void disturbMidpoint(ofVec3f & midPoint, ofVec3f const & bottomLeft, ofVec3f const & topLeft, ofVec3f const & topRight, ofVec3f const & bottomRight) {
//if (std::rand() % 2 == 0) {
// return;
//}
midPoint[2] += (topLeft.distance(bottomRight) + topRight.distance(bottomLeft)) * randomValue();
if (midPoint[2] < minHeight) {
minHeight = midPoint[2];
}
if (midPoint[2] > maxHeight) {
maxHeight = midPoint[2];
}
}
// needs improvement. right now it just looks for the biggest cross product
void approximatePlane(const vector<ofVec3f>& points, int iterations, ofVec3f& center, ofVec3f& normal)
{
int n = points.size();
for(int i = 0; i < n; i++)
{
center += points[i];
}
center /= n;
float maxLength = 0;
for(int i = 0; i < n; i++)
{
ofVec3f side1 = points[i] - center;
for(int j = i + 1; j < n; j++)
{
ofVec3f side2 = points[j] - center;
ofVec3f curNormal = side1.getCrossed(side2);
if(curNormal.z < 0) {
curNormal *= -1;
}
float length = curNormal.length();
if(length > maxLength)
{
normal = curNormal;
maxLength = length;
}
}
}
normal.normalize();
}
void ball::update(ofVec3f hand, ofVec3f prev_hand, ofVec3f handVel){
//Trigger the average tracking
//80 is the threshold!
if (handVel.length() > 80 && hand.z < prev_hand.z && movementCount == 0) {
currentFood = floor((ofRandom(7)));
isTracking = true;
cout << "threw!" << endl;
}
//else if (handVel.length() < 10) {
else if (movementCount > 60) {
//Throws!
//isTracking = false;
//vel /= movementCount;
movementCount = 0;
pos = ofVec3f (2000, 2000, 0);
vel.set (0, 0, 0);
}
//Tracks
if(isTracking){
pos = hand;
vel = (handVel/3);
//movementCount ++;
movementCount = 1;
isTracking = false;
}else if (movementCount > 0){
pos += vel;
//movementCount = 1;
movementCount++;
}
}
ofVec3f findNormal(ofVec3f a, ofVec3f b, ofVec3f ref) {
a = a - ref;
b = b - ref;
ofVec3f v = a.cross(b);
v.normalize();
return v;
}
ofVec3f GrainViewTransform(ofVec3f InPutPoint, ofVec3f Eye, ofVec3f Target, ofVec3f UpVec){
// Transform the cordinates of a point InPutPoint. For a camera placed at Eye and looking at target with Up vector UpVec
ofMatrix4x4 ViewMat;
ofVec3f zaxis(Target - Eye);
zaxis.normalize();
ofVec3f xaxis = UpVec.getCrossed(zaxis);
xaxis.normalize();
ofVec3f yaxis = zaxis.getCrossed(xaxis);
// translate vect
InPutPoint -= Eye;
// project on each axis
ofVec3f Outpos;
Outpos.x = -xaxis.dot(InPutPoint);
Outpos.y = -yaxis.dot(InPutPoint);
Outpos.z = zaxis.dot(InPutPoint);
return Outpos;
}
void AbstractPhysicsBehavior::drawForceArrow(ofVec3f position,
ofVec3f force) {
ofDrawArrow(position,
position + force * 20.0f,
ofClamp(force.length() * 2.0f,
0,
6.0f));
}
// Make a rotation Quat which will rotate vec1 to vec2
// Generally take adot product to get the angle between these
// and then use a cross product to get the rotation axis
// Watch out for the two special cases of when the vectors
// are co-incident or opposite in direction.
void ofQuaternion::makeRotate_original( const ofVec3f& from, const ofVec3f& to ) {
const float epsilon = 0.0000001f;
float length1 = from.length();
float length2 = to.length();
// dot product vec1*vec2
float cosangle = from.dot(to) / (length1 * length2);
if ( fabs(cosangle - 1) < epsilon ) {
//osg::notify(osg::INFO)<<"*** Quat::makeRotate(from,to) with near co-linear vectors, epsilon= "<<fabs(cosangle-1)<<std::endl;
// cosangle is close to 1, so the vectors are close to being coincident
// Need to generate an angle of zero with any vector we like
// We'll choose (1,0,0)
makeRotate( 0.0, 0.0, 0.0, 1.0 );
} else
if ( fabs(cosangle + 1.0) < epsilon ) {
// vectors are close to being opposite, so will need to find a
// vector orthongonal to from to rotate about.
ofVec3f tmp;
if (fabs(from.x) < fabs(from.y))
if (fabs(from.x) < fabs(from.z)) tmp.set(1.0, 0.0, 0.0); // use x axis.
else tmp.set(0.0, 0.0, 1.0);
else if (fabs(from.y) < fabs(from.z)) tmp.set(0.0, 1.0, 0.0);
else tmp.set(0.0, 0.0, 1.0);
ofVec3f fromd(from.x, from.y, from.z);
// find orthogonal axis.
ofVec3f axis(fromd.getCrossed(tmp));
axis.normalize();
_v[0] = axis[0]; // sin of half angle of PI is 1.0.
_v[1] = axis[1]; // sin of half angle of PI is 1.0.
_v[2] = axis[2]; // sin of half angle of PI is 1.0.
_v[3] = 0; // cos of half angle of PI is zero.
} else {
// This is the usual situation - take a cross-product of vec1 and vec2
// and that is the axis around which to rotate.
ofVec3f axis(from.getCrossed(to));
float angle = acos( cosangle );
makeRotate( angle, axis );
}
}
//--------------------------------------------------------------
ofVec3f ofApp::moveback(ofVec3f fltPos, ofVec3f aggPos,float aggRadius, float fltRadius){
float disAct = fltPos.distance(aggPos);
float disShould = aggRadius + fltRadius;
ofVec3f tpmoveBack = fltPos - aggPos;
tpmoveBack.normalize();
tpmoveBack = tpmoveBack * (disShould - disAct);
fltPos = fltPos + tpmoveBack;
return fltPos;
}
ofVec3f ofCairoRenderer::transform(ofVec3f vec){
if(!b3D) return vec;
vec = modelView.preMult(vec);
vec = projection.preMult(vec);
//vec.set(vec.x/vec.z*viewportRect.width*0.5-ofGetWidth()*0.5-viewportRect.x,vec.y/vec.z*viewportRect.height*0.5-ofGetHeight()*0.5-viewportRect.y);
vec.set(vec.x/vec.z*ofGetWidth()*0.5,vec.y/vec.z*ofGetHeight()*0.5);
return vec;
}
//----------
ofVec2f MovingHead::getPanTiltForTargetInObjectSpace(const ofVec3f & objectSpacePoint, float tiltOffset) {
auto pan = atan2(objectSpacePoint.z, objectSpacePoint.x) * RAD_TO_DEG - 90.0f;
if (pan < -180.0f) {
pan += 360.0f;
}
auto tilt = acos(-objectSpacePoint.y / objectSpacePoint.length()) * RAD_TO_DEG; // will always produce positive tilt
return ofVec2f(pan, tilt + tiltOffset);
}
//--------------------------------------------------------------
void testApp::update(){
ofVec3f diff ; //Difference between particle and mouse
float dist ; //distance from particle to mouse ( as the crow flies )
float ratio ; //Ratio of how strong the effect is = 1 + (-dist/maxDistance) ;
const ofVec3f mousePosition = ofVec3f( mouseX , mouseY , 0 ) ; //Allocate and retrieve mouse values once.
const ofVec3f origin = ofVec3f(0,0,0);
//Create an iterator to cycle through the vector
std::vector<Particle>::iterator p ;
for ( p = particles.begin() ; p != particles.end() ; p++ )
{
ratio = 1.0f ;
p->velocity *= friction ;
//reset acceleration every frame
p->acceleration = ofVec3f() ;
diff = mousePosition - p->position ;
dist = mousePosition.distance( p->position ) ;
//If within the zone of interaction
if ( dist * .5 < forceRadius )
{
ratio = -1 + dist / forceRadius ;
//Repulsion
if ( cursorMode == 0 )
p->acceleration -= ( diff * ratio) ;
//Attraction
else
p->acceleration += ( diff * ratio ) ;
}
if ( springEnabled )
{
//Move back to the original position
p->acceleration += springFactor * (p->spawnPoint - p->position );
}
p->velocity += p->acceleration * ratio ;
p->position += p->velocity ;
}
if ( ofGetFrameNum() % 300 == 0 )
{
curImageIndex++ ;
setupParticles() ;
}
}
//----------------------------------------
void ofxViewportCam::frameBoundingBox(const ofVec3f &minCorner,
const ofVec3f &maxCorner)
{
ofVec3f center((minCorner + maxCorner) * 0.5f);
setTargetPosition(center);
this->distance = minCorner.distance(maxCorner);
setPosition(target.getGlobalPosition());
dolly(this->distance);
}
void CorrelateXYZtoXY::push(ofVec3f &xyz, ofVec2f &xy) {
if (xyz.length() < 0.1)
return;
++nPoints;
this->xyz.push_back(toCv(xyz));
this->xy.push_back(toCv(xy));
xyzPreview.addVertex(xyz);
}
//--------------------------------------------------------------
void rotateToNormal(ofVec3f normal) {
normal.normalize();
float rotationAmount;
ofVec3f rotationAngle;
ofQuaternion rotation;
ofVec3f axis(0, 0, 1);
rotation.makeRotate(axis, normal);
rotation.getRotate(rotationAmount, rotationAngle);
ofRotateDeg(rotationAmount, rotationAngle.x, rotationAngle.y, rotationAngle.z);
}
//----------------------------------------
void ofNode::lookAt(const ofVec3f& lookAtPosition, ofVec3f upVector) {
if(parent) upVector = upVector * ofMatrix4x4::getInverseOf(parent->getGlobalTransformMatrix());
ofVec3f zaxis = (getGlobalPosition() - lookAtPosition).normalized();
ofVec3f xaxis = upVector.getCrossed(zaxis).normalized();
ofVec3f yaxis = zaxis.getCrossed(xaxis);
ofMatrix4x4 m;
m._mat[0].set(xaxis.x, xaxis.y, xaxis.z, 0);
m._mat[1].set(yaxis.x, yaxis.y, yaxis.z, 0);
m._mat[2].set(zaxis.x, zaxis.y, zaxis.z, 0);
setGlobalOrientation(m.getRotate());
}
void Graphics2552::rotateToNormal(ofVec3f normal) {
normal.normalize();
float rotationAmount;
ofVec3f rotationAngle;
ofQuaternion rotation;
ofVec3f axis(0, 0, 1);
rotation.makeRotate(axis, normal);
rotation.getRotate(rotationAmount, rotationAngle);
logVerbose("ofRotate " + ofToString(rotationAmount));
ofRotate(rotationAmount, rotationAngle.x, rotationAngle.y, rotationAngle.z);
}
ofVec3f RotateAux(ofVec3f input, float latitud, float azimuth, ofVec3f pivot){
ofVec3f theOut = input.getRotated(azimuth, ofVec3f(1, 0, 0));
theOut = theOut.getRotated(latitud, ofVec3f(0, 1, 0));
theOut += pivot;
return theOut;
}
//--------------------- AccumulateForce ----------------------------------
//
// This function calculates how much of its max steering force the
// vehicle has left to apply and then applies that amount of the
// force to add.
//------------------------------------------------------------------------
bool SteeringBehaviors::AccumulateForce(ofVec3f &RunningTot, ofVec3f ForceToAdd)
{
float MagnitudeSoFar = RunningTot.length();
double MagnitudeRemaining = m_Vehicle->MaxForce() - MagnitudeSoFar;
if (MagnitudeRemaining <= 0.0) return false;
float MagnitudeToAdd = ForceToAdd.length();
//if the magnitude of the sum of ForceToAdd and the running total
//does not exceed the maximum force available to this vehicle, just
//add together. Otherwise add as much of the ForceToAdd vector is
//possible without going over the max.
if (MagnitudeToAdd < MagnitudeRemaining)
{
RunningTot += ForceToAdd;
}
else
{
RunningTot += (ForceToAdd.getNormalized() * MagnitudeRemaining);
}
return true;
}
//--------------------------------------------------
void ofPolyline::calcData(int index, ofVec3f &tangent, float &angle, ofVec3f &rotation, ofVec3f &normal) const {
int i1 = getWrappedIndex(index - 1);
int i2 = getWrappedIndex(index);
int i3 = getWrappedIndex(index + 1);
ofPoint p1(points[i1]);
ofPoint p2(points[i2]);
ofPoint p3(points[i3]);
ofVec3f v1(p1 - p2); // vector to previous point
ofVec3f v2(p3 - p2); // vector to next point
v1.normalize();
v2.normalize();
tangent = (v2 - v1);
tangent.normalize();
rotation = v1.getCrossed(v2);
angle = 180 - ofRadToDeg(acos(ofClamp(v1.x * v2.x + v1.y * v2.y + v1.z * v2.z, -1, 1)));
normal = rightVector.getCrossed(tangent);
normal.normalize();
}
void ofxARToolkitPlus::getTranslationAndOrientation(int markerIndex, ofVec3f &translation, ofMatrix4x4 &orientation) {
ARToolKitPlus::ARMarkerInfo marker = tracker->getDetectedMarker(markerIndex);
getTransMat( &marker, c, m34 );
// Translation
translation.set(m34[0][3], m34[1][3], m34[2][3]);
// Orientation
orientation.set(m34[0][0], m34[0][1], m34[0][2], 0,
m34[1][0], m34[1][1], m34[1][2], 0,
m34[2][0], m34[2][1], m34[2][2], 0,
0, 0, 0, 1);
}
Boid::Boid(ofVec3f pos, ofVec3f vel, radomeModel* pMod) {
position = pos;
velocity = vel;
velocity = vel.normalize();
acceleration = ofVec3f(0,0,0);
neighborPosition = ofVec3f(0,0,0);
numNeighbors = 0;
decay = 0.99;
crowdFactor = 1.0;
speedRange = ofVec2f(ofRandom(1.0, 1.5), ofRandom(2.5, 4.0));
speedRangeSquared = ofVec2f(speedRange[0] * speedRange[0], speedRange[1] * speedRange[1]);
pModel = pMod;
}
//--------------------------------------------------------------
ofVec3f tal2mni(ofVec3f inpoints){
ofVec3f out;
ofVec3f upT(0.99, 0.97, 0.92);
ofVec3f downT(0.99, 0.97, 0.84);
out = inpoints.rotateRad(0.05, ofVec3f(1,0,0));
if (inpoints.z > 0){
out = out / upT;
}else{
out = out / downT;
}
return out;
}
void Creature::slerp(const ofVec3f& target, const ofVec3f& upVector)
{
ofVec3f zaxis = (getPosition() - target).normalized();
ofVec3f xaxis = upVector.getCrossed(zaxis).normalized();
ofVec3f yaxis = zaxis.getCrossed(xaxis);
ofMatrix4x4 m;
m._mat[0].set(xaxis.x, xaxis.y, xaxis.z, 0);
m._mat[1].set(yaxis.x, yaxis.y, yaxis.z, 0);
m._mat[2].set(zaxis.x, zaxis.y, zaxis.z, 0);
ofQuaternion targetQuat = m.getRotate();
ofQuaternion currentQuat = getOrientationQuat();
currentQuat.slerp(0.1, currentQuat, targetQuat);
setOrientation(currentQuat);
}
// if axis1 and axis2 are not orthogonal, only axis1 will be preserved
ofQuaternion makeRotate(const ofVec3f& axis1, const ofVec3f& axis2) {
ofVec3f avg = (axis1 + axis2) / 2;
ofVec3f z = axis1.getCrossed(axis2);
ofVec3f x = axis1;
ofVec3f y = z.getCrossed(x);
ofMatrix4x4 mat;
vector<ofVec3f> axes;
axes.push_back(x.normalize());
axes.push_back(y.normalize());
axes.push_back(z.normalize());
for(int i = 0; i < 3; i++) {
for(int j = 0; j < 3; j++) {
mat(i, j) = axes[i][j];
}
}
return mat.getRotate();
}
vector<ofVec3f>::const_iterator findCloser(const ofVec3f& v, const vector<ofVec3f>& vertexs)
{
float dist = numeric_limits<float>::max();
vector<ofVec3f>::const_iterator idx = vertexs.begin();
float curDist;
for(vector<ofVec3f>::const_iterator iter = vertexs.begin(); iter != vertexs.end(); ++iter)
{
curDist = v.squareDistance(*iter);
if(curDist < dist)
{
dist = curDist;
idx = iter;
}
}
return idx;
}
// Renders a vector object 'v' as an arrow and a location 'x,y'
void FlowField2D::drawVector(ofVec3f v, float x, float y, float scale) {
ofPushMatrix();
float arrowsize = 4;
// Translate to location to render vector
ofTranslate(x, y);
ofSetColor(100);
// Call vector heading function to get direction (note that pointing up is a heading of 0) and rotate
float rotate = atan2(v.y, v.x);
ofRotate(ofRadToDeg(rotate), 0, 0, 1);
// Calculate length of vector & scale it to be bigger or smaller if necessary
float len = v.length() * scale;
// Draw three lines to make an arrow (draw pointing up since we've rotate to the proper direction)
ofLine(0, 0, len, 0);
ofLine(len, 0, len - arrowsize, +arrowsize / 2);
ofLine(len, 0, len - arrowsize, -arrowsize / 2);
ofPopMatrix();
}
void ofxARToolkitPlus::getMultiMarkerTranslationAndOrientation(ofVec3f &translation, ofMatrix4x4 &orientation) {
const ARToolKitPlus::ARMultiMarkerInfoT *multiMarkerConst = tracker->getMultiMarkerConfig();
if(multiMarkerConst != NULL) {
// Create a copy of the ARMultiMarkerInfoT struct
ARToolKitPlus::ARMultiMarkerInfoT mm;
size_t mmSize = sizeof(ARToolKitPlus::ARMultiMarkerInfoT);
memcpy(&mm, multiMarkerConst, mmSize);
// Copy and pass in the markers
int numberOfMarkers = tracker->getNumDetectedMarkers();
#ifdef TARGET_WIN32
ARToolKitPlus::ARMarkerInfo *marker = new ARToolKitPlus::ARMarkerInfo[numberOfMarkers];
#else
ARToolKitPlus::ARMarkerInfo marker[numberOfMarkers];
#endif
for (int i=0; i<numberOfMarkers; i++) {
marker[i] = tracker->getDetectedMarker(i);
}
float result = tracker->rppMultiGetTransMat(marker, numberOfMarkers, &mm);
// Check for error - yes this does occur
if(result < 0 || result >= INT_MAX) {
tracker->arMultiGetTransMat(marker, numberOfMarkers, &mm);
ofLog(OF_LOG_VERBOSE, "RPP failed on multimarker");
}
// Translation
translation.set(mm.trans[0][3], mm.trans[1][3], mm.trans[2][3]);
// Orientation
orientation.set(mm.trans[0][0], mm.trans[0][1], mm.trans[0][2], 0,
mm.trans[1][0], mm.trans[1][1], mm.trans[1][2], 0,
mm.trans[2][0], mm.trans[2][1], mm.trans[2][2], 0,
0, 0, 0, 1);
#ifdef TARGET_WIN32
free(marker);
#endif
} else {
ofLog(OF_LOG_VERBOSE, "MultiMarkerConfig file NULL");
}
}
//--------------------------------------------------------------
void DeviceNode::createChain(ofVec3f ptAttach, ofVec3f dir)
{
if (mp_device)
{
// Physics setup
physics.clear();
physics.setGravity(ofVec3f(0, -0.00075, 0));
// Normalize
dir.normalize();
ofVec3f posLed = ptAttach;
msa::physics::Particle3D* prev=0;
for (int i=0; i<mp_device->getNbLEDs(); i++ )
{
// Create particles
msa::physics::Particle3D *p = physics.makeParticle(posLed,0.0025f);
// Attach first one
if (i==0)
p->makeFixed();
// Spring
if (prev){
msa::physics::Spring3D* sp = physics.makeSpring(prev, p, 1.0f, mp_device->getDistLEDs());
sp->setForceCap(1.0f);
}
prev = p;
posLed += mp_device->getDistLEDs() * dir;
//printf("mp_device->getDistLEDs()=%.3f\n", mp_device->getDistLEDs());
}
if (prev)
prev->makeFixed();
}
}
//--------------------------------------------------------------
void testApp::setup(){
g_Rotation = ofQuaternion(0.0f, 0.0f, 0.0f, 1.0f);
g_RotateStart = ofQuaternion(0.0f, 0.0f, 0.0f, 1.0f);
g_LightDirection.set(-0.57735f, -0.57735f, -0.57735f);
// Create some 3D objects (stored in display lists)
glNewList(SHAPE_TEAPOT, GL_COMPILE);
glutSolidTeapot(1.0);
glEndList();
glNewList(SHAPE_TORUS, GL_COMPILE);
glutSolidTorus(0.3, 1.0, 16, 32);
glEndList();
glNewList(SHAPE_CONE, GL_COMPILE);
glutSolidCone(1.0, 1.5, 64, 4);
glEndList();
float axis[] = { 0.7f, 0.7f, 0.0f }; // initial model rotation
float angle = 0.8f;
// Init rotation
SetQuaternionFromAxisAngle(axis, angle, g_Rotation);
SetQuaternionFromAxisAngle(axis, angle, g_RotateStart);
//TWEAK BAR
bar.init("TweakBar", 200, 400, 200, 200, 200, 100);
bar.enable();
bar.addParam("Zoom", &g_Zoom, " min=0.01 max=500.0 step=1.0 keyIncr=z keyDecr=Z help='Scale the object (1=original size).' ", false);
bar.addParam("ObjRotation", &g_Rotation, " label='Object rotation' open help='Change the object orientation.' ", false);
bar.addParam("Multiplier", &g_LightMultiplier, " label='Light booster' min=0.1 max=4 step=0.02 keyIncr='+' keyDecr='-' help='Increase/decrease the light power.' ", false);
bar.addParam("LightDir", &g_LightDirection, " label='Light direction' open help='Change the light direction.' ", false);
bar.addSeparator("separator");
bar.addParam("Ambient", g_MatAmbient, " group='Material' ", false, TW_TYPE_COLOR3F);
bar.addParam("Diffuse", g_MatDiffuse, " group='Material' ", false, TW_TYPE_COLOR3F);
}
ofVec3f Player::moveToNextVert(ofVec3f gPoint, float dist){
ofVec3f ng = gPoint.normalize();
float dotX = ng.dot(ofVec3f(1.0, 0.0, 0.0));
float dotY = ng.dot(ofVec3f(0.0, 1.0, 0.0));
playerMoved = true;
turn.clear();
if(dotX > 0.0 && dotY > 0.0)
{
// 1st quadrant
ofLog() << "1st quadrant";
zRotDeg = 45.0;
gameObject.setOrientation(ofVec3f(0.0, 0.0, 45.0));
}
else if(dotX < 0.0 && dotY > 0.0)
{
// 2nd quadrant
ofLog() << "2nd quadrant";
zRotDeg = 45.0+90.0;
gameObject.setOrientation(ofVec3f(0.0, 0.0, 45.0+90.0));
}
else if(dotX < 0.0 && dotY < 0.0)
{
// 3rd quadrant
ofLog() << "3rd quadrant";
zRotDeg = 180.0 + 45.0;
gameObject.setOrientation(ofVec3f(0.0, 0.0, 180.0 + 45.0));
}
else if(dotX > 0.0 && dotY < 0.0)
{
// 4th quadrant
ofLog() << "4th quadrant";
zRotDeg = 270.0 + 45.0;
gameObject.setOrientation(ofVec3f(0.0, 0.0, 270.0 + 45.0));
}
ofVec3f to = gameObject.getGlobalPosition() + (gameObject.getXAxis() * dist);
ofLog() << "to: " << to;
if(grid->checkMoveToPoint(gameObject.getGlobalPosition(), to))
{
ofLog() << "direction open";
slide.addKeyFrame(Playlist::Action::tween(0.0f, 400.0f, &gPosX, to.x,
Playlist::TweenType::TWEEN_QUART , TweenTransition::TWEEN_EASE_IN_OUT));
slide.addToKeyFrame(Playlist::Action::tween(0.0f, 400.0f, &gPosY, to.y,
Playlist::TweenType::TWEEN_QUART , TweenTransition::TWEEN_EASE_IN_OUT));
return to;
}
else
{
to = gameObject.getGlobalPosition() + (gameObject.getXAxis() * (dist/2.0f));
ofLog() << "direction blocked";
slide.addKeyFrame(Playlist::Action::tween(0.0f, 200.0f, &gPosX, to.x,
Playlist::TweenType::TWEEN_QUART, TweenTransition::TWEEN_EASE_IN_OUT));
slide.addToKeyFrame(Playlist::Action::tween(0.0f, 200.0f, &gPosY, to.y,
Playlist::TweenType::TWEEN_QUART, TweenTransition::TWEEN_EASE_IN_OUT));
slide.addToKeyFrame(Playlist::Action::tween(200.0f, 200.0f, &gPosX, gameObject.getGlobalPosition().x,
Playlist::TweenType::TWEEN_QUART, TweenTransition::TWEEN_EASE_IN_OUT));
slide.addToKeyFrame(Playlist::Action::tween(200.0f, 200.0f, &gPosY, gameObject.getGlobalPosition().y,
Playlist::TweenType::TWEEN_QUART, TweenTransition::TWEEN_EASE_IN_OUT));
return gameObject.getGlobalPosition();
}
// player anim call
}