| public ToDateTime ( int index ) : System.DateTime | ||
| index | int | |
| return | System.DateTime | |
private static Chart GenerateChart(ChartGenerator generator, XElement chartElement)
{
Chart chart;
FaultSummaryTableAdapter faultSummaryAdapter;
FaultLocationData.FaultSummaryDataTable faultSummaries;
FaultLocationData.FaultSummaryRow faultSummary;
int width;
int height;
double prefaultCycles;
double postfaultCycles;
string title;
List <string> keys;
List <string> names;
DateTime startTime;
DateTime endTime;
int faultID;
faultSummaryAdapter = s_dbAdapterContainer.GetAdapter <FaultSummaryTableAdapter>();
faultSummaries = faultSummaryAdapter.GetDataBy(generator.EventID);
faultID = Convert.ToInt32((string)chartElement.Attribute("faultID"));
faultSummary = faultSummaries
.Where(row => row.ID == faultID)
.FirstOrDefault(row => row.IsSelectedAlgorithm != 0);
if ((object)faultSummary == null)
{
return(null);
}
prefaultCycles = Convert.ToDouble((string)chartElement.Attribute("prefaultCycles"));
postfaultCycles = Convert.ToDouble((string)chartElement.Attribute("postfaultCycles"));
title = (string)chartElement.Attribute("yAxisTitle");
keys = GetKeys(chartElement);
names = GetNames(chartElement);
startTime = faultSummary.Inception.AddSeconds(-prefaultCycles / 60.0D);
endTime = faultSummary.Inception.AddSeconds(faultSummary.DurationSeconds).AddSeconds(postfaultCycles / 60.0D);
chart = generator.GenerateChart(title, keys, names, startTime, endTime);
width = Convert.ToInt32((string)chartElement.Attribute("width"));
height = Convert.ToInt32((string)chartElement.Attribute("height"));
SetChartSize(chart, width, height);
if ((object)chartElement.Attribute("yAxisMaximum") != null)
{
chart.ChartAreas[0].AxisY.Maximum = Convert.ToDouble((string)chartElement.Attribute("yAxisMaximum"));
}
if ((object)chartElement.Attribute("yAxisMinimum") != null)
{
chart.ChartAreas[0].AxisY.Minimum = Convert.ToDouble((string)chartElement.Attribute("yAxisMinimum"));
}
if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "index", StringComparison.OrdinalIgnoreCase))
{
DateTime calculationTime = generator.ToDateTime(faultSummary.CalculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.Position = calculationPosition;
}
else if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "cycle", StringComparison.OrdinalIgnoreCase))
{
DateTime calculationTime = generator.ToDateTime(faultSummary.CalculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.SelectionStart = calculationPosition;
chart.ChartAreas[0].CursorX.SelectionEnd = calculationPosition + 1.0D / 60.0D;
}
return(chart);
}
// Static Methods
public static Stream ConvertToChartImageStream(DbAdapterContainer dbAdapterContainer, XElement chartElement)
{
ChartGenerator chartGenerator;
Lazy <DataRow> faultSummary;
Lazy <double> systemFrequency;
DateTime inception;
DateTime clearing;
int width;
int height;
double prefaultCycles;
double postfaultCycles;
string title;
List <string> keys;
List <string> names;
DateTime startTime;
DateTime endTime;
int eventID;
int faultID;
// Read parameters from the XML data and set up defaults
eventID = Convert.ToInt32((string)chartElement.Attribute("eventID") ?? "-1");
faultID = Convert.ToInt32((string)chartElement.Attribute("faultID") ?? "-1");
prefaultCycles = Convert.ToDouble((string)chartElement.Attribute("prefaultCycles") ?? "NaN");
postfaultCycles = Convert.ToDouble((string)chartElement.Attribute("postfaultCycles") ?? "NaN");
title = (string)chartElement.Attribute("yAxisTitle");
keys = GetKeys(chartElement);
names = GetNames(chartElement);
width = Convert.ToInt32((string)chartElement.Attribute("width"));
height = Convert.ToInt32((string)chartElement.Attribute("height"));
startTime = DateTime.MinValue;
endTime = DateTime.MaxValue;
using (AdoDataConnection connection = new AdoDataConnection(dbAdapterContainer.Connection, typeof(SqlDataAdapter), false))
{
faultSummary = new Lazy <DataRow>(() => connection.RetrieveData("SELECT * FROM FaultSummary WHERE ID = {0}", faultID).Select().FirstOrDefault());
systemFrequency = new Lazy <double>(() => connection.ExecuteScalar(60.0D, "SELECT Value FROM Setting WHERE Name = 'SystemFrequency'"));
// If prefaultCycles is specified and we have a fault summary we can use,
// we can determine the start time of the chart based on fault inception
if (!double.IsNaN(prefaultCycles) && (object)faultSummary.Value != null)
{
inception = faultSummary.Value.ConvertField <DateTime>("Inception");
startTime = inception.AddSeconds(-prefaultCycles / systemFrequency.Value);
}
// If postfaultCycles is specified and we have a fault summary we can use,
// we can determine the start time of the chart based on fault clearing
if (!double.IsNaN(postfaultCycles) && (object)faultSummary.Value != null)
{
inception = faultSummary.Value.ConvertField <DateTime>("Inception");
clearing = inception.AddSeconds(faultSummary.Value.ConvertField <double>("DurationSeconds"));
endTime = clearing.AddSeconds(postfaultCycles / systemFrequency.Value);
}
// Create the chart generator to generate the chart
chartGenerator = new ChartGenerator(dbAdapterContainer, eventID);
using (Chart chart = chartGenerator.GenerateChart(title, keys, names, startTime, endTime))
{
// Set the chart size based on the specified width and height;
// this allows us to dynamically change font sizes and line
// widths before converting the chart to an image
SetChartSize(chart, width, height);
// Determine if either the minimum or maximum of the y-axis is specified explicitly
if ((object)chartElement.Attribute("yAxisMaximum") != null)
{
chart.ChartAreas[0].AxisY.Maximum = Convert.ToDouble((string)chartElement.Attribute("yAxisMaximum"));
}
if ((object)chartElement.Attribute("yAxisMinimum") != null)
{
chart.ChartAreas[0].AxisY.Minimum = Convert.ToDouble((string)chartElement.Attribute("yAxisMinimum"));
}
// If the calculation cycle is to be highlighted, determine whether the highlight should be in the range of a single index or a full cycle.
// If we have a fault summary we can use, apply the appropriate highlight based on the calculation cycle
if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "index", StringComparison.OrdinalIgnoreCase))
{
if ((object)faultSummary.Value != null)
{
int calculationCycle = faultSummary.Value.ConvertField <int>("CalculationCycle");
DateTime calculationTime = chartGenerator.ToDateTime(calculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.Position = calculationPosition;
}
}
else if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "cycle", StringComparison.OrdinalIgnoreCase))
{
if ((object)faultSummary.Value != null)
{
int calculationCycle = faultSummary.Value.ConvertField <int>("CalculationCycle");
DateTime calculationTime = chartGenerator.ToDateTime(calculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.SelectionStart = calculationPosition;
chart.ChartAreas[0].CursorX.SelectionEnd = calculationPosition + 1.0D / 60.0D;
}
}
// Convert the generated chart to an image
return(ConvertToImageStream(chart, ChartImageFormat.Png));
}
}
}
// Static Methods
public static Stream ConvertToChartImageStream(DbAdapterContainer dbAdapterContainer, XElement chartElement)
{
ChartGenerator chartGenerator;
Lazy<DataRow> faultSummary;
Lazy<double> systemFrequency;
DateTime inception;
DateTime clearing;
int width;
int height;
double prefaultCycles;
double postfaultCycles;
string title;
List<string> keys;
List<string> names;
DateTime startTime;
DateTime endTime;
int eventID;
int faultID;
// Read parameters from the XML data and set up defaults
eventID = Convert.ToInt32((string)chartElement.Attribute("eventID") ?? "-1");
faultID = Convert.ToInt32((string)chartElement.Attribute("faultID") ?? "-1");
prefaultCycles = Convert.ToDouble((string)chartElement.Attribute("prefaultCycles") ?? "NaN");
postfaultCycles = Convert.ToDouble((string)chartElement.Attribute("postfaultCycles") ?? "NaN");
title = (string)chartElement.Attribute("yAxisTitle");
keys = GetKeys(chartElement);
names = GetNames(chartElement);
width = Convert.ToInt32((string)chartElement.Attribute("width"));
height = Convert.ToInt32((string)chartElement.Attribute("height"));
startTime = DateTime.MinValue;
endTime = DateTime.MaxValue;
using (AdoDataConnection connection = new AdoDataConnection(dbAdapterContainer.Connection, typeof(SqlDataAdapter), false))
{
faultSummary = new Lazy<DataRow>(() => connection.RetrieveData("SELECT * FROM FaultSummary WHERE ID = {0}", faultID).Select().FirstOrDefault());
systemFrequency = new Lazy<double>(() => connection.ExecuteScalar(60.0D, "SELECT Value FROM Setting WHERE Name = 'SystemFrequency'"));
// If prefaultCycles is specified and we have a fault summary we can use,
// we can determine the start time of the chart based on fault inception
if (!double.IsNaN(prefaultCycles) && (object)faultSummary.Value != null)
{
inception = faultSummary.Value.ConvertField<DateTime>("Inception");
startTime = inception.AddSeconds(-prefaultCycles / systemFrequency.Value);
}
// If postfaultCycles is specified and we have a fault summary we can use,
// we can determine the start time of the chart based on fault clearing
if (!double.IsNaN(postfaultCycles) && (object)faultSummary.Value != null)
{
inception = faultSummary.Value.ConvertField<DateTime>("Inception");
clearing = inception.AddSeconds(faultSummary.Value.ConvertField<double>("DurationSeconds"));
endTime = clearing.AddSeconds(postfaultCycles / systemFrequency.Value);
}
// Create the chart generator to generate the chart
chartGenerator = new ChartGenerator(dbAdapterContainer, eventID);
using (Chart chart = chartGenerator.GenerateChart(title, keys, names, startTime, endTime))
{
// Set the chart size based on the specified width and height;
// this allows us to dynamically change font sizes and line
// widths before converting the chart to an image
SetChartSize(chart, width, height);
// Determine if either the minimum or maximum of the y-axis is specified explicitly
if ((object)chartElement.Attribute("yAxisMaximum") != null)
chart.ChartAreas[0].AxisY.Maximum = Convert.ToDouble((string)chartElement.Attribute("yAxisMaximum"));
if ((object)chartElement.Attribute("yAxisMinimum") != null)
chart.ChartAreas[0].AxisY.Minimum = Convert.ToDouble((string)chartElement.Attribute("yAxisMinimum"));
// If the calculation cycle is to be highlighted, determine whether the highlight should be in the range of a single index or a full cycle.
// If we have a fault summary we can use, apply the appropriate highlight based on the calculation cycle
if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "index", StringComparison.OrdinalIgnoreCase))
{
if ((object)faultSummary.Value != null)
{
int calculationCycle = faultSummary.Value.ConvertField<int>("CalculationCycle");
DateTime calculationTime = chartGenerator.ToDateTime(calculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.Position = calculationPosition;
}
}
else if (string.Equals((string)chartElement.Attribute("highlightCalculation"), "cycle", StringComparison.OrdinalIgnoreCase))
{
if ((object)faultSummary.Value != null)
{
int calculationCycle = faultSummary.Value.ConvertField<int>("CalculationCycle");
DateTime calculationTime = chartGenerator.ToDateTime(calculationCycle);
double calculationPosition = chart.ChartAreas[0].AxisX.Minimum + (calculationTime - startTime).TotalSeconds;
chart.ChartAreas[0].CursorX.SelectionStart = calculationPosition;
chart.ChartAreas[0].CursorX.SelectionEnd = calculationPosition + 1.0D / 60.0D;
}
}
// Convert the generated chart to an image
return ConvertToImageStream(chart, ChartImageFormat.Png);
}
}
}