void measure::update(uint16_t x, uint16_t y, uint8_t z) {
static unsigned long period = millis();
static bool os1 = false, os2 = false, os3 = false;
static uint8_t d = 255;
static uint8_t index = 0;
if ( millis() - period > 1000 ) {
period = millis();
if ( d > 0) d--;
if (machine->c1.switched) {
if ( d <= 250 ) d += 5;
}
index++;
chart.setData(index%200, d / 3, machine->c1.switched , machine->c1.banned,
machine->c2.switched , machine->c2.banned,
machine->c3.switched , machine->c3.banned );
}
machine->c1.update(0);
machine->c2.update(0);
machine->c3.update(0);
digitalWrite(S1PIN, machine->c1.switched);
digitalWrite(S2PIN, machine->c2.switched);
digitalWrite(S3PIN, machine->c3.switched);
// redraw Leds
if (machine->c1.switched != os1) {
updateLed(XL1, LEDY , machine->c1.switched);
os1 = machine->c1.switched;
}
if (machine->c2.switched != os2 ) {
updateLed(XL2, LEDY , machine->c2.switched );
os2 = machine->c2.switched;
}
if (machine->c3.switched != os3) {
updateLed(XL3, LEDY , machine->c3.switched);
os3 = machine->c3.switched;
}
b1.update(x, y, z);
b2.update(x, y, z);
b3.update(x, y, z);
b4.update(x, y, z);
}
void updateBypassMode(){
#ifdef OWLMODULAR
bypass = false;
updateLed();
#else
if(isStompSwitchPressed()){
bypass = true;
setLed(NONE);
midi.sendCc(LED, 0);
}else{
bypass = false;
updateLed();
}
#endif
}
void RGBLed::setRGB(int red, int green, int blue)
{
currentColor.r = red;
currentColor.g = green;
currentColor.b = blue;
updateLed();
}
void measure::enter() {
tft->fillRect(0, 0, 320, 240, tft->color565(100, 0, 100));
tft->drawRoundRect(0, 0, 320, 240, 3, 0xfefe);
Widget::theme->drawBox(tft, CHX, CHY, 240, 140, false);
Widget::theme->drawBox(tft, CHX+10, CHY+10, 220, 120, true);
// tft->drawBitmap(20, Y1, watercan, 32, 32,0);
// tft->drawBitmap(20, Y2, watercan, 32, 32,0);
// tft->drawBitmap(20, Y3, watercan, 32, 32,0);
Serial.println("Measuring Mode");
machine->LoadFromEEPROM();
/*bg1.setThreshold(machine->c1.threshold);
bg2.setThreshold(machine->c2.threshold);
bg3.setThreshold(machine->c3.threshold);
bg1.reDraw();
bg2.reDraw();
bg3.reDraw();*/
b1.reDraw();
b2.reDraw();
b3.reDraw();
b4.reDraw();
pinMode(S1PIN, OUTPUT);
pinMode(S2PIN, OUTPUT);
pinMode(S3PIN, OUTPUT);
updateLed(XL1, LEDY, false);
updateLed(XL2, LEDY, false);
updateLed(XL3, LEDY, false);
}
void WrapperUdpLed::handle(void) {
int bytes = _udp.parsePacket();
if (bytes > 0) {
Log.debug("UDP-Packet received, length: %i", bytes);
if (bytes == _bufferSize) {
_udp.readBytes(_udpBuffer, _bufferSize);
Log.verbose("Contents: %s", _udpBuffer);
for (int i=0; i<_ledCount; i++) {
updateLed(i, _udpBuffer[i*3+0], _udpBuffer[i*3+1], _udpBuffer[i*3+2]);
}
refreshLeds();
} else {
Log.debug("UDP-Packet size expected=%i, actual=%i", _bufferSize, bytes);
}
}
}
/**
* activate action of init view
*/
static void activate(void) {
/* turn of power led */
updateLed(POWER_LED,led_on);
/* reset init wait intervals */
intervals = 0;
/* start Timer */
initTimer = setUpTimer(RUN_INTERVAL);
DisplayState *displaystate = getDisplayState();
displaystate->gContextID = GrNewGC();
/* Back- Foreground color related stuff */
GrSetGCForeground(displaystate->gContextID, YELLOW);
GrSetGCUseBackground(displaystate->gContextID, GR_FALSE);
/* Select fonts */
displaystate->font = GrCreateFont((unsigned char *) FONTNAME, 14, NULL);
GrSetGCFont(displaystate->gContextID, displaystate->font);
GrText(displaystate->gWinID, displaystate->gContextID, 120, 30, "Initializing", -1, GR_TFASCII | GR_TFTOP);
GrDestroyFont(displaystate->font);
}
void toggleActiveSlot(){
patches.toggleActiveSlot();
updateLed();
midi.sendPatchParameterNames(); // todo: this should probably be requested from client
}
void RGBLed::setIntensity(float intensity)
{
this->intensity = intensity;
updateLed();
}
void GetMainBoardInfo(void)
{
u8 u8Tmp;
u8NoRxIn0_5Cnt = 0;
u8commStatus = 0;
fgCommPannelErr = 0;
u8ResendCnt = 0;
u8LCSnrTemp = RxBuf[1];
u8BWSnrTemp = RxBuf[2];
u8LDSnrTemp = RxBuf[3];
u8LCHSSnrTemp = RxBuf[4];
if((RxBuf[11]&0x03)==0x03) u8BWHSSnrTemp = OFF_TMP_SET;
else u8BWHSSnrTemp = 0;
// u8BWHSSnrTemp = RxBuf[11];
if(u8PowerOnGetUserSetFormMainBoard==0)
{
u8LCUserSetTmp = RxBuf[7];
u8BWUserSetTmp = RxBuf[8];
u8LDUserSetTmp = RxBuf[9];
if( (u8LCSnrTemp != OFF_TMP_SET) && (u8LDSnrTemp != OFF_TMP_SET) )
{
if(u8LCSnrTemp>u8LDSnrTemp) u8Tmp = u8LCSnrTemp - u8LDSnrTemp;
else u8Tmp = u8LDSnrTemp - u8LCSnrTemp;
if(u8Tmp<6)
{
u8AlarmFlag |= PWRON_FLASH_H;
}
else
{
u8AlarmFlag &= (u8)(~PWRON_FLASH_H);
}
u16PwrOnFlashH0_5sCnt = 0;
}
u8Mode = RxBuf[5];
u8ForceOff &= (u8)(~(LC_FORCE_OFF|BW_FORCE_OFF));
if( (RxBuf[10]&0x02)==0x02 ) u8ForceOff |= LC_FORCE_OFF;
if( (RxBuf[10]&0x01)==0x01 ) u8ForceOff |= BW_FORCE_OFF;
u8ModeBak=u8Mode;
u8ForceOffBak=u8ForceOff;
u8LCUserSetTmpBak=u8LCUserSetTmp;
u8BWUserSetTmpBak=u8BWUserSetTmp;
u8LDUserSetTmpBak=u8LDUserSetTmp;
u8PowerOnGetUserSetFormMainBoard = 1;
}
else
{
if( (u8MainBoardOutput&LC_DOOR_OPEN) != (RxBuf[6]&LC_DOOR_OPEN) )
{
// buz(BZR_DOWN_3);
// u8MainBoardOutput = RxBuf[6];
//? if( (RxBuf[6]&LC_DOOR_OPEN)==0)
u8LedTime = TO_OFF_LED_TIM;
updateLed(0);
}
if( (u8AlarmFlag&PWRON_FLASH_H)==PWRON_FLASH_H)
{
if( (u8LCSnrTemp == OFF_TMP_SET) || (u8LDSnrTemp == OFF_TMP_SET) ) u8AlarmFlag &= (u8)(~PWRON_FLASH_H);
if(u8LCSnrTemp>u8LDSnrTemp) u8Tmp = u8LCSnrTemp - u8LDSnrTemp;
else u8Tmp = u8LDSnrTemp - u8LCSnrTemp;
if(u8Tmp>=6)
{
u8AlarmFlag &= (u8)(~PWRON_FLASH_H);
}
}
}
u8MainBoardOutput = RxBuf[6];
if( (RxBuf[11]&0x01) == 0x01)
{
if( (RxBuf[11]&0xe1) == 0x21)
{
u8BWMaxSetTemp = C0;
u8BWMinSetTemp = C0-14;
u8BCDType = _BCD_220_;
}
else
{
u8BWMaxSetTemp = C0+20;
u8BWMinSetTemp = C0-24;
u8BCDType = _BCD_260_;
}
}
if( (u8Mode ==FAST_COOL_MODE) || (u8Mode ==FAST_FREEZE_MODE))
{
u8CmpCOntinueRunTim = 0;
u8AlarmFlag &= (u8)(~LD_HIGH_ALARM);
}
// else if( (u8MainBoardOutput&CMP_RUNING) == 0) 20120209
{
// u8CmpCOntinueRunTim = 0;
// u8AlarmFlag &= (u8)(~LD_HIGH_ALARM);
}
if( (u8MainBoardOutput&LC_DOOR_OPEN) == 0)
{
u16DoorOpen1s = 0;
u8AlarmFlag &= (u8)(~(DOOR_OPEN_ALARM));
}
if( (RxBuf[10]&0xf0)==0x30 )
{
u8OutState |= FactoryTest;
}
else
{
u8OutState &= (~FactoryTest)&0xff;
u8ForceOff &= (u8)(~OUT_FACT_TEST);
}
}