user: 提供的汇编代码用C语言表示会是什么样子：

```asm
<hmmtop_usage>:
  endbr64
  sub    $0x8,%rsp
  mov    %rdi,%rsi
  lea    D600(%rip),%rdi
  xor    %eax,%eax
  call   <printf@plt>
  lea    D533(%rip),%rdi
  call   <puts@plt>
  lea    D532(%rip),%rdi
  call   <puts@plt>
  lea    D124(%rip),%rdi
  call   <puts@plt>
  lea    D619(%rip),%rdi
  call   <puts@plt>
  lea    D102(%rip),%rdi
  call   <puts@plt>
  lea    D357(%rip),%rdi
  call   <puts@plt>
  lea    D3(%rip),%rdi
  call   <puts@plt>
  lea    D625(%rip),%rdi
  call   <puts@plt>
  lea    D528(%rip),%rdi
  call   <puts@plt>
  lea    D376(%rip),%rdi
  call   <puts@plt>
  lea    D618(%rip),%rdi
  call   <puts@plt>
  lea    D607(%rip),%rdi
  call   <puts@plt>
  lea    D605(%rip),%rdi
  call   <puts@plt>
  lea    D324(%rip),%rdi
  call   <puts@plt>
  lea    D59(%rip),%rdi
  call   <puts@plt>
  lea    D253(%rip),%rdi
  call   <puts@plt>
  lea    D608(%rip),%rdi
  call   <puts@plt>
  lea    D121(%rip),%rdi
  call   <puts@plt>
  lea    D494(%rip),%rdi
  call   <puts@plt>
  lea    D629(%rip),%rdi
  call   <puts@plt>
  lea    D620(%rip),%rdi
  call   <puts@plt>
  lea    D566(%rip),%rdi
  call   <puts@plt>
  lea    D578(%rip),%rdi
  call   <puts@plt>
  lea    D310(%rip),%rdi
  call   <puts@plt>
  lea    D390(%rip),%rdi
  call   <puts@plt>
  lea    D168(%rip),%rdi
  call   <puts@plt>
  lea    D471(%rip),%rdi
  call   <puts@plt>
  lea    D208(%rip),%rdi
  call   <puts@plt>
  lea    D486(%rip),%rdi
  call   <puts@plt>
  lea    D274(%rip),%rdi
  call   <puts@plt>
  lea    D275(%rip),%rdi
  call   <puts@plt>
  lea    D282(%rip),%rdi
  call   <puts@plt>
  lea    D596(%rip),%rdi
  call   <puts@plt>
  lea    D44(%rip),%rdi
  call   <puts@plt>
  lea    D294(%rip),%rdi
  call   <puts@plt>
  lea    D268(%rip),%rdi
  call   <puts@plt>
  lea    D384(%rip),%rdi
  call   <puts@plt>
  lea    D290(%rip),%rdi
  call   <puts@plt>
  lea    D599(%rip),%rdi
  call   <puts@plt>
  lea    D495(%rip),%rdi
  call   <puts@plt>
  lea    D301(%rip),%rdi
  call   <puts@plt>
  lea    D140(%rip),%rdi
  call   <puts@plt>
  lea    D14(%rip),%rdi
  call   <puts@plt>
  lea    D422(%rip),%rdi
  call   <puts@plt>
  lea    D392(%rip),%rdi
  call   <puts@plt>
  lea    D398(%rip),%rdi
  call   <puts@plt>
  lea    D89(%rip),%rdi
  call   <puts@plt>
  lea    D212(%rip),%rdi
  call   <puts@plt>
  lea    D426(%rip),%rdi
  call   <puts@plt>
  lea    D104(%rip),%rdi
  call   <puts@plt>
  lea    D493(%rip),%rdi
  call   <puts@plt>
  lea    D593(%rip),%rdi
  call   <puts@plt>
  lea    D485(%rip),%rdi
  call   <puts@plt>
  lea    D365(%rip),%rdi
  call   <puts@plt>
  lea    D439(%rip),%rdi
  call   <puts@plt>
  lea    D55(%rip),%rdi
  call   <puts@plt>
  lea    D538(%rip),%rdi
  call   <puts@plt>
  lea    D560(%rip),%rdi
  call   <puts@plt>
  lea    D443(%rip),%rdi
  call   <puts@plt>
  lea    D332(%rip),%rdi
  call   <puts@plt>
  lea    D454(%rip),%rdi
  call   <puts@plt>
  lea    D141(%rip),%rdi
  call   <puts@plt>
  xor    %edi,%edi
  add    $0x8,%rsp
  jmp    1090 <exit@plt>
```

tool_calls: name: unpack_data
arguments: tag: D600
type: string
name: unpack_data
arguments: tag: D533
type: string
name: unpack_data
arguments: tag: D532
type: string
name: unpack_data
arguments: tag: D124
type: string
name: unpack_data
arguments: tag: D619
type: string
name: unpack_data
arguments: tag: D102
type: string
name: unpack_data
arguments: tag: D357
type: string
name: unpack_data
arguments: tag: D3
type: string
name: unpack_data
arguments: tag: D625
type: string
name: unpack_data
arguments: tag: D528
type: string
name: unpack_data
arguments: tag: D376
type: string
name: unpack_data
arguments: tag: D618
type: string
name: unpack_data
arguments: tag: D607
type: string
name: unpack_data
arguments: tag: D605
type: string
name: unpack_data
arguments: tag: D324
type: string
name: unpack_data
arguments: tag: D59
type: string
name: unpack_data
arguments: tag: D253
type: string
name: unpack_data
arguments: tag: D608
type: string
name: unpack_data
arguments: tag: D121
type: string
name: unpack_data
arguments: tag: D494
type: string
name: unpack_data
arguments: tag: D629
type: string
name: unpack_data
arguments: tag: D620
type: string
name: unpack_data
arguments: tag: D566
type: string
name: unpack_data
arguments: tag: D578
type: string
name: unpack_data
arguments: tag: D310
type: string
name: unpack_data
arguments: tag: D390
type: string
name: unpack_data
arguments: tag: D168
type: string
name: unpack_data
arguments: tag: D471
type: string
name: unpack_data
arguments: tag: D208
type: string
name: unpack_data
arguments: tag: D486
type: string
name: unpack_data
arguments: tag: D274
type: string
name: unpack_data
arguments: tag: D275
type: string
name: unpack_data
arguments: tag: D282
type: string
name: unpack_data
arguments: tag: D596
type: string
name: unpack_data
arguments: tag: D44
type: string
name: unpack_data
arguments: tag: D294
type: string
name: unpack_data
arguments: tag: D268
type: string
name: unpack_data
arguments: tag: D384
type: string
name: unpack_data
arguments: tag: D290
type: string
name: unpack_data
arguments: tag: D599
type: string
name: unpack_data
arguments: tag: D495
type: string
name: unpack_data
arguments: tag: D301
type: string
name: unpack_data
arguments: tag: D140
type: string
name: unpack_data
arguments: tag: D14
type: string
name: unpack_data
arguments: tag: D422
type: string
name: unpack_data
arguments: tag: D392
type: string
name: unpack_data
arguments: tag: D398
type: string
name: unpack_data
arguments: tag: D89
type: string
name: unpack_data
arguments: tag: D212
type: string
name: unpack_data
arguments: tag: D426
type: string
name: unpack_data
arguments: tag: D104
type: string
name: unpack_data
arguments: tag: D493
type: string
name: unpack_data
arguments: tag: D593
type: string
name: unpack_data
arguments: tag: D485
type: string
name: unpack_data
arguments: tag: D365
type: string
name: unpack_data
arguments: tag: D439
type: string
name: unpack_data
arguments: tag: D55
type: string
name: unpack_data
arguments: tag: D538
type: string
name: unpack_data
arguments: tag: D560
type: string
name: unpack_data
arguments: tag: D443
type: string
name: unpack_data
arguments: tag: D332
type: string
name: unpack_data
arguments: tag: D454
type: string
name: unpack_data
arguments: tag: D141
type: string

tool: D600: Usage: "%s options", where options are the following:


tool: D533: 
    -if=filename, --input_file=filename

tool: D532:           path and name of the input sequence file.  If  filename

tool: D124:           is -- program reads from the standard input.

tool: D619: 
    -of=filename, --output_file=filename

tool: D102:           path and name of the output sequence file. If  filename

tool: D357:           is -- program writes to the standard output.

tool: D3: 
    -lf=filename, --log_file=filename

tool: D625:           path and name of the log file.  Use  only for debugging

tool: D528:           purpose.

tool: D376: 
    -sf=XXX, --sequence_format=XXX

tool: D618:           format of sequence(s).  XXX may be FAS for fasta format

tool: D607:           (default), PIR for NBRF/PIR format or  SWP  for  SWISS-

tool: D605:           PROT format.

tool: D324: 
    -pi=xxx, --proces_inputfile=xxx

tool: D59:           treating sequences in input file as single or homologue

tool: D253:           sequences. xxx may be spred or mpred.  In case of spred

tool: D608:           for each sequence in input_file will be made prediction

tool: D121:           (default). In case of mpred only for the first sequence

tool: D494:           in the input file will  be made  prediction,  remaining

tool: D629:           sequences will be treated as helpers.

tool: D620: 
    -ps=xxx, --pseudo_size=xxx

tool: D566:           size of the pseudo count vector.  xxx may be from 0 (no

tool: D578:           pseudo count vector used) to 10000 (default=10000).

tool: D310: 
    -loc=bpos-epos-spart, --locate=bpos-epos-spart

tool: D390:           localize a portion of the sequence in a given structur-

tool: D168:           al part.  bpos and  epos are the begin and end position

tool: D471:           in the sequence, respectively;  spart is the structural

tool: D208:           part and may be i,I,H,o and O.  epos  may be the letter

tool: D486:           'E', which means the C terminal end of the sequence

tool: D274: 
    -locf=filename, --loc_file=filename

tool: D275:           name of the  'locate file',  which contains the locates

tool: D282:           for each protein  if multiple  sequences with  pi=spred

tool: D596:           are given.  Each line contains one or more locates. The

tool: D44:           format of the locates are as given in the -loc= switch.

tool: D294: 
    -noit, --noiteration

tool: D268:           do not optimize the parameters on the given sequence(s)

tool: D384:           just calculate the best path if the model is given.  It

tool: D290:           is useful for rapid but not so accurate prediction.

tool: D599: 
    -is=xxx, --iteration_start=xxx

tool: D495:           starting point of the iteration(s).  xxx  may be pseudo

tool: D301:           or random.  In case of pseudo iteration starts from the

tool: D140:           pseudo  count  vector  (default).  In  case  of  random

tool: D14:           iteration starts from random values.

tool: D422: 
    -in=xxx, --iteration_number=xxx

tool: D392:           maximum allowed iterations (if is=random).

tool: D398: 
    -pp, --print_probabilities

tool: D89:           print the optimized probabilies.

tool: D212: 
    -pc, --print_pseudocount

tool: D426:           print the pseudocount vector used.

tool: D104: 
    -pl, --print_longprediction

tool: D493:           print prediction in a long format,  ie. localization of

tool: D593:           each amino acid in the input sequence.

tool: D485: 
    -h, --help

tool: D365:           this help message.

tool: D439: 
    -sh, --short_help

tool: D55:           print a short help message.

tool: D538: 

References:

tool: D560:           G.E. Tusnady and I. Simon (1998)

tool: D443:           Principles Governing Amino Acid Composition of Integral

tool: D332:           Membrane Proteins:  Applications to topology prediction

tool: D454:           J. Mol. Biol. 283, 489-506

tool: D141:           http://www.enzim.hu/hmmtop


assistant: ```c
void hmmtop_usage(char *pn) {
  printf("Usage: \"%s options\", where options are the following:\n", pn);
  printf("\n    -if=filename, --input_file=filename\n");
  printf("          path and name of the input sequence file.  If  filename\n");
  printf("          is -- program reads from the standard input.\n");
  printf("\n    -of=filename, --output_file=filename\n");
  printf("          path and name of the output sequence file. If  filename\n");
  printf("          is -- program writes to the standard output.\n");
  printf("\n    -lf=filename, --log_file=filename\n");
  printf("          path and name of the log file.  Use  only for debugging\n");
  printf("          purpose.\n");
  printf("\n    -sf=XXX, --sequence_format=XXX\n");
  printf("          format of sequence(s).  XXX may be FAS for fasta format\n");
  printf("          (default), PIR for NBRF/PIR format or  SWP  for  SWISS-\n");
  printf("          PROT format.\n");
  printf("\n    -pi=xxx, --proces_inputfile=xxx\n");
  printf("          treating sequences in input file as single or homologue\n");
  printf("          sequences. xxx may be spred or mpred.  In case of spred\n");
  printf("          for each sequence in input_file will be made prediction\n");
  printf("          (default). In case of mpred only for the first sequence\n");
  printf("          in the input file will  be made  prediction,  remaining\n");
  printf("          sequences will be treated as helpers.\n");
  printf("\n    -ps=xxx, --pseudo_size=xxx\n");
  printf("          size of the pseudo count vector.  xxx may be from 0 (no\n");
  printf("          pseudo count vector used) to 10000 (default=10000).\n");
  printf("\n    -loc=bpos-epos-spart, --locate=bpos-epos-spart\n");
  printf("          localize a portion of the sequence in a given structur-\n");
  printf("          al part.  bpos and  epos are the begin and end position\n");
  printf("          in the sequence, respectively;  spart is the structural\n");
  printf("          part and may be i,I,H,o and O.  epos  may be the letter\n");
  printf("          'E', which means the C terminal end of the sequence\n");
  printf("\n    -locf=filename, --loc_file=filename\n");
  printf("          name of the  'locate file',  which contains the locates\n");
  printf("          for each protein  if multiple  sequences with  pi=spred\n");
  printf("          are given.  Each line contains one or more locates. The\n");
  printf("          format of the locates are as given in the -loc= switch.\n");
  printf("\n    -noit, --noiteration\n");
  printf("          do not optimize the parameters on the given sequence(s)\n");
  printf("          just calculate the best path if the model is given.  It\n");
  printf("          is useful for rapid but not so accurate prediction.\n");
  printf("\n    -is=xxx, --iteration_start=xxx\n");
  printf("          starting point of the iteration(s).  xxx  may be pseudo\n");
  printf("          or random.  In case of pseudo iteration starts from the\n");
  printf("          pseudo  count  vector  (default).  In  case  of  random\n");
  printf("          iteration starts from random values.\n");
  printf("\n    -in=xxx, --iteration_number=xxx\n");
  printf("          maximum allowed iterations (if is=random).\n");
  printf("\n    -pp, --print_probabilities\n");
  printf("          print the optimized probabilies.\n");
  printf("\n    -pc, --print_pseudocount\n");
  printf("          print the pseudocount vector used.\n");
  printf("\n    -pl, --print_longprediction\n");
  printf("          print prediction in a long format,  ie. localization of\n");
  printf("          each amino acid in the input sequence.\n");
  printf("\n    -h, --help\n");
  printf("          this help message.\n");
  printf("\n    -sh, --short_help\n");
  printf("          print a short help message.\n");
  printf("\n\nReferences:\n");
  printf("          G.E. Tusnady and I. Simon (1998)\n");
  printf("          Principles Governing Amino Acid Composition of Integral\n");
  printf("          Membrane Proteins:  Applications to topology prediction\n");
  printf("          J. Mol. Biol. 283, 489-506\n");
  printf("          http://www.enzim.hu/hmmtop\n\n");
  exit(0);
}
```