/// <summary>
/// Creates or re-creates the DirectX device and the backbuffer. This is necessary in the initialization phase
/// of the SkinEngine and after a parameter was changed which affects the DX device creation.
/// </summary>
internal static void DoReCreateDevice_MainThread()
{
try
{
// Note that only the thread which handles window messages is allowed to call CreateDevice and Reset
// (see http://msdn.microsoft.com/en-us/library/windows/desktop/bb147224%28v=vs.85%29.aspx )
ServiceRegistration.Get <ILogger>().Debug("GraphicsDevice: Initializing DirectX");
MPDirect3D.Load();
// Cleanup-part: Only necessary during re-initialization
UIResourcesHelper.ReleaseUIResources();
if (_backBuffer != null)
{
_backBuffer.Dispose();
}
if (_device != null)
{
_device.Dispose();
}
_device = _setup.SetupDirectX();
// End cleanup part
SetupRenderStrategies();
SetupRenderPipelines();
Capabilities deviceCapabilities = _device.Capabilities;
_backBuffer = _device.GetRenderTarget(0);
_device.MaximumFrameLatency = _setup.PresentParameters.BackBufferCount; // Enables the device to queue as many frames as we have backbuffers defined
int ordinal = deviceCapabilities.AdapterOrdinal;
AdapterInformation adapterInfo = MPDirect3D.Direct3D.Adapters[ordinal];
DisplayMode currentMode = adapterInfo.CurrentDisplayMode;
AdaptTargetFrameRateToDisplayMode(currentMode);
LogScreenMode(currentMode);
bool firstTimeInitialization = _dxCapabilities == null;
_dxCapabilities = DxCapabilities.RequestCapabilities(deviceCapabilities, currentMode);
if (firstTimeInitialization)
{
if (!_dxCapabilities.SupportsShaders)
{
string text = String.Format("MediaPortal 2 needs a graphics card wich supports shader model 2.0\nYour card does NOT support this.\nMediaportal 2 will continue but migh run slow");
MessageBox.Show(text, "GraphicAdapter", MessageBoxButtons.OK, MessageBoxIcon.Exclamation);
}
}
SetRenderState();
UIResourcesHelper.ReallocUIResources();
}
catch (Exception ex)
{
ServiceRegistration.Get <ILogger>().Critical("GraphicsDevice: Failed to setup DirectX", ex);
Environment.Exit(0);
}
}
private void ReleaseDevice()
{
if (_device != null)
{
if (!_device.Disposed)
{
_device.Dispose();
_device = null;
OnDeviceDestroyed(EventArgs.Empty);
}
}
if (_deviceEx != null)
{
if (!_deviceEx.Disposed)
{
_deviceEx.Dispose();
_deviceEx = null;
OnDeviceDestroyed(EventArgs.Empty);
}
}
_d3dimage.Lock();
_d3dimage.SetBackBuffer(D3DResourceType.IDirect3DSurface9, IntPtr.Zero);
_d3dimage.Unlock();
ReleaseBackBuffer();
}
private void CleanUp()
{
logger.Verb("D3DImageRenderer::CleanUp()");
//System.Windows.Media.CompositionTarget.Rendering -= CompositionTarget_Rendering;
if (surface != null)
{
surface.Dispose();
surface = null;
}
if (direct3D != null)
{
direct3D.Dispose();
direct3D = null;
}
if (device != null)
{
device.Dispose();
device = null;
}
if (waitEvent != null)
{
waitEvent.Dispose();
waitEvent = null;
}
state = RendererState.Closed;
}
public void Dispose()
{
FTextureShared.Dispose();
FTextureCopied.Dispose();
FSurfaceOffscreen.Dispose();
FContext.Dispose();
FDevice.Dispose();
FHiddenControl.Dispose();
}
private void EndD3D()
{
if (_activeClients != 0)
{
return;
}
_renderTarget?.Dispose();
_d3DDevice.Dispose();
_d3DContext.Dispose();
}
public void Dispose()
{
if (!device.IsDisposed)
{
running = false;
renderLocker.Wait();
renderLocker.Dispose();
device.Dispose();
direct3D.Dispose();
fontRenderer.Dispose();
textureRenderer.Dispose();
}
}
/// <summary>
/// Disposes all unmanaged resources associated with this instance
/// </summary>
public void Dispose()
{
if (isDisposed)
{
return;
}
DisposeD3D9Backbuffer();
device9.Dispose();
direct3D.Dispose();
isDisposed = true;
}
public void ReleaseD3D()
{
if (device != null)
{
if (!device.Disposed)
{
device.Dispose();
device = null;
}
}
d3dimage.Lock();
d3dimage.SetBackBuffer(D3DResourceType.IDirect3DSurface9, IntPtr.Zero);
d3dimage.Unlock();
}
private void Dispose(bool dispose_managed)
{
if (_disposed)
{
return;
}
if (dispose_managed)
{
_texture?.Dispose();
_device_ex?.Dispose();
_d3d_ex?.Dispose();
}
_disposed = true;
}
private void ShutdownD3D9()
{
if (ActiveImageCount == 0)
{
if (SharedTexture != null)
{
SharedTexture.Dispose();
SharedTexture = null;
}
if (D3DDevice != null)
{
D3DDevice.Dispose();
D3DDevice = null;
}
if (D3DContext != null)
{
D3DContext.Dispose();
D3DContext = null;
}
}
}
private void ReleaseDevice()
{
if (device != null)
{
if (!device.IsDisposed)
{
device.Dispose();
device = null;
}
}
if (deviceEx != null)
{
if (!deviceEx.IsDisposed)
{
deviceEx.Dispose();
device = null;
}
}
//OnDeviceDisposing(EventArgs.Empty);
}
/// <summary>
/// Releases the unmanaged resources used by an instance of the <see cref="D3D9"/> class
/// and optionally releases the managed resources.
/// </summary>
/// <param name="disposing">
/// <see langword="true"/> to release both managed and unmanaged resources;
/// <see langword="false"/> to release only unmanaged resources.
/// </param>
protected virtual void Dispose(bool disposing)
{
if (!_disposed)
{
if (disposing)
{
// Dispose managed resources.
if (_device != null)
{
_device.Dispose();
_device = null;
}
if (_direct3D != null)
{
_direct3D.Dispose();
_direct3D = null;
}
}
// Release unmanaged resources.
_disposed = true;
}
}
public void Close()
{
logger.Verb("D3DRenderer::Close()");
if (surface != null)
{
surface.Dispose();
surface = null;
}
if (direct3D != null)
{
direct3D.Dispose();
direct3D = null;
}
if (device != null)
{
device.Dispose();
device = null;
}
state = RendererState.Closed;
}
private bool InitializeD3D()
{
HwndSource hwnd = new HwndSource(0, 0, 0, 0, 0, "null", IntPtr.Zero);
// Create the D3D object.
d3d = new Direct3DEx();
PresentParameters pp = new PresentParameters();
pp.BackBufferWidth = 512;
pp.BackBufferHeight = 512;
pp.BackBufferFormat = Format.Unknown;
pp.BackBufferCount = 0;
pp.Multisample = MultisampleType.None;
pp.MultisampleQuality = 0;
pp.SwapEffect = SwapEffect.Discard;
pp.DeviceWindowHandle = (IntPtr)0;
pp.Windowed = true;
pp.EnableAutoDepthStencil = false;
pp.AutoDepthStencilFormat = Format.Unknown;
pp.PresentationInterval = PresentInterval.Default;
bDeviceFound = false;
CUdevice[] cudaDevices = null;
for (g_iAdapter = 0; g_iAdapter < d3d.AdapterCount; g_iAdapter++)
{
device = new DeviceEx(d3d, d3d.Adapters[g_iAdapter].Adapter, DeviceType.Hardware, hwnd.Handle, CreateFlags.HardwareVertexProcessing | CreateFlags.Multithreaded, pp);
try
{
cudaDevices = CudaContext.GetDirectXDevices(device.ComPointer, CUd3dXDeviceList.All, CudaContext.DirectXVersion.D3D9);
bDeviceFound = cudaDevices.Length > 0;
infoLog.AppendText("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 and CUDA.\n");
break;
}
catch (CudaException)
{
//No Cuda device found for this Direct3D9 device
infoLog.AppendText("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 but not CUDA.\n");
}
}
// we check to make sure we have found a cuda-compatible D3D device to work on
if (!bDeviceFound)
{
infoLog.AppendText("No CUDA-compatible Direct3D9 device available");
if (device != null)
{
device.Dispose();
}
return(false);
}
ctx = new CudaContext(cudaDevices[0], device.ComPointer, CUCtxFlags.BlockingSync, CudaContext.DirectXVersion.D3D9);
deviceName.Text = "Device name: " + ctx.GetDeviceName();
// Set projection matrix
SlimDX.Matrix matProj = SlimDX.Matrix.OrthoOffCenterLH(0, 1, 1, 0, 0, 1);
device.SetTransform(TransformState.Projection, matProj);
// Turn off D3D lighting, since we are providing our own vertex colors
device.SetRenderState(RenderState.Lighting, false);
//Load kernels
CUmodule module = ctx.LoadModulePTX("kernel.ptx");
addForces_k = new CudaKernel("addForces_k", module, ctx);
advectVelocity_k = new CudaKernel("advectVelocity_k", module, ctx);
diffuseProject_k = new CudaKernel("diffuseProject_k", module, ctx);
updateVelocity_k = new CudaKernel("updateVelocity_k", module, ctx);
advectParticles_k = new CudaKernel("advectParticles_k", module, ctx);
d3dimage.Lock();
Surface surf = device.GetBackBuffer(0, 0);
d3dimage.SetBackBuffer(D3DResourceType.IDirect3DSurface9, surf.ComPointer);
d3dimage.Unlock();
surf.Dispose();
//Setup the "real" frame rate counter.
//The cuda counter only measures cuda runtime, not the overhead to actually
//show the result via DirectX and WPF.
realLastTick = Environment.TickCount;
return(true);
}
private void myWindow_Closing(object sender, System.ComponentModel.CancelEventArgs e)
{
//Stop render loop before closing
if (frameTimer != null)
{
frameTimer.Tick -= new EventHandler(frameTimer_Tick);
frameTimer.Stop();
}
//Cleanup
if (graphicsres != null)
{
graphicsres.Dispose();
}
if (g_mparticles != null)
{
g_mparticles.Dispose();
}
if (stopwatch != null)
{
stopwatch.Dispose();
}
if (texref != null)
{
texref.Dispose();
}
if (g_dvfield != null)
{
g_dvfield.Dispose();
}
if (g_vxfield != null)
{
g_vxfield.Dispose();
}
if (g_vyfield != null)
{
g_vyfield.Dispose();
}
if (g_planc2r != null)
{
g_planc2r.Dispose();
}
if (g_planr2c != null)
{
g_planr2c.Dispose();
}
if (g_pVB != null)
{
g_pVB.Dispose();
}
if (g_pTexture != null)
{
g_pTexture.Dispose();
}
if (device != null)
{
device.Dispose();
}
if (d3d != null)
{
d3d.Dispose();
}
if (ctx != null)
{
ctx.Dispose();
}
}
private void Form1_FormClosing(object sender, FormClosingEventArgs e)
{
isRunning = false;
//Cleanup
if (graphicsres != null)
{
graphicsres.Dispose();
}
if (g_mparticles != null)
{
g_mparticles.Dispose();
}
if (stopwatch != null)
{
stopwatch.Dispose();
}
if (texref != null)
{
texref.Dispose();
}
if (g_dvfield != null)
{
g_dvfield.Dispose();
}
if (g_vxfield != null)
{
g_vxfield.Dispose();
}
if (g_vyfield != null)
{
g_vyfield.Dispose();
}
if (g_planc2r != null)
{
g_planc2r.Dispose();
}
if (g_planr2c != null)
{
g_planr2c.Dispose();
}
if (g_pVB != null)
{
g_pVB.Dispose();
}
if (g_pTexture != null)
{
g_pTexture.Dispose();
}
if (device != null)
{
device.Dispose();
}
if (d3d != null)
{
d3d.Dispose();
}
if (ctx != null)
{
ctx.Dispose();
}
}
private void InitializeD3D()
{
// Create the D3D object.
d3d = new Direct3DEx();
PresentParameters pp = new PresentParameters();
pp.BackBufferWidth = 512;
pp.BackBufferHeight = 512;
pp.BackBufferFormat = Format.Unknown;
pp.BackBufferCount = 0;
pp.Multisample = MultisampleType.None;
pp.MultisampleQuality = 0;
pp.SwapEffect = SwapEffect.Discard;
pp.DeviceWindowHandle = panel1.Handle;
pp.Windowed = true;
pp.EnableAutoDepthStencil = false;
pp.AutoDepthStencilFormat = Format.Unknown;
pp.PresentationInterval = PresentInterval.Default;
bDeviceFound = false;
CUdevice[] cudaDevices = null;
for (g_iAdapter = 0; g_iAdapter < d3d.AdapterCount; g_iAdapter++)
{
device = new DeviceEx(d3d, d3d.Adapters[g_iAdapter].Adapter, DeviceType.Hardware, panel1.Handle, CreateFlags.HardwareVertexProcessing | CreateFlags.Multithreaded, pp);
try
{
cudaDevices = CudaContext.GetDirectXDevices(device.ComPointer, CUd3dXDeviceList.All, CudaContext.DirectXVersion.D3D9);
bDeviceFound = cudaDevices.Length > 0;
Console.WriteLine("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 and CUDA.");
break;
}
catch (CudaException)
{
//No Cuda device found for this Direct3D9 device
Console.WriteLine("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 but not CUDA.");
}
}
// we check to make sure we have found a cuda-compatible D3D device to work on
if (!bDeviceFound)
{
Console.WriteLine("No CUDA-compatible Direct3D9 device available");
if (device != null)
{
device.Dispose();
}
Close();
return;
}
ctx = new CudaContext(cudaDevices[0], device.ComPointer, CUCtxFlags.BlockingSync, CudaContext.DirectXVersion.D3D9);
// Set projection matrix
SlimDX.Matrix matProj = SlimDX.Matrix.OrthoOffCenterLH(0, 1, 1, 0, 0, 1);
device.SetTransform(TransformState.Projection, matProj);
// Turn off D3D lighting, since we are providing our own vertex colors
device.SetRenderState(RenderState.Lighting, false);
//Load kernels
CUmodule module = ctx.LoadModulePTX("kernel.ptx");
addForces_k = new CudaKernel("addForces_k", module, ctx);
advectVelocity_k = new CudaKernel("advectVelocity_k", module, ctx);
diffuseProject_k = new CudaKernel("diffuseProject_k", module, ctx);
updateVelocity_k = new CudaKernel("updateVelocity_k", module, ctx);
advectParticles_k = new CudaKernel("advectParticles_k", module, ctx);
}
public void Dispose()
{
_device.Dispose();
_direct3D.Dispose();
}
private bool InitializeD3D()
{
HwndSource hwnd = new HwndSource(0, 0, 0, 0, 0, "null", IntPtr.Zero);
// Create the D3D object.
d3d = new Direct3DEx();
PresentParameters pp = new PresentParameters();
pp.BackBufferWidth = 512;
pp.BackBufferHeight = 512;
pp.BackBufferFormat = Format.Unknown;
pp.BackBufferCount = 0;
pp.Multisample = MultisampleType.None;
pp.MultisampleQuality = 0;
pp.SwapEffect = SwapEffect.Discard;
pp.DeviceWindowHandle = (IntPtr)0;
pp.Windowed = true;
pp.EnableAutoDepthStencil = false;
pp.AutoDepthStencilFormat = Format.Unknown;
pp.PresentationInterval = PresentInterval.Default;
bDeviceFound = false;
CUdevice[] cudaDevices = null;
for (g_iAdapter = 0; g_iAdapter < d3d.AdapterCount; g_iAdapter++)
{
device = new DeviceEx(d3d, d3d.Adapters[g_iAdapter].Adapter, DeviceType.Hardware, hwnd.Handle, CreateFlags.HardwareVertexProcessing | CreateFlags.Multithreaded, pp);
try
{
cudaDevices = CudaContext.GetDirectXDevices(device.ComPointer, CUd3dXDeviceList.All, CudaContext.DirectXVersion.D3D9);
bDeviceFound = cudaDevices.Length > 0;
infoLog.AppendText("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 and CUDA.\n");
break;
}
catch (CudaException)
{
//No Cuda device found for this Direct3D9 device
infoLog.AppendText("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 but not CUDA.\n");
}
}
// we check to make sure we have found a cuda-compatible D3D device to work on
if (!bDeviceFound)
{
infoLog.AppendText("No CUDA-compatible Direct3D9 device available");
if (device != null)
device.Dispose();
return false;
}
ctx = new CudaContext(cudaDevices[0], device.ComPointer, CUCtxFlags.BlockingSync, CudaContext.DirectXVersion.D3D9);
deviceName.Text = "Device name: " + ctx.GetDeviceName();
// Set projection matrix
SlimDX.Matrix matProj = SlimDX.Matrix.OrthoOffCenterLH(0, 1, 1, 0, 0, 1);
device.SetTransform(TransformState.Projection, matProj);
// Turn off D3D lighting, since we are providing our own vertex colors
device.SetRenderState(RenderState.Lighting, false);
//Load kernels
CUmodule module = ctx.LoadModulePTX("kernel.ptx");
addForces_k = new CudaKernel("addForces_k", module, ctx);
advectVelocity_k = new CudaKernel("advectVelocity_k", module, ctx);
diffuseProject_k = new CudaKernel("diffuseProject_k", module, ctx);
updateVelocity_k = new CudaKernel("updateVelocity_k", module, ctx);
advectParticles_k = new CudaKernel("advectParticles_k", module, ctx);
d3dimage.Lock();
Surface surf = device.GetBackBuffer(0, 0);
d3dimage.SetBackBuffer(D3DResourceType.IDirect3DSurface9, surf.ComPointer);
d3dimage.Unlock();
surf.Dispose();
//Setup the "real" frame rate counter.
//The cuda counter only measures cuda runtime, not the overhead to actually
//show the result via DirectX and WPF.
realLastTick = Environment.TickCount;
return true;
}
private void InitializeD3D()
{
// Create the D3D object.
d3d = new Direct3DEx();
PresentParameters pp = new PresentParameters();
pp.BackBufferWidth = 512;
pp.BackBufferHeight = 512;
pp.BackBufferFormat = Format.Unknown;
pp.BackBufferCount = 0;
pp.Multisample = MultisampleType.None;
pp.MultisampleQuality = 0;
pp.SwapEffect = SwapEffect.Discard;
pp.DeviceWindowHandle = panel1.Handle;
pp.Windowed = true;
pp.EnableAutoDepthStencil = false;
pp.AutoDepthStencilFormat = Format.Unknown;
pp.PresentationInterval = PresentInterval.Default;
bDeviceFound = false;
CUdevice[] cudaDevices = null;
for (g_iAdapter = 0; g_iAdapter < d3d.AdapterCount; g_iAdapter++)
{
device = new DeviceEx(d3d, d3d.Adapters[g_iAdapter].Adapter, DeviceType.Hardware, panel1.Handle, CreateFlags.HardwareVertexProcessing | CreateFlags.Multithreaded, pp);
try
{
cudaDevices = CudaContext.GetDirectXDevices(device.ComPointer, CUd3dXDeviceList.All, CudaContext.DirectXVersion.D3D9);
bDeviceFound = cudaDevices.Length > 0;
Console.WriteLine("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 and CUDA.");
break;
}
catch (CudaException)
{
//No Cuda device found for this Direct3D9 device
Console.WriteLine("> Display Device #" + d3d.Adapters[g_iAdapter].Adapter
+ ": \"" + d3d.Adapters[g_iAdapter].Details.Description + "\" supports Direct3D9 but not CUDA.");
}
}
// we check to make sure we have found a cuda-compatible D3D device to work on
if (!bDeviceFound)
{
Console.WriteLine("No CUDA-compatible Direct3D9 device available");
if (device != null)
device.Dispose();
Close();
return;
}
ctx = new CudaContext(cudaDevices[0], device.ComPointer, CUCtxFlags.BlockingSync, CudaContext.DirectXVersion.D3D9);
// Set projection matrix
SlimDX.Matrix matProj = SlimDX.Matrix.OrthoOffCenterLH(0, 1, 1, 0, 0, 1);
device.SetTransform(TransformState.Projection, matProj);
// Turn off D3D lighting, since we are providing our own vertex colors
device.SetRenderState(RenderState.Lighting, false);
//Load kernels
CUmodule module = ctx.LoadModulePTX("kernel.ptx");
addForces_k = new CudaKernel("addForces_k", module, ctx);
advectVelocity_k = new CudaKernel("advectVelocity_k", module, ctx);
diffuseProject_k = new CudaKernel("diffuseProject_k", module, ctx);
updateVelocity_k = new CudaKernel("updateVelocity_k", module, ctx);
advectParticles_k = new CudaKernel("advectParticles_k", module, ctx);
}
private void OpenSharedResourceIfNeeded(DirectXResource res)
{
try
{
bool reinit = false;
_occludedCounter++;
if (_occludedCounter % 1 == 0) // every 200 ms
{
var state = _device?.CheckDeviceState(_windowHandle) ?? DeviceState.Ok;
bool occludedState = state == DeviceState.PresentOccluded; // happens when windows is locked; then we could get black screen in preview d3dImage
reinit = _occludedState && !occludedState; // reinit if change from bad -> good
if (reinit)
{
Core.LogInfo("occluded -> normal");
if (_windowStateManager.IsMinimized())
{
_windowStateManager.IsMinimizedChanged += OnwindowStateManagerIsMinimizedChanged;
}
else
{
_ = ReinitSurfacesWithDelay();
}
}
if (!_occludedState && occludedState)
{
Core.LogInfo("normal -> occluded");
}
_occludedState = occludedState;
}
if (_sharedResource == null ||
_sharedResource.Description.Width != res.Texture2D.Description.Width ||
_sharedResource.Description.Height != res.Texture2D.Description.Height ||
_sharedResourceOwner != res.GetDx() ||
_reinitSurfaces)
{
Core.LogInfo("Initing DX Presenter surface");
Source = null;
_reinitSurfaces = false;
_surfaceD9?.Dispose();
_sharedResource?.Dispose();
_surfaceD9 = null;
_sharedResource = null;
_sharedResourceOwner = null;
IntPtr handle = IntPtr.Zero;
_surfaceD9 = Surface.CreateRenderTarget(_device, res.Texture2D.Description.Width, res.Texture2D.Description.Height, Format.A8R8G8B8, MultisampleType.None, 0, true, ref handle);
if (handle == IntPtr.Zero)
{
Core.LogWarning("DirectX 9 Device failed to create Surface. Reinit Devices");
_device?.Dispose();
_direct3d?.Dispose();
_device = null;
_direct3d = null;
InitDx9();
_surfaceD9 = Surface.CreateRenderTarget(_device, res.Texture2D.Description.Width, res.Texture2D.Description.Height, Format.A8R8G8B8, MultisampleType.None, 0, true, ref handle);
if (handle == IntPtr.Zero)
{
Core.LogWarning("DirectX 9 Device failed to create Surface after recreation.");
}
}
_sharedResource = res.GetDx().Device.OpenSharedResource <Texture2D>(handle);
_sharedResourceOwner = res.GetDx();
_d3dimage = new D3DImage();
_d3dimage.Lock();
_d3dimage.SetBackBuffer(D3DResourceType.IDirect3DSurface9, _surfaceD9.NativePointer);
_d3dimage.Unlock();
Core.LogInfo("Inited DX Presenter surface");
}
}
catch (Exception e)
{
Core.LogError(e, "Failed to open shared resource");
}
}
