func main() {
var cx, cy, cw, ch, midy int
message := "Now is the time for all good men to come to the aid of the party"
w, h := openvg.Init()
var speed openvg.VGfloat = 0.5
var x openvg.VGfloat = 0
midy = (h / 2)
fontsize := w / 50
cx = 0
ch = fontsize * 2
cw = w
cy = midy - (ch / 2)
rx, ry, rw, rh := openvg.VGfloat(cx), openvg.VGfloat(cy), openvg.VGfloat(cw), openvg.VGfloat(ch)
// scroll the text, only in the clipping rectangle
for x = 0; x < rw+speed; x += speed {
openvg.Start(w, h)
openvg.Background(255, 255, 255)
openvg.FillRGB(0, 0, 0, .2)
openvg.Rect(rx, ry, rw, rh)
openvg.ClipRect(cx, cy, cw, ch)
openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
openvg.FillRGB(0, 0, 0, 1)
openvg.Text(0, 0, message, "sans", fontsize)
openvg.ClipEnd()
openvg.End()
}
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
os.Exit(0)
}
func init() {
width, height = openvg.Init()
flag.Float64Var(&size, "s", float64(width)*.05, "bubble size")
flag.IntVar(&niter, "n", width/6, "number of iterations")
flag.Float64Var(&opacity, "o", 0.5, "opacity")
flag.Parse()
rand.Seed(int64(time.Now().Nanosecond()) % 1e9)
}
// main initializes the system and shows the picture.
// Exit and clean up when you hit [RETURN].
func main() {
rseed()
openvg.SaveTerm()
nargs := len(os.Args)
w, h := openvg.Init()
openvg.RawTerm()
progname := os.Args[0]
n := 5
if nargs > 2 {
n, _ = strconv.Atoi(os.Args[2])
}
if nargs > 1 {
switch os.Args[1] {
case "help":
usage(progname)
os.Exit(1)
case "advert":
advert(w, h)
case "image":
imagetable(w, h)
case "text":
tb(w, h)
case "textplay":
textplay(w, h)
case "astro":
planets(w, h, "You are here")
case "fontsize":
fontrange(w, h)
case "raspi":
raspi(w, h, "The Raspberry Pi")
case "loop":
loop(w, h)
case "demo":
demo(w, h, n)
case "rand":
rshapes(w, h, n)
case "test":
testpattern(w, h, "hello, world")
case "rotate":
rotext(w, h, n, "Raspi")
case "gradient":
gradient(w, h)
default:
refcard(w, h)
}
} else {
refcard(w, h)
}
WaitEnd()
}
// raspberry pi, scaled to the screen dimensions
func main() {
w, h := openvg.Init()
midx := openvg.VGfloat(w) / 2
midy := openvg.VGfloat(h) / 2
rw := midx
rh := (rw * 2) / 3
fontsize := w / 25
openvg.Start(w, h)
openvg.Background(255, 255, 255)
makepi(midx-(rw/2), midy-(rh/2), rw, rh)
makepi(200, 100, 75, 50)
openvg.FillRGB(128, 0, 0, 1)
openvg.TextMid(midx, midy-(rh/2)-openvg.VGfloat(fontsize*2), "The Raspberry Pi", "sans", fontsize)
WaitEnd()
}
func main() {
width, height := openvg.Init()
w := openvg.VGfloat(width)
h := openvg.VGfloat(height)
y := h / 2
var (
margin openvg.VGfloat = 100.0
minsize openvg.VGfloat = 7.0
labeloc openvg.VGfloat = 100.0
)
bgcolor := "black"
labelcolor := "white"
maxsize := (h / 2) * 0.05
origin := sun.distance
mostDistant := neptune.distance
firstSize := mercury.radius
lastSize := neptune.radius
openvg.Start(width, height)
openvg.BackgroundColor(bgcolor)
for _, p := range solarSystem {
x := vmap(p.distance, origin, mostDistant, margin, w-margin)
r := vmap(p.radius, firstSize, lastSize, minsize, maxsize)
if p.name == "Sun" {
openvg.FillRGB(p.color.Red, p.color.Green, p.color.Blue, 1)
openvg.Circle(margin-(r/2), y, r)
} else {
light(x, y, r, p.color)
openvg.Circle(x, y, r)
}
if p.name == "Earth" && len(os.Args) > 1 {
openvg.StrokeColor(labelcolor)
openvg.StrokeWidth(1)
openvg.Line(x, y+(r/2), x, y+labeloc)
openvg.StrokeWidth(0)
openvg.FillColor(labelcolor)
openvg.TextMid(x, y+labeloc+10, os.Args[1], "sans", 12)
}
}
openvg.End()
bufio.NewReader(os.Stdin).ReadByte()
openvg.Finish()
}
func main() {
width, height := openvg.Init() // OpenGL, etc initialization
w2 := openvg.VGfloat(width / 2)
h2 := openvg.VGfloat(height / 2)
w := openvg.VGfloat(width)
openvg.Start(width, height) // Start the picture
openvg.BackgroundColor("black") // Black background
openvg.FillRGB(44, 100, 232, 1) // Big blue marble
openvg.Circle(w2, 0, w) // The "world"
openvg.FillColor("white") // White text
openvg.TextMid(w2, h2, "hello, world", "serif", width/10) // Greetings
openvg.End() // End the picture
bufio.NewReader(os.Stdin).ReadBytes('\n') // Pause until [RETURN]
openvg.Finish() // Graphics cleanup
}
// dodeck sets up the graphics environment and kicks off the interaction
func dodeck(filename, searchterm string, pausetime time.Duration, slidenum, cw, ch int, gp float64) {
firstrun = 0
w, h := openvg.Init()
openvg.FillRGB(200, 200, 200, 1)
openvg.Rect(0, 0, openvg.VGfloat(w), openvg.VGfloat(h))
if cw > 0 {
w = cw
}
if ch > 0 {
h = ch
}
if pausetime == 0 {
interact(filename, searchterm, w, h, slidenum, gp)
} else {
loop(filename, w, h, slidenum, pausetime)
}
openvg.Finish()
}
func main() {
setOptions()
rand.Seed(time.Now().Unix())
w, h := openvg.Init()
width, height := openvg.VGfloat(w), openvg.VGfloat(h)
initParticles(width, height)
openvg.Start(w, h)
i := 0
for {
draw(width, height)
time.Sleep(2 * time.Millisecond)
//fmt.Printf(".")
i++
if alternate && i == nswitch { // switch launch direction every nswitch draws
directionRTL = !directionRTL
i = 0
}
}
}
func main() {
var loop = flag.Bool("loop", false, "Loop the show")
var resize = flag.Bool("resize", false, `Resize image to fit the screen.`)
var bgcolor = flag.String("bg", "black", `Background color (named color or rgb(r,g,b)).`)
var delay = flag.Duration("delay", 2*time.Second, "Delay between pictures")
flag.Usage = func() {
fmt.Fprintf(os.Stderr, "usage: %s [ flags ] images...\n", os.Args[0])
flag.PrintDefaults()
os.Exit(1)
}
flag.Parse()
w, h := openvg.Init()
images := []image.Image{}
imgcount := 0
for _, imgfile := range flag.Args() {
fmt.Fprintf(os.Stderr, "loading %q ", imgfile)
img, err := getimage(imgfile, w, h, *resize)
if err != nil {
fmt.Fprintln(os.Stderr, err)
continue
}
images = append(images, img)
imgcount++
fmt.Fprintln(os.Stderr, "ok")
}
for {
for _, img := range images {
ib := img.Bounds()
imw, imh := ib.Max.X-ib.Min.X, ib.Max.Y-ib.Min.Y
openvg.Start(w, h)
openvg.BackgroundColor(*bgcolor)
x, y := openvg.VGfloat(w)/2-openvg.VGfloat(imw)/2, openvg.VGfloat(h)/2-openvg.VGfloat(imh)/2
openvg.Img(x, y, img)
openvg.End()
time.Sleep(*delay)
}
if !*loop {
break
}
}
}
// main plots data from specified files or standard input in a
// grid where plotc specifies the number of columns.
func main() {
w, h := openvg.Init()
i := 1
filenames := flag.Args()
for i <= 1000 {
openvg.Start(w, h)
openvg.FillColor("white")
openvg.Rect(0, 0, gwidth, gheight)
if len(filenames) == 0 {
doplot(beginx, beginy, "")
} else {
plotgrid(beginx, beginy, filenames)
}
openvg.End()
i = i + 1
}
bufio.NewReader(os.Stdin).ReadByte()
openvg.Finish()
}
func main() {
width, height := openvg.Init() // OpenGL, etc initialization
w2 := openvg.VGfloat(width / 2)
h2 := openvg.VGfloat(height / 2)
w := openvg.VGfloat(width)
stops := []openvg.Offcolor{
{0.0, openvg.RGB{44, 100, 232}, 1.0}, // blue-ish
{0.5, openvg.RGB{22, 50, 151}, 1.0}, // darker blue
{1.0, openvg.RGB{88, 200, 255}, 1.0}, // lighter blue
}
openvg.Start(width, height) // Start the picture
openvg.BackgroundColor("black") // Black background
openvg.FillRadialGradient(w2, 0, w2, w2, w*.5, stops) // Big blue marble
openvg.Circle(w2, 0, w) // The "world"
openvg.FillColor("white") // White text
openvg.TextMid(w2, h2, "hello, world", "serif", width/10) // Greetings
//openvg.SaveEnd("hvg.raw") // End the picture
openvg.End()
bufio.NewReader(os.Stdin).ReadBytes('\n') // Pause until [RETURN]
openvg.Finish() // Graphics cleanup
}
func main() {
var nr = flag.Int("n", 500, "number of objects")
var message = flag.String("m", "Go/OpenVG", "message")
var bgcolor = flag.String("bg", "white", "background color")
var fgcolor = flag.String("fg", "maroon", "text color")
flag.Parse()
rseed()
width, height := openvg.Init()
fw := openvg.VGfloat(width)
fh := openvg.VGfloat(height)
openvg.Start(width, height)
openvg.BackgroundColor(*bgcolor)
for i := 0; i < *nr; i++ {
red := uint8(rand.Intn(255))
green := uint8(rand.Intn(255))
blue := uint8(rand.Intn(255))
alpha := randf()
x := randf() * fw
y := randf() * fh
radius := randf() * fw / 10
openvg.FillRGB(red, green, blue, alpha)
openvg.Circle(x, y, radius)
}
openvg.FillColor(*fgcolor)
openvg.TextMid(fw/2, fh/2, *message, "sans", width/25)
openvg.End()
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
}
func main() {
var resize = flag.Bool("resize", false, "Resize image to fit the screen.")
var bgcolor = flag.String("bg", "black", "Background color (named color or rgb(r,g,b)).")
var fgcolor = flag.String("fg", "white", "text color (named color or rgb(r,g,b)).")
var title = flag.String("t", "", "text annotation")
var fontsize = flag.Float64("fp", 2.0, "fontsize %")
var px = flag.Float64("px", 50, "x position %")
var py = flag.Float64("py", 50, "y position %")
var texty = flag.Float64("ty", 0, "text y %")
var exit_code int
defer func() {
os.Exit(exit_code)
}()
flag.Usage = func() {
fmt.Fprintf(os.Stderr, `usage: %s [ flags ] image-path
Set specified image as an overlay screen via OpenVG lib.
Default is to put this image to the center.
`, os.Args[0])
flag.PrintDefaults()
exit_code = 1
return
}
flag.Parse()
if flag.NArg() != 1 {
fmt.Fprintf(os.Stderr, "Exactly one image-path argument must be specified.\n")
flag.Usage()
exit_code = 2
return
}
openvg.SaveTerm()
w, h := openvg.Init()
openvg.RawTerm()
defer openvg.Finish()
defer openvg.RestoreTerm()
img, err := getimage(flag.Args()[0], w, h, *resize)
if err != nil {
exit_code = 3
return
}
ib := img.Bounds()
imw, imh := ib.Max.X-ib.Min.X, ib.Max.Y-ib.Min.Y
sig_chan := make(chan os.Signal, 1)
signal.Notify(sig_chan, os.Interrupt, os.Kill, syscall.SIGHUP, syscall.SIGTERM, syscall.SIGALRM)
openvg.Start(w, h)
openvg.BackgroundColor(*bgcolor)
var x, y openvg.VGfloat
if *px < 0 || *px > 100 {
x = openvg.VGfloat(w)/2 - openvg.VGfloat(imw)/2
} else {
x = openvg.VGfloat(w)*openvg.VGfloat(*px/100) - openvg.VGfloat(imw)/2
}
if *py < 0 || *py > 100 {
y = openvg.VGfloat(h)/2 - openvg.VGfloat(imh)/2
} else {
y = openvg.VGfloat(h)*openvg.VGfloat(*py/100) - openvg.VGfloat(imh)/2
}
openvg.Img(x, y, img)
if len(*title) > 0 {
var typ openvg.VGfloat
fs := openvg.VGfloat(*fontsize/100.0) * openvg.VGfloat(w)
if *texty == 0 {
typ = y - fs*1.5
} else {
typ = openvg.VGfloat(h) * openvg.VGfloat(*texty/100)
}
openvg.FillColor(*fgcolor)
openvg.TextMid(x+openvg.VGfloat(imw)/2, typ, *title, "sans", int(fs))
}
openvg.End()
_ = <-sig_chan
}
func main() {
flag.StringVar(&mincolor, "mincolor", "maroon", "minute color")
flag.StringVar(&facecolor, "facecolor", "white", "face color")
flag.StringVar(&hrcolor, "hourcolor", "gray", "hour color")
flag.StringVar(&secolor, "secolor", "maroon", "second color")
flag.StringVar(&digitcolor, "digitcolor", "black", "digit color")
flag.StringVar(&dotcolor, "dotcolor", "silver", "dotcolor")
flag.StringVar(&framecolor, "framecolor", "gray", "frame color")
flag.StringVar(¢ercolor, "centercolor", "black", "center color")
flag.StringVar(&handstyle, "handstyle", "combo", "handstyle (combo, arrow, or round)")
flag.BoolVar(&showdigits, "showdigits", true, "show digits")
flag.BoolVar(&showdots, "showdots", true, "show dots")
flag.BoolVar(&secline, "secline", false, "show second hand")
flag.Parse()
width, height := openvg.Init()
cx := openvg.VGfloat(width / 2)
cy := openvg.VGfloat(height / 2)
facesize := openvg.VGfloat(cy * 0.5)
textsize := facesize / 10.0
framesize := facesize * 2.5
hourstroke := textsize
minstroke := hourstroke * .6
// set up the ticker and signal handler
ticker := time.NewTicker(1 * time.Second)
sigint := make(chan os.Signal, 1)
signal.Notify(sigint, os.Interrupt)
// main loop: for each second, draw the clock components
openvg.Start(width, height)
for {
select {
case <-ticker.C:
// get the current time
hr, min, sec := time.Now().Clock()
// compute element coordinates
hx, hy, mx, my, sx, sy := timecoord(cx, cy, facesize, hr, min, sec)
// frame and clock face
frame(cx, cy, framesize, facesize, textsize, framecolor, facecolor)
face(cx, cy, facesize, int(textsize*1.5))
// hour and minute hands
switch handstyle {
case "round", "r":
roundhand(cx, cy, mx, my, minstroke, mincolor)
roundhand(cx, cy, hx, hy, hourstroke, hrcolor)
case "arrow", "a":
arrowhand(cx, cy, mx, my, facesize*0.9, minangles[min], 0, mincolor)
arrowhand(cx, cy, hx, hy, facesize*0.6, hourangles[hr%12], min, hrcolor)
case "combo", "c":
combohand(cx, cy, mx, my, facesize*0.9, minstroke/2, minangles[min], 0, mincolor)
combohand(cx, cy, hx, hy, facesize*0.6, minstroke/2, hourangles[hr%12], min, hrcolor)
default:
combohand(cx, cy, mx, my, facesize*0.9, minstroke/2, minangles[min], 0, mincolor)
combohand(cx, cy, hx, hy, facesize*0.6, minstroke/2, hourangles[hr%12], min, hrcolor)
}
// second indicator
secondhand(cx, cy, sx, sy, textsize)
// center dot
centerdot(cx, cy, textsize)
// make the picture
openvg.End()
case <-sigint:
openvg.Finish()
return
}
}
}
func main() {
var (
filename = flag.String("f", "svgcolors.txt", "input file")
fontname = flag.String("font", "sans", "fontname")
neg = flag.Bool("neg", false, "negative")
showrgb = flag.Bool("rgb", false, "show RGB")
showcode = flag.Bool("showcode", true, "show colors and codes")
circsw = flag.Bool("circle", true, "circle swatch")
outline = flag.Bool("outline", false, "outline swatch")
fontsize = flag.Int("fs", 12, "fontsize")
rowsize = flag.Int("r", 32, "rowsize")
colw = flag.Float64("c", 340, "column size")
swatch = flag.Float64("s", 16, "swatch size")
gutter = flag.Float64("g", 12, "gutter")
err error
tcolor, line string
)
flag.Parse()
f, oerr := os.Open(*filename)
if oerr != nil {
fmt.Fprintf(os.Stderr, "%v\n", oerr)
return
}
width, height := openvg.Init()
openvg.Start(width, height)
fw := openvg.VGfloat(width)
fh := openvg.VGfloat(height)
if *neg {
openvg.FillColor("black")
openvg.Rect(0, 0, fw, fh)
tcolor = "white"
} else {
openvg.FillColor("white")
openvg.Rect(0, 0, fw, fh)
tcolor = "black"
}
top := fh - 32.0
left := openvg.VGfloat(32.0)
cw := openvg.VGfloat(*colw)
sw := openvg.VGfloat(*swatch)
g := openvg.VGfloat(*gutter)
in := bufio.NewReader(f)
for x, y, nr := left, top, 0; err == nil; nr++ {
line, err = in.ReadString('\n')
fields := strings.Split(strings.TrimSpace(line), "\t")
if nr%*rowsize == 0 && nr > 0 {
x += cw
y = top
}
if len(fields) == 3 {
var red, green, blue uint8
fmt.Sscanf(fields[2], "%d,%d,%d", &red, &green, &blue)
openvg.FillRGB(red, green, blue, 1)
if *outline {
openvg.StrokeColor("black")
openvg.StrokeWidth(1)
}
if *circsw {
openvg.Circle(x+sw/2, y+sw/2, sw)
} else {
openvg.Rect(x, y, sw, sw)
}
openvg.StrokeWidth(0)
openvg.FillColor(tcolor)
openvg.Text(x+sw+openvg.VGfloat(*fontsize/2), y, fields[0], *fontname, *fontsize)
var label string
if *showcode {
if *showrgb {
label = fields[1]
} else {
label = fields[2]
}
openvg.FillColor("gray")
openvg.TextEnd(x+cw-(sw+g), y, label, *fontname, *fontsize)
}
}
y -= (sw + g)
}
openvg.End()
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
}
func main() {
var sreenHeight, cx, cy, cw, ch int
message := "Hej Sandra tack forden mysiga kramen ..... <3 <3 Puss puss"
w, h := openvg.Init()
sreenHeight = h
var speed openvg.VGfloat = 4.0
var x openvg.VGfloat = 0
//midy = (h / 2)
fontsize := w / 50
cx = 0
ch = fontsize * 2
cw = w
//cy = midy - (ch / 2)
cy = h - 80
var jsonData SLData
var lastmill = makeTimestamp()
response, err := http.Get("http://localhost:8000")
if err == nil {
defer response.Body.Close()
contents, err := ioutil.ReadAll(response.Body)
if err != nil {
fmt.Printf("Error reading http data, %s", err)
} else {
fmt.Printf("Got: %s\n", string(contents))
if err := json.Unmarshal(contents, &jsonData); err != nil {
panic(err)
}
fmt.Println(jsonData)
}
}
openvg.Start(w, h)
openvg.End()
go PlayVideo(w, h)
for {
openvg.Start(w, h)
//fmt.Println("W,H",w,h)
rx, ry, rw, rh := openvg.VGfloat(cx), openvg.VGfloat(cy), openvg.VGfloat(cw), openvg.VGfloat(ch)
// scroll the text, only in the clipping rectangle
for x = 0; x < rw+speed; x += speed {
var mill = makeTimestamp()
var delta = (mill - lastmill) / 5
//fmt.Println("delta ", delta)
//speed
x = openvg.VGfloat(delta)
imgw, imgh := 0, 0
openvg.Background(0, 0, 0)
//SLHeight = 60
var imgPosY = openvg.VGfloat(sreenHeight - 120)
openvg.Image(8, imgPosY, imgw, imgh, "DA4FID.png")
var TAB1 = openvg.VGfloat(4 * w / 20)
//var TAB2 = openvg.VGfloat(8*w/20)
rx1, rw1, rh1 := openvg.VGfloat(cx), openvg.VGfloat(cw), openvg.VGfloat(ch)
ty := 0
rix := 0
// - (120 + int(rh1))
ty = sreenHeight - 140
var trainIx = 0
for ty = ty - 20; ty > 0 && trainIx < len(jsonData.ResponseData.Trains); ty -= ch {
tempy := openvg.VGfloat(ty)
//ry := openvg.VGfloat(ty)
if rix%2 == 0 {
openvg.FillRGB(255, 255, 255, .2)
//openvg.Rect(rx1, tempy, rw1, rh1)
tempy = tempy + 6.0
} else {
openvg.FillRGB(255, 255, 255, .4)
openvg.Rect(rx1, tempy, rw1/3, rh1)
tempy = tempy + 6.0
}
openvg.FillRGB(255, 255, 255, 1)
//openvg.Text(rx1, tempy, jsonData.ResponseData.Trains[trainIx].LineNumber , "sans", fontsize)
//drawTypeOfTransport(rx1+55,tempy+4,rw1,ch-20,jsonData.ResponseData.Trains[trainIx].TransportMode)
openvg.Text(rx1, tempy, jsonData.ResponseData.Trains[trainIx].DisplayTime, "sans", fontsize)
var dest = jsonData.ResponseData.Trains[trainIx].Destination
dest = replaceAO(dest)
openvg.Text(rx1+TAB1, tempy, dest, "sans", fontsize)
//openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
//openvg.Background(255,255,0)
trainIx = trainIx + 1
rix = rix + 1
}
imgw = 20
imgh = 20
//openvg.Image(8, 100 , imgw, imgh, "no_smoking.png")
// openvg.Start(w, h)
//openvg.Background(255, 255, 255)
openvg.FillRGB(100, 0, 0, 1)
openvg.Rect(rx, ry, rw, rh)
//openvg.ClipRect(cx, cy, cw, ch)
//openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
openvg.FillRGB(255, 255, 255, 1)
var pxp openvg.VGfloat = openvg.VGfloat(w) - openvg.VGfloat(x)
var pyp openvg.VGfloat = openvg.VGfloat(h) - openvg.VGfloat(58)
openvg.Text(pxp, pyp, message, "sans", fontsize)
//openvg.ClipEnd()
openvg.End()
}
//openvg.SaveEnd("dump.raw")
//time.Sleep(60*time.Second);
}
bufio.NewReader(os.Stdin).ReadBytes('\n')
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
os.Exit(0)
}
func main() {
var sreenHeight, cx, cy, cw, ch, midy int
message := "Scrolling texts could be useful if the information does not fit on screen"
w, h := openvg.Init()
sreenHeight = h
var speed openvg.VGfloat = 0.5
var x openvg.VGfloat = 0
midy = (h / 2)
fontsize := w / 50
cx = 0
ch = fontsize * 2
cw = w
cy = midy - (ch / 2)
var jsonData SLData
for {
response, err := http.Get("http://localhost:8000")
if err == nil {
defer response.Body.Close()
contents, err := ioutil.ReadAll(response.Body)
if err != nil {
fmt.Printf("Error reading http data, %s", err)
} else {
fmt.Printf("Got: %s\n", string(contents))
if err := json.Unmarshal(contents, &jsonData); err != nil {
panic(err)
}
fmt.Println(jsonData)
}
}
openvg.Start(w, h)
imgw, imgh := 0, 0
openvg.Background(255, 255, 255)
//SLHeight = 60
var imgPosY = openvg.VGfloat(sreenHeight - 70)
openvg.Image(4, imgPosY, imgw, imgh, "SL.jpg")
var TAB1 = openvg.VGfloat(4 * w / 20)
var TAB2 = openvg.VGfloat(8 * w / 20)
rx1, rw1, rh1 := openvg.VGfloat(cx), openvg.VGfloat(cw), openvg.VGfloat(ch)
ty := 0
rix := 0
// Buses
for ty = sreenHeight - (80 + int(rh1)); ty > 0 && rix < len(jsonData.ResponseData.Buses); ty -= ch {
tempy := openvg.VGfloat(ty)
//ry := openvg.VGfloat(ty)
if rix%2 == 0 {
openvg.FillRGB(0, 0, 0, .2)
//openvg.Rect(rx1, tempy, rw1, rh1)
openvg.FillRGB(0, 0, 0, 1)
tempy = tempy + 6.0
} else {
openvg.FillRGB(0, 0, 0, .4)
openvg.Rect(rx1, tempy, rw1, rh1)
tempy = tempy + 6.0
openvg.FillRGB(0, 0, 0, 1)
}
openvg.Text(rx1, tempy, jsonData.ResponseData.Buses[rix].LineNumber, "sans", fontsize)
drawTypeOfTransport(rx1+60, tempy+2, rw1, ch-20, jsonData.ResponseData.Buses[rix].TransportMode)
openvg.Text(rx1+100, tempy, jsonData.ResponseData.Buses[rix].StopPointDesignation, "sans", fontsize)
openvg.Text(rx1+TAB1, tempy, jsonData.ResponseData.Buses[rix].DisplayTime, "sans", fontsize)
var dest = jsonData.ResponseData.Buses[rix].Destination
dest = replaceAO(dest)
openvg.Text(rx1+TAB2, tempy, dest, "sans", fontsize)
//openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
//openvg.Background(255,255,0)
rix = rix + 1
}
var trainIx = 0
for ty = ty - 20; ty > 0 && trainIx < len(jsonData.ResponseData.Trains); ty -= ch {
tempy := openvg.VGfloat(ty)
//ry := openvg.VGfloat(ty)
if rix%2 == 0 {
openvg.FillRGB(0, 0, 0, .2)
//openvg.Rect(rx1, tempy, rw1, rh1)
openvg.FillRGB(0, 0, 0, 1)
tempy = tempy + 6.0
} else {
openvg.FillRGB(0, 0, 0, .4)
openvg.Rect(rx1, tempy, rw1, rh1)
tempy = tempy + 6.0
openvg.FillRGB(0, 0, 0, 1)
}
openvg.Text(rx1, tempy, jsonData.ResponseData.Trains[trainIx].LineNumber, "sans", fontsize)
drawTypeOfTransport(rx1+55, tempy+4, rw1, ch-20, jsonData.ResponseData.Trains[trainIx].TransportMode)
openvg.Text(rx1+TAB1, tempy, jsonData.ResponseData.Trains[trainIx].DisplayTime, "sans", fontsize)
var dest = jsonData.ResponseData.Trains[trainIx].Destination
dest = replaceAO(dest)
openvg.Text(rx1+TAB2, tempy, dest, "sans", fontsize)
//openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
//openvg.Background(255,255,0)
trainIx = trainIx + 1
rix = rix + 1
}
//openvg.End()
openvg.SaveEnd("dump.raw")
time.Sleep(60 * time.Second)
}
bufio.NewReader(os.Stdin).ReadBytes('\n')
rx, ry, rw, rh := openvg.VGfloat(cx), openvg.VGfloat(cy), openvg.VGfloat(cw), openvg.VGfloat(ch)
// scroll the text, only in the clipping rectangle
for x = 0; x < rw+speed; x += speed {
openvg.Start(w, h)
openvg.Background(255, 255, 255)
openvg.FillRGB(0, 0, 0, .2)
openvg.Rect(rx, ry, rw, rh)
openvg.ClipRect(cx, cy, cw, ch)
openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
openvg.FillRGB(0, 0, 0, 1)
openvg.Text(0, 0, message, "sans", fontsize)
openvg.ClipEnd()
openvg.End()
}
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
os.Exit(0)
}
func main() {
var cy, ch, midy int
var message []string
message = []string{" Black", "cats", "skitter", "and", "ghouls", "patter", "Happy", "Halloween"}
w, h := openvg.Init()
//var speed openvg.VGfloat = 0.5
var x openvg.VGfloat = 0
var vw, vh openvg.VGfloat
var midxx openvg.VGfloat = openvg.VGfloat(w / 2)
midy = (h / 2)
fontsize := w / 8
//cx = 0
ch = fontsize * 2
//cw = w
cy = midy - (ch / 2)
var redness uint8
var index int
//rx , rw, rh := openvg.VGfloat(cx) , openvg.VGfloat(cw), openvg.VGfloat(ch)
ry := openvg.VGfloat(cy)
// scroll the text, only in the clipping rectangle
index = 0
for {
for redness = 255; redness > 16; redness -= 2 {
ch = fontsize * 2
//cw = w
cy = midy - (ch / 2)
openvg.Start(w, h)
openvg.Background(redness, 0, 0)
openvg.FillRGB(0, 0, 0, .2)
//openvg.Rect(rx, ry, rw, rh)
//openvg.ClipRect(cx, cy, cw, ch)
openvg.Translate(x, ry+openvg.VGfloat(fontsize/2))
openvg.FillRGB(0, 0, 0, 1)
var fsiz int
fsiz = int(255 - redness)
openvg.TextMid(midxx, 0, message[index], "shf", fsiz)
openvg.ClipEnd()
openvg.End()
}
index = (index + 1) % 8
if index == 0 {
vw = openvg.VGfloat(w) - 200
vh = openvg.VGfloat(h) - 200
openvg.Video(100.0, 100.0, vw, vh, "test.h264")
}
if index == 0 {
var test, oix int
var xpos [40]float32
var ypos [40]float32
var rotate [40]float32
var spdx [40]float32
var spdy [40]float32
// Init positions
for test = 0; test < 40; test++ {
var rot = rand.Float32()
var rax = rand.Float32()
rax = float32(w) * rax
var ray = rand.Float32()
ray = float32(h) * ray
spdx[test] = float32(test) * rand.Float32()
spdy[test] = float32(test) * rand.Float32()
ypos[test] = ray
xpos[test] = rax
rot = 0
rotate[test] = rot
}
// Move around
for oix = 0; oix < 100; oix++ {
openvg.Start(w, h)
openvg.Background(0, 0, 0)
openvg.FillColor("red")
for test = 0; test < 40; test++ {
var rot = rand.Float32()
var rax = rand.Float32()*float32(4.0) - float32(2.0)
var ray = float32(4.0)*rand.Float32() - float32(2.0)
spdy[test] += ray
spdx[test] += rax
xpos[test] = xpos[test] + spdx[test]
ypos[test] = ypos[test] + spdy[test]
rotate[test] = rotate[test] + float32(rot*4-2)
openvg.Rotate(openvg.VGfloat(rotate[test]))
openvg.Translate(openvg.VGfloat(xpos[test]), openvg.VGfloat(ypos[test]))
openvg.TextMid(0, 0, "Happy Halloween", "shf", 30)
openvg.Translate(-openvg.VGfloat(xpos[test]), -openvg.VGfloat(ypos[test]))
openvg.Rotate(-openvg.VGfloat(rotate[test]))
}
openvg.End()
}
}
}
bufio.NewReader(os.Stdin).ReadBytes('\n')
openvg.Finish()
os.Exit(0)
}