bool ESceneObjectTools::GetBox (Fbox& bb)
{
bb.invalidate ();
Fbox bbo;
for (ObjectIt a_it=m_Objects.begin(); a_it!=m_Objects.end(); a_it++){
(*a_it)->GetBox (bbo);
bb.merge (bbo);
}
return bb.is_valid();
}
IC BOOL ValidateMerge (Fbox& bb_base, Fbox& bb, float& volume, float SLimit)
{
// Size
Fbox merge; merge.merge (bb_base,bb);
Fvector sz; merge.getsize (sz); sz.add (EPS_L);
if (sz.x>SLimit) return FALSE; // Don't exceed limits (4/3 GEOM)
if (sz.y>SLimit) return FALSE;
if (sz.z>SLimit) return FALSE;
// Volume
volume = merge.getvolume ();
// OK
return TRUE;
}
void ESceneAIMapTool::GetBBox(Fbox& bb, bool bSelOnly)
{
switch (LTools->GetSubTarget()){
case estAIMapNode:{
if (bSelOnly){
for (AINodeIt it=m_Nodes.begin(); it!=m_Nodes.end(); it++)
if ((*it)->flags.is(SAINode::flSelected)){
bb.modify(Fvector().add((*it)->Pos,-m_Params.fPatchSize*0.5f));
bb.modify(Fvector().add((*it)->Pos,m_Params.fPatchSize*0.5f));
}
}else{
bb.merge (m_AIBBox);
}
}break;
}
}
void EScene::ZoomExtents( ObjClassID cls, BOOL bSel )
{
Fbox BB; BB.invalidate();
if (cls==OBJCLASS_DUMMY){
SceneToolsMapPairIt _I = m_SceneTools.begin();
SceneToolsMapPairIt _E = m_SceneTools.end();
for (; _I!=_E; _I++)
if (_I->second){
Fbox bb; bb.invalidate();
_I->second->GetBBox (bb,bSel);
if (bb.is_valid()) BB.merge(bb);
}
}else{
ESceneToolBase* mt = GetTool(cls);
if (mt) mt->GetBBox(BB,bSel);
}
if (BB.is_valid()) Device.m_Camera.ZoomExtents(BB);
else ELog.Msg(mtError,"Can't calculate bounding box. Nothing selected or some object unsupported this function.");
}
bool CGroupObject::GetBox(Fbox& bb)
{
bb.invalidate ();
// update box
for (ObjectIt it=m_Objects.begin(); it!=m_Objects.end(); it++){
switch((*it)->ClassID){
case OBJCLASS_SPAWNPOINT:
case OBJCLASS_SCENEOBJECT:{
Fbox box;
if ((*it)->GetBox(box))
bb.merge(box);
}break;
default:
bb.modify((*it)->PPosition);
}
}
if (!bb.is_valid()){
bb.set (PPosition,PPosition);
bb.grow (EMPTY_GROUP_SIZE);
}
return bb.is_valid();
}
BOOL CreateNode(Fvector& vAt, vertex& N)
{
// *** Query and cache polygons for ray-casting
Fvector PointUp; PointUp.set(vAt); PointUp.y += RCAST_Depth; SnapXZ (PointUp);
Fvector PointDown; PointDown.set(vAt); PointDown.y -= RCAST_Depth; SnapXZ (PointDown);
Fbox BB; BB.set (PointUp,PointUp); BB.grow(g_params.fPatchSize/2); // box 1
Fbox B2; B2.set (PointDown,PointDown); B2.grow(g_params.fPatchSize/2); // box 2
BB.merge(B2 );
BoxQuery(BB,false );
u32 dwCount = XRC.r_count();
if (dwCount==0) {
// Log("chasm1");
return FALSE; // chasm?
}
// *** Transfer triangles and compute sector
R_ASSERT(dwCount<RCAST_MaxTris);
static svector<tri,RCAST_MaxTris> tris; tris.clear();
for (u32 i=0; i<dwCount; i++)
{
tri& D = tris.last();
CDB::RESULT &rp = XRC.r_begin()[i];
CDB::TRI& T = *(Level.get_tris()+rp.id);
D.v[0].set (rp.verts[0]);
D.v[1].set (rp.verts[1]);
D.v[2].set (rp.verts[2]);
D.sector = T.sector;
D.N.mknormal(D.v[0],D.v[1],D.v[2]);
if (D.N.y<=0) continue;
tris.inc ();
}
if (tris.size()==0) {
// Log("chasm2");
return FALSE; // chasm?
}
// *** Perform ray-casts and calculate sector
WORD Sector = 0xfffe; // mark as first time
static svector<Fvector,RCAST_Total> points; points.clear();
static svector<Fvector,RCAST_Total> normals; normals.clear();
Fvector P,D; D.set(0,-1,0);
float coeff = 0.5f*g_params.fPatchSize/float(RCAST_Count);
for (int x=-RCAST_Count; x<=RCAST_Count; x++)
{
P.x = vAt.x + coeff*float(x);
for (int z=-RCAST_Count; z<=RCAST_Count; z++) {
P.z = vAt.z + coeff*float(z);
P.y = vAt.y + 10.f;
float tri_min_range = flt_max;
int tri_selected = -1;
float range,u,v;
for (i=0; i<u32(tris.size()); i++)
{
if (CDB::TestRayTri(P,D,tris[i].v,u,v,range,false))
{
if (range<tri_min_range) {
tri_min_range = range;
tri_selected = i;
}
}
}
if (tri_selected>=0) {
P.y -= tri_min_range;
points.push_back(P);
normals.push_back(tris[tri_selected].N);
WORD TS = WORD(tris[tri_selected].sector);
if (Sector==0xfffe) Sector = TS;
else if (Sector!=TS) Sector=InvalidSector;
}
}
}
if (points.size()<3) {
// Msg ("Failed to create node at [%f,%f,%f].",vAt.x,vAt.y,vAt.z);
return FALSE;
}
if (float(points.size())/float(RCAST_Total) < 0.7f) {
// Msg ("Partial chasm at [%f,%f,%f].",vAt.x,vAt.y,vAt.z);
return FALSE;
}
// *** Calc normal
Fvector vNorm;
vNorm.set(0,0,0);
for (u32 n=0; n<normals.size(); n++)
vNorm.add(normals[n]);
vNorm.div(float(normals.size()));
vNorm.normalize();
/*
{
// second algorithm (Magic)
Fvector N,O;
N.set(vNorm);
O.set(points[0]);
Mgc::OrthogonalPlaneFit(
points.size(),(Mgc::Vector3*)points.begin(),
*((Mgc::Vector3*)&O),
*((Mgc::Vector3*)&N)
);
if (N.y<0) N.invert();
N.normalize();
vNorm.lerp(vNorm,N,.3f);
vNorm.normalize();
}
*/
// *** Align plane
Fvector vOffs;
vOffs.set(0,-1000,0);
Fplane PL; PL.build(vOffs,vNorm);
for (u32 p=0; p<points.size(); p++)
{
float dist = PL.classify(points[p]);
if (dist>0) {
vOffs = points[p];
PL.build(vOffs,vNorm);
}
}
// *** Create node and register it
N.Sector =Sector; // sector
N.Plane.build (vOffs,vNorm); // build plane
D.set (0,1,0);
N.Plane.intersectRayPoint(PointDown,D,N.Pos); // "project" position
// *** Validate results
vNorm.set(0,1,0);
if (vNorm.dotproduct(N.Plane.n)<_cos(deg2rad(60.f))) return FALSE;
float y_old = vAt.y;
float y_new = N.Pos.y;
if (y_old>y_new) {
// down
if (y_old-y_new > g_params.fCanDOWN ) return FALSE;
} else {
// up
if (y_new-y_old > g_params.fCanUP ) return FALSE;
}
// *** Validate plane
{
Fvector PLP; D.set(0,-1,0);
int num_successed_rays = 0;
for (int x=-RCAST_Count; x<=RCAST_Count; x++)
{
P.x = N.Pos.x + coeff*float(x);
for (int z=-RCAST_Count; z<=RCAST_Count; z++) {
P.z = N.Pos.z + coeff*float(z);
P.y = N.Pos.y;
N.Plane.intersectRayPoint(P,D,PLP); // "project" position
P.y = PLP.y+RCAST_VALID*0.01f;
float tri_min_range = flt_max;
int tri_selected = -1;
float range,u,v;
for (i=0; i<float(tris.size()); i++)
{
if (CDB::TestRayTri(P,D,tris[i].v,u,v,range,false))
{
if (range<tri_min_range) {
tri_min_range = range;
tri_selected = i;
}
}
}
if (tri_selected>=0) {
if (tri_min_range<RCAST_VALID) num_successed_rays++;
}
}
}
float perc = float(num_successed_rays)/float(RCAST_Total);
if (perc < 0.5f) {
// Msg ("Floating node.");
return FALSE;
}
}
// *** Mask check
// ???
return TRUE;
}
BOOL ESceneAIMapTool::CreateNode(Fvector& vAt, SAINode& N, bool bIC)
{
// *** Query and cache polygons for ray-casting
Fvector PointUp; PointUp.set(vAt); PointUp.y += RCAST_Depth; SnapXZ (PointUp,m_Params.fPatchSize);
Fvector PointDown; PointDown.set(vAt); PointDown.y -= RCAST_Depth; SnapXZ (PointDown,m_Params.fPatchSize);
Fbox BB; BB.set (PointUp,PointUp); BB.grow(m_Params.fPatchSize/2); // box 1
Fbox B2; B2.set (PointDown,PointDown); B2.grow(m_Params.fPatchSize/2); // box 2
BB.merge (B2);
if (m_CFModel)
{
/*
for(u32 i=0; i<m_CFModel->get_tris_count(); ++i)
{
CDB::TRI* tri = (m_CFModel->get_tris()+i);
if(tri->material!=0)
Msg("non-default material");
}
*/
Scene->BoxQuery(PQ,BB,CDB::OPT_FULL_TEST,m_CFModel);
}else
Scene->BoxQuery(PQ,BB,CDB::OPT_FULL_TEST,GetSnapList());
DWORD dwCount = PQ.r_count();
if (dwCount==0){
// Log("chasm1");
return FALSE; // chasm?
}
// *** Transfer triangles and compute sector
// R_ASSERT(dwCount<RCAST_MaxTris);
static xr_vector<tri> tris; tris.reserve(RCAST_MaxTris); tris.clear();
for (DWORD i=0; i<dwCount; i++)
{
SPickQuery::SResult* R = PQ.r_begin()+i;
if (R->e_obj&&R->e_mesh)
{
CSurface* surf = R->e_mesh->GetSurfaceByFaceID(R->tag);
//. SGameMtl* mtl = GMLib.GetMaterialByID(surf->_GameMtl());
//. if (mtl->Flags.is(SGameMtl::flPassable))continue;
Shader_xrLC* c_sh = Device.ShaderXRLC.Get(surf->_ShaderXRLCName());
if (!c_sh->flags.bCollision) continue;
}
/*
if(m_CFModel)
{
u16 mtl_id = R->material;
if(std::find(m_ignored_materials.begin(), m_ignored_materials.end(), mtl_id) != m_ignored_materials.end() )
{
//. Msg("--ignore");
continue;
}
}
*/
tris.push_back (tri());
tri& D = tris.back();
Fvector* V = R->verts;
D.v[0] = &V[0];
D.v[1] = &V[1];
D.v[2] = &V[2];
D.N.mknormal(*D.v[0],*D.v[1],*D.v[2]);
if (D.N.y<=0) tris.pop_back ();
}
if (tris.size()==0){
// Log("chasm2");
return FALSE; // chasm?
}
static xr_vector<Fvector> points; points.reserve(RCAST_Total); points.clear();
static xr_vector<Fvector> normals; normals.reserve(RCAST_Total);normals.clear();
Fvector P,D; D.set(0,-1,0);
float coeff = 0.5f*m_Params.fPatchSize/float(RCAST_Count);
for (int x=-RCAST_Count; x<=RCAST_Count; x++)
{
P.x = vAt.x + coeff*float(x);
for (int z=-RCAST_Count; z<=RCAST_Count; z++) {
P.z = vAt.z + coeff*float(z);
P.y = vAt.y + 10.f;
float tri_min_range = flt_max;
int tri_selected = -1;
float range,u,v;
for (i=0; i<DWORD(tris.size()); i++){
if (ETOOLS::TestRayTriA(P,D,tris[i].v,u,v,range,false)){
if (range<tri_min_range){
tri_min_range = range;
tri_selected = i;
}
}
}
if (tri_selected>=0) {
P.y -= tri_min_range;
points.push_back(P);
normals.push_back(tris[tri_selected].N);
}
}
}
if (points.size()<3) {
// Msg ("Failed to create node at [%f,%f,%f].",vAt.x,vAt.y,vAt.z);
return FALSE;
}
//.
float rc_lim = bIC?0.015f:0.7f;
if (float(points.size())/float(RCAST_Total) < rc_lim) {
// Msg ("Partial chasm at [%f,%f,%f].",vAt.x,vAt.y,vAt.z);
return FALSE;
}
// *** Calc normal
Fvector vNorm;
vNorm.set(0,0,0);
for (DWORD n=0; n<normals.size(); n++)
vNorm.add(normals[n]);
vNorm.div(float(normals.size()));
vNorm.normalize();
/*
{
// second algorithm (Magic)
Fvector N,O;
N.set(vNorm);
O.set(points[0]);
Mgc::OrthogonalPlaneFit(
points.size(),(Mgc::Vector3*)points.begin(),
*((Mgc::Vector3*)&O),
*((Mgc::Vector3*)&N)
);
if (N.y<0) N.invert();
N.normalize();
vNorm.lerp(vNorm,N,.3f);
vNorm.normalize();
}
*/
// *** Align plane
Fvector vOffs;
vOffs.set(0,-1000,0);
Fplane PL; PL.build(vOffs,vNorm);
for (DWORD p=0; p<points.size(); p++)
{
float dist = PL.classify(points[p]);
if (dist>0) {
vOffs = points[p];
PL.build(vOffs,vNorm);
}
}
// *** Create node and register it
N.Plane.build (vOffs,vNorm); // build plane
D.set (0,1,0);
N.Plane.intersectRayPoint(PointDown,D,N.Pos); // "project" position
// *** Validate results
vNorm.set(0,1,0);
if (vNorm.dotproduct(N.Plane.n)<_cos(deg2rad(60.f))) return FALSE;
float y_old = vAt.y;
float y_new = N.Pos.y;
if (y_old>y_new) {
// down
if (y_old-y_new > m_Params.fCanDOWN ) return FALSE;
} else {
// up
if (y_new-y_old > m_Params.fCanUP ) return FALSE;
}
// *** Validate plane
{
Fvector PLP; D.set(0,-1,0);
int num_successed_rays = 0;
for (int x=-RCAST_Count; x<=RCAST_Count; x++)
{
P.x = N.Pos.x + coeff*float(x);
for (int z=-RCAST_Count; z<=RCAST_Count; z++) {
P.z = N.Pos.z + coeff*float(z);
P.y = N.Pos.y;
N.Plane.intersectRayPoint(P,D,PLP); // "project" position
P.y = PLP.y+RCAST_VALID*0.01f;
float tri_min_range = flt_max;
int tri_selected = -1;
float range,u,v;
for (i=0; i<tris.size(); i++){
if (ETOOLS::TestRayTriA(P,D,tris[i].v,u,v,range,false)){
if (range<tri_min_range){
tri_min_range = range;
tri_selected = i;
}
}
}
if (tri_selected>=0){
if (tri_min_range<RCAST_VALID) num_successed_rays++;
}
}
}
float perc = float(num_successed_rays)/float(RCAST_Total);
//. if (!bIC&&(perc < 0.5f)){
float perc_lim = bIC?0.015f:0.5f;
if (perc < perc_lim){
// Msg ("Floating node.");
return FALSE;
}
}
// *** Mask check
// ???
return TRUE;
}
BOOL ValidNode(vertex& N)
{
// *** Query and cache polygons for ray-casting
Fvector PointUp; PointUp.set(N.Pos); PointUp.y += RCAST_Depth/2;
Fvector PointDown; PointDown.set(N.Pos); PointDown.y -= RCAST_Depth/2;
Fbox BB; BB.set (PointUp,PointUp); BB.grow(g_params.fPatchSize/2); // box 1
Fbox B2; B2.set (PointDown,PointDown); B2.grow(g_params.fPatchSize/2); // box 2
BB.merge(B2 );
BoxQuery(BB,false );
u32 dwCount = XRC.r_count();
if (dwCount==0) {
Log("chasm1");
return FALSE; // chasm?
}
// *** Transfer triangles and compute sector
R_ASSERT(dwCount<RCAST_MaxTris);
static svector<tri,RCAST_MaxTris> tris; tris.clear();
for (u32 i=0; i<dwCount; i++)
{
tri& D = tris.last();
CDB::RESULT&rp = XRC.r_begin()[i];
*(Level.get_tris()+XRC.r_begin()[i].id);
D.v[0].set (rp.verts[0]);
D.v[1].set (rp.verts[1]);
D.v[2].set (rp.verts[2]);
Fvector N;
N.mknormal (D.v[0],D.v[1],D.v[2]);
if (N.y<=0) continue;
tris.inc ();
}
if (tris.size()==0) {
Log("chasm2");
return FALSE; // chasm?
}
// *** Perform ray-casts and calculate sector
Fvector P,D,PLP; D.set(0,-1,0);
float coeff = 0.5f*g_params.fPatchSize/float(RCAST_Count);
int num_successed_rays = 0;
for (int x=-RCAST_Count; x<=RCAST_Count; x++)
{
P.x = N.Pos.x + coeff*float(x);
for (int z=-RCAST_Count; z<=RCAST_Count; z++) {
P.z = N.Pos.z + coeff*float(z);
P.y = N.Pos.y;
N.Plane.intersectRayPoint(P,D,PLP); // "project" position
P.y = PLP.y+RCAST_DepthValid/2;
float tri_min_range = flt_max;
int tri_selected = -1;
float range = 0.f,u,v;
for (i=0; i<u32(tris.size()); i++)
{
if (CDB::TestRayTri(P,D,tris[i].v,u,v,range,false))
{
if (range<tri_min_range) {
tri_min_range = range;
tri_selected = i;
}
}
}
if (tri_selected>=0) {
if (range<RCAST_DepthValid) num_successed_rays++;
}
}
}
if (float(num_successed_rays)/float(RCAST_Total) < 0.5f) {
Msg ("Floating node.");
return FALSE;
}
return TRUE;
}
void CParticleGroup::SItem::OnFrame(u32 u_dt, const CPGDef::SEffect& def, Fbox& box, bool& bPlaying)
{
CParticleEffect* E = static_cast<CParticleEffect*>(_effect);
if (E){
E->OnFrame (u_dt);
if (E->IsPlaying()){
bPlaying = true;
if (E->vis.box.is_valid()) box.merge (E->vis.box);
if (def.m_Flags.is(CPGDef::SEffect::flOnPlayChild)&&def.m_OnPlayChildName.size()){
PAPI::Particle* particles;
u32 p_cnt;
PAPI::ParticleManager()->GetParticles(E->GetHandleEffect(),particles,p_cnt);
VERIFY(p_cnt==_children_related.size());
if (p_cnt){
for(u32 i = 0; i < p_cnt; i++){
PAPI::Particle &m = particles[i];
CParticleEffect* C = static_cast<CParticleEffect*>(_children_related[i]);
Fmatrix M; M.translate(m.pos);
Fvector vel; vel.sub(m.pos,m.posB); vel.div(fDT_STEP);
C->UpdateParent (M,vel,FALSE);
}
}
}
}
}
VisualVecIt it;
if (!_children_related.empty()){
for (it=_children_related.begin(); it!=_children_related.end(); it++){
CParticleEffect* E = static_cast<CParticleEffect*>(*it);
if (E){
E->OnFrame (u_dt);
if (E->IsPlaying()){
bPlaying = true;
if (E->vis.box.is_valid()) box.merge (E->vis.box);
}else{
if (def.m_Flags.is(CPGDef::SEffect::flOnPlayChildRewind)){
E->Play ();
}
}
}
}
}
if (!_children_free.empty()){
u32 rem_cnt = 0;
for (it=_children_free.begin(); it!=_children_free.end(); it++){
CParticleEffect* E = static_cast<CParticleEffect*>(*it);
if (E){
E->OnFrame (u_dt);
if (E->IsPlaying()){
bPlaying = true;
if (E->vis.box.is_valid()) box.merge (E->vis.box);
}else{
rem_cnt++ ;
::Render->model_Delete(*it);
}
}
}
// remove if stopped
if (rem_cnt){
VisualVecIt new_end=std::remove_if(_children_free.begin(),_children_free.end(),zero_vis_pred());
_children_free.erase(new_end,_children_free.end());
}
}
// Msg("C: %d CS: %d",_children.size(),_children_stopped.size());
}