/* Parallel Sparse BLAS GPU plugin */ /* (C) Copyright 2013 */ /* Salvatore Filippone */ /* Alessandro Fanfarillo */ /* Redistribution and use in source and binary forms, with or without */ /* modification, are permitted provided that the following conditions */ /* are met: */ /* 1. Redistributions of source code must retain the above copyright */ /* notice, this list of conditions and the following disclaimer. */ /* 2. Redistributions in binary form must reproduce the above copyright */ /* notice, this list of conditions, and the following disclaimer in the */ /* documentation and/or other materials provided with the distribution. */ /* 3. The name of the PSBLAS group or the names of its contributors may */ /* not be used to endorse or promote products derived from this */ /* software without specific written permission. */ /* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS */ /* ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED */ /* TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR */ /* PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE PSBLAS GROUP OR ITS CONTRIBUTORS */ /* BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR */ /* CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF */ /* SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS */ /* INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN */ /* CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) */ /* ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE */ /* POSSIBILITY OF SUCH DAMAGE. */ #include "hlldev.h" //new HllDeviceParams bldHllDeviceParams(unsigned int hksize, unsigned int rows, unsigned int nzeros, unsigned int allocsize, unsigned int elementType, unsigned int firstIndex) { HllDeviceParams params; params.elementType = elementType; params.hackSize = hksize; //numero di elementi di val params.allocsize = allocsize; params.rows = rows; params.nzt = nzeros; params.avgNzr = (nzeros+rows-1)/rows; params.firstIndex = firstIndex; return params; } int getHllDeviceParams(HllDevice* mat, int *hksize, int *rows, int *nzeros, int *allocsize, int *hackOffsLength, int *firstIndex, int *avgnzr) { if (mat!=NULL) { *hackOffsLength = mat->hackOffsLength ; *hksize = mat->hackSize ; *nzeros = mat->nzt ; *allocsize = mat->allocsize ; *rows = mat->rows ; *avgnzr = mat->avgNzr ; *firstIndex = mat->baseIndex ; return SPGPU_SUCCESS; } else { return SPGPU_UNSUPPORTED; } } //new int allocHllDevice(void ** remoteMatrix, HllDeviceParams* params) { HllDevice *tmp = (HllDevice *)malloc(sizeof(HllDevice)); int ret=SPGPU_SUCCESS; *remoteMatrix = (void *)tmp; tmp->hackSize = params->hackSize; tmp->allocsize = params->allocsize; tmp->rows = params->rows; tmp->avgNzr = params->avgNzr; tmp->nzt = params->nzt; tmp->baseIndex = params->firstIndex; //fprintf(stderr,"Allocating HLG with %d avgNzr\n",params->avgNzr); tmp->hackOffsLength = (int)(tmp->rows+tmp->hackSize-1)/tmp->hackSize; //printf("hackOffsLength %d\n",tmp->hackOffsLength); if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->rP), tmp->allocsize*sizeof(int)); if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->rS), tmp->rows*sizeof(int)); if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->diag), tmp->rows*sizeof(int)); if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->hackOffs), ((tmp->hackOffsLength+1)*sizeof(int))); if (params->elementType == SPGPU_TYPE_INT) { if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->cM), tmp->allocsize*sizeof(int)); } else if (params->elementType == SPGPU_TYPE_FLOAT) { if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->cM), tmp->allocsize*sizeof(float)); } else if (params->elementType == SPGPU_TYPE_DOUBLE) { if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->cM), tmp->allocsize*sizeof(double)); } else if (params->elementType == SPGPU_TYPE_COMPLEX_FLOAT) { if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->cM), tmp->allocsize*sizeof(cuFloatComplex)); } else if (params->elementType == SPGPU_TYPE_COMPLEX_DOUBLE) { if (ret == SPGPU_SUCCESS) ret=allocRemoteBuffer((void **)&(tmp->cM), tmp->allocsize*sizeof(cuDoubleComplex)); } else return SPGPU_UNSUPPORTED; // Unsupported params return ret; } void freeHllDevice(void* remoteMatrix) { HllDevice *devMat = (HllDevice *) remoteMatrix; //fprintf(stderr,"freeHllDevice\n"); if (devMat != NULL) { freeRemoteBuffer(devMat->rS); freeRemoteBuffer(devMat->diag); freeRemoteBuffer(devMat->rP); freeRemoteBuffer(devMat->cM); free(remoteMatrix); } } //new int FallocHllDevice(void** deviceMat,unsigned int hksize, unsigned int rows, unsigned int nzeros, unsigned int allocsize, unsigned int elementType, unsigned int firstIndex) { int i; HllDeviceParams p; p = bldHllDeviceParams(hksize, rows, nzeros, allocsize, elementType, firstIndex); i = allocHllDevice(deviceMat, &p); if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","FallocEllDevice",i); } return(i); } int spmvHllDeviceFloat(void *deviceMat, float alpha, void* deviceX, float beta, void* deviceY) { HllDevice *devMat = (HllDevice *) deviceMat; struct MultiVectDevice *x = (struct MultiVectDevice *) deviceX; struct MultiVectDevice *y = (struct MultiVectDevice *) deviceY; spgpuHandle_t handle=psb_cudaGetHandle(); #ifdef VERBOSE /*__assert(x->count_ == x->count_, "ERROR: x and y don't share the same number of vectors");*/ /*__assert(x->size_ >= devMat->columns, "ERROR: x vector's size is not >= to matrix size (columns)");*/ /*__assert(y->size_ >= devMat->rows, "ERROR: y vector's size is not >= to matrix size (rows)");*/ #endif /*dspmdmm_gpu ((double *)z->v_, y->count_, y->pitch_, (double *)y->v_, alpha, (double *)devMat->cM, devMat->rP, devMat->rS, devMat->rows, devMat->pitch, (double *)x->v_, beta, devMat->baseIndex);*/ spgpuShellspmv (handle, (float *)y->v_, (float *)y->v_, alpha, (float *)devMat->cM, devMat->rP,devMat->hackSize,devMat->hackOffs, devMat->rS, NULL, devMat->avgNzr, devMat->rows, (float *)x->v_, beta, devMat->baseIndex); return SPGPU_SUCCESS; } //new int spmvHllDeviceDouble(void *deviceMat, double alpha, void* deviceX, double beta, void* deviceY) { HllDevice *devMat = (HllDevice *) deviceMat; struct MultiVectDevice *x = (struct MultiVectDevice *) deviceX; struct MultiVectDevice *y = (struct MultiVectDevice *) deviceY; spgpuHandle_t handle=psb_cudaGetHandle(); #ifdef VERBOSE /*__assert(x->count_ == x->count_, "ERROR: x and y don't share the same number of vectors");*/ /*__assert(x->size_ >= devMat->columns, "ERROR: x vector's size is not >= to matrix size (columns)");*/ /*__assert(y->size_ >= devMat->rows, "ERROR: y vector's size is not >= to matrix size (rows)");*/ #endif /*dspmdmm_gpu ((double *)z->v_, y->count_, y->pitch_, (double *)y->v_, alpha, (double *)devMat->cM, devMat->rP, devMat->rS, devMat->rows, devMat->pitch, (double *)x->v_, beta, devMat->baseIndex);*/ spgpuDhellspmv (handle, (double *)y->v_, (double *)y->v_, alpha, (double*)devMat->cM, devMat->rP,devMat->hackSize,devMat->hackOffs, devMat->rS, NULL, devMat->avgNzr, devMat->rows, (double *)x->v_, beta, devMat->baseIndex); //cudaSync(); return SPGPU_SUCCESS; } int spmvHllDeviceFloatComplex(void *deviceMat, float complex alpha, void* deviceX, float complex beta, void* deviceY) { HllDevice *devMat = (HllDevice *) deviceMat; struct MultiVectDevice *x = (struct MultiVectDevice *) deviceX; struct MultiVectDevice *y = (struct MultiVectDevice *) deviceY; spgpuHandle_t handle=psb_cudaGetHandle(); cuFloatComplex a = make_cuFloatComplex(crealf(alpha),cimagf(alpha)); cuFloatComplex b = make_cuFloatComplex(crealf(beta),cimagf(beta)); #ifdef VERBOSE /*__assert(x->count_ == x->count_, "ERROR: x and y don't share the same number of vectors");*/ /*__assert(x->size_ >= devMat->columns, "ERROR: x vector's size is not >= to matrix size (columns)");*/ /*__assert(y->size_ >= devMat->rows, "ERROR: y vector's size is not >= to matrix size (rows)");*/ #endif /*dspmdmm_gpu ((double *)z->v_, y->count_, y->pitch_, (double *)y->v_, alpha, (double *)devMat->cM, devMat->rP, devMat->rS, devMat->rows, devMat->pitch, (double *)x->v_, beta, devMat->baseIndex);*/ spgpuChellspmv (handle, (cuFloatComplex *)y->v_, (cuFloatComplex *)y->v_, a, (cuFloatComplex *)devMat->cM, devMat->rP,devMat->hackSize,devMat->hackOffs, devMat->rS, NULL, devMat->avgNzr, devMat->rows, (cuFloatComplex *)x->v_, b, devMat->baseIndex); return SPGPU_SUCCESS; } int spmvHllDeviceDoubleComplex(void *deviceMat, double complex alpha, void* deviceX, double complex beta, void* deviceY) { HllDevice *devMat = (HllDevice *) deviceMat; struct MultiVectDevice *x = (struct MultiVectDevice *) deviceX; struct MultiVectDevice *y = (struct MultiVectDevice *) deviceY; spgpuHandle_t handle=psb_cudaGetHandle(); cuDoubleComplex a = make_cuDoubleComplex(creal(alpha),cimag(alpha)); cuDoubleComplex b = make_cuDoubleComplex(creal(beta),cimag(beta)); #ifdef VERBOSE /*__assert(x->count_ == x->count_, "ERROR: x and y don't share the same number of vectors");*/ /*__assert(x->size_ >= devMat->columns, "ERROR: x vector's size is not >= to matrix size (columns)");*/ /*__assert(y->size_ >= devMat->rows, "ERROR: y vector's size is not >= to matrix size (rows)");*/ #endif spgpuZhellspmv (handle, (cuDoubleComplex *)y->v_, (cuDoubleComplex *)y->v_, a, (cuDoubleComplex *)devMat->cM, devMat->rP,devMat->hackSize,devMat->hackOffs, devMat->rS, NULL, devMat->avgNzr,devMat->rows, (cuDoubleComplex *)x->v_, b, devMat->baseIndex); return SPGPU_SUCCESS; } int writeHllDeviceFloat(void* deviceMat, float* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; // Ex updateFromHost function i = writeRemoteBuffer((void*) val, (void *)devMat->cM, devMat->allocsize*sizeof(float)); i = writeRemoteBuffer((void*) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = writeRemoteBuffer((void*) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); //i = writeEllDevice(deviceMat, (void *) val, ja, irn); /*if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeEllDeviceFloat",i); }*/ return SPGPU_SUCCESS; } int writeHllDeviceDouble(void* deviceMat, double* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; // Ex updateFromHost function i = writeRemoteBuffer((void*) val, (void *)devMat->cM, devMat->allocsize*sizeof(double)); i = writeRemoteBuffer((void*) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = writeRemoteBuffer((void*) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn); if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } int writeHllDeviceFloatComplex(void* deviceMat, float complex* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; // Ex updateFromHost function i = writeRemoteBuffer((void*) val, (void *)devMat->cM, devMat->allocsize*sizeof(cuFloatComplex)); i = writeRemoteBuffer((void*) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = writeRemoteBuffer((void*) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn); if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } int writeHllDeviceDoubleComplex(void* deviceMat, double complex* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; // Ex updateFromHost function i = writeRemoteBuffer((void*) val, (void *)devMat->cM, devMat->allocsize*sizeof(cuDoubleComplex)); i = writeRemoteBuffer((void*) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = writeRemoteBuffer((void*) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = writeRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn); if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } int readHllDeviceFloat(void* deviceMat, float* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; i = readRemoteBuffer((void *) val, (void *)devMat->cM, devMat->allocsize*sizeof(float)); i = readRemoteBuffer((void *) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = readRemoteBuffer((void *) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = readRemoteBuffer((void *) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = readRemoteBuffer((void *) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*i = readEllDevice(deviceMat, (void *) val, ja, irn); if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","readEllDeviceFloat",i); }*/ return SPGPU_SUCCESS; } int readHllDeviceDouble(void* deviceMat, double* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; i = readRemoteBuffer((void *) val, (void *)devMat->cM, devMat->allocsize*sizeof(double)); i = readRemoteBuffer((void *) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = readRemoteBuffer((void *) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = readRemoteBuffer((void *) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = readRemoteBuffer((void *) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","readEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } int readHllDeviceFloatComplex(void* deviceMat, float complex* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; i = readRemoteBuffer((void *) val, (void *)devMat->cM, devMat->allocsize*sizeof(cuFloatComplex)); i = readRemoteBuffer((void *) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = readRemoteBuffer((void *) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = readRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = readRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","readEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } int readHllDeviceDoubleComplex(void* deviceMat, double complex* val, int* ja, int *hkoffs, int* irn, int *idiag) { int i; HllDevice *devMat = (HllDevice *) deviceMat; i = readRemoteBuffer((void *) val, (void *)devMat->cM, devMat->allocsize*sizeof(cuDoubleComplex)); i = readRemoteBuffer((void *) ja, (void *)devMat->rP, devMat->allocsize*sizeof(int)); i = readRemoteBuffer((void *) irn, (void *)devMat->rS, devMat->rows*sizeof(int)); i = readRemoteBuffer((void*) idiag, (void *)devMat->diag, devMat->rows*sizeof(int)); i = readRemoteBuffer((void*) hkoffs, (void *)devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); /*if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","readEllDeviceDouble",i); }*/ return SPGPU_SUCCESS; } // New copy routines. int psiCopyCooToHlgFloat(int nr, int nc, int nza, int hacksz, int noffs, int isz, int *irn, int *hoffs, int *idisp, int *ja, float *val, void *deviceMat) { int i,j; spgpuHandle_t handle; HllDevice *devMat = (HllDevice *) deviceMat; float *devVal; int *devIdisp, *devJa; int *tja; //fprintf(stderr,"devMat: %p\n",devMat); allocRemoteBuffer((void **)&(devIdisp), (nr+1)*sizeof(int)); allocRemoteBuffer((void **)&(devJa), (nza)*sizeof(int)); allocRemoteBuffer((void **)&(devVal), (nza)*sizeof(float)); // fprintf(stderr,"Writing: %d %d %d %d %d %d %d\n",nr,devMat->rows,nza,isz, hoffs[noffs], noffs, devMat->hackOffsLength); i = writeRemoteBuffer((void*) val, (void *)devVal, nza*sizeof(float)); if (i==0) i = writeRemoteBuffer((void*) ja, (void *) devJa, nza*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) irn, (void *) devMat->rS, devMat->rows*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) hoffs, (void *) devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) idisp, (void *) devIdisp, (devMat->rows+1)*sizeof(int)); //cudaSync(); handle = psb_cudaGetHandle(); psi_cuda_s_CopyCooToHlg(handle, nr,nc,nza,devMat->baseIndex,hacksz,noffs,isz, (int *) devMat->rS, (int *) devMat->hackOffs, devIdisp,devJa,devVal, (int *) devMat->diag, (int *) devMat->rP, (float *)devMat->cM); freeRemoteBuffer(devIdisp); freeRemoteBuffer(devJa); freeRemoteBuffer(devVal); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn);*/ if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeHllDeviceFloat",i); } return SPGPU_SUCCESS; } int psiCopyCooToHlgDouble(int nr, int nc, int nza, int hacksz, int noffs, int isz, int *irn, int *hoffs, int *idisp, int *ja, double *val, void *deviceMat) { int i,j; spgpuHandle_t handle; HllDevice *devMat = (HllDevice *) deviceMat; double *devVal; int *devIdisp, *devJa; int *tja; //fprintf(stderr,"devMat: %p\n",devMat); allocRemoteBuffer((void **)&(devIdisp), (nr+1)*sizeof(int)); allocRemoteBuffer((void **)&(devJa), (nza)*sizeof(int)); allocRemoteBuffer((void **)&(devVal), (nza)*sizeof(double)); // fprintf(stderr,"Writing: %d %d %d %d %d %d %d\n",nr,devMat->rows,nza,isz, hoffs[noffs], noffs, devMat->hackOffsLength); i = writeRemoteBuffer((void*) val, (void *)devVal, nza*sizeof(double)); //fprintf(stderr,"WriteRemoteBuffer val %d\n",i); if (i==0) i = writeRemoteBuffer((void*) ja, (void *) devJa, nza*sizeof(int)); //fprintf(stderr,"WriteRemoteBuffer ja %d\n",i); if (i==0) i = writeRemoteBuffer((void*) irn, (void *) devMat->rS, devMat->rows*sizeof(int)); //fprintf(stderr,"WriteRemoteBuffer irn %d\n",i); if (i==0) i = writeRemoteBuffer((void*) hoffs, (void *) devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); //fprintf(stderr,"WriteRemoteBuffer hoffs %d\n",i); if (i==0) i = writeRemoteBuffer((void*) idisp, (void *) devIdisp, (devMat->rows+1)*sizeof(int)); //fprintf(stderr,"WriteRemoteBuffer idisp %d\n",i); //cudaSync(); //fprintf(stderr," hacksz: %d \n",hacksz); handle = psb_cudaGetHandle(); psi_cuda_d_CopyCooToHlg(handle, nr,nc,nza,devMat->baseIndex,hacksz,noffs,isz, (int *) devMat->rS, (int *) devMat->hackOffs, devIdisp,devJa,devVal, (int *) devMat->diag, (int *) devMat->rP, (double *)devMat->cM); freeRemoteBuffer(devIdisp); freeRemoteBuffer(devJa); freeRemoteBuffer(devVal); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn);*/ if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeHllDeviceDouble",i); } return SPGPU_SUCCESS; } int psiCopyCooToHlgFloatComplex(int nr, int nc, int nza, int hacksz, int noffs, int isz, int *irn, int *hoffs, int *idisp, int *ja, float complex *val, void *deviceMat) { int i,j; spgpuHandle_t handle; HllDevice *devMat = (HllDevice *) deviceMat; float complex *devVal; int *devIdisp, *devJa; int *tja; //fprintf(stderr,"devMat: %p\n",devMat); allocRemoteBuffer((void **)&(devIdisp), (nr+1)*sizeof(int)); allocRemoteBuffer((void **)&(devJa), (nza)*sizeof(int)); allocRemoteBuffer((void **)&(devVal), (nza)*sizeof(cuFloatComplex)); // fprintf(stderr,"Writing: %d %d %d %d %d %d %d\n",nr,devMat->rows,nza,isz, hoffs[noffs], noffs, devMat->hackOffsLength); i = writeRemoteBuffer((void*) val, (void *)devVal, nza*sizeof(cuFloatComplex)); if (i==0) i = writeRemoteBuffer((void*) ja, (void *) devJa, nza*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) irn, (void *) devMat->rS, devMat->rows*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) hoffs, (void *) devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) idisp, (void *) devIdisp, (devMat->rows+1)*sizeof(int)); //cudaSync(); handle = psb_cudaGetHandle(); psi_cuda_c_CopyCooToHlg(handle, nr,nc,nza,devMat->baseIndex,hacksz,noffs,isz, (int *) devMat->rS, (int *) devMat->hackOffs, devIdisp,devJa,devVal, (int *) devMat->diag,(int *) devMat->rP, (float complex *)devMat->cM); freeRemoteBuffer(devIdisp); freeRemoteBuffer(devJa); freeRemoteBuffer(devVal); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn);*/ if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeHllDeviceFloatComplex",i); } return SPGPU_SUCCESS; } int psiCopyCooToHlgDoubleComplex(int nr, int nc, int nza, int hacksz, int noffs, int isz, int *irn, int *hoffs, int *idisp, int *ja, double complex *val, void *deviceMat) { int i,j; spgpuHandle_t handle; HllDevice *devMat = (HllDevice *) deviceMat; double complex *devVal; int *devIdisp, *devJa; int *tja; //fprintf(stderr,"devMat: %p\n",devMat); allocRemoteBuffer((void **)&(devIdisp), (nr+1)*sizeof(int)); allocRemoteBuffer((void **)&(devJa), (nza)*sizeof(int)); allocRemoteBuffer((void **)&(devVal), (nza)*sizeof(cuDoubleComplex)); // fprintf(stderr,"Writing: %d %d %d %d %d %d %d\n",nr,devMat->rows,nza,isz, hoffs[noffs], noffs, devMat->hackOffsLength); i = writeRemoteBuffer((void*) val, (void *)devVal, nza*sizeof(cuDoubleComplex)); if (i==0) i = writeRemoteBuffer((void*) ja, (void *) devJa, nza*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) irn, (void *) devMat->rS, devMat->rows*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) hoffs, (void *) devMat->hackOffs, (devMat->hackOffsLength+1)*sizeof(int)); if (i==0) i = writeRemoteBuffer((void*) idisp, (void *) devIdisp, (devMat->rows+1)*sizeof(int)); //cudaSync(); handle = psb_cudaGetHandle(); psi_cuda_z_CopyCooToHlg(handle, nr,nc,nza,devMat->baseIndex,hacksz,noffs,isz, (int *) devMat->rS, (int *) devMat->hackOffs, devIdisp,devJa,devVal, (int *) devMat->diag,(int *) devMat->rP, (double complex *)devMat->cM); freeRemoteBuffer(devIdisp); freeRemoteBuffer(devJa); freeRemoteBuffer(devVal); /*i = writeEllDevice(deviceMat, (void *) val, ja, irn);*/ if (i != 0) { fprintf(stderr,"From routine : %s : %d \n","writeHllDeviceDoubleComplex",i); } return SPGPU_SUCCESS; }