/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
float outFloat = 0;
int nextStartPos = 0;
bool retBool;
LogMessage("ParseLine(OF) started");
if (processedLineStr == null)
{
return(100);
}
if (processedLineStr.StartsWith(GerberFile.RS274_OF_CMD) == false)
{
return(200);
}
// now the line will have some combination of A and B tags in some order
// LOOK FOR THE A TAG
nextStartPos = 0;
nextStartPos = GerberParseUtils.FindCharacterReturnNextPos(processedLineStr, 'A', nextStartPos);
if ((nextStartPos < 0) || (nextStartPos > processedLineStr.Length))
{
// just means not found
}
else
{
retBool = GerberParseUtils.ParseNumberFromString_TillNonDigit_RetFloat(processedLineStr, nextStartPos, ref outFloat, ref nextStartPos);
if (retBool != true)
{
// this is not an error - just means we are all done
return(0);
}
else
{
// set the value now
xOffset = outFloat;
}
}
// LOOK FOR THE B TAG
nextStartPos = 0;
nextStartPos = GerberParseUtils.FindCharacterReturnNextPos(processedLineStr, 'B', nextStartPos);
if ((nextStartPos < 0) || (nextStartPos > processedLineStr.Length))
{
// just means not found
}
else
{
retBool = GerberParseUtils.ParseNumberFromString_TillNonDigit_RetFloat(processedLineStr, nextStartPos, ref outFloat, ref nextStartPos);
if (retBool != true)
{
// this is not an error - just means we are all done
return(0);
}
else
{
// set the value now
yOffset = outFloat;
}
}
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
errorValue = 0;
errorString = "";
switch (currentGCode)
{
case 1:
{
// This is just a linear interpolation
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 4:
{
// This is just an Ignore data block we can just ignore its contents
// set the value now
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 70:
{
// This is INCHES mode
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 71:
{
// This is Millimeters mode
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 75:
{
// This is just circular interpolation enabled
// we ignore it
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 90:
{
// This is absolute coordinates enabled
// we ignore it
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case 91:
{
// This is incremental coordinates enabled
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
default:
{
// we do not know what we have - fail now
errorValue = 0;
errorString = "";
return(GerberLine.PlotActionEnum.PlotAction_FailWithError);
}
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
errorValue = 0;
errorString = "";
switch (currentTCode)
{
case "A":
{
// This is just a linear interpolation
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case "D":
{
// This is just an Ignore data block we can just ignore its contents
// set the value now
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case "F":
{
// This is INCHES mode
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
case "O":
{
// This is Millimeters mode
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
default:
{
// we do not know what we have - fail now
errorValue = 0;
errorString = "";
return(GerberLine.PlotActionEnum.PlotAction_FailWithError);
}
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
// The presence of this code is the action. There are no parameters
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash an aperture for a Circle on a GCode Plot
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <returns>z success, nz fail</returns>
public override void FlashApertureForGCodePlot(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
int workingOuterDiameter = int.MinValue;
if (isoPlotBuilder == null)
{
return;
}
if (stateMachine == null)
{
return;
}
// figure out the diameter
workingOuterDiameter = (int)Math.Round((outerDiameter * stateMachine.IsoPlotPointsPerAppUnit));
// now do the flash
PerformCircularApertureFlashWithHole(isoPlotBuilder, stateMachine, x1, y1, xyComp, workingOuterDiameter, HoleDiameter);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Calculates the width a pen should be for a specific angle. The width
/// is returned in pixel units which means all dimensions are scaled up
/// by
/// </summary>
/// <param name="stateMachine">the state machine with gerber file details</param>
/// <param name="workingAngle">the angle the aperture will move at in degrees</param>
public override int GetPenWidthForAngle(GerberFileStateMachine stateMachine, int workingAngle)
{
// the aperture of a circle for any angle is just the diameter
return((int)Math.Round((this.outerDiameter * stateMachine.IsoPlotPointsPerAppUnit)));
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the plot Isolation Object actions required based on the current context
/// </summary>
/// <param name="isoPlotBuilder">A GCode Builder object</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotIsoStep1Action(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// one would think that turning off the contouring would be all that was necessary. However
// contours are complex object and sometime we have to finish off the object usually this
// means fill the existing contour object .
if ((stateMachine.ContourDrawingModeEnabled == true) && (stateMachine.ComplexObjectList_DCode.Count != 0))
{
// process the complex object by drawing in the background
// Get the bounding box
Rectangle boundingRect = stateMachine.GetBoundingRectangleFromComplexObjectList_DCode();
// get a list of builderIDs in the complex object list
List <int> builderIDList = stateMachine.GetListOfIsoPlotBuilderIDsFromComplexObjectList_DCode();
if (builderIDList.Count > 0)
{
if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_BACKGROUND)
{
// Normal Dark polarity. Just fill it in with a backgroundpixel
isoPlotBuilder.BackgroundFillGSRegionComplex(builderIDList, builderIDList[0], boundingRect.X, boundingRect.Y, boundingRect.X + boundingRect.Width, boundingRect.Y + boundingRect.Height, -1);
}
else if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_ERASE)
{
// we have reverse polarity. The object we just drew must be cleaned out and everything underneath it removed
isoPlotBuilder.BackgroundFillGSByBoundaryComplexVert(builderIDList, IsoPlotObject.DEFAULT_ISOPLOTOBJECT_ID, boundingRect.X, boundingRect.Y, boundingRect.X + boundingRect.Width, boundingRect.Y + boundingRect.Height, -1);
}
}
}
// reset, we have processed the complex list
stateMachine.ComplexObjectList_DCode = new List <GerberLine_DCode>();
// disable contour drawing mode
stateMachine.ContourDrawingModeEnabled = false;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
// should never happen
throw new NotImplementedException("Cannot use standard ParseLine for Aperture Macros");
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the plot Isolation Object actions required based on the current context
/// </summary>
/// <param name="isoPlotBuilder">A GCode Builder object</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotIsoStep1Action(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// set the polarity to whatever we are
stateMachine.GerberFileLayerPolarity = LayerPolarity;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// one would think that turning off the contouring would be all that was necessary. However
// contours are complex object and sometime we have to finish off the object usually this
// means fill the existing contour object .
if ((stateMachine.ContourDrawingModeEnabled == true) && (stateMachine.ComplexObjectList_DCode.Count != 0))
{
// we have an existing complex object, we process it there
// Create solid brush.
SolidBrush fillBrush = (SolidBrush)stateMachine.GerberContourFillBrush;
// Get the bounding box
Rectangle boundingRect = stateMachine.GetBoundingRectangleFromComplexObjectList_DCode();
// get a graphics path defining this object
GraphicsPath gPath = stateMachine.GetGraphicsPathFromComplexObjectList_DCode();
MiscGraphicsUtils.FillRectangleUsingGraphicsPath(graphicsObj, gPath, boundingRect, fillBrush);
// reset the complex object list
stateMachine.ComplexObjectList_DCode = new List <GerberLine_DCode>();
}
// enable contour drawing mode
stateMachine.ContourDrawingModeEnabled = false;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// set the polarity to whatever we are
stateMachine.GerberFileLayerPolarity = LayerPolarity;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the plot Isolation Object actions required based on the current context
/// </summary>
/// <param name="isoPlotBuilder">A GCode Builder object</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotIsoStep1Action(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// This is just a circular interpolation
stateMachine.GerberFileInterpolationMode = GerberInterpolationModeEnum.INTERPOLATIONMODE_CIRCULAR;
stateMachine.GerberFileInterpolationCircularDirectionMode = GerberInterpolationCircularDirectionModeEnum.DIRECTIONMODE_COUNTERCLOCKWISE;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// This is just a counter-clockwise circular interpolation
stateMachine.GerberFileInterpolationMode = GerberInterpolationModeEnum.INTERPOLATIONMODE_CIRCULAR;
stateMachine.GerberFileInterpolationCircularDirectionMode = GerberInterpolationCircularDirectionModeEnum.DIRECTIONMODE_COUNTERCLOCKWISE;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
stateMachine.GerberFileUnits = ApplicationUnitsEnum.INCHES;
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// We fill a shape with the macro primitive at the current coordinates.
/// </summary>
/// <param name="graphicsObj">a graphics object to draw on</param>
/// <param name="workingBrush">a brush to draw with</param>
/// <param name="bottomOfGraphicsObjInMacroScreenCoords_X">the macro screen coord which represents the bottom 0 coord of the graphics object</param>
/// <param name="bottomOfGraphicsObjInMacroScreenCoords_Y">the macro screen coord which represents the bottom 0 coord of the graphics object</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override void FlashMacroPrimitiveForGerberPlot(GerberFileStateMachine stateMachine, GerberMacroVariableArray varArray, Graphics graphicsObj, Brush workingBrush, float bottomOfGraphicsObjInMacroScreenCoords_X, float bottomOfGraphicsObjInMacroScreenCoords_Y)
{
if (graphicsObj == null)
{
return;
}
if (workingBrush == null)
{
return;
}
if (stateMachine == null)
{
return;
}
// note that the graphicsObj here is not the main screen. It is a smaller temporary graphics object
// designed only to receive the macro. The underlying bitmap of this graphics object gets overlaid on the screen later
// note the bottomOfGraphicsObjInMacroScreenCoords_? vars are not the bottom of this macro primitives space. It is the
// screen coords of the bottom of the smallest rectangle which contains all of the macro primitives
// get the bounding box of this primitive
RectangleF primBoundingBox = GetMacroPrimitiveBoundingBox(varArray);
// convert to screen values, this is still the primitive bounding rect though
RectangleF primBoundingBoxInScreenCoords = MiscGraphicsUtils.ConvertRectFToScreenCoordinates(primBoundingBox, stateMachine);
float workingWidth = GetWidth(varArray);
int lineWidthInScreenCoords = (int)Math.Round(workingWidth * stateMachine.IsoPlotPointsPerAppUnit);
float workingHeight = GetHeight(varArray);
int lineHeightInScreenCoords = (int)Math.Round(workingHeight * stateMachine.IsoPlotPointsPerAppUnit);
// we will need the center point coords
int primCenterPointInScreenCoords_X = (int)(GetXCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int primCenterPointInScreenCoords_Y = (int)(GetYCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
//DebugMessage(" BX=(" + bottomOfGraphicsObjInMacroScreenCoords_X.ToString() + "," + bottomOfGraphicsObjInMacroScreenCoords_Y.ToString() + ")");
//DebugMessage(" primBoundingBox=" + primBoundingBox.ToString());
//DebugMessage(" primBoundingBoxInScreenCoords=" + primBoundingBoxInScreenCoords.ToString());
//DebugMessage(" CPX,Y=(" + primCenterPointInScreenCoords_X.ToString() + "," + primCenterPointInScreenCoords_Y.ToString() + ")");
// we can calc the effective center point of the current primitive, we do it out here to make this obvious
int effectiveDrawPoint_X0 = (int)(primCenterPointInScreenCoords_X - bottomOfGraphicsObjInMacroScreenCoords_X);
int effectiveDrawPoint_Y0 = (int)(primCenterPointInScreenCoords_Y - bottomOfGraphicsObjInMacroScreenCoords_Y);
// get the center points
PointF centerPointLeft = this.GetLeftCenterCoord(varArray, 0, false);
PointF centerPointRight = this.GetRightCenterCoord(varArray, 0, false);
// convert them to screen coords
int leftCenterPointInScreenCoords_X = (int)(centerPointLeft.X * stateMachine.IsoPlotPointsPerAppUnit);
int leftCenterPointInScreenCoords_Y = (int)(centerPointLeft.Y * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_X = (int)(centerPointRight.X * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_Y = (int)(centerPointRight.Y * stateMachine.IsoPlotPointsPerAppUnit);
// now calc the effective draw points
int effectiveLeftCenterPoint_X = (int)(leftCenterPointInScreenCoords_X - bottomOfGraphicsObjInMacroScreenCoords_X);
int effectiveLeftCenterPoint_Y = (int)(leftCenterPointInScreenCoords_Y - bottomOfGraphicsObjInMacroScreenCoords_Y);
int effectiveRightCenterPoint_X = (int)(rightCenterPointInScreenCoords_X - bottomOfGraphicsObjInMacroScreenCoords_X);
int effectiveRightCenterPoint_Y = (int)(rightCenterPointInScreenCoords_Y - bottomOfGraphicsObjInMacroScreenCoords_Y);
//// Draw gerber line according to exposure
Pen workingPen = GetDrawPen(stateMachine, varArray, lineHeightInScreenCoords);
// simulate sweeping the aperture from one end of the line to the other
graphicsObj.DrawLine(workingPen, effectiveLeftCenterPoint_X, effectiveLeftCenterPoint_Y, effectiveRightCenterPoint_X, effectiveRightCenterPoint_Y);
if (workingPen != null)
{
workingPen.Dispose();
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// If we draw a line with an aperture it will not always have linear ends
/// for example if the aperture is a circle it will have half circle ends. Each
/// line that is drawn calls this to make it look right visually
/// </summary>
/// <param name="graphicsObj">a graphics object to draw on</param>
/// <param name="workingBrush">a brush to draw with</param>
/// <param name="workingPen">the pen used for the line, we get the width from this</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <param name="x2">the second x value</param>
/// <param name="y2">the second y value</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <returns>z success, nz fail</returns>
public override void FixupLineEndpointsForGCodePlot(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int x2, int y2, int radius, int xyComp)
{
IsoPlotUsageTagFlagEnum usageMode = IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE;
if (isoPlotBuilder == null)
{
return;
}
if (stateMachine == null)
{
return;
}
// set the usage mode
if (stateMachine.GerberFileLayerPolarity == GerberLayerPolarityEnum.CLEAR)
{
usageMode = IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE;
}
else
{
usageMode = IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE;
}
// fix up the two end points
isoPlotBuilder.DrawGSCircle(usageMode, x1, y1, radius, stateMachine.BackgroundFillModeAccordingToPolarity, stateMachine.WantClockWise);
isoPlotBuilder.DrawGSCircle(usageMode, x2, y2, radius, stateMachine.BackgroundFillModeAccordingToPolarity, stateMachine.WantClockWise);
return;
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash a macro primitive for a CLine on a GCode Plot
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="macroBuilderIDs">a list of builder IDs which have drawn in POSITIVE on this macro</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override int FlashMacroPrimitiveForGCodePlot(GerberMacroVariableArray varArray, List <int> macroBuilderIDs, IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
// now do the flash
int builderID = 0;
if (isoPlotBuilder == null)
{
return(-1);
}
if (stateMachine == null)
{
return(-1);
}
if (macroBuilderIDs == null)
{
return(-1);
}
// figure out width and height
float workingWidth = GetWidth(varArray);
int lineWidthInScreenCoords = (int)Math.Round(workingWidth * stateMachine.IsoPlotPointsPerAppUnit);
float workingHeight = GetHeight(varArray);
int lineHeightInScreenCoords = (int)Math.Round(workingHeight * stateMachine.IsoPlotPointsPerAppUnit);
// we will need the center point coords
int primCenterPointInScreenCoords_X = (int)(GetXCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int primCenterPointInScreenCoords_Y = (int)(GetYCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int effectiveCenter_X = x1 + primCenterPointInScreenCoords_X;
int effectiveCenter_Y = y1 + primCenterPointInScreenCoords_Y;
//DebugMessage("efc_X=" + effectiveCenter_X.ToString() + ", " + "efc_Y=" + effectiveCenter_Y.ToString());
// figure out the xyComp in plot coords, it comes in as screen coords here
// we need it to feed into the rotation calculations
float xyCompInPlotCoords = ((float)xyComp) / stateMachine.IsoPlotPointsPerAppUnit;
xyCompInPlotCoords /= 2;
// draw the line outline, is the polarity on?
if (GetApertureIsOn(varArray) == false)
{
// get the center points
PointF centerPointLeft = this.GetLeftCenterCoord(varArray, xyCompInPlotCoords, true);
PointF centerPointRight = this.GetRightCenterCoord(varArray, xyCompInPlotCoords, true);
// convert them to screen coords
int leftCenterPointInScreenCoords_X = (int)(centerPointLeft.X * stateMachine.IsoPlotPointsPerAppUnit);
int leftCenterPointInScreenCoords_Y = (int)(centerPointLeft.Y * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_X = (int)(centerPointRight.X * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_Y = (int)(centerPointRight.Y * stateMachine.IsoPlotPointsPerAppUnit);
// now calc the effective draw points
int effectiveLeftCenterPoint_X = x1 + leftCenterPointInScreenCoords_X;
int effectiveLeftCenterPoint_Y = y1 + leftCenterPointInScreenCoords_Y;
int effectiveRightCenterPoint_X = x1 + rightCenterPointInScreenCoords_X;
int effectiveRightCenterPoint_Y = y1 + rightCenterPointInScreenCoords_Y;
// adjust the line height for the XY comp, the width was compensated earlier
int lineHeightInScreenCoordsXYCompensated = lineHeightInScreenCoords - (xyComp);
// clear polarity
builderID = isoPlotBuilder.DrawGSLineOutLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, effectiveLeftCenterPoint_X, effectiveLeftCenterPoint_Y, effectiveRightCenterPoint_X, effectiveRightCenterPoint_Y, lineHeightInScreenCoordsXYCompensated, stateMachine.BackgroundFillModeAccordingToPolarity);
// get the bounding box of this primitive
RectangleF primBoundingBox = GetMacroPrimitiveBoundingBox(varArray);
// convert to screen values, this is still the primitive bounding rect though
RectangleF primBoundingBoxInScreenCoords = MiscGraphicsUtils.ConvertRectFToScreenCoordinates(primBoundingBox, stateMachine);
// the bounding box is relative to the center coords we adjust to absolute
int newX0 = (int)(effectiveCenter_X - (primBoundingBoxInScreenCoords.Width / 2));
int newY0 = (int)(effectiveCenter_Y - (primBoundingBoxInScreenCoords.Height / 2));
int newX1 = (int)(newX0 + primBoundingBoxInScreenCoords.Width);
int newY1 = (int)(newY0 + primBoundingBoxInScreenCoords.Height);
// now remove everything belonging to the macro at this point which is under our transparent flash
isoPlotBuilder.EraseBuilderIDListFromRegionUsingABuilderIDHoriz(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1, -1);
// now remove the transparent flash INVERT_EDGE if it is not on something belonging to the macro. This prevents us
// cutting through non macro material.
isoPlotBuilder.EraseBuilderIDIfNotOnCellWithIDsInList(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1);
// we do NOT return the builder ID here only the ones which draw in positive get returned
return(0);
}
else
{
// get the center points
PointF centerPointLeft = this.GetLeftCenterCoord(varArray, xyCompInPlotCoords, false);
PointF centerPointRight = this.GetRightCenterCoord(varArray, xyCompInPlotCoords, false);
// convert them to screen coords
int leftCenterPointInScreenCoords_X = (int)(centerPointLeft.X * stateMachine.IsoPlotPointsPerAppUnit);
int leftCenterPointInScreenCoords_Y = (int)(centerPointLeft.Y * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_X = (int)(centerPointRight.X * stateMachine.IsoPlotPointsPerAppUnit);
int rightCenterPointInScreenCoords_Y = (int)(centerPointRight.Y * stateMachine.IsoPlotPointsPerAppUnit);
// now calc the effective draw points
int effectiveLeftCenterPoint_X = x1 + leftCenterPointInScreenCoords_X;
int effectiveLeftCenterPoint_Y = y1 + leftCenterPointInScreenCoords_Y;
int effectiveRightCenterPoint_X = x1 + rightCenterPointInScreenCoords_X;
int effectiveRightCenterPoint_Y = y1 + rightCenterPointInScreenCoords_Y;
// adjust the line height for the XY comp, the width was compensated earlier
int lineHeightInScreenCoordsXYCompensated = lineHeightInScreenCoords + (xyComp);
// dark polarity
builderID = isoPlotBuilder.DrawGSLineOutLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, effectiveLeftCenterPoint_X, effectiveLeftCenterPoint_Y, effectiveRightCenterPoint_X, effectiveRightCenterPoint_Y, lineHeightInScreenCoordsXYCompensated, stateMachine.BackgroundFillModeAccordingToPolarity);
return(builderID);
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Perform a circular aperture flash. This is a static call so other things can call it
/// if they need to do so.
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <returns>z success, nz fail</returns>
public static void PerformCircularApertureFlashWithHole(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp, int workingOuterDiameter, float holeDia)
{
int hDia;
int holeRadius = 0;
int builderID = 0;
int holeBuilderObjID = 0;
if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_BACKGROUND)
{
// draw the circle
builderID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, x1, y1, ((workingOuterDiameter + xyComp) / 2), GSFillModeEnum.FillMode_BACKGROUND, stateMachine.WantClockWise);
// do we need to do a hole?
if (holeDia > 0)
{
// yes we do
hDia = (int)Math.Round((holeDia * stateMachine.IsoPlotPointsPerAppUnit));
holeRadius = (hDia - xyComp) / 2;
if (holeRadius > 0)
{
// draw the circle for the hole
holeBuilderObjID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, x1, y1, holeRadius, GSFillModeEnum.FillMode_BACKGROUND, stateMachine.WantClockWise);
// There is more going on here than is immediately obvious
// we want the inside of the hole to not be filled with isocells from the holeBuilderObjID
// we could just have not filled it and only placed edge isocells
// but this causes complications on the erase. It is better to fill it then remove the outer
// object then remove the background only pixels of the holeBuilderObjID. This makes sure we
// get all of the outer objects isocells rather than relying on hitting the edge to
// figure out where to start.
// remove everything belonging to the outer circle from the circle we just drew, this
// leaves anything else which might be in there in there
isoPlotBuilder.EraseABuilderIDFromRegionUsingABuilderID(holeBuilderObjID, builderID, x1 - holeRadius - 1, y1 - holeRadius - 1, x1 + holeRadius + 1, y1 + holeRadius + 1);
// remove all background only pixels belonging to the hole circle leaving just the edge pixels
isoPlotBuilder.EraseBackgroundOnlyIsoCellsByBuilderID(holeBuilderObjID, x1 - holeRadius - 1, y1 - holeRadius - 1, x1 + holeRadius + 1, y1 + holeRadius + 1);
}
}
}
else if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_ERASE)
{
// we have to decide whether we are drawing a hole or not. In Clear Polarity holes do not come in as solid DARK spot like you
// think they would. Instead they just "do nothing" on the area the contents below them remain there and there is no fill or erase
if (holeDia > 0)
{
// we are dealing with a erase flash with a hole
// draw the circle, we use invert edges here so we draw the circle only if it is on some other background, use no fill. We will erase between it and the hole later
int outerRadius = (workingOuterDiameter + xyComp) / 2;
builderID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1, y1, outerRadius, GSFillModeEnum.FillMode_NONE, stateMachine.WantClockWise);
// now do the hole we use invert edges so anything we draw over a background will get drawn, there is no fill
hDia = (int)Math.Round((holeDia * stateMachine.IsoPlotPointsPerAppUnit));
holeRadius = (hDia - xyComp) / 2;
if (holeRadius > 0)
{
// draw the circle for the hole using no fill. Whatever is in there is in there
holeBuilderObjID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1, y1, holeRadius, GSFillModeEnum.FillMode_NONE, stateMachine.WantClockWise);
}
// now erase between the outer and inner circles
// we are dealing with a simple erase flash, no hole
List <int> builderIDList = new List <int>();
builderIDList.Add(builderID);
builderIDList.Add(holeBuilderObjID);
isoPlotBuilder.BackgroundFillGSByBoundaryComplexVert(builderIDList, IsoPlotObject.DEFAULT_ISOPLOTOBJECT_ID, x1 - outerRadius - 1, y1 - outerRadius - 1, x1 + outerRadius + 1, y1 + outerRadius + 1, -1);
}
else
{
// draw the circle, we use invert edges here so we draw only if it is on some other background, we still erase everything under it though
int outerRadius = (workingOuterDiameter + xyComp) / 2;
builderID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1, y1, outerRadius, GSFillModeEnum.FillMode_ERASE, stateMachine.WantClockWise);
}
}
return;
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// We fill a shape with the macro primitive at the current coordinates.
/// </summary>
/// <param name="graphicsObj">a graphics object to draw on</param>
/// <param name="workingBrush">a brush to draw with</param>
/// <param name="bottomOfGraphicsObjInMacroScreenCoords_X">the macro screen coord which represents the bottom 0 coord of the graphics object</param>
/// <param name="bottomOfGraphicsObjInMacroScreenCoords_Y">the macro screen coord which represents the bottom 0 coord of the graphics object</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override void FlashMacroPrimitiveForGerberPlot(GerberFileStateMachine stateMachine, GerberMacroVariableArray varArray, Graphics graphicsObj, Brush workingBrush, float bottomOfGraphicsObjInMacroScreenCoords_X, float bottomOfGraphicsObjInMacroScreenCoords_Y)
{
if (graphicsObj == null)
{
return;
}
if (workingBrush == null)
{
return;
}
if (stateMachine == null)
{
return;
}
// note that the graphicsObj here is not the main screen. It is a smaller temporary graphics object
// designed only to receive the macro. The underlying bitmap of this graphics object gets overlaid on the screen later
// note the bottomOfGraphicsObjInMacroScreenCoords_? vars are not the bottom of this macro primitives space. It is the
// screen coords of the bottom of the smallest rectangle which contains all of the macro primitives
// get the bounding box of this primitive
RectangleF primBoundingBox = GetMacroPrimitiveBoundingBox(varArray);
// convert to screen values, this is still the primitive bounding rect though
RectangleF primBoundingBoxInScreenCoords = MiscGraphicsUtils.ConvertRectFToScreenCoordinates(primBoundingBox, stateMachine);
float workingDiameter = GetDiameter(varArray);
int circleDiameter = (int)Math.Round(workingDiameter * stateMachine.IsoPlotPointsPerAppUnit);
// we will need the center point coords
int primCenterPointInScreenCoords_X = (int)(GetXCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int primCenterPointInScreenCoords_Y = (int)(GetYCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
//DebugMessage(" BX=(" + bottomOfGraphicsObjInMacroScreenCoords_X.ToString() + "," + bottomOfGraphicsObjInMacroScreenCoords_Y.ToString() + ")");
//DebugMessage(" primBoundingBox=" + primBoundingBox.ToString());
//DebugMessage(" primBoundingBoxInScreenCoords=" + primBoundingBoxInScreenCoords.ToString());
//DebugMessage(" CPX,Y=(" + primCenterPointInScreenCoords_X.ToString() + "," + primCenterPointInScreenCoords_Y.ToString() + ")");
// we can calc the effective center point of the current primitive, we do it out here to make this obvious
int effectiveDrawPoint_X0 = (int)(primCenterPointInScreenCoords_X - bottomOfGraphicsObjInMacroScreenCoords_X);
int effectiveDrawPoint_Y0 = (int)(primCenterPointInScreenCoords_Y - bottomOfGraphicsObjInMacroScreenCoords_Y);
// the above are points at the circle center, fix up to point at lower left for the draw rectangle
effectiveDrawPoint_X0 = effectiveDrawPoint_X0 - circleDiameter / 2;
effectiveDrawPoint_Y0 = effectiveDrawPoint_Y0 - circleDiameter / 2;
// set the width and height
int effectiveWidth = circleDiameter; // this does not change
int effectiveHeight = circleDiameter; // this does not change
// create a defining rectangle for the circle we are to draw
Rectangle boundingRect = new Rectangle((int)effectiveDrawPoint_X0, effectiveDrawPoint_Y0, effectiveWidth, effectiveHeight);
//DebugMessage(" effectiveDrawPoint=(" + effectiveDrawPoint_X0.ToString() + "," + effectiveDrawPoint_Y0.ToString() + ")");
//DebugMessage(" draw boundingRect=" + boundingRect.ToString());
// figure out the brush. We do not use the one passed in, we can flash in in reverse here
Brush tmpBrush = GetDrawBrush(stateMachine, varArray);
// Now flash
graphicsObj.FillEllipse(tmpBrush, boundingRect);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the plot Isolation Object actions required based on the current context
/// </summary>
/// <param name="isoPlotBuilder">A GCode Builder object</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotIsoStep1Action(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// This is just a linear interpolation
stateMachine.GerberFileInterpolationMode = GerberInterpolationModeEnum.INTERPOLATIONMODE_LINEAR;
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash a macro primitive for a Circle on a GCode Plot
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="macroBuilderIDs">a list of builder IDs which have drawn in POSITIVE on this macro</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override int FlashMacroPrimitiveForGCodePlot(GerberMacroVariableArray varArray, List <int> macroBuilderIDs, IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
// now do the flash
int builderID = 0;
int workingOuterDiameter = int.MinValue;
if (isoPlotBuilder == null)
{
return(-1);
}
if (stateMachine == null)
{
return(-1);
}
if (macroBuilderIDs == null)
{
return(-1);
}
// figure out the diameter
float workingDiameter = GetDiameter(varArray);
workingOuterDiameter = (int)Math.Round((workingDiameter * stateMachine.IsoPlotPointsPerAppUnit));
// we will need the center point coords
int primCenterPointInScreenCoords_X = (int)(GetXCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int primCenterPointInScreenCoords_Y = (int)(GetYCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int effectiveCenter_X = x1 + primCenterPointInScreenCoords_X;
int effectiveCenter_Y = y1 + primCenterPointInScreenCoords_Y;
//DebugMessage("efc_X=" + effectiveCenter_X.ToString() + ", " + "efc_Y=" + effectiveCenter_Y.ToString());
if (GetApertureIsOn(varArray) == true)
{
// draw the circle
int radius = (workingOuterDiameter + xyComp) / 2;
builderID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, effectiveCenter_X, effectiveCenter_Y, radius, GSFillModeEnum.FillMode_BACKGROUND, stateMachine.WantClockWise);
// return this, the caller keeps track of these
return(builderID);
}
else
{
// draw the circle, we use invert edges here so we draw the circle only if it is on some other background, use no fill. We will erase between it and the hole later
int radius = (workingOuterDiameter - xyComp) / 2;
if (radius <= 0)
{
return(-1);
}
builderID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, effectiveCenter_X, effectiveCenter_Y, radius, GSFillModeEnum.FillMode_NONE, stateMachine.WantClockWise);
// now we have to remove every builderID in the macro in every isoCell under the above object. This is not fast.
// We know which ones might be there because we have a list
int newX0 = effectiveCenter_X - radius;
int newY0 = effectiveCenter_Y - radius;
int newX1 = effectiveCenter_X + radius;
int newY1 = effectiveCenter_Y + radius;
// now remove everything belonging to the macro at this point which is under our transparent flash
isoPlotBuilder.EraseBuilderIDListFromRegionUsingABuilderIDHoriz(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1, -1);
// now remove the transparent flash INVERT_EDGE if it is not on something belonging to the macro. This prevents us
// cutting through non macro material.
isoPlotBuilder.EraseBuilderIDIfNotOnCellWithIDsInList(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1);
// we do NOT return the builder ID here only the ones which draw in positive get returned
return(0);
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
// This is optional stop. Spec says ignore
errorValue = 0;
errorString = "";
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash a macro primitive for a Circle on a GCode Plot
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="macroBuilderIDs">a list of builder IDs which have drawn in POSITIVE on this macro</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override int FlashMacroPrimitiveForGCodePlot(GerberMacroVariableArray varArray, List <int> macroBuilderIDs, IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
// note this type of (pseudo) primitive does not draw. It is essentially a variable assignment.
float outVar = VariableOperation.ProcessVariableStringToFloat(varArray);
// now we have it, set it
varArray[this.VariableNumber] = new GerberMacroVariable(this.VariableNumber, outVar.ToString());
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Parses out the line and gets the required information from it
/// </summary>
/// <param name="processedLineStr">a line string without block terminator or format parameters</param>
/// <param name="stateMachine">The state machine containing the implied modal values</param>
/// <returns>z success, nz fail</returns>
public override int ParseLine(string processedLineStr, GerberFileStateMachine stateMachine)
{
int outInt = -1;
int nextStartPos = 0;
bool retBool;
//LogMessage("ParseLine(G) started");
if (processedLineStr == null)
{
return(100);
}
if (processedLineStr.StartsWith("G") == false)
{
return(200);
}
// now the GCode line will have an G tag
// LOOK FOR THE G TAG
nextStartPos = 0;
nextStartPos = GerberParseUtils.FindCharacterReturnNextPos(processedLineStr, 'G', nextStartPos);
if ((nextStartPos < 0) || (nextStartPos > processedLineStr.Length))
{
// this is an error - we have to find one
LogMessage("ParseLine(G) failed on call to FindCharacterReturnNextPos");
return(332);
}
// this will have a float number
retBool = GerberParseUtils.ParseNumberFromString_TillNonDigit_RetInteger(processedLineStr, nextStartPos, ref outInt, ref nextStartPos);
if (retBool != true)
{
LogMessage("ParseLine(G) failed on call to ParseNumberFromString_TillNonDigit_RetInteger");
return(333);
}
switch (outInt)
{
case 1:
{
// This is just an linear interpolation
currentGCode = outInt;
break;
}
case 4:
{
// This is just an Ignore data block we can just ignore its contents
// set the value now
currentGCode = outInt;
break;
}
case 70:
{
// This is INCHES mode
currentGCode = outInt;
stateMachine.GerberFileUnits = ApplicationUnitsEnum.INCHES;
break;
}
case 71:
{
// This is Millimeters mode
currentGCode = outInt;
stateMachine.GerberFileUnits = ApplicationUnitsEnum.MILLIMETERS;
break;
}
case 75:
{
// This is just circular interpolation enabled
// we ignore it
currentGCode = outInt;
break;
}
case 90:
{
// This is absolute coordinates enabled
currentGCode = outInt;
stateMachine.GerberFileCoordinateMode = GerberCoordinateModeEnum.COORDINATE_ABSOLUTE;
break;
}
case 91:
{
// This is incremental coordinates enabled
currentGCode = outInt;
stateMachine.GerberFileCoordinateMode = GerberCoordinateModeEnum.COORDINATE_INCREMENTAL;
break;
}
default:
{
LogMessage("ParseLine(G) failed. Unknown GCode of" + outInt.ToString());
return(334);
}
}
return(0);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
if (stateMachine == null)
{
errorValue = 999;
errorString = "PerformPlotGerberAction (G54) stateMachine == null";
return(GerberLine.PlotActionEnum.PlotAction_FailWithError);
}
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash a macro primitive for a Circle on a GCode Plot
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="macroBuilderIDs">a list of builder IDs which have drawn in POSITIVE on this macro</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <param name="varArray">the array to get the numbered variables from</param>
/// <returns>z success, nz fail</returns>
public override int FlashMacroPrimitiveForGCodePlot(GerberMacroVariableArray varArray, List <int> macroBuilderIDs, IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
// now do the flash
int builderID = 0;
if (isoPlotBuilder == null)
{
return(-1);
}
if (stateMachine == null)
{
return(-1);
}
if (macroBuilderIDs == null)
{
return(-1);
}
// get the VertexPointArray converted and rotated
PointF[] tmpPointArray = GetPointArrayAsPointFArray(varArray);
// collect the vertexPoints we operate on here
PointF[] vertexPoints = new PointF[vertexPointArray.Length];
// loop through the tmpPointArray
for (int i = 0; i < tmpPointArray.Length; i++)
{
//DebugMessage("rawPoint=" + tmpPointArray[i].ToString());
// we will need them as screen coords
float primPointInScreenCoords_X = tmpPointArray[i].X * stateMachine.IsoPlotPointsPerAppUnit;
float primPointInScreenCoords_Y = tmpPointArray[i].Y * stateMachine.IsoPlotPointsPerAppUnit;
// we can calc the effective draw point of the current primitive, we do it out here to make this obvious
float effectiveDrawPoint_X = x1 + primPointInScreenCoords_X;
float effectiveDrawPoint_Y = y1 + primPointInScreenCoords_Y;
// create a new point and stuff it in the array
vertexPoints[i] = new PointF(effectiveDrawPoint_X, effectiveDrawPoint_Y);
//DebugMessage(" vertexPoint=" + vertexPoints[i].ToString());
}
if (GetApertureIsOn(varArray) == true)
{
// draw the circle
builderID = isoPlotBuilder.DrawGSOutLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, vertexPoints, stateMachine.BackgroundFillModeAccordingToPolarity);
// return this, the caller keeps track of these
return(builderID);
}
else
{
// draw the circle, we use invert edges here so we draw the circle only if it is on some other background, use no fill. We will erase between it and the hole later
builderID = isoPlotBuilder.DrawGSOutLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, vertexPoints, GSFillModeEnum.FillMode_NONE);
// now we have to remove every builderID in the macro in every isoCell under the above object. This is not fast.
// We know which ones might be there because we have a list
// we will need the center point coords
int primCenterPointInScreenCoords_X = (int)(GetXCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int primCenterPointInScreenCoords_Y = (int)(GetYCenterCoord(varArray) * stateMachine.IsoPlotPointsPerAppUnit);
int effectiveCenter_X = x1 + primCenterPointInScreenCoords_X;
int effectiveCenter_Y = y1 + primCenterPointInScreenCoords_Y;
// get the bounding box of this primitive
RectangleF primBoundingBox = GetMacroPrimitiveBoundingBox(varArray);
// convert to screen values, this is still the primitive bounding rect though
RectangleF primBoundingBoxInScreenCoords = MiscGraphicsUtils.ConvertRectFToScreenCoordinates(primBoundingBox, stateMachine);
// the bounding box is relative to the center coords we adjust to absolute
int newX0 = (int)(effectiveCenter_X - (primBoundingBoxInScreenCoords.Width / 2));
int newY0 = (int)(effectiveCenter_Y - (primBoundingBoxInScreenCoords.Height / 2));
int newX1 = (int)(newX0 + primBoundingBoxInScreenCoords.Width);
int newY1 = (int)(newY0 + primBoundingBoxInScreenCoords.Height);
// now remove everything belonging to the macro at this point which is under our transparent flash
isoPlotBuilder.EraseBuilderIDListFromRegionUsingABuilderIDHoriz(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1, -1);
// now remove the transparent flash INVERT_EDGE if it is not on something belonging to the macro. This prevents us
// cutting through non macro material.
isoPlotBuilder.EraseBuilderIDIfNotOnCellWithIDsInList(macroBuilderIDs, builderID, newX0, newY0, newX1, newY1);
// we do NOT return the builder ID here only the ones which draw in positive get returned
return(0);
}
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the plot Isolation Object actions required based on the current context
/// </summary>
/// <param name="isoPlotBuilder">A GCode Builder object</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotIsoStep1Action(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
if (isoPlotBuilder == null)
{
errorValue = 998;
errorString = "PerformPlotIsoStep1Action (G54) isoPlotBuilder == null";
return(GerberLine.PlotActionEnum.PlotAction_FailWithError);
}
if (stateMachine == null)
{
errorValue = 999;
errorString = "PerformPlotIsoStep1Action (G54) stateMachine == null";
return(GerberLine.PlotActionEnum.PlotAction_FailWithError);
}
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Performs the action the plot requires based on the current context
/// </summary>
/// <param name="graphicsObj">a graphics object on which to plot</param>
/// <param name="stateMachine">the gerber plot state machine</param>
/// <param name="errorString">the error string we return on fail</param>
/// <param name="errorValue">the error value we return on fail, z success, nz fail </param>
/// <returns>an enum value indicating what next action to take</returns>
public override GerberLine.PlotActionEnum PerformPlotGerberAction(Graphics graphicsObj, GerberFileStateMachine stateMachine, ref int errorValue, ref string errorString)
{
return(GerberLine.PlotActionEnum.PlotAction_Continue);
}
/// +=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=+=
/// <summary>
/// Flash an aperture for a OBRound on a GCode Plot
///
/// </summary>
/// <param name="isoPlotBuilder">the builder opbject</param>
/// <param name="stateMachine">the statemachine</param>
/// <param name="xyComp">the xy compensation factor</param>
/// <param name="x1">the first x value</param>
/// <param name="y1">the first y value</param>
/// <returns>z success, nz fail</returns>
public override void FlashApertureForGCodePlot(IsoPlotBuilder isoPlotBuilder, GerberFileStateMachine stateMachine, int x1, int y1, int xyComp)
{
int holeBuilderObjID = 0;
int hDia;
bool ellipseIsVertical = false;
int workingOuterDiameter = int.MinValue;
float majorEllipseAxis = float.NegativeInfinity;
float minorEllipseAxis = float.NegativeInfinity;
float majorEllipseAxisAdjustedForCircle = float.NegativeInfinity;
int x1EllipseCompensatedCenterpoint;
int y1EllipseCompensatedCenterpoint;
int x2EllipseCompensatedCenterpoint;
int y2EllipseCompensatedCenterpoint;
float circle1StartDegrees = 90;
float circle2StartDegrees = 270;
float circle1SweepDegrees = 180;
float circle2SweepDegrees = 180;
int majorEllipseAxisEndpointCompensation = 0;
int outerBoundingBoxLL_X = 0;
int outerBoundingBoxLL_Y = 0;
int outerBoundingBoxUR_X = 0;
int outerBoundingBoxUR_Y = 0;
if (isoPlotBuilder == null)
{
return;
}
if (stateMachine == null)
{
return;
}
// NOTE: it is not possible to encode an Oval or Ellipse in GCode, you have to
// represent this with a line segment which has two circles at the end
// the total length should be equal the longest dimension. The shortest
// dimension will be used as the diameter of the circles.
// NOTE: we need not deal with ellipses in here which do not have major and minor
// axis parallel to the X and Y axis. There is no way to represent this in
// Gerber code and they are usually encoded as an AM macro which is a
// combination of two circles and a line - just as we are doing (see above)
// and for exactly the same reasons.
// find the shortest and longest dimensions. NOTE according to the spec OBRounds
// cannot have a rotation. They are either Horizontal or Vertical
if (xAxisDimension > yAxisDimension)
{
majorEllipseAxis = xAxisDimension;
minorEllipseAxis = yAxisDimension;
ellipseIsVertical = false;
}
else
{
majorEllipseAxis = yAxisDimension;
minorEllipseAxis = xAxisDimension;
ellipseIsVertical = true;
}
// now figure out the length of the line between the circles
majorEllipseAxisAdjustedForCircle = majorEllipseAxis - minorEllipseAxis;
// sanity checks
if (majorEllipseAxisAdjustedForCircle < 0)
{
// what the hell? we got problems
throw new Exception("Cannot draw ellipse adjusted axis less than zero.");
}
else if (majorEllipseAxisAdjustedForCircle == 0)
{
// special case, we must be dealing with a circle, just draw one
workingOuterDiameter = (int)Math.Round((majorEllipseAxis * stateMachine.IsoPlotPointsPerAppUnit));
// now do the flash
GerberAperture_CCode.PerformCircularApertureFlashWithHole(isoPlotBuilder, stateMachine, x1, y1, xyComp, workingOuterDiameter, HoleDiameter);
return;
}
// we are not dealing with a circle. We are dealing with an OBRound
// now figure out the diameter of the endpoint circles
workingOuterDiameter = (int)Math.Round((minorEllipseAxis * stateMachine.IsoPlotPointsPerAppUnit));
// calc the amount we have to add/subtract on the center point to get to the
// endpoints
majorEllipseAxisEndpointCompensation = (int)Math.Round(((majorEllipseAxisAdjustedForCircle * stateMachine.IsoPlotPointsPerAppUnit) / 2));
majorEllipseAxisEndpointCompensation += (xyComp / 2);
// compensate the endpoints, the way we do this is dependent on whether
// the ellipse is horizontal or vertical. NOTE according to the spec OBRounds
// cannot have a rotation. They are either Horizontal or Vertical
if (ellipseIsVertical == false)
{
x1EllipseCompensatedCenterpoint = x1 - majorEllipseAxisEndpointCompensation;
x2EllipseCompensatedCenterpoint = x1 + majorEllipseAxisEndpointCompensation;
y1EllipseCompensatedCenterpoint = y1;
y2EllipseCompensatedCenterpoint = y1;
circle1StartDegrees = 90;
circle1SweepDegrees = 180;
circle2StartDegrees = 270;
circle2SweepDegrees = 180;
}
else
{
x1EllipseCompensatedCenterpoint = x1;
x2EllipseCompensatedCenterpoint = x1;
y1EllipseCompensatedCenterpoint = y1 - majorEllipseAxisEndpointCompensation;
y2EllipseCompensatedCenterpoint = y1 + majorEllipseAxisEndpointCompensation;
circle1StartDegrees = 180;
circle1SweepDegrees = 180;
circle2StartDegrees = 0;
circle2SweepDegrees = 180;
}
// calculate the endpoints of the wide line rectangle.
MiscGraphicsUtils.GetWideLineEndPoints(x1EllipseCompensatedCenterpoint, y1EllipseCompensatedCenterpoint, x2EllipseCompensatedCenterpoint, y2EllipseCompensatedCenterpoint, (workingOuterDiameter + xyComp), out Point ptLL, out Point ptUL, out Point ptUR, out Point ptLR);
// now set the dimensions of the bounding box
if (ellipseIsVertical == false)
{
outerBoundingBoxLL_X = ptLL.X - x1EllipseCompensatedCenterpoint;
outerBoundingBoxLL_Y = ptLL.Y;
outerBoundingBoxUR_X = ptUR.X + x2EllipseCompensatedCenterpoint;
outerBoundingBoxUR_Y = ptUR.Y;
}
else
{
outerBoundingBoxLL_X = ptLL.X;
outerBoundingBoxLL_Y = ptLL.Y - y1EllipseCompensatedCenterpoint;
outerBoundingBoxUR_X = ptUR.X;
outerBoundingBoxUR_Y = ptUR.Y + y2EllipseCompensatedCenterpoint;
}
// now we draw according to the polarity
if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_BACKGROUND)
{
// draw the first arc
int circle1BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, x1EllipseCompensatedCenterpoint, y1EllipseCompensatedCenterpoint, circle1StartDegrees, circle1SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw the second arc
int circle2BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, x2EllipseCompensatedCenterpoint, y2EllipseCompensatedCenterpoint, circle2StartDegrees, circle2SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw in the top line
int line1BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, ptUL.X, ptUL.Y, ptUR.X, ptUR.Y);
// draw in the bottom line
int line2BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, ptLL.X, ptLL.Y, ptLR.X, ptLR.Y);
// create a list of the builder IDs used
List <int> builderIDList = new List <int>();
builderIDList.Add(circle1BuilderID);
builderIDList.Add(circle2BuilderID);
builderIDList.Add(line1BuilderID);
builderIDList.Add(line2BuilderID);
// now background fill the complex object, note how we only fill with the circle1BuilderID, This will be important when filling in the hole
isoPlotBuilder.BackgroundFillGSByBoundaryComplexVert(builderIDList, circle1BuilderID, outerBoundingBoxLL_X, outerBoundingBoxLL_Y, outerBoundingBoxUR_X, outerBoundingBoxUR_Y, -1);
// do we need to do a hole?
if (HoleDiameter > 0)
{
// yes we do
hDia = (int)Math.Round((HoleDiameter * stateMachine.IsoPlotPointsPerAppUnit));
int holeRadius = (hDia - xyComp) / 2;
if (holeRadius > 0)
{
// draw the circle for the hole
holeBuilderObjID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_NORMALEDGE, x1, y1, holeRadius, GSFillModeEnum.FillMode_BACKGROUND, stateMachine.WantClockWise);
// There is more going on here than is immediately obvious
// we want the inside of the hole to not be filled with isocells from the holeBuilderObjID
// we could just have not filled it and only placed edge isocells
// but this causes complications on the erase. It is better to fill it then remove the outer
// object then remove the background only pixels of the holeBuilderObjID. This makes sure we
// get all of the outer objects isocells rather than relying on hitting the edge to
// figure out where to start.
// remove everything belonging to the obRoundObj we just drew, note we only filled with circle1BuilderID above so that is all we need to remove
isoPlotBuilder.EraseABuilderIDFromRegionUsingABuilderID(holeBuilderObjID, circle1BuilderID, x1 - holeRadius - 1, y1 - holeRadius - 1, x1 + holeRadius + 1, y1 + holeRadius + 1);
// remove all background only pixels belonging to the hole circle leaving just the edge pixels
isoPlotBuilder.EraseBackgroundOnlyIsoCellsByBuilderID(holeBuilderObjID, x1 - holeRadius - 1, y1 - holeRadius - 1, x1 + holeRadius + 1, y1 + holeRadius + 1);
}
}
} // bottom of if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_BACKGROUND)
else if (stateMachine.BackgroundFillModeAccordingToPolarity == GSFillModeEnum.FillMode_ERASE)
{
// we have to decide whether we are drawing a hole or not. In Clear Polarity holes do not come in as solid DARK spot like you
// think they would. Instead they just "do nothing" on the area the contents below them remain there and there is no fill or erase
if (HoleDiameter > 0)
{
// we are dealing with a erase flash with a transparent hole
// draw the first arc
int circle1BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1EllipseCompensatedCenterpoint, y1EllipseCompensatedCenterpoint, circle1StartDegrees, circle1SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw the second arc
int circle2BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x2EllipseCompensatedCenterpoint, y2EllipseCompensatedCenterpoint, circle2StartDegrees, circle2SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw in the top line
int line1BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, ptUL.X, ptUL.Y, ptUR.X, ptUR.Y);
// draw in the bottom line
int line2BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, ptLL.X, ptLL.Y, ptLR.X, ptLR.Y);
// create a list of the builder IDs used
List <int> builderIDList = new List <int>();
builderIDList.Add(circle1BuilderID);
builderIDList.Add(circle2BuilderID);
builderIDList.Add(line1BuilderID);
builderIDList.Add(line2BuilderID);
// note that at this point we effectively have an invert edge OBRound with FillMode_NONE
// now do the hole we use invert edges so anything we draw over a background will get drawn, there is no fill
hDia = (int)Math.Round((HoleDiameter * stateMachine.IsoPlotPointsPerAppUnit));
int holeRadius = (hDia - xyComp) / 2;
if (holeRadius > 0)
{
// draw the circle for the hole using no fill. Whatever is in there is in there
holeBuilderObjID = isoPlotBuilder.DrawGSCircle(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1, y1, holeRadius, GSFillModeEnum.FillMode_NONE, stateMachine.WantClockWise);
}
builderIDList.Add(holeBuilderObjID);
// now erase between the outer and inner circles
isoPlotBuilder.BackgroundFillGSByBoundaryComplexVert(builderIDList, IsoPlotObject.DEFAULT_ISOPLOTOBJECT_ID, outerBoundingBoxLL_X, outerBoundingBoxLL_Y, outerBoundingBoxUR_X, outerBoundingBoxUR_Y, -1);
}
else
{
// draw the obRound, we use invert edges here so we draw only if it is on some other background, we still erase everything under it though
// draw the first arc
int circle1BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x1EllipseCompensatedCenterpoint, y1EllipseCompensatedCenterpoint, circle1StartDegrees, circle1SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw the second arc
int circle2BuilderID = isoPlotBuilder.DrawGSContourArc(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, x2EllipseCompensatedCenterpoint, y2EllipseCompensatedCenterpoint, circle2StartDegrees, circle2SweepDegrees, ((workingOuterDiameter + xyComp) / 2), false, true, false);
// draw in the top line
int line1BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, ptUL.X, ptUL.Y, ptUR.X, ptUR.Y);
// draw in the bottom line
int line2BuilderID = isoPlotBuilder.DrawGSLineContourLine(IsoPlotUsageTagFlagEnum.IsoPlotUsageTagFlag_INVERTEDGE, ptLL.X, ptLL.Y, ptLR.X, ptLR.Y);
// create a list of the builder IDs used
List <int> builderIDList = new List <int>();
builderIDList.Add(circle1BuilderID);
builderIDList.Add(circle2BuilderID);
builderIDList.Add(line1BuilderID);
builderIDList.Add(line2BuilderID);
// now erase the background
isoPlotBuilder.BackgroundFillGSByBoundaryComplexVert(builderIDList, IsoPlotObject.DEFAULT_ISOPLOTOBJECT_ID, outerBoundingBoxLL_X, outerBoundingBoxLL_Y, outerBoundingBoxUR_X, outerBoundingBoxUR_Y, -1);
}
}
/*
* DebugMessage("");
* DebugMessage("majorEllipseAxis=" + (majorEllipseAxis * stateMachine.IsoPlotPointsPerAppUnit));
* DebugMessage("minorEllipseAxis =" + (minorEllipseAxis * stateMachine.IsoPlotPointsPerAppUnit).ToString());
* DebugMessage("y1EllipseCompensatedCenterpoint =" + (y1EllipseCompensatedCenterpoint).ToString());
* DebugMessage("y2EllipseCompensatedCenterpoint =" + (y2EllipseCompensatedCenterpoint).ToString());
* DebugMessage("y2EllipseCompensatedCenterpoint-y1EllipseCompensatedCenterpoint =" + (y2EllipseCompensatedCenterpoint - y1EllipseCompensatedCenterpoint).ToString());
* DebugMessage("xyComp =" + xyComp.ToString());
* DebugMessage("workingOuterDiameter =" + workingOuterDiameter.ToString());
* DebugMessage("");
*/
return;
}
