void ColorMap::pointerMotion(Event& event)
{
if(isDragging)
{
/* Calculate the new value and opacity: */
GLfloat x1=colorMapAreaBox.getCorner(0)[0];
GLfloat x2=colorMapAreaBox.getCorner(1)[0];
GLfloat y1=colorMapAreaBox.getCorner(0)[1];
GLfloat y2=colorMapAreaBox.getCorner(2)[1];
Point p=event.getWidgetPoint().getPoint()-dragOffset;
double newValue=(p[0]-double(x1))*(valueRange.second-valueRange.first)/double(x2-x1)+valueRange.first;
if(selected==&first)
newValue=valueRange.first;
else if(selected==&last)
newValue=valueRange.second;
else if(newValue<selected->left->value)
newValue=selected->left->value;
else if(newValue>selected->right->value)
newValue=selected->right->value;
GLfloat newOpacity=(p[1]-y1)*(1.0f-0.0f)/(y2-y1)+0.0f;
if(newOpacity<0.0f)
newOpacity=0.0f;
else if(newOpacity>1.0f)
newOpacity=1.0f;
selected->value=newValue;
selected->color[3]=newOpacity;
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
SmartPoly::SmartPoly(vector<ofPoint> pts, float r, ofRectangle b, ofPoint cPos) : SmartShape() {
// Position is derived from bounding ox center
pos = b.position + ofPoint(b.width/2,b.height/2);
capturedPos = cPos;
rotation = r;
boundingBox = b;
// Setup the poly line
polyLine = ofPolyline();
path = ofPath();
for (vector<ofPoint>::iterator it = pts.begin() ; it != pts.end(); ++it){
ofPoint p = *it;
// All points in the poly will be stored respective to pos.
p = p - pos;
polyLine.addVertex(p);
path.lineTo(p);
}
polyLine.close();
path.close();
// Updat the control points
updateControlPoints();
extrusionHeight = 0;
}
void splineShape::modifyControlPoint(int pointID, displacementStruct displacement)
{
/*
* Este metodo pretende implementar un movimiento basico de un punto de control:
* Argumentos:
* - pointID: <unsigned int> identificador del punto sobre el que vamos a operar
* - displacement:
*/
double xdisplacement,ydisplacement;
//Criterio, los puntos de control del borde de ataque y del borde de salida quedan fijos.
if ( pointID == 0 or pointID == n-1 or pointID == 2*(n-1))//TODO anadir la condicion de pointID == 0
{
// There are fixed points.
xdisplacement = 0.0;
ydisplacement = 0.0;
}
else
{
xdisplacement = displacement.norm * cos(displacement.theta);
ydisplacement = displacement.norm * sin(displacement.theta);
}
pts[pointID].x += xdisplacement;
pts[pointID].y += ydisplacement;
calcSplines();
updateControlPoints();
}
void ColorMap::deleteSelectedControlPoint(void)
{
/* Remove the selected control point if possible: */
if(selected!=0&&selected!=&first&&selected!=&last)
{
ControlPoint* delPtr=selected;
{
/* Unselect the selected control point: */
SelectedControlPointChangedCallbackData cbData(this,selected,0);
selected=0;
selectedControlPointChangedCallbacks.call(&cbData);
}
/* Remove the control point from the list: */
delPtr->left->right=delPtr->right;
delPtr->right->left=delPtr->left;
delete delPtr;
/* Update all control points: */
updateControlPoints();
{
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
}
void ColorMap::insertControlPoint(double newControlPointValue,const ColorMap::ColorMapValue& newControlPointColor)
{
/* Insert the new control point if it is inside the value range: */
if(newControlPointValue>=valueRange.first&&newControlPointValue<=valueRange.second)
{
/* Find the two control points on either side of the new control point: */
ControlPoint* cpPtr1=&first;
ControlPoint* cpPtr2;
for(cpPtr2=cpPtr1->right;cpPtr2!=&last&&cpPtr2->value<newControlPointValue;cpPtr1=cpPtr2,cpPtr2=cpPtr2->right)
;
/* Insert the new control point: */
ControlPoint* newCp=new ControlPoint(newControlPointValue,newControlPointColor);
newCp->left=cpPtr1;
cpPtr1->right=newCp;
newCp->right=cpPtr2;
cpPtr2->left=newCp;
/* Update all control points: */
updateControlPoints();
{
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
{
/* Select the new control point: */
SelectedControlPointChangedCallbackData cbData(this,selected,newCp);
selected=newCp;
selectedControlPointChangedCallbacks.call(&cbData);
}
}
}
void BSpline::localKnotRefinement(DenseVector x)
{
// Compute knot insertion matrix
SparseMatrix A = basis.refineKnotsLocally(x);
// Update control points
updateControlPoints(A);
}
void BSpline::insertKnots(double tau, unsigned int dim, unsigned int multiplicity)
{
// Insert knots and compute knot insertion matrix
SparseMatrix A = basis.insertKnots(tau, dim, multiplicity);
// Update control points
updateControlPoints(A);
}
void BSpline::decomposeToBezierForm()
{
// Compute knot insertion matrix
SparseMatrix A = basis.decomposeToBezierForm();
// Update control points
updateControlPoints(A);
}
void BSpline::globalKnotRefinement()
{
// Compute knot insertion matrix
SparseMatrix A = basis.refineKnots();
// Update control points
updateControlPoints(A);
}
void ColorMap::createColorMap(const std::vector<ColorMap::ControlPoint>& controlPoints)
{
/* Check if the control point vector is valid: */
if(controlPoints.size()<2)
Misc::throwStdErr("ColorMap::createColorMap: control point vector has less than two control points");
for(std::vector<ColorMap::ControlPoint>::const_iterator cpIt=controlPoints.begin();cpIt!=controlPoints.end();++cpIt)
{
std::vector<ColorMap::ControlPoint>::const_iterator cpIt2=cpIt;
++cpIt2;
if(cpIt2!=controlPoints.end())
if(cpIt->value>cpIt2->value)
Misc::throwStdErr("ColorMap::createColorMap: control point vector has decreasing control point values");
}
/* Delete the current color map: */
deleteColorMap();
/* Copy all control points from the control point array: */
int numPointsSet=0;
for(std::vector<ColorMap::ControlPoint>::const_iterator cpIt=controlPoints.begin();cpIt!=controlPoints.end();++cpIt)
{
if(numPointsSet==0)
{
/* Set the first control point: */
first.value=cpIt->value;
first.color=cpIt->color;
}
else
{
if(numPointsSet>1)
{
/* Copy the last control point to an intermediate one: */
ControlPoint* newCp=new ControlPoint(last.value,last.color);
newCp->left=last.left;
newCp->left->right=newCp;
newCp->right=&last;
last.left=newCp;
}
/* Set the last control point: */
last.value=cpIt->value;
last.color=cpIt->color;
}
++numPointsSet;
}
/* Update the value range: */
valueRange.first=first.value;
valueRange.second=last.value;
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
void ColorMapEditor::
touch()
{
//update all control points
updateControlPoints();
//call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
void ColorMap::resize(const Box& newExterior)
{
/* Resize the parent class widget: */
Widget::resize(newExterior);
/* Adjust the color map area position: */
colorMapAreaBox=getInterior();
colorMapAreaBox.doInset(Vector(marginWidth,marginWidth,0.0f));
/* Update the color map area positions of all control points: */
updateControlPoints();
}
void ColorMapEditor::
resize(const Box& newExterior)
{
//resize the parent class widget
Widget::resize(newExterior);
//adjust the color map area position
colorMapAreaBox = getInterior();
colorMapAreaBox.doInset(Vector(marginWidth, marginWidth, 0.0f));
//update the color map area positions of all control points
updateControlPoints();
}
bool BSpline::removeUnsupportedBasisFunctions(std::vector<double> &lb, std::vector<double> &ub)
{
if (lb.size() != numVariables || ub.size() != numVariables)
throw Exception("BSpline::removeUnsupportedBasisFunctions: Incompatible dimension of domain bounds.");
SparseMatrix A = basis.reduceSupport(lb, ub);
if (coefficients.size() != A.rows())
return false;
// Remove unsupported control points (basis functions)
updateControlPoints(A.transpose());
return true;
}
ColorMapEditor::
ColorMapEditor(const char* name, Container* parent, bool manageChild_) :
Widget(name, parent, false),
marginWidth(0.0f), preferredSize(0.0f,0.0f,0.0f),
controlPointSize(marginWidth*0.5f),
selectedControlPointColor(1.0f,0.0f,0.0f),
selected(-1), isDragging(false)
{
/* Initialize the control points: */
updateControlPoints();
/* Manage me: */
if(manageChild_)
manageChild();
}
void ColorMap::createColorMap(ColorMap::ColorMapCreationType colorMapType,const ColorMap::ValueRange& newValueRange)
{
/* Delete the current color map: */
deleteColorMap();
/* Update the value range: */
valueRange=newValueRange;
if(colorMapType==GREYSCALE)
{
/* Create a greyscale color map: */
first.value=valueRange.first;
first.color=ColorMapValue(0.0f,0.0f,0.0f,0.0f);
last.value=valueRange.second;
last.color=ColorMapValue(1.0f,1.0f,1.0f,1.0f);
}
else if(colorMapType==LUMINANCE)
{
}
else
{
/* Create a rainbow color map: */
first.value=valueRange.first;
first.color=ColorMapValue(1.0f,0.0f,0.0f,0.0f);
ControlPoint* cs[6];
cs[0]=&first;
cs[1]=new ControlPoint((1.0/5.0)*(valueRange.second-valueRange.first)+valueRange.first,ColorMapValue(1.0f,1.0f,0.0f,1.0f/5.0f));
cs[2]=new ControlPoint((2.0/5.0)*(valueRange.second-valueRange.first)+valueRange.first,ColorMapValue(0.0f,1.0f,0.0f,2.0f/5.0f));
cs[3]=new ControlPoint((3.0/5.0)*(valueRange.second-valueRange.first)+valueRange.first,ColorMapValue(0.0f,1.0f,1.0f,3.0f/5.0f));
cs[4]=new ControlPoint((4.0/5.0)*(valueRange.second-valueRange.first)+valueRange.first,ColorMapValue(0.0f,0.0f,1.0f,4.0f/5.0f));
cs[5]=&last;
last.value=valueRange.second;
last.color=ColorMapValue(1.0f,0.0f,1.0f,1.0f);
for(int i=0;i<5;++i)
{
cs[i+1]->left=cs[i];
cs[i]->right=cs[i+1];
}
}
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
void ColorMap::setSelectedControlPointColorValue(const ColorMap::ColorMapValue& newControlPointColorValue)
{
if(selected!=0)
{
/* Set the control point's color value's RGB and alpha components: */
for(int i=0;i<4;++i)
selected->color[i]=newControlPointColorValue[i];
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
void ColorMapEditor::
pointerMotion(Event& event)
{
if (isDragging)
{
//calculate the new value and opacity
GLfloat x1 = colorMapAreaBox.getCorner(0)[0];
GLfloat x2 = colorMapAreaBox.getCorner(1)[0];
GLfloat y1 = colorMapAreaBox.getCorner(0)[1];
GLfloat y2 = colorMapAreaBox.getCorner(2)[1];
Point p = event.getWidgetPoint().getPoint() - dragOffset;
const Misc::ColorMap::ValueRange vr = colorMap.getValueRange();
double remap = (vr.max-vr.min) / (x2-x1);
double newValue = vr.min + (p[0] - double(x1)) * remap;
//clamp the new value to the valid interval range
Misc::ColorMap::Points& points = colorMap.getPoints();
if (selected == 0)
newValue = vr.min;
else if(selected == static_cast<int>(controlPoints.size()-1))
newValue = vr.max;
else if(newValue < points[selected-1].value)
newValue = points[selected-1].value;
else if(newValue > points[selected+1].value)
newValue = points[selected+1].value;
//clamp the new opacity to the valid interval
GLfloat newOpacity = (p[1]-y1) / (y2-y1);
newOpacity = std::max(newOpacity, 0.0f);
newOpacity = std::min(newOpacity, 1.0f);
//assign the new properties
points[selected].value = newValue;
points[selected].color[3] = newOpacity;
//update all control points
updateControlPoints();
//call the color map change callbacks
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
void splineShape::calcSplines()
{
/*
* Este metodo tiene que trabajar sobre los puntos de control que ya existen.
* Su finalidad es servir como un "update" al calculo de la spline cuando
* hacemos alguna variacion sobre los puntos de control ya calculados
*/
int *u;
bspline(14, t, pts, out_pts);//antes era tpn-1
//una vez tengo la salida de los puntos del spline quiero sacar los puntos
//de control marcados para la curva para ver como se comporta a diferentes
//grados del polinomio.
exportControlPoints();
exportSplines();
updateControlPoints();
}
void ColorMap::setSelectedControlPointValue(double newControlPointValue)
{
if(selected!=0&&selected->left!=0&&selected->right!=0)
{
if(newControlPointValue<first.value)
selected->value=first.value;
else if(newControlPointValue>last.value)
selected->value=last.value;
else
selected->value=newControlPointValue;
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
ColorMap::ColorMap(const char* sName,Container* sParent,bool sManageChild)
:Widget(sName,sParent,false),
marginWidth(0.0f),preferredSize(0.0f,0.0f,0.0f),
controlPointSize(marginWidth*0.5f),
selectedControlPointColor(1.0f,0.0f,0.0f),
valueRange(0.0,1.0),
first(0.0,ColorMapValue(0.0f,0.0f,0.0f,0.0f)),last(1.0,ColorMapValue(1.0f,1.0f,1.0f,1.0f)),
selected(0),isDragging(false)
{
/* Link the first and last control points: */
first.right=&last;
last.left=&first;
/* Initialize the control points: */
updateControlPoints();
/* Manage me: */
if(sManageChild)
manageChild();
}
int ColorMapEditor::
insertControlPoint(double value, bool propagate)
{
//determine the color and entry location
Misc::ColorMap::Point newPoint(value, Misc::ColorMap::Color());
Misc::ColorMap::Points::iterator it = colorMap.interpolate(newPoint);
//insert a new entry into the colormap
it = colorMap.getPoints().insert(it, newPoint);
//update all control points
updateControlPoints(propagate);
if (propagate)
{
//call the color map change callbacks
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
return it - colorMap.getPoints().begin();
}
void GuiWarp::processMouseEvents(const shared_ptr<Warp>& warp, int warpWidth, int warpHeight)
{
ImGuiIO& io = ImGui::GetIO();
// Get mouse pos
ImVec2 mousePos = ImVec2((io.MousePos.x - ImGui::GetCursorScreenPos().x) / warpWidth,
-(io.MousePos.y - ImGui::GetCursorScreenPos().y) / warpHeight);
auto scene = _scene.lock();
if (!scene)
return;
if (io.MouseDownDuration[0] == 0.0)
{
// Select a control point
glm::vec2 picked;
_currentControlPointIndex = warp->pickControlPoint(glm::vec2(mousePos.x * 2.0 - 1.0, mousePos.y * 2.0 - 1.0), picked);
scene->sendMessageToWorld("sendAll", {warp->getName(), "showControlPoint", _currentControlPointIndex});
_previousMousePos = glm::vec2(mousePos.x, mousePos.y);
}
else if (io.MouseDownDuration[0] > 0.0)
{
Values controlPoints;
warp->getAttribute("patchControl", controlPoints);
if (controlPoints.size() < _currentControlPointIndex)
return;
Values point = controlPoints[_currentControlPointIndex + 2].asValues();
glm::vec2 delta = glm::vec2(mousePos.x, mousePos.y) - _previousMousePos;
_previousMousePos = glm::vec2(mousePos.x, mousePos.y);
point[0] = point[0].asFloat() + delta.x * 2.0;
point[1] = point[1].asFloat() + delta.y * 2.0;
controlPoints[_currentControlPointIndex + 2] = point;
updateControlPoints(warp->getName(), controlPoints);
}
}
void ColorMapEditor::
deleteSelectedControlPoint()
{
if (selected!=-1 && selected!=0 &&
selected!=static_cast<int>(controlPoints.size()))
{
//delete the entry
Misc::ColorMap::Points& points = colorMap.getPoints();
points.erase(points.begin()+selected);
//unselect the control point
SelectedControlPointChangedCallbackData selectCbData(this,selected,-1);
selected = -1;
selectedControlPointChangedCallbacks.call(&selectCbData);
//update all control points
updateControlPoints();
//call the color map change callbacks
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
}
void ColorMap::setColorMap(const ColorMap::Storage* newColorMap)
{
/* Delete the current color map: */
deleteColorMap();
/* Set the first control point: */
first.value=newColorMap->values[0];
first.color=newColorMap->colors[0];
/* Create and set the intermediate control points: */
ControlPoint* leftPtr=&first;
for(int i=1;i<newColorMap->numControlPoints-1;++i)
{
ControlPoint* cp=new ControlPoint(newColorMap->values[i],newColorMap->colors[i]);
cp->left=leftPtr;
leftPtr->right=cp;
leftPtr=cp;
}
/* Set the last control point: */
last.value=newColorMap->values[newColorMap->numControlPoints-1];
last.color=newColorMap->colors[newColorMap->numControlPoints-1];
last.left=leftPtr;
leftPtr->right=&last;
/* Update the value range: */
valueRange.first=first.value;
valueRange.second=last.value;
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
void ColorMap::loadColorMap(const char* colorMapFileName,const ColorMap::ValueRange& newValueRange)
{
/* Open the color map file: */
Misc::File colorMapFile(colorMapFileName,"rt");
/* Delete the current color map: */
deleteColorMap();
/* Update the value range: */
valueRange=newValueRange;
/* Read all control points from the color map file: */
float maxColorComponent=0.0f;
int numPointsSet=0;
while(!colorMapFile.eof())
{
/* Read the next line from the file: */
char line[256];
colorMapFile.gets(line,sizeof(line));
/* Extract the control point from the line (ignore blank and comment lines): */
double value;
ColorMapValue color;
if(line[0]!='#'&&sscanf(line,"%lf %f %f %f %f",&value,&color[0],&color[1],&color[2],&color[3])==5)
{
for(int i=0;i<4;++i)
if(maxColorComponent<color[i])
maxColorComponent=color[i];
if(numPointsSet==0)
{
/* Set the first control point: */
first.value=value;
first.color=color;
}
else
{
if(numPointsSet>1)
{
/* Copy the last control point to an intermediate one: */
ControlPoint* newCp=new ControlPoint(last.value,last.color);
newCp->left=last.left;
newCp->left->right=newCp;
newCp->right=&last;
last.left=newCp;
}
/* Set the last control point: */
last.value=value;
last.color=color;
}
++numPointsSet;
}
}
/* Extend the control point list to the new value range: */
if(first.value>valueRange.first)
{
/* Copy the first control point: */
ControlPoint* newCp=new ControlPoint(first.value,first.color);
newCp->right=first.right;
newCp->right->left=newCp;
newCp->left=&first;
first.right=newCp;
/* Move the first control point to the left edge of the value range: */
first.value=valueRange.first;
}
if(last.value<valueRange.second)
{
/* Copy the last control point: */
ControlPoint* newCp=new ControlPoint(last.value,last.color);
newCp->left=last.left;
newCp->left->right=newCp;
newCp->right=&last;
last.left=newCp;
/* Move the last control point to the right edge of the value range: */
last.value=valueRange.second;
}
/* Clip the control point list to the new value range: */
while(first.value<valueRange.first)
{
ControlPoint* cp=first.right;
if(cp->value>valueRange.first)
{
/* Interpolate between the first and next control points: */
double w1=(valueRange.first-first.value)/(cp->value-first.value);
for(int i=0;i<4;++i)
first.color[i]=GLfloat(double(first.color[i])*(1.0-w1)+double(cp->color[i])*w1);
first.value=valueRange.first;
}
else
{
/* Remove the first control point: */
first.value=cp->value;
first.color=cp->color;
first.right=cp->right;
cp->right->left=&first;
delete cp;
}
}
while(last.value>valueRange.second)
{
ControlPoint* cp=last.left;
if(cp->value<valueRange.second)
{
/* Interpolate between the last and previous control points: */
double w1=(valueRange.second-last.value)/(cp->value-last.value);
for(int i=0;i<4;++i)
last.color[i]=GLfloat(double(last.color[i])*(1.0-w1)+double(cp->color[i])*w1);
last.value=valueRange.second;
}
else
{
/* Remove the last control point: */
last.value=cp->value;
last.color=cp->color;
last.left=cp->left;
cp->left->right=&last;
delete cp;
}
}
/* Adjust the component range if values were given as unsigned char: */
if(maxColorComponent>1.0f)
{
for(ControlPoint* cp=&first;cp!=0;cp=cp->right)
for(int i=0;i<4;++i)
cp->color[i]/=255.0f;
}
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
}
void ColorMap::pointerButtonDown(Event& event)
{
/* Find the closest control point to the event's location: */
GLfloat minDist2=Math::sqr(controlPointSize*1.5f);
ControlPoint* newSelected=0;
GLfloat x1=colorMapAreaBox.getCorner(0)[0];
GLfloat x2=colorMapAreaBox.getCorner(1)[0];
GLfloat z=colorMapAreaBox.getCorner(0)[2];
for(ControlPoint* cpPtr=&first;cpPtr!=0;cpPtr=cpPtr->right)
{
Point cp(cpPtr->x,cpPtr->y,z);
GLfloat dist2=Geometry::sqrDist(cp,event.getWidgetPoint().getPoint());
if(minDist2>dist2)
{
minDist2=dist2;
newSelected=cpPtr;
for(int i=0;i<2;++i)
dragOffset[i]=Scalar(event.getWidgetPoint().getPoint()[i]-cp[i]);
dragOffset[2]=Scalar(0);
}
}
/* Create a new control point if none was selected: */
if(newSelected==0)
{
/* Find the two control points on either side of the selected value: */
double newValue=(event.getWidgetPoint().getPoint()[0]-double(x1))*(valueRange.second-valueRange.first)/double(x2-x1)+valueRange.first;
if(newValue<valueRange.first)
newValue=valueRange.first;
else if(newValue>valueRange.second)
newValue=valueRange.second;
ControlPoint* cpPtr1=&first;
ControlPoint* cpPtr2;
for(cpPtr2=cpPtr1->right;cpPtr2!=&last&&cpPtr2->value<newValue;cpPtr1=cpPtr2,cpPtr2=cpPtr2->right)
;
/* Interpolate the new control point: */
GLfloat w2=GLfloat((newValue-cpPtr1->value)/(cpPtr2->value-cpPtr1->value));
GLfloat w1=GLfloat((cpPtr2->value-newValue)/(cpPtr2->value-cpPtr1->value));
ColorMapValue newColorValue;
for(int i=0;i<4;++i)
newColorValue[i]=cpPtr1->color[i]*w1+cpPtr2->color[i]*w2;
/* Insert the new control point: */
ControlPoint* newCp=new ControlPoint(newValue,newColorValue);
newCp->left=cpPtr1;
cpPtr1->right=newCp;
newCp->right=cpPtr2;
cpPtr2->left=newCp;
/* Update all control points: */
updateControlPoints();
/* Call the color map change callbacks: */
ColorMapChangedCallbackData cbData(this);
colorMapChangedCallbacks.call(&cbData);
/* Select the new control point: */
newSelected=newCp;
}
else if(newSelected==selected)
{
/* Start dragging the selected control point: */
isDragging=true;
}
/* Call callbacks if selected control point has changed: */
if(newSelected!=selected)
{
SelectedControlPointChangedCallbackData cbData(this,selected,newSelected);
selected=newSelected;
selectedControlPointChangedCallbacks.call(&cbData);
}
}
void splineShape::initialSpline()
{
int *u;
int i;
//____________________________________Creamos el spline para la superficie superior
/*
* Esta parte se puede emplear para hacer una distribucion senoidal de los puntos
static double step;
double x;
int index;
step = pi/n;
for (int i = 0; i < n; i++) {//este debe ser n+1
x = i*step;
index = (int) ceil( Ni*(0.5*(1-cos(x))) );
if(index == Ni) { index = Ni-1; }
pts[i].x = xl[index]; pts[i].y=zl[index]; pts[i].z=0.0;
}
//_______________________________Generamos los puntos para el spline de la sup. inferior.
for (int i = 0; i < n; i++) {
x = i*step;
index = (int) ceil( Ni*(0.5*(1-cos(x))) );
index = Ni-index;
if(index == Ni) { index = Ni-1;} //non-"index out of bounds" condition
//Una vez tenemos calculados los indices creamos los puntos automaticamente
pts[i+n].x = xu[index]; pts[i+n].y=zu[index]; pts[i+n].z=0.0;
}
//_____________________________________________________________________________
*/
//Debido a la distribucion senoidal de los puntos, no se situan donde tenia pensado,
//tengo que ver como los ajusto...
pts[0].x = xu[Ni-1]; pts[0].y=zu[Ni-1]; pts[0].z=0.0;
pts[1].x = xu[84]; pts[1].y=zu[84]; pts[1].z=0.0;
pts[2].x = xu[70]; pts[2].y=zu[70]; pts[2].z=0.0;
pts[3].x = xu[49]; pts[3].y=zu[49]; pts[3].z=0.0;
pts[4].x = xu[30]; pts[4].y=zu[30]; pts[4].z=0.0;
pts[5].x = xu[16]; pts[5].y=zu[16]; pts[5].z=0.0;
pts[6].x = xu[3]; pts[6].y=zu[3]; pts[6].z=0.0;
pts[7].x = xu[0]; pts[7].y=zu[0]; pts[7].z=0.0;
pts[8].x = xl[3]; pts[8].y=zl[3]; pts[8].z=0.0;
pts[9].x = xl[15]; pts[9].y=zl[15]; pts[9].z=0.0;
pts[10].x = xl[29]; pts[10].y=zl[29]; pts[10].z=0.0;
pts[11].x = xl[49]; pts[11].y=zl[49]; pts[11].z=0.0;
pts[12].x = xl[70]; pts[12].y=zl[70]; pts[12].z=0.0;
pts[13].x = xl[84]; pts[13].y=zl[84]; pts[13].z=0.0;
pts[14].x = xu[Ni-1]; pts[14].y=zu[Ni-1]; pts[14].z=0.0;
// Copy pts values to original_pts cause later we will need it.
for (int i = 0; i < 2*n; i++) {
original_pts[i].x = pts[i].x;
original_pts[i].y = pts[i].y;
original_pts[i].z = pts[i].z;
}
out_pts = new point[2*Ni]; //antes teniamos Ni elementos en upper y Ni en lower, ahora debemos tener 2 Ni
bspline(tnp-1, t, pts, out_pts);
exportControlPoints();
updateControlPoints();
}
void GuiWarp::processKeyEvents(const shared_ptr<Warp>& warp)
{
ImGuiIO& io = ImGui::GetIO();
// Tabulation key
if (io.KeysDown[258] && io.KeysDownDuration[258] == 0.0)
{
Values controlPoints;
warp->getAttribute("patchControl", controlPoints);
if (io.KeyShift)
{
_currentControlPointIndex--;
if (_currentControlPointIndex < 0)
_currentControlPointIndex = controlPoints.size() - 3;
}
else
{
_currentControlPointIndex++;
if (_currentControlPointIndex + 2 >= controlPoints.size())
_currentControlPointIndex = 0;
}
auto scene = _scene.lock();
scene->sendMessageToWorld("sendAll", {warp->getName(), "showControlPoint", _currentControlPointIndex});
}
// Arrow keys
{
auto scene = _scene.lock();
Values controlPoints;
warp->getAttribute("patchControl", controlPoints);
if (controlPoints.size() < _currentControlPointIndex + 2)
return;
float delta = 0.001f;
if (io.KeyShift)
delta = 0.0001f;
else if (io.KeyCtrl)
delta = 0.01f;
if (io.KeysDown[262])
{
Values point = controlPoints[_currentControlPointIndex + 2].asValues();
point[0] = point[0].asFloat() + delta;
controlPoints[_currentControlPointIndex + 2] = point;
updateControlPoints(warp->getName(), controlPoints);
}
if (io.KeysDown[263])
{
Values point = controlPoints[_currentControlPointIndex + 2].asValues();
point[0] = point[0].asFloat() - delta;
controlPoints[_currentControlPointIndex + 2] = point;
updateControlPoints(warp->getName(), controlPoints);
}
if (io.KeysDown[264])
{
Values point = controlPoints[_currentControlPointIndex + 2].asValues();
point[1] = point[1].asFloat() - delta;
controlPoints[_currentControlPointIndex + 2] = point;
updateControlPoints(warp->getName(), controlPoints);
}
if (io.KeysDown[265])
{
Values point = controlPoints[_currentControlPointIndex + 2].asValues();
point[1] = point[1].asFloat() + delta;
controlPoints[_currentControlPointIndex + 2] = point;
updateControlPoints(warp->getName(), controlPoints);
}
return;
}
}