private void GraphVoltages(TDK t)
{
Chart chart1 = new Chart();
chart1.Series.Clear();
var series = new Series("Volts");
series.ChartType = System.Windows.Forms.DataVisualization.Charting.SeriesChartType.Point;
series.Enabled = true;
chart1.Series.Add(series);
chart1.Visible = true;
ChartArea chA = new ChartArea();
chA.AxisX.RoundAxisValues();
chA.AxisX.Title = "Cycle";
chA.AxisY.Title = "Voltage";
chart1.ChartAreas.Add(chA);
var lin = Linespace(1, t.CycleCount, t.PastVoltages.Count - 2);
var ii = 0;
foreach (var val in t.PastVoltages)
{
chart1.Series["Volts"].Points.AddXY(lin[ii], val);
ii++;
}
chart1.Invalidate();
chart1.SaveImage($"{_resultsDir}\\charts\\{t.SampleName}_C{t.CycleCount}.png", System.Drawing.Imaging.ImageFormat.Png);
}
private void SetCurrentVoltage(TDK tdk)
{
// Sets the current limit of the power supply
do
{
_serTDK.Write("PC " + tdk.SetCurrent + "\r\n");
if (_serTDK.ReadLine() == "OK")
{
U.Logger.WriteLine($"Current: OKAY");
}
_serTDK.Write("PC?\r\n");
} while (_serTDK.ReadLine() == tdk.SetCurrent);
do
{
//Sets the voltage of the power supply
_serTDK.Write("PV " + U.VoltageCompliance + "\r\n");
if (_serTDK.ReadLine() == "OK")
{
U.Logger.WriteLine($"Voltage: OKAY");
}
_serTDK.Write("PC?\r\n");
} while (_serTDK.ReadLine() == U.VoltageCompliance);
_serTDK.DiscardInBuffer();
}
private void SetAddress(TDK tdk)
{
// Sets the address of the power supply
_serTDK.Write("ADR " + tdk.Address + "\r\n");
if (_serTDK.ReadLine() == "OK")
{
}
}
private void SaveResults(TDK t)
{
var str = CompileDataStr(t);
var path = _resultsDir + $"{t.SampleName}_{DateTime.Now:M-dd--HH-mm--ss}.txt";
using (var writer = new StreamWriter(path, true)) {
writer.WriteLine(str);
}
}
private void SaveResults(TDK t)
{
var str = CompileDataStr(t);
var path = _resultsDir + $"\\{t.SampleName}.txt";
using (var writer = new StreamWriter(path, true)) {
writer.WriteLine(str);
}
}
private CCDataPoint CompileCCData(TDK t)
{
return(new CCDataPoint(t.CycleCount,
(DateTime.UtcNow - new DateTime(1970, 1, 1)).TotalSeconds, // epoch
(_totalTimer.ElapsedMilliseconds / 3.6E+6), // total time (hrs)
(_intoCycleTimer.ElapsedMilliseconds / 60000.0), // time into current cycle
BIASON, t.SampleName, double.Parse(t.Current), double.Parse(t.Voltage), int.Parse(t.NumCells),
double.Parse(t.Voc), int.Parse(t.TempSensor), double.Parse(t.SetCurrent), -99.99,
_temps, _smokeRaw, _smokeLevel));
}
private void TurnON(TDK tdk)
{
// Sets the address of the power supply
SetAddress(tdk);
do
{
_serTDK.Write("OUT ON\r\n");
if (_serTDK.ReadLine() == "OK")
{
Console.WriteLine($"ON: OKAY");
}
_serTDK.Write("MODE?\r\n");
} while (_serTDK.ReadLine() == "ON");
}
private void TurnON(TDK tdk)
{
// Sets the address of the power supply
SetAddress(tdk);
do
{
_serTDK.Write("OUT ON\r\n");
if (_serTDK.ReadLine() == "OK")
{
U.Logger.WriteLine($"ON: OKAY");
}
_serTDK.Write("MODE?\r\n");
} while (_serTDK.ReadLine() == "ON");
_serTDK.DiscardInBuffer();
}
private string CompileDataStr(TDK t)
{
string[] str = { t.CycleCount.ToString(), (DateTime.UtcNow - new DateTime(1970, 1, 1)).TotalSeconds.ToString(),
(_totalTimer.ElapsedMilliseconds / 3.6E+6).ToString(), // total time (hrs)
(_intoCycleTimer.ElapsedMilliseconds / 60000.0).ToString(),
(BIASON) ? "ON" : "OFF",
t.SampleName, t.Current, t.Voltage, t.NumCells, t.Voc,
t.TempSensor, t.SetCurrent, "",
$"{_temps[0].ToString("F1")}", $"{_temps[1].ToString("F1")}", $"{_temps[2].ToString("F1")}",
$"{_temps[3].ToString("F1")}", $"{_temps[4].ToString("F1")}", $"{_temps[5].ToString("F1")}",
$"{_temps[6].ToString("F1")}", $"{_temps[7].ToString("F1")}", $"{_temps[8].ToString("F1")}",
$"{_temps[9].ToString("F1")}", $"{_temps[10].ToString("F1")}", $"{_temps[11].ToString("F1")}",
$"{_temps[12].ToString("F1")}", $"{_temps[13].ToString("F1")}", $"{_temps[14].ToString("F1")}",
$"{_temps[15].ToString("F1")}" };
return(string.Join(",", str));
}
private void SaveResultsBQ(TDK t)
{
var point = CompileCCData(t);
CycleDataEvent?.Invoke(this, new DataQueueObject(DataQueueObject.DataType.CycleData, point));
}