private void Worker()
{
#if CUDA
int nN = _nMergingDeviceNumber;
string sS = "CUDA-" + nN + "-" + _nIndex;
try
{
Command cCmd;
CUDA cCUDA;
#region CUDA Init
try
{
cCUDA = new CUDA(true);
cCUDA.CreateContext(nN % 1000); // number of cuda in prefs (still alwais 0)
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
throw new Exception("CreateContext(" + nN % 1000 + ") error. Try to change CUDA's card number in prefs", ex);
}
(new Logger(sS)).WriteDebug("CreateContext(" + nN % 1000 + ") is ok!");
uint nMemoryReservedForMerge = 2 * 1024 * 1024; //PREFERENCES типа <memory reserved="2097152" />
uint nMemoryStarvationThreshold = cCUDA.TotalMemory / 2; //PREFERENCES через проценты... типа <memory starvation="50%" />
uint nMemoryFree;
string sModule = "CUDAFunctions_" + Preferences.nCUDAVersion + "_x" + (IntPtr.Size * 8);
if (Logger.bDebug)
{
(new Logger(sS)).WriteDebug(sModule + " Current CUDA = [name=" + cCUDA.CurrentDevice.Name + "][compute_capability=" + cCUDA.CurrentDevice.ComputeCapability + "]");
}
cCUDA.LoadModule((byte[])Properties.Resource.ResourceManager.GetObject(sModule)); // $(ProjectDir)Resources\CUDAFunctions.cubin
CUfunction cCUDAFuncMerge = cCUDA.GetModuleFunction("CUDAFrameMerge");
int nThreadsPerBlock = 16; //32 //256 //пришлось уменьшить с 512 до 256 сридов на блок, потому что при добавлении "движения" и операций с float, ловил ошибку: Too Many Resources Requested for Launch (This error means that the number of registers available on the multiprocessor is being exceeded. Reduce the number of threads per block to solve the problem)
cCUDA.SetFunctionBlockShape(cCUDAFuncMerge, nThreadsPerBlock, nThreadsPerBlock, 1);
CUDADriver.cuParamSetSize(cCUDAFuncMerge, 8);
Dictionary <long, CUdeviceptr> ahPMIDs_DevicePointers = new Dictionary <long, CUdeviceptr>();
CUdeviceptr cPMs;
CUdeviceptr cInfos;
CUdeviceptr cAlphaMap;
CUdeviceptr cAlphaMap_info3d;
CUdeviceptr cAlphaMap_info2d;
if (true)
{
//IntPtr[] aPointersByAlpha = new IntPtr[254]; //те самые поинтеры-альфы. Ссылаются на массивы поинтеров B, т.е. BackGrounds
//IntPtr[] aPointersByBackground = new IntPtr[256]; // те самые массивы поинтеров B, т.е. BackGrounds
byte[] aAlphaMap = new byte[(byte.MaxValue - 1) * (byte.MaxValue + 1) * (byte.MaxValue + 1)];
int[] aAlphaMap_info3d = new int[254]; // начала 2d слоёв
ushort[] aAlphaMap_info2d = new ushort[256]; // начала строк в одном 2d
int nResult, nIndx = 0, nIndxInfo = 0, nIndx2d = 0;
for (byte nAlpha = 1; 255 > nAlpha; nAlpha++)
{
aAlphaMap_info3d[nIndxInfo++] = nIndx;
for (ushort nBackground = 0; 256 > nBackground; nBackground++)
{
if (nAlpha == 1)
{
aAlphaMap_info2d[nIndx2d++] = (ushort)nIndx;
}
for (ushort nForeground = 0; 256 > nForeground; nForeground++)
{
if (255 < (nResult = (int)((float)(nAlpha * (nForeground - nBackground)) / 255 + nBackground + 0.5)))
{
nResult = 255;
}
aAlphaMap[nIndx++] = (byte)nResult;
}
//aPointersByBackground[nBackground] = (IntPtr)cCUDA.CopyHostToDevice<byte>(aResults).Pointer;
}
//aPointersByAlpha[nAlpha - 1] = (IntPtr)cCUDA.CopyHostToDevice<IntPtr>(aPointersByBackground).Pointer;
}
cAlphaMap_info3d = cCUDA.CopyHostToDevice <int>(aAlphaMap_info3d);
cAlphaMap = cCUDA.CopyHostToDevice <byte>(aAlphaMap);
cAlphaMap_info2d = cCUDA.CopyHostToDevice <ushort>(aAlphaMap_info2d);
}
CUdeviceptr cAlphaMap2;
CUdeviceptr cAlphaMap2_info2d;
{
byte[] aAlphaMap2 = new byte[(byte.MaxValue - 1) * (byte.MaxValue - 1)];
ushort[] aAlphaMap2_info2d = new ushort[254];
int nIndx = 0, nIndx2d = 0;
for (byte nFGColorAlpha = 1; 255 > nFGColorAlpha; nFGColorAlpha++) // можно использовать симметрию умножения, но х с ней пока
{
aAlphaMap2_info2d[nIndx2d++] = (ushort)nIndx;
for (byte nPixelAlpha = 1; 255 > nPixelAlpha; nPixelAlpha++)
{
aAlphaMap2[nIndx++] = (byte)((float)nFGColorAlpha * nPixelAlpha / 255 + 0.5);
}
}
cAlphaMap2 = cCUDA.CopyHostToDevice <byte>(aAlphaMap2);
cAlphaMap2_info2d = cCUDA.CopyHostToDevice <ushort>(aAlphaMap2_info2d);
}
CUdeviceptr cAlphaMap3;
CUdeviceptr cAlphaMap3_info2d;
{
byte[] aAlphaMap3 = new byte[byte.MaxValue * (byte.MaxValue - 1)];
ushort[] aAlphaMap3_info2d = new ushort[255];
int nIndx = 0, nIndx2d = 0;
for (ushort nFGColorAlpha = 1; 256 > nFGColorAlpha; nFGColorAlpha++)
{
aAlphaMap3_info2d[nIndx2d++] = (ushort)nIndx;
for (byte nMask = 1; 255 > nMask; nMask++)
{
aAlphaMap3[nIndx++] = (byte)(nFGColorAlpha * ((255 - nMask) / 255f) + 0.5);
}
}
cAlphaMap3 = cCUDA.CopyHostToDevice <byte>(aAlphaMap3);
cAlphaMap3_info2d = cCUDA.CopyHostToDevice <ushort>(aAlphaMap3_info2d);
}
#endregion CUDA Init
#if DEBUG
Dictionary <long, DateTime> ahDebug = new Dictionary <long, DateTime>();
Dictionary <long, Area> ahDebugAr = new Dictionary <long, Area>();
#endif
DateTime dtNextTime = DateTime.MinValue, dtNow;
bool bSet;
List <IntPtr> aDPs;
List <PixelsMap> aPMs;
while (true)
{
if (1 > aqQueue.CountGet() && (dtNow = DateTime.Now) > dtNextTime)
{
dtNextTime = dtNow.AddMinutes(20);
#if DEBUG
dtNow = dtNow.Subtract(TimeSpan.FromHours(2));
string sMessage = "";
foreach (long nID in ahDebug.OrderBy(o => o.Value).Select(o => o.Key))
{
if (dtNow > ahDebug[nID])
{
sMessage += "<br>[" + nID + " - " + ahDebug[nID].ToString("HH:mm:ss") + "]" + ahDebugAr[nID].ToString();
}
}
#endif
(new Logger(sS)).WriteDebug("CUDA free memory:" + cCUDA.FreeMemory
#if DEBUG
+ "; possibly timeworn allocations:" + (1 > sMessage.Length ? "no" : sMessage)
#endif
);
}
cCmd = aqQueue.Dequeue(); //если нечего отдать - заснёт
switch (cCmd.eID)
{
case Command.ID.Allocate:
#region
try
{
cCmd.cPM._cException = null;
if (1 > cCmd.cPM._nID)
{
if (0 < cCmd.cPM._nBytesQty)
{
nMemoryFree = cCUDA.FreeMemory;
if (nMemoryReservedForMerge < nMemoryFree - cCmd.cPM._nBytesQty)
{
bMemoryStarvation = (nMemoryFree < nMemoryStarvationThreshold);
(new Logger(sS)).WriteDebug3("pixelmap allocateCUDA [current_id=" + _nCurrentID + "]");
cCmd.cPM._nID = System.Threading.Interlocked.Increment(ref _nCurrentID);
ahPMIDs_DevicePointers.Add(cCmd.cPM._nID, cCUDA.Allocate(cCmd.cPM._nBytesQty));
#if DEBUG
ahDebug.Add(cCmd.cPM._nID, DateTime.Now);
ahDebugAr.Add(cCmd.cPM._nID, cCmd.cPM.stArea);
#endif
}
else
{
bMemoryStarvation = true;
throw new Exception("out of memory in CUDA device during Allocate. Only 2 MBytes reserved for the Merge");
}
}
else
{
throw new Exception("bytes quantity in PixelsMap have to be greater than zero for Allocate [_bDisposed = " + cCmd.cPM._bDisposed + "][_bProcessing = " + cCmd.cPM._bProcessing + "][_stPosition.X = " + cCmd.cPM._stPosition.X + "][_stPosition.Y = " + cCmd.cPM._stPosition.Y + "][_bTemp = " + cCmd.cPM._bTemp + "][_dt = " + cCmd.cPM._dtCreate + "][_nBytesQty = " + cCmd.cPM._nBytesQty + "][_nID = " + cCmd.cPM._nID + "][_nShiftTotalX = " + cCmd.cPM._nShiftTotalX + "][_stArea.nHeight = " + cCmd.cPM._stArea.nHeight + "][_stArea.nWidth = " + cCmd.cPM._stArea.nWidth + "][bKeepAlive = " + cCmd.cPM.bKeepAlive + "][eAlpha = " + cCmd.cPM.eAlpha + "][bCUDA = " + cCmd.cPM.stMergingMethod + "][nAlphaConstant = " + cCmd.cPM.nAlphaConstant + "][nID = " + cCmd.cPM.nID + "][nLength = " + cCmd.cPM.nLength + "][stArea.nHeight = " + cCmd.cPM.stArea.nHeight + "][stArea.nWidth = " + cCmd.cPM.stArea.nWidth + "]");
}
}
else
{
throw new Exception("PixelsMap ID have to be zero for Allocate");
}
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError(ex);
(new Logger(sS)).WriteDebug("bytes qty:" + cCmd.cPM._nBytesQty);
cCmd.cPM._cException = ex;
}
cCmd.cMRE.Set();
break;
#endregion
case Command.ID.CopyIn:
#region
try
{
cCmd.cPM._cException = null;
if (1 > cCmd.cPM._nID)
{
if (cCUDA.FreeMemory - cCmd.cPM._nBytesQty > nMemoryReservedForMerge)
{
(new Logger(sS)).WriteDebug3("pixelmap copyinCUDA not allocated [pm_id=" + _nCurrentID + "]");
cCmd.cPM._nID = System.Threading.Interlocked.Increment(ref _nCurrentID);
if (cCmd.ahParameters.ContainsKey(typeof(IntPtr)))
{
ahPMIDs_DevicePointers.Add(cCmd.cPM._nID, cCUDA.CopyHostToDevice((IntPtr)cCmd.ahParameters[typeof(IntPtr)], cCmd.cPM._nBytesQty));
}
else if (cCmd.ahParameters.ContainsKey(typeof(byte[])))
{
ahPMIDs_DevicePointers.Add(cCmd.cPM._nID, cCUDA.CopyHostToDevice((byte[])cCmd.ahParameters[typeof(byte[])]));
}
else
{
throw new Exception("unknown parameter type");
}
#if DEBUG
ahDebug.Add(cCmd.cPM._nID, DateTime.Now);
ahDebugAr.Add(cCmd.cPM._nID, cCmd.cPM.stArea);
#endif
}
else
{
throw new Exception("out of memory in CUDA device during CopyIn. Only 2 MBytes reserved for the Merge.");
}
}
else
{
(new Logger(sS)).WriteDebug4("pixelmap copyinCUDA allocated [pm_id=" + _nCurrentID + "]");
if (cCmd.ahParameters.ContainsKey(typeof(IntPtr)))
{
cCUDA.CopyHostToDevice(ahPMIDs_DevicePointers[cCmd.cPM._nID], (IntPtr)cCmd.ahParameters[typeof(IntPtr)], cCmd.cPM._nBytesQty);
}
else if (cCmd.ahParameters.ContainsKey(typeof(byte[])))
{
cCUDA.CopyHostToDevice(ahPMIDs_DevicePointers[cCmd.cPM._nID], (byte[])cCmd.ahParameters[typeof(byte[])]);
}
else
{
throw new Exception("unknown parameter type");
}
}
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError(ex);
cCmd.cPM._cException = ex;
}
cCmd.cMRE.Set();
#endregion
break;
case Command.ID.CopyOut:
#region
try
{
if (0 < cCmd.cPM._nID)
{
if (!cCmd.ahParameters.ContainsKey(typeof(IntPtr)))
{
if (cCmd.ahParameters.ContainsKey(typeof(byte[])))
{
byte[] aB = (byte[])cCmd.ahParameters[typeof(byte[])];
cCmd.cPM._aBytes = null;
if (cCmd.cPM._nBytesQty != aB.Length)
{
(new Logger(sS)).WriteWarning("wrong array size for copyout [got:" + aB.Length + "][expected:" + cCmd.cPM._nBytesQty + "]");
}
cCUDA.CopyDeviceToHost <byte>(ahPMIDs_DevicePointers[cCmd.cPM._nID], aB);
}
else // не юзается (см. copyout())
{
cCmd.cPM._aBytes = _cBinM.BytesGet((int)cCmd.cPM._nBytesQty, 3);
cCUDA.CopyDeviceToHost <byte>(ahPMIDs_DevicePointers[cCmd.cPM._nID], cCmd.cPM._aBytes.aBytes);
}
}
else
{
cCUDA.CopyDeviceToHost(ahPMIDs_DevicePointers[cCmd.cPM._nID], (IntPtr)cCmd.ahParameters[typeof(IntPtr)], cCmd.cPM._nBytesQty);
}
(new Logger(sS)).WriteDebug5("copy out [id:" + cCmd.cPM._nID + "][ptr:" + ahPMIDs_DevicePointers[cCmd.cPM._nID].Pointer + "]");
}
else
{
throw new Exception("PixelsMap have to be allocated for CopyOut");
}
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError(ex);
cCmd.cPM._cException = ex;
}
cCmd.cMRE.Set();
#endregion
break;
case Command.ID.Merge:
#region
bSet = false;
try
{
aPMs = (List <PixelsMap>)cCmd.ahParameters[typeof(List <PixelsMap>)];
DisCom.MergeInfo cMergeInfo = (DisCom.MergeInfo)cCmd.ahParameters[typeof(DisCom.MergeInfo)];
aDPs = new List <IntPtr>();
if (1 > cCmd.cPM._nID)
{
throw new Exception("background PixelsMap have to be allocated for Merge");
}
aDPs.Add((IntPtr)ahPMIDs_DevicePointers[cCmd.cPM._nID].Pointer);
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
if (!ahPMIDs_DevicePointers.ContainsKey(aPMs[nIndx]._nID))
{
throw new Exception("there is a corrupted ID in layers for merge [id:" + aPMs[nIndx]._nID + "]");
}
if (1 > ahPMIDs_DevicePointers[aPMs[nIndx]._nID].Pointer)
{
throw new Exception("there is an empty pointer in layers for merge [id:" + aPMs[nIndx]._nID + "]");
}
aDPs.Add((IntPtr)ahPMIDs_DevicePointers[aPMs[nIndx]._nID].Pointer);
}
cPMs = cCUDA.CopyHostToDevice <IntPtr>(aDPs.ToArray());
cInfos = cCUDA.CopyHostToDevice(cMergeInfo, cMergeInfo.SizeGet()); // operator intptr in DisCom.MergeInfo
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, 0, (IntPtr)cPMs.Pointer);
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size, (IntPtr)cInfos.Pointer);
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 2, (IntPtr)cAlphaMap.Pointer); //
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 3, (IntPtr)cAlphaMap_info3d.Pointer); //
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 4, (IntPtr)cAlphaMap_info2d.Pointer); //
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 5, (IntPtr)cAlphaMap2.Pointer);
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 6, (IntPtr)cAlphaMap2_info2d.Pointer); //
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 7, (IntPtr)cAlphaMap3.Pointer);
cCUDA.SetParameter <IntPtr>(cCUDAFuncMerge, IntPtr.Size * 8, (IntPtr)cAlphaMap3_info2d.Pointer); //
cCUDA.SetParameterSize(cCUDAFuncMerge, (uint)(IntPtr.Size * 9));
int nIterationsX = (0 == cMergeInfo.nBackgroundWidth % nThreadsPerBlock ? cMergeInfo.nBackgroundWidth / nThreadsPerBlock : cMergeInfo.nBackgroundWidth / nThreadsPerBlock + 1);
int nIterationsY = (0 == cMergeInfo.nBackgroundHight % nThreadsPerBlock ? cMergeInfo.nBackgroundHight / nThreadsPerBlock : cMergeInfo.nBackgroundHight / nThreadsPerBlock + 1);
//int nIterationsX = (0 == cMergeInfo.nBackgroundHight % nThreadsPerBlock ? cMergeInfo.nBackgroundHight / nThreadsPerBlock : cMergeInfo.nBackgroundHight / nThreadsPerBlock + 1);
cCUDA.Launch(cCUDAFuncMerge, nIterationsX, nIterationsY);
cCUDA.Free(cPMs);
cCUDA.Free(cInfos);
cCmd.cMRE.Set();
bSet = true;
cMergeInfo.Dispose();
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
lock (aPMs[nIndx]._cSyncRoot)
aPMs[nIndx]._bProcessing = false;
aPMs[nIndx].Dispose();
}
}
catch (Exception ex)
{
cCmd.cPM._cException = ex;
if (!bSet)
{
cCmd.cMRE.Set();
}
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError(ex);
}
#endregion
break;
case Command.ID.Dispose:
#region
(new Logger(sS)).Write(Logger.Level.debug4, "dispose: in");
try
{
if (ahPMIDs_DevicePointers.ContainsKey(cCmd.cPM._nID))
{
if (0 < cCmd.cPM._nID && 0 < ahPMIDs_DevicePointers[cCmd.cPM._nID].Pointer)
{
cCUDA.Free(ahPMIDs_DevicePointers[cCmd.cPM._nID]);
//cCUDA.SynchronizeContext();
bMemoryStarvation = (cCUDA.FreeMemory < nMemoryStarvationThreshold);
(new Logger(sS)).WriteDebug3("dispose [id:" + cCmd.cPM._nID + "][ptr:" + ahPMIDs_DevicePointers[cCmd.cPM._nID].Pointer + "]");
}
ahPMIDs_DevicePointers.Remove(cCmd.cPM._nID);
#if DEBUG
ahDebug.Remove(cCmd.cPM._nID);
ahDebugAr.Remove(cCmd.cPM._nID);
#endif
cCmd.cPM._nID = 0;
}
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError(ex);
cCmd.cPM._cException = ex;
}
(new Logger(sS)).Write(Logger.Level.debug4, "dispose: out");
#endregion
break;
}
}
}
catch (Exception ex)
{
if (ex is CUDAException)
{
ex = new Exception("CUDA Error:" + ((CUDAException)ex).CUDAError.ToString(), ex);
}
(new Logger(sS)).WriteError("CUDA STOPPED!!!! [id = " + _nIndex + "]", ex);
}
#endif
}
public void Merge(List <PixelsMap> aPMs, bool bHighPriority)
{
if (null == aPMs)
{
throw new Exception("PixelsMap array is null");
}
//ConsistencyCheck();
if (0 < aPMs.Count)
{
_cTiming.TotalRenew();
List <PixelsMap> aPMsActual = new List <PixelsMap>();
DisCom.MergeInfo cMergeInfo = new DisCom.MergeInfo();
List <DisCom.LayerInfo> aLayerInfos = new List <DisCom.LayerInfo>();
DisCom.LayerInfo cLayerInfo;
cMergeInfo.nBackgroundSize = _stArea.nWidth * _stArea.nHeight;
cMergeInfo.nBackgroundWidth_4 = 4 * _stArea.nWidth;
cMergeInfo.nBackgroundWidth = _stArea.nWidth;
cMergeInfo.nBackgroundHight = _stArea.nHeight;
cMergeInfo.nBackgroundAlphaType = (byte)eAlpha;
if (aPMs[0].stArea == _stArea)
{
cMergeInfo.bLayer1CopyToBackground = true;
}
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
lock (aPMs[nIndx]._cSyncRoot)
{
if (aPMs[nIndx]._bDisposed)
{
continue;
}
aPMs[nIndx]._bProcessing = true;
}
cLayerInfo = aPMs[nIndx].Intersect(new Area(0, 0, _stArea.nWidth, _stArea.nHeight)); //не stBase т.к. нужны относительные координаты, а не абсолютные
if (0 > cLayerInfo.nCropBottomLineInBG) //если пересечения FG и BG нет.....
{
aPMs[nIndx].Dispose();
continue;
}
aPMsActual.Add(aPMs[nIndx]);
cLayerInfo.nBytesQty = (int)aPMs[nIndx]._nBytesQty;
aLayerInfos.Add(cLayerInfo);
}
_cTiming.Restart("layer infos");
if (0 < aPMsActual.Count)
{
cMergeInfo.nLayersQty = (ushort)(aLayerInfos.Count + 1);
cMergeInfo.aLayerInfos = aLayerInfos.ToArray();
#if CUDA
if (stMergingMethod.eDeviceType > 0)
{
Command cCmd = new Command(Command.ID.Merge, this);
cCmd.ahParameters.Add(typeof(List <PixelsMap>), aPMsActual);
cCmd.ahParameters.Add(typeof(DisCom.MergeInfo), cMergeInfo);
_ahMergingHash_CommandsQueue[stMergingMethod.nHash].Enqueue(cCmd);
cCmd.cMRE.WaitOne();
_cTiming.Stop("merge", stMergingMethod.ToString(), 40);
return;
}
#endif
List <byte[]> aDPs = new List <byte[]>();
if (1 > _nID)
{
throw new Exception("background PixelsMap have to be allocated for Merge");
}
aDPs.Add(_aBytes.aBytes);
for (int nIndx = 0; nIndx < aPMsActual.Count; nIndx++)
{
aDPs.Add(aPMsActual[nIndx]._aBytes.aBytes);
}
DisCom cDisCom = new DisCom();
//DNF
//(new Logger()).WriteDebug2("CPU_MERGE [high=" + bHighPriority + "][aPMs=" + aPMs.Count + "][" + aPMs[0].stArea.nWidth + "x" + aPMs[0].stArea.nHeight + "--" + aPMs[0].stArea.nLeft + ":" + aPMs[0].stArea.nTop + "][bytes=" + aPMs[0]._nBytesQty + "]");
_cTiming.Restart("before CPUm");
cDisCom.FrameMerge(cMergeInfo, aDPs, bHighPriority);
_cTiming.Restart("CPU merge");
cDisCom.Dispose();
for (int nIndx = 0; nIndx < aPMsActual.Count; nIndx++)
{
lock (aPMsActual[nIndx]._cSyncRoot)
aPMsActual[nIndx]._bProcessing = false;
aPMsActual[nIndx].Dispose();
}
}
_cTiming.Stop("merge", "disposing", 40);
}
}
public void Merge(List<PixelsMap> aPMs)
{
if (null == aPMs)
throw new Exception("PixelsMap array is null");
//ConsistencyCheck();
if (0 < aPMs.Count)
{
List<PixelsMap> aPMsActual = new List<PixelsMap>();
DisCom.MergeInfo cMergeInfo = new DisCom.MergeInfo();
List<DisCom.LayerInfo> aLayerInfos = new List<DisCom.LayerInfo>();
DisCom.LayerInfo cLayerInfo;
cMergeInfo.nBackgroundSize = _stArea.nWidth * _stArea.nHeight;
cMergeInfo.nBackgroundWidth = _stArea.nWidth;
cMergeInfo.nBackgroundHight = _stArea.nHeight;
cMergeInfo.nBackgroundAlphaType = (byte)eAlpha;
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
lock (aPMs[nIndx]._cSyncRoot)
{
if (aPMs[nIndx]._bDisposed)
continue;
aPMs[nIndx]._bProcessing = true;
}
cLayerInfo = aPMs[nIndx].Intersect(new Area(0, 0, _stArea.nWidth, _stArea.nHeight)); //не stBase т.к. нужны относительные координаты, а не абсолютные
if (0 > (cLayerInfo.nBackgroundStop - cLayerInfo.nBackgroundStart)) //если пересечения FG и BG нет.....
{
aPMs[nIndx].Dispose();
continue;
}
aPMsActual.Add(aPMs[nIndx]);
aLayerInfos.Add(cLayerInfo);
}
if (0 < aPMsActual.Count)
{
cMergeInfo.nLayersQty = (ushort)(aLayerInfos.Count + 1);
cMergeInfo.aLayerInfos = aLayerInfos.ToArray();
#if CUDA
if (bCUDA)
{
Command cCmd = new Command(Command.ID.Merge, this);
cCmd.ahParameters.Add(typeof(List<PixelsMap>), aPMsActual);
cCmd.ahParameters.Add(typeof(DisCom.MergeInfo), cMergeInfo);
_aqCommands.Enqueue(cCmd);
cCmd.cMRE.WaitOne();
return;
}
#endif
List<byte[]> aDPs = new List<byte[]>();
if (1 > _nID)
throw new Exception("background PixelsMap have to be allocated for Merge");
aDPs.Add(_aBytes);
for (int nIndx = 0; nIndx < aPMsActual.Count; nIndx++)
aDPs.Add(aPMsActual[nIndx]._aBytes);
DisCom cDisCom = new DisCom();
Logger.Timings cTiming = new helpers.Logger.Timings("BTL:pixelmap:");
cDisCom.FrameMerge(cMergeInfo, aDPs);
cTiming.Stop("merge > 35", 35);
cDisCom.Dispose();
for (int nIndx = 0; nIndx < aPMsActual.Count; nIndx++)
{
lock (aPMsActual[nIndx]._cSyncRoot)
aPMsActual[nIndx]._bProcessing = false;
aPMsActual[nIndx].Dispose();
}
}
}
}
private void MergingWorker()
{
try
{
(new Logger("DisCom-MergingWorker-" + _nN)).WriteNotice("Starting PIPE client [" + "DisComPipe-Merging-" + _nN + "] and waiting for the server...");
NamedPipeClientStream cPipeMerging;
cPipeMerging = new NamedPipeClientStream("DisComPipe-Merging-" + _nN);
cPipeMerging.Connect();
(new Logger("DisCom-MergingWorker-" + _nN)).WriteNotice("MergingWorker PIPE client connected to Server");
BinaryFormatter cBinFormatter = new BinaryFormatter();
Command cCmd;
bool bSet;
cBinFormatter.Serialize(cPipeMerging, _nCopyChunkSize);
while (true)
{
cCmd = null;
bSet = false;
try
{
cCmd = _aqMerging.Dequeue(); //если нечего отдать - заснёт
cCmd.cPM._cException = null;
switch (cCmd.eID)
{
case Command.ID.Merge:
#region
List <PixelsMap> aPMs = (List <PixelsMap>)cCmd.ahParameters[typeof(List <PixelsMap>)];
DisCom.MergeInfo cMergeInfo = (DisCom.MergeInfo)cCmd.ahParameters[typeof(DisCom.MergeInfo)];
List <long> aDPs = new List <long>();
if (1 > cCmd.cPM._nID)
{
throw new Exception("background PixelsMap have to be allocated for Merge");
}
lock (_ahPMIDs_DevicePointers)
{
aDPs.Add(_ahPMIDs_DevicePointers[cCmd.cPM._nID]);
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
if (!_ahPMIDs_DevicePointers.ContainsKey(aPMs[nIndx]._nID))
{
throw new Exception("there is a corrupted ID in layers for merge [pm_id:" + aPMs[nIndx]._nID + "]");
}
if (1 > _ahPMIDs_DevicePointers[aPMs[nIndx]._nID])
{
throw new Exception("there is an empty pointer in layers for merge [pm_id:" + aPMs[nIndx]._nID + "]");
}
aDPs.Add(_ahPMIDs_DevicePointers[aPMs[nIndx]._nID]);
}
}
cPipeMerging.WriteByte((byte)Command.ID.Merge);
cBinFormatter.Serialize(cPipeMerging, aDPs);
cBinFormatter.Serialize(cPipeMerging, cMergeInfo);
cPipeMerging.ReadByte();
cCmd.cMRE.Set();
bSet = true;
cMergeInfo.Dispose();
for (int nIndx = 0; nIndx < aPMs.Count; nIndx++)
{
lock (aPMs[nIndx]._cSyncRoot)
aPMs[nIndx]._bProcessing = false;
aPMs[nIndx].Dispose();
}
#endregion
break;
default:
cCmd = null;
break;
}
}
catch (Exception ex)
{
(new Logger("DisCom-MergingWorker-" + _nN)).WriteError("in switch command [cmd:" + cCmd?.eID + "][bytes_qty:" + cCmd?.cPM._nBytesQty + "] ", ex);
if (null != cCmd)
{
cCmd.cPM._cException = ex;
if (!bSet)
{
cCmd.cMRE.Set();
}
}
}
}
}
catch (Exception ex)
{
(new Logger("DisCom-MergingWorker-" + _nN)).WriteError("in MergingWorker", ex);
}
finally
{
(new Logger("DisCom-MergingWorker-" + _nN)).WriteNotice("merging worker STOPPED!");
}
}
