NzVertexMapper::NzVertexMapper(NzSubMesh* subMesh, nzBufferAccess access)
{
NzErrorFlags flags(nzErrorFlag_ThrowException, true);
NzVertexBuffer* buffer = nullptr;
switch (subMesh->GetAnimationType())
{
case nzAnimationType_Skeletal:
{
NzSkeletalMesh* skeletalMesh = static_cast<NzSkeletalMesh*>(subMesh);
buffer = skeletalMesh->GetVertexBuffer();
break;
}
case nzAnimationType_Static:
{
NzStaticMesh* staticMesh = static_cast<NzStaticMesh*>(subMesh);
buffer = staticMesh->GetVertexBuffer();
break;
}
}
if (!buffer)
{
NazaraInternalError("Animation type not handled (0x" + NzString::Number(subMesh->GetAnimationType(), 16) + ')');
}
m_mapper.Map(buffer, access);
}
const NzLight* NzLightManager::GetLight(unsigned int index) const
{
#if NAZARA_GRAPHICS_SAFE
if (index >= m_lightCount)
{
NazaraError("Light index out of range (" + NzString::Number(index) + " >= " + NzString::Number(m_lightCount) + ')');
return nullptr;
}
#endif
for (unsigned int i = 0; i < m_lights.size(); ++i)
{
unsigned int lightCount = m_lights[i].second;
if (index > lightCount)
index -= lightCount;
else
{
const NzLight** lights = m_lights[i].first;
return lights[i];
}
}
#if NAZARA_GRAPHICS_SAFE
NazaraInternalError("Light not found");
#else
NazaraError("Light not found");
#endif
return nullptr;
}
UInt8* ConvertPixels(const UInt8* start, const UInt8* end, UInt8* dst)
{
NazaraUnused(start);
NazaraUnused(dst);
NazaraUnused(end);
NazaraInternalError("Conversion from " + PixelFormat::ToString(from) + " to " + PixelFormat::ToString(to) + " is not supported");
return nullptr;
}
void NzStaticMesh::OnResourceReleased(const NzResource* resource, int index)
{
NazaraUnused(index);
if (resource == m_indexBuffer)
m_indexBuffer = nullptr;
else if (resource == m_vertexBuffer)
m_vertexBuffer = nullptr;
else
NazaraInternalError("Not listening to " + NzString::Pointer(resource));
}
unsigned int SoundBuffer::GetOpenALBuffer() const
{
#ifdef NAZARA_DEBUG
if (!m_impl)
{
NazaraInternalError("Sound buffer not created");
return AL_NONE;
}
#endif
return m_impl->buffer;
}
void TextSprite::OnAtlasInvalidated(const AbstractAtlas* atlas)
{
#ifdef NAZARA_DEBUG
if (m_atlases.find(atlas) == m_atlases.end())
{
NazaraInternalError("Not listening to " + String::Pointer(atlas));
return;
}
#endif
NazaraWarning("TextSprite " + String::Pointer(this) + " has been cleared because atlas " + String::Pointer(atlas) + " has been invalidated (cleared or released)");
Clear();
}
/*!
* \brief Gets a parameter as a string
* \return true if the parameter could be represented as a string
*
* \param name Name of the parameter
* \param value Pointer to a pointer to hold the retrieved value
*
* \remark value must be a valid pointer
* \remark In case of failure, the variable pointed by value keep its value
* \remark If the parameter is not a string, a conversion will be performed, all types are compatibles:
Boolean: Conversion obeys the rules of String::Boolean
Color: Conversion obeys the rules of Color::ToString
Double: Conversion obeys the rules of String::Number
Integer: Conversion obeys the rules of String::Number
None: An empty string is returned
Pointer: Conversion obeys the rules of String::Pointer
Userdata: Conversion obeys the rules of String::Pointer
*/
bool ParameterList::GetStringParameter(const String& name, String* value) const
{
NazaraAssert(value, "Invalid pointer");
ErrorFlags flags(ErrorFlag_Silent | ErrorFlag_ThrowExceptionDisabled);
auto it = m_parameters.find(name);
if (it == m_parameters.end())
{
NazaraError("Parameter \"" + name + "\" is not present");
return false;
}
switch (it->second.type)
{
case ParameterType_Boolean:
*value = String::Boolean(it->second.value.boolVal);
return true;
case ParameterType_Color:
*value = it->second.value.colorVal.ToString();
return true;
case ParameterType_Double:
*value = String::Number(it->second.value.doubleVal);
return true;
case ParameterType_Integer:
*value = String::Number(it->second.value.intVal);
return true;
case ParameterType_String:
*value = it->second.value.stringVal;
return true;
case ParameterType_Pointer:
*value = String::Pointer(it->second.value.ptrVal);
return true;
case ParameterType_Userdata:
*value = String::Pointer(it->second.value.userdataVal->ptr);
return true;
case ParameterType_None:
*value = String();
return true;
}
NazaraInternalError("Parameter value is not valid");
return false;
}
bool TcpClient::WaitForConnected(UInt64 msTimeout)
{
switch (m_state)
{
case SocketState_Bound:
case SocketState_Resolving:
break;
case SocketState_Connected:
return true;
case SocketState_Connecting:
{
NazaraAssert(m_handle != SocketImpl::InvalidHandle, "Invalid handle");
CallOnExit restoreBlocking;
if (m_isBlockingEnabled)
{
SocketImpl::SetBlocking(m_handle, false);
restoreBlocking.Reset([this] ()
{
SocketImpl::SetBlocking(m_handle, true);
});
}
SocketState newState = SocketImpl::Connect(m_handle, m_peerAddress, msTimeout, &m_lastError);
NazaraAssert(newState != SocketState_Connecting, "Invalid internal return"); //< Connect cannot return Connecting is a timeout was specified
// Prevent valid peer address in non-connected state
if (newState == SocketState_NotConnected)
m_peerAddress = IpAddress::Invalid;
UpdateState(newState);
return newState == SocketState_Connected;
}
case SocketState_NotConnected:
return false;
}
NazaraInternalError("Unhandled socket state (0x" + String::Number(m_state, 16) + ')');
return false;
}
void TextSprite::OnAtlasLayerChange(const AbstractAtlas* atlas, AbstractImage* oldLayer, AbstractImage* newLayer)
{
NazaraUnused(atlas);
#ifdef NAZARA_DEBUG
if (m_atlases.find(atlas) == m_atlases.end())
{
NazaraInternalError("Not listening to " + String::Pointer(atlas));
return;
}
#endif
// The texture of an atlas have just been recreated (size change)
// we have to adjust the coordinates of the texture and the rendering texture
Texture* oldTexture = static_cast<Texture*>(oldLayer);
Texture* newTexture = static_cast<Texture*>(newLayer);
// It is possible that we don't use the texture (the atlas warning us for each of its layers)
auto it = m_renderInfos.find(oldTexture);
if (it != m_renderInfos.end())
{
// We indeed use this texture, we have to update its coordinates
RenderIndices indices = std::move(it->second);
Vector2ui oldSize(oldTexture->GetSize());
Vector2ui newSize(newTexture->GetSize());
Vector2f scale = Vector2f(oldSize) / Vector2f(newSize); // ratio of the old one to the new one
// Now we will iterate through each coordinates of the concerned texture to multiply them by the ratio
SparsePtr<Vector2f> texCoordPtr(&m_localVertices[indices.first].uv, sizeof(VertexStruct_XYZ_Color_UV));
for (unsigned int i = 0; i < indices.count; ++i)
{
for (unsigned int j = 0; j < 4; ++j)
m_localVertices[i*4 + j].uv *= scale;
}
// We get rid off the old texture and we set the new one at the place (same for indices)
m_renderInfos.erase(it);
m_renderInfos.insert(std::make_pair(newTexture, std::move(indices)));
}
}
bool IpAddress::IsLoopback() const
{
if (!m_isValid)
return false;
NazaraAssert(m_protocol <= NetProtocol_Max, "Protocol has value out of enum");
switch (m_protocol)
{
case NetProtocol_Any:
case NetProtocol_Unknown:
break;
case NetProtocol_IPv4:
return m_ipv4[0] == 127;
case NetProtocol_IPv6:
return m_ipv6 == LoopbackIpV6.m_ipv6; // Only compare the ip value
}
NazaraInternalError("Invalid protocol for IpAddress (0x" + String::Number(m_protocol) + ')');
return false;
}
SoundStatus SoundEmitter::GetInternalStatus() const
{
ALint state;
alGetSourcei(m_source, AL_SOURCE_STATE, &state);
switch (state)
{
case AL_INITIAL:
case AL_STOPPED:
return SoundStatus_Stopped;
case AL_PAUSED:
return SoundStatus_Paused;
case AL_PLAYING:
return SoundStatus_Playing;
default:
NazaraInternalError("Source state unrecognized");
}
return SoundStatus_Stopped;
}
std::unique_ptr<AbstractHash> AbstractHash::Get(HashType type)
{
NazaraAssert(type <= HashType_Max, "Hash type value out of enum");
switch (type)
{
case HashType_Fletcher16:
return std::unique_ptr<AbstractHash>(new HashFletcher16);
case HashType_CRC32:
return std::unique_ptr<AbstractHash>(new HashCRC32);
case HashType_MD5:
return std::unique_ptr<AbstractHash>(new HashMD5);
case HashType_SHA1:
return std::unique_ptr<AbstractHash>(new HashSHA1);
case HashType_SHA224:
return std::unique_ptr<AbstractHash>(new HashSHA224);
case HashType_SHA256:
return std::unique_ptr<AbstractHash>(new HashSHA256);
case HashType_SHA384:
return std::unique_ptr<AbstractHash>(new HashSHA384);
case HashType_SHA512:
return std::unique_ptr<AbstractHash>(new HashSHA512);
case HashType_Whirlpool:
return std::unique_ptr<AbstractHash>(new HashWhirlpool);
}
NazaraInternalError("Hash type not handled (0x" + String::Number(type, 16) + ')');
return std::unique_ptr<AbstractHash>();
}
bool GuillotineImageAtlas::Insert(const Image& image, Rectui* rect, bool* flipped, unsigned int* layerIndex)
{
if (m_layers.empty())
// On créé une première couche s'il n'y en a pas
m_layers.resize(1);
// Cette fonction ne fait qu'insérer un rectangle de façon virtuelle, l'insertion des images se fait après
for (unsigned int i = 0; i < m_layers.size(); ++i)
{
Layer& layer = m_layers[i];
// Une fois qu'un certain nombre de rectangles ont étés libérés d'une couche, on fusionne les rectangles libres
if (layer.freedRectangles > 10) // Valeur totalement arbitraire
{
while (layer.binPack.MergeFreeRectangles()); // Tant qu'une fusion est possible
layer.freedRectangles = 0; // Et on repart de zéro
}
if (layer.binPack.Insert(rect, flipped, 1, false, m_rectChoiceHeuristic, m_rectSplitHeuristic))
{
// Insertion réussie dans l'une des couches, on place le glyphe en file d'attente
layer.queuedGlyphs.resize(layer.queuedGlyphs.size()+1);
QueuedGlyph& glyph = layer.queuedGlyphs.back();
glyph.flipped = *flipped;
glyph.image = image; // Merci le Copy-On-Write
glyph.rect = *rect;
*layerIndex = i;
return true;
}
else if (i == m_layers.size() - 1) // Dernière itération ?
{
// Dernière couche, et le glyphe ne rentre pas, peut-on agrandir la taille de l'image ?
Vector2ui newSize = layer.binPack.GetSize()*2;
if (newSize == Vector2ui::Zero())
newSize.Set(s_atlasStartSize);
if (ResizeLayer(layer, newSize))
{
// Oui on peut !
layer.binPack.Expand(newSize); // On ajuste l'atlas virtuel
// Et on relance la boucle sur la nouvelle dernière couche
i--;
}
else
{
// On ne peut plus agrandir la dernière couche, il est temps d'en créer une nouvelle
newSize.Set(s_atlasStartSize);
Layer newLayer;
if (!ResizeLayer(newLayer, newSize))
{
// Impossible d'allouer une nouvelle couche, nous manquons probablement de mémoire (ou le glyphe est trop grand)
NazaraError("Failed to allocate new layer, we are probably out of memory");
return false;
}
newLayer.binPack.Reset(newSize);
m_layers.emplace_back(std::move(newLayer)); // Insertion du layer
// On laisse la boucle insérer toute seule le rectangle à la prochaine itération
}
}
}
NazaraInternalError("Unknown error"); // Normalement on ne peut pas arriver ici
return false;
}
void RenderSystem::UpdatePointSpotShadowMaps()
{
if (!m_shadowRT.IsValid())
m_shadowRT.Create();
Nz::SceneData dummySceneData;
dummySceneData.ambientColor = Nz::Color(0, 0, 0);
dummySceneData.background = nullptr;
dummySceneData.viewer = nullptr; //< Depth technique doesn't require any viewer
for (const Ndk::EntityHandle& light : m_pointSpotLights)
{
LightComponent& lightComponent = light->GetComponent<LightComponent>();
NodeComponent& lightNode = light->GetComponent<NodeComponent>();
if (!lightComponent.IsShadowCastingEnabled())
continue;
Nz::Vector2ui shadowMapSize(lightComponent.GetShadowMap()->GetSize());
switch (lightComponent.GetLightType())
{
case Nz::LightType_Directional:
NazaraInternalError("Directional lights included in point/spot light list");
break;
case Nz::LightType_Point:
{
static Nz::Quaternionf rotations[6] =
{
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), Nz::Vector3f::UnitX()), // CubemapFace_PositiveX
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), -Nz::Vector3f::UnitX()), // CubemapFace_NegativeX
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), -Nz::Vector3f::UnitY()), // CubemapFace_PositiveY
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), Nz::Vector3f::UnitY()), // CubemapFace_NegativeY
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), -Nz::Vector3f::UnitZ()), // CubemapFace_PositiveZ
Nz::Quaternionf::RotationBetween(Nz::Vector3f::Forward(), Nz::Vector3f::UnitZ()) // CubemapFace_NegativeZ
};
for (unsigned int face = 0; face < 6; ++face)
{
m_shadowRT.AttachTexture(Nz::AttachmentPoint_Depth, 0, lightComponent.GetShadowMap(), face);
Nz::Renderer::SetTarget(&m_shadowRT);
Nz::Renderer::SetViewport(Nz::Recti(0, 0, shadowMapSize.x, shadowMapSize.y));
///TODO: Cache the matrices in the light?
Nz::Renderer::SetMatrix(Nz::MatrixType_Projection, Nz::Matrix4f::Perspective(Nz::FromDegrees(90.f), 1.f, 0.1f, lightComponent.GetRadius()));
Nz::Renderer::SetMatrix(Nz::MatrixType_View, Nz::Matrix4f::ViewMatrix(lightNode.GetPosition(), rotations[face]));
Nz::AbstractRenderQueue* renderQueue = m_shadowTechnique.GetRenderQueue();
renderQueue->Clear();
///TODO: Culling
for (const Ndk::EntityHandle& drawable : m_drawables)
{
GraphicsComponent& graphicsComponent = drawable->GetComponent<GraphicsComponent>();
graphicsComponent.AddToRenderQueue(renderQueue);
}
m_shadowTechnique.Clear(dummySceneData);
m_shadowTechnique.Draw(dummySceneData);
}
break;
}
case Nz::LightType_Spot:
{
m_shadowRT.AttachTexture(Nz::AttachmentPoint_Depth, 0, lightComponent.GetShadowMap());
Nz::Renderer::SetTarget(&m_shadowRT);
Nz::Renderer::SetViewport(Nz::Recti(0, 0, shadowMapSize.x, shadowMapSize.y));
///TODO: Cache the matrices in the light?
Nz::Renderer::SetMatrix(Nz::MatrixType_Projection, Nz::Matrix4f::Perspective(lightComponent.GetOuterAngle()*2.f, 1.f, 0.1f, lightComponent.GetRadius()));
Nz::Renderer::SetMatrix(Nz::MatrixType_View, Nz::Matrix4f::ViewMatrix(lightNode.GetPosition(), lightNode.GetRotation()));
Nz::AbstractRenderQueue* renderQueue = m_shadowTechnique.GetRenderQueue();
renderQueue->Clear();
///TODO: Culling
for (const Ndk::EntityHandle& drawable : m_drawables)
{
GraphicsComponent& graphicsComponent = drawable->GetComponent<GraphicsComponent>();
graphicsComponent.AddToRenderQueue(renderQueue);
}
m_shadowTechnique.Clear(dummySceneData);
m_shadowTechnique.Draw(dummySceneData);
break;
}
}
}
}
bool NzRenderTexture::IsComplete() const
{
#if NAZARA_RENDERER_SAFE
if (!m_impl)
{
NazaraError("Render texture not created");
return false;
}
#endif
if (!m_impl->checked)
{
if (!Lock())
{
NazaraError("Failed to lock render texture");
return false;
}
GLenum status = glCheckFramebufferStatus(GL_DRAW_FRAMEBUFFER);
Unlock();
m_impl->complete = false;
switch (status)
{
case GL_FRAMEBUFFER_COMPLETE:
m_impl->complete = true;
break;
case GL_FRAMEBUFFER_INCOMPLETE_ATTACHMENT:
NazaraError("Incomplete attachment");
break;
case GL_FRAMEBUFFER_INCOMPLETE_DRAW_BUFFER:
NazaraInternalError("Incomplete draw buffer");
break;
case GL_FRAMEBUFFER_INCOMPLETE_READ_BUFFER:
NazaraInternalError("Incomplete read buffer");
break;
case GL_FRAMEBUFFER_INCOMPLETE_MISSING_ATTACHMENT:
NazaraError("Incomplete missing attachment");
break;
case GL_FRAMEBUFFER_INCOMPLETE_MULTISAMPLE:
NazaraError("Incomplete multisample");
break;
case GL_FRAMEBUFFER_INCOMPLETE_LAYER_TARGETS:
NazaraError("Incomplete layer targets");
break;
case GL_FRAMEBUFFER_UNSUPPORTED:
NazaraError("Render texture has unsupported attachments");
break;
default:
NazaraInternalError("Unknown error");
}
m_impl->checked = true;
}
return m_impl->complete;
}
void NzSceneRoot::AddToRenderQueue(NzAbstractRenderQueue* renderQueue) const
{
NazaraUnused(renderQueue);
NazaraInternalError("SceneNode::AddToRenderQueue() called on SceneRoot");
}
void NzSceneRoot::Unregister()
{
NazaraInternalError("SceneNode::Unregister() called on SceneRoot");
}
