//--------------------------------------------------------------
// mouse pressed
void mgSimpleDesktop::mouseDown(
void* source,
int x,
int y,
int modifiers,
int button)
{
#ifdef WORKED
// takeKeyFocus();
mgDimension size;
getSize(size);
mgRectangle inside(0, 0, size.m_width, size.m_height);
if (m_upFrame != NULL)
m_upFrame->getInsideRect(inside);
// =-= select entry under point
y = y - inside.m_y;
int index = (y/m_lineHeight) + m_scrollPosn;
if (index < m_entries.length())
{
if (m_multiSelect)
{
// =-= shift select, cntl select, start of drag select
// =-= reset all other selections if just click
mgListEntry* entry = (mgListEntry*) m_entries.getAt(index);
entry->m_selected = true;
}
else
{
m_selected = index;
}
damage();
}
#endif
}
void drawbullet(int num)
{
int n;
int x, y,i;
for(i=0;i<MAXBULLET;i++){
x = bullets[num][i]->x;
y = bullets[num][i]->y;
//is the bullet active?
if (!bullets[num][i]->alive) continue;
//draw bullet sprite
for (n=0; n<2; n++)
{
if (inside(x, y, scrollx[n], scrolly[n],
scrollx[n] + SCROLLW - bullet_bmp[n]->w,
scrolly[n] + SCROLLH - bullet_bmp[n]->h))
//draw bullet, adjust for scroll
draw_sprite(buffer, bullet_bmp[num], startx[n] + x-scrollx[n],
starty[n] + y-scrolly[n]);
}
//draw bullet on radar
putpixel(buffer, radarx + x/10, radary + y/12, WHITE);
}
}
void Phy::Axis::moveAng(float ang) {
float last_ang = angle;
if (angle > 900) {
angle = 900;
}
else if (angle < -900) {
angle = -900;
}
if (!inside(-450, 450, angle)) {
collide = false;
}
else collide = true;
angle = ang;
angular_velocity = (angle - last_ang) / TIMESTEP;
x_offset = playerheight * sin(angle * 3.1415 / 1800);
velocity.y = playerheight * (angular_velocity * 3.1415 / 1800) * cos(angle * 3.1415 / 1800);
}
intersection_context surface_mobius::intersect(const ray &emission_ray) const {
if (!collision_test(emission_ray)) {
return null_intersect;
}
double ox = emission_ray.origin.x;
double oy = emission_ray.origin.y;
double oz = emission_ray.origin.z;
double dx = emission_ray.dir.x;
double dy = emission_ray.dir.y;
double dz = emission_ray.dir.z;
double R = radius;
double coef_0 = 0, coef_1 = 0, coef_2 = 0, coef_3 = 0;
coef_0 = ox * ox * oy + oy * oy * oy - 2 * ox * ox * oz - 2 * oy * oy * oz + oy * oz * oz - 2 * ox * oz * R - oy * R * R;
coef_1 = dy * ox * ox - 2 * dz * ox * ox + 2 * dx * ox * oy + 3 * dy * oy * oy - 2 * dz * oy * oy - 4 * dx * ox * oz - 4 * dy * oy * oz + 2 * dz * oy * oz + dy * oz * oz - 2 * dz * ox * R - 2 * dx * oz * R - dy * R * R;
coef_2 = 2 * dx * dy * ox - 4 * dx * dz * ox + dx * dx * oy + 3 * dy * dy * oy - 4 * dy * dz * oy + dz * dz * oy - 2 * dx * dx * oz - 2 * dy * dy * oz + 2 * dy * dz * oz - 2 * dx * dz * R;
coef_3 = dx * dx * dy + dy * dy * dy - 2 * dx * dx * dz - 2 * dy * dy * dz + dy * dz * dz;
std::vector<double> coef, result;
coef.push_back(coef_0);
coef.push_back(coef_1);
coef.push_back(coef_2);
coef.push_back(coef_3);
result = equation_solve(coef, 3);
for (std::vector<double>::iterator iter = result.begin(); iter != result.end(); ++iter) {
if (*iter > epsilon && inside(emission_ray.at(*iter))) {
return intersection_context(*iter);
}
}
return null_intersect;
}
bool cTileRasterizer::preTile(int tile_x,int tile_y)
{
Vec2f bary;
uint32 zMin = mZMax,zMax = mZMin,z;
// Fixme: Add Tomas' conservative tile test
int xadd[4] = {0,mTileWidth-1,0,mTileWidth-1};
int yadd[4] = {0,0,mTileHeight-1,mTileHeight-1};
// add specific tile code here (to be executed just before the pixels are being traversed)
for (int i = 0; i < 4; i++) {
inside(tile_x*mTileWidth + xadd[i],tile_y*mTileHeight + yadd[i]);
bary = computeBarycentricCoords();
z = interpolateZ(bary);
zMin = MIN2(zMin,z);
zMax = MAX2(zMax,z);
}
zMin = MAX2(mZMin,zMin);
zMax = MIN2(mZMax,zMax);
return !mDepthUnit->cullTile(zMin,zMax,tile_x*mTileWidth,tile_y*mTileHeight);
}
void cTileRasterizer::rasterizeTriangle(void)
{
ASSERT(mAPI);
//ASSERT(mFrameBuffer);
ASSERT(mDepthUnit);
#if 0
mBBox2DMin.debugprint();
mBBox2DMax.debugprint();
mTileCoordsMin.debugprint();
mTileCoordsMax.debugprint();
printf("\n");
#endif
// start with brute force traversal of tile inside bbox of triangle: visit every pixel in there
// loop over all tiles
for(int byi=mTileCoordsMin.y; byi<mTileCoordsMax.y; byi++)
{
for(int bxi=mTileCoordsMin.x; bxi<mTileCoordsMax.x; bxi++)
{
// loop over all pixels inside current tiles
preTile(bxi,byi);
for(int yi=byi*mTileHeight; yi<(byi+1)*mTileHeight ;yi++)
{
for(int xi=bxi*mTileWidth; xi<(bxi+1)*mTileWidth ;xi++)
{
if(inside(xi,yi)) // use edge functions for inclusion testing
{
perFragment(xi,yi);
}
}
}
postTile(bxi,byi);
}
}
}
// FIND CELL
//-------------------------------------------------------------------------
Index UniformGrid::findCell(const Vector &point, int flags) const {
const bool acceptGhost = flags&AcceptGhost;
for (int c=0; c<3; ++c) {
if (point[c] < m_min[c])
return InvalidIndex;
if (point[c] > m_max[c])
return InvalidIndex;
}
Index n[3];
for (int c=0; c<3; ++c) {
n[c] = (point[c]-m_min[c])/m_dist[c];
if (n[c] >= m_numDivisions[c]-1)
n[c] = m_numDivisions[c]-2;
}
Index el = cellIndex(n, m_numDivisions);
assert(inside(el, point));
if (acceptGhost || !isGhostCell(el))
return el;
return InvalidIndex;
}
float CLevelGraph::farthest_vertex_in_direction(u32 start_vertex_id, const Fvector &start_point, const Fvector &finish_point, u32 &finish_vertex_id, xr_vector<bool> *tpaMarks, bool check_accessability) const
{
SContour _contour;
const_iterator I,E;
int saved_index, iPrevIndex = -1, iNextNode;
Fvector temp_point = start_point;
float fDistance = start_point.distance_to(finish_point), fCurDistance = 0.f;
u32 dwCurNode = start_vertex_id;
while (!inside(vertex(dwCurNode),finish_point) && (fCurDistance < (fDistance + EPS_L))) {
begin (dwCurNode,I,E);
saved_index = -1;
contour (_contour,dwCurNode);
for ( ; I != E; ++I) {
iNextNode = value(dwCurNode,I);
if (valid_vertex_id(iNextNode) && (iPrevIndex != iNextNode))
choose_point(start_point,finish_point,_contour, iNextNode,temp_point,saved_index);
}
if (saved_index > -1) {
if (check_accessability && !is_accessible(saved_index))
return (fCurDistance);
fCurDistance = start_point.distance_to_xz(temp_point);
iPrevIndex = dwCurNode;
dwCurNode = saved_index;
}
else
return (fCurDistance);
if (tpaMarks)
(*tpaMarks)[dwCurNode] = true;
finish_vertex_id = dwCurNode;
}
return (fCurDistance);
}
//--------------------------------------------------------------
// mouse moved
void mgUglyList::mouseMove(
void* source,
int x,
int y,
int modifiers)
{
mgDimension size;
getSize(size);
mgRectangle inside(0, 0, size.m_width, size.m_height);
if (m_upFrame != NULL)
m_upFrame->getInsideRect(inside);
// find entry under point
y = y - inside.m_y;
int index = (y/m_lineHeight) + m_scrollPosn;
if (index < m_entries.length())
{
m_hover = index;
damage();
}
else m_hover = -1;
}
void reduce_right(int size)
{
check(inside(size));
if(size==0)
return;
//overhead
if(overhead_for(count()-size)<=threshold())
{
//reset
reset(count()-size,size);
//update
_count-=size;
return;
}
//save
self buffer;
buffer.attach(*this);
//allocate
allocate(buffer.count()-size);
//move
move(0,buffer,0,count());
}
void updateexplosion(int num)
{
int x, y,i;
for(i=0;i<MAXBULLET;i++){
if (!explosions[num]->alive) continue ;
//draw explosion (maxframe) times
if (explosions[num]->curframe++ < explosions[num]->maxframe)
{
x = explosions[num]->x;
y = explosions[num]->y;
//draw explosion in enemy window
rotate_sprite(buffer, explode_bmp,
x + rand()%10 - 20, y + rand()%10 - 20,
itofix(rand()%255));
//draw explosion in "my" window if enemy is visible
x = scrollx[!num] + SCROLLW/2;
y = scrolly[!num] + SCROLLH/2;
if (inside(x, y,
scrollx[num], scrolly[num],
scrollx[num] + SCROLLW, scrolly[num] + SCROLLH))
{
//but only draw if explosion is active
if (explosions[num]->alive)
rotate_sprite(buffer, explode_bmp,
startx[num]+x-scrollx[num] + rand()%10 - 20,
starty[num]+y-scrolly[num] + rand()%10 - 20,
itofix(rand()%255));
}
}
else
{
explosions[num]->alive = 0;
explosions[num]->curframe = 0;
}
}
}
template <typename T2> void copy(int index,T2* pointer,int size)
{
check(inside(index,size));
check(pointer!=nullptr);
if(size==0)
return;
//copyable
if(is_copyable<T2>())
{
memcpy(get()+index,pointer,sizeof(T)*size);
return;
}
//set
for(int i=0;i<size;i++)
{
at(i+index)=pointer[i];
}
}
//******************************************************************************
int get_intersection_line_image (crystal *a, crystal *b){
if ( (a == NULL) || (b == NULL) ){
error_msg("get_intersection_line_image(): se recibió uno o más cristales nulos");
}
vector *origin, *direction;
origin = a->position;
direction = diff(b->position, a->position);
//variables que representan la cara actual de un voxel, el tipo de plano, y el índice del punto encontrado
int voxel_face, plane_type, index=0,result;
vector *aux, *inter[2];
inter[0] = inter[1] = NULL;
//calcula la intersección de la recta con los 6 planos que contiene las caras del voxel
for (voxel_face = 0; voxel_face < 6; voxel_face++){
plane_type = voxel_face / 2; //cada dos caras del voxel se cambia el tipo de plano
aux = get_intersection_line_plane(plane_type, p_planes[voxel_face], origin, direction);
if ( (aux != NULL) && ( inside( aux ) ) ){ //determina si la intersección está dentro de la cara
inter[index] = aux;
index++;
if (index == 2 && equal(inter[0], inter[1]) ){ //si hay dos puntos iguales se ignora el segundo
index--;
free(inter[1]);
inter[1] = NULL;
}else if(index == 2){ //si hay dos puntos distintos se termina el cálculo.
break; // en este punto se podría calcular la intersección.
}
}else{
free( aux );
}
}
result = (inter[0] != NULL) && (inter[1] != NULL);
free ( inter[0] );
free ( inter[1] );
free ( direction );
return result;
}
const bool AxisAlignedBoundingBox::outside(const QVector3D & vertex) const
{
return !inside(vertex);
}
/*
dwarf stuff.
*/
void dwarves()
{
int i, j, k, attack, stick, dtotal;
/* See if dwarves allowed here */
if (g.newloc == 0 || forced(g.newloc) || g.loc_attrib[g.newloc] & NOPIRAT)
return;
/* See if dwarves are active. */
if (!g.dflag) {
if (inside(g.newloc))
++g.dflag;
return;
}
/* If first close encounter (of 3rd kind) */
if (g.dflag == 1) {
if (!inside(g.newloc) || pct(85))
return;
++g.dflag;
/* kill 0, 1 or 2 of the dwarfs */
for (i = 1; i < 3; ++i)
if (pct(50))
g.dloc[(ranz(DWARFMAX - 1)) + 1] = 0;
/* If any of the survivors is at location, use alternate choise */
for (i = 1; i <= DWARFMAX; ++i) {
if (g.dloc[i] == g.newloc)
g.dloc[i] = g.daltloc;
g.odloc[i] = g.dloc[i];
}
rspeak(3);
drop(AXE, g.newloc);
return;
}
/* Things are in full swing. Move each dwarf at random, except if
he's seen us then he sticks with us. Dwarfs never go to
locations outside or meet the bear or following him into dead
end in maze. And of couse, dead dwarves don't do much of
anything. */
dtotal = attack = stick = 0;
for (i = 1; i <= DWARFMAX; ++i) {
if (g.dloc[i] == 0)
continue;
/* Move a dwarf at random. we don't have a matrix around to do
it as in the original version... */
do
j = ranz(106) + 15;
/* allowed area */
while (j == g.odloc[i] || j == g.dloc[i]
|| g.loc_attrib[j] & NOPIRAT);
if (j == 0)
bug(36);
g.odloc[i] = g.dloc[i];
g.dloc[i] = j;
g.dseen[i] = ((g.dseen[i] && inside(g.newloc))
|| g.dloc[i] == g.newloc
|| g.odloc[i] == g.newloc);
if (g.dseen[i]) {
g.dloc[i] = g.newloc;
if (i == DWARFMAX)
dopirate();
else {
++dtotal;
if (g.odloc[i] == g.dloc[i]) {
++attack;
if (g.knfloc >= 0)
g.knfloc = g.newloc;
if (ranz(1000) < (45 * (g.dflag - 2)))
++stick;
}
}
}
}
/* Now we know shat's happing, let's tell the poor sucker about it */
if (dtotal == 0)
return;
if (dtotal > 1)
printf("There are %d threatening little dwarves in the room with you!\n", dtotal);
else
rspeak(4);
if (attack == 0)
return;
if (g.dflag == 2)
++g.dflag;
if (attack > 1) {
printf("%d of them throw knives at you!!\n", attack);
k = 6;
} else {
rspeak(5);
k = 52;
}
if (stick <= 1) {
rspeak(stick + k);
if (stick == 0)
return;
} else
printf("%d of them get you !!!\n", stick);
g.oldloc2 = g.newloc;
death();
return;
}
bool Geofence::inside(const struct vehicle_global_position_s &global_position)
{
return inside(global_position.lat, global_position.lon, global_position.alt);
}
bool Geofence::inside(const struct vehicle_global_position_s &global_position, float baro_altitude_amsl)
{
return inside(global_position.lat, global_position.lon, baro_altitude_amsl);
}
// GET INTERPOLATOR
//-------------------------------------------------------------------------
GridInterface::Interpolator RectilinearGrid::getInterpolator(Index elem, const Vector &point, DataBase::Mapping mapping, GridInterface::InterpolationMode mode) const {
vassert(inside(elem, point));
#ifdef INTERPOL_DEBUG
if (!inside(elem, point)) {
return Interpolator();
}
#endif
if (mapping == DataBase::Element) {
std::vector<Scalar> weights(1, 1.);
std::vector<Index> indices(1, elem);
return Interpolator(weights, indices);
}
std::array<Index,3> n = cellCoordinates(elem, m_numDivisions);
std::array<Index,8> cl = cellVertices(elem, m_numDivisions);
Vector corner0(m_coords[0][n[0]], m_coords[1][n[1]], m_coords[2][n[2]]);
Vector corner1(m_coords[0][n[0]+1], m_coords[1][n[1]+1], m_coords[2][n[2]+1]);
const Vector diff = point-corner0;
const Vector size = corner1-corner0;
const Index nvert = 8;
std::vector<Index> indices((mode==Linear || mode==Mean) ? nvert : 1);
std::vector<Scalar> weights((mode==Linear || mode==Mean) ? nvert : 1);
if (mode == Mean) {
const Scalar w = Scalar(1)/nvert;
for (Index i=0; i<nvert; ++i) {
indices[i] = cl[i];
weights[i] = w;
}
} else if (mode == Linear) {
vassert(nvert == 8);
for (Index i=0; i<nvert; ++i) {
indices[i] = cl[i];
}
Vector ss = diff;
for (int c=0; c<3; ++c) {
ss[c] /= size[c];
}
weights[0] = (1-ss[0])*(1-ss[1])*(1-ss[2]);
weights[1] = ss[0]*(1-ss[1])*(1-ss[2]);
weights[2] = ss[0]*ss[1]*(1-ss[2]);
weights[3] = (1-ss[0])*ss[1]*(1-ss[2]);
weights[4] = (1-ss[0])*(1-ss[1])*ss[2];
weights[5] = ss[0]*(1-ss[1])*ss[2];
weights[6] = ss[0]*ss[1]*ss[2];
weights[7] = (1-ss[0])*ss[1]*ss[2];
} else {
weights[0] = 1;
if (mode == First) {
indices[0] = cl[0];
} else if(mode == Nearest) {
Vector ss = diff;
int nearest=0;
for (int c=0; c<3; ++c) {
nearest <<= 1;
ss[c] /= size[c];
if (ss[c] < 0.5)
nearest |= 1;
}
indices[0] = cl[nearest];
}
}
return Interpolator(weights, indices);
}
VLD::VLD(const ImageScale& series, T const& P1, T const& P2) : contrast(0.0) {
//============== initializing============//
principleAngle.fill(0);
descriptor.fill(0);
weight.fill(0);
begin_point[0]=P1.x;
begin_point[1]=P1.y;
end_point[0]=P2.x;
end_point[1]=P2.y;
float dy= float(end_point[1]- begin_point[1]), dx= float(end_point[0]- begin_point[0]);
distance=sqrt(dy*dy+dx*dx);
if (distance==0)
std::cerr<<"Two SIFT points have the same coordinate"<<std::endl;
float radius=std::max(distance/float(dimension+1), 2.0f);//at least 2
double mainAngle= get_orientation();//absolute angle
int image_index=series.getIndex(radius);
const Image<float> & ang = series.angles[image_index];
const Image<float> & m = series.magnitudes[image_index];
double ratio=series.ratios[image_index];
// std::cout<<std::endl<<"index of image "<<radius<<" "<<image_index<<" "<<ratio<<std::endl;
int w=m.Width() ,h=m.Height();
float r=float(radius/ratio);//series.radius_size;
float sigma2=r*r;
//======Computing the descriptors=====//
for (int i=0;i<dimension; i++){
double statistic[binNum];
std::fill_n(statistic, binNum, 0.0);
float xi= float(begin_point[0]+ float(i+1)/(dimension+1)*(dx));
float yi= float(begin_point[1]+ float(i+1)/(dimension+1)*(dy));
yi/=float(ratio);
xi/=float(ratio);
for (int y=int(yi-r);y<=int(yi+r+0.5);y++){
for (int x=int(xi-r);x<=int(xi+r+0.5);x++){
float d=point_distance(xi,yi,float(x),float(y));
if (d<=r && inside(w,h,x,y,1)){
//================angle and magnitude==========================//
double angle;
if (ang(y,x)>=0)
angle=ang(y,x)-mainAngle;//relative angle
else angle=0.0;
//cout<<angle<<endl;
while (angle<0)
angle +=2*PI;
while (angle>=2*PI)
angle -=2*PI;
//===============principle angle==============================//
int index=int(angle*binNum/(2*PI)+0.5);
double Gweight=exp(-d*d/4.5/sigma2)*(m(y,x));
// std::cout<<"in number "<<image_index<<" "<<x<<" "<<y<<" "<<m(y,x)<<std::endl;
if (index<binNum)
statistic[index]+=Gweight;
else // possible since the 0.5
statistic[0]+=Gweight;
//==============the descriptor===============================//
int index2=int(angle*subdirection/(2*PI)+0.5);
assert(index2>=0 && index2<=subdirection);
if (index2<subdirection)
descriptor[subdirection*i+index2]+=Gweight;
else descriptor[subdirection*i]+=Gweight;// possible since the 0.5
}
}
}
//=====================find the biggest angle of ith SIFT==================//
int index,second_index;
max(statistic,weight[i],binNum,index,second_index);
principleAngle[i]=index;
}
normalize_weight(descriptor);
contrast= std::accumulate(weight.begin(), weight.end(), 0.0);
contrast/=distance/ratio;
normalize_weight(weight);
}
void ofxDraggable::touchMoved(ofTouchEventArgs &touch) {
if (!touches.empty()) {
vector<ofTouchEventArgs>::iterator iter;
for (iter=touches.begin(); iter!=touches.end(); iter++) {
if (iter->id == touch.id) {
break;
}
}
if (iter==touches.end()) {
cout << "ofxDraggable::touchMoved - can't find touch" << endl;
} else {
switch (touches.size()) {
case 1:
if (inside(touch)) {
mat.postMult(ofMatrix4x4::newTranslationMatrix(ofVec2f(touch.x,touch.y)-ofVec2f(iter->x,iter->y)));
*iter = touch;
} else {
touchUp(touch);
}
break;
case 2: {
ofVec2f p2(touch.x,touch.y);
ofVec2f p1(iter->x,iter->y);
*iter = touch;
ofTouchEventArgs &second = touches[1-distance(touches.begin(), iter)];
ofVec2f q(second.x,second.y);
ofVec2f qp1 = q-p1;
ofVec2f qp2 = q-p2;
ofVec2f trans(0.5*(qp1-qp2));
float scl = qp2.length()/qp1.length();
float rot = (atan2(qp2.y, qp2.x)-atan2(qp1.y, qp1.x))*180.0f/PI;
ofVec2f anchor = mat.getInverse().preMult(ofVec3f(0.5*(p1+q)));
ofMatrix4x4 temp(mat);
temp.preMult(ofMatrix4x4::newScaleMatrix(scl, scl, 1.0));
temp.preMult(ofMatrix4x4::newRotationMatrix(rot, ofVec3f(0,0,1.0)));
ofVec2f vec = temp.preMult(ofVec3f(anchor))-mat.preMult(ofVec3f(anchor));
// cout << anchor <<"\t" << vec << "\t" << scl << endl;
temp.postMult(ofMatrix4x4::newTranslationMatrix(trans-vec));
mat=temp;
} break;
default:
break;
}
}
}
};
// ---------------------------------------------------------------------------
//
// ------------
void bXMapLineUp::make(){
bGenericGeoElement* o;
ivx_rect vr,vrb,bnd;
bArray arr(*_gapp->selMgr()->elements());
int i,j,ko,kv;
int imax,jmax,n=0;
insidePtr inside;
ivertices *ref,*vxs;
i2dvertex p,lp;
bool end=false;
int hd=round(Measure_d2i(_gapp,_hd));
int vd=round(Measure_d2i(_gapp,_vd));
if(_use_surf){
inside=ivx_in_ivs;
_gapp->cntMgr()->elements()->get(1,&o);
o->getBounds(&bnd);
o->getVertices(&ref);
imax=1+(bnd.bottom-bnd.top)/vd;
jmax=1+(bnd.right-bnd.left)/hd;
}
else{
inside=dummy_ivx_in_ivs;
arr.get(1,&o);
o->getBounds(&bnd);
vr=bnd;
o->getVertices(&vxs);
n+=vxs->nv;
for(i=2;i<arr.count();i++){
arr.get(i,&o);
o->getBounds(&vrb);
ivr_union(&vrb,&vr,&bnd);
vr=bnd;
o->getVertices(&vxs);
n+=vxs->nv;
}
ref=NULL;
if(_kind==kXMapLineUpKindLine){
imax=ceil((double)n/_nb);
jmax=_nb;
}
else{
imax=_nb;
jmax=ceil((double)n/_nb);
}
}
_gapp->layersMgr()->SetObjInvalidation(false);
char msg[__MESSAGE_STRING_LENGTH_MAX__];
char ttl[__MESSAGE_STRING_LENGTH_MAX__];
get_localized_name(ttl,getbundle());
message_string(kMsgProgress,msg,1);
bProgressWait wt(ttl,msg,true,true,arr.count());
bEventLog log(_gapp,this);
ko=1;
kv=0;
arr.get(ko,&o);
o->getVertices(&vxs);
lp.h=bnd.left;
lp.v=bnd.top;
for(i=0;i<imax;i++){
for(j=0;j<jmax;j++){
p.h=bnd.left+j*hd;
p.v=bnd.top+i*vd;
if(!inside(&p,ref,1)){
continue;
}
lp=p;
vxs->vx.vx2[kv]=p;
kv++;
if(kv==vxs->nv){
kv=0;
ko++;
o->setVertices(vxs);
if(!wt.set_progress(ko)){
end=true;
break;
}
if(!arr.get(ko,&o)){
end=true;
break;
}
o->getVertices(&vxs);
}
}
if(end){
break;
}
}
if(!end){
if(kv<vxs->nv){
for(i=kv;i<vxs->nv;i++){
vxs->vx.vx2[kv]=lp;
}
o->setVertices(vxs);
ko++;
}
for(i=ko;i<=arr.count();i++){
if(!wt.set_progress(i)){
break;
}
arr.get(i,&o);
o->getVertices(&vxs);
for(j=0;j<vxs->nv;j++){
vxs->vx.vx2[j]=lp;
}
o->setVertices(vxs);
}
}
_gapp->layersMgr()->SetObjInvalidation(true);
log.close();
}
void MainMenu::update()
{
if ( bDrawBackground || MPlayer || LogisticsData::instance->isSingleMission() )
{
getButton( MM_MSG_SAVE )->disable( true );
}
else
getButton( MM_MSG_SAVE )->disable( false );
getButton( MM_MSG_MULTIPLAYER )->disable( true );
if ( introMovie )
{
userInput->mouseOff();
if (userInput->getKeyDown(KEY_SPACE) || userInput->getKeyDown(KEY_ESCAPE) || userInput->getKeyDown(KEY_LMOUSE))
{
introMovie->stop();
}
bool result = introMovie->update();
if (result)
{
//Movie's Over.
//Whack it.
delete introMovie;
introMovie = NULL;
}
return;
}
if (!musicStarted)
{
musicStarted = true;
soundSystem->setMusicVolume( prefs.MusicVolume );
soundSystem->playDigitalMusic(tuneId);
}
if ( endAnim.isDone() )
{
status = endResult;
}
if ( bDrawMechlopedia )
{
mechlopedia->update();
if ( mechlopedia->getStatus() == NEXT )
{
beginFadeIn( 0 );
bDrawMechlopedia = 0;
if ( !bDrawBackground )
status = NEXT;
}
return;
}
if ( bOptions )
{
OptionsScreenWrapper::status_type result = optionsScreenWrapper->update();
if (result == OptionsScreenWrapper::opt_DONE)
{
optionsScreenWrapper->end();
bOptions = 0;
}
return;
}
if ( (bSave || bLoad || bLoadCampaign) && endAnim.isDone() )
{
LogisticsSaveDialog::instance()->update();
if ( LogisticsSaveDialog::instance()->getStatus() == LogisticsScreen::YES
&& LogisticsSaveDialog::instance()->isDone() )
{
char name[1024];
strcpy( name, savePath );
strcat( name, LogisticsSaveDialog::instance()->getFileName() );
int index = strlen( name ) - 4;
if ( _stricmp( &name[index], ".fit" ) !=0 )
strcat( name, ".fit" );
FitIniFile file;
if ( bSave )
{
// make sure the save game directory exists, if not create it
CreateDirectory( savePath, NULL );
if ( NO_ERR != file.createWithCase( name ) )
{
char errorStr[1024];
sprintf( errorStr, "couldn't open the file %s", name );
Assert( 0, 0, errorStr );
}
else
{
LogisticsData::instance->save( file );
LogisticsSaveDialog::instance()->end();
file.close();
}
bSave = bLoad = 0;
status = NEXT;
}
else if ( bLoadCampaign )
{
LogisticsData::instance->startNewCampaign( LogisticsSaveDialog::instance()->getFileName());
status = endResult = RESTART;
// background.beginFadeOut( 1.0f );
// beginFadeOut( 1.0f );
bLoadCampaign = 0;
}
else
{
if ( NO_ERR != file.open( name ) )
{
char errorStr[1024];
sprintf( errorStr, "couldn't open the file %s", name );
Assert( 0, 0, errorStr );
}
else
LogisticsData::instance->load( file );
LogisticsSaveDialog::instance()->end();
bSave = bLoad = 0;
status = RESTART;
file.close();
}
}
else if ( LogisticsSaveDialog::instance()->getStatus() == LogisticsScreen::NO &&
LogisticsSaveDialog::instance()->isDone())
{
LogisticsSaveDialog::instance()->end();
bSave = bLoad = bLoadCampaign = 0 ;
if ( !bDrawBackground )
status = NEXT;
else
{
beginAnim.begin();
endAnim.end();
}
}
return;
}
else if ( bLoadSingle && endAnim.isDone())
{
singleLoadDlg.update();
if ( singleLoadDlg.isDone() )
{
if ( singleLoadDlg.getStatus() == YES )
{
const char* pName = singleLoadDlg.getMapFileName();
if (pName)
{
LogisticsData::instance->setSingleMission( pName );
status = SKIPONENEXT;
}
}
bLoadSingle = 0;
beginAnim.begin();
endAnim.end();
}
}
else if ( promptToQuit )
{
LogisticsOKDialog::instance()->update();
{
if ( LogisticsOKDialog::instance()->getStatus() == LogisticsScreen::YES )
{
soundSystem->playDigitalSample( LOG_EXITGAME );
gos_TerminateApplication();
promptToQuit = 0;
}
else if ( LogisticsOKDialog::instance()->getStatus() == LogisticsScreen::NO)
{
if ( LogisticsOKDialog::instance()->isDone() )
promptToQuit = 0;
}
}
}
else if ( bLegal )
{
LogisticsLegalDialog::instance()->update();
if ( LogisticsLegalDialog::instance()->isDone() )
{
LogisticsLegalDialog::instance()->end();
bLegal = 0;
}
}
else if ( bHostLeftDlg )
{
LogisticsOneButtonDialog::instance()->update();
if ( LogisticsOneButtonDialog::instance()->isDone() )
{
LogisticsOneButtonDialog::instance()->end();
bHostLeftDlg = 0;
}
if ( MPlayer ) // has to be done, but can't be done when initialized
{
MPlayer->closeSession();
delete MPlayer;
MPlayer = NULL;
}
}
else if ( promptToDisconnect )
{
LogisticsOKDialog::instance()->update();
if ( LogisticsOKDialog::instance()->isDone() )
{
if ( YES == LogisticsOKDialog::instance()->getStatus() )
{
if ( MPlayer )
{
MPlayer->closeSession();
delete MPlayer;
MPlayer = NULL;
}
long oldRes = endResult;
endResult = 0;
handleMessage( oldRes, oldRes );
setDrawBackground( true );
}
else
handleMessage( NEXT, NEXT );
promptToDisconnect = 0;
}
}
else
{
if ( bDrawBackground )
{
if ( !intro.animObjects[0].isDone() )
{
intro.update();
background.update();
if (userInput->getKeyDown(KEY_ESCAPE) || (Environment.Renderer == 3))
{
introOver = true;
userInput->mouseOn();
soundSystem->playDigitalSample( LOG_MAINMENUBUTTON );
}
else if ( !introOver )
return;
}
else
{
background.update();
if ( !introOver )
soundSystem->playDigitalSample( LOG_MAINMENUBUTTON );
introOver = true;
userInput->mouseOn();
}
}
beginAnim.update();
endAnim.update();
LogisticsScreen::update();
if ( (!bLoadSingle) && userInput->isLeftClick() && !inside( userInput->getMouseX(), userInput->getMouseY() ) )
{
handleMessage( 0, MM_MSG_RETURN_TO_GAME );
}
}
}
Real CylindricalSurface::distance(const Real3& coord) const
{
return inside().distance(coord); //XXX: This is too slow.
}
bool Frustum::cull(const Point &a, const Point &b, const Point &c, const Point &d) const
{
return inside(a) || inside(b) || inside(c) || inside(d);
}
void
GcScopeButton::paintEvent(QPaintEvent *)
{
QPainter painter(this);
painter.save();
painter.setRenderHints(QPainter::Antialiasing|QPainter::TextAntialiasing, true);
// widget rectangle
QRectF body(0,0,width(), height());
QRectF off(0,1,width(), height());
QRectF inside(0,2,width(), height()-4);
QPainterPath clip;
clip.addRect(inside);
painter.setClipPath(clip);
painter.setPen(Qt::NoPen);
if (checked && underMouse()) {
painter.setBrush(QBrush(QColor(150,150,150)));
painter.drawRoundedRect(body, 19, 11);
if (highlighted) {
QColor over = GColor(CCALCURRENT);
over.setAlpha(180);
painter.setBrush(over);
painter.drawRoundedRect(body, 19, 11);
}
if (red) {
QColor over = QColor(Qt::red);
over.setAlpha(180);
painter.setBrush(over);
painter.drawRoundedRect(body, 19, 11);
}
} else if (checked && !underMouse()) {
painter.setBrush(QBrush(QColor(120,120,120)));
painter.drawRoundedRect(body, 19, 11);
if (highlighted) {
QColor over = GColor(CCALCURRENT);
over.setAlpha(180);
painter.setBrush(over);
painter.drawRoundedRect(body, 19, 11);
}
if (red) {
QColor over = QColor(Qt::red);
over.setAlpha(180);
painter.setBrush(over);
painter.drawRoundedRect(body, 19, 11);
}
} else if (!checked && underMouse()) {
painter.setBrush(QBrush(QColor(180,180,180)));
painter.drawRoundedRect(body, 19, 11);
} else if (!checked && !underMouse()) {
}
// now paint the text
// don't do all that offset nonsense for flat style
// set fg checked and unchecked colors
QColor checkedCol(240,240,240), uncheckedCol(30,30,30,200);
if (!GCColor::isFlat()) {
// metal style
painter.setPen((underMouse() || checked) ? QColor(50,50,50) : Qt::white);
painter.drawText(off, text, Qt::AlignVCenter | Qt::AlignCenter);
} else {
// adjust colors if flat and dark
if (GCColor::luminance(GColor(CCHROME)) < 127) {
// dark background so checked is white and unchecked is light gray
checkedCol = QColor(Qt::white);
uncheckedCol = QColor(Qt::lightGray);
}
}
// draw the text
painter.setPen((underMouse() || checked) ? checkedCol : uncheckedCol);
painter.drawText(body, text, Qt::AlignVCenter | Qt::AlignCenter);
painter.restore();
}
/*
special time limit stuff...
*/
int stimer()
{
int i, spk;
static int clock3;
g.foobar = g.foobar > 0 ? -g.foobar : 0;
g.combo = g.combo > 0 ? -g.combo : 0;
if (g.turns > 310 && g.abbnum != 10000 && !g.terse)
rspeak(273);
/* Bump all the right clocks for reconning battery life and closing */
if (g.closed) {
clock3--;
if (clock3 == 0) {
g.prop[PHONE] = 0;
g.prop[BOOTH] = 0;
rspeak(284);
} else if (clock3 < -7) {
rspeak(254);
normend();
return (TRUE);
}
}
if (g.tally == 0 && inside(g.loc) && g.loc != Y2)
--g.clock;
if (g.clock == 0) {
/* Start closing the cave */
g.prop[GRATE] = 0;
biton(GRATE, LOCKBT);
bitoff(GRATE, OPENBT);
g.prop[FISSURE] = 0;
g.prop[TDOOR] = 0;
biton(TDOOR, LOCKBT);
bitoff(TDOOR, OPENBT);
g.prop[TDOOR2] = 0;
biton(TDOOR2, LOCKBT);
bitoff(TDOOR2, OPENBT);
for (i = 1; i <= DWARFMAX; ++i) {
g.dseen[i] = FALSE;
g.dloc[i] = 0;
}
move(TROLL, 0);
move((TROLL + MAXOBJ), 0);
move(TROLL2, plac[TROLL]);
move((TROLL2 + MAXOBJ), fixd[TROLL]);
juggle(CHASM);
if (g.prop[BEAR] != 3)
destroy(BEAR);
g.prop[CHAIN] = 0;
g.fixed[CHAIN] = 0;
g.prop[AXE] = 0;
g.fixed[AXE] = 0;
rspeak(129);
g.clock = -1;
g.closing = TRUE;
return (FALSE);
}
if (g.clock < 0)
--g.clock2;
if (g.clock2 == 0) {
/* Set up storage room... and close the cave... */
g.prop[BOTTLE] = put(BOTTLE, 115, 8);
g.holder[BOTTLE] = WATER;
g.place[WATER] = -BOTTLE;
g.hlink[WATER] = 0;
bitoff(BOTTLE, OPENBT);
g.prop[PLANT] = put(PLANT, 115, 0);
g.prop[OYSTER] = put(OYSTER, 115, 0);
g.prop[LAMP] = put(LAMP, 115, 0);
g.prop[ROD] = put(ROD, 115, 0);
g.prop[DWARF] = put(DWARF, 115, 0);
g.loc = 115;
g.oldloc = 115;
g.newloc = 115;
/* Leave the grate with normal (non-negative property). */
put(GRATE, 116, 0);
biton(GRATE, LOCKBT);
bitoff(GRATE, OPENBT);
g.prop[SNAKE] = put(SNAKE, 116, 1);
g.prop[BIRD] = put(BIRD, 116, 1);
g.prop[CAGE] = put(CAGE, 116, 0);
g.prop[ROD2] = put(ROD2, 116, 0);
g.prop[PILLOW] = put(PILLOW, 116, 0);
g.prop[BOOTH] = put(BOOTH, 116, -3);
g.fixed[BOOTH] = 115;
g.prop[PHONE] = put(PHONE, 212, -4);
g.prop[MIRROR] = put(MIRROR, 115, 0);
g.fixed[MIRROR] = 116;
g.prop[BOOK2] = put(BOOK2, 115, 0);
for (i = 1; i < MAXOBJ; ++i) {
if (toting(i) && enclosed(i))
extract(i);
if (toting(i))
destroy(i);
}
rspeak(132);
g.closed = TRUE;
clock3 = 20 + ranz(20);
newtravel = TRUE;
return (TRUE);
}
if (g.prop[LAMP] == 1)
--g.limit;
if (g.limit == 0) {
--g.limit;
g.prop[LAMP] = 0;
if (here(LAMP))
rspeak(184);
return (FALSE);
}
if (g.limit < 0 && outside(g.loc)) {
rspeak(185);
normend();
return (TRUE);
}
if (g.limit <= 40) {
if (g.lmwarn || !here(LAMP))
return (FALSE);
g.lmwarn = TRUE;
spk = 187;
if (g.prop[BATTERIES] == 1)
spk = 323;
if (g.place[BATTERIES] == 0)
spk = 183;
if (g.prop[VEND] == 1)
spk = 189;
rspeak(spk);
return (FALSE);
}
return (FALSE);
}
/*
* Clipper
*/
void
clip(
point2d_t *outer_vlist_out, /* [out] */
int *outer_len_inout, /* [out] */
point2d_t *inner_vlist_out, /* [out] */
int *inner_len_inout, /* [out] */
const point2d_t *vlist_in,
int len_in,
const plane2d_t *clip_plane)
{
int j;
ri_float_t t;
point2d_t *s_ptr, *p_ptr;
point2d_t newv;
/* start with last vertex. */
s_ptr = (point2d_t *)&vlist_in[len_in - 1];
for (j = 0; j < len_in; j++) {
p_ptr = (point2d_t *)&vlist_in[j]; /* current vertex */
printf("p ptx = %f, %f\n", (*p_ptr)[0], (*p_ptr)[1]);
if (inside( (*p_ptr), clip_plane )) {
if (inside( (*s_ptr), clip_plane )) {
output(inner_vlist_out, inner_len_inout, (*p_ptr) );
/* No outer */
} else {
t = intersect(newv, (*s_ptr), (*p_ptr), clip_plane);
printf("t = %f, new = %f, %f, p = %f, %f\n",
t, newv[0], newv[1], (*p_ptr)[0], (*p_ptr)[1]);
if (t < 1.0) { /* If t == 1.0, don't output newv */
printf("IO, output new\n");
output(inner_vlist_out, inner_len_inout, newv);
}
output(inner_vlist_out, inner_len_inout, (*p_ptr));
output(outer_vlist_out, outer_len_inout, newv);
}
} else {
if (inside( (*s_ptr), clip_plane) ) {
t = intersect(newv, (*s_ptr), (*p_ptr), clip_plane);
printf("t = %f, new = %f, %f, p = %f, %f\n",
t, newv[0], newv[1], (*p_ptr)[0], (*p_ptr)[1]);
output(outer_vlist_out, outer_len_inout, newv);
output(outer_vlist_out, outer_len_inout, (*p_ptr));
if (t > 0.0) { /* If t == 0, don't output newv */
printf("OI, output new\n");
output(inner_vlist_out, inner_len_inout, newv);
}
} else {
output(outer_vlist_out, outer_len_inout, (*p_ptr) );
}
}
s_ptr = p_ptr;
}
}
void operator()(MeshType const & input_mesh,
MeshType const & output_mesh,
viennagrid_plc plc_output_mesh,
PointType const & N)
{
typedef viennagrid::result_of::const_element_range<MeshType>::type ConstElementRangeType;
typedef viennagrid::result_of::iterator<ConstElementRangeType>::type ConstElementRangeIterator;
viennagrid::result_of::element_copy_map<>::type copy_map(output_mesh, false);
ConstElementRangeType triangles( input_mesh, 2 );
for (ConstElementRangeIterator tit = triangles.begin(); tit != triangles.end(); ++tit)
{
ElementType v[3];
PointType p[3];
double dp[3];
for (int pi = 0; pi != 3; ++pi)
{
v[pi] = viennagrid::vertices(*tit)[pi];
p[pi] = viennagrid::get_point( v[pi] );
dp[pi] = viennagrid::inner_prod( p[pi], N );
}
if ( !inside(dp[0]) && !inside(dp[1]) && !inside(dp[2]) )
{
// all points outside -> ignore
continue;
}
int on_plane_count = 0;
for (int pi = 0; pi != 3; ++pi)
if ( on_plane(dp[pi]) )
++on_plane_count;
if (on_plane_count == 3)
continue;
if (on_plane_count == 2)
{
// std::cout << "!!!!!!!!!!!!!!!!!!!!!!!! on_plane_count = 2" << std::endl;
int not_on_plane_index = !on_plane(dp[0]) ? 0 : !on_plane(dp[1]) ? 1 : 2;
if ( inside(dp[not_on_plane_index]) )
{
copy_map(*tit);
int oi0 = (not_on_plane_index == 0) ? 1 : 0;
int oi1 = (not_on_plane_index == 2) ? 1 : 2;
add_line(copy_map(v[oi0]), copy_map(v[oi1]));
}
// else
// std::cout << " outside -> skipping" << std::endl;
continue;
}
if (on_plane_count == 1)
{
// std::cout << "!!!!!!!!!!!!!!!!!!!!!!!! on_plane_count = 1" << std::endl;
int on_plane_index = on_plane(dp[0]) ? 0 : on_plane(dp[1]) ? 1 : 2;
int oi0 = (on_plane_index == 0) ? 1 : 0;
int oi1 = (on_plane_index == 2) ? 1 : 2;
if ( !inside(dp[oi0]) && !inside(dp[oi1]) )
continue;
if ( inside(dp[oi0]) && inside(dp[oi1]) )
{
copy_map(*tit);
continue;
}
// oi0 is inside
if ( !inside(dp[oi0]) )
std::swap(oi0, oi1);
ElementType v_ = get_vertex(output_mesh, N, v[oi0], v[oi1]);
viennagrid::make_triangle( output_mesh, copy_map(v[on_plane_index]), copy_map(v[oi0]), v_);
add_line(v_, copy_map(v[on_plane_index]));
continue;
}
if ( inside(dp[0]) && inside(dp[1]) && inside(dp[2]) )
{
// all points inside -> copy
copy_map(*tit);
continue;
}
int pos_count = 0;
for (int pi = 0; pi != 3; ++pi)
if ( inside(dp[pi]) )
++pos_count;
int pi = (dp[0]*dp[1] > 0) ? 2 : (dp[1]*dp[2] > 0) ? 0 : 1;
int oi0 = (pi == 0) ? 1 : 0;
int oi1 = (pi == 2) ? 1 : 2;
ElementType v1_ = get_vertex(output_mesh, N, v[pi], v[oi0]);
ElementType v2_ = get_vertex(output_mesh, N, v[pi], v[oi1]);
add_line(v1_, v2_);
if (pos_count == 1)
{
viennagrid::make_triangle( output_mesh, copy_map(v[pi]), v1_, v2_);
}
else
{
viennagrid::make_triangle( output_mesh, copy_map(v[oi0]), copy_map(v[oi1]), v1_);
viennagrid::make_triangle( output_mesh, copy_map(v[oi1]), v1_, v2_);
}
}
std::vector<viennagrid_int> line_ids;
std::map<ElementType, viennagrid_int> vertices_on_hyperplane;
for (LinesOnHyperplaneType::iterator it = lines_on_hyperplane.begin(); it != lines_on_hyperplane.end(); ++it)
{
vertices_on_hyperplane.insert( std::make_pair((*it).first, -1) );
vertices_on_hyperplane.insert( std::make_pair((*it).second, -1) );
}
for (std::map<ElementType, viennagrid_int>::iterator vit = vertices_on_hyperplane.begin(); vit != vertices_on_hyperplane.end(); ++vit)
{
PointType p = viennagrid::get_point( (*vit).first );
viennagrid_plc_vertex_create(plc_output_mesh, &p[0], &vit->second);
}
for (LinesOnHyperplaneType::iterator it = lines_on_hyperplane.begin(); it != lines_on_hyperplane.end(); ++it)
{
viennagrid_int line_id;
viennagrid_plc_line_create(plc_output_mesh,
vertices_on_hyperplane[(*it).first],
vertices_on_hyperplane[(*it).second],
&line_id);
line_ids.push_back(line_id);
}
viennagrid_plc_facet_create(plc_output_mesh, line_ids.size(), &line_ids[0], NULL);
}
void TextBox::mousePressed(ofMouseEventArgs& args){
ofPoint mouse = ofPoint(args.x,args.y);
mouseDownInRect = inside(mouse);
lastMousePos = mouse;
}
void ButtonProgress::draw(QPainter &p)
{
if(visible)
{
if(widget != 0)
{
widget->fontArista.setPixelSize(height()/3);
p.setFont(widget->fontArista);
}
// Set state
if(widget != 0)
{
if(inside(widget->moveX,widget->moveY))
{
if(widget->clicked)
{
setState(widget->stateMap["click"]);
}
else
{
setState(widget->stateMap["move"]);
}
}
else
{
setState(widget->stateMap["passive"]);
}
}
// Background
p.drawImage(x(), y(), backgroundImages[state]);
// Progress
if(widget != 0)
{
QLinearGradient buttonMask(animation.x,animation.y,animation.x+width(),animation.y);
if(rightDir) // To right Progress
{
buttonMask.setColorAt(0, Qt::transparent);
buttonMask.setColorAt(1, progressColor);
QBrush buttonMaskBrush(buttonMask);
p.setBrush(buttonMaskBrush);
if(state == widget->stateMap["click"])
{ // if Click
p.drawRect(animation.x+progressX, animation.y+progressY*1.1,
( backgroundImages[0].width()-progressX*2 )*(progressValue/100),
backgroundImages[0].height()-progressY*3);
}
else
{ // if Passive or Move
p.drawRect(animation.x+progressX, animation.y+progressY,
(backgroundImages[0].width()-progressX*2 )*(progressValue/100),
backgroundImages[0].height()-progressY*3);
}
}
else if(!rightDir)// To left progress
{
buttonMask.setColorAt(1, Qt::transparent);
buttonMask.setColorAt(0, progressColor);
QBrush buttonMaskBrush(buttonMask);
p.setBrush(buttonMaskBrush);
if(state == widget->stateMap["click"])
{ // if Click
p.drawRect(animation.x+width()-progressX, animation.y+progressY*1.1,
0 - (( backgroundImages[0].width()-progressX*2 )*(progressValue/100)),
backgroundImages[0].height()-progressY*3);
}
else
{ // if Passive or Move
p.drawRect(animation.x+width()-progressX, animation.y+progressY,
0 - (( backgroundImages[0].width()-progressX*2 )*(progressValue/100)),
backgroundImages[0].height()-progressY*3);
}
}
}
// Other
Button::draw(p);
}
}