Void CText::Render(CRenderer& renderer)
{
Int32 length = m_TextLength - m_CtrlCharCount;
Float32 x, y;
CVector2f reso = renderer.GetCurrentViewport()->GetSize();
if( length <= 0 || m_Font == NULL )
return ;
CShader& shader = m_Font->GetShader();
if(length <= m_Capacity)
{
UpdateBuffer( 0, length);
renderer.Activate( m_VertexBuffer, 0 );
renderer.Activate( m_VertexLayout );
x = (Float32) ( GetPosition().GetX() );
y = (Float32) ( 1.0f - GetPosition().GetY() );
CVector3f snapedPos( (Float32)x, (Float32)y , 0.0f );
shader.GetParameter("Position")->SetValue( snapedPos );
shader.GetParameter("Resolution")->SetValue( reso );
shader.GetParameter("InputTexture")->SetValue( m_Font->GetTexture() );
CVector2f textureSize( (Float32)m_Font->GetTextureWidth(), (Float32)m_Font->GetTextureHeight() );
shader.GetParameter("Color")->SetValue( m_Color );
renderer.Activate( shader );
renderer.Draw( nPrimitiveType_TriangleList, length * 6, 0 );
}
else
{
Int32 offset = 0;
Int32 count = m_Capacity;
while(offset < length)
{
UpdateBuffer( offset, count);
offset += count;
count = length - offset;
if(count > m_Capacity)
count = m_Capacity;
}
}
}
void GenmeshAnimationPDL::Update(csTicks current, int num_verts,
uint32 version_id)
{
if (!prepared) Prepare();
if (buffers.GetSize() == 0) return;
// @@@ FIXME: Bit of a waste here to always update custom buffers...
for (size_t b = 0; b < buffers.GetSize(); b++)
{
bool updateRB = (buffers[b].lastMeshVersion != version_id)
|| !buffers[b].rbuf.IsValid();
UpdateBuffer (buffers[b], current, 0, num_verts, version_id);
if (updateRB)
{
buffers[b].rbuf = csRenderBuffer::CreateRenderBuffer (
buffers[b].combinedColors.GetSize(), CS_BUF_DYNAMIC, CS_BUFCOMP_FLOAT,
4);
const char* rbufname = factory->type->strings->Request (buffers[b].name);
genmesh->RemoveRenderBuffer (rbufname);
genmesh->AddRenderBuffer (rbufname, buffers[b].rbuf);
}
buffers[b].rbuf->SetData (buffers[b].combinedColors.GetArray());
}
}
/*! Updates the UI Widget
*
* @param fDeltaTime Elapsed time since lase update
* @returns ICRESULT Success/failure of Updating the widget
**/
ICRESULT icWidget::Update(const icReal fDeltaTime)
{
if (m_bUpdateBuffer)
UpdateBuffer();
return IC_OK;
}// END FUNCTION Update(const icReal fDeltaTime)
void ArrayBuffer<DataType>::SetBufferUsage(unsigned int usage)
{
if (m_BufferUsage != usage)
{
DeleteBuffer();
UpdateBuffer();
}
}
void BFTimeCtrl::TextCtrl::ApplyIncrement (bool bPositiv)
{
UpdatePosition();
SelectPart();
UpdateBuffer();
Increment(bPositiv);
FlushBuffer();
SelectPart();
}
//--------------------------------------------------------------------------------
DubDelay::DubDelayKernel::DubDelayKernel(AUEffectBase * inAudioUnit)
: AUKernelBase(inAudioUnit)
{
buffer = NULL;
allocatedBufferSize = 0;
UpdateBuffer();
Reset();
}
MemoryArrayReader(const char *buffer, long length)
{
if (length > 0)
{
buf.Resize(length);
memcpy(&buf[0], buffer, length);
}
UpdateBuffer();
}
void Animator::UpdateAnimation()
{
updatebuffer = AnimationList[cur_anim].UpdateLoop();
if(updatebuffer)
UpdateBuffer();
//ToBatchRenderer();
return;
}
const csColor4* GenmeshAnimationPDL::UpdateColors (csTicks current,
const csColor4* colors, int num_colors, uint32 version_id)
{
if (!prepared) Prepare();
if (colorsBuffer.name == 0) return colors;
UpdateBuffer (colorsBuffer, current, colors, num_colors, version_id);
return colorsBuffer.combinedColors.GetArray();
}
GLuint Model::AddVertex(VertexFormat* vert)
{
if (numVertices > 0)
{
// Allocate space equivalent to our current vertices array.
VertexFormat* tempVerts = (VertexFormat*)malloc(sizeof(VertexFormat) * numVertices);
// Copy our current vertices array into our temporary array.
memcpy(tempVerts, vertices, numVertices);
// Increase the number of vertices count by 1.
numVertices++;
// Free the vertices array.
free(vertices);
// Allocate space equivalent to our new vertices size.
vertices = (VertexFormat*)malloc(sizeof(VertexFormat) * numVertices);
// Copy the data from the temporary array back into the vertices array.
memcpy(vertices, tempVerts, numVertices - 1);
// Free the temporary array.
free(tempVerts);
// Set the last value in the vertices array to the new vertex.
vertices[numVertices - 1] = *vert;
// Update our buffer to match this change.
UpdateBuffer();
// Return the index reference to this vertex.
return numVertices - 1;
}
else
{
// Create a new vertices array of size 1.
vertices = (VertexFormat*)malloc(sizeof(VertexFormat));
// Set the value to the new vertex.
vertices[0] = *vert;
// Set the number of vertices to 1.
numVertices = 1;
// Initialize the buffer.
InitBuffer();
// Return the index reference to this vertex (zero).
return 0;
}
}
HRESULT CRainDropper::FrameMove ()
{
m_elapsedTime = m_timer ->GetElapsedTime ();
m_elapsedMiliTime = m_timer ->GetElapsedMilliTime ();
if ( m_elapsedTime > 0.1f ) m_elapsedTime = 0.1f;
CheckDropGenerating ();
UpdateDrops ();
UpdateBuffer ();
return S_OK;
}
// callback
void CSoundStreamServerSession::MaoscBufferCopied(TInt aError, const TDesC8& /*aBuffer*/) {
readyForWrite=true;
// underflow? reopen!
if (aError==KErrUnderflow) {
ReOpen();
}
// update next buffer
if ((aError==KErrUnderflow) || (aError==KErrNone)) {
UpdateBuffer();
}
}
// playing stopped
void CSoundStreamServerSession::MaoscPlayComplete(TInt aError) {
readyForWrite=true;
timeOfUpdate.UniversalTime();
// if underflow, restart
if (aError==KErrUnderflow) {
ReOpen();
UpdateBuffer();
} else {
// no underflow? then it was manually stopped...
CActiveScheduler::Stop();
}
}
void UCIParser<NumType, LabelType>::SetFilePosition(int64_t position)
{
int rc = _fseeki64(m_pFile, position, SEEK_SET);
if (rc)
RuntimeError("UCIParser::SetFilePosition - error seeking in file");
// setup state machine to start at this position
PrepareStartPosition(position);
// read in the first buffer of data from this position, first buffer is expected to be read after a reposition
UpdateBuffer();
// FUTURE: in debug we could validate the value is either 0, or the previous character is a '\n'
}
void FD3D12DynamicRHI::UnlockBuffer(FRHICommandListImmediate* RHICmdList, BufferType* Buffer)
{
FD3D12LockedResource& LockedData = Buffer->LockedData;
check(LockedData.bLocked == true);
// Determine whether the buffer is dynamic or not.
const bool bIsDynamic = (Buffer->GetUsage() & BUF_AnyDynamic) ? true : false;
if (bIsDynamic)
{
// If the Buffer is dynamic, its upload heap memory can always stay mapped. Don't do anything.
}
else
{
if (LockedData.bLockedForReadOnly)
{
//Nothing to do, just release the locked data at the end of the function
}
else
{
// Copy the contents of the temporary memory buffer allocated for writing into the Buffer.
BufferType* CurrentBuffer = Buffer;
// Update all of the resources in the LDA chain
while (CurrentBuffer)
{
// If we are on the render thread, queue up the copy on the RHIThread so it happens at the correct time.
if (ShouldDeferBufferLockOperation(RHICmdList))
{
new (RHICmdList->AllocCommand<FRHICommandUpdateBuffer>()) FRHICommandUpdateBuffer(&CurrentBuffer->ResourceLocation, LockedData.ResourceLocation, LockedData.LockedOffset, LockedData.LockedPitch);
}
else
{
UpdateBuffer(CurrentBuffer->ResourceLocation.GetResource(),
CurrentBuffer->ResourceLocation.GetOffsetFromBaseOfResource() + LockedData.LockedOffset,
LockedData.ResourceLocation.GetResource(),
LockedData.ResourceLocation.GetOffsetFromBaseOfResource(),
LockedData.LockedPitch);
}
CurrentBuffer = CurrentBuffer->GetNextObject();
}
}
}
LockedData.Reset();
}
bool FileReader::OpenMemoryArray(std::function<bool(TArray<uint8_t>&)> getter)
{
auto reader = new MemoryArrayReader(nullptr, 0);
if (getter(reader->GetArray()))
{
Close();
reader->UpdateBuffer();
mReader = reader;
return true;
}
else
{
// This will keep the old buffer, if one existed
delete reader;
return false;
}
}
void FD3D12DynamicRHI::UnlockBuffer(FRHICommandListImmediate* RHICmdList, BufferType* Buffer)
{
// Find the outstanding lock for this Buffer.
FD3D12LockedKey LockedKey(Buffer);
FD3D12LockedData* LockedData = FindInOutstandingLocks(LockedKey);
check(LockedData);
// Determine whether the buffer is dynamic or not.
const bool bIsDynamic = (Buffer->GetUsage() & BUF_AnyDynamic) ? true : false;
if (bIsDynamic)
{
// If the Buffer is dynamic, its upload heap memory can always stay mapped. Don't do anything.
}
else
{
// If the static Buffer lock involved a staging resource, it was locked for reading.
if (LockedData->StagingResource)
{
// Unmap the staging buffer's memory.
ID3D12Resource* StagingBuffer = LockedData->StagingResource.GetReference()->GetResource();
StagingBuffer->Unmap(0, nullptr);
}
else
{
// Copy the contents of the temporary memory buffer allocated for writing into the Buffer.
FD3D12ResourceLocation* UploadHeapLocation = LockedData->UploadHeapLocation.GetReference();
// If we are on the render thread, queue up the copy on the RHIThread so it happens at the correct time.
if (ShouldDeferBufferLockOperation(RHICmdList))
{
new (RHICmdList->AllocCommand<FRHICommandUpdateBuffer>()) FRHICommandUpdateBuffer(Buffer->ResourceLocation, UploadHeapLocation, LockedData->Pitch);
}
else
{
UpdateBuffer(Buffer->ResourceLocation->GetResource(),
Buffer->ResourceLocation->GetOffset(), UploadHeapLocation->GetResource(), UploadHeapLocation->GetOffset(), LockedData->Pitch);
}
}
}
// Remove the FD3D12LockedData from the lock map.
// If the lock involved a staging resource, this releases it.
RemoveFromOutstandingLocks(LockedKey);
}
// callback for iStream->Open()
void CSoundStreamServerSession::MaoscOpenComplete(TInt aError) {
if (aError==KErrNone) {
// set stream properties to 16bit,16KHz mono
iStream->SetAudioPropertiesL(TMdaAudioDataSettings::ESampleRate16000Hz,
TMdaAudioDataSettings::EChannelsMono);
iStream->SetVolume(iStream->MaxVolume());
iStream->SetPriority(EPriorityMuchMore, EMdaPriorityPreferenceNone);
initialized=true;
// Start timer (Fill first buffer)
UpdateBuffer();
} else {
// should not happen...
RDebug::Print(_L("Could not init sound!"));
}
}
void Renderer::set_lighting_constant_values()
{
const vector<Light*> &lights_to_render = scene_to_render->get_lights();
if (lights_to_render.size() > 0)
{
Light* first_light = lights_to_render[0];
lighting_contants_buffer_cpu.light_color = first_light->get_color();
lighting_contants_buffer_cpu.ws_light_position = first_light->get_position();
D3DXMATRIX viewProjection = camera_->get_view_projection_matrix();
D3DXVECTOR4 ss_light_p;
D3DXVec4Transform(&ss_light_p, &lighting_contants_buffer_cpu.ws_light_position, &viewProjection);
ss_light_p = ss_light_p / ss_light_p.w;
ss_light_p.x = ss_light_p.x * 0.5 + 0.5;
ss_light_p.y = ss_light_p.y * 0.5 + 0.5;
lighting_contants_buffer_cpu.ss_light_position = ss_light_p;
UpdateBuffer(&lighting_contants_buffer_cpu, sizeof(LightingConstantsBuffer), lighting_constants_buffer_gpu);
}
}
void Shader::BindSubMesh(const std::shared_ptr<Mesh> &mesh, unsigned int index)
{
auto subMesh = mesh->GetSubMeshAt(index);
if (subMesh == nullptr)
{
FURYW << "SubMesh out of range!";
return;
}
if (mesh->GetDirty())
mesh->UpdateBuffer();
if (subMesh->GetDirty())
subMesh->UpdateBuffer();
if (m_Dirty || mesh->GetDirty() || subMesh->GetDirty() || subMesh->Indices.GetDirty())
return;
BindMeshData(mesh);
glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, subMesh->Indices.GetID());
}
void O_Drawer(void)
{
int i;
int offset;
// Erase old and Draw new cursor frame
EraseBlock(56, 40, o_cursor1->width, 200, NULL);
if(cursorframe)
DrawJagobj(o_cursor1, 60, menuitem[cursorpos].y - 2, NULL);
else
DrawJagobj(o_cursor2, 60, menuitem[cursorpos].y - 2, NULL);
// Draw menu
print(104, 10, "Options");
for(i = 0; i < NUMMENUITEMS; i++)
{
print(menuitem[i].x, menuitem[i].y, menuitem[i].name);
if(menuitem[i].hasslider == true)
{
DrawJagobj(o_slidertrack , menuitem[i].x + 2, menuitem[i].y + 20, NULL);
offset = (slider[i].curval * SLIDEWIDTH) / slider[i].maxval;
DrawJagobj(o_slider, menuitem[i].x + 7 + offset, menuitem[i].y + 20, NULL);
}
}
// Draw control info
print(menuitem[controls].x + 10, menuitem[controls].y + 20, "A");
print(menuitem[controls].x + 10, menuitem[controls].y + 40, "B");
print(menuitem[controls].x + 10, menuitem[controls].y + 60, "C");
O_DrawControl();
UpdateBuffer();
}
void Renderer::set_mesh_constant_values(const Mesh *mesh)
{
D3DXMATRIX world_matrix = mesh->get_frame();
D3DXMATRIX world_view_matrix = world_matrix * camera_->get_view_matrix();
D3DXMATRIX world_view_projection_matrix = world_matrix * camera_->get_view_projection_matrix();
float determinant;
D3DXMATRIX inv_world_matrix;
D3DXMATRIX inv_world_view_matrix;
D3DXMATRIX inv_world_view_projection_matrix;
D3DXMatrixInverse(&inv_world_matrix, &determinant, &world_matrix);
D3DXMatrixInverse(&inv_world_view_matrix, &determinant, &world_view_matrix);
D3DXMatrixInverse(&inv_world_view_projection_matrix, &determinant, &world_view_projection_matrix);
D3DXMatrixTranspose(&world_matrix, &world_matrix);
D3DXMatrixTranspose(&world_view_matrix, &world_view_matrix);
D3DXMatrixTranspose(&world_view_projection_matrix, &world_view_projection_matrix);
D3DXMatrixTranspose(&inv_world_matrix, &inv_world_matrix);
D3DXMatrixTranspose(&inv_world_matrix, &inv_world_matrix);
D3DXMatrixTranspose(&inv_world_view_projection_matrix, &inv_world_view_projection_matrix);
mesh_constants_buffer_cpu.world_matrix = world_matrix;
mesh_constants_buffer_cpu.world_view_matrix = world_view_matrix;
mesh_constants_buffer_cpu.world_view_projection_matrix = world_view_projection_matrix;
mesh_constants_buffer_cpu.inv_world_matrix = inv_world_matrix;
mesh_constants_buffer_cpu.inv_world_view_matrix = inv_world_view_matrix;
mesh_constants_buffer_cpu.inv_world_view_projection_matrix = inv_world_view_projection_matrix;
mesh_constants_buffer_cpu.diffuse_color = mesh->get_material() ? mesh->get_material()->get_diffuse_color() : D3DXVECTOR4(1,1,1,1);
mesh_constants_buffer_cpu.bb_min = mesh->get_bb().get_min();
mesh_constants_buffer_cpu.bb_max = mesh->get_bb().get_max();
UpdateBuffer(&mesh_constants_buffer_cpu, sizeof(MeshConstantsBuffer), mesh_constants_buffer_gpu);
}
void Renderer::set_frame_constant_values()
{
D3DXMATRIX cur_frame_view_matrix = camera_->get_view_matrix();
D3DXMATRIX cur_frame_projection_matrix = camera_->get_projection_matrix();
D3DXMATRIX cur_frame_view_projection_matrix = camera_->get_view_projection_matrix();
D3DXMATRIX cur_frame_inv_view_matrix = camera_->get_inv_view_matrix();
D3DXMATRIX cur_frame_inv_projection_matrix = camera_->get_inv_projection_matrix();
D3DXMATRIX cur_frame_inv_view_projection_matrix = camera_->get_inv_view_projection_matrix();
D3DXMatrixTranspose(&cur_frame_view_matrix, &cur_frame_view_matrix);
D3DXMatrixTranspose(&cur_frame_projection_matrix, &cur_frame_projection_matrix);
D3DXMatrixTranspose(&cur_frame_view_projection_matrix, &cur_frame_view_projection_matrix);
D3DXMatrixTranspose(&cur_frame_inv_view_matrix, &cur_frame_inv_view_matrix);
D3DXMatrixTranspose(&cur_frame_inv_projection_matrix, &cur_frame_inv_projection_matrix);
D3DXMatrixTranspose(&cur_frame_inv_view_projection_matrix, &cur_frame_inv_view_projection_matrix);
frame_constans_buffer_cpu.view_matrix = cur_frame_view_matrix;
frame_constans_buffer_cpu.projection_matrix = cur_frame_projection_matrix;
frame_constans_buffer_cpu.view_projection_matrix = cur_frame_view_projection_matrix;
frame_constans_buffer_cpu.inv_view_matrix = cur_frame_inv_view_matrix;
frame_constans_buffer_cpu.inv_projection_matrix = cur_frame_inv_projection_matrix;
frame_constans_buffer_cpu.inv_view_projection_matrix = cur_frame_inv_view_projection_matrix;
frame_constans_buffer_cpu.right_direction = camera_->get_right_vector();
frame_constans_buffer_cpu.up_direction = camera_->get_up_vector();
frame_constans_buffer_cpu.view_direction = camera_->get_forward_vector();
frame_constans_buffer_cpu.camera_position = camera_->get_position();
frame_constans_buffer_cpu.near_far_padding2 = D3DXVECTOR4(camera_->get_near(), camera_->get_far(), 0, 0);
frame_constans_buffer_cpu.screen_texture_half_pixel_forced_mipmap = D3DXVECTOR4((1.0f / float(g_screenWidth)), (1.0f / float(g_screenHeight)), -1, 0);
frame_constans_buffer_cpu.debug_vector = Utilities::get_debug_vector();
UpdateBuffer(&frame_constans_buffer_cpu, sizeof(FrameConstantsBuffer), frame_constans_buffer_gpu);
}
long UCIParser<NumType, LabelType>::Parse(size_t recordsRequested, std::vector<NumType> *numbers, std::vector<LabelType> *labels)
{
assert(numbers != NULL || m_dimFeatures == 0 || m_parseMode == ParseLineCount);
assert(labels != NULL || m_dimLabels == 0 || m_parseMode == ParseLineCount);
// transfer to member variables
m_numbers = numbers;
m_labels = labels;
long TickStart = GetTickCount();
long recordCount = 0;
size_t bufferIndex = m_byteCounter - m_bufferStart;
while (m_byteCounter < m_fileSize && recordCount < recordsRequested)
{
// check to see if we need to update the buffer
if (bufferIndex >= m_bufferSize)
{
UpdateBuffer();
bufferIndex = m_byteCounter - m_bufferStart;
}
char ch = m_fileBuffer[bufferIndex];
ParseState nextState = (ParseState) m_stateTable[(m_current_state << 8) + ch];
if (nextState <= Exponent)
{
m_builtUpNumber = m_builtUpNumber * 10 + (ch - '0');
// if we are in the decimal portion of a number increase the divider
if (nextState == Remainder)
m_divider *= 10;
}
// only do a test on a state transition
if (m_current_state != nextState)
{
// System.Diagnostics.Debug.WriteLine("Current state = " + m_current_state + ", next state = " + nextState);
// if the nextState is a label, we don't want to do any number processing, it's a number prefixed string
if (nextState != Label)
{
// do the numeric processing
switch (m_current_state)
{
case TheLetterE:
if (m_divider != 0) // decimal number
m_partialResult += m_builtUpNumber / m_divider;
else // integer
m_partialResult = m_builtUpNumber;
m_builtUpNumber = 0;
break;
case WholeNumber:
// could be followed by a remainder, or an exponent
if (nextState != TheLetterE)
if (nextState != Period)
DoneWithValue();
if (nextState == Period)
{
m_partialResult = m_builtUpNumber;
m_divider = 1;
m_builtUpNumber = 0;
}
break;
case Remainder:
// can only be followed by a exponent
if (nextState != TheLetterE)
DoneWithValue();
break;
case Exponent:
DoneWithValue();
break;
}
}
// label handling
switch (m_current_state)
{
case Label:
DoneWithLabel();
break;
case EndOfLine:
PrepareStartLine();
break;
case Whitespace:
// this is the start of the next space delimited entity
if (nextState != EndOfLine)
m_spaceDelimitedStart = m_byteCounter;
break;
}
// label handling for next state
switch (nextState)
{
// do sign processing on nextState, since we still have the character handy
case Sign:
if (ch == '-')
m_wholeNumberMultiplier = -1;
break;
case ExponentSign:
if (ch == '-')
m_exponentMultiplier = -1;
break;
// going into whitespace or endOfLine, so end of space delimited entity
case Whitespace:
m_spaceDelimitedMax = m_byteCounter;
// hit whitespace and nobody processed anything, so add as label
// if (m_elementsConvertedThisLine == elementsProcessed)
// DoneWithLabel();
break;
case EndOfLine:
if (m_current_state != Whitespace)
{
m_spaceDelimitedMax = m_byteCounter;
// hit whitespace and nobody processed anything, so add as label
// if (m_elementsConvertedThisLine == elementsProcessed)
// DoneWithLabel();
}
// process the label at the end of a line
// if (m_labelMode == LabelLast && m_labels != NULL)
// {
// StoreLastLabel();
// }
// intentional fall-through
case LineCountEOL:
recordCount++; // done with another record
if (m_traceLevel > 1)
{
// print progress dots
if (recordCount % 100 == 0)
{
if (recordCount % 1000 == 0)
{
if (recordCount % 10000 == 0)
{
fprintf(stderr, "#");
}
else
{
fprintf(stderr, "+");
}
}
else
{
fprintf(stderr, ".");
}
}
}
break;
case LineCountOther:
m_spaceDelimitedStart = m_byteCounter;
break;
}
}
m_current_state = nextState;
// move to next character
m_byteCounter++;
bufferIndex++;
} // while 1
long TickStop = GetTickCount();
long TickDelta = TickStop - TickStart;
if (m_traceLevel > 2)
fprintf(stderr, "\n%ld ms, %ld numbers parsed\n\n", TickDelta, (long)m_totalNumbersConverted);
return recordCount;
}
void SSAO::Initialize(int screenWidth, int screenHeight, float farC, float nearC, float fov) {
_app->SwitchActive("sib");
_screenHeight = screenHeight;
_screenWidth = screenWidth;
_showDebug = false;
_near = nearC;
_far = farC;
_fov = fov;
_kernalSize = 16;
_noiseSize = 64;
_rad = 0.065;
_totStrength = 1.6;
_strength = 0.7;
_offset = 18;
_falloff = 0.0001;
_defrad = 0.02;
_deftotStrength = 3.38;
_defstrength = 0.7;
_defoffset = 18;
_deffalloff = 0.0002;
_blurSize = 4;
_defblurSize = 4;
srand(time(NULL));
//create cosntant buffer
D3D11_BUFFER_DESC ssaoBuff;
ssaoBuff.BindFlags = D3D11_BIND_CONSTANT_BUFFER;
ssaoBuff.ByteWidth = sizeof(SSAOBuffer);
ssaoBuff.Usage = D3D11_USAGE_DYNAMIC;
ssaoBuff.CPUAccessFlags = D3D11_CPU_ACCESS_WRITE;
ssaoBuff.MiscFlags = 0;
ssaoBuff.StructureByteStride = 0;
_device->CreateBuffer(&ssaoBuff, 0, &_ssaoBuffer);
//create cosntant buffer
D3D11_BUFFER_DESC ssaoBuff2;
ssaoBuff2.BindFlags = D3D11_BIND_CONSTANT_BUFFER;
ssaoBuff2.ByteWidth = sizeof(SSAOBuffer2);
ssaoBuff2.Usage = D3D11_USAGE_DYNAMIC;
ssaoBuff2.CPUAccessFlags = D3D11_CPU_ACCESS_WRITE;
ssaoBuff2.MiscFlags = 0;
ssaoBuff2.StructureByteStride = 0;
HRESULT hret = _device->CreateBuffer(&ssaoBuff2, 0, &_ssaoBuffer2);
_deviceContext->PSSetConstantBuffers(11, 1, &_ssaoBuffer2);
_deviceContext->PSSetConstantBuffers(10, 1, &_ssaoBuffer);
_deviceContext->VSSetConstantBuffers(10, 1, &_ssaoBuffer);
//initialize render targets
_normalAndDepthBuffer = new RenderTarget(_device, _deviceContext);
_normalAndDepthBuffer->CreateRenderTarget(_screenWidth, _screenHeight, DXGI_FORMAT_R32G32B32A32_FLOAT);
_ssaoRT = new RenderTarget(_device, _deviceContext);
_ssaoRT->CreateRenderTarget(_screenWidth, _screenHeight, DXGI_FORMAT_R32_FLOAT);
_blurRT = new RenderTarget(_device, _deviceContext);
_blurRT->CreateRenderTarget(_screenWidth, _screenHeight, DXGI_FORMAT_R32_FLOAT);
BuildFullScreenQuad();
BuildSampleKernal();
BuildNoise();
BuildFrustumCorner();
BuildTextures();
BuildUI();
_ndPass= new ShaderProgram(_device, _deviceContext);
_ndPass->CompileShaders(L"media/hlsl/normalAndDepthPass.vsh", L"media/hlsl/normalAndDepthPass.psh");
_ssaoPass= new ShaderProgram(_device, _deviceContext);
_ssaoPass->CompileShaders(L"media/hlsl/ssaoPass.vsh", L"media/hlsl/ssaoPass.psh");
_blurPass= new ShaderProgram(_device, _deviceContext);
_blurPass->CompileShaders(L"media/hlsl/blurrPass.vsh", L"media/hlsl/blurrPass.psh");
_debug= new ShaderProgram(_device, _deviceContext);
_debug->CompileShaders(L"media/hlsl/debug.vsh", L"media/hlsl/debug.psh");
UpdateBuffer();
UpdateBuffer2();
}
void BFTimeCtrl::TextCtrl::OnChar (wxKeyEvent& event)
{
UpdatePosition();
SelectPart();
UpdateBuffer();
int iKeycode = event.GetKeyCode();
if (iKeycode >= 48 && iKeycode <= 57 && iPos_ < 8)
{
char cKeycode = iKeycode;
wxString strTemp = strBuffer_ + (wchar_t) cKeycode;
long lValue;
strTemp.Right(2).ToLong(&lValue);
if (lValue < iMin_ || lValue > iMax_)
strBuffer_ = wxString("0") + (wchar_t) cKeycode;
else
strBuffer_ = wxString::Format("%.2d", (int) lValue);
FlushBuffer();
}
switch (iKeycode)
{
// TAB
case WXK_TAB:
FlushBuffer();
if (!event.ShiftDown() )
iPos_ += 3;
else
iPos_ -= 3;
#ifndef __WXMAC__
if (iPos_ < 0 || iPos_ > 4)
event.Skip();
#endif // __WXMAC__
break;
// ARROW LEFT
case WXK_LEFT:
FlushBuffer();
iPos_ -= 3;
if (iPos_ < 0)
iPos_ = 0;
break;
// ARROW RIGHT
case WXK_RIGHT:
FlushBuffer();
iPos_ += 3;
if (iPos_ > 4)
iPos_ = 4;
break;
case WXK_UP:
Increment(true);
FlushBuffer();
break;
case WXK_DOWN:
Increment(false);
FlushBuffer();
break;
case 65:
case 97:
case 80:
case 112:
FlushBuffer();
break;
}
SelectPart();
}
INT CmSurfaceManager::CreateBuffer(UINT size, CM_BUFFER_TYPE type,
CmBuffer_RT * &pSurface1D,
CmOsResource * pCmOsResource, void *&pSysMem)
{
UINT index = m_pCmDevice->ValidSurfaceIndexStart();
pSurface1D = NULL;
if (pCmOsResource) {
if (GetFreeSurfaceIndex(index) != CM_SUCCESS) {
return CM_EXCEED_SURFACE_AMOUNT;
}
} else {
BOOL useNewSurface = TRUE;
if (AllocateSurfaceIndex
(size, 0, 0, CM_SURFACE_FORMAT_UNKNOWN, index,
useNewSurface, pSysMem) != CM_SUCCESS) {
return CM_EXCEED_SURFACE_AMOUNT;
}
if (!useNewSurface) {
CmSurface *pSurface = m_SurfaceArray[index];
if (pSurface
&& (pSurface->Type() ==
CM_ENUM_CLASS_TYPE_CMBUFFER_RT)) {
pSurface1D =
static_cast < CmBuffer_RT * >(pSurface);
} else {
return CM_FAILURE;
}
UpdateBuffer(pSurface1D, size);
UPDATE_PROFILE_FOR_1D_SURFACE(index, size, TRUE);
return CM_SUCCESS;
}
}
if (m_bufferCount >= m_maxBufferCount) {
CM_ASSERT(0);
return CM_EXCEED_SURFACE_AMOUNT;
}
UINT handle = 0;
INT result = AllocateBuffer(size, type, handle, pCmOsResource, pSysMem);
if (result != CM_SUCCESS) {
CM_ASSERT(0);
return result;
}
result =
CmBuffer_RT::Create(index, handle, size, pCmOsResource == NULL,
this, type, pSysMem, pSurface1D);
if (result != CM_SUCCESS) {
FreeBuffer(handle);
CM_ASSERT(0);
return result;
}
m_SurfaceArray[index] = pSurface1D;
UPDATE_PROFILE_FOR_1D_SURFACE(index, size, FALSE);
return CM_SUCCESS;
}
void CIFControl::RenderFade()
{
float tempTime;
int r = 0xff, g = 0xff, b = 0xff;
switch( m_fadeFlag )
{
case 0 :
m_fadeStart = g_timer.GetAppMilliTime();
m_fadeFlag = 1;
m_fadeColor = 0xff000000;
break;
case 1 :
tempTime = g_timer.GetAppMilliTime() - m_fadeStart;
tempTime /= m_fadeTime;
if( tempTime > 1.0f )
{
tempTime = 1.0f;
m_fadeStart = g_timer.GetAppMilliTime();
m_fadeFlag = 2;
}
r = (int)( (float)r * tempTime );
r <<= 16;
g = (int)( (float)g * tempTime );
g <<= 8;
b = (int)( (float)b * tempTime );
m_fadeColor = (0xff000000) | r | g | b;
break;
case 2 :
tempTime = g_timer.GetAppMilliTime() - m_fadeStart;
if( tempTime > m_stayTime )
{
m_fadeStart = g_timer.GetAppMilliTime();
m_fadeFlag = 3;
}
m_fadeColor = 0xffffffff;
break;
case 3 :
tempTime = g_timer.GetAppMilliTime() - m_fadeStart;
tempTime /= m_fadeTime;
tempTime = 1.0f - tempTime;
if( tempTime < 0.0f )
{
tempTime = 0.0f;
m_fadeStart = g_timer.GetAppMilliTime();
m_fadeFlag = 4;
}
r = (int)( (float)r * tempTime );
r <<= 16;
g = (int)( (float)g * tempTime );
g <<= 8;
b = (int)( (float)b * tempTime );
m_fadeColor = (0xff000000) | r | g | b;
break;
}
UpdateBuffer();
Render();
}
Void CText::UpdateBuffer( )
{
UpdateBuffer( 0, MathMin( m_Capacity, m_TextLength ) );
}