snd_mixer_t *mixer, const char *name);
int snd_mixer_detach_hctl(snd_mixer_t *mixer, snd_hctl_t *hctl);
int snd_mixer_get_hctl(snd_mixer_t *mixer, const char *name, snd_hctl_t **hctl);
int snd_mixer_poll_descriptors_count(snd_mixer_t *mixer);
int snd_mixer_poll_descriptors(snd_mixer_t *mixer, struct pollfd *pfds, unsigned int space);
int snd_mixer_poll_descriptors_revents(snd_mixer_t *mixer, struct pollfd *pfds, unsigned int nfds, unsigned short *revents);
int snd_mixer_load(snd_mixer_t *mixer);
void snd_mixer_free(snd_mixer_t *mixer);
int snd_mixer_wait(snd_mixer_t *mixer, int timeout);
int snd_mixer_set_compare(snd_mixer_t *mixer, snd_mixer_compare_t msort);
void snd_mixer_set_callback(snd_mixer_t *obj, snd_mixer_callback_t val);
void * snd_mixer_get_callback_private(const snd_mixer_t *obj);
void snd_mixer_set_callback_private(snd_mixer_t *obj, void * val);
unsigned int snd_mixer_get_count(const snd_mixer_t *obj);
int snd_mixer_class_unregister(snd_mixer_class_t *clss);
snd_mixer_elem_t *snd_mixer_elem_next(snd_mixer_elem_t *elem);
snd_mixer_elem_t *snd_mixer_elem_prev(snd_mixer_elem_t *elem);
void snd_mixer_elem_set_callback(snd_mixer_elem_t *obj, snd_mixer_elem_callback_t val);
void * snd_mixer_elem_get_callback_private(const snd_mixer_elem_t *obj);
void snd_mixer_elem_set_callback_private(snd_mixer_elem_t *obj, void * val);
snd_mixer_elem_type_t snd_mixer_elem_get_type(const snd_mixer_elem_t *obj);
int snd_mixer_class_register(snd_mixer_class_t *class_, snd_mixer_t *mixer);
int snd_mixer_elem_new(snd_mixer_elem_t **elem,
snd_mixer_elem_type_t type,
int compare_weight,
void *private_data,
void (*private_free)(snd_mixer_elem_t *elem));
int snd_mixer_elem_add(snd_mixer_elem_t *elem, snd_mixer_class_t *class_);
int snd_mixer_elem_remove(snd_mixer_elem_t *elem);
void snd_mixer_elem_free(snd_mixer_elem_t *elem);
int snd_mixer_elem_info(snd_mixer_elem_t *elem);
int snd_mixer_elem_value(snd_mixer_elem_t *elem);
int snd_mixer_elem_attach(snd_mixer_elem_t *melem, snd_hctl_elem_t *helem);
int snd_mixer_elem_detach(snd_mixer_elem_t *melem, snd_hctl_elem_t *helem);
int snd_mixer_elem_empty(snd_mixer_elem_t *melem);
void *snd_mixer_elem_get_private(const snd_mixer_elem_t *melem);
size_t snd_mixer_class_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_mixer_class_t using standard alloca
* \param ptr returned pointer
*/
#define snd_mixer_class_alloca(ptr) __snd_alloca(ptr, snd_mixer_class)
int snd_mixer_class_malloc(snd_mixer_class_t **ptr);
void snd_mixer_class_free(snd_mixer_class_t *obj);
void snd_mixer_class_copy(snd_mixer_class_t *dst, const snd_mixer_class_t *src);
snd_mixer_t *snd_mixer_class_get_mixer(const snd_mixer_class_t *class_);
snd_mixer_event_t snd_mixer_class_get_event(const snd_mixer_class_t *class_);
void *snd_mixer_class_get_private(const snd_mixer_class_t *class_);
snd_mixer_compare_t snd_mixer_class_get_compare(const snd_mixer_class_t *class_);
int snd_mixer_class_set_event(snd_mixer_class_t *class_, snd_mixer_event_t event);
int snd_mixer_class_set_private(snd_mixer_class_t *class_, void *private_data);
int snd_mixer_class_set_private_free(snd_mixer_class_t *class_, void (*private_free)(snd_mixer_class_t *));
int snd_mixer_class_set_compare(snd_mixer_class_t *class_, snd_mixer_compare_t compare);
/**
* \defgroup SimpleMixer Simple Mixer Interface
* \ingroup Mixer
* The simple mixer interface.
* \{
*/
/* Simple mixer elements API */
/** Mixer simple element channel identifier */
typedef enum _snd_mixer_selem_channel_id {
/** Unknown */
SND_MIXER_SCHN_UNKNOWN = -1,
/** Front left */
SND_MIXER_SCHN_FRONT_LEFT = 0,
/** Front right */
SND_MIXER_SCHN_FRONT_RIGHT,
/** Rear left */
SND_MIXER_SCHN_REAR_LEFT,
/** Rear right */
SND_MIXER_SCHN_REAR_RIGHT,
/** Front center */
SND_MIXER_SCHN_FRONT_CENTER,
/** Woofer */
SND_MIXER_SCHN_WOOFER,
/** Side Left */
SND_MIXER_SCHN_SIDE_LEFT,
/** Side Right */
SND_MIXER_SCHN_SIDE_RIGHT,
/** Rear Center */
SND_MIXER_SCHN_REAR_CENTER,
SND_MIXER_SCHN_LAST = 31,
/** Mono (Front left alias) */
SND_MIXER_SCHN_MONO = SND_MIXER_SCHN_FRONT_LEFT
} snd_mixer_selem_channel_id_t;
/** Mixer simple element - register options - abstraction level */
enum snd_mixer_selem_regopt_abstract {
/** no abstraction - try use all universal controls from driver */
SND_MIXER_SABSTRACT_NONE = 0,
/** basic abstraction - Master,PCM,CD,Aux,Record-Gain etc. */
SND_MIXER_SABSTRACT_BASIC,
};
/** Mixer simple element - register options */
struct snd_mixer_selem_regopt {
/** structure version */
int ver;
/** v1: abstract layer selection */
enum snd_mixer_selem_regopt_abstract abstract;
/** v1: device name (must be NULL when playback_pcm or capture_pcm != NULL) */
const char *device;
/** v1: playback PCM connected to mixer device (NULL == none) */
snd_pcm_t *playback_pcm;
/** v1: capture PCM connected to mixer device (NULL == none) */
snd_pcm_t *capture_pcm;
};
/** Mixer simple element identifier */
typedef struct _snd_mixer_selem_id snd_mixer_selem_id_t;
const char *snd_mixer_selem_channel_name(snd_mixer_selem_channel_id_t channel);
int snd_mixer_selem_register(snd_mixer_t *mixer,
struct snd_mixer_selem_regopt *options,
snd_mixer_class_t **classp);
void snd_mixer_selem_get_id(snd_mixer_elem_t *element,
snd_mixer_selem_id_t *id);
const char *snd_mixer_selem_get_name(snd_mixer_elem_t *elem);
unsigned int snd_mixer_selem_get_index(snd_mixer_elem_t *elem);
snd_mixer_elem_t *snd_mixer_find_selem(snd_mixer_t *mixer,
const snd_mixer_selem_id_t *id);
int snd_mixer_selem_is_active(snd_mixer_elem_t *elem);
int snd_mixer_selem_is_playback_mono(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_playback_channel(snd_mixer_elem_t *obj, snd_mixer_selem_channel_id_t channel);
int snd_mixer_selem_is_capture_mono(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_channel(snd_mixer_elem_t *obj, snd_mixer_selem_channel_id_t channel);
int snd_mixer_selem_get_capture_group(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_common_volume(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_playback_volume(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_playback_volume_joined(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_volume(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_volume_joined(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_common_switch(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_playback_switch(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_playback_switch_joined(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_switch(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_switch_joined(snd_mixer_elem_t *elem);
int snd_mixer_selem_has_capture_switch_exclusive(snd_mixer_elem_t *elem);
int snd_mixer_selem_ask_playback_vol_dB(snd_mixer_elem_t *elem, long value, long *dBvalue);
int snd_mixer_selem_ask_capture_vol_dB(snd_mixer_elem_t *elem, long value, long *dBvalue);
int snd_mixer_selem_ask_playback_dB_vol(snd_mixer_elem_t *elem, long dBvalue, int dir, long *value);
int snd_mixer_selem_ask_capture_dB_vol(snd_mixer_elem_t *elem, long dBvalue, int dir, long *value);
int snd_mixer_selem_get_playback_volume(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long *value);
int snd_mixer_selem_get_capture_volume(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long *value);
int snd_mixer_selem_get_playback_dB(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long *value);
int snd_mixer_selem_get_capture_dB(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long *value);
int snd_mixer_selem_get_playback_switch(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, int *value);
int snd_mixer_selem_get_capture_switch(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, int *value);
int snd_mixer_selem_set_playback_volume(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long value);
int snd_mixer_selem_set_capture_volume(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long value);
int snd_mixer_selem_set_playback_dB(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long value, int dir);
int snd_mixer_selem_set_capture_dB(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, long value, int dir);
int snd_mixer_selem_set_playback_volume_all(snd_mixer_elem_t *elem, long value);
int snd_mixer_selem_set_capture_volume_all(snd_mixer_elem_t *elem, long value);
int snd_mixer_selem_set_playback_dB_all(snd_mixer_elem_t *elem, long value, int dir);
int snd_mixer_selem_set_capture_dB_all(snd_mixer_elem_t *elem, long value, int dir);
int snd_mixer_selem_set_playback_switch(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, int value);
int snd_mixer_selem_set_capture_switch(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, int value);
int snd_mixer_selem_set_playback_switch_all(snd_mixer_elem_t *elem, int value);
int snd_mixer_selem_set_capture_switch_all(snd_mixer_elem_t *elem, int value);
int snd_mixer_selem_get_playback_volume_range(snd_mixer_elem_t *elem,
long *min, long *max);
int snd_mixer_selem_get_playback_dB_range(snd_mixer_elem_t *elem,
long *min, long *max);
int snd_mixer_selem_set_playback_volume_range(snd_mixer_elem_t *elem,
long min, long max);
int snd_mixer_selem_get_capture_volume_range(snd_mixer_elem_t *elem,
long *min, long *max);
int snd_mixer_selem_get_capture_dB_range(snd_mixer_elem_t *elem,
long *min, long *max);
int snd_mixer_selem_set_capture_volume_range(snd_mixer_elem_t *elem,
long min, long max);
int snd_mixer_selem_is_enumerated(snd_mixer_elem_t *elem);
int snd_mixer_selem_is_enum_playback(snd_mixer_elem_t *elem);
int snd_mixer_selem_is_enum_capture(snd_mixer_elem_t *elem);
int snd_mixer_selem_get_enum_items(snd_mixer_elem_t *elem);
int snd_mixer_selem_get_enum_item_name(snd_mixer_elem_t *elem, unsigned int idx, size_t maxlen, char *str);
int snd_mixer_selem_get_enum_item(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, unsigned int *idxp);
int snd_mixer_selem_set_enum_item(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, unsigned int idx);
size_t snd_mixer_selem_id_sizeof(void);
/** \hideinitializer
* \brief allocate an invalid #snd_mixer_selem_id_t using standard alloca
* \param ptr returned pointer
*/
#define snd_mixer_selem_id_alloca(ptr) __snd_alloca(ptr, snd_mixer_selem_id)
int snd_mixer_selem_id_malloc(snd_mixer_selem_id_t **ptr);
void snd_mixer_selem_id_free(snd_mixer_selem_id_t *obj);
void snd_mixer_selem_id_copy(snd_mixer_selem_id_t *dst, const snd_mixer_selem_id_t *src);
const char *snd_mixer_selem_id_get_name(const snd_mixer_selem_id_t *obj);
unsigned int snd_mixer_selem_id_get_index(const snd_mixer_selem_id_t *obj);
void snd_mixer_selem_id_set_name(snd_mixer_selem_id_t *obj, const char *val);
void snd_mixer_selem_id_set_index(snd_mixer_selem_id_t *obj, unsigned int val);
/** \} */
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_MIXER_H */

112
raylib/external/alsa/mixer_abst.h vendored
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@ -1,112 +0,0 @@
/**
* \file include/mixer_abst.h
* \brief Mixer abstract implementation interface library for the ALSA library
* \author Jaroslav Kysela <perex@perex.cz>
* \date 2005
*
* Mixer abstact implementation interface library for the ALSA library
*/
/*
* This library is free software; you can redistribute it and/or modify
* it under the terms of the GNU Lesser General Public License as
* published by the Free Software Foundation; either version 2.1 of
* the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, write to the Free Software
* Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
*
*/
#ifndef __ALSA_MIXER_ABST_H
#define __ALSA_MIXER_ABST_H
#ifdef __cplusplus
extern "C" {
#endif
/**
* \defgroup Mixer_Abstract Mixer Abstact Module Interface
* The mixer abstact module interface.
* \{
*/
#define SM_PLAY 0
#define SM_CAPT 1
#define SM_CAP_GVOLUME (1<<1)
#define SM_CAP_GSWITCH (1<<2)
#define SM_CAP_PVOLUME (1<<3)
#define SM_CAP_PVOLUME_JOIN (1<<4)
#define SM_CAP_PSWITCH (1<<5)
#define SM_CAP_PSWITCH_JOIN (1<<6)
#define SM_CAP_CVOLUME (1<<7)
#define SM_CAP_CVOLUME_JOIN (1<<8)
#define SM_CAP_CSWITCH (1<<9)
#define SM_CAP_CSWITCH_JOIN (1<<10)
#define SM_CAP_CSWITCH_EXCL (1<<11)
#define SM_CAP_PENUM (1<<12)
#define SM_CAP_CENUM (1<<13)
/* SM_CAP_* 24-31 => private for module use */
#define SM_OPS_IS_ACTIVE 0
#define SM_OPS_IS_MONO 1
#define SM_OPS_IS_CHANNEL 2
#define SM_OPS_IS_ENUMERATED 3
#define SM_OPS_IS_ENUMCNT 4
#define sm_selem(x) ((sm_selem_t *)((x)->private_data))
#define sm_selem_ops(x) ((sm_selem_t *)((x)->private_data))->ops
typedef struct _sm_selem {
snd_mixer_selem_id_t *id;
struct sm_elem_ops *ops;
unsigned int caps;
unsigned int capture_group;
} sm_selem_t;
typedef struct _sm_class_basic {
char *device;
snd_ctl_t *ctl;
snd_hctl_t *hctl;
snd_ctl_card_info_t *info;
} sm_class_basic_t;
struct sm_elem_ops {
int (*is)(snd_mixer_elem_t *elem, int dir, int cmd, int val);
int (*get_range)(snd_mixer_elem_t *elem, int dir, long *min, long *max);
int (*set_range)(snd_mixer_elem_t *elem, int dir, long min, long max);
int (*get_dB_range)(snd_mixer_elem_t *elem, int dir, long *min, long *max);
int (*ask_vol_dB)(snd_mixer_elem_t *elem, int dir, long value, long *dbValue);
int (*ask_dB_vol)(snd_mixer_elem_t *elem, int dir, long dbValue, long *value, int xdir);
int (*get_volume)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, long *value);
int (*get_dB)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, long *value);
int (*set_volume)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, long value);
int (*set_dB)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, long value, int xdir);
int (*get_switch)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, int *value);
int (*set_switch)(snd_mixer_elem_t *elem, int dir, snd_mixer_selem_channel_id_t channel, int value);
int (*enum_item_name)(snd_mixer_elem_t *elem, unsigned int item, size_t maxlen, char *buf);
int (*get_enum_item)(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, unsigned int *itemp);
int (*set_enum_item)(snd_mixer_elem_t *elem, snd_mixer_selem_channel_id_t channel, unsigned int item);
};
int snd_mixer_selem_compare(const snd_mixer_elem_t *c1, const snd_mixer_elem_t *c2);
int snd_mixer_sbasic_info(const snd_mixer_class_t *class, sm_class_basic_t *info);
void *snd_mixer_sbasic_get_private(const snd_mixer_class_t *class);
void snd_mixer_sbasic_set_private(const snd_mixer_class_t *class, void *private_data);
void snd_mixer_sbasic_set_private_free(const snd_mixer_class_t *class, void (*private_free)(snd_mixer_class_t *class));
/** \} */
#ifdef __cplusplus
}
#endif
#endif /* __ALSA_MIXER_ABST_H */

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