コード例 #1
0
        private static void ApplyNetStateTransformation(Graphics graphics, GerberNetState netState)
        {
            // Apply scale factor.
            graphics.ScaleTransform((float)netState.ScaleA, (float)netState.ScaleB);
            // Apply offset.
            graphics.TranslateTransform((float)netState.OffsetA, (float)netState.OffsetB);
            // Apply mirror.
            switch (netState.MirrorState)
            {
            case GerberMirrorState.FlipA:
                graphics.ScaleTransform(-1.0f, 1.0f);
                break;

            case GerberMirrorState.FlipB:
                graphics.ScaleTransform(1.0f, -1.0f);
                break;

            case GerberMirrorState.FlipAB:
                graphics.ScaleTransform(-1.0f, -1.0f);
                break;

            default:
                break;
            }

            // Finally, apply axis select.
            if (netState.AxisSelect == GerberAxisSelect.SwapAB)
            {
                // Do this by rotating 270 degrees counterclockwise, then mirroring the Y axis.
                graphics.RotateTransform(90);
                graphics.ScaleTransform(1.0f, -1.0f);
            }
        }
コード例 #2
0
ファイル: GerberNet.cs プロジェクト: caoweisir/GerberVS
        public GerberNet(GerberImage gerberImage, GerberNet currentNet, GerberLevel level, GerberNetState netState)
        {
            if (level != null)
            {
                Level = level;
            }

            else
            {
                Level = currentNet.Level;
            }

            if (netState != null)
            {
                NetState = netState;
            }

            else
            {
                NetState = currentNet.NetState;
            }

            Label = String.Empty;
            //IsSelected = false;
            gerberImage.GerberNetList.Add(this);
        }
コード例 #3
0
        // Renders a gerber image to the specified graphics target.
        private static void RenderToTarget(Graphics graphics, GerberImage gerberImage, Collection <GerberNet> gerberNetList, GerberUserTransform userTransform,
                                           Color foreGroundColor, Color backGroundColor, bool invert)
        {
            float dx, dy;
            float startX, startY, stopX, stopY;
            float p1, p2, p3, p4, p5;
            int   repeatX = 1, repeatY = 1;
            float repeatDistanceX = 0.0f, repeatDistanceY = 0.0f;

            Collection <SimplifiedApertureMacro> simplifiedMacroList;
            PointF     startPoint, endPoint;
            RectangleF apertureRectangle;

            int            netListIndex     = 0;
            GerberNet      currentNet       = null;
            GerberLevel    oldLevel         = null;
            GerberNetState oldState         = null;
            bool           useClearOperator = false;
            bool           invertPolarity   = false;

            SolidBrush brush = new SolidBrush(foreGroundColor);
            Pen        pen   = new Pen(foreGroundColor);

            // Apply user supplied transforations.
            double scaleX = userTransform.ScaleX;
            double scaleY = userTransform.ScaleY;

            if (userTransform.MirrorAroundX)
            {
                scaleY *= -1;
            }

            if (userTransform.MirrorAroundY)
            {
                scaleX *= -1;
            }

            graphics.TranslateTransform((float)userTransform.TranslateX, (float)userTransform.TranslateY);
            graphics.ScaleTransform((float)scaleX, (float)scaleY);
            graphics.RotateTransform((float)userTransform.Rotation);

            // Apply initial image transformations.
            graphics.TranslateTransform((float)gerberImage.ImageInfo.ImageJustifyOffsetActualA, (float)gerberImage.ImageInfo.ImageJustifyOffsetActualB);
            graphics.TranslateTransform((float)gerberImage.ImageInfo.OffsetA, (float)gerberImage.ImageInfo.OffsetB);
            graphics.RotateTransform((float)gerberImage.ImageInfo.ImageRotation);

            invertPolarity = invert;
            if (gerberImage.ImageInfo.Polarity == GerberPolarity.Negative)
            {
                invertPolarity = !invertPolarity;
            }

            if (invertPolarity)
            {
                graphics.Clear(foreGroundColor);
            }

            else
            {
                pen.Color = brush.Color = foreGroundColor;
            }

            for (netListIndex = 0; netListIndex < gerberNetList.Count; GetNextRenderObject(gerberNetList, ref netListIndex))
            {
                currentNet = gerberNetList[netListIndex];
                if (currentNet.Level != oldLevel)
                {
                    // Set the current net transformation and polarity.
                    graphics.RotateTransform((float)currentNet.Level.Rotation);
                    if (currentNet.Level.Polarity == GerberPolarity.Clear ^ invertPolarity)
                    {
                        pen.Color = brush.Color = backGroundColor;
                    }

                    else
                    {
                        pen.Color = brush.Color = foreGroundColor;
                    }

                    // Check for changes to step and repeat.
                    repeatX         = currentNet.Level.StepAndRepeat.X;
                    repeatY         = currentNet.Level.StepAndRepeat.Y;
                    repeatDistanceX = (float)currentNet.Level.StepAndRepeat.DistanceX;
                    repeatDistanceY = (float)currentNet.Level.StepAndRepeat.DistanceY;

                    // Draw any knockout areas.
                    if (currentNet.Level.Knockout.FirstInstance == true)
                    {
                        Color oldColor = foreGroundColor;
                        if (currentNet.Level.Knockout.Polarity == GerberPolarity.Clear)
                        {
                            pen.Color = brush.Color = backGroundColor;
                        }

                        else
                        {
                            pen.Color = brush.Color = foreGroundColor;
                        }

                        GraphicsPath knockoutPath = new GraphicsPath();
                        PointF       pf1          = new PointF((float)(currentNet.Level.Knockout.LowerLeftX - currentNet.Level.Knockout.Border),
                                                               (float)(currentNet.Level.Knockout.LowerLeftY - currentNet.Level.Knockout.Border));
                        PointF pf2 = new PointF(pf1.X + (float)(currentNet.Level.Knockout.Width + (currentNet.Level.Knockout.Border * 2)), pf1.Y);
                        PointF pf3 = new PointF(pf2.X, pf1.Y + (float)(currentNet.Level.Knockout.Height + (currentNet.Level.Knockout.Border * 2)));
                        PointF pf4 = new PointF(pf1.X, pf3.Y);

                        PointF[] points = new PointF[] { pf1, pf2, pf3, pf4 };
                        knockoutPath.AddLines(points);
                        knockoutPath.CloseFigure();
                        graphics.FillPath(brush, knockoutPath);

                        // Restore the polarity.
                        pen.Color = brush.Color = oldColor;
                    }

                    ApplyNetStateTransformation(graphics, currentNet.NetState);
                    oldLevel = currentNet.Level;
                }

                // Check if this is a new netstate.
                if (currentNet.NetState != oldState)
                {
                    // A new state, so recalculate the new transformation matrix.
                    ApplyNetStateTransformation(graphics, currentNet.NetState);
                    oldState = currentNet.NetState;
                }

                for (int rx = 0; rx < repeatX; rx++)
                {
                    for (int ry = 0; ry < repeatY; ry++)
                    {
                        float stepAndRepeatX = rx * repeatDistanceX;
                        float stepAndRepeatY = ry * repeatDistanceY;

                        startX = (float)currentNet.StartX + stepAndRepeatX;
                        startY = (float)currentNet.StartY + stepAndRepeatY;
                        stopX  = (float)currentNet.StopX + stepAndRepeatX;
                        stopY  = (float)currentNet.StopY + stepAndRepeatY;

                        switch (gerberNetList[netListIndex].Interpolation)
                        {
                        case GerberInterpolation.PolygonAreaStart:
                            FillPolygonArea(graphics, brush, gerberNetList, netListIndex, stepAndRepeatX, stepAndRepeatY);
                            continue;

                        case GerberInterpolation.Deleted:
                            continue;
                        }

                        switch (currentNet.ApertureState)
                        {
                        case GerberApertureState.On:
                            switch (currentNet.Interpolation)
                            {
                            case GerberInterpolation.LinearX10:
                            case GerberInterpolation.LinearX01:
                            case GerberInterpolation.LinearX001:
                            case GerberInterpolation.LinearX1:
                                pen.SetLineCap(LineCap.Round, LineCap.Round, DashCap.Round);
                                switch (gerberImage.ApertureArray[currentNet.Aperture].ApertureType)
                                {
                                case GerberApertureType.Circle:
                                    pen.Width  = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[0];
                                    startPoint = new PointF(startX, startY);
                                    endPoint   = new PointF(stopX, stopY);
                                    graphics.DrawLine(pen, startPoint, endPoint);
                                    break;

                                case GerberApertureType.Rectangle:
                                    dx = (float)(gerberImage.ApertureArray[currentNet.Aperture].Parameters[0] / 2);
                                    dy = (float)(gerberImage.ApertureArray[currentNet.Aperture].Parameters[1] / 2);
                                    if (startX > stopX)
                                    {
                                        dx = -dx;
                                    }

                                    if (startY > stopY)
                                    {
                                        dy = -dy;
                                    }

                                    using (GraphicsPath path = new GraphicsPath())
                                    {
                                        path.AddLine(startX - dx, startY - dy, startX - dx, startY + dy);
                                        path.AddLine(startX - dx, startY + dy, stopX - dx, stopY + dy);
                                        path.AddLine(stopX - dx, stopY + dy, stopX + dx, stopY + dy);
                                        path.AddLine(stopX + dx, stopY + dy, stopX + dx, stopY - dy);
                                        path.AddLine(stopX + dx, stopY - dy, startX + dx, startY - dy);
                                        graphics.FillPath(brush, path);
                                    }
                                    break;

                                // For now, just render ovals or polygons like a circle.
                                case GerberApertureType.Oval:
                                case GerberApertureType.Polygon:
                                    pen.Width  = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[0];
                                    startPoint = new PointF(startX, startY);
                                    endPoint   = new PointF(stopX, stopY);
                                    graphics.DrawLine(pen, startPoint, endPoint);
                                    break;

                                // Macros can only be flashed, so ignore any that might be here.
                                default:
                                    break;
                                }
                                break;

                            case GerberInterpolation.ClockwiseCircular:
                            case GerberInterpolation.CounterClockwiseCircular:
                                float centerX    = (float)currentNet.CircleSegment.CenterX;
                                float centerY    = (float)currentNet.CircleSegment.CenterY;
                                float width      = (float)currentNet.CircleSegment.Width;
                                float height     = (float)currentNet.CircleSegment.Height;
                                float startAngle = (float)currentNet.CircleSegment.StartAngle;
                                float sweepAngle = (float)currentNet.CircleSegment.SweepAngle;
                                if (gerberImage.ApertureArray[currentNet.Aperture].ApertureType == GerberApertureType.Rectangle)
                                {
                                    pen.SetLineCap(LineCap.Square, LineCap.Square, DashCap.Flat);
                                }

                                else
                                {
                                    pen.SetLineCap(LineCap.Round, LineCap.Round, DashCap.Round);
                                }

                                RectangleF arcRectangle = new RectangleF(centerX - (width / 2), centerY - (height / 2), width, height);
                                pen.Width = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[0];
                                if (arcRectangle != RectangleF.Empty)
                                {
                                    graphics.DrawArc(pen, arcRectangle, startAngle, sweepAngle);
                                }

                                break;

                            default:
                                break;
                            }
                            break;

                        case GerberApertureState.Flash:
                            p1 = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[0];
                            p2 = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[1];
                            p3 = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[2];
                            p4 = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[3];
                            p5 = (float)gerberImage.ApertureArray[currentNet.Aperture].Parameters[4];

                            GraphicsState state = graphics.Save();
                            graphics.TranslateTransform(stopX, stopY);
                            using (GraphicsPath path = new GraphicsPath())
                            {
                                switch (gerberImage.ApertureArray[currentNet.Aperture].ApertureType)
                                {
                                case GerberApertureType.Circle:
                                    apertureRectangle = new RectangleF(-(p1 / 2), -(p1 / 2), p1, p1);
                                    path.AddEllipse(apertureRectangle);
                                    DrawAperatureHole(path, p2, p3);
                                    break;

                                case GerberApertureType.Rectangle:
                                    apertureRectangle = new RectangleF(-(p1 / 2), -(p2 / 2), p1, p2);
                                    path.AddRectangle(apertureRectangle);
                                    DrawAperatureHole(path, p3, p4);
                                    break;

                                case GerberApertureType.Oval:
                                    apertureRectangle = new RectangleF(-(p1 / 2), -(p2 / 2), p1, p2);
                                    CreateOblongPath(path, p1, p2);
                                    DrawAperatureHole(path, p3, p4);
                                    break;

                                case GerberApertureType.Polygon:
                                    CreatePolygon(graphics, path, p1, p2, p3);
                                    DrawAperatureHole(path, p4, p5);
                                    break;

                                case GerberApertureType.Macro:
                                    simplifiedMacroList = gerberImage.ApertureArray[currentNet.Aperture].SimplifiedMacroList;
                                    useClearOperator    = gerberImage.ApertureArray[currentNet.Aperture].Parameters[0] == 1.0 ? true : false;
                                    DrawApertureMacro(graphics, simplifiedMacroList, brush.Color, backGroundColor, useClearOperator);
                                    break;

                                default:
                                    break;
                                }

                                graphics.FillPath(brush, path);     // Fill the path.
                                graphics.Restore(state);
                            }

                            break;

                        default:
                            break;
                        }
                    }
                }
            }

            pen.Dispose();
            brush.Dispose();
        }