void
lcpp::LispRuntimeState::shutdown()
{
EZ_ASSERT(m_stats.m_initializationCount > 0,
"LCPP_pRuntime was never initialized.");
EZ_ASSERT(m_stats.m_initializationCount > m_stats.m_shutdownCount,
"The LCPP_pRuntime was not shut down often enough!");
++m_stats.m_shutdownCount;
m_pGC->removeRoot(m_pReaderState->m_pMacroEnv.get());
m_pGC->removeRoot(m_pGlobalEnvironment);
m_pGC->removeRoot(m_pSyntaxEnvironment);
m_pReaderState->m_pMacroEnv = nullptr;
EZ_DELETE(defaultAllocator(), m_pReaderState);
m_pPrinterState->m_pOutStream = nullptr;
EZ_DELETE(defaultAllocator(), m_pPrinterState);
m_pGlobalEnvironment = nullptr;
m_pSyntaxEnvironment = nullptr;
// TODO Once we have a per-runtime garbage collector system running, uncomment the following line.
//m_pGC->clear();
m_pGC->collect(0);
}
ShaderProgram::ShaderProgram()
: handle{0}
, isLinked{false}
, errorLog{}
, m_attribLocations{defaultAllocator()}
, m_uniformLocations{defaultAllocator()}
{
}
VectorType
NativeArrayToMappedVector(Datum inDatum, bool inNeedMutableClone) {
typedef typename VectorType::Scalar Scalar;
ArrayType* array = reinterpret_cast<ArrayType*>(
madlib_DatumGetArrayTypeP(inDatum));
size_t arraySize = ARR_NDIM(array) == 1
? ARR_DIMS(array)[0]
: ARR_DIMS(array)[0] * ARR_DIMS(array)[1];
if (!(ARR_NDIM(array) == 1
|| (ARR_NDIM(array) == 2
&& (ARR_DIMS(array)[0] == 1 || ARR_DIMS(array)[1] == 1)))) {
std::stringstream errorMsg;
errorMsg << "Invalid type conversion to matrix. Expected one-"
"dimensional array but got " << ARR_NDIM(array)
<< " dimensions.";
throw std::invalid_argument(errorMsg.str());
}
Scalar* origData = reinterpret_cast<Scalar*>(ARR_DATA_PTR(array));
Scalar* data;
if (inNeedMutableClone) {
data = reinterpret_cast<Scalar*>(
defaultAllocator().allocate<dbal::FunctionContext, dbal::DoNotZero,
dbal::ThrowBadAlloc>(sizeof(Scalar) * arraySize));
std::copy(origData, origData + arraySize, data);
} else {
data = reinterpret_cast<Scalar*>(ARR_DATA_PTR(array));
}
return VectorType(data, arraySize);
}
b32 ShaderProgram::attachShaderFromMemory(ShaderType type,
const String& shaderSource)
{
if (!handle)
handle = glCreateProgram();
u32 shader = 0;
if (type == ShaderType::Vertex)
shader = glCreateShader(GL_VERTEX_SHADER);
else if (type == ShaderType::Fragment)
shader = glCreateShader(GL_FRAGMENT_SHADER);
else
panic("Unknown shader type.");
const char* cStrSource = cString(shaderSource);
glShaderSource(shader, 1, &cStrSource, nullptr);
glCompileShader(shader);
s32 status;
glGetShaderiv(shader, GL_COMPILE_STATUS, &status);
if (status == false)
{
String msg;
if (type == ShaderType::Vertex)
msg = "Compile failure in vertex shader: \n";
else if (type == ShaderType::Fragment)
msg = "Compile failure in fragment shader: \n";
else
panic("Unknown shader type.");
s32 infoLogLength;
glGetShaderiv(shader, GL_INFO_LOG_LENGTH, &infoLogLength);
Allocator& a = defaultAllocator();
char* strInfoLog =
(char*)a.allocate((infoLogLength + 1) * sizeof(char));
defer(a.deallocate(strInfoLog));
glGetShaderInfoLog(shader, infoLogLength, nullptr, strInfoLog);
append(msg, strInfoLog);
append(msg, '\n');
append(errorLog, msg);
glDeleteShader(shader);
return false;
}
glAttachShader(handle, shader);
return true;
}
void
lcpp::LispRuntimeState::initialize(ezAllocatorBase* pAllocator)
{
EZ_ASSERT(m_stats.m_shutdownCount <= m_stats.m_initializationCount,
"LCPP_pRuntime was shut down more often than it was initialized!");
if (m_stats.m_shutdownCount < m_stats.m_initializationCount)
{
shutdown();
}
EZ_ASSERT(m_stats.m_initializationCount == m_stats.m_shutdownCount,
"LCPP_pRuntime initialization and shutdown count must be balanced!");
++m_stats.m_initializationCount;
m_pAllocator = pAllocator ? pAllocator : defaultAllocator();
m_pGC = lcpp::getGarbageCollector();
#if EZ_ENABLED(EZ_COMPILE_FOR_DEBUG)
g_pGC = m_pGC.get();
#endif
m_pSyntaxEnvironment = env::createTopLevel(symbol::create("syntax")).get();
m_pGC->addRoot(m_pSyntaxEnvironment);
m_pGlobalEnvironment = env::create(getSyntaxEnvironment(), symbol::create("global")).get();
m_pGC->addRoot(m_pGlobalEnvironment);
//////////////////////////////////////////////////////////////////////////
m_pReaderState = EZ_NEW(defaultAllocator(), reader::State);
m_pReaderState->m_pMacroEnv = env::createTopLevel(symbol::create("reader-macros"));
m_pGC->addRoot(m_pReaderState->m_pMacroEnv.get());
m_pPrinterState = EZ_NEW(defaultAllocator(), printer::State);
//////////////////////////////////////////////////////////////////////////
registerBuiltIns();
}
ArrayType*
VectorToNativeArray(const Eigen::MatrixBase<Derived>& inVector) {
typedef typename Derived::Scalar T;
typedef typename Derived::Index Index;
MutableArrayHandle<T> arrayHandle
= defaultAllocator().allocateArray<T>(inVector.size());
T* ptr = arrayHandle.ptr();
for (Index el = 0; el < inVector.size(); ++el)
*(ptr++) = inVector(el);
return arrayHandle.array();
}
ArrayType*
MatrixToNativeArray(const Eigen::MatrixBase<Derived>& inMatrix) {
typedef typename Derived::Scalar T;
typedef typename Derived::Index Index;
MutableArrayHandle<T> arrayHandle
= defaultAllocator().allocateArray<T>(
inMatrix.cols(), inMatrix.rows());
T* ptr = arrayHandle.ptr();
for (Index row = 0; row < inMatrix.rows(); ++row)
for (Index col = 0; col < inMatrix.cols(); ++col)
*(ptr++) = inMatrix(row, col);
return arrayHandle.array();
}
b32 ShaderProgram::link()
{
if (!handle)
handle = glCreateProgram();
if (!isLinked)
{
glLinkProgram(handle);
s32 status;
glGetProgramiv(handle, GL_LINK_STATUS, &status);
if (!status)
{
String msg{"ShaderProgram linking failure: \n"};
s32 infoLogLength;
glGetProgramiv(handle, GL_INFO_LOG_LENGTH, &infoLogLength);
Allocator& a = defaultAllocator();
char* strInfoLog =
(char*)a.allocate((infoLogLength + 1) * sizeof(char));
defer(a.deallocate(strInfoLog));
glGetProgramInfoLog(handle, infoLogLength, nullptr, strInfoLog);
append(msg, strInfoLog);
append(msg, "\n");
append(errorLog, msg);
glDeleteProgram(handle);
handle = 0;
isLinked = false;
return isLinked;
}
isLinked = true;
}
return isLinked;
}
void
ByteStreamHandleBuf<Storage, CharType, Mutable>::resize(
size_t inSize, size_t inPivot) {
if (inSize == this->size())
return;
char_type* oldPtr = this->ptr();
size_t secondChunkStart
= inPivot > this->size() ? this->size() : inPivot;
size_t oldSize = this->size();
ptrdiff_t delta = inSize - oldSize;
// FIXME: Deallocate old memory!
this->mStorage = defaultAllocator().allocateByteString<
dbal::FunctionContext, dbal::DoZero, dbal::ThrowBadAlloc>(inSize);
std::copy(oldPtr, oldPtr + secondChunkStart, this->ptr());
std::copy(oldPtr + secondChunkStart, oldPtr + oldSize,
this->ptr() + secondChunkStart + delta);
std::fill(this->ptr() + secondChunkStart,
this->ptr() + secondChunkStart + delta, 0);
}
const Array<VideoMode>& VideoMode::getFullscreenModes()
{
LOCAL_PERSIST Array<VideoMode> modes{defaultAllocator()};
if (len(modes) == 0)
{
s32 displayModeCount;
SDL_DisplayMode dm;
displayModeCount = SDL_GetNumDisplayModes(0);
if (displayModeCount < 1)
{
std::cerr << "SDL_GetNumDisplayModes failed: " << SDL_GetError()
<< std::endl;
return modes;
}
for (s32 i = 0; i < displayModeCount; i++)
{
if (SDL_GetDisplayMode(0, i, &dm) != 0)
{
std::cerr << "SDL_GetNumDisplayModes failed: " << SDL_GetError()
<< std::endl;
continue;
}
append(
modes,
VideoMode{(u32)dm.w, (u32)dm.h, SDL_BITSPERPIXEL(dm.format)});
}
std::sort(begin(modes), end(modes), std::greater<VideoMode>());
}
return modes;
}
bool createGBuffer(GBuffer& b, u32 w, u32 h)
{
if (w == b.width && h == b.height) // GBuffer already exists
return true;
b.width = w;
b.height = h;
glGenFramebuffers(1, &b.fbo);
glBindFramebuffer(GL_FRAMEBUFFER, b.fbo);
defer(glBindFramebuffer(GL_FRAMEBUFFER, 0));
glEnable(GL_TEXTURE_2D);
defer(glBindTexture(GL_TEXTURE_2D, 0));
Array<GLenum> drawBuffers{defaultAllocator()};
auto addRT = [&drawBuffers, w, h](Texture& tex,
GLenum attachment,
s32 internalFormat,
GLenum format,
GLenum type)
{
glGenTextures(1, &tex.handle);
glBindTexture(GL_TEXTURE_2D, tex.handle);
glTexImage2D(GL_TEXTURE_2D,
0,
internalFormat,
(s32)w,
(s32)h,
0,
format,
type,
nullptr);
tex.width = w;
tex.height = h;
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MAG_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_MIN_FILTER, GL_LINEAR);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_S, GL_REPEAT);
glTexParameteri(GL_TEXTURE_2D, GL_TEXTURE_WRAP_T, GL_REPEAT);
glFramebufferTexture2D(
GL_FRAMEBUFFER, attachment, GL_TEXTURE_2D, tex.handle, 0);
if (attachment != GL_DEPTH_ATTACHMENT)
append(drawBuffers, attachment);
};
addRT(b.textures[GBuffer::Diffuse],
GL_COLOR_ATTACHMENT0,
GL_RGB8,
GL_RGB,
GL_UNSIGNED_BYTE);
addRT(b.textures[GBuffer::Specular],
GL_COLOR_ATTACHMENT1,
GL_RGBA8,
GL_RGBA,
GL_UNSIGNED_BYTE);
addRT(b.textures[GBuffer::Normal],
GL_COLOR_ATTACHMENT2,
GL_RGB10_A2,
GL_RGBA,
GL_FLOAT);
addRT(b.textures[GBuffer::Depth],
GL_DEPTH_ATTACHMENT,
GL_DEPTH_COMPONENT24,
GL_DEPTH_COMPONENT,
GL_FLOAT);
glDrawBuffers((u32)len(drawBuffers), &drawBuffers[0]);
if (glCheckFramebufferStatus(GL_FRAMEBUFFER) != GL_FRAMEBUFFER_COMPLETE)
return false;
return true;
}
/*
* a few things to note about this function; the debug messages are not operating in the limited memory space
* which would be nice, but we would have to override the allocation tendencies of not only std::string
* but also std::ostringstream and its like, which would be rather a tedious and error prone process.
*
* any who. In this function we allocate a 1GB chunk of memory which we have exclusive control over and
* we use the Free List Allocation method to divvy it up. we then allocate a multimap of pair<int,double>'s
* multimap is good for testing for two reasons, it has horrible times in deallocation with the FreeLitAllocator
* and it deallocates ALL of its memory when multimap<>::clear() is called. which the unordered_map variants
* do not since they keep their hash tables until their destructors are called.
*/
void
memoryStuff( evq::EventQueue * eventQueue )
{
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Creating DefaultAllocator.") );
// wrapper for ::operator new() and ::operator delete()
alloc::DefaultAllocator defaultAllocator( 0, nullptr );
// pointer to our memory pool
void * _mem_pool;
// size of our memory pool: 1GB
std::size_t _mem_size = 1024*1024*1024;
// size of our memory pool: 0.5MB
//std::size_t _mem_size = 1024*1024*0.5f;
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Allocating Memory Pool of size " + to_string(_mem_size) + "bytes.") );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Allocating FreeListAllocator, for Memory Pool.") );
// allocate a free list allocator and allocate the memory pool and pass it to the free list allocator.
alloc::SafeFreeListAllocator * fla = new( (alloc::SafeFreeListAllocator*)defaultAllocator ) alloc::SafeFreeListAllocator( _mem_size, _mem_pool = defaultAllocator.allocateBlock(_mem_size,0) );
{
alloc::ptr::weak_ptr<int> test_weak_ptr_outer;
alloc::ptr::shared_ptr<int> test_shared_ptr_outer;
{
//alloc::ptr::shared_ptr<int> test_shared_ptr( new( (int*)*fla ) int(1), fla );
alloc::ptr::shared_ptr<int> test_shared_ptr( alloc::ptr::allocate_shared<int>(fla, 1) );
std::cout << *test_shared_ptr << std::endl;
test_weak_ptr_outer = test_shared_ptr;
test_shared_ptr_outer = test_shared_ptr;
}
if( auto t = test_weak_ptr_outer.lock() )
{
std::cout << *t << std::endl;
}
alloc::ptr::unique_ptr<int> test_unique_ptr_outer;
{
alloc::ptr::unique_ptr<int> test_unique_ptr( new( (int*)*fla ) int(1000), fla );
test_unique_ptr_outer.swap( test_unique_ptr );
{
alloc::ptr::unique_ptr<int[]> test_array_unique_ptr( new( fla->allocateArray<int>( 100 ) ) int[100], fla );
for( std::size_t i = 0; i < 100; ++i )
{
test_array_unique_ptr[i] = i;
}
}
}
std::cout << *test_unique_ptr_outer << std::endl;
}
{
//alloc::LockAllocator< alloc::LockAllocator< alloc::DefaultAllocator > > llalt(); // FIXME(dean): this line should not compile
//llalt.printDebugInfo();
}
//std::ostringstream stream; // we don't have control over this memory
std::basic_ostringstream<char> stream( std::basic_string<char>( alloc::stl_adapter<char>( fla ) ), std::ios_base::out );
{
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Allocating IntMap from FreeListAllocator.") );
// allocate a std::multimap<int,double> with our custom allocator adapters
alloc::stl::map< int, double > * intmap = new( (alloc::stl::map< int, double >*)*fla ) alloc::stl::map< int, double >( fla );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("") );
{
// make 10000 pairs!
for( std::size_t i = 0; i < 100000; ++i )
{
// insert a pair
uint32_t key = Rand::Int( 0u, ~0u );
double value = sqrt( double(key) );
// here multimap will allocate space for a node that contains a pair<int,double> in it.
//intmap->insert( std::pair<int,double>(key,value) );
(*intmap)[key] = value;
// print progress
if( (i) % 1000 == 0 )
{
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Inserted " + to_string(i) + " pairs into IntMap on FreeListAllocator. Last pair: " + to_string(key) + "," + to_string(value) + ".") );
}
}
}
// clear the stringstream buffer
stream.str( std::basic_string< char >( alloc::stl_adapter<char>(fla) ) );
stream.clear();
// put allocator debug info into stringstream buffer
fla->printDebugInfo( stream );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( std::string( stream.str().c_str() ) ) );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent("Deallocating all memory associated with IntMap in FreeListAllocator.") );
// deallocate and destruct the multimap<int,double>
fla->deallocate( intmap );
}
// clear the stringstream buffer
stream.str( std::basic_string< char >( alloc::stl_adapter<char>(fla) ) );
stream.clear();
// put allocator debug info into stringstream buffer
fla->printDebugInfo( stream );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( std::string( stream.str().c_str() ) ) );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( "cleaning up ... fla" ) );
// destruct the FreeListAllocator
defaultAllocator.deallocate( fla );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( "cleaning up ... _mem_pool" ) );
// deallocate the memory block
defaultAllocator.deallocateBlock( _mem_pool );
// clear the stringstream buffer
//stream.str( std::basic_string< char >( alloc::stl_adapter<char>(fla) ) );
//stream.clear();
// put allocator debug info into stringstream buffer
defaultAllocator.printDebugInfo( stream );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( std::string( stream.str().c_str() ) ) );
// we don't use the memory allocator with the events because we have yet to properly setup custom allocator deletion for events
eventQueue->queueEvent( new DebugListener::MessageEvent( "complete." ) );
}
void Room::generate(bool northDoor,
bool eastDoor,
bool southDoor,
bool westDoor)
{
if (m_generated)
return;
if (!m_mesh)
m_mesh = defaultAllocator().makeNew<Mesh>();
std::vector<std::vector<TileId>> mapGrid(size.x,
std::vector<TileId>(size.y));
TileId emptyTile = {-1, -1};
TileId lightWoodTile = {0, 11};
TileId darkWoodTile = {0, 0};
RandomTileSet stoneTiles;
for (int i = 1; i < 3; i++)
stoneTiles.emplace_back(i, 15);
RandomTileSet darkRockTiles;
for (int i = 0; i < 4; i++)
darkRockTiles.emplace_back(i, 0);
RandomTileSet colorfulTiles;
for (int i = 3; i < 12; i++)
colorfulTiles.emplace_back(i, 15);
for (int i = 0; i < size.x; i++)
{
for (int j = 0; j < size.y; j++)
mapGrid[i][j] = emptyTile;
}
TileId tile =
colorfulTiles[m_random.getInt(0, (u32)len(colorfulTiles) - 1)];
const Room::Size s = size;
for (int i = 0; i < s.x; i++)
{
for (int j = 0; j < s.y; j++)
mapGrid[i][j] = tile;
}
const s32 h = Height;
for (int i = 0; i < size.x; i++)
{
for (int j = 0; j < size.y; j++)
{
if (mapGrid[i][j] != emptyTile)
{
addTileSurface(
Vector3{i, 0, j}, TileSurfaceFace::Up, mapGrid[i][j]);
addTileSurface(
Vector3{i, 3, j}, TileSurfaceFace::Down, stoneTiles);
}
#if 1 // Build Walls
else
{
addTileSurface(
Vector3{i, h, j}, TileSurfaceFace::Up, stoneTiles);
}
for (int k = 0; k < h; k++)
{
if (mapGrid[i][j] == emptyTile)
{
if (i > 0)
{
if (mapGrid[i - 1][j] != emptyTile)
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Left,
stoneTiles);
}
if (i < size.x - 1)
{
if (mapGrid[i + 1][j] != emptyTile)
addTileSurface(Vector3{i + 1, k, j},
TileSurfaceFace::Right,
stoneTiles);
}
if (j > 0)
{
if (mapGrid[i][j - 1] != emptyTile)
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Back,
stoneTiles);
}
if (j < size.y - 1)
{
if (mapGrid[i][j + 1] != emptyTile)
addTileSurface(Vector3{i, k, j + 1},
TileSurfaceFace::Front,
stoneTiles);
}
}
else
{
if (i == 0)
{
if (westDoor)
{
if (j != size.y / 2)
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Right,
stoneTiles);
}
else
{
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Right,
stoneTiles);
}
}
else if (i == size.x - 1)
{
if (eastDoor)
{
if (j != size.y / 2)
addTileSurface(Vector3{i + 1, k, j},
TileSurfaceFace::Left,
stoneTiles);
}
else
{
addTileSurface(Vector3{i + 1, k, j},
TileSurfaceFace::Left,
stoneTiles);
}
}
if (j == 0)
{
if (northDoor)
{
if (i != size.x / 2)
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Front,
stoneTiles);
}
else
{
addTileSurface(Vector3{i, k, j},
TileSurfaceFace::Front,
stoneTiles);
}
}
else if (j == size.y - 1)
{
if (southDoor)
{
if (i != size.x / 2)
addTileSurface(Vector3{i, k, j + 1},
TileSurfaceFace::Back,
stoneTiles);
}
else
{
addTileSurface(Vector3{i, k, j + 1},
TileSurfaceFace::Back,
stoneTiles);
}
}
}
}
#endif
}
}
m_meshData.generateNormals();
m_mesh->addData(m_meshData);
addComponent<MeshRenderer>(m_mesh, material);
m_generated = true;
}
Room::~Room()
{
if (m_mesh)
defaultAllocator().makeDelete(m_mesh);
}
ByteStreamHandleBuf<Storage, CharType, IsMutable>::ByteStreamHandleBuf(
size_t inSize)
: mStorage(defaultAllocator().allocateByteString<
dbal::FunctionContext, dbal::DoZero, dbal::ThrowBadAlloc>(inSize)),
mPos(0) { }
