func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("[ERR] Failed creating GL program: %v", err)
return
}
buf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, buf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
position = glctx.GetAttribLocation(program, "position")
color = glctx.GetUniformLocation(program, "color")
offset = glctx.GetUniformLocation(program, "offset")
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
statusFont, statusFace, err = exfont.LoadAsset("Tuffy.ttf", statusFaceOpt)
if err != nil {
log.Printf("[ERR] Failed to load status font: %v", err)
}
statusPainter = rexdemo.NewStatusPainter(demo, statusFont, _color.White, images)
}
func onStart(glctx gl.Context, u *uistate.UIState) {
flag.Set("v23.credentials", "/sdcard/credentials")
vlog.Log.Configure(vlog.OverridePriorConfiguration(true), vlog.LogToStderr(true))
vlog.Log.Configure(vlog.OverridePriorConfiguration(true), vlog.Level(0))
ctx, shutdown := v23.Init()
u.Shutdown = shutdown
u.Ctx = ctx
u.Service = syncbase.NewService(util.MountPoint + "/croupier/" + util.SBName)
namespace := v23.GetNamespace(u.Ctx)
allAccess := access.AccessList{In: []security.BlessingPattern{"..."}}
permissions := access.Permissions{
"Admin": allAccess,
"Write": allAccess,
"Read": allAccess,
"Resolve": allAccess,
"Debug": allAccess,
}
namespace.SetPermissions(u.Ctx, util.MountPoint, permissions, "")
namespace.SetPermissions(u.Ctx, util.MountPoint+"/croupier", permissions, "")
u.Service.SetPermissions(u.Ctx, permissions, "")
u.Images = glutil.NewImages(glctx)
fps = debug.NewFPS(u.Images)
u.Eng = glsprite.Engine(u.Images)
u.Texs = texture.LoadTextures(u.Eng)
u.CurTable = table.InitializeGame(u.NumPlayers, u.Texs)
sound.InitPlayers(u)
sync.CreateTables(u)
// Create watch stream to update game state based on Syncbase updates
go sync.UpdateSettings(u)
}
func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("[ERR] Failed creating GL program: %v", err)
return
}
buf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, buf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
position = glctx.GetAttribLocation(program, "position")
color = glctx.GetUniformLocation(program, "color")
offset = glctx.GetUniformLocation(program, "offset")
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
statusFont, statusFace, err = exfont.LoadAsset("Tuffy.ttf", statusFaceOpt)
if err != nil {
log.Printf("[ERR] Failed to load status font: %v", err)
}
statusPainter = rexdemo.NewStatusPainter(demo, statusFont, statusBG, images)
ifaces, err := net.Interfaces()
if err != nil {
log.Printf("[ERR] Failed to retreived interfaces")
} else {
log.Printf("[DEBUG] %d network interfaces", len(ifaces))
for _, iface := range ifaces {
log.Printf("[DEBUG] IFACE %d %s", iface.Index, iface.Name)
}
}
}
func onStart(glctx gl.Context, sz size.Event) {
images = glutil.NewImages(glctx)
eng = glsprite.Engine(images)
log = gmlog.New(images, 5)
bbot = NewApp()
bbot.Reset(sz)
scene = bbot.Scene(eng, sz)
}
func NewGLDebug(ctx gl.Context) *GLDebug {
if ctx == nil {
return nil
}
images := glutil.NewImages(ctx)
return &GLDebug{
ctx: ctx,
images: images,
fps: debug.NewFPS(images),
}
}
func (self *GLPeer) Initialize(in_glctx gl.Context) {
LogDebug("IN")
self.glctx = in_glctx
// transparency of png
self.glctx.Enable(gl.BLEND)
self.glctx.BlendEquation(gl.FUNC_ADD)
self.glctx.BlendFunc(gl.SRC_ALPHA, gl.ONE_MINUS_SRC_ALPHA)
self.images = glutil.NewImages(in_glctx)
self.fps = debug.NewFPS(self.images)
self.initEng()
LogDebug("OUT")
}
func onPaint(sz size.Event) {
if scene == nil {
images = glutil.NewImages()
fps = debug.NewFPS(images)
eng = glsprite.Engine(images)
loadScene()
}
gl.ClearColor(1, 1, 1, 1)
gl.Clear(gl.COLOR_BUFFER_BIT)
now := clock.Time(time.Since(startTime) * 60 / time.Second)
eng.Render(scene, now, sz)
fps.Draw(sz)
}
func onStart(glctx gl.Context) {
images = glutil.NewImages(glctx)
eng = glsprite.Engine(images)
loadScene()
rc, err := asset.Open("boing.wav")
if err != nil {
log.Fatal(err)
}
player, err = audio.NewPlayer(rc, 0, 0)
if err != nil {
log.Fatal(err)
}
}
func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("error creating GL program: %v", err)
return
}
buf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, buf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
position = glctx.GetAttribLocation(program, "position")
color = glctx.GetUniformLocation(program, "color")
offset = glctx.GetUniformLocation(program, "offset")
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
}
func onStart(glctx gl.Context, sz size.Event) {
images = glutil.NewImages(glctx)
colors := []color.RGBA{
{52, 152, 219, 1},
{231, 76, 60, 1},
{52, 73, 94, 1},
{46, 204, 113, 1},
}
for c := 0; c < gridColumnsCount; c++ {
for r := 0; r < gridrowsCount; r++ {
t := &grid[((c+1)*(r+1))-1]
t.image = images.NewImage(int(sz.PixelsPerPt*tileSize), int(sz.PixelsPerPt*tileSize))
t.color = colors[random(0, 4)]
}
}
}
func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("error creating GL program: %v", err)
return
}
glctx.Enable(gl.DEPTH_TEST)
triBuf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, triBuf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
position = glctx.GetAttribLocation(program, "vPos")
color = glctx.GetAttribLocation(program, "vCol")
normals = glctx.GetAttribLocation(program, "vNorm")
projection = glctx.GetUniformLocation(program, "proj")
view = glctx.GetUniformLocation(program, "view")
model = glctx.GetUniformLocation(program, "model")
tint = glctx.GetUniformLocation(program, "tint")
normalMatrix = glctx.GetUniformLocation(program, "normalMatrix")
lightIntensity = glctx.GetUniformLocation(program, "light.intensities")
lightPos = glctx.GetUniformLocation(program, "light.position")
arcball = NewArcBall(mgl32.Vec3{0, 0, 0}, mgl32.Vec3{0, 10, 10}, mgl32.Vec3{0, 1, 0})
white = mgl32.Vec4{1.0, 1.0, 1.0, 1.0}
red = mgl32.Vec4{1.0, 0.0, 0.0, 1.0}
lastUpdate = time.Now()
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
err = al.OpenDevice()
if err != nil {
log.Printf("Err: %+v", err)
}
al.SetListenerPosition(al.Vector{0, 0, 0})
al.SetListenerGain(1.0)
piano = NewPiano()
}
func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("error creating GL program: %v", err)
return
}
triangleData = genCircleTriangles(0.0, 0.0, 0.5)
buf = glctx.CreateBuffer()
position = glctx.GetAttribLocation(program, "position")
color = glctx.GetUniformLocation(program, "color")
offset = glctx.GetUniformLocation(program, "offset")
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
}
func appStart(glctx gl.Context) {
println("Starting")
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
panic("error creating GL program: " + err.Error())
return
}
buf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, buf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
position = glctx.GetAttribLocation(program, "position")
color = glctx.GetUniformLocation(program, "color")
offset = glctx.GetUniformLocation(program, "offset")
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
SetScene(currentScene.Name)
}
func (e *engine) Start(glctx gl.Context) error {
e.glctx = glctx
e.shaders = loader.ShaderLoader(glctx)
e.textures = loader.TextureLoader(glctx)
err := e.world.Start(WorldContext{
Bindings: e.bindings,
Shaders: e.shaders,
Textures: e.textures,
})
if err != nil {
return err
}
e.camera.MoveTo(e.followOffset)
e.camera.RotateTo(e.world.Focus().Position())
// Toggle keys
e.bindings.On(control.KeyPause, func(_ control.KeyBinding) {
e.paused = !e.paused
log.Println("Paused:", e.paused)
if e.gameover {
e.gameover = false
e.world.Reset()
}
})
e.bindings.On(control.KeyCameraFollow, func(_ control.KeyBinding) {
e.following = !e.following
log.Println("Following:", e.following)
})
e.started = time.Now()
e.lastTick = e.started
e.images = glutil.NewImages(glctx)
e.fps = debug.NewFPS(e.images)
log.Println("Starting: ", e.world.String())
return nil
}
// main is the entry point of the application. This is function gets registered
// as the main function of the application.
func (m *Module) main(a app.App) {
var images *glutil.Images
var glctx gl.Context
sz := size.Event{}
m.Render.InitApp(a)
ticker := time.NewTicker(time.Second)
for {
select {
case <-ticker.C:
a.Send(paint.Event{})
case <-m.Network.Updated():
m.loaded = true
case e := <-a.Events():
switch e := a.Filter(e).(type) {
case lifecycle.Event:
glctx, _ = e.DrawContext.(gl.Context)
if glctx != nil {
glctx = e.DrawContext.(gl.Context)
if images != nil {
images.Release()
}
images = glutil.NewImages(glctx)
}
case size.Event:
sz = e
case paint.Event:
m.draw(glctx, sz, images)
a.Publish()
}
}
}
}
func NewSquare(glctx gl.Context, inc, x, y float32) (*Square, error) {
images := glutil.NewImages(glctx)
img1 := images.NewImage(800, 200)
ftctx := freetype.NewContext()
ftFont, err := freetype.ParseFont(font.Default())
if err != nil {
return nil, err
}
ftctx.SetFont(ftFont)
ftctx.SetDPI(312)
ftctx.SetSrc(image.NewUniform(colornames.Map["black"]))
ftctx.SetDst(img1.RGBA)
ftctx.SetClip(img1.RGBA.Bounds())
ftctx.SetHinting(ifont.HintingFull)
sq := &Square{
images: images,
img1: img1,
ftctx: ftctx,
}
return sq, nil
}
func startDebugLayer(glctx gl.Context) debugLayer {
layer := debugLayer{}
layer.images = glutil.NewImages(glctx)
layer.fps = debug.NewFPS(layer.images)
return layer
}
func onStart(glctx gl.Context) {
var err error
program, err = glutil.CreateProgram(glctx, vertexShader, fragmentShader)
if err != nil {
log.Printf("error creating GL program: %v", err)
return
}
/*opengl中三种变量
uniform变量是外部application程序传递给（vertex和fragment）shader的变量。因此它是application通过函数glUniform**（）函数赋值的。
在（vertex和fragment）shader程序内部，uniform变量就像是C语言里面的常量（const ），它不能被shader程序修改。（shader只能用，不能改）
attribute变量是只能在vertex shader中使用的变量。（它不能在fragment shader中声明attribute变量，也不能被fragment shader中使用）
一般用attribute变量来表示一些顶点的数据，如：顶点坐标，法线，纹理坐标，顶点颜色等。
在application中，一般用函数glBindAttribLocation（）来绑定每个attribute变量的位置，然后用函数glVertexAttribPointer（）为每个attribute变量赋值。
varying变量是vertex和fragment shader之间做数据传递用的。一般vertex shader修改varying变量的值，然后fragment shader使用该varying变量的值。
因此varying变量在vertex和fragment shader二者之间的声明必须是一致的。application不能使用此变量。
*/
position = glctx.GetAttribLocation(program, "position") //获取位置对象(索引)
color = glctx.GetAttribLocation(program, "color") // 获取颜色对象(索引)
scan = glctx.GetUniformLocation(program, "scan") // 获取缩放对象(索引)
/*
VBO允许usage标示符取以下9种值：
gl.STATIC_DRAW
gl.STATIC_READ
gl.STATIC_COPY
gl.DYNAMIC_DRAW
gl.DYNAMIC_READ
gl.DYNAMIC_COPY
gl.STREAM_DRAW
gl.STREAM_READ
gl.STREAM_COPY
"Static”意味着VBO中的数据不会被改变（一次修改，多次使用），
"dynamic”意味着数据可以被频繁修改（多次修改，多次使用），
"stream”意味着数据每帧都不同（一次修改，一次使用）。
"Draw”意味着数据将会被送往GPU进行绘制，
"read”意味着数据会被用户的应用读取，
"copy”意味着数据会被用于绘制和读取。
注意在使用VBO时，只有draw是有效的，而copy和read主要将会在像素缓冲区（PBO）和帧缓冲区（FBO）中发挥作用。
系统会根据usage标示符为缓冲区对象分配最佳的存储位置，比如系统会为gl.STATIC_DRAW和gl.STREAM_DRAW分配显存，
gl.DYNAMIC_DRAW分配AGP，以及任何_READ_相关的缓冲区对象都会被存储到系统或者AGP中因为这样数据更容易读写
*/
positionbuf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, positionbuf)
glctx.BufferData(gl.ARRAY_BUFFER, triangleData, gl.STATIC_DRAW)
colorbuf = glctx.CreateBuffer()
glctx.BindBuffer(gl.ARRAY_BUFFER, colorbuf)
glctx.BufferData(gl.ARRAY_BUFFER, colorData, gl.STATIC_DRAW)
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
// fmt.Println(position.String(),color.String(),offset.String())//Attrib(0) Uniform(1) Uniform(0)
// TODO(crawshaw): the debug package needs to put GL state init here
// Can this be an event.Register call now??
}
func onStart(glctx gl.Context) {
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
loadScene(sceneId)
}
// 開始時点で呼ばれる関数なので、Sprite Engineを初期化する
func onStart(glctx gl.Context) {
images = glutil.NewImages(glctx) //OpenGLのContextからImageオブジェクトを生成
eng = glsprite.Engine(images) // Engineオブジェクトを生成する
game = NewGame()
scene = game.Scene(eng)
}
func onStart(glctx gl.Context) {
images = glutil.NewImages(glctx)
fps = debug.NewFPS(images)
eng = glsprite.Engine(images)
loadScene()
}
func onStart(glctx gl.Context) {
images = glutil.NewImages(glctx)
eng = glsprite.Engine(images)
game = NewGame()
scene = game.Scene(eng)
}
func runLoop(defaultScene Scene, headless bool) {
c := make(chan os.Signal, 1)
signal.Notify(c, os.Interrupt)
signal.Notify(c, syscall.SIGTERM)
go func() {
<-c
closeEvent()
}()
app.Main(func(a app.App) {
var (
images *glutil.Images
fps *debug.FPS
)
for e := range a.Events() {
switch e := a.Filter(e).(type) {
case lifecycle.Event:
switch e.Crosses(lifecycle.StageVisible) {
case lifecycle.CrossOn:
Gl = gl.NewContext(e.DrawContext)
RunPreparation(defaultScene)
images = glutil.NewImages(e.DrawContext.(mobilegl.Context))
fps = debug.NewFPS(images)
// Let the device know we want to start painting :-)
a.Send(paint.Event{})
case lifecycle.CrossOff:
closeEvent()
}
case size.Event:
sz = e
windowWidth = float32(sz.WidthPx)
windowHeight = float32(sz.HeightPx)
Gl.Viewport(0, 0, sz.WidthPx, sz.HeightPx)
case paint.Event:
if e.External {
// As we are actively painting as fast as
// we can (usually 60 FPS), skip any paint
// events sent by the system.
continue
}
RunIteration()
if closeGame {
break
}
fps.Draw(sz)
// Reset mouse if needed
if Mouse.Action == RELEASE {
Mouse.Action = NEUTRAL
}
a.Publish() // same as SwapBuffers
// Drive the animation by preparing to paint the next frame
// after this one is shown. - FPS is ignored here!
a.Send(paint.Event{})
case touch.Event:
Mouse.X = e.X
Mouse.Y = e.Y
switch e.Type {
case touch.TypeBegin:
Mouse.Action = PRESS
case touch.TypeMove:
Mouse.Action = MOVE
case touch.TypeEnd:
Mouse.Action = RELEASE
}
}
}
})
}
