Example #1
0
        public IMImageCell(ICP pos, List <IRD> rasterData)
        {
            CellPosition = pos;
            RasterData   = rasterData;

            // Auto populate image data
            ImageData = new bool[pos.XSize, pos.YSize];

            int concatCounter = 0;

            byte[] concatData = rasterData.SelectMany(d => d.Data).ToArray();

            for (int y = 0; y <= ImageData.GetUpperBound(1); y++)
            {
                for (int x = 0; x < ImageData.GetUpperBound(0); x += 8)
                {
                    byte curByte = concatData[concatCounter++];

                    for (int b = 0; b < 8; b++)
                    {
                        ImageData[x + b, y] = (curByte & (1 << (7 - b))) > 0;
                    }
                }
            }
        }
Example #2
0
        /*
         * Point cloud color:
         * AntiqueWhite is ref
         * YellowGreen is pending
         * blue is established
         */
        private void TransformPC(Point3DCollection source, Point3DCollection reference)
        {
            // As far as i know, source[i] maps to reference[i]
            // compute initial transformation

            //compute transformation from reference
            _icpData = _icp.ComputeICP(
                Parser3DPoint.FromPoint3DToDataPoints(source),
                Parser3DPoint.FromPoint3DToDataPoints(reference),
                _initialTransformation);

            _icpData.transform = _initialTransformation;

            var p = ICP.ApplyTransformation(_icpData.transform, Parser3DPoint.FromPoint3DToDataPoints(_displayPointCloud));

            _displayPointCloud = Parser3DPoint.FromDataPointsToPoint3DCollection(p);

            _renderer.CreatePointCloud(_displayPointCloud, Brushes.BlueViolet);
        }
Example #3
0
        private void Init()
        {
            InitializeComponent();
            Log.InitLog(textBox, label_Cycle);


            // Initialize images
            _processingStage = new ProcessingStage(label_Status,
                                                   new BitmapImage(new Uri("pack://application:,,,/3DReconstructionWPF;component/Assets/Images/icons8-crossmark.png")),
                                                   new BitmapImage(new Uri("pack://application:,,,/3DReconstructionWPF;component/Assets/Images/icons8-checkmark.png")),
                                                   image_trackedFeature, image_rgbColor, image_depth);

            _renderer = new Renderer(group);
            _pcv      = new PointCloudView(_renderer);

            _sensor = KinectSensor.GetDefault();

            _initialTransformation = new pointmatcher.net.EuclideanTransform
            {
                translation = System.Numerics.Vector3.Zero,
                rotation    = System.Numerics.Quaternion.Normalize(System.Numerics.Quaternion.CreateFromRotationMatrix(new System.Numerics.Matrix4x4(
                                                                                                                           1, 0, 0, 0,
                                                                                                                           0, 1, 0, 0,
                                                                                                                           0, 0, 1, 0,
                                                                                                                           0, 0, 0, 1
                                                                                                                           )))
            };

            _icpData            = new ICP.ICPData(null, _initialTransformation);
            _icp                = new ICP();
            label_Cycle.Content = "cycle: " + _cycleRuns;

            if (_sensor != null)
            {
                if (_sensor.IsOpen && _sensor.IsAvailable)
                {
                    Log.WriteLog("Kinect capture data available!");
                }
            }

            // Init filters
            FilterGroup.InitFilters();
        }
Example #4
0
        private static void ConstructTestCase(out EuclideanTransform t, out ErrorElements errorElements)
        {
            // pick some random points
            var points = new List <DataPoint>();

            for (int i = 0; i < 10000; i++)
            {
                var n = RandomVector();
                points.Add(new DataPoint
                {
                    point  = 100.0f * RandomVector() - new Vector3(50.0f),
                    normal = Vector3.Normalize(n),
                });
            }

            var dataPoints = new DataPoints
            {
                points          = points.ToArray(),
                contiansNormals = true,
            };

            t             = new EuclideanTransform();
            t.translation = RandomVector() * 50.0f;
            //t.translation = new Vector3(0f);
            var axis = Vector3.Normalize(RandomVector());

            t.rotation = Quaternion.CreateFromAxisAngle(axis, (float)(r.NextDouble() * Math.PI * 2));
            t.rotation = Quaternion.Normalize(t.rotation);
            //t.rotation = Quaternion.Identity;

            var transformedPoints = ICP.ApplyTransformation(dataPoints, t.Inverse());

            errorElements = new ErrorElements
            {
                reference = dataPoints,
                reading   = transformedPoints,
                weights   = Enumerable.Repeat(1.0f, points.Count).ToArray()
            };
        }
Example #5
0
 /// <summary>
 /// 链接ICP
 /// </summary>
 public void AttachICP(ICP icp)
 {
     this.icp = icp;
 }
Example #6
0
        public List <Vector3d> ICPCalculation(List <Vector3d> pointsToTransform, List <Vector3d> pointsOrig)
        {
            int j = 0;
            int m = 0;

            double[,] map_points = new double[3, pointsToTransform.Count];
            for (int i = 0; i < map_points.Length / 3; i++, j++)
            {
                map_points.SetValue(pointsToTransform[i].X, 0, j);
                map_points.SetValue(pointsToTransform[i].Y, 1, j);
                map_points.SetValue(pointsToTransform[i].Z, 2, j);
            }
            double[,] map_pointsToTransform = ThinPointCloud(pointsToTransform, 0, 50);
            m += 10;
            double[,] map_pointsOrig = new double[3, pointsOrig.Count()];
            for (int i = 0; i < pointsOrig.Count; i++)
            {
                map_pointsOrig.SetValue(pointsOrig[i].X, 0, i);
                map_pointsOrig.SetValue(pointsOrig[i].Y, 1, i);
                map_pointsOrig.SetValue(pointsOrig[i].Z, 2, i);
            }
            //IterativeClosestPointClass icp = new IterativeClosestPointClass();
            ICP icpTest = new ICP();
            // ICP icpTest = new ICP();
            MWCellArray outMapedPointsNew = null;
            MWCellArray outMapedPointsOld = null;

            Console.WriteLine("Start of ICP algorithm");
            Stopwatch stopWatch = new Stopwatch();

            stopWatch.Start();
            outMapedPointsNew = (MWCellArray)icpTest.getIterativeClosestPoints((MWNumericArray)map_pointsOrig, (MWNumericArray)map_pointsToTransform, (MWNumericArray)map_points, (MWNumericArray)20);

            for (int i = 0; i < 5; i++)
            {
                m += 5;
                MWNumericArray  newoutmappedPoints = (MWNumericArray)outMapedPointsNew[1];
                List <Vector3d> newPoints          = new List <Vector3d>();

                double   newx, newy, newz;
                Vector3d newact_point;
                for (int k = 1; k < newoutmappedPoints.Dimensions[1]; k++)
                {
                    newx = (double)newoutmappedPoints[1, k];
                    newy = (double)newoutmappedPoints[2, k];
                    newz = (double)newoutmappedPoints[3, k];

                    newact_point = new Vector3d(newx, newy, newz);

                    newPoints.Add(newact_point);
                }
                map_pointsToTransform = ThinPointCloud(newPoints, m, 50);
                outMapedPointsOld     = outMapedPointsNew;

                // Call function getIterativeClosestPoints which returns a new Array of map_points with rotation and translation
                //outMapedPoints= (MWCellArray)icp.getIterativeClosestPoints((MWNumericArray)map_pointsOrig, (MWNumericArray)map_points, (MWNumericArray)map_pointsToTransform,(MWNumericArray)15);
                outMapedPointsNew = (MWCellArray)icpTest.getIterativeClosestPoints((MWNumericArray)map_pointsOrig, (MWNumericArray)map_pointsToTransform, outMapedPointsOld[1], (MWNumericArray)30);
            }

            stopWatch.Stop();
            // Get the elapsed time as a TimeSpan value.
            TimeSpan ts = stopWatch.Elapsed;

            Console.WriteLine("End of ICP algorithm, it took : {0} minuts and {1} seconds!", ts.Minutes, ts.Seconds);
            MWNumericArray mappedPoints    = (MWNumericArray)outMapedPointsNew[1];
            MWNumericArray rotation_vec    = (MWNumericArray)outMapedPointsNew[2];
            MWNumericArray translation_vec = (MWNumericArray)outMapedPointsNew[3];

            Vector3d act_point;

            List <Vector3d> points = new List <Vector3d>();

            double x, y, z;

            for (int i = 1; i <= mappedPoints.Dimensions[1]; i++)
            {
                x = (double)mappedPoints[1, i];
                y = (double)mappedPoints[2, i];
                z = (double)mappedPoints[3, i];

                act_point = new Vector3d(x, y, z);

                points.Add(act_point);
            }

            List <Vector4d> matrix = new List <Vector4d>();
            Vector4d        column;

            for (int i = 1; i < 4; i++)
            {
                x = (double)mappedPoints[1, i];
                y = (double)mappedPoints[2, i];
                z = (double)mappedPoints[3, i];

                column = new Vector4d((double)rotation_vec[i, 1], (double)rotation_vec[i, 2], (double)rotation_vec[i, 3], (double)translation_vec[i, 1]);

                matrix.Add(column);
            }
            column = new Vector4d(0, 0, 0, 1);
            matrix.Add(column);
            //WriteTransformationMatrix(matrix, "..\\..\\..\\..\\..\\03Daten\\registratedData\\MeshTomo_to_SimulatedTransformation.txt");
            transMatrix = matrix;
            //GetNearestPoints(points, pointsOrig);
            return(points);
        }
Example #7
0
        private void ParseFontAndImageData()
        {
            // FONT RASTER PATTERNS
            Dictionary <Container, IReadOnlyDictionary <FNI.Info, bool[, ]> > rasterPatterns = new Dictionary <Container, IReadOnlyDictionary <FNI.Info, bool[, ]> >();

            foreach (Container c in Resources.Where(r => r.ResourceType == Resource.eResourceType.FontCharacterSet && r.IsLoaded)
                     .Select(r => r.Fields[0].LowestLevelContainer))
            {
                // If we have a pattern map, gather raster data
                FNM patternsMap = c.GetStructure <FNM>();
                if (patternsMap != null)
                {
                    FNI firstFNI = c.GetStructure <FNI>();
                    Dictionary <FNI.Info, bool[, ]> patternsDictionary = new Dictionary <FNI.Info, bool[, ]>();
                    byte[] allFNGData   = c.GetStructures <FNG>().SelectMany(f => f.Data).ToArray();
                    int    indexCounter = 0;

                    for (int i = 0; i < patternsMap.AllPatternData.Count; i++)
                    {
                        // Subtract the next offset (or length of data if at end) by this one to find out how many bytes to take
                        int bytesToTake = (int)((i < patternsMap.AllPatternData.Count - 1 ? patternsMap.AllPatternData[i + 1].DataOffset : (uint)allFNGData.Length)
                                                - patternsMap.AllPatternData[i].DataOffset);

                        // Create an empty array of bools from our box width and height
                        // The array sizes are the number of bits in the minimum number of bytes required to support the bit size
                        int numBitsWide = (int)Math.Ceiling((patternsMap.AllPatternData[i].BoxMaxWidthIndex + 1) / 8.0) * 8;
                        int numRows     = bytesToTake / (numBitsWide / 8);
                        bool[,] curPattern = new bool[numBitsWide, numRows];
                        for (int y = 0; y < numRows; y++)
                        {
                            for (int x = 0; x < numBitsWide; x += 8)
                            {
                                byte curByte = allFNGData[indexCounter++];
                                for (int b = 0; b < 8; b++)
                                {
                                    curPattern[x + b, y] = (curByte & (1 << (7 - b))) > 0;
                                }
                            }
                        }

                        // Lookup the GCGID from the first FNI for this pattern
                        patternsDictionary.Add(firstFNI.InfoList.First(fni => fni.FNMIndex == i), curPattern);
                    }
                    rasterPatterns.Add(c, patternsDictionary);
                }
            }
            ParsedFontPatterns = rasterPatterns;

            // IM IMAGES
            Dictionary <Container, IReadOnlyList <IMImageCell> > imImages = new Dictionary <Container, IReadOnlyList <IMImageCell> >();

            foreach (Container c in Resources
                     .Where(r => r.IsLoaded && (r.ResourceType == Resource.eResourceType.IMImage || (r.ResourceType == Resource.eResourceType.PageSegment && r.Fields[1] is BII)))
                     .Select(r => r.ResourceType == Resource.eResourceType.PageSegment ? r.Fields[1].LowestLevelContainer : r.Fields[0].LowestLevelContainer))
            {
                IID imageDescriptor         = c.GetStructure <IID>();
                List <IMImageCell> cellList = new List <IMImageCell>();

                if (c.GetStructure <ICP>() == null)
                {
                    // Since there are no cells, create one
                    ICP         newCellPos = new ICP(imageDescriptor.XSize, imageDescriptor.YSize);
                    IMImageCell newCell    = new IMImageCell(newCellPos, c.GetStructures <IRD>());
                    cellList.Add(newCell);
                }
                else
                {
                    // Manually parse a list of cells since they don't have their own container
                    for (int i = 0; i < c.Structures.Count; i++)
                    {
                        if (c.Structures[i].GetType() != typeof(ICP))
                        {
                            continue;
                        }

                        // Get list of IRDs up to the next ICP or end of structures
                        List <IRD> rasterData = new List <IRD>();
                        for (int r = i + 1; r < c.Structures.Count; r++)
                        {
                            if (c.Structures[r].GetType() != typeof(IRD))
                            {
                                break;
                            }
                            rasterData.Add((IRD)c.Structures[r]);
                        }

                        cellList.Add(new IMImageCell((ICP)c.Structures[i], rasterData));
                    }
                }
                imImages.Add(c, cellList);
            }
            ParsedIMImages = imImages;

            // IOCA IMAGES
            Dictionary <Container, IReadOnlyList <ImageInfo> > iocaImages = new Dictionary <Container, IReadOnlyList <ImageInfo> >();

            foreach (Container c in Resources
                     .Where(r => r.IsLoaded && (r.ResourceType == Resource.eResourceType.IOCAImage || (r.ResourceType == Resource.eResourceType.PageSegment && r.Fields[1] is BIM)))
                     .Select(r => r.ResourceType == Resource.eResourceType.PageSegment ? r.Fields[1].LowestLevelContainer : r.Fields[0].LowestLevelContainer))
            {
                // Combine all self defining fields from zero or more IPD fields
                byte[] allIPDData = c.GetStructures <IPD>().SelectMany(f => f.Data).ToArray();
                List <ImageSelfDefiningField> SDFs = ImageSelfDefiningField.GetAllSDFs(allIPDData);

                // Get all images in our self defining field list
                foreach (Container sc in SDFs.OfType <BeginImageContent>().Select(s => s.LowestLevelContainer))
                {
                    List <Container> allContainers = new List <Container>()
                    {
                        sc
                    };
                    List <ImageInfo> infoList = new List <ImageInfo>();

                    // Along with ourself, add any tiles to the list of containers
                    if (sc.Structures.Any(s => s.GetType() == typeof(BeginTile)))
                    {
                        allContainers.AddRange(sc.Structures.OfType <BeginTile>().Select(s => s.LowestLevelContainer));
                    }

                    // For each container, get image and transparency bytes
                    foreach (Container tc in allContainers)
                    {
                        ImageInfo info = new ImageInfo();
                        info.Data = tc.DirectGetStructures <ImageData>().SelectMany(s => s.Data).ToArray();

                        // If there are tiles, store offset information
                        if (tc.Structures[0].GetType() == typeof(BeginTile))
                        {
                            TilePosition tp = tc.GetStructure <TilePosition>();
                            info.XOffset = tp.XOffset;
                            info.YOffset = tp.YOffset;
                        }

                        // Add transparency data if needed
                        ImageSelfDefiningField BTM = tc.GetStructure <BeginTransparencyMask>();
                        if (BTM != null)
                        {
                            info.TransparencyMask = BTM.LowestLevelContainer.GetStructures <ImageData>().SelectMany(s => s.Data).ToArray();
                        }

                        infoList.Add(info);
                    }
                    iocaImages.Add(c, infoList);
                }
            }
            ParsedImages = iocaImages;
        }
Example #8
0
        private void ScanReading_Click(object sender, RoutedEventArgs e)
        {
            // for intersection testing
            //_displayPointCloud = _renderer.ReadData();
            //_rgbv._bvh = BVH.InitBVH(_displayPointCloud);

            var point1 = new Point3D(-0.8f, 0, 0);
            var point2 = new Point3D(-1f, 0, 0);
            var point3 = new Point3D(-0.6f, 0.5f, 0);
            var point4 = new Point3D(0.8f, -0.5f, 0);

            var pcReference = new Point3DCollection
            {
                point1,
                point2,
                point3
            };


            Log.WriteLog("--------------------");

            /*
             * var rotationAngle = 0.707106781187f;
             *
             * Matrix3D m = new Matrix3D(
             * rotationAngle, 0, rotationAngle, 0,
             * 0, 1, 0, 0,
             * -rotationAngle, 0, rotationAngle, 0,
             * 1, 0, 0, 1);
             *
             * // Transform the thumb according to m
             * _thumbReading = m.Transform(_readingFeatures[0]);
             * point1 = m.Transform(point1);
             * point2 = m.Transform(point2);
             * point3 = m.Transform(point3);
             * point4 = m.Transform(point4);
             *
             * var pcReading = new Point3DCollection
             * {
             *  point1,
             *  point2,
             *  point3
             * };
             */

            var depthData = _pcv.GetDepthDataFromLatestFrame();

            _reading         = depthData.Item1; // all points
            _readingFeatures = depthData.Item2; // only feature points [4]

            _initialTransformation = Util.ComputeInitialTransformation(_readingFeatures, _referenceFeatures);
            _reading = Parser3DPoint.FromDataPointsToPoint3DCollection(ICP.ApplyTransformation(_initialTransformation, Parser3DPoint.FromPoint3DToDataPoints(_reading)));

            ComputeRMSE(_referenceFeatures, _readingFeatures, _initialTransformation);

            _renderer.CreatePointCloud(_referenceFeatures, Brushes.Pink, false, 0.0125f);
            // Transform readingFeatures
            _renderer.CreatePointCloud(_readingFeatures, Brushes.YellowGreen, false, 0.0125f);
            _readingFeatures = Parser3DPoint.FromDataPointsToPoint3DCollection(ICP.ApplyTransformation(_initialTransformation, Parser3DPoint.FromPoint3DToDataPoints(_readingFeatures)));
            _renderer.CreatePointCloud(_readingFeatures, Brushes.Violet, false, 0.0125f);

            _renderer.CreatePointCloud(_reading, Brushes.BlueViolet, false, 0.0025f);

            // _renderer.CreatePointCloud(_reading, Brushes.Violet,false);

            _cycleRuns++;
            label_Cycle.Content = "cycle: " + _cycleRuns;
        }