//==============================================================================
int main () {
VertexSimple vertices[BOX_VERTEX_COUNT];
ushort indices[BOX_INDEX_COUNT];
GenerateBox(vertices, arrsize(vertices), indices, arrsize(indices));
const float scale = 0.5f;
for (uint i = 0; i < arrsize(vertices); ++i) {
vertices[i].x *= scale;
vertices[i].y *= scale;
vertices[i].z *= scale;
}
const Rect4i windowRect(0, 0, 800, 600);
IGraphics * graphics = Gphx::GraphicsCreate(L"GraphicsTest", windowRect);
IModel * model = graphics->CreateModel(vertices, arrsize(vertices), indices, arrsize(indices));
while (graphics->Advance()) {
graphics->RenderBegin();
model->Render();
graphics->RenderEnd();
}
delete model;
delete graphics;
_CrtDumpMemoryLeaks();
return 0;
}
CPlayerSource::CPlayerSource(const CString& name, ILocalEntity * parent) :
IBasePlayer (name, parent)
{
int modelId = Game::modelManager->getResourceId("../../models/player.mdl");
IModel * mdl = new IModel(Game::modelManager->getModelData(modelId));
setModel(mdl);
// Suppression du buffer graphique
CBuffer * buffer = mdl->getBuffer();
delete buffer;
mdl->setBuffer(nullptr);
}
//-----------------------------------------------------------------------------
void ObjDetailPGView::OnObjPropBeforeRemove(const IModel& vec, const std::vector<SptrIModel>& remVec)
{
auto obj_prop_array = mObj->GetObjPropArray();
auto propCategory = GetProperty("user_obj_prop");
if (obj_prop_array->GetChildQty() == remVec.size())
{
propCategory->DeleteChildren();
}
else
{
size_t pos = 0;
for (const auto& remItem : remVec)
{
if (vec.GetItemPosition(remItem, pos))
{
DeleteProperty(pos);
}
}
}
if (!propCategory->GetChildCount())
propCategory->Hide(true);
else
propCategory->Hide(false);
}
IModel *AsyncRenderer::CreateModel(spades::VoxelModel *bmp) {
SPADES_MARK_FUNCTION();
class CreateModelDispatch: public ConcurrentDispatch {
IRenderer *base;
VoxelModel *bmp;
IModel *result;
std::string error;
public:
CreateModelDispatch(IRenderer *base, VoxelModel *bmp):
base(base), bmp(bmp), result(NULL){}
virtual void Run(){
try{
result = base->CreateModel(bmp);
}catch(const std::exception& ex){
error = ex.what();
}
}
IModel *GetResult() {
if(!error.empty()){
SPRaise("Error while CreateImageDispatch:\n%s", error.c_str());
}else{
return result;
}
}
};
FlushCommands();
CreateModelDispatch dispatch(base, bmp);
dispatch.StartOn(queue);
dispatch.Join();
IModel *img = dispatch.GetResult();
return img;
}
//-----------------------------------------------------------------------------
void VTable::OnRowBeforeRemove(const IModel& vec, const std::vector<SptrIModel>& remVec)
{
wxBusyCursor busyCursor;
wxWindowUpdateLocker wndLockUpdater(this);
if (vec.size() != remVec.size() )
{
size_t pos;
wxArrayInt itemsArray;
for (const auto& remItem : remVec)
{
if (vec.GetItemPosition(remItem, pos))
itemsArray.push_back(pos);
}
mDataViewModel->RowsDeleted(itemsArray);
}
else
mDataViewModel->Reset(0);
}//OnRemove
void AsyncRenderer::AddLongSprite(IImage *img, Vector3 p1, Vector3 p2,
float radius){
SPADES_MARK_FUNCTION();
rcmds::AddLongSprite *cmd = generator->AllocCommand<rcmds::AddLongSprite>();
cmd->img = img;
img->AddRef();
cmd->p1 = p1;
cmd->p2 = p2;
cmd->radius = radius;
}
void AsyncRenderer::AddSprite(IImage *img, Vector3 center,
float radius, float rotation){
SPADES_MARK_FUNCTION();
rcmds::AddSprite *cmd = generator->AllocCommand<rcmds::AddSprite>();
cmd->img = img;
img->AddRef();
cmd->center = center;
cmd->radius = radius;
cmd->rotation = rotation;
}
/*
========================
setActiveModel
========================
*/
void CSceneWidget::setActiveModel( int index )
{
IModel* mdl = NULL;
QString ptName( "" );
int pt = GL_POINTS;
// validate index
if( index >= 0 && index < m_numModels )
{
mdl = m_models[ index ];
pt = mdl->getPrimitiveType();
ptName = mdl->getPrimitiveTypeName();
}
// set new state
m_scene->getShader()->setGeometryInputType( pt );
m_labPrimitiveType->setText( ptName );
m_scene->setCurrentModel( mdl );
}
//-----------------------------------------------------------------------------
void VTable::OnRowAfterChange(const IModel& newVec, const std::vector<unsigned int>& itemVec)
{
wxBusyCursor busyCursor;
wxWindowUpdateLocker wndLockUpdater(this);
auto changedQty = itemVec.size();
bool changeAll = newVec.GetChildQty() == itemVec.size();
if (!changeAll && changedQty < 100)
{
for (const unsigned int& item : itemVec)
mDataViewModel->RowChanged(item);
}
else
{
mDataViewModel->Reset(changedQty);
this->Refresh();
}
OnChangeVecState(newVec.GetState());
}//OnChange
IModel *AsyncRenderer::RegisterModel(const char *filename) {
SPADES_MARK_FUNCTION();
class RegisterModelDispatch: public ConcurrentDispatch {
IRenderer *base;
const char *fn;
IModel *result;
std::string error;
public:
RegisterModelDispatch(IRenderer *base, const char *fn):
base(base), fn(fn), result(NULL){}
virtual void Run(){
try{
result = base->RegisterModel(fn);
}catch(const std::exception& ex){
error = ex.what();
}
}
IModel *GetResult() {
if(!error.empty()){
SPRaise("Error while RegisterImageDispatch:\n%s", error.c_str());
}else{
return result;
}
}
};
std::map<std::string, IModel *>::iterator it = models.find(filename);
if(it == models.end()) {
FlushCommands();
RegisterModelDispatch dispatch(base, filename);
dispatch.StartOn(queue);
dispatch.Join();
IModel *img = dispatch.GetResult();
models[filename] = img;
img->AddRef();
return img;
}
return it->second;
}
//-----------------------------------------------------------------------------
void VTable::OnRowAfterInsert(const IModel& vec, const std::vector<SptrIModel>& newItems
, const SptrIModel& itemBefore)
{
wxBusyCursor busyCursor;
wxWindowUpdateLocker wndLockUpdater(this);
if (itemBefore)
{
size_t pos;
if (vec.GetItemPosition(itemBefore, pos))
{
for (const auto& curr : newItems)
mDataViewModel->RowInserted(pos++);
}
}
else
{
for (const auto& curr : newItems)
mDataViewModel->RowAppended();
}
OnChangeVecState(vec.GetState());
}//OnAppend
void Evaluation::eval (IModel &model, ISamples &samples, ssi_size_t stream_index) {
// init confussion matrix
_trainer = 0;
destroy_conf_mat ();
init_conf_mat (samples);
ssi_size_t n_classes = samples.getClassSize ();
ssi_real_t *probs = new ssi_real_t[n_classes];
_n_total = samples.getSize ();
_result_vec = new ssi_size_t[2*_n_total];
_result_vec_ptr = _result_vec;
samples.reset ();
const ssi_sample_t *sample = 0;
while (sample = samples.next ()) {
ssi_size_t real_index = sample->class_id;
*_result_vec_ptr++ = real_index;
if (model.forward (*sample->streams[stream_index], n_classes, probs)) {
ssi_size_t max_ind = 0;
ssi_real_t max_val = probs[0];
for (ssi_size_t i = 1; i < n_classes; i++) {
if (probs[i] > max_val) {
max_val = probs[i];
max_ind = i;
}
}
*_result_vec_ptr++ = max_ind;
_conf_mat_ptr[real_index][max_ind]++;
_n_classified++;
} else if (!_allow_unclassified) {
ssi_size_t max_ind = _default_class_id;
*_result_vec_ptr++ = max_ind;
_conf_mat_ptr[real_index][max_ind]++;
_n_classified++;
} else {
*_result_vec_ptr++ = SSI_ISAMPLES_GARBAGE_CLASS_ID;
_n_unclassified++;
}
}
delete[] probs;
}
//-----------------------------------------------------------------------------
void VTable::OnFieldBeforeRemove(const IModel& vec, const std::vector<SptrIModel>& remVec)
{
if (!mModel)
return;
wxWindowUpdateLocker wndLockUpdater(this);
for (const auto& field : remVec)
{
size_t model_idx = 0;
if (vec.GetItemPosition(field, model_idx))
{
auto col_idx = GetModelColumnIndex(model_idx);
auto col = GetColumn(col_idx);
if (col)
this->DeleteColumn(col);
}
}
}
ConstSection CFormatHandler::GetSectionByIndex(const IModel &model,size_t index) const
{
return model.GetSectionByIndex(index);
}
//-----------------------------------------------------------------------------
void VTable::OnFieldAfterInsert(const IModel& vec, const std::vector<SptrIModel>& newItems
, const SptrIModel& itemBefore)
{
if (!mModel)
return;
wxWindowUpdateLocker wndLockUpdater(this);
const auto& fvec = mModel->mFieldVec;
for (const auto& new_item : newItems)
{
size_t model_idx = -1;
if (vec.GetItemPosition(new_item, model_idx))
{
const auto& field = fvec->at(model_idx)->GetData();
if (field.mGuiShow)
{
wxString name = field.mTitle;
auto width = GetColumnWidthBy(field.mType);
//auto col = AppendTextColumn(name, model_idx, wxDATAVIEW_CELL_INERT, width,
// wxALIGN_NOT, /*wxDATAVIEW_COL_SORTABLE | */wxDATAVIEW_COL_RESIZABLE);
class wxDataViewMLTextRenderer : public wxDataViewTextRenderer
{
public:
wxDataViewMLTextRenderer(const wxString & varianttype = wxT("string"), //GetDefaultType(),
wxDataViewCellMode mode = wxDATAVIEW_CELL_INERT,
int align = wxDVR_DEFAULT_ALIGNMENT )
:wxDataViewTextRenderer(varianttype, mode, align)
{}
void RenderText(const wxString& text,
int xoffset,
wxRect rect,
wxDC *dc,
int state) override
{
wxCoord widthText, heightText, heightLine;
dc->GetMultiLineTextExtent(text, &widthText, &heightText, &heightLine);
if (heightLine && heightText > heightLine)
{
int qty = heightText / heightLine -1;
int rh = GetView()->GetCharHeight() * 2 + 2;
int max_offset = (rh - heightLine) / 2;
int calc_offset = qty* (heightLine / 2);
int curr_offset = (calc_offset > max_offset) ? max_offset : calc_offset;
rect.y = rect.y - curr_offset;
rect.height = heightText;
rect.width = widthText;
}
wxDataViewTextRenderer::RenderText(text, xoffset, rect, dc, state);
/*
wxRect rectText = rect;
rectText.x += xoffset;
rectText.width -= xoffset;
// check if we want to ellipsize the text if it doesn't fit
wxString ellipsizedText;
if (GetEllipsizeMode() != wxELLIPSIZE_NONE)
{
ellipsizedText = wxControl::Ellipsize
(
text,
*dc,
GetEllipsizeMode(),
rectText.width,
wxELLIPSIZE_FLAGS_NONE
);
}
// get the alignment to use
dc->DrawLabel(ellipsizedText.empty() ? text : ellipsizedText,
rectText, GetEffectiveAlignment());
*/
}
};
auto renderer = new wxDataViewMLTextRenderer();
if(FieldType::ftText == field.mType)
renderer->EnableEllipsize(wxELLIPSIZE_START);
wxDataViewColumn * col = new wxDataViewColumn(name
, renderer
, model_idx
, width
, wxALIGN_NOT
, wxDATAVIEW_COL_RESIZABLE);
this->AppendColumn(col);
auto col_idx = GetColumnIndex(col);
if (ftText == field.mType)
EnableAutosizeColumn(col_idx);
SetGuiColumnSort(field, col);
}//if (field.mGuiShow)
}
}
}
bool ModelInstance::setModel(const char* modelName,ModelNode *pNode)
{
IModelManager *pModelManager = getRenderEngine()->getModelManager();
IModel *pModel = pModelManager->loadModel(modelName);
if(!pModel)return false;
m_pModel = pModel;
m_pNode = pNode;
//设置buffer
m_pIB = m_pModel->getIndexBuffer();
m_pVBTexcoord = m_pModel->getTexcoordBuffer();
m_pVBBlendWeight = m_pModel->getBlendWeightBuffer();
m_pBlendShaderProgram = m_pModel->getBlendShaderProgram();//需要再构造SubModelInstance前设置
m_needDrawShadow = m_pModel->needDrawShadow();
//创建子mesh
uint numSubModels = m_pModel->getNumSubModels();
for(uint i = 0;i < numSubModels;i++)
{
ISubModel *pSubModel = m_pModel->getSubModel(i);
SubModelInstance *pSubModelInstance = new SubModelInstance(this,pSubModel, i);
m_subModels.push_back(pSubModelInstance);
m_vBlendIndices.push_back( m_pModel->getBlendIndicesBuffer(i));//保存骨骼混合的索引buffer
}
//创建骨骼树
if( !m_skeleton.create(m_pModel->getCoreSkeletion() ) )
{
return false;
}
//uint numBones = m_pModel->numBones();
//for(uint i = 0;i < numBones;i++)
//{
// BoneData *pData = m_pModel->getBone(i);
// Bone *pBone = m_skeleton.createBone(m_pNode);
// loadBone(pBone,pData);
//}
////骨骼树形结构构建
//for(size_t i = 0;i < numBones;i++)
//{
// BoneData *pBone = m_pModel->getBone(i);
// if(pBone->parentId != -1)
// {
// for(size_t j = 0;j < numBones;j++)
// {
// BoneData *pParent = m_pModel->getBone(j);
// if(pBone->parentId == pParent->objectId)
// {
// m_skeleton.getBone(i)->setParent(m_skeleton.getBone(j));
// break;
// }
// }
// }
// m_skeleton.getBone(i)->setPrecomputeMatrix(pBone->precomputeMtx);
//}
//ParticleSystem
size_t size = m_pModel->numParticleSystem();
for(size_t j = 0;j < size;j++)
{
ParticleSystem *pParticleSystem = new ParticleSystem;
pParticleSystem->m_pData = m_pModel->getParticleSystemData(j);
pParticleSystem->m_pBone = m_skeleton.getBone(pParticleSystem->m_pData->boneObjectId);
pParticleSystem->m_pNode = m_pNode;
m_vParticleSystem.push_back(pParticleSystem);
}
//RibbonSystem
size = m_pModel->numRibbonSystem();
for(size_t j = 0;j < size;j++)
{
RibbonSystem *pRibbonSystem = new RibbonSystem;
pRibbonSystem->m_pData = m_pModel->getRibbonSystemData(j);
pRibbonSystem->m_pBone = m_skeleton.getBone(pRibbonSystem->m_pData->boneObjectId);
pRibbonSystem->m_pNode = m_pNode;
m_vRibbonSystem.push_back(pRibbonSystem);
}
//MmParticleSystem
size = m_pModel->numMmParticleSystem();
for(size_t j = 0;j < size;j++)
{
MmParticleSystem *pMmPs = new MmParticleSystem;
pMmPs->m_pData = m_pModel->getMmParticleSystem(j);
pMmPs->m_pNode = m_pNode;
pMmPs->m_pBone = m_skeleton.getBone(pMmPs->m_pData->bone);
m_vMmParticleSystem.push_back(pMmPs);
}
if(m_pModel->getAnimationCount())
setCurrentAnimation(pModel->getAnimation(0)->getName());
return true;
}
//-----------------------------------------------------------------------------
void VTable::OnRowAfterRemove(const IModel& vec, const std::vector<SptrIModel>& remVec)
{
OnChangeVecState(vec.GetState());
}
bool FeatureFusion::forward (ssi_size_t n_models,
IModel **models,
ssi_size_t n_streams,
ssi_stream_t *streams[],
ssi_size_t n_probs,
ssi_real_t *probs) {
if (!isTrained ()) {
ssi_wrn ("not trained");
return false;
}
if (n_streams != _n_streams) {
ssi_wrn ("#streams (%u) differs from #streams (%u)", n_streams, _n_streams);
return false;
}
if (_n_models != n_models) {
ssi_wrn ("#models (%u) differs from #models (%u)", n_models, _n_models);
return false;
}
if (_n_classes != n_probs) {
ssi_wrn ("#probs (%u) differs from #classes (%u)", n_probs ,_n_classes);
return false;
}
//No Missing Data:
if(!_handle_md){
IModel *model = 0;
ssi_stream_t *stream = 0;
model = models[0];
ssi_stream_t *fusion_stream = new ssi_stream_t;
ssi_size_t fusion_stream_dim = 0;
for(ssi_size_t nstrm = 0; nstrm < _n_streams; nstrm++){
fusion_stream_dim += streams[nstrm]->dim;
}
//create aligned streams
ssi_stream_init (*fusion_stream, 1, fusion_stream_dim, streams[0]->byte, streams[0]->type, streams[0]->sr);
ssi_byte_t *ptr = fusion_stream->ptr;
for(ssi_size_t i = 0; i < _n_streams; i++){
memcpy(ptr, streams[i]->ptr, ( streams[i]->byte * streams[i]->dim ) );
ptr += ( streams[i]->byte * streams[i]->dim );
}
//clear probs
for (ssi_size_t num_probs = 0; num_probs < n_probs; num_probs++){
probs[num_probs] = 0.0f;
}
model->forward (*fusion_stream, n_probs, probs);
ssi_stream_destroy(*fusion_stream);
delete fusion_stream;
fusion_stream = 0;
///// is there a draw ? ///
ssi_size_t max_ind = 0;
ssi_size_t max_ind_draw = 0;
ssi_real_t max_val = probs[0];
bool draw = false;
for (ssi_size_t i = 1; i < n_probs; i++) {
if (probs[i] >= max_val) {
if(probs[i] == max_val){
draw = true;
max_ind_draw = i;
}
max_val = probs[i];
max_ind = i;
}
}
if(draw && (max_ind == max_ind_draw)){
return false;
}else{
return true;
}
}//No Missing Data
//Missing Data:
bool found_data = false;
IModel *model = 0;
ssi_stream_t *stream = 0;
//calculate actual models
ssi_size_t miss_counter = 0;
ssi_size_t *available = new ssi_size_t[n_models];
available[0] = 1;
for (ssi_size_t n_model = 1; n_model < _n_models; n_model++) {
stream = streams[n_model - 1];
if (stream->num > 0) {
found_data = true;
available[n_model] = 1;
}
else{
miss_counter++;
available[n_model] = 0;
if(available[0] == 1){
available[0] = 0;
miss_counter++;
}
}
}
ssi_size_t counter = 0;
ssi_size_t *models_actual = new ssi_size_t[(n_models - miss_counter)];
for (ssi_size_t n_model = 0; n_model < n_models; n_model++) {
if(available[n_model] == 1){
models_actual[counter] = n_model;
counter++;
}
}
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
ssi_print("\n\n-----------------------------\navailable models:\n");
for(ssi_size_t i = 0; i < (n_models - miss_counter); i++){
ssi_print("%d ", models_actual[i]);
}ssi_print("\n");
}
if(found_data){
if(available[0] == 1){
//feature fusion possible
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
ssi_print("\nfeature fusion possible\n");
}
model = models[0];
stream = 0;
ssi_stream_t *fusion_stream = new ssi_stream_t;
ssi_size_t fusion_stream_dim = 0;
for(ssi_size_t nstrm = 0; nstrm < _n_streams; nstrm++){
fusion_stream_dim += streams[nstrm]->dim;
}
//create aligned streams
ssi_stream_init (*fusion_stream, 1, fusion_stream_dim, streams[0]->byte, streams[0]->type, streams[0]->sr);
ssi_byte_t *ptr = fusion_stream->ptr;
for(ssi_size_t i = 0; i < _n_streams; i++){
memcpy(ptr, streams[i]->ptr, ( streams[i]->byte * streams[i]->dim ) );
ptr += ( streams[i]->byte * streams[i]->dim );
}
//clear probs
for (ssi_size_t num_probs = 0; num_probs < n_probs; num_probs++){
probs[num_probs] = 0.0f;
}
model->forward (*fusion_stream, n_probs, probs);
ssi_stream_destroy(*fusion_stream);
delete fusion_stream;
fusion_stream = 0;
if(available){
delete [] available;
available = 0;
}
if(models_actual){
delete [] models_actual;
models_actual = 0;
}
return true;
}else{
//feature fusion not possible, choose filler ...
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
ssi_print("\nfeature fusion not possible: filler needed\n");
ssi_print("\nfiller:\n");
for (ssi_size_t n_model = 0; n_model < _n_streams; n_model++) {
ssi_print("%d ", _filler[n_model]);
}ssi_print("\n");
}
bool model_available = false;
ssi_size_t model_id = 0;
for(ssi_size_t h = 0; h < _n_streams; h++){
model_id = _filler[h];
for(ssi_size_t i = 0; i < (n_models - miss_counter); i++){
if(model_id == models_actual[i]){
model_available = true;
break;
}
}
if(model_available == true){
model = models[model_id];
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
ssi_print("\nSelected Model: %d", model_id);
}
break;
}
}
model->forward(*streams[model_id - 1], n_probs, probs);
}
}
if(available){
delete [] available;
available = 0;
}
if(models_actual){
delete [] models_actual;
models_actual = 0;
}
/// is there a draw ? ///
ssi_size_t max_ind = 0;
ssi_size_t max_ind_draw = 0;
ssi_real_t max_val = probs[0];
bool draw = false;
for (ssi_size_t i = 1; i < n_probs; i++) {
if (probs[i] >= max_val) {
if(probs[i] == max_val){
draw = true;
max_ind_draw = i;
}
max_val = probs[i];
max_ind = i;
}
}
if(draw && (max_ind == max_ind_draw)){
return false;
}else{
return found_data;
}
}
Sprite* NodeFactory::CreatePODSprite(const FileIdRef& modelName)
{
IModel* model = ModelFactory::Instance().Create(modelName);
RETURN_NULL_IF_NULL(model);
return (Sprite*)model->CreateCloneInstance();
}
ConstSection CFormatHandler::GetSection(const IModel &model,String name) const
{
return model.GetSection(name);
}
void UpdateAgentsFromCrowdData(GSceneManager* crowdEngine, map<UID, IModel*>& agentModels, map<string, float> meshScales, map<string, IMesh*> meshList, map<UID, IModel*>& DestinationVectors, map<UID, IModel*>& MovementVectors)
{
//TODO: Find correct value for thisScale
gen::CMatrix3x3 tempAgentMat;
float tempModelMat[16];
for (auto agent : agentModels)
{
if (crowdEngine->GetAgentMatrix(agent.first, tempAgentMat))
{
float thisScale = meshScales[FindStringFromMesh(agent.second->GetMesh(), meshList)];
agent.second->GetMatrix(tempModelMat);
tempModelMat[0] = tempAgentMat.e00 * thisScale;
tempModelMat[2] = tempAgentMat.e01 * thisScale;
tempModelMat[8] = tempAgentMat.e10 * thisScale;
tempModelMat[10] = tempAgentMat.e11 * thisScale;
tempModelMat[12] = tempAgentMat.e20;
tempModelMat[14] = tempAgentMat.e21;
agent.second->SetMatrix(tempModelMat);
}
}
#ifdef DirectionVisualiserEnabled
gen::CVector2 tempDestination;
for (auto destinationVector : DestinationVectors)
{
if (crowdEngine->GetAgentDestination(destinationVector.first, tempDestination))
{
IModel* thisAgentModel = agentModels.at(destinationVector.first);
//Set the vector model to the id model's position
destinationVector.second->SetPosition(thisAgentModel->GetX(),
thisAgentModel->GetY() + 10.0f, //+10 to have to vector model rest atop the id model
thisAgentModel->GetZ());
destinationVector.second->LookAt(tempDestination.x, 10.0f, tempDestination.y);
CVector2 vectorToEnd = tempDestination - CVector2(thisAgentModel->GetX(), thisAgentModel->GetZ());
destinationVector.second->ScaleZ(vectorToEnd.Length());
}
}
for (auto movementVector : MovementVectors)
{
//Will only fetch the results of global collision avoidance
if (crowdEngine->GetAgentDesiredVector(movementVector.first, tempDestination))
{
IModel* thisAgentModel = agentModels.at(movementVector.first);
//Set the vector model to the id model's position
movementVector.second->SetPosition(thisAgentModel->GetX(),
thisAgentModel->GetY() + 11.0f, //+11 to have to vector model rest atop the id model
thisAgentModel->GetZ());
movementVector.second->LookAt(tempDestination.x + thisAgentModel->GetX(), 10.0f, tempDestination.y + thisAgentModel->GetZ());
movementVector.second->ScaleZ(tempDestination.Length());
}
}
#endif
}
void UpdateAgentFromCrowdData(UID agentID, GSceneManager* crowdEngine, map<UID, IModel*>& agentModels, map<string, float> meshScales, map<string, IMesh*> meshList, map<UID, IModel*>& DestinationVectors, map<UID, IModel*>& MovementVectors)
{
gen::CMatrix3x3 tempAgentMat;
if (crowdEngine->GetAgentMatrix(agentID, tempAgentMat))
{
try //Find the id 'holding' and set the holding skin
{
float tempModelMat[16];
IModel* thisAgentModel;
thisAgentModel = agentModels.at(agentID);
float thisScale = meshScales[FindStringFromMesh(thisAgentModel->GetMesh(), meshList)];
thisAgentModel->GetMatrix(tempModelMat);
tempModelMat[0] = tempAgentMat.e00 * thisScale;
tempModelMat[2] = tempAgentMat.e01 * thisScale;
tempModelMat[8] = tempAgentMat.e10 * thisScale;
tempModelMat[10] = tempAgentMat.e11 * thisScale;
tempModelMat[12] = tempAgentMat.e20;
tempModelMat[14] = tempAgentMat.e21;
thisAgentModel->SetMatrix(tempModelMat);
}
catch (std::out_of_range err)
{
cout << err.what();
}
}
#ifdef DirectionVisualiserEnabled
gen::CVector2 tempDestination;
if (crowdEngine->GetAgentDestination(agentID, tempDestination))
{
IModel* thisVectorModel;
IModel* thisAgentModel;
thisAgentModel = agentModels.at(agentID);
thisVectorModel = DestinationVectors.at(agentID);
//Set the vector model to the id model's position
thisVectorModel->SetPosition(thisAgentModel->GetX(),
thisAgentModel->GetY() + 10.0f,
thisAgentModel->GetZ());
thisVectorModel->LookAt(tempDestination.x, 10.0f, tempDestination.y);
CVector2 vectorToEnd = tempDestination - CVector2(thisAgentModel->GetX(), thisAgentModel->GetZ());
thisVectorModel->ScaleZ(vectorToEnd.Length());
}
if (crowdEngine->GetAgentDesiredVector(agentID, tempDestination))
{
IModel* thisVectorModel;
IModel* thisAgentModel;
thisAgentModel = agentModels.at(agentID);
thisVectorModel = MovementVectors.at(agentID);
//Set the vector model to the id model's position
thisVectorModel->SetPosition(thisAgentModel->GetX(),
thisAgentModel->GetY() + 10.0f,
thisAgentModel->GetZ());
thisVectorModel->LookAt(tempDestination.x + thisAgentModel->GetX(), 10.0f, tempDestination.y + thisAgentModel->GetZ());
thisVectorModel->ScaleZ(tempDestination.Length());
}
#endif
}
int EngineMain(string worldFile)
{
int returnValue = Quit_Completely;
//--------------------------
// CrowdDynamics Setup
//--------------------------
GSceneManager* crowdEngine = GSceneManager::GetInstance(worldFile);
worldBlueprint = crowdEngine->GetWorldBlueprint();
// Create a 3D engine (using TLX engine here) and open a window for it
I3DEngine* gameEngine = New3DEngine(kTLX);
gameEngine->StartWindowed();
// Add default folder for meshes and other media
gameEngine->AddMediaFolder(".\\Media");
IFont* mousePosFont = gameEngine->LoadFont("Font1.bmp");
IMesh* floorTileMesh = gameEngine->LoadMesh("FloorTile.x");
IMesh* vectorMesh = gameEngine->LoadMesh("Vector.x");
IMesh* influenceTileMesh = gameEngine->LoadMesh("InfluenceTile.x");
IMesh* SkyboxMesh = gameEngine->LoadMesh("Skybox.x");
////////////////////////
// Obstacles
////////////////////////
std::map<string, float> obstacleMeshList = crowdEngine->GetObstacleMeshes();
std::map<string, IMesh*> obstacleTLMeshes;
for (auto mesh : obstacleMeshList) //Load the TL Meshes
{
obstacleTLMeshes.emplace(make_pair(mesh.first, gameEngine->LoadMesh(mesh.first)));
}
vector<UID> obstacleUIDs = crowdEngine->GetObstacleUIDs(); //Get a list of all the obstacles in the scene
map<UID, IModel*> obstacleModels;
for (auto id : obstacleUIDs) //Construct a TL model for each obstacle
{
string thisMeshName;
if (crowdEngine->GetObstacleMesh(id, thisMeshName))
{
obstacleModels.emplace(id, obstacleTLMeshes[thisMeshName]->CreateModel());
}
}
////////////////////////
// Agents
////////////////////////
std::map<string, float> agentMeshScales = crowdEngine->GetAgentMeshes();
std::map<string, IMesh*> agentTLMeshes;
for (auto mesh : agentMeshScales)
{
agentTLMeshes.emplace(make_pair(mesh.first, gameEngine->LoadMesh(mesh.first)));
}
map<UID, IModel*> Agents;
map<UID, IModel*> DestinationVectors;
map<UID, IModel*> MovementVectors;
vector<UID> AgentIDs = crowdEngine->GetAgentUIDs();
for (auto id : AgentIDs)
{
//Use the Y Column as the height (0 column), CrowdDynamics uses X and Y as this will use X and Z
//Where the model spawns is irrelevant as it's matrix is built from the CrowdDynamics matrix
string thisMeshName;
if (crowdEngine->GetAgentMeshFile(id, thisMeshName))
{
Agents.emplace(make_pair(id, agentTLMeshes[thisMeshName]->CreateModel()));
Agents[id]->ScaleY(agentMeshScales[thisMeshName]);
#ifdef DirectionVisualiserEnabled
DestinationVectors.insert(make_pair(id, vectorMesh->CreateModel()));
MovementVectors.insert(make_pair(id, vectorMesh->CreateModel()));
#endif
}
}
#ifdef DirectionVisualiserEnabled
for (auto item : MovementVectors)
{
item.second->SetSkin("vectortex2.jpg");
}
#endif
IModel** FloorTiles;
IModel* SkyBox = SkyboxMesh->CreateModel();
SkyBox->ScaleX((worldBlueprint.WorldSize.x + 2000.0f) / 2000.0f); //worldBlueprint.WorldSize.x / 200.0f);
SkyBox->ScaleZ((worldBlueprint.WorldSize.y + 2000.0f) / 2000.0f); //worldBlueprint.WorldSize.y / 200.0f);
SkyBox->SetPosition(worldBlueprint.WorldSize.x / 2.0f, -1000.0f, worldBlueprint.WorldSize.y / 2.0f);
FloorTiles = new IModel*[worldBlueprint.subdivisions.x * worldBlueprint.subdivisions.y];
for (int i = 0; i < worldBlueprint.subdivisions.x; i++)
{
for (int j = 0; j < worldBlueprint.subdivisions.y; j++)
{
FloorTiles[i * worldBlueprint.subdivisions.x + j] = floorTileMesh->CreateModel(i * (worldBlueprint.WorldSize.x / worldBlueprint.subdivisions.x), 0.0f, j * (worldBlueprint.WorldSize.y / worldBlueprint.subdivisions.y));
FloorTiles[i * worldBlueprint.subdivisions.x + j]->ScaleX(worldBlueprint.WorldSize.x / worldBlueprint.subdivisions.x);
FloorTiles[i * worldBlueprint.subdivisions.x + j]->ScaleZ(worldBlueprint.WorldSize.y / worldBlueprint.subdivisions.y);
FloorTiles[i * worldBlueprint.subdivisions.x + j]->Scale(1.0f);
}
}
#ifdef InfluenceVisualiserEnabled
IModel** InfluenceTiles;
InfluenceTiles = new IModel*[worldBlueprint.influenceSubdivisions.x * worldBlueprint.influenceSubdivisions.y];
for (int i = 0; i < worldBlueprint.influenceSubdivisions.x; i++)
{
for (int j = 0; j < worldBlueprint.influenceSubdivisions.y; j++)
{
InfluenceTiles[i * worldBlueprint.influenceSubdivisions.x + j] = influenceTileMesh->CreateModel(static_cast<float>(i) / worldBlueprint.influenceSquaresPerUnit, 0.5f, (static_cast<float>(j) + 1) / worldBlueprint.influenceSquaresPerUnit);
InfluenceTiles[i * worldBlueprint.influenceSubdivisions.x + j]->RotateX(180.0f);
InfluenceTiles[i * worldBlueprint.influenceSubdivisions.x + j]->ScaleX((1.0f / worldBlueprint.influenceSquaresPerUnit) * 0.75f);
InfluenceTiles[i * worldBlueprint.influenceSubdivisions.x + j]->ScaleZ((1.0f / worldBlueprint.influenceSquaresPerUnit) * 0.75f);
}
}
#endif
ICamera* cameras[Camera_Size];
ECameraState currentCameraState = Camera_TopDown;
cameras[Camera_FirstPerson]= gameEngine->CreateCamera(kFPS, worldBlueprint.WorldSize.x / 2.0f, (worldBlueprint.WorldSize.x + worldBlueprint.WorldSize.y) / 2, worldBlueprint.WorldSize.y / 2.0f);
cameras[Camera_FirstPerson]->SetMovementSpeed(100.0f);
cameras[Camera_FirstPerson]->SetRotationSpeed(25.0f);
cameras[Camera_FirstPerson]->RotateX(90.0f);
cameras[Camera_TopDown] = gameEngine->CreateCamera(kManual, worldBlueprint.WorldSize.x / 2.0f, 220.0f, worldBlueprint.WorldSize.y / 2.0f);
cameras[Camera_TopDown]->RotateX(90.0f);
float frameRate;
stringstream frameStream;
gen::CMatrix3x3 tempAgentMat;
string tempString;
//Assign the simulation matrices to the model matrices - first time
UpdateAgentsFromCrowdData(crowdEngine, Agents, agentMeshScales,agentTLMeshes, DestinationVectors, MovementVectors);
UpdateObstaclesFromCrowdData(crowdEngine, obstacleModels);
UID holding = -1;
crowdEngine->SetPaused(true);
// The main game loop, repeat until engine is stopped
while (gameEngine->IsRunning())
{
if (gameEngine->KeyHit(Key_Escape))
{
returnValue = Quit_Completely;
gameEngine->Stop();
}
if (gameEngine->KeyHit(Key_Delete))
{
returnValue = Quit_LoadNewMap;
gameEngine->Stop();
}
frameTime = gameEngine->Timer();
// Draw the scene
gameEngine->DrawScene(cameras[currentCameraState]);
//Check if the active camera is to change
CameraSwitcher(gameEngine, cameras, currentCameraState);
DrawPointingPosition(gameEngine, cameras[currentCameraState], mousePosFont, frameStream);
frameRate = 1 / frameTime;
frameStream << setprecision(4) << (frameRate);
gameEngine->SetWindowCaption(frameStream.str());
frameStream.str("");
CameraControls(gameEngine, cameras[currentCameraState]);
/**** Update your scene each frame here ****/
crowdEngine->Update(frameTime); //Update the CrowdDynamics simulation
//Update the influence representation from the crowd engine
#ifdef InfluenceVisualiserEnabled
UpdateInfluenceFromCrowdData(crowdEngine, InfluenceTiles);
#endif
//Assign the simulation matrices to the model matrices
UpdateAgentsFromCrowdData(crowdEngine, Agents, agentMeshScales, agentTLMeshes, DestinationVectors, MovementVectors);
UpdateObstaclesFromCrowdData(crowdEngine, obstacleModels);
if (gameEngine->KeyHit(pauseKey))
{
crowdEngine->SetPaused(!crowdEngine->GetIsPaused()); //Toggle paused
}
if (gameEngine->KeyHeld(Key_T) && crowdEngine->GetIsPaused())
{
crowdEngine->PerformOneTimeStep(); //Update the CrowdDynamics simulation
//Assign the simulation matrices to the model matrices
UpdateAgentsFromCrowdData(crowdEngine, Agents, agentMeshScales, agentTLMeshes, DestinationVectors, MovementVectors);
UpdateObstaclesFromCrowdData(crowdEngine, obstacleModels);
}
if (gameEngine->KeyHit(Key_N))
{
CVector3 tempPos = WorldPosFromPixel(gameEngine, cameras[currentCameraState]);
CVector2 mousePosition = CVector2(tempPos.x, tempPos.z);
#ifdef _DEBUG
crowdEngine->GetSquareString(mousePosition, tempString);
cout << tempString;
#endif
}
if (gameEngine->KeyHeld(Mouse_LButton))
{
if (holding == -1) //If not holding anything, pick the nearest item up
{
UID tempHold;
if (FindNearestAgent(Agents, crowdEngine, tempHold, gameEngine, cameras[currentCameraState]))
{
holding = tempHold;
string agentString;
#ifdef _DEBUG
if (crowdEngine->GetAgentString(holding, agentString))
{
cout << "Picked up: " << endl;
cout << agentString << endl;
}
#endif
try //Find the id 'holding' and set the holding skin
{
Agents.at(holding)->SetSkin("tiles3.jpg");
}
catch (std::out_of_range err)
{
cout << err.what();
}
}
}
if (holding != -1)
{
CVector3 tempPos = WorldPosFromPixel(gameEngine, cameras[currentCameraState]);
crowdEngine->SetAgentPosition(holding, CVector2(tempPos.x, tempPos.z));
UpdateAgentFromCrowdData(holding, crowdEngine, Agents, agentMeshScales, agentTLMeshes, DestinationVectors, MovementVectors);
}
}
else //Release the held item if there is a held item
{
if (holding != -1)
{
#ifdef _DEBUG
string agentString;
if (crowdEngine->GetAgentString(holding, agentString))
{
cout << "Dropped: " << endl;
cout << agentString << endl;
}
#endif
try
{
if (crowdEngine->GetAgentWatched(holding))
{
Agents.at(holding)->SetSkin("tiles2.jpg");
}
else
{
Agents.at(holding)->SetSkin("tiles1.jpg");
}
}
catch (std::out_of_range err)
{
cout << err.what();
}
holding = -1;
}
}
if (gameEngine->KeyHit(Mouse_RButton))
{
UID foundNearest;
if (FindNearestAgent(Agents, crowdEngine, foundNearest, gameEngine, cameras[currentCameraState]))
{
bool isWatched = crowdEngine->GetAgentWatched(foundNearest);
if (crowdEngine->SetAgentWatched(foundNearest, !crowdEngine->GetAgentWatched(foundNearest)))
{
cout << "Agent: " << foundNearest << " Is ";
if (isWatched) //Was being watched before change, is now not being watched
{
try
{
Agents.at(foundNearest)->SetSkin("tiles1.jpg");
}
catch (std::out_of_range err)
{
cout << endl << err.what() << endl;
}
cout << "Not ";
}
else
{
try
{
Agents.at(foundNearest)->SetSkin("tiles2.jpg");
}
catch (std::out_of_range err)
{
cout << endl << err.what() << endl;
}
}
cout << "Being Watched" << endl;
}
}
}
if (gameEngine->KeyHit(Key_Space))
{
CVector3 tempPos = WorldPosFromPixel(gameEngine, cameras[currentCameraState]);
string thisBlueprint = "AgentBlueprint1.xml";
UID newID = crowdEngine->AddAgent(thisBlueprint, true, CVector2(tempPos.x, tempPos.z));
if (agentMeshScales.count(thisBlueprint) == 0) //This blueprint does not already exist on the TL side
{
float scale;
if (crowdEngine->GetAgentMeshScale(thisBlueprint, scale))
{
agentTLMeshes.emplace(thisBlueprint, gameEngine->LoadMesh(thisBlueprint));
agentMeshScales[thisBlueprint] = scale;
}
}
Agents.insert(make_pair(newID, agentTLMeshes[thisBlueprint]->CreateModel(tempPos.x, 0.0f, tempPos.z)));
#ifdef DirectionVisualiserEnabled
DestinationVectors.insert(make_pair(newID, vectorMesh->CreateModel(tempPos.x, 10.0f, tempPos.z)));
MovementVectors.insert(make_pair(newID, vectorMesh->CreateModel(tempPos.x, 11.0f, tempPos.z)));
MovementVectors.at(newID)->SetSkin("vectortex2.jpg");
#endif
}
}
// Delete the 3D engine now we are finished with it
gameEngine->Delete();
delete[] FloorTiles;
#ifdef InfluenceVisualiserEnabled
delete[] InfluenceTiles;
#endif
delete crowdEngine;
return returnValue;
}
size_t CFormatHandler::GetSectionCount(const IModel &model) const {
return model.GetSectionCount();
}
bool MajorityVoting::forward (ssi_size_t n_models,
IModel **models,
ssi_size_t n_streams,
ssi_stream_t *streams[],
ssi_size_t n_probs,
ssi_real_t *probs) {
if (n_streams != _n_streams) {
ssi_wrn ("#streams (%u) differs from #streams (%u)", n_streams, _n_streams);
return false;
}
if (_n_streams != n_models) {
ssi_wrn ("#models (%u) differs from #streams (%u)", n_models, _n_streams);
return false;
}
if (_n_classes != n_probs) {
ssi_wrn ("#probs (%u) differs from #classes (%u)", n_probs ,_n_classes);
return false;
}
bool found_data = false;
IModel *model = 0;
ssi_stream_t *stream = 0;
//calculate actual models
ssi_size_t miss_counter = 0;
ssi_size_t *available = new ssi_size_t[n_models];
for (ssi_size_t n_model = 0; n_model < n_models; n_model++) {
stream = streams[n_model];
if (stream->num > 0) {
found_data = true;
available[n_model] = 1;
}
else{
miss_counter++;
available[n_model] = 0;
}
}
ssi_size_t counter = 0;
ssi_size_t *models_actual = new ssi_size_t[(n_models - miss_counter)];
for (ssi_size_t n_model = 0; n_model < n_models; n_model++) {
if(available[n_model] == 1){
models_actual[counter] = n_model;
counter++;
}
}
if(found_data){
ssi_size_t *votes = new ssi_size_t[(n_models - miss_counter)];
for (ssi_size_t n_model = 0; n_model < (n_models - miss_counter); n_model++) {
model = models[models_actual[n_model]];
stream = streams[models_actual[n_model]];
model->forward (*stream, n_probs, probs);
ssi_size_t max_ind = 0;
ssi_real_t max_val = probs[0];
for (ssi_size_t i = 1; i < n_probs; i++) {
if (probs[i] > max_val) {
max_val = probs[i];
max_ind = i;
}
}
votes[n_model] = max_ind;
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
for (ssi_size_t num_probs = 0; num_probs < n_probs; num_probs++){
ssi_print("%f ", probs[num_probs]);
}ssi_print("- vote: %d\n", max_ind);
}
}
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
ssi_print("\n");
}
//clear probs
for (ssi_size_t num_probs = 0; num_probs < n_probs; num_probs++){
probs[num_probs] = 0;
}
//fill probs with votes
for(ssi_size_t n_model = 0; n_model < (n_models - miss_counter); n_model++){
probs[votes[n_model]]++;
}
if (ssi_log_level >= SSI_LOG_LEVEL_DEBUG) {
for (ssi_size_t num_probs = 0; num_probs < n_probs; num_probs++){
ssi_print("%f ", probs[num_probs]);
}ssi_print("\n\n");
}
if(votes){
delete[] votes;
votes = 0;
}
if(available){
delete [] available;
available = 0;
}
if(models_actual){
delete [] models_actual;
models_actual = 0;
}
}
/// is there a draw ? ///
ssi_size_t max_ind = 0;
ssi_size_t max_ind_draw = 0;
ssi_real_t max_val = probs[0];
bool draw = false;
for (ssi_size_t i = 1; i < n_probs; i++) {
if (probs[i] >= max_val) {
if(probs[i] == max_val){
draw = true;
max_ind_draw = i;
}
max_val = probs[i];
max_ind = i;
}
}
if(draw && (max_ind == max_ind_draw)){
return false;
}else{
return found_data;
}
}
virtual void Execute(IRenderer *r){
r->RenderModel(model, param);
model->Release(); model = NULL;
}