//waveデータをサウンドバッファにコピー
bool CSound::WriteDataToBuffer(IDirectSoundBuffer** buffer, void* data, DWORD dwOffset, DWORD dwWriteSize)
{
//EnterCriticalSection(&m_csWriteBuffer);
void* pmem[2];
DWORD alloc_size[2];
if(NULL == data || m_pSecondaryBuffer == NULL) return false;
if(DSERR_BUFFERLOST == (*buffer)->Lock(dwOffset, dwWriteSize, &pmem[0], &alloc_size[0], &pmem[1], &alloc_size[1], 0)){//サウンドバッファをロック
(*buffer)->Restore();
if(DS_OK != (*buffer)->Lock(dwOffset, dwWriteSize, &pmem[0], &alloc_size[0], &pmem[1], &alloc_size[1], 0)) return false;
}
//読み込んだサイズ分コピー
if(pmem[0]){
CORE_ASSERT(dwWriteSize==alloc_size[0], "");
copyMem(pmem[0], data, alloc_size[0]);
}else if(pmem[1]){
CORE_ASSERT(dwWriteSize==alloc_size[1], "");
copyMem(pmem[1], data, alloc_size[1]);
}else{
CORE_ASSERT(0, "sound memory allocation error");
}
(*buffer)->Unlock(pmem[0], alloc_size[0], pmem[1], alloc_size[1]); //バッファをアンロック
//LeaveCriticalSection(&m_csWriteBuffer);
return true;
}
void checkConsistency( const TriangleMesh& mesh )
{
#ifdef CORE_DEBUG
std::vector<bool> visited( mesh.m_vertices.size(), false );
for ( uint t = 0 ; t < mesh.m_triangles.size(); ++t )
{
const Triangle& tri = mesh.m_triangles[t];
for ( uint i = 0; i < 3; ++i )
{
std::string errStr;
StringUtils::stringPrintf( errStr, "Vertex %d is in triangle %d (#%d) is out of bounds", tri[i], t, i );
CORE_ASSERT( uint( tri[i] ) < mesh.m_vertices.size(), errStr.c_str() );
visited[tri[i]] = true;
}
}
for ( uint v = 0; v < visited.size(); ++v )
{
std::string errStr;
StringUtils::stringPrintf( errStr, "Vertex %d does not belong to any triangle", v );
CORE_ASSERT( visited[v], errStr.c_str() );
}
// Normals are optional but if they are present then every vertex should have one.
CORE_ASSERT( mesh.m_normals.size() == 0 || mesh.m_normals.size() == mesh.m_vertices.size(),
"Inconsistent number of normals" );
#endif
}
void Engine::Entity::setProperty(const EditableProperty& prop)
{
switch (prop.getType())
{
case EditableProperty::POSITION:
{
CORE_ASSERT(prop.getName() == "Position", "Wrong property");
std::lock_guard<std::mutex> lock(m_transformMutex);
m_transform.translation() = prop.asPosition();
break;
}
case EditableProperty::ROTATION:
{
CORE_ASSERT(prop.getName() == "Rotation", "Wrong property");
std::lock_guard<std::mutex> lock(m_transformMutex);
m_transform.linear() = prop.asRotation().toRotationMatrix();
break;
}
default:
CORE_ASSERT(false, "Wrong property");
}
}
bool csp::OpLua::CallLua( lua::LuaStack& stack, const char* functionName, int numArgs, int numRets )
{
CORE_ASSERT( m_self != lua::LUA_NO_REF );
stack.PushRegistryReferenced( m_self );
lua::LuaStackValue top = stack.GetTopValue();
CORE_ASSERT( top.IsTable() );
stack.GetField( top, functionName );
if ( !stack.GetTopValue().IsFunction() )
{
stack.Pop( numArgs + 2 );
return false;
}
// stack at this point: arg1, arg2, argN, self, function
stack.Insert( -numArgs-2 );
stack.Insert( -numArgs-1 );
// stack at this point: function, self, arg1, arg2, argN
lua::LuaState luaState( stack.InternalState() );
lua::Return::Enum result = luaState.Call( 1+numArgs, numRets );
return result == lua::Return::OK;
}
csp::WorkResult::Enum csp::Process::StartEvaluation( Host& host, int numArgs )
{
CORE_ASSERT( m_operation == NULL );
CORE_ASSERT( LuaThread().Status() == lua::Return::OK );
CORE_ASSERT( LuaThread().GetStack()[-numArgs-1].IsFunction() );
return Evaluate( host, numArgs );
}
void csp::OpAlt::CloseChannel( csp::Host & host, Channel& channel )
{
AltCase* pCaseClosed = FindCaseForChannel( channel );
CORE_ASSERT( pCaseClosed );
CORE_ASSERT( pCaseClosed->m_pChannel != NULL );
CloseCase( host.LuaState().GetStack(), *pCaseClosed );
channel.ResetAttachmentIn( *this );
}
void
link_unsafe(
Link& link
)
{
CORE_ASSERT(link.nextp == nullptr);
CORE_ASSERT(!unlink_unsafe(link));
link.nextp = headp;
headp = &link;
}
void System::unregisterComponent( const Entity* ent, Component* component )
{
CORE_ASSERT( component->getEntity() == ent, "Component does not belong to entity" );
const auto& pos =
std::find_if(m_components.begin(), m_components.end(),
[component](const auto& pair) { return pair.second == component; });
CORE_ASSERT( pos != m_components.end(), "Component is not registered." );
CORE_ASSERT( pos->first == ent, "Component belongs to a different entity" );
m_components.erase( pos );
}
void BaseGameManager::render()
{
CORE_ASSERT(m_pCameraFollowingSystem != nullptr);
CORE_ASSERT(m_pRenderSystem != nullptr);
m_pCameraFollowingSystem->process();
m_pRenderSystem->process();
m_pAnimationSystem->process();
// Draw debug data
if(m_pPhysicsWorld)
m_pPhysicsWorld->DrawDebugData();
}
void EntityManager::removeEntity( Core::Index idx )
{
CORE_ASSERT( idx != Core::Index::INVALID_IDX() && m_entities.contain( idx ),
"Trying to remove an entity that has not been added to the manager." );
auto ent = m_entities[idx];
std::string name = ent->getName();
CORE_ASSERT( ent.unique(), "Non-unique entity about to be removed." );
ent.reset();
m_entities.remove( idx );
m_entitiesName.erase( name );
}
T& PushBack(const T& item)
{
CORE_ASSERT( readonly == false );
if ( moffset >= mmaxsize )
{
if ( !mmaxsize )
{
mdata = new T[4];
mmaxsize = 4;
moffset = 0;
}
else
{
int offset = moffset;
int size = mmaxsize * 2;
SetSize(size,true);
moffset = offset;
}
}
T& ref = mdata[moffset++];
ref = item;
return ref;
}
void csp::OpAlt::SelectTimeProcessToTrigger( Host& host )
{
CORE_ASSERT( m_pCaseTriggered == NULL );
CspTime_t time = host.Time();
for( int i = 0; i < m_numCases; ++i )
{
AltCase& altCase = m_cases[ i ];
if( m_pNilCase == &altCase )
continue;
if( altCase.m_pChannel == NULL && altCase.m_time <= time )
{
if( m_pCaseTriggered )
{
if( altCase.m_time < m_pCaseTriggered->m_time )
m_pCaseTriggered = &altCase;
}
else
m_pCaseTriggered = &altCase;
}
}
if( m_pCaseTriggered )
{
m_argumentsMoved = true;
DetachChannels();
host.PushEvalStep( ThisProcess() );
}
}
void BaseGameManager::update(float delta)
{
CORE_ASSERT(m_pWorld != nullptr);
m_pWorld->loopStart();
m_pWorld->setDelta(delta);
// Step physics world
if(m_pPhysicsWorld) // If physics world exists, so does the physics system
{
// Use recommended velocity and position intervals according to Box2D manual
// See: http://www.box2d.org/manual.html
//
// Actually, im gonna reduce velocity iterations a little for visible performance
// increases
m_pPhysicsWorld->Step(delta, 4, 2);
m_pPhysicsSystem->process();
}
// Update script system
if(m_pScriptSystem)
{
m_pScriptSystem->process();
}
}
void FancyMeshComponent::handleMeshLoading( const FancyComponentData& data )
{
CORE_ASSERT( data.meshes.size() == 1, "One mesh per component / object." );
// FIXME(Charly): Change data meshes array to just one mesh
Ra::Engine::RenderObject* renderObject = new Ra::Engine::RenderObject( data.name, this );
renderObject->setVisible( true );
for ( uint i = 0; i < data.meshes.size(); ++i )
{
FancyMeshData meshData = data.meshes[i];
std::stringstream ss;
ss << data.name << "_mesh_" << i;
std::string meshName = ss.str();
Ra::Engine::Mesh* mesh = new Ra::Engine::Mesh( meshName );
mesh->loadGeometry( meshData.positions, meshData.indices );
mesh->addData( Ra::Engine::Mesh::VERTEX_NORMAL, meshData.normals );
mesh->addData( Ra::Engine::Mesh::VERTEX_TANGENT, meshData.tangents );
mesh->addData( Ra::Engine::Mesh::VERTEX_BITANGENT, meshData.bitangents );
mesh->addData( Ra::Engine::Mesh::VERTEX_TEXCOORD, meshData.texcoords );
renderObject->setMesh( mesh );
}
renderObject->setRenderTechnique( data.renderTechnique );
m_renderObject = m_renderObjectManager->addRenderObject( renderObject );
}
void csp::Process::DeleteOperation( Host& host )
{
CORE_ASSERT( m_operation );
m_operation->DebugCheck( host );
SwitchCurrentOperation( NULL );
}
void SetSize(int size, bool preserve = false)
{
CORE_ASSERT( readonly == false );
if ( size == mmaxsize )
{
moffset = size;
return;
}
T* array = 0;
if ( size )
{
array = new T[size];
if ( mdata && preserve )
{
int size0 = GetSize();
int count = (size0 > size) ? size : size0;
for ( int i=0; i<count; ++i )
array[i] = mdata[i];
}
}
delete[] mdata;
mdata = array;
mmaxsize = size;
moffset = size;
}
csp::WorkResult::Enum csp::OpTestSuite_RunAll::Evaluate( Host& host )
{
if( m_pCurrentClosure )
{
if( m_pCurrentClosure->process.IsRunning() )
return WorkResult::YIELD;
else
{
if( m_pCurrentClosure->refKey != lua::LUA_NO_REF )
UnrefClosure( m_pCurrentClosure );
delete m_pCurrentClosure;
m_pCurrentClosure = NULL;
}
}
if( m_pCurrentClosure == NULL && m_pClosuresHead )
{
TestClosure* pClosure = ListPopFromHead( m_pClosuresHead, m_pClosuresTail );
CORE_ASSERT( pClosure );
lua::Print( "Running test %s.%s...\n", pClosure->suiteName, pClosure->functionName );
m_pCurrentClosure = pClosure;
pClosure->process.StartEvaluation( host, 0 );
}
return IsFinished();
}
bool csp::OpAlt::SelectChannelProcessToTrigger( Host& host )
{
CORE_ASSERT( m_pCaseTriggered == NULL );
bool allCasesClosed = true;
for( int i = 0; i < m_numCases; ++i )
{
AltCase& altCase = m_cases[ i ];
if( m_pNilCase == &altCase )
{
m_pCaseTriggered = m_pNilCase;
allCasesClosed = false;
m_argumentsMoved = true;
DetachChannels();
host.PushEvalStep( ThisProcess() );
break;
}
Channel* pChannel = altCase.m_pChannel;
if( pChannel || altCase.m_time >= 0.0f )
allCasesClosed = false;
if( pChannel && pChannel->OutAttached() )
{
ChannelAttachmentOut_i& out = pChannel->OutAttachment();
out.Communicate( host, ThisProcess() );
break;
}
}
return allCasesClosed;
}
int Animation::getKeyFrameIndex(float stateTime) const
{
CORE_ASSERT(stateTime >= 0.f);
int numKeyFrames = m_keyFrames.size();
if(numKeyFrames == 1)
return 0;
// Get the current frame number
int frameNumber = (unsigned int)(stateTime / m_frameDuration);
switch(m_kPlayMode)
{
case NORMAL:
// If all frames are played, only use last frame
frameNumber = glm::min(numKeyFrames - 1, frameNumber);
break;
case LOOP:
frameNumber %= numKeyFrames;
break;
case LOOP_RANDOM:
frameNumber = rand() % numKeyFrames;
break;
case REVERSED:
frameNumber = glm::max(numKeyFrames - frameNumber - 1, 0);
break;
case LOOP_REVERSED:
frameNumber %= numKeyFrames;
frameNumber = numKeyFrames - frameNumber - 1;
break;
};
return frameNumber;
}
void TrimArray()
{
CORE_ASSERT( readonly == false );
int size = GetSize();
SetSize(size,true);
}
void Engine::Texture::updateData( void* data )
{
GL_ASSERT(glBindTexture(target, m_textureId));
switch (target)
{
case GL_TEXTURE_1D:
{
GL_ASSERT(glTexImage1D(target, 0, internalFormat, m_width, 0, m_format, dataType, data));
}
case GL_TEXTURE_2D:
{
GL_ASSERT(glTexImage2D(target, 0, internalFormat, m_width, m_height, 0, m_format, dataType, data));
} break;
case GL_TEXTURE_3D:
{
GL_ASSERT(glTexImage3D(target, 0, internalFormat, m_width, m_height, m_depth, 0, m_format, dataType, data));
} break;
default:
{
CORE_ASSERT( 0, "Dafuck ?" );
} break;
}
}
void RadiumEngine::registerSystem( const std::string& name, System* system )
{
CORE_ASSERT( m_systems.find( name ) == m_systems.end(),
"Same system added multiple times." );
m_systems[name] = std::shared_ptr<System> ( system );
}
Animation::Animation(float frameDuration, const KeyFrames& keyFrames, PlayMode playMode)
: m_keyFrames(keyFrames)
, m_kPlayMode(playMode)
, m_frameDuration(frameDuration)
{
CORE_ASSERT(!keyFrames.empty());
m_animationDuration = keyFrames.size() * m_frameDuration;
}
void csp::OpAlt::MoveChannelArguments( Channel& channel, ChannelArgument* arguments, int numArguments )
{
CORE_ASSERT( m_arguments == NULL );
CORE_ASSERT( m_numArguments == CSP_NO_ARGS );
CORE_ASSERT( numArguments != CSP_NO_ARGS );
AltCase* pCaseTriggered = FindCaseForChannel( channel );
CORE_ASSERT( pCaseTriggered );
CORE_ASSERT( m_pCaseTriggered == NULL );
m_pCaseTriggered = pCaseTriggered;
m_arguments = arguments;
m_numArguments = numArguments;
m_argumentsMoved = true;
DetachChannels();
}
void Engine::Entity::removeComponent( const std::string& name )
{
std::string err;
Core::StringUtils::stringPrintf( err, "The component \"%s\" is not part of the entity \"%s\"",
name.c_str(), m_name.c_str() );
CORE_ASSERT( m_components.find( name ) != m_components.end(), err.c_str() );
m_components.erase( name );
}
void GameManager::update(float delta)
{
CORE_ASSERT(m_pPlayerInputSystem != nullptr);
// Super
BaseGameManager::update(delta);
// Update input
m_pPlayerInputSystem->process();
}
void System::registerComponent( const Entity* ent, Component* component )
{
// Perform checks on debug
#if defined(DEBUG)
CORE_ASSERT( component->getEntity() == ent, "Component does not belong to entity" );
for (const auto& pair : m_components)
{
CORE_ASSERT(pair.second != component, "Component already registered");
if (pair.first == ent)
{
CORE_ASSERT(pair.second->getName() != component->getName(),
"A component with the same name is already associated with this entity");
}
}
#endif // DEBUG
m_components.push_back({ ent, component });
component->setSystem( this );
}
Animation::Animation(float frameDuration, const KeyFrames& keyFrames)
: m_keyFrames(keyFrames)
, m_kPlayMode(NORMAL)
, m_frameDuration(frameDuration)
{
// Dis-allow empty keyFrames
CORE_ASSERT(!keyFrames.empty());
// Get complete animation time through the number of regions and time for each frame
m_animationDuration = keyFrames.size() * m_frameDuration;
}
void
link_tail_unsafe(
Link& link
)
{
Link* curp = headp;
CORE_ASSERT(link.nextp == nullptr);
CORE_ASSERT(!unlink_unsafe(link));
if (is_empty_unsafe()) {
headp = &link;
} else {
while (curp->nextp != nullptr) {
curp = curp->nextp;
}
curp->nextp = &link;
}
}
void Engine::Entity::addComponent( Engine::Component* component )
{
std::string name = component->getName();
std::string err;
Core::StringUtils::stringPrintf( err, "Component \"%s\" has already been added to the entity.", name.c_str() );
CORE_ASSERT( m_components.find( name ) == m_components.end(), err.c_str() );
m_components.insert( ComponentByName( name, component ) );
component->setEntity( this );
}