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#ifndef AWS_COMMON_MATH_GCC_X64_ASM_INL #define AWS_COMMON_MATH_GCC_X64_ASM_INL /** * Copyright Amazon.com, Inc. or its affiliates. All Rights Reserved. * SPDX-License-Identifier: Apache-2.0. */ /* * This header is already included, but include it again to make editor * highlighting happier. */ #include #include /* clang-format off */ AWS_EXTERN_C_BEGIN /** * Multiplies a * b. If the result overflows, returns 2^64 - 1. */ AWS_STATIC_IMPL uint64_t aws_mul_u64_saturating(uint64_t a, uint64_t b) { /* We can use inline assembly to do this efficiently on x86-64 and x86. we specify rdx as an output, rather than a clobber, because we want to allow it to be allocated as an input register */ uint64_t rdx; __asm__("mulq %q[arg2]\n" /* rax * b, result is in RDX:RAX, OF=CF=(RDX != 0) */ "cmovc %q[saturate], %%rax\n" : /* in/out: %rax = a, out: rdx (ignored) */ "+&a"(a), "=&d"(rdx) : /* in: register only */ [arg2] "r"(b), /* in: saturation value (reg/memory) */ [saturate] "rm"(~0LL) : /* clobbers: cc */ "cc"); (void)rdx; /* suppress unused warnings */ return a; } /** * If a * b overflows, returns AWS_OP_ERR; otherwise multiplies * a * b, returns the result in *r, and returns AWS_OP_SUCCESS. */ AWS_STATIC_IMPL int aws_mul_u64_checked(uint64_t a, uint64_t b, uint64_t *r) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ char flag; uint64_t result = a; __asm__("mulq %q[arg2]\n" /* rax * b, result is in RDX:RAX, OF=CF=(RDX != 0) */ "seto %[flag]\n" /* flag = overflow_bit */ : /* in/out: %rax (first arg & result), %d (flag) */ "+&a"(result), [flag] "=&d"(flag) : /* in: reg for 2nd operand */ [arg2] "r"(b) : /* clobbers: cc (d is used for flag so no need to clobber)*/ "cc"); *r = result; if (flag) { return aws_raise_error(AWS_ERROR_OVERFLOW_DETECTED); } return AWS_OP_SUCCESS; } /** * Multiplies a * b. If the result overflows, returns 2^32 - 1. */ AWS_STATIC_IMPL uint32_t aws_mul_u32_saturating(uint32_t a, uint32_t b) { /* We can use inline assembly to do this efficiently on x86-64 and x86. we specify edx as an output, rather than a clobber, because we want to allow it to be allocated as an input register */ uint32_t edx; __asm__("mull %k[arg2]\n" /* eax * b, result is in EDX:EAX, OF=CF=(EDX != 0) */ /* cmov isn't guaranteed to be available on x86-32 */ "jnc .1f%=\n" "mov $0xFFFFFFFF, %%eax\n" ".1f%=:" : /* in/out: %eax = result/a, out: edx (ignored) */ "+&a"(a), "=&d"(edx) : /* in: operand 2 in reg */ [arg2] "r"(b) : /* clobbers: cc */ "cc"); (void)edx; /* suppress unused warnings */ return a; } /** * If a * b overflows, returns AWS_OP_ERR; otherwise multiplies * a * b, returns the result in *r, and returns AWS_OP_SUCCESS. */ AWS_STATIC_IMPL int aws_mul_u32_checked(uint32_t a, uint32_t b, uint32_t *r) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ uint32_t result = a; char flag; /** * Note: We use SETNO which only takes a byte register. To make this easy, * we'll write it to dl (which we throw away anyway) and mask off the high bits. */ __asm__("mull %k[arg2]\n" /* eax * b, result is in EDX:EAX, OF=CF=(EDX != 0) */ "seto %[flag]\n" /* flag = overflow_bit */ : /* in/out: %eax (first arg & result), %d (flag) */ "+&a"(result), [flag] "=&d"(flag) : /* in: reg for 2nd operand */ [arg2] "r"(b) : /* clobbers: cc (d is used for flag so no need to clobber)*/ "cc"); *r = result; if (flag) { return aws_raise_error(AWS_ERROR_OVERFLOW_DETECTED); } return AWS_OP_SUCCESS; } /** * If a + b overflows, returns AWS_OP_ERR; otherwise adds * a + b, returns the result in *r, and returns AWS_OP_SUCCESS. */ AWS_STATIC_IMPL int aws_add_u64_checked(uint64_t a, uint64_t b, uint64_t *r) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ char flag; __asm__("addq %[argb], %[arga]\n" /* [arga] = [arga] + [argb] */ "setc %[flag]\n" /* [flag] = 1 if overflow, 0 otherwise */ : /* in/out: */ [arga] "+r"(a), [flag] "=&r"(flag) : /* in: */ [argb] "r"(b) : /* clobbers: */ "cc"); *r = a; if (flag) { return aws_raise_error(AWS_ERROR_OVERFLOW_DETECTED); } return AWS_OP_SUCCESS; } /** * Adds a + b. If the result overflows, returns 2^64 - 1. */ AWS_STATIC_IMPL uint64_t aws_add_u64_saturating(uint64_t a, uint64_t b) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ __asm__("addq %[arg1], %[arg2]\n" /* [arga] = [arga] + [argb] */ "cmovc %q[saturate], %[arg2]\n" : /* in/out: %rax = a, out: rdx (ignored) */ [arg2] "+r"(b) : /* in: register only */ [arg1] "r"(a), /* in: saturation value (reg/memory) */ [saturate] "rm"(~0LL) : /* clobbers: cc */ "cc"); return b; } /** * If a + b overflows, returns AWS_OP_ERR; otherwise adds * a + b, returns the result in *r, and returns AWS_OP_SUCCESS. */ AWS_STATIC_IMPL int aws_add_u32_checked(uint32_t a, uint32_t b, uint32_t *r) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ char flag; __asm__("addl %[argb], %[arga]\n" /* [arga] = [arga] + [argb] */ "setc %[flag]\n" /* [flag] = 1 if overflow, 0 otherwise */ : /* in/out: */ [arga] "+r"(a), [flag] "=&r"(flag) : /* in: */ [argb] "r"(b) : /* clobbers: */ "cc"); *r = a; if (flag) { return aws_raise_error(AWS_ERROR_OVERFLOW_DETECTED); } return AWS_OP_SUCCESS; } /** * Adds a + b. If the result overflows, returns 2^32 - 1. */ AWS_STATIC_IMPL uint32_t aws_add_u32_saturating(uint32_t a, uint32_t b) { /* We can use inline assembly to do this efficiently on x86-64 and x86. */ __asm__("addl %[arg1], %[arg2]\n" /* [arga] = [arga] + [argb] */ /* cmov isn't guaranteed to be available on x86-32 */ "jnc .1f%=\n" "mov $0xFFFFFFFF, %%eax\n" ".1f%=:" : /* in/out: %rax = a, out: rdx (ignored) */ [arg2] "+a"(b) : /* in: register only */ [arg1] "r"(a) : /* clobbers: cc */ "cc"); return b; } AWS_EXTERN_C_END /* clang-format on */ #endif /* AWS_COMMON_MATH_GCC_X64_ASM_INL */