void updateDisplay()
{
if (FMode == FM_SEMI)
{
#ifdef FUNC_SETRGB
setRGB(FM_SEMI_COLOR);
#endif
}
else if (FMode == FM_RBND)
{
#ifdef FUNC_SETRGB
setRGB(FM_RBND_COLOR);
#endif
}
else if (FMode == FM_BRST)
{
#ifdef FUNC_SETRGB
setRGB(FM_BRST_COLOR);
#endif
}
else if (FMode == FM_AUTO)
{
#ifdef FUNC_SETRGB
setRGB(FM_AUTO_COLOR);
#endif
}
}
void main() {
initLEDs(); // initialisation of strand, as defined in ws2812b.h --> port pin needs to be set there ! ! !
setRGB(0,0,0xFF0000); // pixel 0,0 as red
setRGB(1,0,0x00FF00); // pixel 1,0 as green
setRGB(2,0,0x0000FF); // pixel 2,0 as blue
setMaxBrightness(5); // dim down to 5 = low brightness
showLEDs(); // display all color values now
}
void loop() {
// Green
setRGB(0, 255, 0);
delay(1);
// Yellow
setRGB(210, 219, 29);
delay(1);
// Red
setRGB(255, 0, 0);
delay(2);
}
void main() {
initLEDs(); // initialisation of strand, as defined in ws2812b.h --> port pin needs to be set there ! ! !
setMaxBrightness(10); // relatively low, good for the eyes
// repeat endlessly for blinking:
while (1) {
setRGB(0,0,0xFF9922);showLEDs(); // "on" - some color
_delay_ms(200); // pause a little
setRGB(0,0,0x000000);showLEDs(); // "off" - might as well use clearLEDs();
_delay_ms(500); // pause a little more
}
}
void DrasculaEngine::loadPic(const char *NamePcc, byte *targetSurface, int colorCount) {
debug(5, "loadPic(%s)", NamePcc);
uint dataSize = 0;
byte *pcxData;
Common::SeekableReadStream *stream = _archives.open(NamePcc);
if (!stream)
error("missing game data %s %c", NamePcc, 7);
dataSize = stream->size() - 128 - (256 * 3);
pcxData = (byte *)malloc(dataSize);
stream->seek(128, SEEK_SET);
stream->read(pcxData, dataSize);
decodeRLE(pcxData, targetSurface);
free(pcxData);
for (int i = 0; i < 256; i++) {
cPal[i * 3 + 0] = stream->readByte();
cPal[i * 3 + 1] = stream->readByte();
cPal[i * 3 + 2] = stream->readByte();
}
delete stream;
setRGB((byte *)cPal, colorCount);
}
/*EDU US*/ void rgb_lcd::branch(void){
NBR_ROWS=2;
NBR_COLS=16;
begin(NBR_COLS, NBR_ROWS);
setRGB(255, 255, 255);
delay(1000);
//---- Configuration mémoire à 0
//-- Memory => remplissage par défaut
for(int8_t i=0;i<NBR_COLS;i++){
m_memory[i][0]='=';
}
for(int8_t i=0;i<NBR_COLS;i++){
m_memory[i][1]='.';
}
//--- Affichage de memory => Serial
DEBUG_TAB2("MEMORY contient initialement : ", m_memory,0,15,0,1);
//----- Position curseur par défaut
m_curentRow=0;
m_curentCol=0;
//----- Initialisation de la taille max du nombre attaché à la position
// 0 = pas de nbr attaché à la position
// 4 = le nombre attaché à la position à au moins 4 chiffres
for(int8_t m=0;m<NBR_ROWS;m++){
for(int8_t i=0;i<NBR_COLS;i++){
m_maxLength[i][m]=0;
}
}
}
void mpxlcol_load (FORM* form)
{
//Wenn noch kein Colorset gespeichert wurde, wird das Default Colorset
//Abgespeichert. Sonst wird das COlorset aus dem Speicher geladen.
if((BFS_LoadFile(BFS_ID_RGB_Colors, sizeof(struct Colorset), (unsigned char*) &colors))
!= sizeof(struct Colorset))
{
colors = default_Colorset;
BFS_SaveFile(BFS_ID_RGB_Colors, sizeof(struct Colorset), (unsigned char*) &colors);
msgbox(50,BC_OKOnly | BC_DefaultButton1,"Defaults geladen");
}
pointer = 0;
//Controls mit den Werten im Speicher initialisieren.
memcpy(((TXTBOX*)form->controls[3])->text,colors.Name[pointer],20);
((TRACKBAR*)form->controls[4])->actval = colors.color[pointer].Red;
((TRACKBAR*)form->controls[5])->actval = colors.color[pointer].Green;
((TRACKBAR*)form->controls[6])->actval = colors.color[pointer].Blue;
//und zeichnen
control_draw(form->controls[3], 0);
control_draw(form->controls[4], 0);
control_draw(form->controls[5], 0);
control_draw(form->controls[6], 0);
//setzen der ersten Farbe im Speicher
cc1100_init();
setRGB(colors.color[0]);
//Einschalten des LED-Stacks
led_state(mpxl_state_on);
}
OGL_Box::OGL_Box(Box* hvkBox) : HvkOGLObj(hvkBox){
setSize(hvkBox->sx, hvkBox->sy, hvkBox->sz);
setRGB();
mx = hvkBox->sx;
my = hvkBox->sy;
mz = hvkBox->sz;
}
/*** Blink LED ***/
void RGB::blink(int numberOfTimes, int Delay_OnTime, int Delay_OffTime)
{
int i = 0;
int rgb[] = {red, green, blue};
//for loop for blinking
for(i=0; i<numberOfTimes; i++)
{
setRGB(0,0,0);
_delay(Delay_OnTime);
setRGB(rgb[0],rgb[1],rgb[2]);
_delay(int Delay_OffTime);
}
// bring back to previous state
setRGB(rgb[0],rgb[1],rgb[2]);
}
void intersectRP(vec4 is, float ax, float ay, float az, float bx, float by, float bz, RGB *ci, RGB ca, RGB cb, float ix){
float my, qy, mz, qz, iy, iz;
int rda, rdb, gra, grb, bla, blb, ird, igr, ibl, mrd, mgr, mbl, qrd, qgr, qbl;
getRGB(ca, &rda, &gra, &bla);
getRGB(cb, &rdb, &grb, &blb);
if (ax==bx) {
return;
}
else {
my = (by - ay)/(bx - ax);
qy = ay - (my*ax);
mz = (bz - az)/(bx - ax);
qz = az - (mz*ax);
mrd = (int) ((rdb - rda)/(bx - ax));
qrd = (int) (rdb - (mrd*ax));
mgr = (int) ((grb - gra)/(bx - ax));
qgr = (int) (grb - (mgr*ax));
mbl = (int) ((blb - bla)/(bx - ax));
qbl = (int) (blb - (mbl*ax));
iy = my*ix + qy;
iz = mz*ix + qz;
ird = (int) (mrd*ix + qrd);
igr = (int) (mgr*ix + qgr);
ibl = (int) (mbl*ix + qbl);
setRGB(ci, ird, igr, ibl);
initVec4Norm(ix, iy, iz, is);
}
}
void MatrixOpData::MatrixArray::expandFrom3x3To4x4()
{
const Values oldValues = getValues();
resize(4, 4);
setRGB(oldValues.data());
}
static PyObject* pySetRGB(PyObject *self, PyObject *args) {
int r,g,b;
if(!PyArg_ParseTuple(args, "iii", &r,&g,&b))
return NULL;
setRGB(r,g,b);
Py_RETURN_NONE;
}
Color::Color( unsigned int mode, double v0, double v1, double v2, double alpha) {
if ( mode == MODE_RGB ) {
setRGB( v0, v1, v2 );
} else if ( mode == MODE_HSV ) {
setHSV( v0, v1, v2 );
}
setAlpha( alpha );
}
// Constructor
Image::Image(Mat image_src) :
image_mat_(image_src)
{
// Initiate RGB and HSV for this image
setRGB(image_src);
setHSV(image_src);
// Set the histogram of this Image
setHistogram(image_src);
}
void Image::emotion(int x, int y, float degree){
int imageWidth = m_width;
int imageHeight = m_height;
long pixelCount = imageHeight * imageWidth;
long tapPixelIndex = getIndexOfPoint(x, y);
int step = m_channels;
struct HSL baseHSL;
struct RGB baseRGB;
setRGB(m_imageData[tapPixelIndex*step + 0], m_imageData[tapPixelIndex*step + 1], m_imageData[tapPixelIndex*step + 2], &baseRGB);
rgb2HSL(&baseRGB, &baseHSL);
struct HSL hsl;
struct RGB rgb;
for (long index = 0; index < pixelCount; index++) {
long arrayIndex = index*step;
int red = m_imageData[arrayIndex + 0];
int green = m_imageData[arrayIndex + 1];
int blue = m_imageData[arrayIndex + 2];
setRGB(red, green, blue, &rgb);
rgb2HSL(&rgb, &hsl);
float rate = analogicalRateWithBaseHSL(&baseHSL, &hsl, degree);
if (rate < 0) {
setHSL(0, 0, hsl.Lummiance, &hsl);
hsl2RGB(&hsl, &rgb);
m_imageData[arrayIndex + 0] = rgb.Red;
m_imageData[arrayIndex + 1] = rgb.Green;
m_imageData[arrayIndex + 2] = rgb.Blue;
}else if(rate > 0.001f){
int newSa = rate * hsl.Saturation;
setHSL(hsl.Hue, newSa, hsl.Lummiance, &hsl);
hsl2RGB(&hsl, &rgb);
m_imageData[arrayIndex + 0] = rgb.Red;
m_imageData[arrayIndex + 1] = rgb.Green;
m_imageData[arrayIndex + 2] = rgb.Blue;
}
}
}
bool initWithString(const char *string, const char *fontName,
float fontSize, const cocos2d::Size& dimensions,
cocos2d::TextHAlignment hAlignment,
cocos2d::TextVAlignment vAlignment,
float red, float green, float blue)
{
if (!cocos2d::LabelTTF::initWithString(string,
fontName, fontSize, dimensions, hAlignment, vAlignment))
return false;
setFlippedY(true);
setRGB(red, green, blue);
return true;
}
//---------- Gestion des int
/*EDU FR*/ void rgb_lcd::retroeclairage(long r, long g, long b){
unsigned char rUC;
unsigned char gUC;
unsigned char bUC;
if(r<0){r=0;}
if(g<0){r=0;}
if(b<0){r=0;}
if(r>1000){r=1000;}
if(g>1000){g=1000;}
if(b>1000){b=1000;}
rUC = map(r,0,1000,0,255);
gUC = map(g,0,1000,0,255);
bUC = map(b,0,1000,0,255);
setRGB(rUC,gUC,bUC);
}
void PNGImage::saveImage(const char* outpath) {
int error_code = 0;
FILE* file_descriptor = nullptr;
png_structp png_ptr = nullptr;
png_infop info_ptr = nullptr;
png_bytep row = nullptr;
file_descriptor = fopen(outpath, "wb");
if (file_descriptor == nullptr) { error_code = 101; goto ERROR_PNG_write; }
png_ptr = png_create_write_struct(PNG_LIBPNG_VER_STRING, nullptr, nullptr, nullptr);
if (png_ptr == nullptr) { error_code = 10; goto ERROR_PNG_write; }
info_ptr = png_create_info_struct(png_ptr);
if (info_ptr == nullptr) { error_code = 5; goto ERROR_PNG_write; }
if (setjmp(png_jmpbuf(png_ptr))) { error_code = 6; goto ERROR_PNG_write; }
png_init_io(png_ptr, file_descriptor);
// Write header (8 bit colour depth)
png_set_IHDR(png_ptr, info_ptr, m_width, m_height,
8, PNG_COLOR_TYPE_RGB, PNG_INTERLACE_NONE,
PNG_COMPRESSION_TYPE_BASE, PNG_FILTER_TYPE_BASE);
png_write_info(png_ptr, info_ptr);
// Allocate memory for one row (3 bytes per pixel - RGB)
row = (png_bytep) malloc(3 * m_width * sizeof(png_byte));
for (int y = 0; y < m_height; ++y) {
for (int x = 0; x < m_width; ++x) {
setRGB(&(row[x * 3]), m_buffer[y * m_width + x]);
}
png_write_row(png_ptr, row);
}
png_write_end(png_ptr, nullptr);
ERROR_PNG_write:
if (error_code != 0) {
m_error_code = error_code;
ERR("Error while writing PNG file: %s, code %i", outpath, m_error_code);
}
if (file_descriptor != nullptr) fclose(file_descriptor);
if (info_ptr != nullptr) png_free_data(png_ptr, info_ptr, PNG_FREE_ALL, -1);
if (png_ptr != nullptr) png_destroy_write_struct(&png_ptr, (png_infopp)NULL);
if (row != nullptr) free(row);
}
// hue is between 0 and 1024
void MIYbot::setColorByHue(int hue){
int r;
int g;
int b;
float h = ((float)hue)/1024;
h2rgb(h, r, g, b);
setRGB( r, g, b);
Serial.print (h) ;
Serial.print (" ") ;
Serial.print (r) ;
Serial.print (" ") ;
Serial.print (g) ;
Serial.print (" ") ;
Serial.print (b) ;
Serial.println (" ") ;
}
void mpxlcol_nb_change(FORM *form, CONTROL *control)
{
//Speicherstelle lesen und Controls entsprechend setzen
pointer = ((NUMBOX*)control)->value;
memcpy(((TXTBOX*)form->controls[3])->text,colors.Name[pointer],20);
((TRACKBAR*)form->controls[4])->actval = colors.color[pointer].Red;
((TRACKBAR*)form->controls[5])->actval = colors.color[pointer].Green;
((TRACKBAR*)form->controls[6])->actval = colors.color[pointer].Blue;
control_draw(form->controls[3], 0);
control_draw(form->controls[4], 0);
control_draw(form->controls[5], 0);
control_draw(form->controls[6], 0);
setRGB(colors.color[pointer]);
}
bool initWithString(const char *string, const char *fontPath,
float fontHeight, float width, float height,
cocos2d::TextHAlignment hAlignment, cocos2d::TextVAlignment vAlignment,
float red, float green, float blue)
{
if (!cocos2d::LabelBMFont::initWithString("", fontPath))
return false;
m_fontHeight =
((cocos2d::Label *)getChildren().front())->getCommonLineHeight();
m_height = height;
m_scale = fontHeight / m_fontHeight;
m_vAlignment = vAlignment;
setAlignment(hAlignment);
setWidth(width / m_scale);
setString(string);
setRGB(red, green, blue);
return true;
}
void
LightHouseHardware::setLightState(MenloLightHouseEventArgs* args)
{
bool onState;
m_lightState = args->lightState;
//
// args->rampUpPeriod
// args->rampDownPeriod
//
//
// Set the light state. Polarity determines whether
// TRUE == ON (m_polarity == TRUE) or OFF (m_polarity == FALSE)
//
if (m_lightState) {
// ON
onState = m_lightPolarity;
}
else {
// OFF
onState = !m_lightPolarity;
}
if (m_whitePin != (-1)) {
digitalWrite(m_whitePin, onState);
}
// Handle RGB. Polarity determines whether true == ON or OFF
if (m_rgbEnabled) {
m_redIntensity = args->redIntensity;
m_greenIntensity = args->greenIntensity;
m_blueIntensity = args->blueIntensity;
setRGB(onState);
}
return;
}
void Mirobot::ledHandler(){
long t = millis();
uint32_t newLEDColour;
#ifdef AVR
digitalWrite(STATUS_LED_PIN, (!((t / 100) % 10) || !(((t / 100) - 2) % 10)));
#endif //AVR
#ifdef ESP8266
if(next_led_pulse < t){
next_led_pulse = t + 50;
// On for 300ms every 2000 ms
if(!((t % 2000) / 300)){
newLEDColour = marcel.wifi.online ? 0x002200 : 0x000022;
}else{
newLEDColour = 0x000000;
}
if(newLEDColour != lastLEDColour){
lastLEDColour = newLEDColour;
setRGB(newLEDColour, STATUS_LED_PIN);
}
}
#endif //ESP8266
}
void CameraFeed::setRGB(int x,int y,int R,int G,int B) {
setRGB(&data[getPos(x,y)],R,G,B);
}
void CameraFeed::setColor(int x,int y,Color &C) {
setRGB(x,y,C.GetR(),C.GetG(),C.GetB());
}
void CameraFeed::setColor(BYTE *Data,Color &C) {
setRGB(Data,C.GetR(),C.GetG(),C.GetB());
}
Colour::Colour(uint8_t r, uint8_t g, uint8_t b) {
setRGB(r, g, b);
}
Colour::Colour() {
setRGB(0, 0, 0);
}
void RGBLed::setRGB(float red, float green, float blue)
{
setRGB(int(red * 255), int(green * 255), int(blue * 255));
}
void RGBLed::setHSV(float hue, float saturation, float value)
{
Color result = hsvToRGB(hue, saturation, value);
setRGB(result.r, result.g, result.b);
}