mirror of https://github.com/GOSTSec/ccminer
Tanguy Pruvot
7 years ago
20 changed files with 905 additions and 55 deletions
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#include <stdio.h> |
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#include <stdint.h> |
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#include <string.h> |
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#include <sys/time.h> |
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#include <unistd.h> |
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#include <cuda.h> |
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#include <cuda_runtime.h> |
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#include "cryptolight.h" |
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#define LONG_SHL_IDX 18 |
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#define LONG_LOOPS32 0x40000 |
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#ifdef WIN32 /* todo: --interactive */ |
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static __thread int cn_bfactor = 8; |
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static __thread int cn_bsleep = 100; |
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#else |
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static __thread int cn_bfactor = 0; |
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static __thread int cn_bsleep = 0; |
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#endif |
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#include "cn_aes.cuh" |
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#define MUL_SUM_XOR_DST(a,c,dst) { \ |
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uint64_t hi, lo = cuda_mul128(((uint64_t *)a)[0], ((uint64_t *)dst)[0], &hi) + ((uint64_t *)c)[1]; \ |
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hi += ((uint64_t *)c)[0]; \ |
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((uint64_t *)c)[0] = ((uint64_t *)dst)[0] ^ hi; \ |
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((uint64_t *)c)[1] = ((uint64_t *)dst)[1] ^ lo; \ |
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((uint64_t *)dst)[0] = hi; \ |
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((uint64_t *)dst)[1] = lo; } |
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__device__ __forceinline__ uint64_t cuda_mul128(uint64_t multiplier, uint64_t multiplicand, uint64_t* product_hi) |
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{ |
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*product_hi = __umul64hi(multiplier, multiplicand); |
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return(multiplier * multiplicand); |
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} |
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__global__ |
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void cryptolight_core_gpu_phase1(int threads, uint32_t * __restrict__ long_state, uint32_t * __restrict__ ctx_state, uint32_t * __restrict__ ctx_key1) |
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{ |
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__shared__ uint32_t sharedMemory[1024]; |
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cn_aes_gpu_init(sharedMemory); |
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const int thread = (blockDim.x * blockIdx.x + threadIdx.x) >> 3; |
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const int sub = (threadIdx.x & 7) << 2; |
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if(thread < threads) |
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{ |
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uint32_t key[40], text[4]; |
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MEMCPY8(key, ctx_key1 + thread * 40, 20); |
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MEMCPY8(text, ctx_state + thread * 50 + sub + 16, 2); |
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__syncthreads(); |
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for(int i = 0; i < LONG_LOOPS32; i += 32) |
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{ |
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cn_aes_pseudo_round_mut(sharedMemory, text, key); |
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MEMCPY8(&long_state[(thread << LONG_SHL_IDX) + sub + i], text, 2); |
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} |
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} |
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} |
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__global__ |
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void cryptolight_core_gpu_phase2(const int threads, const int bfactor, const int partidx, uint32_t * d_long_state, uint32_t * d_ctx_a, uint32_t * d_ctx_b) |
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{ |
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__shared__ uint32_t sharedMemory[1024]; |
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cn_aes_gpu_init(sharedMemory); |
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__syncthreads(); |
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#if 0 && __CUDA_ARCH__ >= 300 |
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const int thread = (blockDim.x * blockIdx.x + threadIdx.x) >> 2; |
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const int sub = threadIdx.x & 3; |
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if(thread < threads) |
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{ |
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const int batchsize = ITER >> (2 + bfactor); |
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const int start = partidx * batchsize; |
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const int end = start + batchsize; |
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uint32_t * __restrict__ long_state = &d_long_state[thread << LONG_SHL_IDX]; |
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uint32_t * __restrict__ ctx_a = d_ctx_a + thread * 4; |
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uint32_t * __restrict__ ctx_b = d_ctx_b + thread * 4; |
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uint32_t a, b, c, x[4]; |
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uint32_t t1[4], t2[4], res; |
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uint64_t reshi, reslo; |
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int j; |
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a = ctx_a[sub]; |
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b = ctx_b[sub]; |
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#pragma unroll 8 |
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for(int i = start; i < end; ++i) |
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{ |
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//j = ((uint32_t *)a)[0] & 0xFFFF0; |
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j = (__shfl((int)a, 0, 4) & E2I_MASK1) >> 2; |
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//cn_aes_single_round(sharedMemory, &long_state[j], c, a); |
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x[0] = long_state[j + sub]; |
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x[1] = __shfl((int)x[0], sub + 1, 4); |
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x[2] = __shfl((int)x[0], sub + 2, 4); |
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x[3] = __shfl((int)x[0], sub + 3, 4); |
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c = a ^ |
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t_fn0(x[0] & 0xff) ^ |
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t_fn1((x[1] >> 8) & 0xff) ^ |
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t_fn2((x[2] >> 16) & 0xff) ^ |
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t_fn3((x[3] >> 24) & 0xff); |
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//XOR_BLOCKS_DST(c, b, &long_state[j]); |
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long_state[j + sub] = c ^ b; |
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//MUL_SUM_XOR_DST(c, a, &long_state[((uint32_t *)c)[0] & 0xFFFF0]); |
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j = (__shfl((int)c, 0, 4) & E2I_MASK1) >> 2; |
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#pragma unroll |
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for(int k = 0; k < 2; k++) |
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t1[k] = __shfl((int)c, k, 4); |
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#pragma unroll |
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for(int k = 0; k < 4; k++) |
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t2[k] = __shfl((int)a, k, 4); |
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asm( |
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"mad.lo.u64 %0, %2, %3, %4;\n\t" |
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"mad.hi.u64 %1, %2, %3, %5;\n\t" |
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: "=l"(reslo), "=l"(reshi) |
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: "l"(((uint64_t *)t1)[0]), "l"(((uint64_t *)long_state)[j >> 1]), "l"(((uint64_t *)t2)[1]), "l"(((uint64_t *)t2)[0])); |
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res = (sub & 2 ? reslo : reshi) >> (sub & 1 ? 32 : 0); |
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a = long_state[j + sub] ^ res; |
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long_state[j + sub] = res; |
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//j = ((uint32_t *)a)[0] & 0xFFFF0; |
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j = (__shfl((int)a, 0, 4) & E2I_MASK1) >> 2; |
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//cn_aes_single_round(sharedMemory, &long_state[j], b, a); |
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x[0] = long_state[j + sub]; |
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x[1] = __shfl((int)x[0], sub + 1, 4); |
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x[2] = __shfl((int)x[0], sub + 2, 4); |
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x[3] = __shfl((int)x[0], sub + 3, 4); |
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b = a ^ |
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t_fn0(x[0] & 0xff) ^ |
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t_fn1((x[1] >> 8) & 0xff) ^ |
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t_fn2((x[2] >> 16) & 0xff) ^ |
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t_fn3((x[3] >> 24) & 0xff); |
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//XOR_BLOCKS_DST(b, c, &long_state[j]); |
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long_state[j + sub] = c ^ b; |
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//MUL_SUM_XOR_DST(b, a, &long_state[((uint32_t *)b)[0] & 0xFFFF0]); |
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j = (__shfl((int)b, 0, 4) & E2I_MASK1) >> 2; |
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#pragma unroll |
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for(int k = 0; k < 2; k++) |
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t1[k] = __shfl((int)b, k, 4); |
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#pragma unroll |
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for(int k = 0; k < 4; k++) |
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t2[k] = __shfl((int)a, k, 4); |
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asm( |
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"mad.lo.u64 %0, %2, %3, %4;\n\t" |
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"mad.hi.u64 %1, %2, %3, %5;\n\t" |
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: "=l"(reslo), "=l"(reshi) |
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: "l"(((uint64_t *)t1)[0]), "l"(((uint64_t *)long_state)[j >> 1]), "l"(((uint64_t *)t2)[1]), "l"(((uint64_t *)t2)[0])); |
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res = (sub & 2 ? reslo : reshi) >> (sub & 1 ? 32 : 0); |
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a = long_state[j + sub] ^ res; |
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long_state[j + sub] = res; |
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} |
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if(bfactor > 0) |
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{ |
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ctx_a[sub] = a; |
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ctx_b[sub] = b; |
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} |
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} |
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#else // __CUDA_ARCH__ < 300 |
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const int thread = blockDim.x * blockIdx.x + threadIdx.x; |
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if(thread < threads) |
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{ |
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const int batchsize = ITER >> (2 + bfactor); |
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const int start = partidx * batchsize; |
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const int end = start + batchsize; |
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const off_t longptr = (off_t) thread << LONG_SHL_IDX; |
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uint32_t * long_state = &d_long_state[longptr]; |
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uint32_t * ctx_a = &d_ctx_a[thread * 4]; |
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uint32_t * ctx_b = &d_ctx_b[thread * 4]; |
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uint32_t a[4], b[4]; |
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MEMCPY8(a, ctx_a, 2); |
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MEMCPY8(b, ctx_b, 2); |
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for(int i = start; i < end; i++) // end = 262144 |
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{ |
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uint32_t c[4]; |
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uint32_t j = (a[0] >> 2) & E2I_MASK2; |
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cn_aes_single_round(sharedMemory, &long_state[j], c, a); |
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XOR_BLOCKS_DST(c, b, &long_state[j]); |
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MUL_SUM_XOR_DST(c, a, &long_state[(c[0] >> 2) & E2I_MASK2]); |
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j = (a[0] >> 2) & E2I_MASK2; |
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cn_aes_single_round(sharedMemory, &long_state[j], b, a); |
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XOR_BLOCKS_DST(b, c, &long_state[j]); |
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MUL_SUM_XOR_DST(b, a, &long_state[(b[0] >> 2) & E2I_MASK2]); |
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} |
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if(bfactor > 0) |
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{ |
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MEMCPY8(ctx_a, a, 2); |
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MEMCPY8(ctx_b, b, 2); |
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} |
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} |
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#endif // __CUDA_ARCH__ >= 300 |
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} |
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__global__ |
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void cryptolight_core_gpu_phase3(int threads, const uint32_t * __restrict__ long_state, uint32_t * __restrict__ d_ctx_state, uint32_t * __restrict__ d_ctx_key2) |
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{ |
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__shared__ uint32_t sharedMemory[1024]; |
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cn_aes_gpu_init(sharedMemory); |
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int thread = (blockDim.x * blockIdx.x + threadIdx.x) >> 3; |
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int sub = (threadIdx.x & 7) << 2; |
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if(thread < threads) |
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{ |
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uint32_t key[40], text[4]; |
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MEMCPY8(key, d_ctx_key2 + thread * 40, 20); |
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MEMCPY8(text, d_ctx_state + thread * 50 + sub + 16, 2); |
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__syncthreads(); |
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for(int i = 0; i < LONG_LOOPS32; i += 32) |
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{ |
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#pragma unroll |
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for(int j = 0; j < 4; j++) |
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text[j] ^= long_state[(thread << LONG_SHL_IDX) + sub + i + j]; |
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cn_aes_pseudo_round_mut(sharedMemory, text, key); |
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} |
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MEMCPY8(d_ctx_state + thread * 50 + sub + 16, text, 2); |
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} |
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} |
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__host__ |
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void cryptolight_core_cpu_hash(int thr_id, int blocks, int threads, uint32_t *d_long_state, uint32_t *d_ctx_state, uint32_t *d_ctx_a, uint32_t *d_ctx_b, uint32_t *d_ctx_key1, uint32_t *d_ctx_key2) |
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{ |
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dim3 grid(blocks); |
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dim3 block(threads); |
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dim3 block4(threads << 2); |
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dim3 block8(threads << 3); |
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const int bfactor = cn_bfactor; // device_bfactor[thr_id]; |
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const int bsleep = cn_bsleep; //device_bsleep[thr_id]; |
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int i, partcount = 1 << bfactor; |
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int dev_id = device_map[thr_id]; |
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cryptolight_core_gpu_phase1 <<<grid, block8 >>>(blocks*threads, d_long_state, d_ctx_state, d_ctx_key1); |
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exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
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if(partcount > 1) usleep(bsleep); |
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for(i = 0; i < partcount; i++) |
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{ |
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cryptolight_core_gpu_phase2 <<<grid, (device_sm[dev_id] >= 300 ? block4 : block)>>>(blocks*threads, bfactor, i, d_long_state, d_ctx_a, d_ctx_b); |
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exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
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if(partcount > 1) usleep(bsleep); |
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} |
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cryptolight_core_gpu_phase3 <<<grid, block8 >>>(blocks*threads, d_long_state, d_ctx_state, d_ctx_key2); |
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exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
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} |
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#include <miner.h> |
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#include <memory.h> |
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#include "oaes_lib.h" |
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#include "cryptolight.h" |
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extern "C" { |
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#include <sph/sph_blake.h> |
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#include <sph/sph_groestl.h> |
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#include <sph/sph_jh.h> |
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#include <sph/sph_skein.h> |
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#include "cpu/c_keccak.h" |
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} |
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struct cryptonight_ctx { |
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uint8_t long_state[MEMORY]; |
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union cn_slow_hash_state state; |
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uint8_t text[INIT_SIZE_BYTE]; |
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uint8_t a[AES_BLOCK_SIZE]; |
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uint8_t b[AES_BLOCK_SIZE]; |
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uint8_t c[AES_BLOCK_SIZE]; |
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oaes_ctx* aes_ctx; |
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}; |
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static void do_blake_hash(const void* input, int len, void* output) |
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{ |
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uchar hash[32]; |
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sph_blake256_context ctx; |
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sph_blake256_set_rounds(14); |
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sph_blake256_init(&ctx); |
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sph_blake256(&ctx, input, len); |
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sph_blake256_close(&ctx, hash); |
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memcpy(output, hash, 32); |
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} |
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static void do_groestl_hash(const void* input, int len, void* output) |
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{ |
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uchar hash[32]; |
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sph_groestl256_context ctx; |
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sph_groestl256_init(&ctx); |
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sph_groestl256(&ctx, input, len); |
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sph_groestl256_close(&ctx, hash); |
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memcpy(output, hash, 32); |
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} |
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static void do_jh_hash(const void* input, int len, void* output) |
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{ |
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uchar hash[64]; |
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sph_jh256_context ctx; |
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sph_jh256_init(&ctx); |
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sph_jh256(&ctx, input, len); |
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sph_jh256_close(&ctx, hash); |
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memcpy(output, hash, 32); |
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} |
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static void do_skein_hash(const void* input, int len, void* output) |
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{ |
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uchar hash[32]; |
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sph_skein256_context ctx; |
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sph_skein256_init(&ctx); |
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sph_skein256(&ctx, input, len); |
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sph_skein256_close(&ctx, hash); |
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memcpy(output, hash, 32); |
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} |
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// todo: use sph if possible
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static void keccak_hash_permutation(union hash_state *state) { |
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keccakf((uint64_t*)state, 24); |
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} |
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static void keccak_hash_process(union hash_state *state, const uint8_t *buf, int count) { |
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keccak1600(buf, (int)count, (uint8_t*)state); |
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} |
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extern "C" int fast_aesb_single_round(const uint8_t *in, uint8_t*out, const uint8_t *expandedKey); |
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extern "C" int aesb_single_round(const uint8_t *in, uint8_t*out, const uint8_t *expandedKey); |
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extern "C" int aesb_pseudo_round_mut(uint8_t *val, uint8_t *expandedKey); |
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extern "C" int fast_aesb_pseudo_round_mut(uint8_t *val, uint8_t *expandedKey); |
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static void (* const extra_hashes[4])(const void*, int, void *) = { |
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do_blake_hash, do_groestl_hash, do_jh_hash, do_skein_hash |
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}; |
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static uint64_t mul128(uint64_t multiplier, uint64_t multiplicand, uint64_t* product_hi) |
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{ |
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// multiplier = ab = a * 2^32 + b
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// multiplicand = cd = c * 2^32 + d
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// ab * cd = a * c * 2^64 + (a * d + b * c) * 2^32 + b * d
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uint64_t a = hi_dword(multiplier); |
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uint64_t b = lo_dword(multiplier); |
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uint64_t c = hi_dword(multiplicand); |
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uint64_t d = lo_dword(multiplicand); |
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uint64_t ac = a * c; |
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uint64_t ad = a * d; |
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uint64_t bc = b * c; |
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uint64_t bd = b * d; |
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uint64_t adbc = ad + bc; |
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uint64_t adbc_carry = adbc < ad ? 1 : 0; |
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// multiplier * multiplicand = product_hi * 2^64 + product_lo
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uint64_t product_lo = bd + (adbc << 32); |
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uint64_t product_lo_carry = product_lo < bd ? 1 : 0; |
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*product_hi = ac + (adbc >> 32) + (adbc_carry << 32) + product_lo_carry; |
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return product_lo; |
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} |
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static size_t e2i(const uint8_t* a) { |
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//const uint32_t mask = (MEMORY / AES_BLOCK_SIZE - 1);
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//return (*((uint64_t*) a) / AES_BLOCK_SIZE) & mask;
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return *((uint64_t*) a) & 0xFFFF0; /* mask * AES_BLOCK_SIZE */ |
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} |
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static void mul(const uint8_t* a, const uint8_t* b, uint8_t* res) { |
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((uint64_t*) res)[1] = mul128(((uint64_t*) a)[0], ((uint64_t*) b)[0], (uint64_t*) res); |
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} |
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static void sum_half_blocks(uint8_t* a, const uint8_t* b) { |
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((uint64_t*) a)[0] += ((uint64_t*) b)[0]; |
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((uint64_t*) a)[1] += ((uint64_t*) b)[1]; |
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} |
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static void sum_half_blocks_dst(const uint8_t* a, const uint8_t* b, uint8_t* dst) { |
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((uint64_t*) dst)[0] = ((uint64_t*) a)[0] + ((uint64_t*) b)[0]; |
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((uint64_t*) dst)[1] = ((uint64_t*) a)[1] + ((uint64_t*) b)[1]; |
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} |
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static void mul_sum_dst(const uint8_t* a, const uint8_t* b, const uint8_t* c, uint8_t* dst) { |
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((uint64_t*) dst)[1] = mul128(((uint64_t*) a)[0], ((uint64_t*) b)[0], (uint64_t*) dst) + ((uint64_t*) c)[1]; |
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((uint64_t*) dst)[0] += ((uint64_t*) c)[0]; |
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} |
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static void mul_sum_xor_dst(const uint8_t* a, uint8_t* c, uint8_t* dst) { |
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uint64_t hi, lo = mul128(((uint64_t*) a)[0], ((uint64_t*) dst)[0], &hi) + ((uint64_t*) c)[1]; |
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hi += ((uint64_t*) c)[0]; |
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((uint64_t*) c)[0] = ((uint64_t*) dst)[0] ^ hi; |
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((uint64_t*) c)[1] = ((uint64_t*) dst)[1] ^ lo; |
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((uint64_t*) dst)[0] = hi; |
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((uint64_t*) dst)[1] = lo; |
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} |
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static void copy_block(uint8_t* dst, const uint8_t* src) { |
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((uint64_t*) dst)[0] = ((uint64_t*) src)[0]; |
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((uint64_t*) dst)[1] = ((uint64_t*) src)[1]; |
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} |
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|
||||
static void xor_blocks(uint8_t* a, const uint8_t* b) { |
||||
((uint64_t*) a)[0] ^= ((uint64_t*) b)[0]; |
||||
((uint64_t*) a)[1] ^= ((uint64_t*) b)[1]; |
||||
} |
||||
|
||||
static void xor_blocks_dst(const uint8_t* a, const uint8_t* b, uint8_t* dst) { |
||||
((uint64_t*) dst)[0] = ((uint64_t*) a)[0] ^ ((uint64_t*) b)[0]; |
||||
((uint64_t*) dst)[1] = ((uint64_t*) a)[1] ^ ((uint64_t*) b)[1]; |
||||
} |
||||
|
||||
static void cryptolight_hash_ctx(void* output, const void* input, const int len, struct cryptonight_ctx* ctx) |
||||
{ |
||||
size_t i, j; |
||||
keccak_hash_process(&ctx->state.hs, (const uint8_t*) input, len); |
||||
ctx->aes_ctx = (oaes_ctx*) oaes_alloc(); |
||||
memcpy(ctx->text, ctx->state.init, INIT_SIZE_BYTE); |
||||
|
||||
oaes_key_import_data(ctx->aes_ctx, ctx->state.hs.b, AES_KEY_SIZE); |
||||
for (i = 0; likely(i < MEMORY); i += INIT_SIZE_BYTE) { |
||||
#undef RND |
||||
#define RND(p) aesb_pseudo_round_mut(&ctx->text[AES_BLOCK_SIZE * p], ctx->aes_ctx->key->exp_data); |
||||
RND(0); |
||||
RND(1); |
||||
RND(2); |
||||
RND(3); |
||||
RND(4); |
||||
RND(5); |
||||
RND(6); |
||||
RND(7); |
||||
memcpy(&ctx->long_state[i], ctx->text, INIT_SIZE_BYTE); |
||||
} |
||||
|
||||
xor_blocks_dst(&ctx->state.k[0], &ctx->state.k[32], ctx->a); |
||||
xor_blocks_dst(&ctx->state.k[16], &ctx->state.k[48], ctx->b); |
||||
|
||||
for (i = 0; likely(i < ITER / 4); ++i) { |
||||
j = e2i(ctx->a); |
||||
aesb_single_round(&ctx->long_state[j], ctx->c, ctx->a); |
||||
xor_blocks_dst(ctx->c, ctx->b, &ctx->long_state[j]); |
||||
|
||||
mul_sum_xor_dst(ctx->c, ctx->a, &ctx->long_state[e2i(ctx->c)]); |
||||
|
||||
j = e2i(ctx->a); |
||||
aesb_single_round(&ctx->long_state[j], ctx->b, ctx->a); |
||||
xor_blocks_dst(ctx->b, ctx->c, &ctx->long_state[j]); |
||||
|
||||
mul_sum_xor_dst(ctx->b, ctx->a, &ctx->long_state[e2i(ctx->b)]); |
||||
} |
||||
|
||||
memcpy(ctx->text, ctx->state.init, INIT_SIZE_BYTE); |
||||
oaes_key_import_data(ctx->aes_ctx, &ctx->state.hs.b[32], AES_KEY_SIZE); |
||||
for (i = 0; likely(i < MEMORY); i += INIT_SIZE_BYTE) { |
||||
#undef RND |
||||
#define RND(p) xor_blocks(&ctx->text[p * AES_BLOCK_SIZE], &ctx->long_state[i + p * AES_BLOCK_SIZE]); \ |
||||
aesb_pseudo_round_mut(&ctx->text[p * AES_BLOCK_SIZE], ctx->aes_ctx->key->exp_data); |
||||
RND(0); |
||||
RND(1); |
||||
RND(2); |
||||
RND(3); |
||||
RND(4); |
||||
RND(5); |
||||
RND(6); |
||||
RND(7); |
||||
} |
||||
memcpy(ctx->state.init, ctx->text, INIT_SIZE_BYTE); |
||||
keccak_hash_permutation(&ctx->state.hs); |
||||
|
||||
int extra_algo = ctx->state.hs.b[0] & 3; |
||||
extra_hashes[extra_algo](&ctx->state, 200, output); |
||||
if (opt_debug) applog(LOG_DEBUG, "extra algo=%d", extra_algo); |
||||
|
||||
oaes_free((OAES_CTX **) &ctx->aes_ctx); |
||||
} |
||||
|
||||
void cryptolight_hash(void* output, const void* input, int len) |
||||
{ |
||||
struct cryptonight_ctx *ctx = (struct cryptonight_ctx*)malloc(sizeof(struct cryptonight_ctx)); |
||||
cryptolight_hash_ctx(output, input, len, ctx); |
||||
free(ctx); |
||||
} |
||||
@ -0,0 +1,166 @@
@@ -0,0 +1,166 @@
|
||||
|
||||
#include "cryptolight.h" |
||||
|
||||
extern char *device_config[MAX_GPUS]; // -l 32x16 |
||||
|
||||
static __thread uint32_t cn_blocks = 32; |
||||
static __thread uint32_t cn_threads = 16; |
||||
|
||||
static uint32_t *d_long_state[MAX_GPUS]; |
||||
static uint32_t *d_ctx_state[MAX_GPUS]; |
||||
static uint32_t *d_ctx_key1[MAX_GPUS]; |
||||
static uint32_t *d_ctx_key2[MAX_GPUS]; |
||||
static uint32_t *d_ctx_text[MAX_GPUS]; |
||||
static uint32_t *d_ctx_a[MAX_GPUS]; |
||||
static uint32_t *d_ctx_b[MAX_GPUS]; |
||||
|
||||
static bool init[MAX_GPUS] = { 0 }; |
||||
|
||||
extern "C" int scanhash_cryptolight(int thr_id, struct work* work, uint32_t max_nonce, unsigned long *hashes_done) |
||||
{ |
||||
int res = 0; |
||||
uint32_t throughput = 0; |
||||
|
||||
uint32_t *ptarget = work->target; |
||||
uint8_t *pdata = (uint8_t*) work->data; |
||||
uint32_t *nonceptr = (uint32_t*) (&pdata[39]); |
||||
const uint32_t first_nonce = *nonceptr; |
||||
uint32_t nonce = first_nonce; |
||||
|
||||
if(opt_benchmark) { |
||||
ptarget[7] = 0x00ff; |
||||
} |
||||
|
||||
if(!init[thr_id]) |
||||
{ |
||||
if (device_config[thr_id]) { |
||||
sscanf(device_config[thr_id], "%ux%u", &cn_blocks, &cn_threads); |
||||
throughput = cuda_default_throughput(thr_id, cn_blocks*cn_threads); |
||||
gpulog(LOG_INFO, thr_id, "Using %u x %u kernel launch config, %u threads", |
||||
cn_blocks, cn_threads, throughput); |
||||
} else { |
||||
throughput = cuda_default_throughput(thr_id, cn_blocks*cn_threads); |
||||
if (throughput != cn_blocks*cn_threads && cn_threads) { |
||||
cn_blocks = throughput / cn_threads; |
||||
throughput = cn_threads * cn_blocks; |
||||
} |
||||
gpulog(LOG_INFO, thr_id, "Intensity set to %g, %u threads (%ux%u)", |
||||
throughput2intensity(throughput), throughput, cn_blocks, cn_threads); |
||||
} |
||||
|
||||
if(sizeof(size_t) == 4 && throughput > UINT32_MAX / MEMORY) { |
||||
gpulog(LOG_ERR, thr_id, "THE 32bit VERSION CAN'T ALLOCATE MORE THAN 4GB OF MEMORY!"); |
||||
gpulog(LOG_ERR, thr_id, "PLEASE REDUCE THE NUMBER OF THREADS OR BLOCKS"); |
||||
exit(1); |
||||
} |
||||
|
||||
cudaSetDevice(device_map[thr_id]); |
||||
if (opt_cudaschedule == -1 && gpu_threads == 1) { |
||||
cudaDeviceReset(); |
||||
cudaSetDeviceFlags(cudaDeviceScheduleBlockingSync); |
||||
cudaDeviceSetCacheConfig(cudaFuncCachePreferL1); |
||||
CUDA_LOG_ERROR(); |
||||
} |
||||
|
||||
const size_t alloc = MEMORY * throughput; |
||||
cryptonight_extra_cpu_init(thr_id, throughput); |
||||
|
||||
cudaMalloc(&d_long_state[thr_id], alloc); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_state[thr_id], 50 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_key1[thr_id], 40 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_key2[thr_id], 40 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_text[thr_id], 32 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_a[thr_id], 4 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
cudaMalloc(&d_ctx_b[thr_id], 4 * sizeof(uint32_t) * throughput); |
||||
exit_if_cudaerror(thr_id, __FUNCTION__, __LINE__); |
||||
|
||||
init[thr_id] = true; |
||||
} |
||||
|
||||
throughput = cuda_default_throughput(thr_id, cn_blocks*cn_threads); |
||||
|
||||
do |
||||
{ |
||||
const uint32_t Htarg = ptarget[7]; |
||||
uint32_t resNonces[2] = { UINT32_MAX, UINT32_MAX }; |
||||
|
||||
cryptonight_extra_cpu_setData(thr_id, pdata, ptarget); |
||||
cryptonight_extra_cpu_prepare(thr_id, throughput, nonce, d_ctx_state[thr_id], d_ctx_a[thr_id], d_ctx_b[thr_id], d_ctx_key1[thr_id], d_ctx_key2[thr_id]); |
||||
cryptolight_core_cpu_hash(thr_id, cn_blocks, cn_threads, d_long_state[thr_id], d_ctx_state[thr_id], d_ctx_a[thr_id], d_ctx_b[thr_id], d_ctx_key1[thr_id], d_ctx_key2[thr_id]); |
||||
cryptonight_extra_cpu_final(thr_id, throughput, nonce, resNonces, d_ctx_state[thr_id]); |
||||
|
||||
*hashes_done = nonce - first_nonce + throughput; |
||||
|
||||
if(resNonces[0] != UINT32_MAX) |
||||
{ |
||||
uint32_t vhash[8]; |
||||
uint32_t tempdata[19]; |
||||
uint32_t *tempnonceptr = (uint32_t*)(((char*)tempdata) + 39); |
||||
memcpy(tempdata, pdata, 76); |
||||
*tempnonceptr = resNonces[0]; |
||||
cryptolight_hash(vhash, tempdata, 76); |
||||
if(vhash[7] <= Htarg && fulltest(vhash, ptarget)) |
||||
{ |
||||
res = 1; |
||||
work->nonces[0] = resNonces[0]; |
||||
work_set_target_ratio(work, vhash); |
||||
// second nonce |
||||
if(resNonces[1] != UINT32_MAX) |
||||
{ |
||||
*tempnonceptr = resNonces[1]; |
||||
cryptolight_hash(vhash, tempdata, 76); |
||||
if(vhash[7] <= Htarg && fulltest(vhash, ptarget)) { |
||||
res++; |
||||
work->nonces[1] = resNonces[1]; |
||||
} else if (vhash[7] > Htarg) { |
||||
gpulog(LOG_WARNING, thr_id, "result for second nonce %08x does not validate on CPU!", resNonces[1]); |
||||
} |
||||
} |
||||
goto done; |
||||
} else if (vhash[7] > Htarg) { |
||||
gpulog(LOG_WARNING, thr_id, "result for nonce %08x does not validate on CPU!", resNonces[0]); |
||||
} |
||||
} |
||||
|
||||
if ((uint64_t) throughput + nonce >= max_nonce - 127) { |
||||
nonce = max_nonce; |
||||
break; |
||||
} |
||||
|
||||
nonce += throughput; |
||||
gpulog(LOG_DEBUG, thr_id, "nonce %08x", nonce); |
||||
|
||||
} while (!work_restart[thr_id].restart && max_nonce > (uint64_t)throughput + nonce); |
||||
|
||||
done: |
||||
gpulog(LOG_DEBUG, thr_id, "nonce %08x exit", nonce); |
||||
work->valid_nonces = res; |
||||
*nonceptr = nonce; |
||||
return res; |
||||
} |
||||
|
||||
void free_cryptolight(int thr_id) |
||||
{ |
||||
if (!init[thr_id]) |
||||
return; |
||||
|
||||
cudaFree(d_long_state[thr_id]); |
||||
cudaFree(d_ctx_state[thr_id]); |
||||
cudaFree(d_ctx_key1[thr_id]); |
||||
cudaFree(d_ctx_key2[thr_id]); |
||||
cudaFree(d_ctx_text[thr_id]); |
||||
cudaFree(d_ctx_a[thr_id]); |
||||
cudaFree(d_ctx_b[thr_id]); |
||||
|
||||
cryptonight_extra_cpu_free(thr_id); |
||||
|
||||
cudaDeviceSynchronize(); |
||||
|
||||
init[thr_id] = false; |
||||
} |
||||
@ -0,0 +1,141 @@
@@ -0,0 +1,141 @@
|
||||
#pragma once |
||||
#include <cuda_runtime.h> |
||||
#include <miner.h> |
||||
|
||||
#ifdef __INTELLISENSE__ |
||||
/* avoid red underlining */ |
||||
#define __CUDA_ARCH__ 520 |
||||
struct uint3 { |
||||
unsigned int x, y, z; |
||||
}; |
||||
struct uint3 threadIdx; |
||||
struct uint3 blockIdx; |
||||
struct uint3 blockDim; |
||||
#define atomicExch(p,y) (*p) = y |
||||
#define __funnelshift_r(a,b,c) 1 |
||||
#define __syncthreads() |
||||
#define asm(x) |
||||
#define __shfl(a,b,c) 1 |
||||
#endif |
||||
|
||||
#define MEMORY (1UL << 20) /* 1 MiB - 1048576 */ |
||||
#define ITER (1UL << 19) /* 512k */ |
||||
#define E2I_MASK1 0xFFFF0 /* MEMORY / AES_BLOCK_SIZE - 1 = 0xFFFF */ |
||||
#define E2I_MASK2 0x3FFFC /* 0xFFFF0 >> 2 */ |
||||
|
||||
#define AES_BLOCK_SIZE 16 |
||||
#define AES_KEY_SIZE 32 |
||||
#define INIT_SIZE_BLK 8 |
||||
#define INIT_SIZE_BYTE (INIT_SIZE_BLK * AES_BLOCK_SIZE) // 128 B
|
||||
|
||||
#define AES_RKEY_LEN 4 |
||||
#define AES_COL_LEN 4 |
||||
#define AES_ROUND_BASE 7 |
||||
|
||||
#ifndef HASH_SIZE |
||||
#define HASH_SIZE 32 |
||||
#endif |
||||
|
||||
#ifndef HASH_DATA_AREA |
||||
#define HASH_DATA_AREA 136 |
||||
#endif |
||||
|
||||
#define hi_dword(x) (x >> 32) |
||||
#define lo_dword(x) (x & 0xFFFFFFFF) |
||||
|
||||
#define C32(x) ((uint32_t)(x ## U)) |
||||
#define T32(x) ((x) & C32(0xFFFFFFFF)) |
||||
|
||||
#ifndef ROTL64 |
||||
#if __CUDA_ARCH__ >= 350 |
||||
__forceinline__ __device__ uint64_t cuda_ROTL64(const uint64_t value, const int offset) { |
||||
uint2 result; |
||||
if(offset >= 32) { |
||||
asm("shf.l.wrap.b32 %0, %1, %2, %3;" : "=r"(result.x) : "r"(__double2loint(__longlong_as_double(value))), "r"(__double2hiint(__longlong_as_double(value))), "r"(offset)); |
||||
asm("shf.l.wrap.b32 %0, %1, %2, %3;" : "=r"(result.y) : "r"(__double2hiint(__longlong_as_double(value))), "r"(__double2loint(__longlong_as_double(value))), "r"(offset)); |
||||
} else { |
||||
asm("shf.l.wrap.b32 %0, %1, %2, %3;" : "=r"(result.x) : "r"(__double2hiint(__longlong_as_double(value))), "r"(__double2loint(__longlong_as_double(value))), "r"(offset)); |
||||
asm("shf.l.wrap.b32 %0, %1, %2, %3;" : "=r"(result.y) : "r"(__double2loint(__longlong_as_double(value))), "r"(__double2hiint(__longlong_as_double(value))), "r"(offset)); |
||||
} |
||||
return __double_as_longlong(__hiloint2double(result.y, result.x)); |
||||
} |
||||
#define ROTL64(x, n) (cuda_ROTL64(x, n)) |
||||
#else |
||||
#define ROTL64(x, n) (((x) << (n)) | ((x) >> (64 - (n)))) |
||||
#endif |
||||
#endif |
||||
|
||||
#ifndef ROTL32 |
||||
#if __CUDA_ARCH__ < 350 |
||||
#define ROTL32(x, n) T32(((x) << (n)) | ((x) >> (32 - (n)))) |
||||
#else |
||||
#define ROTL32(x, n) __funnelshift_l( (x), (x), (n) ) |
||||
#endif |
||||
#endif |
||||
|
||||
#ifndef ROTR32 |
||||
#if __CUDA_ARCH__ < 350 |
||||
#define ROTR32(x, n) (((x) >> (n)) | ((x) << (32 - (n)))) |
||||
#else |
||||
#define ROTR32(x, n) __funnelshift_r( (x), (x), (n) ) |
||||
#endif |
||||
#endif |
||||
|
||||
#define MEMSET8(dst,what,cnt) { \ |
||||
int i_memset8; \ |
||||
uint64_t *out_memset8 = (uint64_t *)(dst); \ |
||||
for( i_memset8 = 0; i_memset8 < cnt; i_memset8++ ) \ |
||||
out_memset8[i_memset8] = (what); } |
||||
|
||||
#define MEMSET4(dst,what,cnt) { \ |
||||
int i_memset4; \ |
||||
uint32_t *out_memset4 = (uint32_t *)(dst); \ |
||||
for( i_memset4 = 0; i_memset4 < cnt; i_memset4++ ) \ |
||||
out_memset4[i_memset4] = (what); } |
||||
|
||||
#define MEMCPY8(dst,src,cnt) { \ |
||||
int i_memcpy8; \ |
||||
uint64_t *in_memcpy8 = (uint64_t *)(src); \ |
||||
uint64_t *out_memcpy8 = (uint64_t *)(dst); \ |
||||
for( i_memcpy8 = 0; i_memcpy8 < cnt; i_memcpy8++ ) \ |
||||
out_memcpy8[i_memcpy8] = in_memcpy8[i_memcpy8]; } |
||||
|
||||
#define MEMCPY4(dst,src,cnt) { \ |
||||
int i_memcpy4; \ |
||||
uint32_t *in_memcpy4 = (uint32_t *)(src); \ |
||||
uint32_t *out_memcpy4 = (uint32_t *)(dst); \ |
||||
for( i_memcpy4 = 0; i_memcpy4 < cnt; i_memcpy4++ ) \ |
||||
out_memcpy4[i_memcpy4] = in_memcpy4[i_memcpy4]; } |
||||
|
||||
#define XOR_BLOCKS_DST(x,y,z) { \ |
||||
((uint64_t *)z)[0] = ((uint64_t *)(x))[0] ^ ((uint64_t *)(y))[0]; \ |
||||
((uint64_t *)z)[1] = ((uint64_t *)(x))[1] ^ ((uint64_t *)(y))[1]; } |
||||
|
||||
union hash_state { |
||||
uint8_t b[200]; |
||||
uint64_t w[25]; |
||||
}; |
||||
|
||||
union cn_slow_hash_state { |
||||
union hash_state hs; |
||||
struct { |
||||
uint8_t k[64]; |
||||
uint8_t init[INIT_SIZE_BYTE]; |
||||
}; |
||||
}; |
||||
|
||||
static inline void exit_if_cudaerror(int thr_id, const char *src, int line) |
||||
{ |
||||
cudaError_t err = cudaGetLastError(); |
||||
if(err != cudaSuccess) { |
||||
gpulog(LOG_ERR, thr_id, "%s %s line %d", cudaGetErrorString(err), src, line); |
||||
exit(1); |
||||
} |
||||
} |
||||
void cryptolight_core_cpu_hash(int thr_id, int blocks, int threads, uint32_t *d_long_state, uint32_t *d_ctx_state, uint32_t *d_ctx_a, uint32_t *d_ctx_b, uint32_t *d_ctx_key1, uint32_t *d_ctx_key2); |
||||
|
||||
void cryptonight_extra_cpu_setData(int thr_id, const void *data, const void *pTargetIn); |
||||
void cryptonight_extra_cpu_init(int thr_id, uint32_t threads); |
||||
void cryptonight_extra_cpu_free(int thr_id); |
||||
void cryptonight_extra_cpu_prepare(int thr_id, uint32_t threads, uint32_t startNonce, uint32_t *d_ctx_state, uint32_t *d_ctx_a, uint32_t *d_ctx_b, uint32_t *d_ctx_key1, uint32_t *d_ctx_key2); |
||||
void cryptonight_extra_cpu_final(int thr_id, uint32_t threads, uint32_t startNonce, uint32_t *nonce, uint32_t *d_ctx_state); |
||||
Loading…
Reference in new issue