public StatGraphs(string statname, FilterCondition filter)
{
InitializeComponent();
Title = "Plot: " + statname.Replace("[property] ", "");
if (filter == null)
{
FilterText.Text = "None";
}
else
{
IList <string> filterstrings = new List <string>();
foreach (FilterCondition c in ((AndCondition)filter).Subconditions)
{
filterstrings.Add(c.ToString());
}
FilterText.Text = string.Join("\n", filterstrings);
}
PercentChart.AxisX[0].Title = statname.Replace("[property] ", "");
CostChart.AxisX[0].Title = statname.Replace("[property] ", "");
PercentMapper = Mappers.Xy <StatPoint>();
PercentMapper.X(value => value.X);
PercentMapper.Y(value => (double)value.Count / value.Total);
CostMapper = Mappers.Xy <StatPoint>();
CostMapper.X(value => value.X);
CostMapper.Y(value => Math.Log(value.Total * value.Cost / value.Count, 10));
Min = double.NaN;
Max = double.NaN;
Incr = double.NaN;
}
// Sets the unit conversion factors for voltage (millivolts <-> volts), for either axis mapper
public void CalculateVoltageUnitConversion(CartesianMapper <GraphingEntry> mapper, ControlEnums.VOLTAGEUNITS unit, bool xAxis)
{
if (xAxis)
{
mapper.X(entry => entry.voltage * GetVoltageUnitConversionFactor(unit));
}
else
{
mapper.Y(entry => entry.voltage * GetVoltageUnitConversionFactor(unit));
}
}
// Sets the unit conversion factor for time (milliseconds <-> seconds), for either axis mapper
public void CalculateTimeUnitConversion(CartesianMapper <GraphingEntry> mapper, ControlEnums.TIMEUNITS unit, bool xAxis)
{
if (xAxis)
{
mapper.X(entry => entry.uptime * GetTimeUnitConversionFactor(unit));
}
else
{
mapper.Y(entry => entry.uptime * GetTimeUnitConversionFactor(unit));
}
}
// Sets the unit conversion factors for position, velocity and acceleration, for either axis mapper
public void CalculateBaseUnitConversion(CartesianMapper <GraphingEntry> mapper, ControlEnums.AXISOPTIONS axis, ControlEnums.BASEUNITS unit, bool xAxis)
{
if (axis == ControlEnums.AXISOPTIONS.POSITION)
{
if (xAxis)
{
mapper.X(entry => entry.position * GetBaseUnitConversionFactor(axis, unit));
}
else
{
mapper.Y(entry => entry.position * GetBaseUnitConversionFactor(axis, unit));
}
}
if (axis == ControlEnums.AXISOPTIONS.VELOCITY)
{
if (xAxis)
{
mapper.X(entry => entry.velocity * GetBaseUnitConversionFactor(axis, unit));
}
else
{
mapper.Y(entry => entry.velocity * GetBaseUnitConversionFactor(axis, unit));
}
}
if (axis == ControlEnums.AXISOPTIONS.ACCELERATION)
{
if (xAxis)
{
mapper.X(entry => entry.acceleration * GetBaseUnitConversionFactor(axis, unit));
}
else
{
mapper.Y(entry => entry.acceleration * GetBaseUnitConversionFactor(axis, unit));
}
}
}
static public SeriesCollection SeriesCollectionForConfiguration(SeriesCollectionConfiguration configuration)
{
LineSeries[] Series = new LineSeries[configuration.Types.Length];
for (int i = 0; i < configuration.Types.Length; i++)
{
Series[i] = LineSeriesForType(configuration.Types[i], configuration.DataPoints);
}
SeriesCollection collection;
CartesianMapper <ObservablePoint> Mapper = Mappers.Xy <ObservablePoint>();
if (configuration.HasLogarithmicX)
{
Mapper.X(point => Math.Log(point.X + .000001, 10));
}
else
{
Mapper.X(point => point.X);
}
if (configuration.HasLogarithmicY)
{
Mapper.Y(point => Math.Log(point.Y + .000001, 10));
}
else
{
Mapper.Y(point => point.Y);
}
collection = new SeriesCollection(Mapper);
collection.AddRange(Series);
return(collection);
}