private int displayAnalogValueInt(AGauge anaGauge, raceFileClass rF, int analogNumber, int digitalValue, int meterValue, float multiplier)
{ // this calculates one measured analog value pointed by index i.e. analogNumber
float flValue = (float)(rF.Analog[analogNumber] - digitalValue) * multiplier + (float)meterValue;
int intValue = System.Convert.ToInt32(flValue);
anaGauge.Value = intValue;
anaGauge.CapText = formCapText(analogNumber, intValue);
return(intValue);
}
private void StartMonitor_button_Click(object sender, EventArgs e)
{
bool status = true;
initComPort();
try
{
serialPort1.Open();
}
catch (Exception ex)
{
MessageBox.Show("Error: Could not open serial port connection. Original error: " + ex.Message);
status = false;
}
if (status == true)
{
status = startSession();
int sesSta = readComAll();
if (status == false)
{
MessageBox.Show("Error: Could not start terminal connection.");
}
}
else
{
if (serialPort1.IsOpen)
{
serialPort1.WriteLine("ZE");
serialPort1.Close();
}
MessageBox.Show("Error: Could not open terminal connection.");
}
if (status == true)
{
status = sendMonitorCommand();
}
if (status == true)
{
monFile = new raceFileClass();
monFile.OpenW("Monitor." + System.Convert.ToString(monNbr));
monNbr++;
readComTimer.Start();
}
}
private void Simulate_button_Click(object sender, EventArgs e)
{
DialogResult result;
result = openFileDialog1.ShowDialog();
if (result == DialogResult.OK)
{
string path1 = openFileDialog1.FileName;
try
{
if ((raceFileStr = openFileDialog1.OpenFile( )) != null)
{
// Insert code to read the stream here.
raceFileStr.Close();
rFile = new raceFileClass();
rFile.Open(openFileDialog1.FileName);
int count = rFile.ReadOneLine();
if (count > 10)
{
count = rFile.ParseLine();
}
int time = rFile.ms;
if (time == 0 || time > 1000)
{
time = 50;
}
updateScreenTimer.Interval = time;
updateScreenTimer.Enabled = true;
updateScreenTimer.Start();
}
}
catch (Exception ex)
{
MessageBox.Show("Error: Could not read file from disk. Original error: " + ex.Message);
}
}
}
private void updateGauges(raceFileClass raceFile)
{
string vText;
int value;
float fValue;
aGauge1.Value = raceFile.RPM[0];
vText = raceFile.RPM[0].ToString();
gauge1_label.Text = vText;
fValue = (float)raceFile.RPM[1] * (float)sets.speedPerShaftRPM;
aGauge2.Value = fValue;
value = System.Convert.ToInt32(fValue);
gauge2_label.Text = value.ToString();
aGauge3.Value = raceFile.RPM[2];
aGauge4.Value = raceFile.RPM[3];
if (raceFile.onOff[0] == true)
{
if (sets.OnOffs.getState(0) == true)
{
OnOff1_progressBar.Value = 100;
}
else
{
OnOff1_progressBar.Value = 0;
}
}
else
if (sets.OnOffs.getState(0) == true)
{
OnOff1_progressBar.Value = 0;
}
else
{
OnOff1_progressBar.Value = 100;
}
if (raceFile.onOff[1] == true)
{
if (sets.OnOffs.getState(1) == true)
{
OnOff2_progressBar.Value = 100;
}
else
{
OnOff2_progressBar.Value = 0;
}
}
else
if (sets.OnOffs.getState(1) == true)
{
OnOff2_progressBar.Value = 0;
}
else
{
OnOff2_progressBar.Value = 100;
}
if (raceFile.onOff[2] == true)
{
if (sets.OnOffs.getState(2) == true)
{
OnOff3_progressBar.Value = 100;
}
else
{
OnOff3_progressBar.Value = 0;
}
}
else
if (sets.OnOffs.getState(2) == true)
{
OnOff3_progressBar.Value = 0;
}
else
{
OnOff3_progressBar.Value = 100;
}
float multip = (float)(sets.temp_2 - sets.temp_1) / (float)(sets.analog_value_2 - sets.analog_value_1);
int tmpIndex = sets.first_temp_sensor_index;
value = displayAnalogValueInt(aGauge5, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge6, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge7, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge8, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge9, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge10, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge11, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
tmpIndex++;
value = displayAnalogValueInt(aGauge12, raceFile, tmpIndex, sets.analog_value_2, sets.temp_2, multip);
float [] volt = new float[8];
int aIndex = 0;
for (int i = 0; i < 8; i++)
{
volt[i] = (float)raceFile.Analog[sets.first_analog_index + i] * 5.0F / 256.0F;
}
float [] val = new float[8];
for (int i = 0; i < 8; i++)
{
aIndex = sets.first_analog_index + i;
val[i] = (float)(volt[i] - sets.analog1.getVolt2(aIndex))
/ sets.analog1.getMultip(aIndex) + sets.analog1.getVal2(aIndex);
}
addGauge1.Value = val[0];
addGauge2.Value = val[1];
addGauge3.Value = val[2];
addGauge4.Value = val[3];
addGauge5.Value = val[4];
addGauge6.Value = val[5];
addGauge7.Value = val[6];
addGauge8.Value = val[7];
}
private float calcFloatAnalogValue(AGauge anaGauge, raceFileClass rF, int analogNumber, int digitalValue, int meterValue, float multiplier)
{
float flValue = (float)(rF.Analog[analogNumber] - digitalValue) * multiplier + (float)meterValue;
return(flValue);
}
