Exemple #1
0
/* Try to start the job on any non-reserved nodes */
static int _start_job(struct job_record *job_ptr, bitstr_t *resv_bitmap)
{
	int rc;
	bitstr_t *orig_exc_nodes = NULL;
	static uint32_t fail_jobid = 0;

	if (job_ptr->details->exc_node_bitmap) {
		orig_exc_nodes = bit_copy(job_ptr->details->exc_node_bitmap);
		bit_or(job_ptr->details->exc_node_bitmap, resv_bitmap);
	} else
		job_ptr->details->exc_node_bitmap = bit_copy(resv_bitmap);

	rc = select_nodes(job_ptr, false, NULL);
	if (job_ptr->details) { /* select_nodes() might cancel the job! */
		FREE_NULL_BITMAP(job_ptr->details->exc_node_bitmap);
		job_ptr->details->exc_node_bitmap = orig_exc_nodes;
	} else
		FREE_NULL_BITMAP(orig_exc_nodes);
	if (rc == SLURM_SUCCESS) {
		/* job initiated */
		last_job_update = time(NULL);
		info("backfill: Started JobId=%u on %s",
		     job_ptr->job_id, job_ptr->nodes);
		if (job_ptr->batch_flag == 0)
			srun_allocate(job_ptr->job_id);
		else if ((job_ptr->details == NULL) ||
			 (job_ptr->details->prolog_running == 0))
			launch_job(job_ptr);
		slurmctld_diag_stats.backfilled_jobs++;
		slurmctld_diag_stats.last_backfilled_jobs++;
		if (debug_flags & DEBUG_FLAG_BACKFILL) {
			info("backfill: Jobs backfilled since boot: %u",
			     slurmctld_diag_stats.backfilled_jobs);
		}
	} else if ((job_ptr->job_id != fail_jobid) &&
		   (rc != ESLURM_ACCOUNTING_POLICY)) {
		char *node_list;
		bit_not(resv_bitmap);
		node_list = bitmap2node_name(resv_bitmap);
		/* This happens when a job has sharing disabled and
		 * a selected node is still completing some job,
		 * which should be a temporary situation. */
		verbose("backfill: Failed to start JobId=%u on %s: %s",
			job_ptr->job_id, node_list, slurm_strerror(rc));
		xfree(node_list);
		fail_jobid = job_ptr->job_id;
	} else {
		debug3("backfill: Failed to start JobId=%u: %s",
		       job_ptr->job_id, slurm_strerror(rc));
	}

	return rc;
}
Exemple #2
0
int main()
{
    list_node *token_list;
    token current_token;
    job *job_list;

    init_tokenizer(stdin);
    init_shell();

    while (1)
    {
        fprintf(stdout, "myshell>");
        token_list = create_list(sizeof(token));
        //字句解析を行なってリストに追加する
        while ((current_token = get_token()).kind != token_type_eol && current_token.kind != token_type_eof)
        {
            add_list(token_list, &current_token);
        }

        request_job_notification ();
        if (token_list->next == NULL)
        {
            p_debug("continue");
            continue;
        }

        //字句解析結果を表示
        //dump_token_list_data(token_list);

        //構文解析を行う
        job_list = parse(token_list);

        //実行
        launch_job(job_list);

        free_list(token_list);
    }
}
Exemple #3
0
int  main(int argc, char ** argvFILE) {
	char  line[1024];             /* the input line                 */
	char  *argv[64];              /* the command line argument      */
	char * p;
	int tokens, foreground;
	int * ptokens =&tokens;
	int * pforeground =&foreground;

	int input_from_file = ftell(stdin);		/* check if input is coming from file */
	
	init_shell();	
	while (1) {                   /* repeat until done ....         */
		if(input_from_file < 0)		/*	stdin is coming from user not file */
			printf("sish:>");        /*   display a prompt             */   	             	
		memset (line, '\0', sizeof(line));		// zero line, (fills array with null terminator)
          memset (argv, '\0', sizeof(argv));
          if (!fgets(line, sizeof(line), stdin)) 	{printf("\n"); return 0;}	// Exit upon ctrl-D
     	if(strlen(line) == 1) {
     		continue;	//	 check for empty string aka 'enter' is pressed without input
          }	
          if ((p = strchr(line, '\n')) != NULL)	//	remove '\n' from the end of 'line'
			*p = '\0';
		parse (line, argv, ptokens);		// parse input to shell
		if (argv[0] == '\0')
			continue;
		else if (strcmp(argv[0], "exit") == 0)  /* is it an "exit"?     */      
			return 0;            /*   exit if it is                */        
		else if (strcmp(argv[0], "cd") == 0) 
			cd (argv[1]);	             	
		else {
			if ((first_job = job_initialize(argv, tokens, pforeground)) != NULL) {
				launch_job	(first_job, foreground);
				free_job(first_job);
			}
		}
	}
}
Exemple #4
0
void test_mm(void) {
  int max_threads = 8;
  thread_pool_t *thread_pool = create_thread_pool(max_threads);

  int m = 8192;
  int n = 1024;
  int k = 1024;
  double *a = make_array(m, k);
  double *b = make_array(k, n);
  double *o = make_array(m, n);
  int tile_sizes[5] = {1024, 64, 64, 8, 8};

  int num_threads = 8;
  job_t *job = make_job(0, m, 1024, num_threads, 1);

  vm_args_t vm_args;
  vm_args.a = a;
  vm_args.b = b;
  vm_args.out = o;
  vm_args.m = m;
  vm_args.n = n;
  vm_args.k = k;

  struct timeval start, end, result;
  gettimeofday(&start, NULL);
  launch_job(thread_pool, &vm2, &vm_args, job, tile_sizes, 1);
  wait_for_job(thread_pool);
  gettimeofday(&end, NULL);

  double t;
  timersub(&end, &start, &result);
  t = result.tv_sec + result.tv_usec / 1000000.0;
  printf("Parallel runtime: %f\n", t);

  int pass = 1;
//  int i, j, l;
//  double sum;
//  gettimeofday(&start, NULL);
//  for (i = 0; i < m; ++i) {
//    for (j = 0; j < n; ++j) {
//      sum = 0.0;
//      for (l = 0; l < k; ++l) {
//        sum += a[i*k + l] * b[j*k + l];
//      }
//      pass = pass && (abs(sum - o[i*n + j]) < 1e-4);
//    }
//  }
//  gettimeofday(&end, NULL);
  CU_ASSERT(pass);

//  double naive_time;
//  timersub(&end, &start, &result);
//  naive_time = result.tv_sec + result.tv_usec / 1000000.0;
//  printf("Naive time: %f\n", naive_time);

  destroy_thread_pool(thread_pool);
  free_job(job);
  free_array(a);
  free_array(b);
  free_array(o);
}
Exemple #5
0
int
main(int argc, char ** argv, char * envp[]) 
{
	struct pisces_cmd  cmd;

	int pisces_fd = 0;

	memset(&cmd,  0, sizeof(struct pisces_cmd));

	printf("Pisces Control Daemon\n");


	CPU_ZERO(&enclave_cpus);	/* Initialize CPU mask */
	CPU_SET(0, &enclave_cpus);      /* We always boot on CPU 0 */


	pisces_fd = open(PISCES_CMD_PATH, O_RDWR);

	if (pisces_fd < 0) {
		printf("Error opening pisces cmd file (%s)\n", PISCES_CMD_PATH);
		return -1;
	}

	while (1) {
		int ret = 0;

		ret = read(pisces_fd, &cmd, sizeof(struct pisces_cmd));

		if (ret != sizeof(struct pisces_cmd)) {
			printf("Error reading pisces CMD (ret=%d)\n", ret);
			break;
		}

		//printf("Command=%llu, data_len=%d\n", cmd.cmd, cmd.data_len);

		switch (cmd.cmd) {
		    case ENCLAVE_CMD_ADD_MEM: {
			    struct cmd_mem_add mem_cmd;
			    struct pmem_region rgn;

			    memset(&mem_cmd, 0, sizeof(struct cmd_mem_add));
			    memset(&rgn, 0, sizeof(struct pmem_region));

			    ret = read(pisces_fd, &mem_cmd, sizeof(struct cmd_mem_add));

			    if (ret != sizeof(struct cmd_mem_add)) {
				    printf("Error reading pisces MEM_ADD CMD (ret=%d)\n", ret);
				    send_resp(pisces_fd, -1);
				    break;
			    }


			    rgn.start            = mem_cmd.phys_addr;
			    rgn.end              = mem_cmd.phys_addr + mem_cmd.size;
			    rgn.type_is_set      = 1;
			    rgn.type             = PMEM_TYPE_UMEM;
			    rgn.allocated_is_set = 1;
			    rgn.allocated        = 0;

			    printf("Adding pmem (%p - %p)\n", (void *)rgn.start, (void *)rgn.end);

			    ret = pmem_add(&rgn);

			    printf("pmem_add returned %d\n", ret);

			    ret = pmem_zero(&rgn);

			    printf("pmem_zero returned %d\n", ret);

			    send_resp(pisces_fd, 0);

			    break;
		    }
		    case ENCLAVE_CMD_ADD_CPU: {
			    struct cmd_cpu_add cpu_cmd;
			    int logical_cpu = 0;

			    ret = read(pisces_fd, &cpu_cmd, sizeof(struct cmd_cpu_add));

			    if (ret != sizeof(struct cmd_cpu_add)) {
				    printf("Error reading pisces CPU_ADD CMD (ret=%d)\n", ret);

				    send_resp(pisces_fd, -1);
				    break;
			    }

			    printf("Adding CPU phys_id %llu, apic_id %llu\n", 
				   (unsigned long long) cpu_cmd.phys_cpu_id, 
				   (unsigned long long) cpu_cmd.apic_id);

			    logical_cpu = phys_cpu_add(cpu_cmd.phys_cpu_id, cpu_cmd.apic_id);

			    if (logical_cpu == -1) {
				    printf("Error Adding CPU to Kitten\n");
				    send_resp(pisces_fd, -1);

				    break;
			    }
			   

			    /* Notify Palacios of New CPU */
			    if (issue_v3_cmd(V3_ADD_CPU, (uintptr_t)logical_cpu) == -1) {
				    printf("Error: Could not add CPU to Palacios\n");
			    }
			    
			    CPU_SET(logical_cpu, &enclave_cpus);

			    send_resp(pisces_fd, 0);
			    break;
		    }
		    case ENCLAVE_CMD_REMOVE_CPU: {
			    struct cmd_cpu_add cpu_cmd;
			    int logical_cpu = 0;

			    ret = read(pisces_fd, &cpu_cmd, sizeof(struct cmd_cpu_add));

			    if (ret != sizeof(struct cmd_cpu_add)) {
				    printf("Error reading pisces CPU_ADD CMD (ret=%d)\n", ret);

				    send_resp(pisces_fd, -1);
				    break;
			    }

			    printf("Removing CPU phys_id %llu, apic_id %llu\n", 
				   (unsigned long long) cpu_cmd.phys_cpu_id, 
				   (unsigned long long) cpu_cmd.apic_id);

			    logical_cpu = phys_cpu_remove(cpu_cmd.phys_cpu_id, cpu_cmd.apic_id);

			    if (logical_cpu == -1) {
				    printf("Error remove CPU to Kitten\n");

				    send_resp(pisces_fd, -1);
				    break;
			    }

			    CPU_CLR(logical_cpu, &enclave_cpus);

			    send_resp(pisces_fd, 0);
			    break;
		    }

		    case ENCLAVE_CMD_LAUNCH_JOB: {
			struct cmd_launch_job * job_cmd = malloc(sizeof(struct cmd_launch_job));
			int ret = 0;

			memset(job_cmd, 0, sizeof(struct cmd_launch_job));

			ret = read(pisces_fd, job_cmd, sizeof(struct cmd_launch_job));

			if (ret != sizeof(struct cmd_launch_job)) {
			    printf("Error reading Job Launch CMD (ret = %d)\n", ret);

			    free(job_cmd);
			    
			    send_resp(pisces_fd, -1);
			    break;
			}
			
			ret = launch_job(pisces_fd, &(job_cmd->spec));

			free(job_cmd);
			
			send_resp(pisces_fd, ret);
			break;
		    }
		    case ENCLAVE_CMD_LOAD_FILE: {
			struct cmd_load_file * load_cmd = malloc(sizeof(struct cmd_load_file));
			int ret = 0;

			memset(load_cmd, 0, sizeof(struct cmd_load_file));

			ret = read(pisces_fd, load_cmd, sizeof(struct cmd_load_file));

			if (ret != sizeof(struct cmd_load_file)) {
			    printf("Error reading LOAD FILE CMD (ret = %d)\n", ret);

			    free(load_cmd);
			    
			    send_resp(pisces_fd, -1);
			    break;
			}
			
			ret = load_file(pisces_fd, load_cmd->file_pair.lnx_file, load_cmd->file_pair.lwk_file);

			free(load_cmd);

			send_resp(pisces_fd, ret);

			break;
		    } 
		    case ENCLAVE_CMD_STORE_FILE: {
			
			
			break;
		    } 

			
		    case ENCLAVE_CMD_CREATE_VM: {
			    struct pisces_user_file_info * file_info = NULL;
			    struct cmd_create_vm vm_cmd;
			    struct pmem_region rgn;
			    struct v3_guest_img guest_img;

			    id_t    my_aspace_id;
			    vaddr_t file_addr;
			    size_t  file_size =  0;
			    int     path_len  =  0;
			    int     vm_id     = -1;
			    int     status    =  0;


			    memset(&vm_cmd,    0, sizeof(struct cmd_create_vm));
			    memset(&rgn,       0, sizeof(struct pmem_region));
			    memset(&guest_img, 0, sizeof(struct v3_guest_img));
			    
			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_create_vm));

			    if (ret != sizeof(struct cmd_create_vm)) {
				    send_resp(pisces_fd, -1);
				    printf("Error: CREATE_VM command could not be read\n");
				    break;
			    }


			    path_len = strlen((char *)vm_cmd.path.file_name) + 1;

			    file_info = malloc(sizeof(struct pisces_user_file_info) + path_len);
			    memset(file_info, 0, sizeof(struct pisces_user_file_info) + path_len);

			    file_info->path_len = path_len;
			    strncpy(file_info->path, (char *)vm_cmd.path.file_name, path_len - 1);
			    
			    file_size = ioctl(pisces_fd, PISCES_STAT_FILE, file_info);

		
			    status = aspace_get_myid(&my_aspace_id);
			    if (status != 0) 
				return status;

			    if (pmem_alloc_umem(file_size, PAGE_SIZE, &rgn)) {
				printf("Error: Could not allocate umem for guest image (size=%lu)\n", file_size);
				break;
			    }
			    pmem_zero(&rgn);
				
			    status =
				aspace_map_region_anywhere(
							   my_aspace_id,
							   &file_addr,
							   round_up(file_size, PAGE_SIZE),
							   (VM_USER|VM_READ|VM_WRITE),
							   PAGE_SIZE,
							   "VM Image",
							   rgn.start
							   );


			    file_info->user_addr = file_addr;
		
			    ioctl(pisces_fd, PISCES_LOAD_FILE, file_info);
				
			    guest_img.size       = file_size;
			    guest_img.guest_data = (void *)file_info->user_addr;
			    strncpy(guest_img.name, (char *)vm_cmd.path.vm_name, 127);
				
				
			    /* Issue VM Create command to Palacios */
			    vm_id = issue_v3_cmd(V3_CREATE_GUEST, (uintptr_t)&guest_img);
				
				
			    aspace_unmap_region(my_aspace_id, file_addr, round_up(file_size, PAGE_SIZE));
			    pmem_free_umem(&rgn);
		

			    if (vm_id < 0) {
				printf("Error: Could not create VM (%s) at (%s) (err=%d)\n", 
				       vm_cmd.path.vm_name, vm_cmd.path.file_name, vm_id);
				send_resp(pisces_fd, vm_id);
				break;
			    }

			    printf("Created VM (%d)\n", vm_id);

			    send_resp(pisces_fd, vm_id);
			    break;
		    }
		    case ENCLAVE_CMD_FREE_VM: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to Launch VM */
			    if (issue_v3_cmd(V3_FREE_GUEST, (uintptr_t)vm_cmd.vm_id) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);

			    break;
		    }
		    case ENCLAVE_CMD_ADD_V3_PCI: {
			    struct cmd_add_pci_dev cmd;
			    struct v3_hw_pci_dev   v3_pci_spec;
			    int ret = 0;

			    memset(&cmd, 0, sizeof(struct cmd_add_pci_dev));

			    printf("Adding V3 PCI Device\n");

			    ret = read(pisces_fd, &cmd, sizeof(struct cmd_add_pci_dev));

			    if (ret != sizeof(struct cmd_add_pci_dev)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    memcpy(v3_pci_spec.name, cmd.spec.name, 128);
			    v3_pci_spec.bus  = cmd.spec.bus;
			    v3_pci_spec.dev  = cmd.spec.dev;
			    v3_pci_spec.func = cmd.spec.func;


			    /* Issue Device Add operation to Palacios */
			    if (issue_v3_cmd(V3_ADD_PCI, (uintptr_t)&(v3_pci_spec)) == -1) {
				    printf("Error: Could not add PCI device to Palacios\n");
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);
			    break;
		    }
		    case ENCLAVE_CMD_FREE_V3_PCI: {
			    struct cmd_add_pci_dev cmd;
			    struct v3_hw_pci_dev   v3_pci_spec;
			    int ret = 0;

			    memset(&cmd, 0, sizeof(struct cmd_add_pci_dev));

			    printf("Removing V3 PCI Device\n");

			    ret = read(pisces_fd, &cmd, sizeof(struct cmd_add_pci_dev));

			    if (ret != sizeof(struct cmd_add_pci_dev)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    memcpy(v3_pci_spec.name, cmd.spec.name, 128);
			    v3_pci_spec.bus  = cmd.spec.bus;
			    v3_pci_spec.dev  = cmd.spec.dev;
			    v3_pci_spec.func = cmd.spec.func;


			    /* Issue Device Add operation to Palacios */
			    if (issue_v3_cmd(V3_REMOVE_PCI, (uintptr_t)&(v3_pci_spec)) == -1) {
				    printf("Error: Could not remove PCI device from Palacios\n");
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);
			    break;
		    }
		    case ENCLAVE_CMD_LAUNCH_VM: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to Launch VM */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_LAUNCH, (uintptr_t)NULL) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }


			    /*
			      if (xpmem_pisces_add_dom(palacios_fd, vm_cmd.vm_id)) {
			      printf("ERROR: Could not add connect to Palacios VM %d XPMEM channel\n", 
			      vm_cmd.vm_id);
			      }
			    */

			    send_resp(pisces_fd, 0);

			    break;
		    }
		    case ENCLAVE_CMD_STOP_VM: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to Launch VM */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_STOP, (uintptr_t)NULL) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);

			    break;
		    }

		    case ENCLAVE_CMD_PAUSE_VM: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to Launch VM */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_PAUSE, (uintptr_t)NULL) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);

			    break;
		    }
		    case ENCLAVE_CMD_CONTINUE_VM: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to Launch VM */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_CONTINUE, (uintptr_t)NULL) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);

			    break;
		    }
		    case ENCLAVE_CMD_VM_CONS_CONNECT: {
			    struct cmd_vm_ctrl vm_cmd;
			    u64 cons_ring_buf = 0;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    printf("Error reading console command\n");

				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Signal Palacios to connect the console */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_CONSOLE_CONNECT, (uintptr_t)&cons_ring_buf) == -1) {
				    cons_ring_buf        = 0;
			    }
					

			    printf("Cons Ring Buf=%p\n", (void *)cons_ring_buf);
			    send_resp(pisces_fd, cons_ring_buf);

			    break;
		    }

		    case ENCLAVE_CMD_VM_CONS_DISCONNECT: {
			    struct cmd_vm_ctrl vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_ctrl));

			    if (ret != sizeof(struct cmd_vm_ctrl)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }


			    /* Send Disconnect Request to Palacios */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_CONSOLE_DISCONNECT, (uintptr_t)NULL) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);
			    break;
		    }

		    case ENCLAVE_CMD_VM_CONS_KEYCODE: {
			    struct cmd_vm_cons_keycode vm_cmd;

			    ret = read(pisces_fd, &vm_cmd, sizeof(struct cmd_vm_cons_keycode));

			    if (ret != sizeof(struct cmd_vm_cons_keycode)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    /* Send Keycode to Palacios */
			    if (issue_vm_cmd(vm_cmd.vm_id, V3_VM_KEYBOARD_EVENT, vm_cmd.scan_code) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }

			    send_resp(pisces_fd, 0);
			    break;
		    }

		    case ENCLAVE_CMD_VM_DBG: {
			    struct cmd_vm_debug pisces_cmd;
			    struct v3_debug_cmd v3_cmd;
			    
			    ret = read(pisces_fd, &pisces_cmd, sizeof(struct cmd_vm_debug));
			    
			    if (ret != sizeof(struct cmd_vm_debug)) {
				    send_resp(pisces_fd, -1);
				    break;
			    }
			    
			    v3_cmd.core = pisces_cmd.spec.core;
			    v3_cmd.cmd  = pisces_cmd.spec.cmd;
			    
			    if (issue_vm_cmd(pisces_cmd.spec.vm_id, V3_VM_DEBUG, (uintptr_t)&v3_cmd) == -1) {
				    send_resp(pisces_fd, -1);
				    break;
			    }
			    
			    send_resp(pisces_fd, 0);
			    break;
		    }

		    case ENCLAVE_CMD_SHUTDOWN: {

			if (issue_v3_cmd(V3_SHUTDOWN, 0) == -1) {
			    printf("Error: Could not shutdown Palacios VMM\n");
			    send_resp(pisces_fd, -1);
			    break;
			}
			
			/* Perform additional Cleanup is necessary */

			send_resp(pisces_fd, 0);

			close(pisces_fd);
			exit(0);

		    }
		    default: {
			    printf("Unknown Pisces Command (%llu)\n", cmd.cmd);
			    send_resp(pisces_fd, -1);
			    break;
		    }

		}
	}

	close(pisces_fd);

	return 0;
}