int systemcall(struct PAR_REGS *regs)
{
char *cpp1, *cpp2, **cppp1; //3, *cpp4, *cpp5, *cpp6, **cppp1, **cppp2;
int i, ip1, ip2;
//unsigned long old_cr0;
switch (regs->eax) // Sys call number ?
{
case 0: return syscall_test();
case 1:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_open(CHARPPAR(regs->ebx), INTPAR(regs->ebx+4), INTPAR(regs+4+4));
case 2: return syscall_close(INTPAR(regs->ebx));
case 3:
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_read(INTPAR(regs->ebx), cpp1, INTPAR(regs->ebx+4+4));
case 4:
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_write(INTPAR(regs->ebx), cpp1, INTPAR(regs->ebx+4+4));
case 5: return syscall_lseek(INTPAR(regs->ebx), INTPAR(regs->ebx+4), INTPAR(regs->ebx+4+4));
case 6:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_mkdir(cpp1, INTPAR(regs->ebx+4));
case 7:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_rmdir(cpp1);
case 8:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_chdir(cpp1);
case 9:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_creat(cpp1, INTPAR(regs->ebx+4));
case 10:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_rename(CHARPPAR(regs->ebx), CHARPPAR(regs->ebx+4));
case 11:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return (int) syscall_opendir(CHARPPAR(regs->ebx), (DIR *)CHARPPAR(regs->ebx+4));
case 12:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_closedir((DIR *) CHARPPAR(regs->ebx));
case 13:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return (int) syscall_readdir((DIR *)CHARPPAR(regs->ebx));
case 14:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_stat(CHARPPAR(regs->ebx),(struct stat *)CHARPPAR(regs->ebx+4));
case 15:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_unlink(CHARPPAR(regs->ebx));
case 16:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_chmod(CHARPPAR(regs->ebx),(mode_t)INTPAR(regs->ebx+4));
case 17:
ip1 = INTPAR(regs->ebx);
return syscall_dup(ip1);
case 18:
ip1 = INTPAR(regs->ebx);
ip2 = INTPAR(regs->ebx + 4);
return syscall_dup2(ip1, ip2);
case 19: syscall_setcursor( INTPAR(regs->ebx),INTPAR(regs->ebx+4)); return 0;
case 20: return syscall_getchar();
case 21: return syscall_getchare();
case 22: return syscall_getscanchar();
case 23: return syscall_putchar(CHARPAR(regs->ebx));
case 24:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_puts(CHARPPAR(regs->ebx));
case 25:
cpp1 = CHARPPAR(regs->ebx);
ip1 = INTPAR(regs->ebx + 4);
syscall_seekdir((DIR *)cpp1, ip1);
return 0;
case 26:
cpp1 = CHARPPAR(regs->ebx);
return syscall_telldir((DIR *)cpp1);
case 27:
cpp1 = CHARPPAR(regs->ebx);
syscall_rewinddir((DIR *)cpp1);
return 0;
case 32:
cpp1 = CHARPPAR(regs->ebx+12);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_readblocks(INTPAR(regs->ebx), INTPAR(regs->ebx+4), INTPAR(regs->ebx+8), CHARPPAR(regs->ebx+12));
case 33:
cpp1 = CHARPPAR(regs->ebx+12);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_writeblocks(INTPAR(regs->ebx), INTPAR(regs->ebx+4), INTPAR(regs->ebx+8), CHARPPAR(regs->ebx+12));
case 34: syscall_sync(0); return 0;
case 50: syscall_tsleep(INTPAR(regs->ebx)); return 0;
case 60:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_tsendto(SHORTPAR(regs->ebx), CHARPPAR(regs->ebx+4), INTPAR(regs->ebx+8), INTPAR(regs->ebx+12), INTPAR(regs->ebx+16), SHORTPAR(regs->ebx+20));
case 62:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx + 8);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_trecvfrom(CHARPPAR(regs->ebx), INTPAR(regs->ebx+4), SHORTPPAR(regs->ebx+8), INTPAR(regs->ebx+12));
case 65:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cppp1 = (char **)CHARPPAR(regs->ebx+4);
i = 0;
while (cppp1[i] != NULL)
{
if (cppp1[i] < KERNELEND) return EINVALIDPTR;
i++;
}
cppp1 = (char **)CHARPPAR(regs->ebx+8);
i = 0;
while (cppp1[i] != NULL)
{
if (cppp1[i] < KERNELEND) return EINVALIDPTR;
i++;
}
return syscall_exectask(CHARPPAR(regs->ebx), (char **)CHARPPAR(regs->ebx+4), (char **)CHARPPAR(regs->ebx+8), INTPAR(regs->ebx+12));
case 66: syscall_exit(INTPAR(regs->ebx)); return 0;
case 70:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+8);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+12);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_create((pthread_t *)INTPPAR(regs->ebx), (pthread_attr_t *)CHARPPAR(regs->ebx+4), (void *(*)(void *))INTPPAR(regs->ebx+8), (void *)CHARPPAR(regs->ebx+12));
case 71:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
syscall_pthread_exit((void *)CHARPPAR(regs->ebx)); return 0;
case 72:
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_join((pthread_t)INTPAR(regs->ebx), (void **)CHARPPAR(regs->ebx+4));
case 73: return syscall_pthread_detach((pthread_t)INTPAR(regs->ebx));
case 74: return syscall_pthread_yield();
case 75:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_mutex_init((pthread_mutex_t *)INTPAR(regs->ebx), (pthread_mutexattr_t *)CHARPPAR(regs->ebx+4));
case 76:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_mutex_trylock((pthread_mutex_t *)INTPAR(regs->ebx));
case 77:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_mutex_lock((pthread_mutex_t *)INTPAR(regs->ebx));
case 78:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_mutex_unlock((pthread_mutex_t *)INTPAR(regs->ebx));
case 79:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_cond_init((pthread_cond_t *)INTPAR(regs->ebx), (pthread_condattr_t *)CHARPPAR(regs->ebx+4));
case 80:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_cond_wait((pthread_cond_t *)INTPAR(regs->ebx), (pthread_mutex_t *)INTPPAR(regs->ebx+4));
case 81:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_cond_signal((pthread_cond_t *)INTPAR(regs->ebx));
case 82:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_cond_broadcast((pthread_cond_t *)INTPAR(regs->ebx));
case 83:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_pthread_barrier_init((pthread_barrier_t *)INTPAR(regs->ebx), (pthread_barrierattr_t *)INTPPAR(regs->ebx+4), INTPAR(regs->ebx+8));
case 84:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_barrier_wait((pthread_barrier_t *)INTPAR(regs->ebx));
case 90: return syscall_socket(INTPAR(regs->ebx), INTPAR(regs->ebx+4), INTPAR(regs->ebx+8));
case 91:
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_bind(INTPAR(regs->ebx), (struct sockaddr *)INTPPAR(regs->ebx+4), SHORTPAR(regs->ebx+8));
case 92:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_recv(INTPAR(regs->ebx), (void *)CHARPPAR(regs->ebx+4), (size_t)INTPAR(regs->ebx+8), INTPAR(regs->ebx+12));
case 93:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+16);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+20);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_recvfrom(INTPAR(regs->ebx), (void *)CHARPPAR(regs->ebx+4), (size_t)INTPAR(regs->ebx+8), INTPAR(regs->ebx+12), (struct sockaddr *)CHARPPAR(regs->ebx+16), (socklen_t *)SHORTPPAR(regs->ebx+20));
case 94:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_send(INTPAR(regs->ebx), (void *)CHARPPAR(regs->ebx+4), (size_t)INTPAR(regs->ebx+8), INTPAR(regs->ebx+12));
case 95:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx + 16);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sendto(INTPAR(regs->ebx), (void *)CHARPPAR(regs->ebx+4), (size_t)INTPAR(regs->ebx+8), INTPAR(regs->ebx+12), (struct sockaddr *)CHARPPAR(regs->ebx+16), (socklen_t)SHORTPAR(regs->ebx+20));
case 96:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_connect(INTPAR(regs->ebx), (struct sockaddr *)CHARPPAR(regs->ebx+4), (socklen_t)SHORTPAR(regs->ebx+8));
case 97:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx + 8);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_accept(INTPAR(regs->ebx), (struct sockaddr *)CHARPPAR(regs->ebx+4), (socklen_t *)CHARPPAR(regs->ebx+8));
case 98: return syscall_listen(INTPAR(regs->ebx), INTPAR(regs->ebx+4));
case 99: return syscall_kill(INTPAR(regs->ebx));
case 100:
cpp1 = CHARPPAR(regs->ebx + 4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_getprocinfo(INTPAR(regs->ebx), (struct uprocinfo *)INTPPAR(regs->ebx+4));
case 101:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_getpids(INTPPAR(regs->ebx), INTPAR(regs->ebx+4));
case 102:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_init((sem_t *)(CHARPPAR(regs->ebx)), INTPAR(regs->ebx+4), (unsigned int)INTPAR(regs->ebx+8));
case 103:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_destroy((sem_t *)(CHARPPAR(regs->ebx)));
case 104:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+16);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return (int)syscall_sem_open(CHARPPAR(regs->ebx), INTPAR(regs->ebx+4), (mode_t)INTPAR(regs->ebx+8), INTPAR(regs->ebx+12), (sem_t *)CHARPPAR(regs->ebx+16));
case 105:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_close((sem_t *)(CHARPPAR(regs->ebx)));
case 106:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_unlink(CHARPPAR(regs->ebx));
case 107:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_wait((sem_t *)(CHARPPAR(regs->ebx)));
case 108:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_trywait((sem_t *)(CHARPPAR(regs->ebx)));
case 109:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_timedwait((sem_t *)(CHARPPAR(regs->ebx)), (const struct timespec *)CHARPPAR(regs->ebx+4));
case 110:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_post((sem_t *)(CHARPPAR(regs->ebx)));
case 111:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_sem_getvalue((sem_t *)(CHARPPAR(regs->ebx)), INTPPAR(regs->ebx+4));
case 112:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return (int)syscall_time((time_t *)(CHARPPAR(regs->ebx)));
case 113: return (int)syscall_pthread_self();
case 114:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND && cpp1 != NULL) return EINVALIDPTR;
return syscall_brk((void *)CHARPPAR(regs->ebx));
case 115:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+4);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp1 = CHARPPAR(regs->ebx+8);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_gettsc((unsigned int *)INTPPAR(regs->ebx), (unsigned int *)INTPPAR(regs->ebx+4), (unsigned int *)INTPPAR(regs->ebx+8));
case 140:
print_core_info();
print_minf_statistics();
return 0;
case 147:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_wait(INTPPAR(regs->ebx));
case 148:
return syscall_pageinfo(INTPAR(regs->ebx), INTPAR(regs->ebx+4));
case 153:
syscall_machid();
return 0;
case 154:
return syscall_getcharf(INTPAR(regs->ebx));
case 155:
return syscall_ungetcharf(INTPAR(regs->ebx), INTPAR(regs->ebx+4));
case 156:
printk("broadcast called\n");
return syscall_broadcast(INTPAR(regs->ebx), CHARPPAR(regs->ebx+4), INTPAR(regs->ebx+8));
case 157:
return syscall_primalloc((unsigned int)INTPAR(regs->ebx));
case 158:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_prifree((void *)CHARPPAR(regs->ebx), (unsigned int)INTPAR(regs->ebx+4));
case 202:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
cpp2 = CHARPPAR(regs->ebx + 4);
if (cpp2 < KERNELEND) return EINVALIDPTR;
mark_tsc((unsigned int *)cpp1, (unsigned int *)cpp2);
return 0;
case 203:
return (secs * 1000 + millesecs);
case 204:
cpp1 = CHARPPAR(regs->ebx);
if (cpp1 < KERNELEND) return EINVALIDPTR;
return syscall_pthread_mutex_destroy((pthread_mutex_t *) cpp1);
default: return syscall_notimplemented(regs->eax);
}
}
/** @brief Handles all syscalls of the tracked pid until it does a blocking action.
*
* Blocking actions are stuff that must be reported to the simulator and which
* completion takes time. The most prominent examples are related to sending and
* receiving data.
*
* The tracked pid can run more than one syscall in this function if theses calls
* are about the metadata that we maintain in simterpose without exposing them to
* simgrid. For example, if you call socket() or accept(), we only have to maintain
* our metadata but there is no need to inform the simulator, nor to ask for the
* completion time of these things.
*/
int process_handle(process_descriptor_t * proc)
{
reg_s arg;
pid_t pid = proc->pid;
XBT_DEBUG("PROCESS HANDLE MSG");
while (1) {
ptrace_get_register(pid, &arg);
int ret;
XBT_DEBUG("found syscall: [%d] %s (%ld) = %ld, in_syscall = %d", pid, syscall_list[arg.reg_orig], arg.reg_orig,
arg.ret, proc->in_syscall);
switch (arg.reg_orig) {
case SYS_creat:
syscall_creat(&arg, proc);
break;
case SYS_open:
XBT_DEBUG("On open");
XBT_DEBUG("Valeur des registres dans l'AS:");
XBT_DEBUG("Valeur de retour %lu", arg.ret);
XBT_DEBUG("Valeur des arg %lu %lu %lu %lu %lu %lu", arg.arg[0], arg.arg[1], arg.arg[2], arg.arg[3], arg.arg[4], arg.arg[5]);
syscall_open(&arg, proc);
break;
case SYS_close:
syscall_close(&arg, proc);
break;
case SYS_read:
syscall_read(&arg, proc);
break;
case SYS_write:
XBT_DEBUG("On write");
XBT_DEBUG("Valeur des registres dans l'AS:");
XBT_DEBUG("Valeur de retour %lu", arg.ret);
XBT_DEBUG("Valeur des arg %lu %lu %lu %lu %lu %lu", arg.arg[0], arg.arg[1], arg.arg[2], arg.arg[3], arg.arg[4], arg.arg[5]);
if ((ret = syscall_write(&arg, proc)))
return ret;
break;
case SYS_dup:
syscall_dup(&arg, proc);
break;
case SYS_dup2:
syscall_dup2(&arg, proc);
break;
case SYS_fcntl:
syscall_fcntl(&arg, proc);
break;
case SYS_lseek:
syscall_lseek(&arg, proc);
break;
case SYS_poll:
syscall_poll(&arg, proc);
break;
case SYS_select:
syscall_select(&arg, proc);
break;
case SYS_pipe:
syscall_pipe(&arg, proc);
case SYS_brk:
syscall_brk(&arg, proc);
break;
case SYS_socket:
syscall_socket(&arg, proc);
break;
case SYS_connect:
syscall_connect(&arg, proc);
break;
case SYS_bind:
syscall_bind(&arg, proc);
break;
case SYS_listen:
syscall_listen(&arg, proc);
break;
case SYS_accept:
syscall_accept(&arg, proc);
break;
#if UINTPTR_MAX == 0xffffffff
/* 32-bit architecture */
case SYS_send:
ret = syscall_send(&arg, proc);
if (ret)
return ret;
break;
case SYS_recv:
syscall_recv(&arg, proc);
break;
#endif
case SYS_sendto:
ret = syscall_sendto(&arg, proc);
if (ret)
return ret;
break;
case SYS_recvfrom:
syscall_recvfrom(&arg, proc);
break;
case SYS_sendmsg:
if ((ret = syscall_sendmsg( &arg, proc)))
return ret;
break;
case SYS_recvmsg:
syscall_recvmsg(&arg, proc);
break;
case SYS_shutdown:
syscall_shutdown(&arg, proc);
break;
case SYS_getpeername:
syscall_getpeername(&arg, proc);
break;
case SYS_getsockopt:
syscall_getsockopt(&arg, proc);
break;
case SYS_setsockopt:
syscall_setsockopt(&arg, proc);
break;
case SYS_clone:
syscall_clone(&arg, proc);
break;
case SYS_execve:
syscall_execve(&arg, proc);
break;
case SYS_exit:
XBT_DEBUG("exit(%ld) called", arg.arg[0]);
return syscall_exit(&arg, proc);
break;
case SYS_exit_group:
XBT_DEBUG("exit_group(%ld) called", arg.arg[0]);
return syscall_exit(&arg, proc);
break;
case SYS_getpid:
syscall_getpid(&arg, proc);
break;
case SYS_tuxcall:
syscall_tuxcall(&arg, proc);
break;
default:
syscall_default(pid, &arg, proc);
break;
}
// Step the traced process
ptrace_resume_process(pid);
// XBT_DEBUG("process resumed, waitpid");
waitpid(pid, &(proc->status), __WALL);
} // while(1)
THROW_IMPOSSIBLE; //There's no way to quit the loop
return 0;
}