void MmiAngleScreen::setCursorDown() { if (0 != mmi() && (0 != mmi()->lcdKeypad())) { mmi()->lcdKeypad()->setBackLightOn(false); } }
void MmiAccelScreen::setCursorUp() { if (0 != mmi()) { mmi()->lcdKeypad()->setBackLightOn(true); } }
void MmiAngleScreen::setCursorLeft() { if((0 != mmi()) && (0 != mmi()->adapter())) { mmi()->adapter()->resetAngles(); } }
void LintillaMmiHomeScreen::setCursorDown() { if (0 != mmi()) { mmi()->setBackLightOn(false); } }
void LintillaMmiHomeScreen::setCursorUp() { if (0 != mmi()) { mmi()->setBackLightOn(true); } }
void MarkerStorage::addMarker(const IdentifiersType& key) { const uint32_t* path = &key[0]; const int16_t* perm = permutations; MarkerMappingIterator mmi(numberDimensions, permutations, maps, path, dimensions); ICellSet *pMarkerSet = markerSet.get(); do { if (!maps && !dimensions) { for (size_t i = 0; i < numberDimensions; i++, perm++) { if (*perm != FIXED_ELEMENT) { tmpKeyBuffer[i] = path[*perm]; } } } else { if (!mmi.init()) { // no combination -> return return; } // generate all combinations for (size_t targetDim = 0; targetDim < numberDimensions; targetDim++) { int16_t sourceDim = permutations[targetDim]; if (sourceDim != FIXED_ELEMENT) { tmpKeyBuffer[targetDim] = mmi[targetDim]; } } ++mmi; // next combination } pMarkerSet->set(tmpKeyBuffer); } while (!mmi.isEndOfCombinations()); }
void MmiAngleScreen::updateDisplay() { if ((0 != mmi()) && (0 != mmi()->lcdKeypad()) && (0 != mmi()->adapter())) { mmi()->adapter()->sampleAngles(); //------------------------------------------- // LCD Display Line 1 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 0); mmi()->lcdKeypad()->print("Y:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getYawAngle(), 1); mmi()->lcdKeypad()->print("\337"); // print the degree character ° mmi()->lcdKeypad()->print(" "); //------------------------------------------- // LCD Display Line 2 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 1); mmi()->lcdKeypad()->print("P:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getPitchAngle(), 0); mmi()->lcdKeypad()->print("\337"); // print the degree character ° mmi()->lcdKeypad()->print(" - R:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getRollAngle(), 0); mmi()->lcdKeypad()->print("\337"); // print the degree character ° mmi()->lcdKeypad()->print(" "); } }
void MmiMagnScreen::updateDisplay() { if ((0 != mmi()) && (0 != mmi()->lcdKeypad()) && (0 != mmi()->adapter())) { mmi()->adapter()->sampleMagn(); //------------------------------------------- // LCD Display Line 1 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 0); mmi()->lcdKeypad()->print("X:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getXMagn(), 0); //mmi()->lcdKeypad()->print("g"); // print g Unit mmi()->lcdKeypad()->print(" "); //------------------------------------------- // LCD Display Line 2 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 1); mmi()->lcdKeypad()->print("Y:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getYMagn(), 0); //mmi()->lcdKeypad()->print("g"); // print g Unit mmi()->lcdKeypad()->print(" Z:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getZMagn(), 0); //mmi()->lcdKeypad()->print("g"); // print g Unit mmi()->lcdKeypad()->print(" "); } }
void LintillaMmiHomeScreen::updateDisplay() { if ((0 != mmi()) && (0 != mmi()->lcdKeypad()) && (0 != mmi()->adapter()) && (0 != mmi()->displayBlanking())) { //------------------------------------------- // LCD Display Line 1 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 0); mmi()->lcdKeypad()->print("Dst:"); if (mmi()->adapter()->isFrontDistSensLimitExceeded()) { mmi()->lcdKeypad()->print("infin "); } else { unsigned long frontDistanceCM = mmi()->adapter()->getFrontDistanceCM(); mmi()->lcdKeypad()->print(frontDistanceCM > 99 ? "" : frontDistanceCM > 9 ? " " : " "); mmi()->lcdKeypad()->print(frontDistanceCM); mmi()->lcdKeypad()->print("cm "); } if (mmi()->displayBlanking()->isSignalBlanked() && (mmi()->adapter()->isBattVoltageBelowWarnThreshold())) { mmi()->lcdKeypad()->print(" "); } else { mmi()->lcdKeypad()->print("B:"); mmi()->lcdKeypad()->print(mmi()->adapter()->getBatteryVoltage()); mmi()->lcdKeypad()->print("[V]"); } //------------------------------------------- // LCD Display Line 2 //------------------------------------------- mmi()->lcdKeypad()->setCursor(0, 1); if (!mmi()->adapter()->isWlanConnected()) { mmi()->lcdKeypad()->print("Connecting WiFi "); } else if (mmi()->lcdKeypad()->isUpKey() || (4 != mmi()->adapter()->getDeviceId())) { uint32_t currentIpAddress = mmi()->adapter()->getCurrentIpAddress(); // IP Address presentation: either on up key pressed or always on robots not having ID = 4 mmi()->lcdKeypad()->print((uint8_t)(currentIpAddress >> 24)); mmi()->lcdKeypad()->print('.'); mmi()->lcdKeypad()->print((uint8_t)(currentIpAddress >> 16)); mmi()->lcdKeypad()->print('.'); mmi()->lcdKeypad()->print((uint8_t)(currentIpAddress >> 8)); mmi()->lcdKeypad()->print('.'); mmi()->lcdKeypad()->print((uint8_t)(currentIpAddress)); mmi()->lcdKeypad()->print(" "); }