[STYLE #42] cleanup

LiDARToolbox/src/common/math/leastSquares/WLeastSquares.cpp

@@ -46,17 +46,17 @@ void WLeastSquares::analyzeData( vector<WPosition>* data )
     calculatePerpendicularDimension();
     clearMatrices();
     calculateMatrices();
-    calculateHessescheNormalForm();
+    calculateHesseNormalForm();
 }
-vector<double> WLeastSquares::getHessescheNormalForm()
+vector<double> WLeastSquares::getHesseNormalForm()
 {
-    return m_hessescheNormalForm;
+    return m_hesseNormalForm;
 }
 vector<double> WLeastSquares::getNormalVectorNotNormalized()
 {
     vector<double> normalVector;
-    for( size_t dimension = 0; dimension < m_hessescheNormalForm.size() - 1; dimension++ )
-        normalVector.push_back( m_hessescheNormalForm[dimension] );
+    for( size_t dimension = 0; dimension < m_hesseNormalForm.size() - 1; dimension++ )
+        normalVector.push_back( m_hesseNormalForm[dimension] );
     return normalVector;
 }
 void WLeastSquares::calculatePerpendicularDimension()
@@ -127,39 +127,39 @@ void WLeastSquares::calculateMatrices()
         }
     }
 }
-void WLeastSquares::calculateHessescheNormalForm()
+void WLeastSquares::calculateHesseNormalForm()
 {
     MatrixXd matrixX = m_matrixA.inverse()*m_matrixB;
 
-    m_hessescheNormalForm.reserve( m_dimensions + 1 );
-    m_hessescheNormalForm.resize( m_dimensions + 1 );
-    for( size_t index = 0; index < m_hessescheNormalForm.size(); index++ )
+    m_hesseNormalForm.reserve( m_dimensions + 1 );
+    m_hesseNormalForm.resize( m_dimensions + 1 );
+    for( size_t index = 0; index < m_hesseNormalForm.size(); index++ )
     {
         size_t indexMat = index <= m_verticalDimension ?index : index - 1;
 
-        m_hessescheNormalForm[index] =
+        m_hesseNormalForm[index] =
                 index != m_verticalDimension
                 ?-matrixX( indexMat, 0 ) :1;
     }
 
     double sumSquared = 0;
     for( size_t index = 0; index < m_dimensions; index++ )
-        sumSquared += pow( m_hessescheNormalForm[index], 2.0 );
+        sumSquared += pow( m_hesseNormalForm[index], 2.0 );
     sumSquared = pow( sumSquared, 0.5 );
     //for( size_t index = 0; index < m_dimensions; index++ )
-    //    m_hessescheNormalForm[index] /= sumSquared;
+    //    m_hesseNormalForm[index] /= sumSquared;
 }
 vector<double> WLeastSquares::getParametersXYZ0()
 {
-    return getParametersXYZ0( m_hessescheNormalForm );
+    return getParametersXYZ0( m_hesseNormalForm );
 }
-vector<double> WLeastSquares::getParametersXYZ0( vector<double> hessescheNormalForm )
+vector<double> WLeastSquares::getParametersXYZ0( vector<double> hesseNormalForm )
 {
     vector<double> parameters;
-    double a = hessescheNormalForm[0];
-    double b = hessescheNormalForm[1];
-    double c = hessescheNormalForm[2];
-    double d = hessescheNormalForm[3];
+    double a = hesseNormalForm[0];
+    double b = hesseNormalForm[1];
+    double c = hesseNormalForm[2];
+    double d = hesseNormalForm[3];
     double a2 = a * a;
     double b2 = b * b;
     double c2 = c * c;
@@ -174,32 +174,32 @@ double WLeastSquares::getDistanceToPlane( WPosition point )
 {
     double normalAbsolute = 0;
     for( size_t dimension = 0; dimension < m_dimensions; dimension++ )
-        normalAbsolute += pow( m_hessescheNormalForm[dimension], 2.0 );
+        normalAbsolute += pow( m_hesseNormalForm[dimension], 2.0 );
     normalAbsolute = pow( normalAbsolute, 0.5 );
 
     double distance = 0;
     for( size_t dimension = 0; dimension < m_dimensions; dimension++ )
-        distance += point[dimension] * m_hessescheNormalForm[dimension];
-    return ( distance + m_hessescheNormalForm[m_dimensions] ) / normalAbsolute;
+        distance += point[dimension] * m_hesseNormalForm[dimension];
+    return ( distance + m_hesseNormalForm[m_dimensions] ) / normalAbsolute;
 }
 WPosition WLeastSquares::getNearestPointTo( WPosition point )
 {
-    return getNearestPointTo( m_hessescheNormalForm, point );
+    return getNearestPointTo( m_hesseNormalForm, point );
 }
-WPosition WLeastSquares::getNearestPointTo( vector<double> planeHessescheNormalForm, WPosition point )
+WPosition WLeastSquares::getNearestPointTo( vector<double> planeHesseNormalForm, WPosition point )
 {
-    double dimensions = planeHessescheNormalForm.size() - 1;
-    double amountN = planeHessescheNormalForm[dimensions];
+    double dimensions = planeHesseNormalForm.size() - 1;
+    double amountN = planeHesseNormalForm[dimensions];
     double amountR = 0;
     for(size_t dimension = 0; dimension < dimensions; dimension++ )
     {
-        amountN += planeHessescheNormalForm[dimension] * point[dimension];
-        amountR += planeHessescheNormalForm[dimension] * planeHessescheNormalForm[dimension];
+        amountN += planeHesseNormalForm[dimension] * point[dimension];
+        amountR += planeHesseNormalForm[dimension] * planeHesseNormalForm[dimension];
     }
     double r = -amountN / amountR;
 
     WPosition cuttingPoint( point[0], point[1], point[2] );
     for( size_t dimension = 0; dimension < dimensions; dimension++ )
-        cuttingPoint[dimension] += planeHessescheNormalForm[dimension] * r;
+        cuttingPoint[dimension] += planeHesseNormalForm[dimension] * r;
     return cuttingPoint;
 }

LiDARToolbox/src/common/math/leastSquares/WLeastSquares.h

@@ -64,12 +64,12 @@ public:
     void analyzeData( vector<WPosition>* data );
     /**
      * Returns the plane formula for the best fitted plane.
-     * \return The hessesche Normal Form of the best fitted plane. First n numbers (by 
-     *         the dimensions coordinate count) represent the normal vector of the best 
+     * \return The Hesse normal form of the best fitted plane. First n numbers (by the 
+     *         dimensions coordinate count) represent the normal vector of the best 
      *         fitted plane. The last one is the perpendicular euclidian distance to the 
      *         coordinate system orign.
      */
-    vector<double> getHessescheNormalForm();
+    vector<double> getHesseNormalForm();
     /**
      * Returns a not normalized normal vector of the least squares adjustment result.
      * \return A not normalized normal vector of the least squares adjustment result.
@@ -84,12 +84,12 @@ public:
 
     /**
      * Calculates a plane formula of the parameter domain using the approach of 
-     * Lari/Habib using the Hessesche normal form as input plane formula.
-     * \param hessescheNormalForm The Hessesche normal formula of a plane.
+     * Lari/Habib using the Hesse normal form as input plane formula.
+     * \param hesseNormalForm The Hesse normal formula of a plane.
      * \return Parameters X_0, Y_0 and Z_0 that describe a plane using the approach of 
      *         Lari/Habib.
      */
-    static vector<double> getParametersXYZ0( vector<double> hessescheNormalForm );
+    static vector<double> getParametersXYZ0( vector<double> hesseNormalForm );
     /**
      * Returns a point distance to the currently calculated plane.
      * analyzeData() must have been executes.
@@ -108,11 +108,11 @@ public:
     /**
      * Returns a nearest point to the input point's coordinate that lies on the 
      * calculated plane.
-     * \param planeHessescheNormalForm Plane on which the nearest point is found.
+     * \param planeHesseNormalForm Plane on which the nearest point is found.
      * \param point Point to get the nearest coordinate on the plane of.
      * \return The nearest coordinate on the calculates plane of an arbitrary point.
      */
-    static WPosition getNearestPointTo( vector<double> planeHessescheNormalForm, WPosition point );
+    static WPosition getNearestPointTo( vector<double> planeHesseNormalForm, WPosition point );
 
 private:
     /**
@@ -131,9 +131,9 @@ private:
     void calculateMatrices();
     /**
      * The algorithm solves the matrix formula A*x=B. This method at first calculates 
-     * the matrix x and then the Hessesche Normal Form of the best fitted plane.
+     * the matrix x and then the Hesse Normal Form of the best fitted plane.
      */
-    void calculateHessescheNormalForm();
+    void calculateHesseNormalForm();
 
     /**
      * Dimension definition of the coordinate system.
@@ -144,9 +144,9 @@ private:
      */
     vector<WPosition>* m_positions;
     /**
-     * Space for the calculated Hessesche Normal Form.
+     * Space for the calculated Hesse normal form.
      */
-    vector<double> m_hessescheNormalForm;
+    vector<double> m_hesseNormalForm;
     /**
      * Dimension with the biggest eigen vector coordonate extent of the smallest Eigen Value.
      */

LiDARToolbox/src/pointsCutOutliers/WMPointsCutOutliers.cpp

@@ -79,14 +79,13 @@ const std::string WMPointsCutOutliers::getDescription() const
 
 void WMPointsCutOutliers::connectors()
 {
-    m_input = WModuleInputData< WDataSetPoints >::createAndAdd( shared_from_this(), "input", "The mesh to display" );
+    m_input = WModuleInputData< WDataSetPoints >::createAndAdd( shared_from_this(), "input", "" );
 
     m_output = boost::shared_ptr< WModuleOutputData< WDataSetPoints > >(
                 new WModuleOutputData< WDataSetPoints >(
-                        shared_from_this(), "points", "The loaded points." ) );
+                        shared_from_this(), "points", "" ) );
 
     addConnector( m_output );
-//    addConnector( m_buildings );
     WModule::connectors();
 }
 
@@ -109,7 +108,6 @@ void WMPointsCutOutliers::requirements()
 
 void WMPointsCutOutliers::moduleMain()
 {
-    // get notified about data changes
     m_moduleState.setResetable( true, true );
     m_moduleState.add( m_input->getDataChangedCondition() );
     m_moduleState.add( m_propCondition );
@@ -151,8 +149,6 @@ void WMPointsCutOutliers::moduleMain()
         {
             continue;
         }
-
-        // ---> Insert code doing the real stuff here
     }
 
     WKernel::getRunningKernel()->getGraphicsEngine()->getScene()->remove( m_rootNode );

LiDARToolbox/src/pointsGroupSelector/WMPointsGroupSelector.cpp

@@ -106,9 +106,6 @@ void WMPointsGroupSelector::properties()
     m_zMax = m_infoProperties->addProperty( "Z max.: ", "Maximal z coordinate of all input points.", 0.0 );
 
 
-    // ---> Put the code for your properties here. See "src/modules/template/" for an extensively documented example.
-
-
 
     m_detailDepth = m_properties->addProperty( "Detail Depth 2^n m: ", "Resulting 2^n meters detail "
                             "depth for the octree search tree.", 0, m_propCondition );
@@ -139,9 +136,6 @@ void WMPointsGroupSelector::requirements()
 
 void WMPointsGroupSelector::moduleMain()
 {
-    infoLog() << "Thrsholding example main routine started";
-
-    // get notified about data changes
     m_moduleState.setResetable( true, true );
     m_moduleState.add( m_input->getDataChangedCondition() );
     m_moduleState.add( m_propCondition );
@@ -155,7 +149,6 @@ void WMPointsGroupSelector::moduleMain()
     // main loop
     while( !m_shutdownFlag() )
     {
-        //infoLog() << "Waiting ...";
         m_moduleState.wait();
 
         boost::shared_ptr< WDataSetPointsGrouped > points = m_input->getData();
@@ -244,8 +237,6 @@ void WMPointsGroupSelector::moduleMain()
         {
             continue;
         }
-
-        // ---> Insert code doing the real stuff here
     }
 
     WKernel::getRunningKernel()->getGraphicsEngine()->getScene()->remove( m_rootNode );

LiDARToolbox/src/pointsTransform/WMPointsTransform.cpp

@@ -101,8 +101,6 @@ void WMPointsTransform::connectors()
 
 void WMPointsTransform::properties()
 {
-    // ---> Put the code for your properties here. See "src/modules/template/" for an extensively documented example.
-
     m_infoRenderTimeSeconds = m_infoProperties->addProperty( "Wall time (s): ", "Time in seconds that the "
                                             "whole render process took.", 0.0 );
 
@@ -171,8 +169,6 @@ void WMPointsTransform::requirements()
 
 void WMPointsTransform::moduleMain()
 {
-    infoLog() << "Thrsholding example main routine started";
-
     // get notified about data changes
     m_moduleState.setResetable( true, true );
     for( size_t pointset = 0; pointset < m_input.size(); pointset++ )
@@ -188,7 +184,6 @@ void WMPointsTransform::moduleMain()
     // main loop
     while( !m_shutdownFlag() )
     {
-        //infoLog() << "Waiting ...";
         m_moduleState.wait();
 
         WRealtimeTimer timer;
@@ -203,7 +198,6 @@ void WMPointsTransform::moduleMain()
         for(size_t pointset = 0; pointset < m_input.size(); pointset++)
         {
             boost::shared_ptr< WDataSetPoints > points = m_input[pointset]->getData();
-    //        std::cout << "Execute cycle\r\n";
             if  ( points )
             {
                 m_inVerts = points->getVertices();
@@ -229,8 +223,6 @@ void WMPointsTransform::moduleMain()
         }
         m_infoRenderTimeSeconds->set( timer.elapsed() );
 
-//        std::cout << "this is WOTree " << std::endl;
-
         // woke up since the module is requested to finish?
         if  ( m_shutdownFlag() )
         {
@@ -241,8 +233,6 @@ void WMPointsTransform::moduleMain()
         {
             continue;
         }
-
-        // ---> Insert code doing the real stuff here
     }
 
     WKernel::getRunningKernel()->getGraphicsEngine()->getScene()->remove( m_rootNode );

LiDARToolbox/src/surfaceDetectionByLari/WLariBoundaryDetector.cpp

@@ -48,7 +48,6 @@ void WLariBoundaryDetector::detectBoundaries( WKdTreeND* parameterDomain )
     cout << "detectBoundaries()" << endl;
     initSpatialDomain( parameterDomain );
 
-    //TODO(aschwarzkopf): Remove apply only for biggest cluster:
     for( size_t cluster = 0; cluster < m_spatialInputClusters->size(); cluster++ )
         detectInputCluster( m_spatialInputClusters->at( cluster ) );
 }
@@ -105,7 +104,6 @@ void WLariBoundaryDetector::detectInputCluster( vector<WSpatialDomainKdPoint*>*
         WBoundaryDetectPoint* clusterPoint = new WBoundaryDetectPoint( *coordinate );
         clusterPoint->setSpatialPoint( currentPoint );
         clusterPoints->push_back( clusterPoint );
-        //currentPoint->setCoordinate( coordinate );
         currentPoint->setClusterID( 9 );
         delete coordinate;
     }
@@ -155,7 +153,6 @@ void WLariBoundaryDetector::detectInputCluster( vector<WSpatialDomainKdPoint*>*
         initOneOutsidePoint();
         for( size_t index = 0; index < clusterPoints->size(); index++ )
         {
-            //cout << "Detecting whether in bounds[" << m_currentBoundary->size() << "] P " << index << "/" << clusterPoints->size() << endl;
             WBoundaryDetectPoint* currentPoint = clusterPoints->at( index );
             const vector<double>& coordinate = currentPoint->getCoordinate();
             if( pointBelongsToBoundingBox( coordinate ) && pointIsInBounds( coordinate ) )
@@ -182,18 +179,10 @@ void WLariBoundaryDetector::initTransformationCoordinateSystem( vector<WSpatialD
     vector<double>* meanNormalVector = new vector<double>( 3, 0.0 );
     for( size_t index = 0; index < currentPoints->size(); index++ )
     {
-        //cout << "init[" << index << "] (" << meanNormalVector[0] << ", " << meanNormalVector[1] << ", " << meanNormalVector[2] << endl;
         vector<double>* currentPoint = WVectorMaths::copyVectorForPointer( currentPoints->at( index )->getParametersXYZ0() );
         WVectorMaths::normalizeVector( currentPoint );
         if( WVectorMaths::isValidVector( *currentPoint ) )
-        //{
             WVectorMaths::addVector( meanNormalVector, *currentPoint );
-        //}
-        //else
-        //{
-            //cout << "!!! FOUND INVALID EXTENT !!!  P[" << index << "](" << currentPoint[0] << ", "
-            //        << currentPoint[1] << ", " << currentPoint[2] << ")" << endl;
-        //}
         delete currentPoint;
     }
     WVectorMaths::normalizeVector( meanNormalVector );
@@ -204,9 +193,6 @@ void WLariBoundaryDetector::initTransformationCoordinateSystem( vector<WSpatialD
 }
 WBoundaryDetectPoint* WLariBoundaryDetector::getNextBoundPoint()
 {
-    //if( m_currentBoundary->size() == 5 )
-    //    cout << "The garbled point breakpoint" << endl;
-
     WBoundaryDetectPoint* previousPoint = m_currentBoundary->size() >= 2
             ?m_currentBoundary->at( m_currentBoundary->size() - 2 )
             :new WBoundaryDetectPoint( m_currentBoundary->at( 0 )->getCoordinate()[0] - 1.0,
@@ -215,7 +201,6 @@ WBoundaryDetectPoint* WLariBoundaryDetector::getNextBoundPoint()
 
     m_clusterSearcher.setSearchedPoint( currentPoint->getCoordinate() );
     vector<WPointDistance>*  nearestPoints = m_clusterSearcher.getNearestPoints();
-    //cout << "getNextBoundPoint(): m_clusterSearcher.getNearestPoints() - " << nearestPoints->size() << " nearest points found" << endl;
     WBoundaryDetectPoint* nextPoint = 0;
     double narrowestAngle = 361;
     for( size_t index = 0; index < nearestPoints->size(); index++ )
@@ -233,9 +218,6 @@ WBoundaryDetectPoint* WLariBoundaryDetector::getNextBoundPoint()
 
     if( m_currentBoundary->size() < 2 )
         delete previousPoint;
-    //if( nextPoint != 0 )
-    //    cout << "getNextBoundPoint() - P" << m_currentBoundary->size() << "(" << nextPoint->getCoordinate()[0]
-    //            << ", " << nextPoint->getCoordinate()[1] << ") @" << narrowestAngle << "°" << endl;
     return nextPoint;
 }
 bool WLariBoundaryDetector::pointCanProceedBound( WPointDistance nextPointDistance )
@@ -325,24 +307,18 @@ bool WLariBoundaryDetector::pointIsInBounds( const vector<double>& point )
     bool isInBounds = false;
     for( size_t bound = 0; bound < m_currentBoundary->size() - 1; bound++ )
     {
-        //if( bound == 114 )
-        //    cout << "garbled point" << endl;
-        //cout << "    pointIsInBounds() [" << bound << "]" << endl;
         if( pointLiesOnBound( point, bound ) )
             return true;
 
         if( pointHitsBound( point, bound ) )
-        {
+            isInBounds = !isInBounds;
             //TODO(aschwarzkopf): Implement an appropriate routine to handle when intersection hits exactly on points.
             //TODO(aschwarzkopf): Possible solution: Move m_oneOutsidePoint until bound points do not hit exactly.
-            isInBounds = !isInBounds;
-        }
     }
     return isInBounds;
 }
 bool WLariBoundaryDetector::pointLiesOnBound( const vector<double>& point, size_t boundNr )
 {
-    //cout << "        pointLiesOnBound()" << endl;
     const vector<double> boundPoint1 = m_currentBoundary->at( boundNr )->getCoordinate();
     double secondIndex = boundNr + 1;
     while( boundNr >= m_currentBoundary->size() )
@@ -354,7 +330,6 @@ bool WLariBoundaryDetector::pointLiesOnBound( const vector<double>& point, size_
 }
 bool WLariBoundaryDetector::pointHitsBound( const vector<double>& point, size_t boundNr )
 {
-    //cout << "        pointHitsBound()" << endl;
     const vector<double> boundPoint1 = m_currentBoundary->at( boundNr )->getCoordinate();
     size_t secondIndex = boundNr + 1;
     while( secondIndex >= m_currentBoundary->size() )

LiDARToolbox/src/surfaceDetectionByLari/WLariOutliner.cpp

@@ -98,12 +98,6 @@ boost::shared_ptr< WDataSetPoints > WLariOutliner::outlineSpatialDomainCategorie
         vector<double> spatialCoordinate = spatialPoint->getCoordinate();
         vector<double> eigenValues = spatialPoint->getEigenValues();
 
-        double sumLambda = 0;        //TODO(aschwarzkopf): Unused
-        for( size_t i = 0; i < eigenValues.size(); i++ )
-            sumLambda += eigenValues[i];
-        vector<double> nLambdaI;    //TODO(aschwarzkopf): Unused
-        for( size_t i = 0; i < eigenValues.size(); i++ )
-            nLambdaI.push_back( eigenValues[i] / sumLambda );
         for( size_t dimension = 0; dimension < spatialCoordinate.size(); dimension++ )
             outVertices->push_back( spatialCoordinate[dimension] );
         bool isPlanar = m_pointClassifier->calculateIsPlanarPoint( eigenValues );
@@ -135,7 +129,7 @@ boost::shared_ptr< WTriangleMesh > WLariOutliner::outlineLeastSquaresPlanes( dou
         WPosition spatialPoint( 0.0, 0.0, 0.0 );
         for( size_t dimension = 0; dimension < spatialCoordinate.size(); dimension++ )
             spatialPoint[dimension] = spatialCoordinate[dimension];
-        vector<double> planeFormula = spatialDomainPoint->getHessescheNormalForm();
+        vector<double> planeFormula = spatialDomainPoint->getHesseNormalForm();
 
         WMTempLeastSquaresTest::outlineNormalPlane( planeFormula, spatialPoint, squaresWidth / 2.0, outputMesh );
     }

LiDARToolbox/src/surfaceDetectionByLari/WLariPointClassifier.cpp

@@ -52,7 +52,6 @@ WLariPointClassifier::~WLariPointClassifier()
 
 void WLariPointClassifier::analyzeData( vector<WSpatialDomainKdPoint*>* inputPoints )
 {
-    //TODO(aschwarzkopf): After draft stage refine in several methods and remove comments
     cout << "Attempting to analyze " << inputPoints->size() << " points" << endl;
     delete m_spatialDomain;
     delete m_parameterDomain;
@@ -63,7 +62,6 @@ void WLariPointClassifier::analyzeData( vector<WSpatialDomainKdPoint*>* inputPoi
 
     classifyPoints( inputPoints, parameterPoints );
 
-    //Generating properties for each existing point
     cout << "Adding " << parameterPoints->size() << " parameter points" << endl;
     m_parameterDomain->add( reinterpret_cast<vector<WKdPointND*>*>( parameterPoints ) );
 }
@@ -100,17 +98,11 @@ void WLariPointClassifier::classifyPoints( vector<WSpatialDomainKdPoint*>* spati
 }
 void WLariPointClassifier::classifyPointsAtThread( vector<WSpatialDomainKdPoint*>* spatialPoints, size_t threadIndex )
 {
-    //cout << (spatialPoints->size()) << " " << (parameterPoints->size()) << " " << threadIndex << endl;
     WPointSearcher spatialSearcher( m_spatialDomain );
     spatialSearcher.setMaxResultPointCount( m_numberPointsK );
     spatialSearcher.setMaxSearchDistance( m_maxPointDistanceR );
     for( size_t index = threadIndex; index < spatialPoints->size(); index += m_cpuThreadCount )
     {
-        if( index == 1061 )
-            cout << "Garbled classified point - " << index << endl;
-
-        //cout << "Thread " << threadIndex << ", index " << index << endl;
-        //Getting nearest n points
         WSpatialDomainKdPoint* spatialPoint = spatialPoints->at( index );
         vector<double> spatialCoordinate = spatialPoint->getCoordinate();
         spatialSearcher.setSearchedPoint( spatialCoordinate );
@@ -119,17 +111,15 @@ void WLariPointClassifier::classifyPointsAtThread( vector<WSpatialDomainKdPoint*
         spatialPoint->setKNearestPoints( points->size() );
         spatialPoint->setDistanceToNthNearestNeighbor( nearestPoints->at( points->size() - 1 ).getDistance() );
 
-        //Calculating Eigen properties
         WPrincipalComponentAnalysis pca;
         pca.analyzeData( points );
         spatialPoint->setEigenVectors( pca.getDirections() );
         vector<double> eigenValues = pca.getEigenValues();
         spatialPoint->setEigenValues( eigenValues );
 
-        //Adding parameter space information
         WLeastSquares leastSquares;
         leastSquares.analyzeData( points );
-        spatialPoint->setHessescheNormalForm( leastSquares.getHessescheNormalForm() );
+        spatialPoint->setHesseNormalForm( leastSquares.getHesseNormalForm() );
 
         delete nearestPoints;
         delete points;

LiDARToolbox/src/surfaceDetectionByLari/WLariPointClassifier.h

@@ -46,6 +46,12 @@ using std::endl;
 using std::vector;
 
 
+/**
+ * Class that adds classification meta to points in relation to its neighbor points. The 
+ * meta contains such things as eigenvalues, eigenvectors (Both calculated by Principal 
+ * Component Analysis) and the Hesse normal form (calculated using least squares 
+ * adjustment).
+ */
 class WLariPointClassifier
 {
 public:

LiDARToolbox/src/surfaceDetectionByLari/WMSurfaceDetectionByLari.cpp

@@ -97,7 +97,6 @@ void WMSurfaceDetectionByLari::connectors()
     addConnector( m_outputSpatialDomainCategories );
     addConnector( m_outputParameterDomain );
     addConnector( m_outputLeastSquaresPlanes );
-//    addConnector( m_buildings );
     WModule::connectors();
 }
 
@@ -127,7 +126,6 @@ void WMSurfaceDetectionByLari::properties()
 
     m_squareWidth = m_properties->addProperty( "Plane outline size: ", "", 0.2, m_propCondition );
 
-    //TODO(aschwarzkopf): Resolve changing the thread count during execution.
     m_cpuThreadCount = m_properties->addProperty( "CPU threads: ", "", 8, m_propCondition );
     m_cpuThreadCount->setMin( 4 );
     m_cpuThreadCount->setMax( 24 );
@@ -180,11 +178,6 @@ void WMSurfaceDetectionByLari::properties()
     m_cylNLambda3Max->setMin( m_cylNLambda3Min->get() );
     m_cylNLambda3Max->setMax( 1.0 );
 
-
-
-    // ---> Put the code for your properties here. See "src/modules/template/" for an extensively documented example.
-
-
     WModule::properties();
 }
 
@@ -194,23 +187,18 @@ void WMSurfaceDetectionByLari::requirements()
 
 void WMSurfaceDetectionByLari::moduleMain()
 {
-    infoLog() << "Thrsholding example main routine started";
-
-    // get notified about data changes
     m_moduleState.setResetable( true, true );
     m_moduleState.add( m_input->getDataChangedCondition() );
     m_moduleState.add( m_propCondition );
 
     ready();
 
-    // graphics setup
     m_rootNode = osg::ref_ptr< WGEManagedGroupNode >( new WGEManagedGroupNode( m_active ) );
     WKernel::getRunningKernel()->getGraphicsEngine()->getScene()->insert( m_rootNode );
 
-    // main loop
+
     while( !m_shutdownFlag() )
     {
-        //infoLog() << "Waiting ...";
         m_moduleState.wait();
 
         m_surfaceNLambda1Max->setMin( m_surfaceNLambda1Min->get() );
@@ -300,7 +288,6 @@ void WMSurfaceDetectionByLari::moduleMain()
         m_reloadData->get( true );
 
 
-        // woke up since the module is requested to finish?
         if  ( m_shutdownFlag() )
         {
             break;
@@ -311,8 +298,6 @@ void WMSurfaceDetectionByLari::moduleMain()
         {
             continue;
         }
-
-        // ---> Insert code doing the real stuff here
     }
 
     WKernel::getRunningKernel()->getGraphicsEngine()->getScene()->remove( m_rootNode );

LiDARToolbox/src/surfaceDetectionByLari/clusterDetection/WLariBruteforceClustering.cpp

@@ -43,15 +43,13 @@ WLariBruteforceClustering::~WLariBruteforceClustering()
 
 void WLariBruteforceClustering::detectClustersByBruteForce()
 {
-    vector<WKdPointND*>* parameterNodes = m_parameterDomain->getAllPoints(); //AW: D A S   H E I S S T   K E I N E   W A R T E S C H L A N G E ! ! !
+    vector<WKdPointND*>* parameterNodes = m_parameterDomain->getAllPoints();
     size_t currentClusterID = 0;
     while( parameterNodes->size() > 0 )
     {
         initExtentSizes( parameterNodes );
-        //cout << "Detecting cluster - " << parameterNodes->size() << " left" << endl;
         WParameterDomainKdPoint* biggestExtentPoint = 0;
         int mostNeighborsCount = 0;
-//        cout << "Looking for biggest extent" << endl;
         for( size_t index = 0; index < parameterNodes->size(); index++ )
         {
             WParameterDomainKdPoint* parameterPoint = static_cast<WParameterDomainKdPoint*>( parameterNodes->at( index ) );
@@ -61,7 +59,6 @@ void WLariBruteforceClustering::detectClustersByBruteForce()
                 mostNeighborsCount = parameterPoint->getExtentPointCount();