void Scene::Draw()
{
TIME_PROFILE("Scene::Draw");
//float timeElapsed = SystemTimer::Instance()->FrameDelta();
shadowVolumes.clear();
if(NULL != sceneGlobalMaterial)
{
NMaterialProperty* propShadowColor = sceneGlobalMaterial->GetMaterialProperty(NMaterial::PARAM_SHADOW_COLOR);
if(NULL != propShadowColor)
{
DVASSERT(Shader::UT_FLOAT_VEC4 == propShadowColor->type);
float32* propDataPtr = (float32*)propShadowColor->data;
Color shadowColor(propDataPtr[0], propDataPtr[1], propDataPtr[2], propDataPtr[3]);
renderSystem->SetShadowRectColor(shadowColor);
}
}
uint64 time = SystemTimer::Instance()->AbsoluteMS();
if(imposterManager)
{
//imposterManager->ProcessQueue();
}
renderSystem->Render(clearBuffers);
//foliageSystem->DebugDrawVegetation();
drawTime = SystemTimer::Instance()->AbsoluteMS() - time;
}
void SwitchSystem::Process(float32 timeElapsed)
{
TIME_PROFILE("SwitchSystem::Process");
Set<Entity*>::iterator it;
Set<Entity*>::const_iterator itEnd = updatableEntities.end();
for(it = updatableEntities.begin(); it != itEnd; ++it)
{
Entity * entity = *it;
SwitchComponent * sw = (SwitchComponent*)entity->GetComponent(Component::SWITCH_COMPONENT);
if (sw->oldSwitchIndex != sw->newSwitchIndex)
{
SetSwitchHierarchy(entity, sw->newSwitchIndex);
sw->oldSwitchIndex = sw->newSwitchIndex;
ActionComponent* actionComponent = cast_if_equal<ActionComponent*>(entity->GetComponent(Component::ACTION_COMPONENT));
if(NULL != actionComponent)
{
actionComponent->StartSwitch(sw->newSwitchIndex);
}
}
}
updatableEntities.clear();
}
void RenderUpdateSystem::Process(float32 timeElapsed)
{
TIME_PROFILE("RenderUpdateSystem::Process");
RenderSystem * renderSystem = GetScene()->GetRenderSystem();
renderSystem->SetMainCamera(GetScene()->GetCurrentCamera());
renderSystem->SetDrawCamera(GetScene()->GetDrawCamera());
GetScene()->GetRenderSystem()->Update(timeElapsed);
}
void Scene::Update(float timeElapsed)
{
TIME_PROFILE("Scene::Update");
uint64 time = SystemTimer::Instance()->AbsoluteMS();
updatableSystem->UpdatePreTransform();
transformSystem->Process();
updatableSystem->UpdatePostTransform();
if(RenderManager::Instance()->GetOptions()->IsOptionEnabled(RenderOptions::UPDATE_LODS))
{
lodSystem->SetCamera(currentCamera);
lodSystem->Process();
}
switchSystem->Process();
// entityManager->Flush();
int32 size;
size = (int32)animations.size();
for (int32 animationIndex = 0; animationIndex < size; ++animationIndex)
{
SceneNodeAnimationList * anim = animations[animationIndex];
anim->Update(timeElapsed);
}
referenceNodeSuffixChanged = false;
if(RenderManager::Instance()->GetOptions()->IsOptionEnabled(RenderOptions::UPDATE_ANIMATED_MESHES))
{
size = (int32)animatedMeshes.size();
for (int32 animatedMeshIndex = 0; animatedMeshIndex < size; ++animatedMeshIndex)
{
AnimatedMesh * mesh = animatedMeshes[animatedMeshIndex];
mesh->Update(timeElapsed);
}
}
//if(imposterManager)
//{
// imposterManager->Update(timeElapsed);
//}
updateTime = SystemTimer::Instance()->AbsoluteMS() - time;
}
void RenderLayer::Draw(const FastName & ownerRenderPass, Camera * camera, RenderLayerBatchArray * renderLayerBatchArray)
{
TIME_PROFILE("RenderLayer::Draw");
renderLayerBatchArray->Sort(camera);
#if CAN_INSTANCE_CHECK
RenderBatch * prevBatch = 0;
uint32 canBeInstanced = 0;
Vector<int32> chain;
#endif
uint32 size = (uint32)renderLayerBatchArray->GetRenderBatchCount();
RenderOptions* options = RenderManager::Instance()->GetOptions();
bool layerOcclustionStatsEnabled = options->IsOptionEnabled(RenderOptions::LAYER_OCCLUSION_STATS);
if(layerOcclustionStatsEnabled)
{
if(NULL == occlusionQuery)
{
occlusionQuery = new OcclusionQuery();
occlusionQuery->Init();
}
if(false == queryPending)
{
occlusionQuery->BeginQuery();
}
}
for (uint32 k = 0; k < size; ++k)
{
RenderBatch * batch = renderLayerBatchArray->Get(k);
#if CAN_INSTANCE_CHECK
if (prevBatch && batch->GetPolygonGroup() == prevBatch->GetPolygonGroup() && batch->GetMaterial()->GetParent() == prevBatch->GetMaterial()->GetParent())
{
canBeInstanced++;
}else
{
if (canBeInstanced > 0)
chain.push_back(canBeInstanced + 1);
canBeInstanced = 0;
}
#endif
batch->Draw(ownerRenderPass, camera);
#if CAN_INSTANCE_CHECK
prevBatch = batch;
#endif
}
if(layerOcclustionStatsEnabled)
{
if(false == queryPending)
{
occlusionQuery->EndQuery();
queryPending = true;
}
if((true == queryPending) &&
occlusionQuery->IsResultAvailable())
{
occlusionQuery->GetQuery(&lastFragmentsRenderedValue);
queryPending = false;
}
}
#if CAN_INSTANCE_CHECK
int32 realDrawEconomy = 0;
for (uint32 k = 0; k < chain.size(); ++k)
{
realDrawEconomy += (chain[k] - 1);
}
Logger::Debug("Pass: %s Layer: %s Size: %d Can be instanced: %d Econ: %d", ownerRenderPass.c_str(), name.c_str(), size, chain.size(), realDrawEconomy);
for (uint32 k = 0; k < chain.size(); ++k)
{
Logger::Debug("%d - %d", k, chain[k]);
}
#endif
}
void Scene::Update(float timeElapsed)
{
TIME_PROFILE("Scene::Update");
uint64 time = SystemTimer::Instance()->AbsoluteMS();
bool needShowStaticOcclusion = RenderManager::Instance()->GetOptions()->IsOptionEnabled(RenderOptions::DEBUG_DRAW_STATIC_OCCLUSION);
if (needShowStaticOcclusion&&!staticOcclusionDebugDrawSystem)
{
staticOcclusionDebugDrawSystem = new StaticOcclusionDebugDrawSystem(this);
AddSystem(staticOcclusionDebugDrawSystem, (1 << Component::STATIC_OCCLUSION_COMPONENT), false, renderUpdateSystem);
}else if (!needShowStaticOcclusion&&staticOcclusionDebugDrawSystem)
{
RemoveSystem(staticOcclusionDebugDrawSystem);
SafeDelete(staticOcclusionDebugDrawSystem);
}
uint32 size = (uint32)systemsToProcess.size();
for (uint32 k = 0; k < size; ++k)
{
SceneSystem * system = systemsToProcess[k];
if((systemsMask & SCENE_SYSTEM_UPDATEBLE_FLAG) && system == transformSystem)
{
updatableSystem->UpdatePreTransform(timeElapsed);
transformSystem->Process(timeElapsed);
updatableSystem->UpdatePostTransform(timeElapsed);
}
else if(system == lodSystem)
{
if(RenderManager::Instance()->GetOptions()->IsOptionEnabled(RenderOptions::UPDATE_LODS))
{
lodSystem->Process(timeElapsed);
}
}
else
{
system->Process(timeElapsed);
}
}
// int32 size;
//
// size = (int32)animations.size();
// for (int32 animationIndex = 0; animationIndex < size; ++animationIndex)
// {
// SceneNodeAnimationList * anim = animations[animationIndex];
// anim->Update(timeElapsed);
// }
//
// if(RenderManager::Instance()->GetOptions()->IsOptionEnabled(RenderOptions::UPDATE_ANIMATED_MESHES))
// {
// size = (int32)animatedMeshes.size();
// for (int32 animatedMeshIndex = 0; animatedMeshIndex < size; ++animatedMeshIndex)
// {
// AnimatedMesh * mesh = animatedMeshes[animatedMeshIndex];
// mesh->Update(timeElapsed);
// }
// }
//if(imposterManager)
//{
// imposterManager->Update(timeElapsed);
//}
updateTime = SystemTimer::Instance()->AbsoluteMS() - time;
}
void Scene::Draw()
{
TIME_PROFILE("Scene::Draw");
//Sprite * fboSprite = Sprite::CreateAsRenderTarget(512, 512, FORMAT_RGBA8888);
//RenderManager::Instance()->SetRenderTarget(fboSprite);
//RenderManager::Instance()->SetViewport(Rect(0, 0, 512, 512), false);
nodeCounter = 0;
uint64 time = SystemTimer::Instance()->AbsoluteMS();
shadowVolumes.clear();
//const GLenum discards[] = {GL_DEPTH_ATTACHMENT, GL_COLOR_ATTACHMENT0};
//RENDER_VERIFY(glDiscardFramebufferEXT(GL_FRAMEBUFFER,2,discards));
//glDepthMask(GL_TRUE);
//RENDER_VERIFY(glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT | GL_STENCIL_BUFFER_BIT));
if(imposterManager)
{
//imposterManager->ProcessQueue();
}
RenderManager::Instance()->SetCullMode(FACE_BACK);
RenderManager::Instance()->SetState(RenderState::DEFAULT_3D_STATE);
RenderManager::Instance()->FlushState();
RenderManager::Instance()->ClearDepthBuffer();
//glDepthMask(GL_TRUE);
//RENDER_VERIFY(glClear(GL_COLOR_BUFFER_BIT | GL_DEPTH_BUFFER_BIT | GL_STENCIL_BUFFER_BIT));
if (currentCamera)
{
currentCamera->Set();
}
Matrix4 prevMatrix = RenderManager::Instance()->GetMatrix(RenderManager::MATRIX_MODELVIEW);
renderSystem->SetCamera(currentCamera);
renderUpdateSystem->Process();
actionSystem->Process(); //update action system before particles and render
particleEffectSystem->Process();
renderSystem->Render();
debugRenderSystem->SetCamera(currentCamera);
debugRenderSystem->Process();
RenderManager::Instance()->SetMatrix(RenderManager::MATRIX_MODELVIEW, prevMatrix);
if(imposterManager)
{
imposterManager->Draw();
}
RenderManager::Instance()->SetState(RenderState::DEFAULT_2D_STATE_BLEND);
drawTime = SystemTimer::Instance()->AbsoluteMS() - time;
//Image * image = Image::Create(512, 512, FORMAT_RGBA8888);
//RENDER_VERIFY(glReadPixels(0, 0, 512, 512, GL_RGBA, GL_UNSIGNED_BYTE, (GLvoid *)image->data));
//image->Save("img.png");
//RenderManager::Instance()->RestoreRenderTarget();
}
void Core::SystemProcessFrame()
{
Stats::Instance()->BeginFrame();
TIME_PROFILE("Core::SystemProcessFrame");
if (!core) return;
if (!isActive)return;
SystemTimer::Instance()->Start();
/**
Check if device not in lost state first / after that be
*/
if (!RenderManager::Instance()->IsDeviceLost())
{
// #ifdef __DAVAENGINE_DIRECTX9__
// if(firstRun)
// {
// core->BeginFrame();
// firstRun = false;
// }
// #else
InputSystem::Instance()->OnBeforeUpdate();
core->BeginFrame();
//#endif
#if !defined(__DAVAENGINE_ANDROID__)
RenderResource::SaveAllResourcesToSystemMem();
#endif //#if !defined(__DAVAENGINE_ANDROID__)
// recalc frame inside begin / end frame
if (Core::Instance()->needTorecalculateMultipliers)
{
Core::Instance()->CalculateScaleMultipliers();
RenderManager::Instance()->SetRenderOrientation(screenOrientation);
UIScreenManager::Instance()->ScreenSizeChanged();
UIControlSystem::Instance()->ScreenSizeChanged();
}
float32 frameDelta = SystemTimer::Instance()->FrameDelta();
SystemTimer::Instance()->UpdateGlobalTime(frameDelta);
if(Replay::IsRecord())
{
Replay::Instance()->RecordFrame(frameDelta);
}
if(Replay::IsPlayback())
{
UIControlSystem::Instance()->ReplayEvents();
frameDelta = Replay::Instance()->PlayFrameTime();
if(Replay::IsPlayback()) //can be unset in previous string
{
SystemTimer::Instance()->SetFrameDelta(frameDelta);
}
}
core->Update(frameDelta);
InputSystem::Instance()->OnAfterUpdate();
core->Draw();
core->EndFrame();
// #ifdef __DAVAENGINE_DIRECTX9__
// core->BeginFrame();
// #endif
}
Stats::Instance()->EndFrame();
globalFrameIndex++;
}
bool MD_PZone::zoneAnimate(void)
{
if (_fsmState == END)
return(true);
// work through things that stop us running this at all
if (((_fsmState == PAUSE) && (millis() - _lastRunTime < _pauseTime)) ||
(millis() - _lastRunTime < _tickTime) ||
(_suspend))
return(false);
// save the time now, before we run the animation, so that the animation is part of the
// delay between animations giving more accurate frame timing.
_lastRunTime = millis();
// any text to display?
if (_pText != NULL)
{
switch (_fsmState)
{
case END: // do nothing in this state
PRINT_STATE("ANIMATE");
break;
case INITIALISE:
PRINT_STATE("ANIMATE");
setInitialConditions();
zoneClear();
_moveIn = true;
// fall through to process the effect, first call will be with INITIALISE
default: // All state except END are handled by the special effect functions
switch (_moveIn ? _effectIn : _effectOut)
{
case PRINT: effectPrint(_moveIn); break;
case SLICE: effectSlice(_moveIn); break;
case WIPE: effectWipe(false, _moveIn); break;
case WIPE_CURSOR: effectWipe(true, _moveIn); break;
case OPENING: effectOpen(false, _moveIn); break;
case OPENING_CURSOR: effectOpen(true, _moveIn); break;
case CLOSING: effectClose(false, _moveIn); break;
case CLOSING_CURSOR: effectClose(true, _moveIn); break;
case BLINDS: effectBlinds(_moveIn); break;
case DISSOLVE: effectDissolve(_moveIn); break;
case SCAN_HORIZ: effectHScan(_moveIn); break;
case SCAN_VERT: effectVScan(_moveIn); break;
case GROW_UP: effectGrow(true, _moveIn); break;
case GROW_DOWN: effectGrow(false, _moveIn); break;
case SCROLL_UP: effectVScroll(true, _moveIn); break;
case SCROLL_DOWN: effectVScroll(false, _moveIn); break;
case SCROLL_LEFT: effectHScroll(true, _moveIn); break;
case SCROLL_RIGHT: effectHScroll(false, _moveIn); break;
case SCROLL_UP_LEFT: effectDiag(true, true, _moveIn); break;
case SCROLL_UP_RIGHT: effectDiag(true, false, _moveIn); break;
case SCROLL_DOWN_LEFT: effectDiag(false, true, _moveIn); break;
case SCROLL_DOWN_RIGHT: effectDiag(false, false, _moveIn); break;
default:
_fsmState = END;
}
// one way toggle for input to output, reset on initialize
_moveIn = _moveIn && !(_fsmState == PAUSE);
break;
}
}
TIME_PROFILE("\nAnimation time ");
TIME_PROFILE(": Cycle time ");
return(_fsmState == END);
}
void FoliageSystem::Process(float32 timeElapsed)
{
TIME_PROFILE("FoliageSystem::Process");
VegetationRenderObject* vegetationRO = GetVegetation(foliageEntity);
if(vegetationRO && vegetationRO->ReadyToRender())
{
WindSystem * windSystem = GetScene()->windSystem;
Camera * camera = GetScene()->GetRenderSystem()->GetMainCamera();
Vector<AbstractQuadTreeNode<VegetationSpatialData>*> & visibleCells = vegetationRO->BuildVisibleCellList(camera);
uint32 cellsCount = visibleCells.size();
Set<AbstractQuadTreeNode<VegetationSpatialData>* > updatableCells;
for(uint32 i = 0; i < cellsCount; ++i)
{
AbstractQuadTreeNode<VegetationSpatialData>* cell = visibleCells[i];
if(cell->data.width <= MAX_ANIMATED_CELL_WIDTH)
{
bool isMinAnimatedLod = (MIN_ANIMATED_CELL_WIDTH == cell->data.width);
if(isMinAnimatedLod)
{
updatableCells.insert(cell->parent);
}
else
{
updatableCells.insert(cell);
}
}
}
Vector4 layersAnimationSpring = vegetationRO->GetLayersAnimationSpring();
const Vector4& layerAnimationDrag = vegetationRO->GetLayerAnimationDragCoefficient();
Set<AbstractQuadTreeNode<VegetationSpatialData>* >::iterator endIt = updatableCells.end();
for(Set<AbstractQuadTreeNode<VegetationSpatialData>* >::iterator it = updatableCells.begin();
it != endIt;
++it)
{
AbstractQuadTreeNode<VegetationSpatialData>* cell = *it;
VegetationSpatialData& cellData = cell->data;
const Vector3 & min = cellData.bbox.min;
const Vector3 & max = cellData.bbox.max;
Vector3 cellPos[4] = {
Vector3(min.x, min.y, max.z),
Vector3(min.x, max.y, max.z),
Vector3(max.x, min.y, max.z),
Vector3(max.x, max.y, max.z)
};
for(uint32 layerIndex = 0; layerIndex < 4; ++layerIndex)
{
Vector3 windVec = windSystem->GetWind(cellPos[layerIndex]);
Vector2 windVec2D(windVec.x, windVec.y);
Vector2 & offset = cellData.animationOffset[layerIndex];
Vector2 & velocity = cellData.animationVelocity[layerIndex];
velocity += (windVec2D - layersAnimationSpring.data[layerIndex] * offset - layerAnimationDrag.data[layerIndex] * velocity * velocity.Length()) * timeElapsed;
offset += velocity * timeElapsed;
}
if(cell->children != NULL)
{
for(uint32 childIndex = 0; childIndex < 4; ++childIndex)
{
cell->children[childIndex]->data.animationOffset[0] = cellData.animationOffset[0];
cell->children[childIndex]->data.animationOffset[1] = cellData.animationOffset[1];
cell->children[childIndex]->data.animationOffset[2] = cellData.animationOffset[2];
cell->children[childIndex]->data.animationOffset[3] = cellData.animationOffset[3];
cell->children[childIndex]->data.animationVelocity[0] = cellData.animationVelocity[0];
cell->children[childIndex]->data.animationVelocity[1] = cellData.animationVelocity[1];
cell->children[childIndex]->data.animationVelocity[2] = cellData.animationVelocity[2];
cell->children[childIndex]->data.animationVelocity[3] = cellData.animationVelocity[3];
}
}
}
}
}
void Core::SystemProcessFrame()
{
#ifdef __DAVAENGINE_NVIDIA_TEGRA_PROFILE__
static bool isInit = false;
static EGLuint64NV frequency;
static PFNEGLGETSYSTEMTIMENVPROC eglGetSystemTimeNV;
static PFNEGLGETSYSTEMTIMEFREQUENCYNVPROC eglGetSystemTimeFrequencyNV;
if (!isInit)
{
eglGetSystemTimeNV = (PFNEGLGETSYSTEMTIMENVPROC) eglGetProcAddress("eglGetSystemTimeNV");
eglGetSystemTimeFrequencyNV = (PFNEGLGETSYSTEMTIMEFREQUENCYNVPROC) eglGetProcAddress("eglGetSystemTimeFrequencyNV");
if (!eglGetSystemTimeNV || !eglGetSystemTimeFrequencyNV)
{
DVASSERT(!"Error export eglGetSystemTimeNV, eglGetSystemTimeFrequencyNV");
exit(0);
}
frequency = eglGetSystemTimeFrequencyNV();
}
EGLuint64NV start = eglGetSystemTimeNV() / frequency;
#endif //__DAVAENGINE_NVIDIA_TEGRA_PROFILE__
Stats::Instance()->BeginFrame();
TIME_PROFILE("Core::SystemProcessFrame");
if (!core) return;
if (!isActive)return;
SystemTimer::Instance()->Start();
/**
Check if device not in lost state first / after that be
*/
if (!RenderManager::Instance()->IsDeviceLost())
{
// #ifdef __DAVAENGINE_DIRECTX9__
// if(firstRun)
// {
// core->BeginFrame();
// firstRun = false;
// }
// #else
InputSystem::Instance()->OnBeforeUpdate();
core->BeginFrame();
//#endif
#if !defined(__DAVAENGINE_ANDROID__)
RenderResource::SaveAllResourcesToSystemMem();
#endif //#if !defined(__DAVAENGINE_ANDROID__)
// recalc frame inside begin / end frame
if (Core::Instance()->needTorecalculateMultipliers)
{
Core::Instance()->CalculateScaleMultipliers();
RenderManager::Instance()->SetRenderOrientation(screenOrientation);
UIScreenManager::Instance()->ScreenSizeChanged();
UIControlSystem::Instance()->ScreenSizeChanged();
}
float32 frameDelta = SystemTimer::Instance()->FrameDelta();
SystemTimer::Instance()->UpdateGlobalTime(frameDelta);
if(Replay::IsRecord())
{
Replay::Instance()->RecordFrame(frameDelta);
}
if(Replay::IsPlayback())
{
UIControlSystem::Instance()->ReplayEvents();
frameDelta = Replay::Instance()->PlayFrameTime();
if(Replay::IsPlayback()) //can be unset in previous string
{
SystemTimer::Instance()->SetFrameDelta(frameDelta);
}
}
LocalNotificationController::Instance()->Update();
DownloadManager::Instance()->Update();
JobManager::Instance()->Update();
core->Update(frameDelta);
InputSystem::Instance()->OnAfterUpdate();
core->Draw();
core->EndFrame();
// #ifdef __DAVAENGINE_DIRECTX9__
// core->BeginFrame();
// #endif
}
Stats::Instance()->EndFrame();
globalFrameIndex++;
#ifdef __DAVAENGINE_NVIDIA_TEGRA_PROFILE__
EGLuint64NV end = eglGetSystemTimeNV() / frequency;
EGLuint64NV interval = end - start;
#endif //__DAVAENGINE_NVIDIA_TEGRA_PROFILE__
}
void RenderUpdateSystem::Process()
{
TIME_PROFILE("RenderUpdateSystem::Process");
float32 timeElapsed = SystemTimer::Instance()->FrameDelta();
GetScene()->GetRenderSystem()->Update(timeElapsed);
}