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llama.cpp/ggml/src/ggml-cuda/conv2d-implicit.cu

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// #include <cuda_runtime.h>
#include <algorithm>
#include "ggml.h"
#include "common.cuh"
#include "convert.cuh"
#include "conv2d-implicit.cuh"
typedef unsigned int uint;
#define GGML_CUDA_CC_RUBIN 10000
constexpr uint WARPSIZE = 32;
#define CUDA_NCHW_2_NHWC_TILE_DIM 32
#define CUDA_NCHW_2_NHWC_BLOCK_NM 8
#define CUDA_NCHW_2_NHWC_BLOCK_ROWS 8
#define CUDA_NCHW_2_NHWC_BLOCK_C 64
//currently not use; in future for split-k kernels
template <typename src_T, typename dst_T>
static __global__ void reduce_f32(const src_T * __restrict__ x, dst_T * __restrict__ dst, const int ncols, const int nrows) {
const int row = blockIdx.x;
const int col = threadIdx.x;
float sum = 0.0f;
if (row * blockDim.x + col < ncols) {
for (int i = 0; i < nrows; ++i){
sum += ggml_cuda_cast<float>(x[i * ncols + row * blockDim.x + col]);
}
dst[row * blockDim.x + col] = ggml_cuda_cast<dst_T>(sum);
}
}
constexpr uint32_t filter_swizzle_mask(uint32_t n, uint32_t m) {
if (n <= 1) return 1;
n--;
n |= n >> 1;
n |= n >> 2;
n |= n >> 4;
n |= n >> 8;
n |= n >> 16;
int count = 0;
while ((m >>= 1) != 0)
++count;
return n << count;
}
template <typename src_T, typename dst_T>
static __global__ void NCHW2NHWC(const src_T *src, dst_T * dst, const int ne, const int ne00, const int ne01){
const int64_t nmat = ne / (ne00 * ne01);
const int64_t n = ne00 * ne01;
int x = blockIdx.x * CUDA_NCHW_2_NHWC_TILE_DIM + threadIdx.x;
int y = blockIdx.y * CUDA_NCHW_2_NHWC_TILE_DIM + threadIdx.y;
int tx = blockIdx.y * CUDA_NCHW_2_NHWC_TILE_DIM + threadIdx.x; // transpose block offset
int ty = blockIdx.x * CUDA_NCHW_2_NHWC_TILE_DIM + threadIdx.y;
__shared__ src_T tile[CUDA_NCHW_2_NHWC_TILE_DIM][CUDA_NCHW_2_NHWC_TILE_DIM];
for(int i = 0; i < CUDA_NCHW_2_NHWC_BLOCK_NM; ++i){
const unsigned int imat = blockIdx.z * CUDA_NCHW_2_NHWC_BLOCK_NM + i;
if(imat >= nmat)
break;
for (int j = 0; j < CUDA_NCHW_2_NHWC_TILE_DIM; j += CUDA_NCHW_2_NHWC_BLOCK_ROWS){
if(x < ne01 && y + j < ne00){
const int row = threadIdx.y+j;
const int col = threadIdx.x ^ row;
tile[row][col] = src[imat*n + (y+j)*ne01 + x];
}
}
__syncthreads();
for (int j = 0; j < CUDA_NCHW_2_NHWC_TILE_DIM; j += CUDA_NCHW_2_NHWC_BLOCK_ROWS){
if(ty + j < ne01 && tx < ne00){
const int col = (threadIdx.y+j) ^ threadIdx.x;
dst[imat*n + (ty+j)*ne00 + tx] = ggml_cuda_cast<dst_T>(tile[threadIdx.x][col]);
}
}
}
}
//*** broken, has bugs ***
// template <typename src_T, typename dst_T, const unsigned int mask, const int rs, const unsigned int blk_c>
// static __global__ void NCHW2NHWC(const src_T *src, dst_T * dst, const int ne, const int ne00, const int ne01){
// const int64_t nmat = ne / (ne00 * ne01);
// const int64_t n = ne00 * ne01;
// const unsigned int tx = threadIdx.x;
// const unsigned int bx = blockIdx.x;
// const unsigned int by = blockIdx.y;
// __shared__ src_T tile[rs*blk_c];
// #pragma unroll
// for(int i = 0; i < CUDA_NCHW_2_NHWC_BLOCK_NM; ++i){
// const unsigned int imat = by * CUDA_NCHW_2_NHWC_BLOCK_NM + i;
// if(imat >= nmat)
// break;
// #pragma unroll
// for (unsigned int j = 0; j < rs; j++){
// const unsigned int row = (j * blk_c + tx) % rs;
// const unsigned int col = (j * blk_c + tx) / rs;
// const unsigned int src_index = imat*n + bx * blk_c * rs + j * blk_c + tx;
// unsigned int idx = row * blk_c + col;
// idx = idx ^ ((idx & mask) >> 4);
// if (src_index < ne) {
// tile[idx] = src[src_index];
// }
// }
// __syncthreads();
// #pragma unroll
// for (unsigned int j = 0; j < rs; j++){
// const unsigned int dst_index = imat*n + j*ne00 + bx*blk_c + tx;
// if(dst_index < ne){
// unsigned int idx = j*blk_c + tx;
// idx = idx ^ ((idx & mask) >> 4);
// dst[dst_index] = ggml_cuda_cast<dst_T>(tile[idx]);
// }
// }
// }
// }
template<typename T, const int BM, const int BN, const int BK, const int WM, const int WN,
const int WNITER, const int TM, const int TN, const int NUM_THREADS,
// layout: 0, NHWC; 1, NCHW
const int layout, const bool vec_load, const int ksplit, const int PAD=4>
static __global__ void conv2d_implicit_kernel(const float * __restrict__ input,
const T * __restrict__ kernel,
float * __restrict__ output,
const param_t param) {
__shared__ char smem[sizeof(float) * (TM*TN*NUM_THREADS) <= sizeof(float) * 2 * (BM+PAD) * BK + sizeof(T)*2*BK * (BN+PAD) ?
sizeof(float)*2*(BM+PAD)*BK + sizeof(T)*2*BK*(BN+PAD) : sizeof(float) * (TM*TN*NUM_THREADS)];
T *smemweight = reinterpret_cast<T *>(smem);
float *smeminput = reinterpret_cast<float *>(smem + 2 * BK * (BN+PAD) * sizeof(T));
const uint tx = threadIdx.x;
const uint bx = blockIdx.x;
const uint by = blockIdx.y;
const uint PQ = param.Oh * param.Ow;
const uint CHW = param.c * param.h * param.w;
// Warp tile
const uint lane_id = tx % WARPSIZE;
const uint warp_id = tx / WARPSIZE;
const int mma_tid_x = warp_id / (BN / WN);
const int mma_tid_y = warp_id % (BN / WN);
// size of the warp subtile
constexpr uint WMITER = (WM * WN) / (WARPSIZE * TM * TN * WNITER);
constexpr uint WSUBM = WM / WMITER; // 64/2=32
constexpr uint WSUBN = WN / WNITER; // 32/2=16
// Placement of the thread in the warp subtile
const uint threadColInWarp = lane_id % (WSUBN / TN); // i%(16/4)
const uint threadRowInWarp = lane_id / (WSUBN / TN); // i/4
int z = blockIdx.z;
int inChannelOffset = layout == 0 ? param.c * param.w : param.h * param.w;
int weightKOffset = param.c * param.r * param.s;
const uint ks = (ksplit > 0) ? (weightKOffset + ksplit - 1) / ksplit : weightKOffset;
const uint start_k = (ksplit > 0)? z * ks: 0;
const uint end_k = min(start_k + ks, weightKOffset);
int write_flag = 1;
T weight_frag[2][WNITER * TN];
float input_frag[2][WMITER * TM] = {0.f};
float output_frag[WMITER * TM * WNITER * TN] = {0.f};
// calculating the indices that this thread will load into SMEM
// we'll load 128bit / 32bit = 4 elements per thread at each step
const uint innerRowA = tx / (BK / 4);
const uint innerColA = tx % (BK / 4);
constexpr uint rowStrideA = (NUM_THREADS * 4) / BK;
// ldg
loadFilter<T, BN, rowStrideA, layout, vec_load, ksplit, PAD>
(kernel, smemweight, by, innerRowA, innerColA, weightKOffset,
start_k, end_k, param);
loadInput<BM, rowStrideA, layout, vec_load, ksplit, PAD>
(input, smeminput, bx, innerRowA, innerColA,
start_k, end_k, PQ, CHW, inChannelOffset, param);
__syncthreads();
// lds
const uint input_lds_addr = mma_tid_x * WM;
#pragma unroll
for (uint wSubRowIdx = 0; wSubRowIdx < WMITER; ++wSubRowIdx)
#pragma unroll
for (uint i = 0; i < TM; ++i)
input_frag[0][wSubRowIdx * TM + i] = smeminput[input_lds_addr + wSubRowIdx * WSUBM +
threadRowInWarp * TM + i];
const uint weight_lds_addr = mma_tid_y * WN;
#pragma unroll
for (uint wSubColIdx = 0; wSubColIdx < WNITER; ++wSubColIdx)
#pragma unroll
for (uint i = 0; i < TN; ++i)
weight_frag[0][wSubColIdx * TN + i] = smemweight[weight_lds_addr + wSubColIdx * WSUBN +
threadColInWarp * TN + i];
for (int crs = start_k; crs < end_k; crs += BK) {
int load_flag = write_flag ^ 1;
#pragma unroll
for (int subcrs = 0; subcrs < BK - 1; ++subcrs)
{
#pragma unroll
for (uint wSubColIdx = 0; wSubColIdx < WNITER; ++wSubColIdx)
#pragma unroll
for (uint i = 0; i < TN; ++i)
weight_frag[(subcrs + 1) % 2][wSubColIdx * TN + i] = smemweight[load_flag * (BN+PAD) * BK +
(subcrs + 1) * (BN+PAD) + weight_lds_addr + wSubColIdx * WSUBN + threadColInWarp * TN + i];
#pragma unroll
for (uint wSubRowIdx = 0; wSubRowIdx < WMITER; ++wSubRowIdx)
#pragma unroll
for (uint i = 0; i < TM; ++i)
input_frag[(subcrs + 1) % 2][wSubRowIdx * TM + i] = smeminput[load_flag * (BM+PAD) * BK +
(subcrs + 1) * (BM+PAD) + input_lds_addr + wSubRowIdx * WSUBM + threadRowInWarp * TM + i];
// execute warptile matmul
#pragma unroll
for (uint wSubRowIdx = 0; wSubRowIdx < WMITER; ++wSubRowIdx) {
#pragma unroll
for (uint wSubColIdx = 0; wSubColIdx < WNITER; ++wSubColIdx) {
// calculate per-thread results
#pragma unroll
for (uint resIdxM = 0; resIdxM < TM; ++resIdxM) {
#pragma unroll
for (uint resIdxN = 0; resIdxN < TN; ++resIdxN) {
output_frag[(wSubRowIdx * TM + resIdxM) * (WNITER * TN) +
(wSubColIdx * TN) + resIdxN] +=
input_frag[subcrs % 2][wSubRowIdx * TM + resIdxM] *
ggml_cuda_cast<float>(weight_frag[subcrs % 2][wSubColIdx * TN + resIdxN]);
}
}
}
}
}
// ldg
loadFilter<T, BN, rowStrideA, layout, vec_load, ksplit, PAD>
(kernel, &smemweight[write_flag * (BN+PAD) * BK], by, innerRowA, innerColA, weightKOffset,
crs+BK, end_k, param);
loadInput<BM, rowStrideA, layout, vec_load, ksplit, PAD>
(input, &smeminput[write_flag * (BM+PAD) * BK], bx, innerRowA, innerColA,
crs + BK, end_k, PQ, CHW, inChannelOffset, param);
__syncthreads();
write_flag ^= 1;
#pragma unroll
for (uint wSubRowIdx = 0; wSubRowIdx < WMITER; ++wSubRowIdx)
#pragma unroll
for (uint i = 0; i < TM; ++i)
input_frag[0][wSubRowIdx * TM + i] = smeminput[(load_flag ^ 1) * (BM+PAD) * BK +
input_lds_addr + wSubRowIdx * WSUBM + threadRowInWarp * TM + i];
#pragma unroll
for (uint wSubColIdx = 0; wSubColIdx < WNITER; ++wSubColIdx)
#pragma unroll
for (uint i = 0; i < TN; ++i)
weight_frag[0][wSubColIdx * TN + i] = smemweight[(load_flag ^ 1) * (BN+PAD) * BK +
weight_lds_addr + wSubColIdx * WSUBN + threadColInWarp * TN + i];
#pragma unroll
for (uint wSubRowIdx = 0; wSubRowIdx < WMITER; ++wSubRowIdx) {
#pragma unroll
for (uint wSubColIdx = 0; wSubColIdx < WNITER; ++wSubColIdx) {
// calculate per-thread results
#pragma unroll
for (uint resIdxM = 0; resIdxM < TM; ++resIdxM) {
#pragma unroll
for (uint resIdxN = 0; resIdxN < TN; ++resIdxN) {
output_frag[(wSubRowIdx * TM + resIdxM) * (WNITER * TN) +
(wSubColIdx * TN) + resIdxN] +=
input_frag[1][wSubRowIdx * TM + resIdxM] *
ggml_cuda_cast<float>(weight_frag[1][wSubColIdx * TN + resIdxN]);
}
}
}
}
}
// reuse smem
float *smemoutput = reinterpret_cast<float *>(smem);
const uint output_lds_addr = warp_id * WSUBM * WSUBN + lane_id;
const uint output_sts_addr = mma_tid_x * BN / WN * TM * TN * WARPSIZE + mma_tid_y * TM * TN * WARPSIZE +
threadColInWarp * TN * WSUBM + threadRowInWarp * TM;
const uint m_idx = by * BN + mma_tid_y * WN;
const uint n_idx = bx * BM + mma_tid_x * WM;
#pragma unroll
for (int i = 0; i < WMITER; ++i)
{
#pragma unroll
for (int j = 0; j < WNITER; ++j)
{
__syncthreads();
#pragma unroll
for (int subi = 0; subi < TM; ++subi)
{
#pragma unroll
for (int subj = 0; subj < TN; ++subj)
{
// output sts
smemoutput[output_sts_addr + subj * WSUBM + subi] =
output_frag[(i * TM + subi) * (WNITER * TN) + j * TN + subj];
}
}
__syncthreads();
#pragma unroll
for (int subk = 0; subk < TM * TN; ++subk){
const uint row = m_idx + j * WSUBN + (lane_id + subk * WARPSIZE) / WSUBM;
const uint gemm_i = n_idx + i * WSUBM + (lane_id + subk * WARPSIZE) % WSUBM;
const int n = (ksplit > 0) ? gemm_i / PQ : z;
const int col = (ksplit > 0) ? gemm_i % PQ : gemm_i;
if (n < param.n && row < param.k && col < param.Oh * param.Ow){
const uint outOffset = ksplit > 0 ?
z * param.n * param.k * param.Oh * param.Ow + n * param.k * param.Oh * param.Ow +
row * param.Oh * param.Ow + col :
z * param.k * param.Oh * param.Ow + row * param.Oh * param.Ow + col;
output[outOffset] = smemoutput[output_lds_addr + subk * WARPSIZE];
}
}
}
}
}
template <unsigned int mma_tiles_per_warp_m, unsigned int mma_tiles_per_warp_k, unsigned int smem_stride>
__device__ __forceinline__ void ldmatrix_a(
const half* src,
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
half (&reg)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][8]
#else
half (&reg)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][4]
#endif
){
#if __CUDA_ARCH__ >= GGML_CUDA_CC_TURING
static_assert(mma_tiles_per_warp_m == 8, "mma_tiles_per_warp_m must be 8");
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
static_assert(mma_tiles_per_warp_k == 2, "mma_tiles_per_warp_k must be 2");
#else
static_assert(mma_tiles_per_warp_k == 4, "mma_tiles_per_warp_k must be 4");
#endif
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
uint32_t (&reg_) [mma_tiles_per_warp_m][mma_tiles_per_warp_k][4] = reinterpret_cast<uint32_t(&)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][4]>(reg);
#else
uint32_t (&reg_) [mma_tiles_per_warp_m][mma_tiles_per_warp_k][2] = reinterpret_cast<uint32_t(&)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][2]>(reg);
#endif
unsigned int logical_offset = (threadIdx.x % 32) * smem_stride;
unsigned int swizzled_offset = logical_offset ^ ((logical_offset & 0b10000000) >> 4);
swizzled_offset = swizzled_offset ^ ((swizzled_offset & 0b1100000) >> 2);
uint32_t src_addr = cvta_to_shared_u32(src + swizzled_offset);
constexpr unsigned int smem_stride_ = smem_stride * sizeof(half); // convert stride to bytes
// 0
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][0][0]), "=r"(reg_[0][0][1]), "=r"(reg_[1][0][0]), "=r"(reg_[1][0][1])
: "r"(src_addr)
);
// 0
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][0][0]), "=r"(reg_[2][0][1]), "=r"(reg_[3][0][0]), "=r"(reg_[3][0][1])
: "r"(src_addr + 32 * smem_stride_)
);
// 0
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][0][0]), "=r"(reg_[4][0][1]), "=r"(reg_[5][0][0]), "=r"(reg_[5][0][1])
: "r"(src_addr + 64 * smem_stride_)
);
// 0
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][0][0]), "=r"(reg_[6][0][1]), "=r"(reg_[7][0][0]), "=r"(reg_[7][0][1])
: "r"(src_addr + 96 * smem_stride_)
);
src_addr ^= 0b10000;
// 1
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][0][2]), "=r"(reg_[0][0][3]), "=r"(reg_[1][0][2]), "=r"(reg_[1][0][3])
: "r"(src_addr)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][0][2]), "=r"(reg_[2][0][3]), "=r"(reg_[3][0][2]), "=r"(reg_[3][0][3])
: "r"(src_addr + 32 * smem_stride_)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][0][2]), "=r"(reg_[4][0][3]), "=r"(reg_[5][0][2]), "=r"(reg_[5][0][3])
: "r"(src_addr + 64 * smem_stride_)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][0][2]), "=r"(reg_[6][0][3]), "=r"(reg_[7][0][2]), "=r"(reg_[7][0][3])
: "r"(src_addr + 96 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][1][0]), "=r"(reg_[0][1][1]), "=r"(reg_[1][1][0]), "=r"(reg_[1][1][1])
: "r"(src_addr)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][1][0]), "=r"(reg_[2][1][1]), "=r"(reg_[3][1][0]), "=r"(reg_[3][1][1])
: "r"(src_addr + 32 * smem_stride_)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][1][0]), "=r"(reg_[4][1][1]), "=r"(reg_[5][1][0]), "=r"(reg_[5][1][1])
: "r"(src_addr + 64 * smem_stride_)
);
// 1
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][1][0]), "=r"(reg_[6][1][1]), "=r"(reg_[7][1][0]), "=r"(reg_[7][1][1])
: "r"(src_addr + 96 * smem_stride_)
);
#endif
src_addr ^= 0b110000;
// 2
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][1][0]), "=r"(reg_[0][1][1]), "=r"(reg_[1][1][0]), "=r"(reg_[1][1][1])
: "r"(src_addr)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][1][0]), "=r"(reg_[2][1][1]), "=r"(reg_[3][1][0]), "=r"(reg_[3][1][1])
: "r"(src_addr + 32 * smem_stride_)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][1][0]), "=r"(reg_[4][1][1]), "=r"(reg_[5][1][0]), "=r"(reg_[5][1][1])
: "r"(src_addr + 64 * smem_stride_)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][1][0]), "=r"(reg_[6][1][1]), "=r"(reg_[7][1][0]), "=r"(reg_[7][1][1])
: "r"(src_addr + 96 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][2][0]), "=r"(reg_[0][2][1]), "=r"(reg_[1][2][0]), "=r"(reg_[1][2][1])
: "r"(src_addr)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][2][0]), "=r"(reg_[2][2][1]), "=r"(reg_[3][2][0]), "=r"(reg_[3][2][1])
: "r"(src_addr + 32 * smem_stride_)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][2][0]), "=r"(reg_[4][2][1]), "=r"(reg_[5][2][0]), "=r"(reg_[5][2][1])
: "r"(src_addr + 64 * smem_stride_)
);
// 2
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][2][0]), "=r"(reg_[6][2][1]), "=r"(reg_[7][2][0]), "=r"(reg_[7][2][1])
: "r"(src_addr + 96 * smem_stride_)
);
#endif
src_addr ^= 0b10000;
// 3
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][1][2]), "=r"(reg_[0][1][3]), "=r"(reg_[1][1][2]), "=r"(reg_[1][1][3])
: "r"(src_addr)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][1][2]), "=r"(reg_[2][1][3]), "=r"(reg_[3][1][2]), "=r"(reg_[3][1][3])
: "r"(src_addr + 32 * smem_stride_)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][1][2]), "=r"(reg_[4][1][3]), "=r"(reg_[5][1][2]), "=r"(reg_[5][1][3])
: "r"(src_addr + 64 * smem_stride_)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][1][2]), "=r"(reg_[6][1][3]), "=r"(reg_[7][1][2]), "=r"(reg_[7][1][3])
: "r"(src_addr + 96 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][3][0]), "=r"(reg_[0][3][1]), "=r"(reg_[1][3][0]), "=r"(reg_[1][3][1])
: "r"(src_addr)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][3][0]), "=r"(reg_[2][3][1]), "=r"(reg_[3][3][0]), "=r"(reg_[3][3][1])
: "r"(src_addr + 32 * smem_stride_)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[4][3][0]), "=r"(reg_[4][3][1]), "=r"(reg_[5][3][0]), "=r"(reg_[5][3][1])
: "r"(src_addr + 64 * smem_stride_)
);
// 3
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[6][3][0]), "=r"(reg_[6][3][1]), "=r"(reg_[7][3][0]), "=r"(reg_[7][3][1])
: "r"(src_addr + 96 * smem_stride_)
);
#endif
#else
GGML_UNUSED(src);
GGML_UNUSED(reg);
NO_DEVICE_CODE;
#endif
}
template <unsigned int mma_tiles_per_warp_k, unsigned int mma_tiles_per_warp_n, unsigned int smem_stride>
__device__ __forceinline__ void ldmatrix_b(
const half* src,
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
half (&reg)[mma_tiles_per_warp_k][mma_tiles_per_warp_n][4]
#else
half (&reg)[mma_tiles_per_warp_k][mma_tiles_per_warp_n][2]
#endif
){
#if __CUDA_ARCH__ >= GGML_CUDA_CC_TURING
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
static_assert(mma_tiles_per_warp_k == 2, "mma_tiles_per_warp_k must be 2");
#else
static_assert(mma_tiles_per_warp_k == 4, "mma_tiles_per_warp_k must be 4");
#endif
static_assert(mma_tiles_per_warp_n == 8, "mma_tiles_per_warp_n must be 8");
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
uint32_t (&reg_) [2][8][2] = reinterpret_cast<uint32_t(&)[2][8][2]>(reg);
#else
uint32_t (&reg_) [4][8] = reinterpret_cast<uint32_t(&)[4][8]>(reg);
#endif
unsigned int logical_offset = (threadIdx.x % 32) * smem_stride;
unsigned int swizzled_offset = logical_offset ^ ((logical_offset & 0b10000000) >> 4);
swizzled_offset = swizzled_offset ^ ((swizzled_offset & 0b1100000) >> 2);
uint32_t src_addr = cvta_to_shared_u32(src + swizzled_offset);
constexpr unsigned int smem_stride_ = smem_stride * sizeof(half); // convert stride to bytes
// 0
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][0][0]), "=r"(reg_[0][1][0]), "=r"(reg_[0][2][0]), "=r"(reg_[0][3][0])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][4][0]), "=r"(reg_[0][5][0]), "=r"(reg_[0][6][0]), "=r"(reg_[0][7][0])
: "r"(src_addr + 32 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][0]), "=r"(reg_[0][1]), "=r"(reg_[0][2]), "=r"(reg_[0][3])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][4]), "=r"(reg_[0][5]), "=r"(reg_[0][6]), "=r"(reg_[0][7])
: "r"(src_addr + 32 * smem_stride_)
);
#endif
src_addr ^= 0b10000;
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][0][1]), "=r"(reg_[0][1][1]), "=r"(reg_[0][2][1]), "=r"(reg_[0][3][1])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[0][4][1]), "=r"(reg_[0][5][1]), "=r"(reg_[0][6][1]), "=r"(reg_[0][7][1])
: "r"(src_addr + 32 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][0]), "=r"(reg_[1][1]), "=r"(reg_[1][2]), "=r"(reg_[1][3])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][4]), "=r"(reg_[1][5]), "=r"(reg_[1][6]), "=r"(reg_[1][7])
: "r"(src_addr + 32 * smem_stride_)
);
#endif
src_addr ^= 0b110000;
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][0][0]), "=r"(reg_[1][1][0]), "=r"(reg_[1][2][0]), "=r"(reg_[1][3][0])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][4][0]), "=r"(reg_[1][5][0]), "=r"(reg_[1][6][0]), "=r"(reg_[1][7][0])
: "r"(src_addr + 32 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][0]), "=r"(reg_[2][1]), "=r"(reg_[2][2]), "=r"(reg_[2][3])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[2][4]), "=r"(reg_[2][5]), "=r"(reg_[2][6]), "=r"(reg_[2][7])
: "r"(src_addr + 32 * smem_stride_)
);
#endif
src_addr ^= 0b10000;
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][0][1]), "=r"(reg_[1][1][1]), "=r"(reg_[1][2][1]), "=r"(reg_[1][3][1])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[1][4][1]), "=r"(reg_[1][5][1]), "=r"(reg_[1][6][1]), "=r"(reg_[1][7][1])
: "r"(src_addr + 32 * smem_stride_)
);
#else
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[3][0]), "=r"(reg_[3][1]), "=r"(reg_[3][2]), "=r"(reg_[3][3])
: "r"(src_addr)
);
asm volatile (
"ldmatrix.sync.aligned.m8n8.x4.shared.b16 "
"{%0, %1, %2, %3}, [%4];"
: "=r"(reg_[3][4]), "=r"(reg_[3][5]), "=r"(reg_[3][6]), "=r"(reg_[3][7])
: "r"(src_addr + 32 * smem_stride_)
);
#endif
#else
GGML_UNUSED(src);
GGML_UNUSED(reg);
NO_DEVICE_CODE;
#endif
}
template<typename T, const int BM, const int BN, const int BK, const int WM, const int WN,
const int WK, const int ksplit, const int NUM_THREADS>
static __global__ void conv2d_implicit_kernel(const half * __restrict__ input,
const half * __restrict__ kernel,
T * __restrict__ output,
const param_t param) {
#if __CUDA_ARCH__ >= GGML_CUDA_CC_TURING
constexpr unsigned int MMA_M = 16;
constexpr unsigned int MMA_N = 8;
// const unsigned int K = param.c;
// const uint inChannelOffset = param.c * param.w;
// const uint weightKOffset = param.c * param.r * param.s;
// const unsigned int PQ = param.Ow * param.Oh;
// const unsigned int KPQ = param.k * PQ;
// const unsigned int NKPQ = param.n * KPQ;
// loop bounds, constexpr where possible allows for loop unrolling
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
constexpr unsigned int mma_tiles_per_warp_k = 2;
#else
constexpr unsigned int mma_tiles_per_warp_k = 4;
#endif
constexpr unsigned int mma_tiles_per_warp_m = WM / MMA_M;
constexpr unsigned int mma_tiles_per_warp_n = WN / MMA_N;
const unsigned int z = blockIdx.z;
const unsigned int ks = (ksplit > 0) ? (param.c + ksplit - 1) / ksplit : param.c;
const unsigned int start_k = (ksplit > 0) ? z * ks : 0;
const unsigned int end_k = min(start_k + ks, param.c);
const unsigned int num_block_tiles_k = (ks + (BK-1)) / BK;
const unsigned int num_block_tiles_krs = num_block_tiles_k * param.r * param.s;
constexpr unsigned int TILE_COLS_VECTORIZED = BK / 8;
constexpr unsigned int ROW_STEP = NUM_THREADS / TILE_COLS_VECTORIZED;
constexpr unsigned int A_K_STRID = BM / ROW_STEP;
// constexpr unsigned int B_K_STRID = BN / ROW_STEP;
unsigned int masks_a[A_K_STRID][2];
int64_t element_offset_a[A_K_STRID];
// calculate block/warp indices
const unsigned int block_m = blockIdx.y;
const unsigned int block_n = blockIdx.x;
const unsigned int warp_m = threadIdx.y;
const unsigned int warp_n = threadIdx.x / 32;
const unsigned int thread_idx = threadIdx.y * blockDim.x + threadIdx.x;
unsigned int thread_row = thread_idx / TILE_COLS_VECTORIZED;
const unsigned int thread_col = thread_idx % TILE_COLS_VECTORIZED;
// double buffering
extern __shared__ half shmem[];
half* A_block_smem = shmem;
half* B_block_smem = &shmem[BM * BK];
constexpr int BUFFER_SIZE = BM * BK + BK * BN;
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
half* SA1 = A_block_smem;
half* SB1 = B_block_smem;
half* SA2 = &shmem[BUFFER_SIZE];
half* SB2 = SA2 + BM * BK;
#else
float4 A_gmem_cache_reg[4];
float4 B_gmem_cache_reg[4];
#endif
// declare register storage
// ptx instructions expect uint32_t registers, where each uint32_t is 2 halfs packed together
uint32_t acc_register[mma_tiles_per_warp_m][mma_tiles_per_warp_n][2];
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
uint32_t A_register[mma_tiles_per_warp_m][mma_tiles_per_warp_k][4];
uint32_t B_register[mma_tiles_per_warp_k][mma_tiles_per_warp_n][2];
#else
uint32_t A_register[mma_tiles_per_warp_m][mma_tiles_per_warp_k][2];
uint32_t B_register[mma_tiles_per_warp_k][mma_tiles_per_warp_n];
#endif
// convenience cast to half for register storage
half (&acc_register_) [mma_tiles_per_warp_m][mma_tiles_per_warp_n][4] = reinterpret_cast<half(&)[mma_tiles_per_warp_m][mma_tiles_per_warp_n][4]>(acc_register);
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
half (&A_register_) [mma_tiles_per_warp_m][mma_tiles_per_warp_k][8] = reinterpret_cast<half(&)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][8]>(A_register);
half (&B_register_) [mma_tiles_per_warp_k][mma_tiles_per_warp_n][4] = reinterpret_cast<half(&)[mma_tiles_per_warp_k][mma_tiles_per_warp_n][4]>(B_register);
#else
half (&A_register_) [mma_tiles_per_warp_m][mma_tiles_per_warp_k][4] = reinterpret_cast<half(&)[mma_tiles_per_warp_m][mma_tiles_per_warp_k][4]>(A_register);
half (&B_register_) [mma_tiles_per_warp_k][mma_tiles_per_warp_n][2] = reinterpret_cast<half(&)[mma_tiles_per_warp_k][mma_tiles_per_warp_n][2]>(B_register);
#endif
// accumulators start at 0
for (unsigned int mma_m = 0; mma_m < mma_tiles_per_warp_m; mma_m++){
for (unsigned int mma_n = 0; mma_n < mma_tiles_per_warp_n; mma_n++){
acc_register_[mma_m][mma_n][0] = 0;
acc_register_[mma_m][mma_n][1] = 0;
acc_register_[mma_m][mma_n][2] = 0;
acc_register_[mma_m][mma_n][3] = 0;
}
}
const unsigned int A_warp_tile_offset = warp_m * WM * BK;
const unsigned int B_warp_tile_offset = warp_n * WN * BK;
static_assert(BM == 256);
static_assert(BN == 256);
static_assert(BK == 32);
static_assert(NUM_THREADS == 256);
prepareIteratorA<BM, BK, A_K_STRID, ROW_STEP>(thread_row, masks_a, element_offset_a, param);
// for(int kk =0; kk < A_K_STRID; kk++){
// if(element_offset_a[kk] >= 327680)
// printf("%d, %d, %d, %d, %d, %lld \n",
// threadIdx.x, threadIdx.y, blockIdx.x, blockIdx.y, blockIdx.z,
// element_offset_a[kk]);
// }
// if(threadIdx.x == 64 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0 && blockIdx.z == 0){
// printf("A[");
// for(int kk =0; kk < A_K_STRID; kk++)
// printf("%f,", element_offset_a[kk]);
// printf("]\n");
// }
// prefetch the first block tile of A,B into shared memory
const half* A_block_gmem = input;
const half* B_block_gmem = kernel + block_n * BN * param.weightKOffset;
unsigned int curC = tileMemcpySwizzleA<BM, NUM_THREADS>(A_block_gmem, A_block_smem, 0, 0, masks_a, element_offset_a,
thread_row, thread_col, start_k, end_k, param);
tileMemcpySwizzleB<BN, NUM_THREADS>(B_block_gmem, B_block_smem, 0, 0, start_k, end_k, thread_row, thread_col, param);
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
asm volatile("cp.async.commit_group;\n" ::);
#endif
int offset_direction = 1;
unsigned int block_k = 0;
unsigned int block_krs = 1;
// for (unsigned int block_k = 1; block_k <= num_block_tiles_k; block_k++){
int s = 0;
int r = 0;
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
while (block_krs < num_block_tiles_krs) {
asm volatile("cp.async.wait_group %0;\n" ::"n"(0));
#else
while (block_k < num_block_tiles_k) {
#endif
__syncthreads();
// moves to the next channel block tile
int next_idx = 0;
++s;
if (s == param.s) {
s = 0;
++r;
if (r < param.r) {
next_idx = 1;
} else {
r = 0;
next_idx = 2;
}
}
add_byte_offset<A_K_STRID>(element_offset_a, param.inc_next[next_idx]);
if (next_idx == 2) {
++block_k;
}
// if(threadIdx.x == 64 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0 && blockIdx.z == 0){
// printf("B %d,%d,%d [", s, r, block_k);
// for(int kk =0; kk < A_K_STRID; kk++){
// if(element_offset_a[kk] >= 327680)
// printf("%d, %d, %d, %d, %d, %lld, %d, %d, %d %d, %lld\n",
// threadIdx.x, threadIdx.y, blockIdx.x, blockIdx.y, blockIdx.z,
// element_offset_a[kk], r, s, block_k, next_idx, param.inc_next[next_idx]);
// }
// threadIdx.x == 64 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0 && blockIdx.z == 0){
// printf("%f,", element_offset_a[kk]);
// printf("]\n");
// if(block_k == num_block_tiles_k)
// break;
// if(thread_idx == 0 && blockIdx.x == 0 && blockIdx.y == 0 && blockIdx.z == 0){
// printf(" s = %d, r = %d, block_k = %d, next_idx = %d , %d, %d, %d \n", s, r, block_k, next_idx,
// block_krs, num_block_tiles_k, num_block_tiles_krs);
// }
// if (block_k != num_block_tiles_k){
if (block_krs != num_block_tiles_krs){
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
curC = tileMemcpyAsyncLoadA<BM, BK, NUM_THREADS, 4>(A_block_gmem, SA2, r, s,
masks_a, element_offset_a, thread_row, thread_col, block_k * BK,
start_k, end_k, curC, param);
tileMemcpyAsyncLoadB<BN, BK, NUM_THREADS, 4>(B_block_gmem, SB2, r, s, block_k * BK,
start_k, end_k, thread_row, thread_col, param);
asm volatile("cp.async.commit_group;\n" ::);
#else
curC = tileMemcpyLoadA<BM, BK, NUM_THREADS, 4>(A_block_gmem, A_gmem_cache_reg, r, s,
masks_a, element_offset_a, thread_row, thread_col, block_k * BK,
start_k, end_k, curC, param);
tileMemcpyLoadB<BN, BK, NUM_THREADS, 4>(B_block_gmem, B_gmem_cache_reg, r, s, block_k * BK,
start_k, end_k, thread_row, thread_col, param);
#endif
}
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
half* A_warp_tile = SA1 + A_warp_tile_offset;
half* B_warp_tile = SB1 + B_warp_tile_offset;
#else
half* A_warp_tile = A_block_smem + A_warp_tile_offset;
half* B_warp_tile = B_block_smem + B_warp_tile_offset;
#endif
ldmatrix_a<mma_tiles_per_warp_m, mma_tiles_per_warp_k, BK>(A_warp_tile, A_register_);
ldmatrix_b<mma_tiles_per_warp_k, mma_tiles_per_warp_n, BK>(B_warp_tile, B_register_);
// outer product between mma tiles
#pragma unroll
for (unsigned int mma_k = 0; mma_k < mma_tiles_per_warp_k; mma_k++){
#pragma unroll
for (unsigned int mma_n = 0; mma_n < mma_tiles_per_warp_n; mma_n++){
#pragma unroll
for (unsigned int mma_m = 0; mma_m < mma_tiles_per_warp_m; mma_m++){
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"mma.sync.aligned.m16n8k16.row.col.f16.f16.f16.f16 "
"{%0, %1}, "
"{%2, %3, %4, %5}, "
"{%6, %7}, "
"{%8, %9};"
: "=r"(acc_register[mma_m][mma_n][0]), "=r"(acc_register[mma_m][mma_n][1])
: "r"(A_register[mma_m][mma_k][0]), "r"(A_register[mma_m][mma_k][1]),"r"(A_register[mma_m][mma_k][2]), "r"(A_register[mma_m][mma_k][3]),
"r"(B_register[mma_k][mma_n][0]), "r"(B_register[mma_k][mma_n][1])
"r"(acc_register[mma_m][mma_n][0]), "r"(acc_register[mma_m][mma_n][1])
);
#else
asm volatile (
"mma.sync.aligned.m16n8k8.row.col.f16.f16.f16.f16 "
"{%0, %1}, "
"{%2, %3}, "
"{%4}, "
"{%5, %6};"
: "=r"(acc_register[mma_m][mma_n][0]), "=r"(acc_register[mma_m][mma_n][1])
: "r"(A_register[mma_m][mma_k][0]), "r"(A_register[mma_m][mma_k][1]),
"r"(B_register[mma_k][mma_n])
"r"(acc_register[mma_m][mma_n][0]), "r"(acc_register[mma_m][mma_n][1])
);
#endif
}
}
// if(threadIdx.x >= 8 && threadIdx.x < 12 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("A %d, %d, %d: %f, %f \n", block_krs, mma_k, threadIdx.x,
// __half2float(A_register_[1][mma_k][0]),
// __half2float(A_register_[1][mma_k][1]));
// }
// if(threadIdx.x < 4 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("B %d, %d, %d: %f, %f\n", block_krs, mma_k, threadIdx.x,
// __half2float(B_register_[mma_k][1][0]),
// __half2float(B_register_[mma_k][1][1]));
// }
// if(threadIdx.x == 8 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("C %d, %d, %d: %f, %f, %f, %f\n", block_krs, mma_k, threadIdx.x,
// __half2float(acc_register_[1][1][0]),
// __half2float(acc_register_[1][1][1]),
// __half2float(acc_register_[1][1][2]),
// __half2float(acc_register_[1][1][3]));
// }
// if(threadIdx.x < 4 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("A %d, %d, (%d, %d) %d: %f, %f \n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(A_register_[0][mma_k][0]),
// __half2float(A_register_[0][mma_k][1]));
// }
// if(threadIdx.x < 4 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("B %d, %d, (%d, %d) %d: %f, %f\n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(B_register_[mma_k][0][0]),
// __half2float(B_register_[mma_k][0][1]));
// }
// if(threadIdx.x == 0 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("C %d, %d, (%d, %d) %d: %f, %f, %f, %f\n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(acc_register_[0][0][0]),
// __half2float(acc_register_[0][0][1]),
// __half2float(acc_register_[0][0][2]),
// __half2float(acc_register_[0][0][3]));
// }
}
// if (block_k != num_block_tiles_k)
if (block_krs != num_block_tiles_krs) {
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
half *tmp = SA1; SA1 = SA2; SA2 = tmp;
tmp = SB1; SB1 = SB2; SB2 = tmp;
#else
// switch smem buffers each iteration
A_block_smem = A_block_smem + BUFFER_SIZE * offset_direction;
B_block_smem = B_block_smem + BUFFER_SIZE * offset_direction;
offset_direction = -1 * offset_direction;
tileMemcpySwizzleStore<BM, NUM_THREADS, 4>(A_gmem_cache_reg, A_block_smem, thread_row, thread_col);
tileMemcpySwizzleStore<BN, NUM_THREADS, 4>(B_gmem_cache_reg, B_block_smem, thread_row, thread_col);
#endif
}
block_krs++;
}
#if __CUDA_ARCH__ >= GGML_CUDA_CC_AMPERE
asm volatile("cp.async.wait_group %0;\n" ::"n"(0));
__syncthreads();
half* A_warp_tile = SA1 + A_warp_tile_offset;
half* B_warp_tile = SB1 + B_warp_tile_offset;
ldmatrix_a<mma_tiles_per_warp_m, mma_tiles_per_warp_k, BK>(A_warp_tile, A_register_);
ldmatrix_b<mma_tiles_per_warp_k, mma_tiles_per_warp_n, BK>(B_warp_tile, B_register_);
// outer product between mma tiles
#pragma unroll
for (unsigned int mma_k = 0; mma_k < mma_tiles_per_warp_k; mma_k++){
#pragma unroll
for (unsigned int mma_n = 0; mma_n < mma_tiles_per_warp_n; mma_n++){
#pragma unroll
for (unsigned int mma_m = 0; mma_m < mma_tiles_per_warp_m; mma_m++){
#if __CUDA_ARCH__ >= GGML_CUDA_CC_RUBIN
asm volatile (
"mma.sync.aligned.m16n8k16.row.col.f16.f16.f16.f16 "
"{%0, %1}, "
"{%2, %3, %4, %5}, "
"{%6, %7}, "
"{%8, %9};"
: "=r"(acc_register[mma_m][mma_n][0]), "=r"(acc_register[mma_m][mma_n][1])
: "r"(A_register[mma_m][mma_k][0]), "r"(A_register[mma_m][mma_k][1]),"r"(A_register[mma_m][mma_k][2]), "r"(A_register[mma_m][mma_k][3]),
"r"(B_register[mma_k][mma_n][0]), "r"(B_register[mma_k][mma_n][1])
"r"(acc_register[mma_m][mma_n][0]), "r"(acc_register[mma_m][mma_n][1])
);
#else
asm volatile (
"mma.sync.aligned.m16n8k8.row.col.f16.f16.f16.f16 "
"{%0, %1}, "
"{%2, %3}, "
"{%4}, "
"{%5, %6};"
: "=r"(acc_register[mma_m][mma_n][0]), "=r"(acc_register[mma_m][mma_n][1])
: "r"(A_register[mma_m][mma_k][0]), "r"(A_register[mma_m][mma_k][1]),
"r"(B_register[mma_k][mma_n])
"r"(acc_register[mma_m][mma_n][0]), "r"(acc_register[mma_m][mma_n][1])
);
#endif
}
}
// if(threadIdx.x < 4 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("A %d, %d, (%d, %d) %d: %f, %f \n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(A_register_[0][mma_k][0]),
// __half2float(A_register_[0][mma_k][1]));
// }
// if(threadIdx.x < 4 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("B %d, %d, (%d, %d) %d: %f, %f\n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(B_register_[mma_k][0][0]),
// __half2float(B_register_[mma_k][0][1]));
// }
// if(threadIdx.x == 0 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf("C %d, %d, (%d, %d) %d: %f, %f, %f, %f\n", block_krs, mma_k, r, s, threadIdx.x,
// __half2float(acc_register_[0][0][0]),
// __half2float(acc_register_[0][0][1]),
// __half2float(acc_register_[0][0][2]),
// __half2float(acc_register_[0][0][3]));
// }
}
#endif
// if(threadIdx.x == 8 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf(" %u, %f, %f, %f, %f\n", blockIdx.z,
// __half2float(acc_register_[1][1][0]),
// __half2float(acc_register_[1][1][1]),
// __half2float(acc_register_[1][1][2]),
// __half2float(acc_register_[1][1][3]));
// }
// if(threadIdx.x == 0 && threadIdx.y == 0 && blockIdx.x == 0 && blockIdx.y == 0){
// printf(" %u, %f, %f, %f, %f\n", blockIdx.z,
// __half2float(acc_register_[0][1][0]),
// __half2float(acc_register_[0][1][1]),
// __half2float(acc_register_[0][1][2]),
// __half2float(acc_register_[0][1][3]));
// }
// reuse smem
half *smemoutput = shmem;
const uint lane_id = threadIdx.x % WARPSIZE;
const uint mma_row = lane_id / 4;
const uint mma_col = lane_id % 4;
const uint warp_offset = warp_m * WM * BN/2 + warp_n * WN/2;
const uint output_lds_addr = warp_offset + lane_id * BN/2;
const uint output_sts_addr = warp_offset + mma_row * BN/2 + mma_col * 2;
const uint m_idx = block_n * BN + warp_n * WN;
const uint n_idx = block_m * BM + warp_m * WM + lane_id;
#pragma unroll
for (int i = 0; i < 2; ++i)
{
const unsigned int i_offset = i * mma_tiles_per_warp_n/2;
__syncthreads();
#pragma unroll
for (unsigned int mma_m = 0; mma_m < mma_tiles_per_warp_m; mma_m++)
{
const unsigned int mma_m_offset = output_sts_addr + mma_m * MMA_M * BN / 2;
for (unsigned int mma_n = i_offset; mma_n < (i+1)*mma_tiles_per_warp_n/2; mma_n++)
{
uint32_t (&reg_)[2] = reinterpret_cast<uint32_t(&)[2]>(acc_register_[mma_m][mma_n]);
uint idx = mma_m_offset + (mma_n - i_offset) * MMA_N;
idx = idx ^ ((idx & 0b110000000000) >> 9);
idx = idx ^ ((idx & 0b1110000000) >> 4);
uint32_t* dst_ptr = reinterpret_cast<uint32_t*>(&smemoutput[idx]);
dst_ptr[0] = reg_[0];
idx = (idx + 8 * BN / 2 ) ^ 0b010;
dst_ptr = reinterpret_cast<uint32_t*>(&smemoutput[idx]);
dst_ptr[0] = reg_[1];
}
}
__syncthreads();
const unsigned int m_i_wn = m_idx + i * WN / 2;
#pragma unroll
for (int subk = 0; subk < WN / 4; ++subk){
const uint row = m_i_wn + subk*2;
uint idx = output_lds_addr + subk*2;
idx = idx ^ ((idx & 0b110000000000) >> 9);
idx = idx ^ ((idx & 0b1110000000) >> 4);
#pragma unroll
for (int j = 0; j < 4; ++j){
const uint gemm_i = n_idx + j*32;
const int n = fastdiv(gemm_i, param.OHOW_fastdiv);
const int col = fastmodulo(gemm_i, param.OHOW_fastdiv);
uint32_t dst_ptr = *(reinterpret_cast<uint32_t*>(&smemoutput[idx+j*16*BN])); // 32*BN/2 = 16*BN
half (&res_)[2] = reinterpret_cast<half(&)[2]>(dst_ptr);
if (n < param.n && row < param.k && col < param.PQ) {
const uint outOffset = ((ksplit > 0) ? z * param.NKPQ : 0) + n * param.KPQ + row * param.PQ + col;
// if(row == 8 && col == 18)
// printf("A %u, %u, %f \n", outOffset, z, ggml_cuda_cast<float>(res_[0]));
output[outOffset] = ggml_cuda_cast<T>(res_[0]);
}
if (n < param.n && row+1 < param.k && col < param.PQ) {
const uint outOffset = ((ksplit > 0) ? z * param.NKPQ : 0) + n * param.KPQ + (row+1) * param.PQ + col;
// if(row+1 == 8 && col == 17)
// printf("B %u, %u, %f \n", outOffset, z, ggml_cuda_cast<float>(res_[0]));
output[outOffset] = ggml_cuda_cast<T>(res_[1]);
}
}
}
}
#else
GGML_UNUSED(input);
GGML_UNUSED(kernel);
GGML_UNUSED(output);
GGML_UNUSED(param);
NO_DEVICE_CODE;
#endif
}
#define NUM_VARIANTS 4
/*
conv_shapes[][0]: ne_input=[384,512,256,1],ne_kernel=[3,3,256,256]
conv_shapes[][1]: ne_input=[96,128,512,1],ne_kernel=[3,3,512,512]
conv_shapes[][2]: ne_input=[192,256,512,1git diff],ne_kernel=[3,3,512,512]
*/
constexpr static int conv_shapes[][NUM_VARIANTS] = {
{ 128, 128, 128, 256 }, // BM
{ 256, 128, 256, 128 }, // BN
{ 8, 8, 8, 8 }, // BK
{ 128, 64, 32, 128 }, // WM
{ 32, 32 , 256, 32 }, // WN
{ 2, 2, 1, 1 }, // WNITER
{ 8, 4, 4, 4 }, // TM
{ 8, 4, 8, 8 }, // TN
{ 256, 256, 128, 256} // NUM_THREADS
};
template <typename T, unsigned int CONV_SHAPE>
static void conv2d_implicit_cuda(const float * X_D, const T * K_D, float * Y_D, const param_t P, cudaStream_t st) {
const uint BM = conv_shapes[0][CONV_SHAPE];
const uint BN = conv_shapes[1][CONV_SHAPE];
const uint BK = conv_shapes[2][CONV_SHAPE];
const uint WM = conv_shapes[3][CONV_SHAPE];
const uint WN = conv_shapes[4][CONV_SHAPE];
const uint WNITER = conv_shapes[5][CONV_SHAPE];
const uint TM = conv_shapes[6][CONV_SHAPE];
const uint TN = conv_shapes[7][CONV_SHAPE];
const uint NUM_THREADS = conv_shapes[8][CONV_SHAPE];
int blockx = ((P.Oh * P.Ow + BM - 1) / BM); // blockx number
int blocky = (P.k + BN-1) / BN; // blocky number
int blockz = P.n; // blockz number
int thready = 1; // thready number per block
int threadz = 1; // threadz number per block
dim3 thblock(NUM_THREADS, thready, threadz);
dim3 grid(blockx, blocky, blockz);
conv2d_implicit_kernel<T, BM, BN, BK, WM, WN,
WNITER, TM, TN, NUM_THREADS, 1, false, 0><<<grid, thblock, 0, st>>>(X_D, K_D, Y_D, P);
}
template<const int BM, const int BN, const int BK,
const int WM, const int WN, const int WK, const int ksplit,
const unsigned int ThreadsM, const unsigned int ThreadsN,
const int NUM_THREADS>
static void launch_conv2d_implicit_split_kernel(ggml_backend_cuda_context & ctx, const half *X_H, const half *K_H, float *Y_D,
const unsigned int BlocksM, const unsigned int BlocksN,
const unsigned int shmem_bytes,
param_t P, cudaStream_t st){
int id = ggml_cuda_get_device();
ggml_cuda_pool_alloc<half> Y_H(ctx.pool(id), ksplit * P.k * P.Oh * P.Ow * P.n);
cudaFuncSetAttribute(conv2d_implicit_kernel<half, BM, BN, BK, WM, WN, WK, ksplit, NUM_THREADS>,
cudaFuncAttributeMaxDynamicSharedMemorySize, 65536); // set shared memory limit to 64KB which is maximum for sm_75
dim3 gridDim(BlocksN, BlocksM, ksplit);
dim3 blockDim(ThreadsN, ThreadsM);
conv2d_implicit_kernel<half, BM, BN, BK,
WM, WN, WK, ksplit, NUM_THREADS><<<gridDim, blockDim, shmem_bytes, st>>>(X_H, K_H, Y_H.get(), P);
const unsigned int nrows = P.n * P.k * P.Oh * P.Ow;
const unsigned int blockx = (nrows + 511) / 512;
const dim3 block_nums(blockx, 1, 1);
const dim3 block_dims(512, 1, 1);
reduce_f32<half, float><<<block_nums, block_dims, 0, st>>>(Y_H.get(), Y_D, nrows, ksplit);
}
static void conv2d_implicit_cuda_f16(ggml_backend_cuda_context & ctx, const float * X_D, const half * K_D, float * Y_D, int cc, param_t P, cudaStream_t st) {
// if (GGML_CUDA_CC_IS_NVIDIA(cc) && turing_mma_available(cc) && P.c % 8 == 0 && (P.r > 1 || P.s > 1)) {
if (GGML_CUDA_CC_IS_NVIDIA(cc) && turing_mma_available(cc) && P.c % 8 == 0) {
int id = ggml_cuda_get_device();
int64_t inc[3];
// next S
inc[0] = int64_t(P.c) * P.d_w;
// next R
inc[1] = int64_t(P.w * P.c) * P.d_h - (P.s - 1) * P.c * P.d_w;
// next C
inc[2] = - int64_t(P.r - 1) * P.w * P.c * P.d_h - int64_t(P.s - 1) * P.c * P.d_w ;
memcpy(P.inc_next, inc, sizeof(int64_t)*3);
int64_t ne = P.c * P.h * P.w * P.n;
int64_t ne00 = P.c;
int64_t ne01 = P.h * P.w;
ggml_cuda_pool_alloc<half> input_f16(ctx.pool(id), ne);
dim3 dimGrid( (ne01 + CUDA_NCHW_2_NHWC_TILE_DIM - 1) / CUDA_NCHW_2_NHWC_TILE_DIM,
(ne00 + CUDA_NCHW_2_NHWC_TILE_DIM - 1) / CUDA_NCHW_2_NHWC_TILE_DIM,
(ne/(ne00*ne01) + CUDA_NCHW_2_NHWC_BLOCK_NM - 1) / CUDA_NCHW_2_NHWC_BLOCK_NM) ;
dim3 dimBlock(CUDA_NCHW_2_NHWC_TILE_DIM,CUDA_NCHW_2_NHWC_BLOCK_ROWS, 1);
NCHW2NHWC<float, half><<<dimGrid, dimBlock, 0, st>>>(X_D, input_f16.get(), ne, ne00, ne01);
ne = P.c * P.r * P.s * P.k;
ne01 = P.r * P.s;
// ggml_cuda_pool_alloc<half> kernel_f16(ctx.pool(id), ne);
ggml_cuda_pool_alloc<half> kernel_f16(ctx.pool(id));
if (ne01 > 1){
kernel_f16.alloc(ne);
dim3 dimGrid1((ne00 + CUDA_NCHW_2_NHWC_BLOCK_C - 1) / CUDA_NCHW_2_NHWC_BLOCK_C,
(ne/(ne00*ne01) + CUDA_NCHW_2_NHWC_BLOCK_NM - 1) / CUDA_NCHW_2_NHWC_BLOCK_NM,
1) ;
// if (ne01 == 25) {
// constexpr unsigned int mask = filter_swizzle_mask(25, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 25, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// }else if (ne01 == 16) {
// constexpr unsigned int mask = filter_swizzle_mask(16, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 16, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// }else if (ne01 == 9) {
// constexpr unsigned int mask = filter_swizzle_mask(9, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 9, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 8) {
// constexpr unsigned int mask = filter_swizzle_mask(8, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 8, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 7) {
// constexpr unsigned int mask = filter_swizzle_mask(7, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 7, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 6) {
// constexpr unsigned int mask = filter_swizzle_mask(6, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 6, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 5) {
// constexpr unsigned int mask = filter_swizzle_mask(5, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 5, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 4) {
// constexpr unsigned int mask = filter_swizzle_mask(4, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 4, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 3) {
// constexpr unsigned int mask = filter_swizzle_mask(3, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 3, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else if (ne01 == 2) {
// constexpr unsigned int mask = filter_swizzle_mask(2, CUDA_NCHW_2_NHWC_BLOCK_C);
// NCHW2NHWC<half, half, mask, 2, CUDA_NCHW_2_NHWC_BLOCK_C><<<dimGrid1, CUDA_NCHW_2_NHWC_BLOCK_C, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// } else {
dim3 dimGrid2((ne01 + CUDA_NCHW_2_NHWC_TILE_DIM - 1) / CUDA_NCHW_2_NHWC_TILE_DIM,
(ne00 + CUDA_NCHW_2_NHWC_TILE_DIM - 1) / CUDA_NCHW_2_NHWC_TILE_DIM,
(ne/(ne00*ne01) + CUDA_NCHW_2_NHWC_BLOCK_NM - 1) / CUDA_NCHW_2_NHWC_BLOCK_NM) ;
NCHW2NHWC<half, half><<<dimGrid2, dimBlock, 0, st>>>(K_D, kernel_f16.get(), ne, ne00, ne01);
// }
}
const half *X_H = input_f16.get();
const half *K_H = ne01 == 1 ? K_D : kernel_f16.get();
constexpr unsigned int BM_dim = 256;
constexpr unsigned int BN_dim = 256;
constexpr unsigned int BK_dim = 32;
constexpr unsigned int WARPS_PER_BLOCK_M = 2;
constexpr unsigned int WARPS_PER_BLOCK_N = 4;
constexpr unsigned int WARPS_PER_BLOCK_K = 4;
constexpr unsigned int WM_dim = BM_dim / WARPS_PER_BLOCK_M;
constexpr unsigned int WN_dim = BN_dim / WARPS_PER_BLOCK_N;
constexpr unsigned int WK_dim = BK_dim / WARPS_PER_BLOCK_K;
static_assert(WN_dim % 4 == 0, "final output requires this to be bank conflicts free");
const unsigned int BlocksM = (P.n * P.Oh * P.Ow + BM_dim - 1) / BM_dim;
const unsigned int BlocksN = (P.k + BN_dim - 1) / BN_dim;
constexpr unsigned int ThreadsM = WARPS_PER_BLOCK_M;
constexpr unsigned int ThreadsN = WARPSIZE * WARPS_PER_BLOCK_N;
constexpr unsigned int NumThreads = ThreadsM * ThreadsN;
const unsigned int shmem_bytes = (BM_dim * BK_dim + BK_dim * BN_dim) * 2 * sizeof(half);
const int nsm = ggml_cuda_info().devices[ggml_cuda_get_device()].nsm;
// if (BlocksM * BlocksN < nsm && P.c >= 8 * ksplit && (P.c * P.r * P.s) % (8*ksplit) == 0) {
if (BlocksM * BlocksN < 2*(unsigned int)nsm){
int j, max_remaining_waves = -1, candidate = -1;
int ks = min(20, nsm / (BlocksM * BlocksN));
if (ks < 2 && (BlocksM * BlocksN) % nsm < nsm*4/5)
ks = 20;
for (j = 2; j <= ks; j++){
const int remainder = (BlocksM * BlocksN * j) % nsm;
// if ((P.c * P.r * P.s) % (8*j) == 0){
if ((P.c) % (8*j) == 0){
if (remainder == 0) {
candidate = j;
max_remaining_waves = 0;
break;
} else if (remainder > max_remaining_waves) {
max_remaining_waves = remainder;
candidate = j;
}
}
}
candidate = -1;
if(candidate != -1){
j = candidate;
printf("choosing %d \n", j);
if (j == 2) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 2,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 3) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 3,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 4) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 4,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 5) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 5,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 6) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 6,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 7) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 7,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 8) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 8,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 9) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 9,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 10) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 10,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 11) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 11,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 12) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 12,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 13) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 13,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 14) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 14,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 15) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 15,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 16) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 16,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 17) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 17,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 18) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 18,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 19) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 19,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
} else if (j == 20) {
launch_conv2d_implicit_split_kernel<BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 20,
ThreadsM, ThreadsN, NumThreads>(ctx, X_H, K_H, Y_D, BlocksM, BlocksN, shmem_bytes, P, st);
}
return;
}
}
cudaFuncSetAttribute(conv2d_implicit_kernel<float, BM_dim, BN_dim, BK_dim, WM_dim, WN_dim, WK_dim, 0, NumThreads>,
cudaFuncAttributeMaxDynamicSharedMemorySize, 65536); // set shared memory limit to 64KB which is maximum for sm_75
dim3 gridDim(BlocksN, BlocksM);
dim3 blockDim(ThreadsN, ThreadsM);
conv2d_implicit_kernel<float, BM_dim, BN_dim, BK_dim,
WM_dim, WN_dim, WK_dim, 0, NumThreads>
<<<gridDim, blockDim, shmem_bytes, st>>>(X_H, K_H, Y_D, P);
} else{
conv2d_implicit_cuda<half, 1>(X_D, K_D, Y_D, P, st);
}
}
static void conv2d_implicit_cuda_f32(ggml_backend_cuda_context & ctx, const float * X_D, const float * K_D, float * Y_D, int cc, const param_t P, cudaStream_t st) {
conv2d_implicit_cuda<float, 1>(X_D, K_D, Y_D, P, st);
GGML_UNUSED(ctx);
GGML_UNUSED(cc);
}
void ggml_cuda_op_conv2d_implicit(ggml_backend_cuda_context & ctx, ggml_tensor * dst) {
const ggml_tensor * kernel = dst->src[0];
const ggml_tensor * input = dst->src[1];
float * K_D = (float *) kernel->data;
const float * X_D = (const float *) input->data;
float * Y_D = (float *) dst->data;
GGML_ASSERT(ggml_is_contiguous(kernel));
GGML_ASSERT(kernel->type == GGML_TYPE_F16 || kernel->type == GGML_TYPE_F32);
cudaStream_t st = ctx.stream();
const int cc = ggml_cuda_info().devices[ctx.device].cc;
const int32_t * p = (const int32_t *) dst->op_params;
const uint ST_X = p[0]; // stride_x
const uint ST_Y = p[1]; // stride_y
const uint PD_X = p[2]; // padding_x
const uint PD_Y = p[3]; // padding_y
const uint DL_X = p[4]; // dilation_x
const uint DL_Y = p[5]; // dilation_y
// const int LT = p[6]; // layout
// GGML_ASSERT(LT == 0 || LT == 1);
// same number of input channels
// GGML_ASSERT(LT == 0 ? input->ne[0] == kernel->ne[0] : input->ne[2] == kernel->ne[2]);
// No cwhn
GGML_ASSERT(p[6] == false);
const uint IW = input->ne[0]; // input_w
const uint IH = input->ne[1]; // input_h
const uint OW = dst->ne[0]; // output_w
const uint OH = dst->ne[1]; // output_h
const uint KW = kernel->ne[0]; // kernel_w
const uint KH = kernel->ne[1]; // kernel_h
const uint IC = input->ne[2]; // input_channels
const uint OC = kernel->ne[3]; // ouptut_chanles
const uint B = input->ne[3]; // n_batches
int64_t pp[3] = {0};
// const unsigned int K = param.c;
// const uint inChannelOffset = param.c * param.w;
// const uint weightKOffset = param.c * param.r * param.s;
// const unsigned int PQ = param.Ow * param.Oh;
// const unsigned int KPQ = param.k * PQ;
// const unsigned int NKPQ = param.n * KPQ;
param_t params = { B, IC, IH, IW, OC, KH, KW, ST_Y, ST_X, PD_Y, PD_X, DL_Y, DL_X, OH, OW,
init_fastdiv_values(KW*IC),
init_fastdiv_values(OW),
init_fastdiv_values(IC),
init_fastdiv_values(KW*KH),
init_fastdiv_values(KW),
init_fastdiv_values(OW*OH),
pp[0], pp[1], pp[2],
IC*IW,
IC*KW*KH,
OW*OH,
OC*OW*OH,
B*OC*OW*OH,
IC*IW*IH};
if (kernel->type == GGML_TYPE_F16) {
conv2d_implicit_cuda_f16(ctx, X_D, (half *) K_D, Y_D, cc, params, st);
} else {
conv2d_implicit_cuda_f32(ctx, X_D, K_D, Y_D, cc, params, st);
}
}
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