void MainApplication::loadSettings(const BoostPath& SettingsFile)
{
ApplicationSettings LoadedSettings;
if(!boost::filesystem::exists(SettingsFile))
{
SWARNING << "Could not load Settings from: \""
<< SettingsFile.string() << "\" because that file does not exist." << std::endl;
}
else
{
BoostPath SettingsFullPath(SettingsFile);
if(!SettingsFile.is_complete() && !SettingsFile.has_root_directory())
{
SettingsFullPath = boost::filesystem::complete(SettingsFile);
}
SettingsFullPath.normalize();
SLOG << "Loading Settings from: " << SettingsFullPath.string() << std::endl;
LoadedSettings.readXML(SettingsFile);
}
//Apply default settings to any settings that are not defined in loaded settings files
applyDefaultSettings(LoadedSettings, false);
setSettings(LoadedSettings);
}
ApplicationSettings MainApplication::createDefaultSettings(void)
{
SLOG << "Creating default settings." << std::endl;
ApplicationSettings DefaultSettings;
applyDefaultSettings(DefaultSettings, true);
return DefaultSettings;
}
QgsComposerScaleBar::QgsComposerScaleBar( QgsComposition* composition )
: QgsComposerItem( composition )
, mComposerMap( 0 )
, mNumUnitsPerSegment( 0 )
, mStyle( 0 )
, mSegmentMillimeters( 0.0 )
, mAlignment( Left )
{
applyDefaultSettings();
applyDefaultSize();
}
void PowerMonitor::begin(int voltage,int f) // initialisation of powermionitor, **** include the option to have this initialise for 110V systems or 220/230 etc
{
Serial.begin(38400); // 78M6613 only speaks at 38400 baud, this will hopefully change in later revisions
//set the defualt values for the shield, Vmax + alarms, frequency + alarms, IAmax, IBmax, IAcreep, IBcreep,
// VMAX = 356,892 according to the Vdivider on the board
// f = 50.00 Hz +- 1 Hz)
// Imax A = 65.4, IAcreep =default, IAmax
// Imax B = 0 IBcreep =default, IBmax
// note that all the factory defaults are for 120 Vrms, 60 Hz power systems, we will change these to correspond to 230V 50 Hz systems now
delay(2000);
Serial.println("I");
delay(100); // wait 1.5 second for pMon to send its welcome string
Serial.flush();
delay(20);
vMaxSet(374.80); // set the external RMS voltage corresponding to 250 mVpk input of the ADC (A0) // 332.222 on V0.2, 356.892 on V 1, V0.2 477.8021536
iMaxSet(1,65.470); // set the external RMS current corresponding to 250 mVpk input of the ADC (A2)(A4)
alarmCurrentMaxThreshold( 65.000); // threshold for max current alarm, factory default = 15.000(D9) // channel A only
if(voltage >=100 && voltage <=120)
{
alarmVoltageSAGthreshold(80.0); // threshold for voltage SAG detection factory defualt = 80.0( D4)
alarmVoltageMinThreshold(100.000); // threshold for min voltage alarm, factory default = 100.000 (D5)
alarmVoltageMaxThreshold(140.000); // threshold for max voltage alarm, factory default = 140.000 (D6)
}
if(voltage >=200 && voltage <=240)
{
alarmVoltageSAGthreshold(160.0); // threshold for voltage SAG detection factory defualt = 80.0( D4)
alarmVoltageMinThreshold(200.000); // threshold for min voltage alarm, factory default = 100.000 (D5)
alarmVoltageMaxThreshold(260.000); // threshold for max voltage alarm, factory default = 140.000 (D6)
alarmCurrentMaxThreshold( 65.000); // threshold for max current alarm, factory default = 15.000(D9) // channel A only
}
if(f >=49 &&f <=51)
{
alarmFreqMinThreshold(49.00); // minimum threshold for frequency alarm factory defualt = 59.00 Hz ( D2)
alarmFreqMaxThreshold(51.00); // maximum threshold for frequency alarm factory defualt = 61.00 Hz ( D3)
}
if(f >=59 &&f <=61)
{
alarmFreqMinThreshold(59.00); // minimum threshold for frequency alarm factory defualt = 59.00 Hz ( D2)
alarmFreqMaxThreshold(61.00); // maximum threshold for frequency alarm factory defualt = 61.00 Hz ( D3)
}
applyDefaultSettings(); // U, note, CE must be disabled before sending U, and reenabsed afterwards
softReset(); // reset device
delay(1000);
Serial.flush();
}
QgsComposerScaleBar::QgsComposerScaleBar( QgsComposition* composition )
: QgsComposerItem( composition )
, mComposerMap( 0 )
, mNumUnitsPerSegment( 0 )
, mFontColor( QColor( 0, 0, 0 ) )
, mStyle( 0 )
, mSegmentMillimeters( 0.0 )
, mAlignment( Left )
, mUnits( MapUnits )
, mLineJoinStyle( Qt::MiterJoin )
, mLineCapStyle( Qt::SquareCap )
{
applyDefaultSettings();
applyDefaultSize();
}
void SabreController::begin(uint8_t mode, uint8_t f_clock)
{
sabreDAC.begin(mode, f_clock, 0, true); // (mono/stereo, clock frequency, default attenuation, keep muted)
if (firstRun())
{
resetInputNames();
applyDefaultSettings();
for (uint8_t i = 0; i < NUMBER_OF_INPUTS; i++)
{
writeInputConfiguration(i);
}
writeMainMenuSettings();
EEPROM.write(EEPROM_GUI_FIRST_RUN, FIRST_RUN); // write flag to EEPROM
}
else
{
readInputConfiguration(); // read the input config from the EEPROM
readMainMenuSettings(); // read the main menu settings from the EEPROM
}
// dac stuff
this->SelectedInput = EEPROM.read(EEPROM_SELECTED_INPUT);
applyInputConfiguration(this->SelectedInput);
sabreDAC.setAttenuation(this->MainMenuSettings.defaultAttenuation);
// gui stuff
this->GUI_State = HomeScreen;
this->SelectedInputSetting = InputName;
this->SelectedMenuSetting = DisplayAutoOff;
this->CursorPosition = 0;
this->TimerEnabled = false;
OLED.begin(20, 4); // initialize the 20x4 OLED
rtc.begin(); // initialize the rtc
if (!rtc.isrunning())
{
rtc.adjust(DateTime(2014, 1, 1, 0, 0)); // set the date to 1 January 2014 and time to 12:00 hrs
}
// finally unmute the dacs
sabreDAC.unMuteDACS();
}
QgsComposerScaleBar::QgsComposerScaleBar( QgsComposition* composition ): QgsComposerItem( composition ), mComposerMap( 0 ), mStyle( 0 ), mSegmentMillimeters( 0.0 )
{
applyDefaultSettings();
}
QgsLayoutItemScaleBar::QgsLayoutItemScaleBar( QgsLayout *layout )
: QgsLayoutItem( layout )
{
applyDefaultSettings();
applyDefaultSize();
}