cube* cubeDialog::callDialog(modeler *md)
{
//cubeDialog = new QDialog;
QString nm;
QTextStream(&nm) << "cube" << md->numCube();
this->setObjectName("Cube Dialog");
LName = new QLabel("Name");
LStartPoint = new QLabel("Start point");
LEndPoint = new QLabel("End point");
LEName = new QLineEdit;
LEName->setText(nm);
LEStartPoint = new QLineEdit;
LEEndPoint = new QLineEdit;
cubeLayout = new QGridLayout;
PBOk = new QPushButton("OK");
PBCancel = new QPushButton("Cancel");
connect(PBOk, SIGNAL(clicked()), this, SLOT(Click_ok()));
connect(PBCancel, SIGNAL(clicked()), this, SLOT(Click_cancel()));
cubeLayout->addWidget(LMaterial, 0, 0);
cubeLayout->addWidget(CBMaterial, 0, 1, 1, 2);
cubeLayout->addWidget(LName, 1, 0);
cubeLayout->addWidget(LEName, 1, 1, 1, 2);
cubeLayout->addWidget(LStartPoint, 2, 0);
cubeLayout->addWidget(LEStartPoint, 2, 1, 1, 2);
cubeLayout->addWidget(LEndPoint, 3, 0);
cubeLayout->addWidget(LEEndPoint, 3, 1, 1, 2);
cubeLayout->addWidget(PBOk, 4, 0);
cubeLayout->addWidget(PBCancel, 4, 1);
this->setLayout(cubeLayout);
this->exec();
cube *c = NULL;
if (isDialogOk)
{
c = md->makeCube(this->objectName(), tMaterial(CBMaterial->currentIndex()), ROLL_BOUNDARY);
QStringList chList = LEStartPoint->text().split(" ");
float minPoint[3] = { chList.at(0).toFloat(), chList.at(1).toFloat(), chList.at(2).toFloat() };
chList = LEEndPoint->text().split(" ");
float maxPoint[3] = { chList.at(0).toFloat(), chList.at(1).toFloat(), chList.at(2).toFloat() };
c->define(VEC3F(minPoint), VEC3F(maxPoint));
}
return c;
}
VEC3F rayColor(VEC3F* ray) {
VEC3F colorRGB;
VEC3F c(0, 0, 1); // sphere center
VEC3F n; // normal vector
VEC3F cr(1.0f, 1.0f, 1.0f); // surface color
VEC3F cl(1.0f, 1.0f, 1.0f); // light color
VEC3F light(1, 1, -1); // light location
VEC3F l; // light direction
if(!intersectScene(ray[0])) {
//return black
colorRGB = VEC3F(0.f, 0.f, 0.f);
} else {
// return color
n = ray[0]-c; // calculate normal vector, p - c
l = light-ray[0]; // calculate l vector, light - p
// normalize n and l
n.normalize();
l.normalize();
VEC3F crcl(cr[0]*cl[0], cr[1]*cl[1], cr[2]*cl[2]);
float nlDotProd = n*l;
colorRGB = crcl*(nlDotProd);
}
return colorRGB; // return vector with rgb values
}
void plane::updateMotion(float dt, tSolveDevice tsd)
{
if (tsd == CPU){
xw += dt * VEC3F(0.0f, 0.0f, 0.0f); //plane motion setting, m/s, CPU code
w2 += dt * VEC3F(0.0f, 0.0f, 0.0f);
w3 += dt * VEC3F(0.0f, 0.0f, 0.0f);
w4 += dt * VEC3F(0.0f, 0.0f, 0.0f);
}
else if(tsd == GPU){
device_plane_info *h_dpi = new device_plane_info;
checkCudaErrors(cudaMemcpy(h_dpi, dpi, sizeof(device_plane_info), cudaMemcpyDeviceToHost));
// plane motion setting, m/s, GPU code, mde파일에서 plane 설정값중 마지막값 '1'로 바꾸기
h_dpi->xw = make_float3(h_dpi->xw.x + dt * 0.0f, h_dpi->xw.y + dt * 0.2f, h_dpi->xw.z + dt * 0.0f);
h_dpi->w2 = make_float3(h_dpi->w2.x + dt * 0.0f, h_dpi->w2.y + dt * 0.2f, h_dpi->w2.z + dt * 0.0f);
h_dpi->w3 = make_float3(h_dpi->w3.x + dt * 0.0f, h_dpi->w3.y + dt * 0.2f, h_dpi->w3.z + dt * 0.0f);
h_dpi->w4 = make_float3(h_dpi->w4.x + dt * 0.0f, h_dpi->w4.y + dt * 0.2f, h_dpi->w4.z + dt * 0.0f);
checkCudaErrors(cudaMemcpy(dpi, h_dpi, sizeof(device_plane_info), cudaMemcpyHostToDevice));
delete h_dpi;
}
}
// Ray Generation
VEC3F* generateRay(int i, int j, float left, float right, float bottom, float top, int nx, int ny, int eVar) {
VEC3F dPersp; // d vector aka -w
VEC3F oOrtho; // orthographic vector (image plane coords)
VEC3F e(0, 0, -1);
double u, v, w, t;
// SPHERE
VEC3F c(0, 0, 1); // sphere center
float R = 0.25f; // radius sphere
int mode = 1; // mode=0 (orthographic w/ flat image plane),
// mode=1 (perspective w/ odd pixel "checker board" image plane)
// calculate image plane coordinates for orthographic generation
u = left + ((right-left)*(i + 0.5) / nx); // image plane coordinate u
v = bottom + ((top-bottom)*(j + 0.5) / ny); // image plane coordinate v
// if(eVar*0.005 < 0.45) {
// e[0] -= eVar*0.005; // change x coord to move left
// } else {
// e[0] += eVar*0.005; // change x coord to move right
// }
// std::cout << eVar*0.005 << std::endl;
// e[2] += eVar*0.001; // change z coord eye location (if movie being made)
// change mode to set image plane coordinate w
// if(mode == 0) {
// w = 0.0;
// } else {
// if(i%2 == 0 && j%2 == 0) {
// w = -0.5;
// } else {
// w = 0.0;
// }
// }
oOrtho = VEC3F(u, v, w); // ray origin
dPersp = oOrtho - e; // calculate dPerspective
// calculate t
t = calcT(e, dPersp, c, R);
// return ray
return new VEC3F(e + t*dPersp);
}
MATRIX3 diag(const VEC3F& v)
{
return MATRIX3(VEC3F(v[0],0,0), VEC3F(0,v[1],0), VEC3F(0,0,v[2]));
}
MATRIX3 MATRIX3::I() { return MATRIX3(VEC3F(1,0,0), VEC3F(0,1,0), VEC3F(0,0,1)); }
MATRIX3 MATRIX3::crossProductMatrix( const VEC3F &w )
{
return MATRIX3( VEC3F( 0.0, -w[2], w[1] ),
VEC3F( w[2], 0.0, -w[0] ),
VEC3F( -w[1], w[0], 0.0 ) );
}
FLUID_3D_MIC::FLUID_3D_MIC(int xRes, int yRes, int zRes, int amplify, unsigned int* boundaries) :
_xRes(xRes), _yRes(yRes), _zRes(zRes), _res(0.)
{
// set simulation consts
_dt = 0.10;
_iterations = 1000;
_buoyancy = 0.1f;
_heatDiffusion = 1e-3;
_vorticityEps = 2.0;
_totalTime = 0.0f;
_totalSteps = 0;
_res = VEC3I(_xRes,_yRes,_zRes);
_maxRes = _res.maxElement();
// scale the constants according to the refinement of the grid
_dx = 1.0f / (Real)_maxRes;
Real scaling = 64.0f / _maxRes;
scaling = (scaling < 1.0f) ? 1.0f : scaling;
_vorticityEps /= scaling;
// precision of the CG solver
_solverEps = 1e-10;
_center = VEC3F(0,0,0);
_lengths = VEC3F(_dx * _xRes, _dx * _yRes, _dx * _zRes);
_density = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_densityOld = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_heat = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_heatOld = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_pressure = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_divergence = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_residual = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_direction = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_q = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_dudt0 = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_dudt1 = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_velocity = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_velocityOld = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_force = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_vorticity = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_precon = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_z = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Adiag = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aplusi = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aplusj = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aplusk = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aminui = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aminuj = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
_Aminuk = FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
// allocate arrays
_totalCells = _xRes * _yRes * _zRes;
_slabSize = _xRes * _yRes;
_xs = 1; _ys = _xRes; _zs = _slabSize;
_obstacles = new unsigned char[_totalCells];
_dirichletObstacleField = new bool[_totalCells];
_neumannObstacleField = new bool[_totalCells];
_neumannVelocityField = VECTOR3_FIELD_3D(_xRes, _yRes, _zRes, _center, _lengths);
for (int x = 0; x < _totalCells; x++)
{
_obstacles[x] = false;
_dirichletObstacleField[x] = false;
_neumannObstacleField[x] = false;
}
// set up the boundary conditions
if (boundaries != NULL)
{
_domainBcFront = boundaries[0];
_domainBcBack = boundaries[1];
_domainBcLeft = boundaries[2];
_domainBcRight = boundaries[3];
_domainBcTop = boundaries[4];
_domainBcBottom = boundaries[5];
}
else
{
_domainBcFront = 1;
_domainBcBack = 1;
_domainBcLeft = 1;
_domainBcRight = 1;
_domainBcTop = 0;
_domainBcBottom = 0;
}
// set side obstacles
int index;
for (int y = 0; y < _yRes; y++)
for (int x = 0; x < _xRes; x++)
{
// front slab
index = x + y * _xRes;
if(_domainBcFront==1) _obstacles[index] = 1;
// back slab
index += _totalCells - _slabSize;
if(_domainBcBack==1) _obstacles[index] = 1;
}
for (int z = 0; z < _zRes; z++)
for (int x = 0; x < _xRes; x++)
{
// bottom slab
index = x + z * _slabSize;
if(_domainBcBottom==1) _obstacles[index] = 1;
// top slab
index += _slabSize - _xRes;
if(_domainBcTop==1) _obstacles[index] = 1;
}
for (int z = 0; z < _zRes; z++)
for (int y = 0; y < _yRes; y++)
{
// left slab
index = y * _xRes + z * _slabSize;
if(_domainBcLeft==1) _obstacles[index] = 1;
// right slab
index += _xRes - 1;
if(_domainBcRight==1) _obstacles[index] = 1;
}
}
bool vcylinder::define()
{
glList = glGenLists(1);
glNewList(glList, GL_COMPILE);
glShadeModel(GL_FLAT);
float angle = (float)(15 * (M_PI / 180));
int iter = (int)(360 / 15);
float h_len = length * 0.5f;
VEC3F to = VEC3F(pb[0] - origin[0], pb[1] - origin[1], pb[2] - origin[2]);
VEC3F u = to / to.length();
double th = M_PI * 0.5;
double ap = acos(u.z);
double xi = asin(-u.y);
if (ap > M_PI)
ap = ap - M_PI;
ang[0] = 180 * xi / M_PI;
ang[1] = 180 * th / M_PI;
ang[2] = 180 * ap / M_PI;
EPD ep;
ep.setFromEuler(xi, th, ap);
glPushMatrix();
glBegin(GL_TRIANGLE_FAN);
{
VEC3D p = VEC3D( 0.f, length * 0.5f, 0.f );
glColor3f(0.0f, 0.f, 1.f);
// VEC3F p2_ = ep.A() * VEC3F(p2[0], p2[1], p2[2]);
//glVertex3f(p2[0], p2[1], p2[2]);
//p = ep.A() * p;
glVertex3f(p.x, p.y, p.z);
for (int i = 0; i < iter + 1; i++){
float rad = angle * i;
glColor3f(i % 2, 0.f, i % 2 + 1.f);
VEC3D q(sin(rad)*topRadius, length * 0.5, cos(rad) * topRadius);
//q = ep.A() * q;
glVertex3f(/*origin[0] + */(float)q.x, /*origin[1] + */(float)q.y, /*origin[2] + */(float)q.z);
}
}
glEnd();
glPopMatrix();
glBegin(GL_TRIANGLE_FAN);
{
VEC3D p = VEC3D(0.f, -length * 0.5f, 0.f);
//float p[3] = { 0.f, -length * 0.5f, 0.f };
glColor3f(0.f, 0.f, 1.f);
//glVertex3f(p1[0], p1[1], p1[2]);
//p = ep.A() * p;
glVertex3f(p.x, p.y, p.z);
//glVertex3f(p[0], p[1], p[2]);
for (int i = 0; i < iter + 1; i++){
float rad = angle * i;
glColor3f(i % 2, 0.0f, i % 2 + 1.0f);
VEC3D q(sin(-rad)*baseRadius, -length * 0.5, cos(-rad) * baseRadius);
//q = ep.A() * q;
glVertex3f(/*origin[0] + */q.x, /*origin[1] + */q.y, /*origin[2] +*/ q.z);
}
}
glEnd();
glBegin(GL_QUAD_STRIP);
{
for (int i = 0; i < iter + 1; i++){
float rad = angle * i;
VEC3D q1(sin(rad) * topRadius, length * 0.5, cos(rad) * topRadius);
VEC3D q2(sin(rad) * baseRadius, -length * 0.5, cos(rad) * baseRadius);
//q1 = ep.A() * q1;
//q2 = ep.A() * q2;
glVertex3f(/*origin[0] + */q2.x, /*origin[1] + */q2.y, /*origin[2] + */q2.z);
glVertex3f(/*origin[0] + */q1.x, /*origin[1] + */q1.y, /*origin[2] + */q1.z);
}
}
glEnd();
glEndList();
return true;
}
