user: 下面的汇编指令对应的C源代码是什么:

```asm
<workload>:
  endbr64
  push   %r15
  push   %r14
  push   %r13
  push   %r12
  push   %rbp
  push   %rbx
  lea    -0xc0000(%rsp),%r11
L55:
  sub    $0x1000,%rsp
  orq    $0x0,(%rsp)
  cmp    %r11,%rsp
  jne    L55
  sub    $0x68,%rsp
  mov    %fs:0x28,%rax
  mov    %rax,0xc0058(%rsp)
  xor    %eax,%eax
  lea    0x1ff(%r8),%r9d
  test   %r8d,%r8d
  cmovns %r8d,%r9d
  sar    $0x9,%r9d
  cmp    $0xfffffc01,%r8d
  jl     L24
  lea    0xa0050(%rsp),%rax
  mov    %rdi,%r12
  mov    %rsi,%rbp
  xor    %ebx,%ebx
  mov    %rax,0x38(%rsp)
  lea    0x60050(%rsp),%rax
  mov    %r9d,%r15d
  lea    -0x20000(%rdx),%r14
  mov    %rax,0x8(%rsp)
  lea    0x30050(%rsp),%rax
  lea    -0x20000(%rcx),%r13
  mov    %rax,0x28(%rsp)
  lea    0x10050(%rsp),%rax
  mov    %rax,0x30(%rsp)
  lea    0x80050(%rsp),%rax
  mov    %rax,0x40(%rsp)
  lea    0x40050(%rsp),%rax
  mov    %rax,0x10(%rsp)
  lea    0x20050(%rsp),%rax
  mov    %rax,0x18(%rsp)
  lea    0x50(%rsp),%rax
  mov    %rax,0x20(%rsp)
  jmp    L35
  nopl   (%rax)
L33:
  mov    0x38(%rsp),%r8
  mov    0x8(%rsp),%rcx
  mov    0x28(%rsp),%rdx
  mov    0x30(%rsp),%rsi
  call   <buffer_compute@plt>
  mov    0x40(%rsp),%r8
  mov    %r13,%rcx
  mov    %r14,%rsi
  mov    0x10(%rsp),%rdx
  mov    0x4c(%rsp),%edi
  call   <buffer_store@plt>
  mov    0x18(%rsp),%r8
  mov    %rbp,%rcx
  mov    %r12,%rsi
  mov    0x20(%rsp),%rdx
  mov    0x48(%rsp),%edi
  call   <buffer_load@plt>
L48:
  lea    0x1(%rbx),%eax
  add    $0x10000,%r14
  add    $0x10000,%r13
  add    $0x8000,%r12
  add    $0x8000,%rbp
  cmp    %ebx,%r15d
  jl     L24
  mov    %eax,%ebx
L35:
  xor    %r10d,%r10d
  cmp    %ebx,%r15d
  setg   %r10b
  test   %ebx,%ebx
  setg   %al
  xor    %edi,%edi
  cmp    %ebx,%r15d
  mov    %r10d,0x48(%rsp)
  setge  %dil
  xor    %r11d,%r11d
  and    %eax,%edi
  cmp    $0x1,%ebx
  setg   %r11b
  mov    %r11d,0x4c(%rsp)
  test   $0x1,%bl
  je     L33
  mov    0x40(%rsp),%r8
  mov    0x10(%rsp),%rcx
  mov    0x18(%rsp),%rdx
  mov    0x20(%rsp),%rsi
  call   <buffer_compute@plt>
  mov    0x38(%rsp),%r8
  mov    %r13,%rcx
  mov    %r14,%rsi
  mov    0x8(%rsp),%rdx
  mov    0x4c(%rsp),%edi
  call   <buffer_store@plt>
  mov    0x28(%rsp),%r8
  mov    %rbp,%rcx
  mov    %r12,%rsi
  mov    0x30(%rsp),%rdx
  mov    0x48(%rsp),%edi
  call   <buffer_load@plt>
  jmp    L48
  nopl   0x0(%rax)
L24:
  mov    0xc0058(%rsp),%rax
  sub    %fs:0x28,%rax
  jne    L25
  add    $0xc0068,%rsp
  pop    %rbx
  pop    %rbp
  pop    %r12
  pop    %r13
  pop    %r14
  pop    %r15
  ret
L25:
  call   <__stack_chk_fail@plt>
```

assistant: ```c
void workload(uint64_t *SEQA, uint64_t *SEQB, uint64_t *alignedA, uint64_t *alignedB, int num_jobs) {
#pragma HLS INTERFACE m_axi port = SEQA offset = slave bundle = gmem
#pragma HLS INTERFACE m_axi port = SEQB offset = slave bundle = gmem
#pragma HLS INTERFACE m_axi port = alignedA offset = slave bundle = gmem
#pragma HLS INTERFACE m_axi port = alignedB offset = slave bundle = gmem
#pragma HLS INTERFACE s_axilite port = SEQA bundle = control
#pragma HLS INTERFACE s_axilite port = SEQB bundle = control
#pragma HLS INTERFACE s_axilite port = alignedA bundle = control
#pragma HLS INTERFACE s_axilite port = alignedB bundle = control
#pragma HLS INTERFACE s_axilite port = num_jobs bundle = control
#pragma HLS INTERFACE s_axilite port = return bundle = control
  int num_batches = num_jobs / 512;
  char seqA_buf_x[64][128 * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = seqA_buf_x complete dim = 1
  char seqA_buf_y[64][128 * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = seqA_buf_y complete dim = 1
  char seqB_buf_x[64][128 * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = seqB_buf_x complete dim = 1
  char seqB_buf_y[64][128 * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = seqB_buf_y complete dim = 1
  char alignedA_buf_x[64][(128 + 128) * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = alignedA_buf_x complete dim = 1
  char alignedA_buf_y[64][(128 + 128) * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = alignedA_buf_y complete dim = 1
  char alignedB_buf_x[64][(128 + 128) * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = alignedB_buf_x complete dim = 1
  char alignedB_buf_y[64][(128 + 128) * ((512) / (64))];
#pragma HLS ARRAY_PARTITION variable = alignedB_buf_y complete dim = 1
  int i;
  for (i = 0; i < num_batches + 2; i++) {
    int load_flag = i >= 0 && i < num_batches;
    int compute_flag = i >= 1 && i < num_batches + 1;
    int store_flag = i >= 2 && i < num_batches + 2;
    if (i % 2 == 0) {
      buffer_compute(compute_flag, seqA_buf_y, seqB_buf_y, alignedA_buf_y, alignedB_buf_y);
      buffer_store(store_flag, alignedA + (i - 2) * (128 + 128) * 512 / 8, alignedA_buf_x, alignedB + (i - 2) * (128 + 128) * 512 / 8, alignedB_buf_x);
      buffer_load(load_flag, SEQA + i * 128 * 512 / 8, seqA_buf_x, SEQB + i * 128 * 512 / 8, seqB_buf_x);
    } else {
      buffer_compute(compute_flag, seqA_buf_x, seqB_buf_x, alignedA_buf_x, alignedB_buf_x);
      buffer_store(store_flag, alignedA + (i - 2) * (128 + 128) * 512 / 8, alignedA_buf_y, alignedB + (i - 2) * (128 + 128) * 512 / 8, alignedB_buf_y);
      buffer_load(load_flag, SEQA + i * 128 * 512 / 8, seqA_buf_y, SEQB + i * 128 * 512 / 8, seqB_buf_y);
    }
  }
  return;
}
```