//--------------------------------------------------------------
void ofApp::mouseDragged(int x, int y, int button){
if (selectedOscilator>-1) {//when an oscillator is clicked and dragged it's speed (freq) and amplitude are changed.
//the following lines do so.
if(bSelectedOscHor==true){
horizontalOscilators[selectedOscilator].freq += 0.1f * (ofGetPreviousMouseX() - ofGetMouseX())/ float(ofGetWidth());
horizontalOscilators[selectedOscilator].amplitude += ofGetMouseY() - ofGetPreviousMouseY();
}else if (bSelectedOscVert==true) {
verticalOscilators[selectedOscilator].freq += 0.1f * (ofGetPreviousMouseY() - ofGetMouseY())/ float(ofGetHeight());
verticalOscilators[selectedOscilator].amplitude += ofGetMouseX() - ofGetPreviousMouseX();
}
}else if (bScaleMouse) {
scale += float(ofGetMouseY()-ofGetPreviousMouseY())/ofGetHeight();
}
}
//--------------------------------------------------------------
void testApp::mouseDragged(int x, int y, int button){
if (button==0){
ofQuaternion qy((x-ofGetPreviousMouseX()), ofVec3f(0,1,0));
ofQuaternion qx((y-ofGetPreviousMouseY()), ofVec3f(1,0,0));
qrot *= qx*qy;
}
if (button==2){
ofQuaternion qz((x-ofGetPreviousMouseX()), ofVec3f(0,0,1));
qrot *= qz;
scale += (float)(ofGetPreviousMouseY()-y)/(ofGetWindowHeight()/2);
if (scale<0) scale = 0.0001;
}
}
//--------------------------------------------------------------
void testApp::update() {
ofVec2f mouse(ofGetMouseX(), ofGetMouseY());
ofVec2f mouseVec(ofGetPreviousMouseX()-ofGetMouseX(), ofGetPreviousMouseY()-ofGetMouseY());
mouseVec.limit(10.0);
for (int i=0; i<NUM_BILLBOARDS; i++) {
ofSeedRandom(i);
if(mouse.distance(pos[i]) < ofRandom(100, 200)) {
vel[i] -= mouseVec;
}
pos[i] += vel[i];
vel[i] *= 0.84f;
if(pos[i].x < 0) pos[i].x = ofGetWidth();
if(pos[i].x > ofGetWidth()) pos[i].x = 0;
if(pos[i].y < 0) pos[i].y = ofGetHeight();
if(pos[i].y > ofGetHeight()) pos[i].y = 0;
ofVec2f center(ofGetWidth()/2, ofGetHeight()/2);
ofVec2f frc = home[i] - pos[i];
if(frc.length() > 20.0) {
frc.normalize();
frc *= 0.84;
vel[i] += frc;
}
// get the 2d heading
float angle = (float)atan2(-vel[i].y, vel[i].x) + PI;
rotations[i] = (angle * -1.0);
}
}
void scrollBar::mouseDragged(ofMouseEventArgs &e){
mousePositionX = e.x;
mousePositionY = e.y;
ofVec3f mouse = ofVec3f(e.x, e.y,0);
ofVec3f mouseLast = ofVec3f(ofGetPreviousMouseX(),ofGetPreviousMouseY(),0);
ofVec3f diffVec = ofVec3f(0,0,0);
if (isScrollBarVisible && composer->isDraggingGrip()) {
diffVec.y = mouseLast.y - mouse.y;
// Move the grip according to the mouse displacement
int dy = e.y - mousePreviousY;
mousePreviousY = e.y;
gripRectangle.y += dy;
}
if(isHScrollBarVisible && composer->isDraggingHGrip()){
diffVec.x = mouseLast.x - mouse.x;
// Move the grip according to the mouse displacement
int dx = e.x - mousePreviousX;
mousePreviousX = e.x;
hGripRectangle.x += dx;
}
updateScrollBar(diffVec);
updateHScrollBar(diffVec);
}
void resetDrawSettings()
{
m_inSetup = false;
fill(m_defaultFillColor.getHex());
stroke(m_defaultStrokeColor.getHex());
strokeWeight(m_defaultStrokeWeight);
m_hasFill = m_defaultHasFill;
m_hasStroke = m_defaultHasStroke;
ofEnableBlendMode(OF_BLENDMODE_ALPHA);
smooth(2);
width = ofGetWidth();
height = ofGetHeight();
pmouseX = ofGetPreviousMouseX();
pmouseY = ofGetPreviousMouseY();
keyPressed = ofGetKeyPressed();
mousePressed = ofGetMousePressed();
mouseButton = NONE;
if( ofGetMousePressed(0) )
mouseButton = LEFT;
else if(ofGetMousePressed(1))
mouseButton = RIGHT;
ofSetCircleResolution(100);
ofSetCurveResolution(100);
}
void testApp::mouseDragged(int x, int y, int button){
if(hagoZoom){
ofVec3f mouse = ofVec3f(x, y,0);
ofVec3f mouseLast = ofVec3f(ofGetPreviousMouseX(),ofGetPreviousMouseY(),0);
float dify = mouse.y - mouseLast.y;
scale += dify*SCALE_SENSITIVITY;
cam.setScale(scale);
}
}
//--------------------------------------------------------------
void ofApp::mouseDragged(int x, int y, int button){
ofVec2f vel;
vel.x = x - ofGetPreviousMouseX();
vel.y = y - ofGetPreviousMouseY();
Particle particle(ofVec2f(x, y), vel*0.3);
particleList.push_back(particle);
}
//--------------------------------------------------------------
void testApp::draw(){
ofBackground(0);
string s = string("") +
"\n" +
"Purple boxes (4 of them) are generic nodes with simple circular motion, linked in a hierarchy (with ofNode::setParent).\n" +
"Yellow boxes (2 of them) are cameras. You are looking through one of them so can only see one box on screen.\n" +
"\n" +
"KEYS:\n" +
"\n" +
"z reset transforms\n" +
"\n" +
"v switch camera to view: " + ofToString(camToView) + "\n" +
"\n" +
"o toggle mouse orbit for cam\n" +
"\n" +
"c switch camera to configure: " + ofToString(camToConfigure) + "\n" +
" t cycle lookat\n" +
" p cycle parent\n" +
" LEFT pan left\n" +
" RIGHT pan right\n" +
" UP tilt up\n" +
" DOWN tilt down\n" +
" , roll left\n" +
" . roll right\n" +
" a truck left\n" +
" d truck right\n" +
" w dolly forward\n" +
" s dolly backward\n" +
" r boom up\n" +
" f boom down\n";
glDisable(GL_CULL_FACE);
ofSetColor(255);
ofDisableLighting();
ofDrawBitmapString(s, ofPoint(20, 20));
glEnable(GL_CULL_FACE);
ofEnableLighting();
// update camera transforms
for(int i=0; i<kNumCameras; i++) {
// lookat node if it has one
if(lookatIndex[i] >= 0) cam[i].lookAt(testNodes[lookatIndex[i]]);
// mouse orbit camera
if(doMouseOrbit[i] && ofGetMousePressed(0)) {
static float lon = 0;
static float lat = 0;
lon = ofClamp(lon + mouseX - ofGetPreviousMouseX(), -180, 180);
lat = ofClamp(lat + mouseY - ofGetPreviousMouseY(), -90, 90);
if(lookatIndex[i] < 0) {
cam[i].orbit(lon, lat, orbitRadius);
} else {
cam[i].orbit(lon, lat, orbitRadius, testNodes[lookatIndex[1]]);
}
}
}
// activate camera
cam[camToView].begin();
// draw world axis
ofDrawAxis(100);
// draw testNodes
for(int i=0; i<kNumTestNodes; i++) {
ofSetColor(255, 128, 255);
testNodes[i].draw();
}
// draw cameras
for(int i=0; i<kNumCameras; i++) {
ofSetColor(255, 255, 0);
cam[i].draw();
// draw line from cam to its lookat
if(lookatIndex[i] >= 0) {
ofSetColor(0, 255, 255);
glBegin(GL_LINES);
ofVec3f v1 = cam[i].getGlobalPosition();
ofVec3f v2 = testNodes[lookatIndex[i]].getGlobalPosition();
glVertex3f(v1.x, v1.y, v1.z);
glVertex3f(v2.x, v2.y, v2.z);
glEnd();
}
// draw line from cam to its parent
if(parentIndex[i] >= 0) {
ofSetColor(255, 255, 0);
glBegin(GL_LINES);
ofVec3f v1 = cam[i].getGlobalPosition();
ofVec3f v2 = testNodes[parentIndex[i]].getGlobalPosition();
glVertex3f(v1.x, v1.y, v1.z);
glVertex3f(v2.x, v2.y, v2.z);
glEnd();
}
}
// restore view to previous state (default openFrameworks view)
cam[camToView].end();
}
void ofxMPMFluid::update(){
// Important: can't exceed maxNParticles!
numParticles = MIN(numParticles, maxNumParticles);
//-------------------------
// Clear the grid. Necessary to begin the simulation.
for (int i=0; i<gridSizeX; i++) {
for (int j=0; j<gridSizeY; j++) {
grid[i][j]->clear();
}
}
numActiveNodes = 0;
long t0 = ofGetElapsedTimeMillis();
//-------------------------
// Particles pass 1
float phi;
int pcxTmp, pcyTmp;
for (int ip=0; ip<numParticles; ip++) {
ofxMPMParticle *p = particles[ip];
int pcx = p->cx = (int)(p->x - 0.5F);
int pcy = p->cy = (int)(p->y - 0.5F);
float *px = p->px;
float *py = p->py;
float *gx = p->gx;
float *gy = p->gy;
float pu = p->u;
float pv = p->v;
p->pu = pu;
p->pv = pv;
// N.B.: The constants below are not playthings.
float x = (float) p->cx - p->x;
px[0] = (0.5F * x * x + 1.5F * x) + 1.125f;
gx[0] = x + 1.5F;
x++;
px[1] = -x * x + 0.75F;
gx[1] = -2.0F * x;
x++;
px[2] = (0.5F * x * x - 1.5F * x) + 1.125f;
gx[2] = x - 1.5F;
float y = (float) p->cy - p->y;
py[0] = (0.5F * y * y + 1.5F * y) + 1.125f;
gy[0] = y + 1.5F;
y++;
py[1] = -y * y + 0.75F;
gy[1] = -2.0F * y;
y++;
py[2] = (0.5F * y * y - 1.5F * y) + 1.125f;
gy[2] = y - 1.5F;
int pcxi, pcyj;
for (int i=0; i<3; i++) {
pcxi = pcx+i;
if ((pcxi >= 0) && (pcxi < gridSizeX)){
vector<ofxMPMNode*>& nrow = grid[pcxi]; // potential for array index out of bounds here if simulation explodes.
float pxi = px[i];
float gxi = gx[i];
for (int j=0; j<3; j++) {
pcyj = pcy+j;
if ((pcyj >= 0) && (pcyj < gridSizeY)){
ofxMPMNode *n = nrow[pcyj]; // potential for array index out of bounds here if simulation explodes.
if (!n->active) {
n->active = true;
activeNodes[numActiveNodes] = n;
numActiveNodes++;
}
phi = pxi * py[j];
n->m += phi;
n->gx += gxi * py[j];
n->gy += pxi * gy[j];
n->u += phi * pu;
n->v += phi * pv;
}
}
}
}
}
for (int ni=0; ni<numActiveNodes; ni++) {
ofxMPMNode *n = activeNodes[ni];
if (n->m > 0.0) {
n->u /= n->m;
n->v /= n->m;
}
}
long t1 = ofGetElapsedTimeMillis();
//-------------------------
// Particles pass 2
float stiffnessBulk = stiffness * bulkViscosity;
int nBounced = 0;
for (int ip=0; ip<numParticles; ip++) {
ofxMPMParticle *p = particles[ip];
float *px = p->px;
float *py = p->py;
float *gx = p->gx;
float *gy = p->gy;
int pcy = p->cy;
int pcx = p->cx;
float dudx = 0.0F;
float dudy = 0.0F;
float dvdx = 0.0F;
float dvdy = 0.0F;
float gxi, pxi;
float gxf, gyf;
int pcxi;
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx+i];
gxi = gx[i];
pxi = px[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy + j];
gxf = gxi * py[j];
gyf = pxi * gy[j];
dudx += nj->u * gxf;
dudy += nj->u * gyf;
dvdx += nj->v * gxf;
dvdy += nj->v * gyf;
}
}
float w1 = dudy - dvdx;
float wT0 = w1 * p->T01;
float wT1 = 0.5F * w1 * (p->T00 - p->T11);
float D00 = dudx;
float D01 = 0.5F * (dudy + dvdx);
float D11 = dvdy;
float trace = 0.5F * (D00 + D11);
D00 -= trace;
D11 -= trace;
p->T00 += (-wT0 + D00) - yieldRate * p->T00;
p->T01 += ( wT1 + D01) - yieldRate * p->T01;
p->T11 += ( wT0 + D11) - yieldRate * p->T11;
// here's our protection against exploding simulations...
float norma = p->T00 * p->T00 + 2.0F * p->T01 * p->T01 + p->T11 * p->T11;
if (norma > 10.0F) {
p->T00 = p->T01 = p->T11 = 0.0F;
}
int cx0 = (int) p->x;
int cy0 = (int) p->y;
int cx1 = cx0 + 1;
int cy1 = cy0 + 1;
ofxMPMNode *n00 = grid[cx0][cy0];
ofxMPMNode *n01 = grid[cx0][cy1];
ofxMPMNode *n10 = grid[cx1][cy0];
ofxMPMNode *n11 = grid[cx1][cy1];
float p00 = n00->m;
float x00 = n00->gx;
float y00 = n00->gy;
float p01 = n01->m;
float x01 = n01->gx;
float y01 = n01->gy;
float p10 = n10->m;
float x10 = n10->gx;
float y10 = n10->gy;
float p11 = n11->m;
float x11 = n11->gx;
float y11 = n11->gy;
float pdx = p10 - p00;
float pdy = p01 - p00;
float C20 = 3.0F * pdx - x10 - 2.0F * x00;
float C02 = 3.0F * pdy - y01 - 2.0F * y00;
float C30 = -2.0F * pdx + x10 + x00;
float C03 = -2.0F * pdy + y01 + y00;
float csum1 = p00 + y00 + C02 + C03;
float csum2 = p00 + x00 + C20 + C30;
float C21 = 3.0F * p11 - 2.0F * x01 - x11 - 3.0F * csum1 - C20;
float C31 = (-2.0F * p11 + x01 + x11 + 2.0F * csum1) - C30;
float C12 = 3.0F * p11 - 2.0F * y10 - y11 - 3.0F * csum2 - C02;
float C13 = (-2.0F * p11 + y10 + y11 + 2.0F * csum2) - C03;
float C11 = x01 - C13 - C12 - x00;
float u1 = p->x - (float)cx0;
float u2 = u1 * u1;
float u3 = u1 * u2;
float v1 = p->y - (float)cy0;
float v2 = v1 * v1;
float v3 = v1 * v2;
float density =
p00 +
x00 * u1 +
y00 * v1 +
C20 * u2 +
C02 * v2 +
C30 * u3 +
C03 * v3 +
C21 * u2 * v1 +
C31 * u3 * v1 +
C12 * u1 * v2 +
C13 * u1 * v3 +
C11 * u1 * v1 ;
float DS = densitySetting;
if (bGradient){
// Just for yuks, a spatially varying density function
DS = densitySetting * ( powf(p->x / (float) gridSizeX, 4.0) );
}
float pressure = (stiffness / max (1.0F, DS)) * (density - DS);
if (pressure > 2.0F) {
pressure = 2.0F;
}
p->d = 1.0/MAX(0.001, density);
// COLLISIONS-1
// Determine if there has been a collision with the wall.
float fx = 0.0F;
float fy = 0.0F;
bool bounced = false;
if (p->x < 3.0F) {
fx += 3.0F - p->x;
bounced = true;
} else if (p->x > (float)(gridSizeX - 3)) {
fx += (gridSizeX - 3.0) - p->x;
bounced = true;
}
if (p->y < 3.0F) {
fy += 3.0F - p->y;
bounced = true;
} else if (p->y > (float)(gridSizeY - 3)) {
fy += (gridSizeY - 3.0) - p->y;
bounced = true;
}
// Interact with a simple demonstration obstacle.
// Note: an accurate obstacle implementation would also need to implement
// some velocity fiddling as in the section labeled "COLLISIONS-2" below.
// Otherwise, this obstacle is "soft"; particles can enter it slightly.
if (bDoObstacles && obstacles.size() > 0){
for ( int i = 0; i<obstacles.size(); i++){
// circular obstacle
float oR = obstacles[i]->radius;
float oR2 = obstacles[i]->radius2;
float odx = obstacles[i]->cx - p->x;
float ody = obstacles[i]->cy - p->y;
float oD2 = odx*odx + ody*ody;
if (oD2 < oR2){
float oD = sqrtf(oD2);
float dR = oR-oD;
fx -= dR * (odx/oD);
fy -= dR * (ody/oD);
bounced = true;
}
}
}
trace *= stiffnessBulk;
float T00 = elasticity * p->T00 + viscosity * D00 + pressure + trace;
float T01 = elasticity * p->T01 + viscosity * D01;
float T11 = elasticity * p->T11 + viscosity * D11 + pressure + trace;
float dx, dy;
if (bounced){
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx + i];
float ppxi = px[i];
float pgxi = gx[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy + j ];
phi = ppxi * py[j];
dx = pgxi * py[j];
dy = ppxi * gy[j];
nj->ax += fx * phi -(dx * T00 + dy * T01);
nj->ay += fy * phi -(dx * T01 + dy * T11);
}
}
} else {
float *pppxi = &px[0];
float *ppgxi = &gx[0];
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx + i];
float ppxi = *(pppxi++); //px[i];
float pgxi = *(ppgxi++); //gx[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy+j];
dx = pgxi * py[j];
dy = ppxi * gy[j];
nj->ax -= (dx * T00 + dy * T01);
nj->ay -= (dx * T01 + dy * T11);
}
}
}
}
for (int ni=0; ni<numActiveNodes; ni++) {
ofxMPMNode *n = activeNodes[ni];
if (n->m > 0.0F) {
n->ax /= n->m;
n->ay /= n->m;
n->u = 0.0;
n->v = 0.0;
}
}
long t2 = ofGetElapsedTimeMillis();
//-------------------------
// Particles pass 3
const float rightEdge = gridSizeX - 3.0;
const float bottomEdge = gridSizeY - 3.0;
for (int ip=0; ip<numParticles; ip++) {
ofxMPMParticle *p = particles[ip];
float *px = p->px;
float *py = p->py;
int pcy = p->cy;
int pcx = p->cx;
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx + i];
float ppxi = px[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy + j];
phi = ppxi * py[j];
p->u += phi * nj->ax;
p->v += phi * nj->ay;
}
}
p->v += gravity;
//if (isMouseDragging) {
if (ofGetMousePressed(0)) {
float vx = abs(p->x - ofGetMouseX()/scaleFactor);
float vy = abs(p->y - ofGetMouseY()/scaleFactor);
float mdx = (ofGetMouseX() - ofGetPreviousMouseX())/scaleFactor;
float mdy = (ofGetMouseY() - ofGetPreviousMouseY())/scaleFactor;
if (vx < 10.0F && vy < 10.0F) {
float weight = (1.0F - vx / 10.0F) * (1.0F - vy / 10.0F);
p->u += weight * (mdx - p->u);
p->v += weight * (mdy - p->v);
}
}
// COLLISIONS-2
// Plus, an opportunity to add randomness when accounting for wall collisions.
float xf = p->x + p->u;
float yf = p->y + p->v;
float wallBounceMaxRandomness = 0.03;
if (xf < 2.0F) {
p->u += (2.0F - xf) + ofRandom(wallBounceMaxRandomness);
} else if (xf > rightEdge) {
p->u += rightEdge - xf - ofRandom(wallBounceMaxRandomness);
}
if (yf < 2.0F) {
p->v += (2.0F - yf) + ofRandom(wallBounceMaxRandomness);
} else if (yf > bottomEdge) {
p->v += bottomEdge - yf - ofRandom(wallBounceMaxRandomness);
}
float pu = p->u;
float pv = p->v;
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx + i];
float ppxi = px[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy + j];
phi = ppxi * py[j];
nj->u += phi * pu;
nj->v += phi * pv;
}
}
}
for (int ni=0; ni<numActiveNodes; ni++) {
ofxMPMNode *n = activeNodes[ni];
if (n->m > 0.0F) {
n->u /= n->m;
n->v /= n->m;
}
}
long t3 = ofGetElapsedTimeMillis();
//-------------------------
// Particles pass 4
float gu, gv;
for (int ip=0; ip<numParticles; ip++) {
ofxMPMParticle *p = particles[ip];
gu = 0.0F;
gv = 0.0F;
float *px = p->px;
float *py = p->py;
int pcy = p->cy;
int pcx = p->cx;
for (int i=0; i<3; i++) {
vector<ofxMPMNode*>& nrow = grid[pcx + i];
float ppxi = px[i];
for (int j=0; j<3; j++){
ofxMPMNode *nj = nrow[pcy + j];
phi = ppxi * py[j];
gu += phi * nj->u;
gv += phi * nj->v;
}
}
p->x += (p->gu = gu);
p->y += (p->gv = gv);
p->u += smoothing * (gu - p->u);
p->v += smoothing * (gv - p->v);
}
//----------------------------------
long t4 = ofGetElapsedTimeMillis();
long dt0 = t1-t0;
long dt1 = t2-t1;
long dt2 = t3-t2;
long dt3 = t4-t3;
long dt = t4 - t0;
elapsed = 0.95*elapsed + 0.05*(dt);
// Timing: in case you're curious about CPU consumption, uncomment this:
// printf("Elapsed = %d %d %d %d %f\n", dt0, dt1, dt2, dt3, elapsed);
}
//--------------------------------------------------------------
void ofApp::mouseMoved(int x, int y ){
ofVec2f dir = ofVec2f(x, y) - ofVec2f(ofGetPreviousMouseX(), ofGetPreviousMouseY());
myField.setDirection(dir);
}
ofPoint ofxGetPreviousMouse() {
return ofPoint(ofGetPreviousMouseX(), ofGetPreviousMouseY());
}
//--------------------------------------------------------------
void testApp::draw() {
ofSetColor(255, 255, 255);
//dataLoggerARM-----------------------------------_
if (isGuiDataLoggerARM == true) {
glDisable(GL_CULL_FACE);
//velSmoothStateXY--------------------------------_
//velSmoothStateMouseMoved.draw(mouseX, mouseY);
//-----------------velSmoothStateXY---------------_
dataLoggerARM_0.draw();
glEnable(GL_CULL_FACE);
}
//-----------------dataLoggerARM------------------_
if (isDrawOpenCV == true) {
bDrawPointCloud = false;
glDisable(GL_CULL_FACE);
// draw from the live kinect
kinect.drawDepth(10, 10, 400, 300);
kinect.draw(420, 10, 400, 300);
grayImage.draw(10, 320, 400, 300);
//contourFinder.draw(10, 320, 400, 300);
ofSetColor(255, 255, 255);
stringstream reportStream;
reportStream << "Rotate the point cloud with the mouse" << endl
<< "Press 'f' to switch to full screen" << endl
<< "Press 'h' to switch mirror horizontal for participant" << endl
<< "accel is: " << ofToString(kinect.getMksAccel().x, 2) << " / "
<< ofToString(kinect.getMksAccel().y, 2) << " / "
<< ofToString(kinect.getMksAccel().z, 2) << endl
<< "using opencv threshold = " << bThreshWithOpenCV <<" (press spacebar)" << endl
<< "set near threshold " << nearThreshold << " (press: + -)" << endl
<< "set far threshold " << farThreshold << " (press: < >) num blobs found " << contourFinder.nBlobs
<< ", fps: " << ofGetFrameRate() << endl
<< "press 'c' to close the connection and o to open it again, connection is: " << kinect.isConnected() << endl
<< "press 'UP' and 'DOWN' to change the tilt angle: " << angle << " degrees" << endl;
ofDrawBitmapString(reportStream.str(), 425, 420);
glEnable(GL_CULL_FACE);
}
if (isGuiDataLoggerARM == true) {
//ofBackground(0);
//bFullscreen
string s = string("") +
"\n" +
"KEYS:\n" +
"\n" +
"Press 'f' to switch to full screen\n"+
"Press 'h' to switch mirror horizontal for participant\n"+
"\n" +
"Out Form Field\n" +
"\n" +
" 'R' Makes A New Session\n" +
" 'UP' / 'DOWN' Cycle Sessions\n" +
" 'LEFT' / 'RIGHT' Cycle Data Logged\n" +
" '<' , '>' or 'TAB' Cycle the Form Field\n" +
"\n" +
"In Form Field\n" +
"\n" +
" If No File Found It Will Make File After 'Enter' is Pressed.\n" +
" 'Del', Key, 'Enter' or 'LEFT' / 'RIGHT'\n" +
"\n" +
"Audio\n" +
"\n" +
" 'p' Play\n" +
" 'q' Paused\n" +
"\n" +
"Data Logging\n" +
"\n" +
" 1-9 Num Pad Pain Score\n" +
" MousePressed Notable Difference\n";
glDisable(GL_CULL_FACE);
ofSetColor(255);
//ofDisableLighting();
ofDrawBitmapString(s, ofPoint(670, 20));
glEnable(GL_CULL_FACE);
}
//ofCamera----------------------------------------_
if (isGuiCamera == true) {
//ofBackground(0);
string s = string("") +
"\n" +
"Press 'f' to switch to full screen\n"+
"Press 'h' to switch mirror horizontal for participant\n"+
"\n" +
//"Purple boxes (4 of them) are generic nodes with simple circular motion, linked in a hierarchy (with ofNode::setParent).\n" +
//"Yellow boxes (2 of them) are cameras. You are looking through one of them so can only see one box on screen.\n" +
//"\n" +
"KEYS:\n" +
"\n" +
"'z' reset transforms\n" +
"\n" +
"'v' switch camera to view: " + ofToString(camToView) + "\n" +
"\n" +
"\n" +
"'c' switch camera to configure: " + ofToString(camToConfigure) + "\n" +
" 't' cycle lookat\n" +
" 'p' cycle parent\n";
//" LEFT pan left\n"+
//" RIGHT pan right\n" +
//" UP tilt up\n" +
//" DOWN tilt down\n" +
//" , roll left\n" +
//" . roll right\n" +
//" a truck left\n" +
//" d truck right\n" +
//" w dolly forward\n" +
//" s dolly backward\n" +
//" r boom up\n" +
//" f boom down\n";
glDisable(GL_CULL_FACE);
ofSetColor(255);
//ofDisableLighting();
ofDrawBitmapString(s, ofPoint(20, 20));
glEnable(GL_CULL_FACE);
//ofEnableLighting();
}
// update camera transforms
for(int i=0; i<kNumCameras; i++) {
// lookat node if it has one
if(lookatIndex[i] >= 0) cam[i].lookAt(testNodes[lookatIndex[i]]);
// mouse orbit camera
if(doMouseOrbit[i] && velSmoothStateMouseMoved.bStoppedX == false && velSmoothStateMouseMoved.bStoppedY == false) {// was ofGetMousePressed(0)
static float lon = 0;
static float lat = 0;
setLon = lon = ofClamp(lon + mouseX - ofGetPreviousMouseX(), -180, 180);
setLat = lat = ofClamp(lat + mouseY - ofGetPreviousMouseY(), -90, 90);
if(lookatIndex[i] < 0) {
cam[i].orbit(lon, lat, orbitRadius);
} else {
cam[i].orbit(lon, lat, orbitRadius, testNodes[lookatIndex[1]]);
}
}
}
// activate camera
cam[camToView].begin();
if(bDrawPointCloud == true) {
drawPointCloud();
}
if (isGuiCamera == true) {
// draw world axis
ofDrawAxis(100);
// draw testNodes
for(int i=0; i<kNumTestNodes; i++) {
ofSetColor(255, 128, 255);
testNodes[i].draw();
}
// draw cameras
for(int i=0; i<kNumCameras; i++) {
ofSetColor(255, 255, 0);
cam[i].draw();
// draw line from cam to its lookat
if(lookatIndex[i] >= 0) {
ofSetColor(0, 255, 255);
glBegin(GL_LINES);
ofVec3f v1 = cam[i].getGlobalPosition();
ofVec3f v2 = testNodes[lookatIndex[i]].getGlobalPosition();
glVertex3f(v1.x, v1.y, v1.z);
glVertex3f(v2.x, v2.y, v2.z);
glEnd();
}
// draw line from cam to its parent
if(parentIndex[i] >= 0) {
ofSetColor(255, 255, 0);
glBegin(GL_LINES);
ofVec3f v1 = cam[i].getGlobalPosition();
ofVec3f v2 = testNodes[parentIndex[i]].getGlobalPosition();
glVertex3f(v1.x, v1.y, v1.z);
glVertex3f(v2.x, v2.y, v2.z);
glEnd();
}
}
}
// restore view to previous state (default openFrameworks view)
cam[camToView].end();
//---------------------ofCamera-------------------_
if (isSession == true) {
if ((isMouseMovTop == true || isMouseMovBott == true) && isDrPLayHitAreaImage == true) {
string s = string("") +
"\n" +
"Press 'f' to switch to full screen\n"+
"Press 'h' to switch mirror horizontal for participant\n"+
"\n" +
"Configure camera:\n" +
" 'w' dolly forward\n" +
" 's' dolly backward\n";
//" LEFT pan left\n"+
//" RIGHT pan right\n" +
//" UP tilt up\n" +
//" DOWN tilt down\n" +
//" , roll left\n" +
//" . roll right\n" +
//" a truck left\n" +
//" d truck right\n" +
//" r boom up\n" +
//" f boom down\n";
glDisable(GL_CULL_FACE);
ofSetColor(255);
//ofDisableLighting();
ofDrawBitmapString(s, ofPoint(20, 20));
glEnable(GL_CULL_FACE);
//ofEnableLighting();
}
}
glDisable(GL_CULL_FACE);
ofEnableAlphaBlending();
//drHitAreaImage----------------------------------_
if (isMouseMovBott == true || isMouseMovTop == true || isDrHitAreaImage == true) {
drHitAreaImage_0.draw();
}
//-----------------drHitAreaImage-----------------_
ofDrawBitmapString(ofToString((int) ofGetFrameRate()), 10, 20);
//drPLayHitAreaImage------------------------------_
if ((isMouseMovTop == true || isMouseMovBott == true) && isDrPLayHitAreaImage == true) {
drPLayHitAreaImage_0.draw();
}
//-----------------drPLayHitAreaImage-------------_
//timer------------_
//playbackCamTimer_0.draw(65, 65);
//------timer------_
ofDisableAlphaBlending();
glEnable(GL_CULL_FACE);
}
//--------------------------------------------------------------
void testApp::draw()
{
ofBackgroundGradient(60, 0);
ofSetLineWidth(2);
//PXC
if (camFixed)
{
glDisable(GL_CULL_FACE);
ofDisableLighting();
glDisable(GL_DEPTH_TEST);
ofSetColor(255);
mLabelTexture.draw(0,0,640,480);
ofPushStyle();
ofFill();
//for(vector<ofPoint>::iterator vit=mPositions.begin();vit!=mPositions.end();++vit){
for(int i = 0; i<mPositions.size();i++){
if(mPositions[i].node == PXCGesture::GeoNode::LABEL_FINGER_THUMB){
ofSetColor(ofColor::red);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 15);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_FINGER_INDEX){
ofSetColor(ofColor::yellow);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 15);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_FINGER_MIDDLE){
ofSetColor(ofColor::blue);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 15);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_FINGER_PINKY){
ofSetColor(ofColor::green);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 15);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_FINGER_RING){
ofSetColor(ofColor::pink);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 15);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_BODY_HAND_LEFT){
ofSetColor(ofColor::white);
float z = ofMap(mPositions[i].worldPos.z,0,0.1,0,40,true);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 40-z);
ofSetColor(60,60,60);
ofDrawBitmapString(ofToString(z)+" "+ofToString(mPositions[i].worldPos.z),100,100);
}
else if(mPositions[i].node == PXCGesture::GeoNode::LABEL_BODY_HAND_RIGHT){
ofSetColor(ofColor::burlyWood);
float z = ofMap(mPositions[i].worldPos.z,0,0.1,0,40,true);
ofCircle(mPositions[i].imagePos.x,mPositions[i].imagePos.y, 40-z);
ofSetColor(60,60,60);
ofDrawBitmapString(ofToString(z)+" "+ofToString(mPositions[i].worldPos.z),100,130);
}
}
ofPopStyle();
mRGBTexture.draw(0+640,0,320,240);
mLabelTexture.draw(640+320,0,320,240);
mDepthTexture.draw(640,240,320,240);
mIRTexture.draw(640+320,240,320,240);
}else{
if(ofGetMousePressed(0)) {
static float lon = 0;
static float lat = 0;
lon = ofClamp(lon + mouseX - ofGetPreviousMouseX(), -180, 180);
lat = ofClamp(lat + mouseY - ofGetPreviousMouseY(), -90, 90);
cam.orbit(lon, lat, 100, hero);
}
glEnable(GL_CULL_FACE);
ofEnableLighting();
if (!camSwith)
{cam.lookAt(hero);
cam.begin();
ofDrawAxis(5000);
hero.draw();
for (int i =0; i<nodes.size(); i++)
{
nodes[i].draw();
}
cam.end();
}else{
hero.begin();
for (int i =0; i<nodes.size(); i++)
{
nodes[i].draw();
}
ofDrawAxis(5000);
hero.end();
}
}
}
