void hash_add(int key, long payload, int *id_ctr){
record_t *s;
HASH_FIND(hh, records, &key, sizeof(int),s);
//When true, no record with same key exists
if(s==NULL)
{
record_t *r = (record_t*)malloc( sizeof(record_t) );
memset(r, 0, sizeof(record_t));
r->key=key;
r->payload=payload;
r->id=(*id_ctr)++;
r->count=1;
HASH_ADD(hh, records, key, sizeof(int), r);
ll_add(r->id);
}
else
{
//record with same key exists. need to find out if it's the same payload
if (s->payload == payload)
{
s->count++;
ll_add(s->id);
}
else
{
//key collision for different payloads...what to do?
//kinda want to linear probe. maybe chaining
}
}
}
EXPORT void knl_timer_insert_reltim( TMEB *event, RELTIM tmout, CBACK callback, VP arg )
{
event->callback = callback;
event->arg = arg;
/* To guarantee longer wait time specified by 'tmout',
add TIMER_PERIOD on wait time */
event->time = ll_add( ll_add(knl_current_time, ultoll(tmout)),
uitoll(CFN_TIMER_PERIOD) );
knl_enqueue_tmeb(event);
}
/*
* Set timeout event
* Register the timer event 'event' onto the timer queue to
* start after the timeout 'tmout'. At timeout, start with the
* argument 'arg' on the callback function 'callback'.
* When 'tmout' is TMO_FEVR, do not register onto the timer
* queue, but initialize queue area in case 'timer_delete'
* is called later.
*
* "include/tk/typedef.h"
* typedef W TMO;
* typedef UW RELTIM;
* #define TMO_FEVR (-1)
*/
EXPORT void knl_timer_insert( TMEB *event, TMO tmout, CBACK callback, VP arg )
{
event->callback = callback;
event->arg = arg;
if ( tmout == TMO_FEVR ) {
QueInit(&event->queue);
} else {
/* To guarantee longer wait time specified by 'tmout',
add TIMER_PERIOD on wait time */
event->time = ll_add( ll_add(knl_current_time, ltoll(tmout)),
uitoll(CFN_TIMER_PERIOD) );
knl_enqueue_tmeb(event);
}
}
/*
*
* Simple hooking into system calls. Calls are passed by name to keep them
* platform independent.
*
*
* XXX: This is not true^, we can just use SYS_foo too. (Although SYS_clone does
* not exist on say, BSD)
*
*/
int tracy_set_hook(struct tracy *t, char *syscall, long abi,
tracy_hook_func func) {
struct tracy_ll_item *item;
int hash;
union {
void *pvoid;
tracy_hook_func pfunc;
} _hax;
/* XXX: Do this for each abi in abi_mask */
hash = hash_syscall(syscall, abi);
item = ll_find(t->hooks, hash);
_hax.pfunc = func;
if (!item) {
if (ll_add(t->hooks, hash, _hax.pvoid)) {
/* XXX: Add debug/print here */
return -1;
}
} else {
/* XXX: Add debug/print here */
return -1;
}
return 0;
}
/* Le o arquivo de entrada. */
int read_file(char *path) {
FILE *f;
char t;
int k, flag, dist = 0;
f = fopen(path, "r");
if (f == NULL) {
return -1;
}
fscanf(f, "%d", &m);
fscanf(f, "%d", &n);
fscanf(f, "%c", &v); /* Ler o '\n'. */
fscanf(f, "%c", &v);
fscanf(f, "%d", &d);
fscanf(f, "%c", &t); /* '\n'... */
ll_init();
while (dist < d) {
fscanf(f, "%c", &t);
fscanf(f, "%d", &k);
dist += k;
flag = ll_add(t, k);
if (flag != 0) {
ll_clean();
return -1;
}
fscanf(f, "%c", &t);
}
fclose(f);
return 0;
}
static int proxy_set(struct tracy_event *e, int fd, proxy_t *proxy) {
if(proxy == NULL) {
return ll_del(cproxy(e->child->custom)->ll, fd);
}
else {
return ll_add(cproxy(e->child->custom)->ll, fd, proxy);
}
}
void
add_int(int num)
{
printf(1, "Attempting to add %d to linked list\n", num);
lock_acquire(&add);
ll_add(&start, num);
lock_release(&add);
printf(1, "Added %d to linked list\n", num);
}
int main(void)
{
struct llist *list = ll_create(1.7);
ll_add(&list, 2.8);
ll_print(list);
}
int add_cronjob(p_cronjob job) {
job->timestamp += get_timestamp() + 1;
log_message(INFO,"Adding job for timestamp %d, cronlist %d", job->timestamp, cronlist);
p_linkedlist item = ll_create(job, sizeof(t_cronjob));
log_message(DEBUG, ".");
cronlist = ll_add(cronlist,item, LL_BACK, 0);
log_message(DEBUG, "..");
}
static int processDirectory(char *dirname, LinkedList *ll, int verbose) {
DIR *dd;
struct dirent *dent;
char *sp;
int len, status = 1;
char d[4096];
/*
* eliminate trailing slash, if there
*/
strcpy(d, dirname);
len = strlen(d);
if (len > 1 && d[len-1] == '/')
d[len-1] = '\0';
/*
* open the directory
*/
if ((dd = opendir(d)) == NULL) {
if (verbose)
fprintf(stderr, "Error opening directory `%s'\n", d);
return 1;
}
/*
* duplicate directory name to insert into linked list
*/
sp = strdup(d);
if (sp == NULL) {
fprintf(stderr, "Error adding `%s' to linked list\n", d);
status = 0;
goto cleanup;
}
if (!ll_add(ll, sp)) {
fprintf(stderr, "Error adding `%s' to linked list\n", sp);
free(sp);
status = 0;
goto cleanup;
}
if (len == 1 && d[0] == '/')
d[0] = '\0';
/*
* read entries from the directory
*/
while (status && (dent = readdir(dd)) != NULL) {
if (strcmp(".", dent->d_name) == 0 || strcmp("..", dent->d_name) == 0)
continue;
if (dent->d_type & DT_DIR) {
char b[4096];
sprintf(b, "%s/%s", d, dent->d_name);
status = processDirectory(b, ll, 0);
}
}
cleanup:
(void) closedir(dd);
return status;
}
int
main(int argc, char **argv)
{
int i;
link_head_t list[] = { /* some lists to operate on */
LINK_HEAD_INIT(0),
{ DEADINT, DEADINT, DEADPTR, DEADPTR, 0 } /* list[1] is a bad list */
};
link_elem_t elem[] = { /* some elements to operate on */
LINK_ELEM_INIT(OBJECT0),
LINK_ELEM_INIT(OBJECT1),
LINK_ELEM_INIT(OBJECT2),
LINK_ELEM_INIT(OBJECT3),
LINK_ELEM_INIT(OBJECT4),
LINK_ELEM_INIT(OBJECT5),
};
struct itercheck itcheck = { 0, 0 };
/* First, build the lists */
for (i = 0; i < 5; i++)
if (ll_add(&list[0], &elem[i], LINK_LOC_TAIL, 0))
return -1; /* failed to initialize test */
/* Baseline checks */
check_list(&list[0], 5, &elem[0], &elem[4], "ll_iter_baseline",
"Verify baseline list");
/* Check to see if ll_iter() verifies its arguments correctly */
check_result(ll_iter(0, 0, 0), DB_ERR_BADARGS, "ll_iter_noargs",
"ll_iter() with no arguments", 0);
check_result(ll_iter(&list[1], check_iter, &itcheck), DB_ERR_BADARGS,
"ll_iter_badlist", "ll_iter() with bad list", 0);
check_result(ll_iter(&list[0], 0, &itcheck), DB_ERR_BADARGS,
"ll_iter_badfunc", "ll_iter() with bad function", 0);
/* Now check to see if ll_iter() returns what the iter function returns */
check_result(ll_iter(&list[0], check_iter, &itcheck), EINVAL,
"ll_iter_funcreturn",
"ll_iter() returning iteration function return value", 0);
/* Now iterate through the list */
itcheck.elem_array = elem;
itcheck.elem_idx = 0;
check_result(ll_iter(&list[0], check_iter, &itcheck), 0, "ll_iter_function",
"ll_iter() iteration", 0);
/* Did it check them all? */
if (itcheck.elem_idx == 5)
printf("PASS/ll_iter_func_count:ll_iter() visited all items\n");
else
printf("FAIL/ll_iter_func_count:ll_iter() visited only %d items\n",
itcheck.elem_idx);
return 0;
}
int top_subscribe(char *name, unsigned long id) {
Topic *st;
if (tshm_get(topicTable, name, (void **)&st)) {
pthread_mutex_lock(&(st->lock));
(void)ll_add(st->regAUs, (void *)id);
pthread_mutex_unlock(&(st->lock));
return 1;
}
return 0;
}
void recursive_add_to_array(ll_node *array, const char *path)
{
DIR *d;
struct dirent *entry;
struct stat s;
#ifdef _WIN32
stat(path, &s);
#else
lstat(path, &s);
#endif
if(path[strlen(path) - 1] == '.') return;
if(s.st_mode & S_IFDIR)
{ // Directory
ll_add(array, path);
d = opendir(path);
if(d == NULL) { fprintf(stderr, "Warning: Could not open %s\n", path); return; }
while((entry = readdir(d)) != NULL)
{
if(entry->d_name[0] == '.') continue;
char *newpath = malloc(255);
if(newpath == NULL) { fprintf(stderr, "Not enough memory available!\n"); continue; }
memset(newpath, 0, 255);
strncat(newpath, path, 254);
strncat(newpath, "/", 254 - strlen(newpath));
strncat(newpath, entry->d_name, 254 - strlen(newpath));
recursive_add_to_array(array, newpath);
}
closedir(d);
}
else if(s.st_mode & S_IFREG) // File
ll_add(array, path);
#ifndef _WIN32
else if(s.st_mode & S_IFLNK) // Symlink
ll_add(array, path);
#endif
else
{
fprintf(stderr, "Warning: cannot archive %s\n", path);
}
}
/**
* @return:
* < 0 : success.
* < E_VOS_PARAM : fail.
*/
static int vos_init(int argc, char **argv)
{
int s;
char *env;
if (argc < 2 || argc > 2)
return E_VOS_PARAM;
pthread_mutex_init(&_vos.proc_tmp_dir_lock, 0);
/* get Vos variable value from system environment */
sys_getenv_num((unsigned long *) &_vos.debug, VOS_ENV_DEBUG,
VOS_DEF_DEBUG_VALUE);
sys_getenv_num(&_vos.file_buf_size, VOS_ENV_FILE_BUF_SIZE,
VOS_DEF_FILE_BUF_SIZE);
sys_getenv_num((unsigned long *) &_vos.proc_cmp_case,
VOS_ENV_PROC_CMP_CASE,
VOS_DEF_PROC_CMP_CASE);
sys_getenv_num((unsigned long *) &_vos.proc_max, VOS_ENV_PROC_MAX,
VOS_DEF_PROC_MAX);
sys_getenv_num(&_vos.proc_max_row, VOS_ENV_PROC_MAX_ROW,
VOS_DEF_PROC_MAX_ROW);
/* get temporary dir from system environment */
env = getenv(VOS_ENV_TMP_DIR);
if (env)
set_proc_tmp_dir_value(env);
else {
s = ll_add(&_vos.proc_tmp_dir, 1, VOS_DEF_PROC_TMP_DIR);
if (s)
return s;
}
_vos.p_proc_tmp_dir = _vos.proc_tmp_dir;
_vos.script = argv[1];
srand(time((void *) 0));
if (_vos.debug)
vos_print();
return 0;
}
/*
* Functionality for pthread_cond_wait()
*/
int mypthread_cond_wait(mypthread_cond_t *cond, mypthread_mutex_t *mutex) {
sem_wait(&cond_sem);
//Unblock all threads locked by mutex
mypthread_mutex_unlock(mutex);
//Make the current thread wait for the signal
mykthread_t* current_kthread = mykthread_get(gettid());
current_kthread->th->state = PS_BLOCKED;
ll_add(current_kthread->th, &(cond->cond_q_head), &(cond->cond_q_tail));
sem_wait(&mypthread_sem);
mypthread_enqueue(current_kthread->th);
sem_post(&mypthread_sem);
sem_post(&cond_sem);
mythread_scheduler(current_kthread, 1);
mypthread_mutex_lock(mutex);
return 0;
}
struct tracy_child * tracy_add_child(struct tracy *t, int pid) {
struct tracy_child * child;
child = malloc_tracy_child(t, pid);
if (!child) {
perror("Cannot allocate structure for new child");
return NULL; /* TODO Kill the child ? */
}
ll_add(t->childs, pid, child);
if (t->se.child_create)
(t->se.child_create)(child);
return child;
}
static int hook_dup(struct tracy_event *e)
{
int rc = TRACY_HOOK_CONTINUE;
struct multiboot_child_data *mbc = e->child->custom;
if (e->child->pre_syscall) {
int fd = (int)e->args.a0;
struct tracy_ll_item *item = ll_find(mbc->files, fd);
if (item) {
struct fd_info *fdi = item->data;
mbc->tmp = strdup(fdi->filename);
}
}
else {
// we need to handle write for this fd
if (mbc->tmp) {
int fd = (int)e->args.return_code;
DEBUG("dup(%s) = %d\n", mbc->tmp, fd);
if (fd >= 0) {
struct fd_info *fdi =
make_fdinfo(e->child, fd, mbc->tmp);
if (fdi)
ll_add(mbc->files, fd,
make_fdinfo(e->child, fd,
mbc->tmp));
else {
ERROR("Couldn't make fdinfo for %s!\n",
mbc->tmp);
free(mbc->tmp);
}
}
// dup failed
else
free(mbc->tmp);
mbc->tmp = NULL;
}
}
return rc;
}
/**
* @brief Default constructor.
*/
CRPG_FileVar::CRPG_FileVar(char *n, char *dv, char *p): path(NULL), key(NULL), pathlen(0) {
unsigned int dvlen, i;
memset(&value, 0, sizeof(value));
WARN_IF((n == NULL) || (p == NULL) || !strlen(p), return);
name = (char*)calloc(strlen(n)+1, sizeof(char));
strcpy(name, n);
/* Set the default value for this file variable */
if((dv != NULL) && (dvlen = strlen(dv))) {
set_value(dv);
}
else {
set_value(NULL);
}
pathlen = strlen(p);
/* Scan backwards for the first '/', everything after it is the key name */
i = pathlen;
while(i--) {
if(p[i] == '/')
break;
}
i++;
WARN_IF(i <= 1, return);
key = (char*)calloc(pathlen-i+1, sizeof(char));
strcpy(key, p+i);
pathlen = i-1;
path = (char*)calloc(pathlen+1, sizeof(char));
strncpy(path, p, pathlen);
/* break up the path so it can be parsed */
for(i = 0; i < pathlen; i++) {
if(path[i] == '/')
path[i] = '\0';
}
ll_add();
}
int all(struct tracy_event *e) {
struct tracy_ll_item *i;
long syscall;
if(e->child->pre_syscall)
return TRACY_HOOK_CONTINUE;
syscall = e->syscall_num;
i = ll_find(ll, syscall);
if (i) {
i->data = (void*)((long)(i->data) + 1);
} else {
ll_add(ll, syscall, (void*)1);
}
return TRACY_HOOK_CONTINUE;
}
int parser_EmployeeFromBinary(FILE* pFile , LinkedList* pArrayListEmployee)
{
Employee* pEmpleado = NULL;
int retorno = -1;
if(pFile != NULL)
{
while(!feof(pFile))
{
pEmpleado = Employee_new();
fread(pEmpleado, sizeof(Employee), 1, pFile);
ll_add(pArrayListEmployee, pEmpleado);
}
retorno = 0;
}
return retorno;
}
/** \ingroup dbprim_hash
* \brief Move an entry in the hash table.
*
* This function moves an existing entry in the hash table to
* correspond to the new key.
*
* \param table A pointer to a #hash_table_t.
* \param entry A pointer to a #hash_entry_t to be moved. It must
* already be in the hash table.
* \param key A pointer to a #db_key_t describing the new key for
* the entry.
*
* \retval DB_ERR_BADARGS An invalid argument was given.
* \retval DB_ERR_UNUSED Entry is not in a hash table.
* \retval DB_ERR_WRONGTABLE Entry is not in this hash table.
* \retval DB_ERR_FROZEN Hash table is frozen.
* \retval DB_ERR_DUPLICATE New key is a duplicate of an existing
* key.
* \retval DB_ERR_READDFAILED Unable to re-add entry to table.
*/
unsigned long
ht_move(hash_table_t *table, hash_entry_t *entry, db_key_t *key)
{
unsigned long retval;
initialize_dbpr_error_table(); /* initialize error table */
if (!ht_verify(table) || !he_verify(entry) || !key) /* verify arguments */
return DB_ERR_BADARGS;
if (!entry->he_table) /* it's not in a table */
return DB_ERR_UNUSED;
if (entry->he_table != table) /* it's in the wrong table */
return DB_ERR_WRONGTABLE;
if (table->ht_flags & HASH_FLAG_FREEZE) /* don't mess with frozen tables */
return DB_ERR_FROZEN;
if (!ht_find(table, 0, key)) /* don't permit duplicates */
return DB_ERR_DUPLICATE;
/* remove the entry from the table */
if ((retval = ll_remove(&table->ht_table[entry->he_hash], &entry->he_elem)))
return retval;
/* rekey the entry */
entry->he_key = *key; /* thank goodness for structure copy! */
/* get the new hash value for the entry */
entry->he_hash =
(*table->ht_func)(table, &entry->he_key) % table->ht_modulus;
/* Now re-add it to the table */
if ((retval = ll_add(&table->ht_table[entry->he_hash], &entry->he_elem,
LINK_LOC_HEAD, 0))) {
table->ht_count--; /* decrement the count--don't worry about shrinking */
entry->he_table = 0; /* zero the table pointer */
return DB_ERR_READDFAILED;
}
return 0;
}
Llist *ll_clone(Llist *list, ...){
ll_secuList(list);
Llist *copy = ll_initialisation();
ll_secuList(copy);
va_list ap;
va_start(ap, list);
int start = va_arg(ap, int);
int end = va_arg(ap, int);
if(end == 0 || end > ll_size(list))
end = ll_size(list);
va_end(ap);
Element *res = ll_containt(list, start);
ll_addStart(copy, res->valeur);
start++;
for(int a = start; a < end && res != NULL; a++){
res = res->nxt;
ll_add(copy, 1, res->valeur);
}
return copy;
}
EXPORT void knl_timer_handler( void )
{
TMEB *event;
knl_clear_hw_timer_interrupt(); /* Clear timer interrupt */
BEGIN_CRITICAL_SECTION;
knl_current_time = ll_add(knl_current_time, uitoll(CFN_TIMER_PERIOD));
#if USE_DBGSPT && defined(USE_FUNC_TD_INF_TSK)
if ( knl_ctxtsk != NULL ) {
/* Task at execution */
if ( knl_ctxtsk->sysmode > 0 ) {
knl_ctxtsk->stime += CFN_TIMER_PERIOD;
} else {
knl_ctxtsk->utime += CFN_TIMER_PERIOD;
}
}
#endif
/* Execute event that passed occurring time. */
while ( !isQueEmpty(&knl_timer_queue) ) {
event = (TMEB*)knl_timer_queue.next;
if ( ll_cmp(event->time, knl_current_time) > 0 ) {
break;
}
QueRemove(&event->queue);
if ( event->callback != NULL ) {
(*event->callback)(event->arg);
}
}
END_CRITICAL_SECTION;
knl_end_of_hw_timer_interrupt(); /* Clear timer interrupt */
}
/*
* Functionality for pthread_mutex_lock()
*/
int mypthread_mutex_lock(mypthread_mutex_t *mutex) {
sem_wait(&mutex_sem);
if (!(mutex->lock)) {
mutex->lock = true;
sem_post(&mutex_sem);
} else {
mykthread_t* current_kthread = mykthread_get(gettid());
//No need to acquire mypthread_lock as the mypthread_t are not in the run queue
current_kthread->th->state = PS_BLOCKED;
ll_add(current_kthread->th, &(mutex->blocked_q_head),
&(mutex->blocked_q_tail));
//This will ensure that when the blocked thread becomes runnable, it executes the mutex lock logic again
makecontext(current_kthread->th->ctx, (void (*)()) mypthread_mutex_lock,
1, mutex);
sem_wait(&mypthread_sem);
mypthread_enqueue(current_kthread->th);
sem_post(&mypthread_sem);
sem_post(&mutex_sem);
//Set context to the next active thread
mythread_scheduler(current_kthread, 0);
}
return 0;
}
/** \brief Parsea los datos los datos de los empleados desde el archivo data.csv (modo texto).
*
* \param path char*
* \param pArrayListEmployee LinkedList*
* \return int
*
*/
int parser_EmployeeFromText(FILE* pFile , LinkedList* pArrayListEmployee)
{
//validaciones acá! o al contructor con parametros ya que deberia validar desde ahí!
Employee* pEmpleado;
char bufferInt[1024];
char bufferNombre[1024];
char bufferHorasTrabajadas[1024];
char bufferSueldo[1024];
int flagOnce = 1;
int retorno = -1;
if(pFile != NULL)
{
while(!feof(pFile))
{
if(flagOnce)
{
flagOnce = 0;
fscanf(pFile, "%[^,],%[^,],%[^,],%[^\n]\n", bufferInt, bufferNombre, bufferHorasTrabajadas, bufferSueldo); //Descarta primer linea
}
fscanf(pFile, "%[^,],%[^,],%[^,],%[^\n]\n", bufferInt, bufferNombre, bufferHorasTrabajadas, bufferSueldo);
printf("%s - %s - %s - %s\n", bufferInt, bufferNombre, bufferHorasTrabajadas, bufferSueldo);
pEmpleado = Employee_newConParametros(bufferInt, bufferNombre, bufferHorasTrabajadas, bufferSueldo);
if(pEmpleado != NULL)
{
ll_add(pArrayListEmployee, pEmpleado);
retorno = 0;
}
}
}
return retorno;
}
/**
* add a client into our array of clients
*/
t_client *add_client(TCPsocket sock, p_rocsmq_clientdata info) {
char *tok;
char filter[ROCS_IDSIZE];
p_client client = 0;
// resize list
clients = (p_client) realloc(clients, (num_clients + 1) * sizeof(t_client));
client = &clients[num_clients];
// copy name
strcpy((void *) client->name, info->name);
// copy socket
client->sock = sock;
// create filter list
client->filters = 0;
tok = strtok(info->filter, MESSAGE_SEPARATOR);
memset(filter,'\0',ROCS_IDSIZE);
while(tok) {
// add filter
log_message(DEBUG, "Adding filter %s [%d] to client %s.", tok, strlen(tok)+1, client->name);
strcpy(filter,tok);
p_linkedlist item = ll_create(filter, ROCS_IDSIZE);
client->filters = ll_add(client->filters,item,LL_BACK, 0);
// get next filter
tok = strtok(0,MESSAGE_SEPARATOR);
}
// add client number
num_clients++;
// return client
return client;
}
void ll_insert(LinkedList *root, int val, size_t index) {
for(size_t i = 0; i<index;i++)
root = root->next;
ll_add(root,val);
}
int main(int argc, char *argv[])
{
/* Define the options specific to the DNS protocol. */
struct option long_options[] =
{
/* General options */
{"help", no_argument, 0, 0}, /* Help */
{"h", no_argument, 0, 0},
{"version", no_argument, 0, 0}, /* Version */
#if 0
{"name", required_argument, 0, 0}, /* Name */
{"n", required_argument, 0, 0},
{"download",required_argument, 0, 0}, /* Download */
{"n", required_argument, 0, 0},
{"chunk", required_argument, 0, 0}, /* Download chunk */
{"isn", required_argument, 0, 0}, /* Initial sequence number */
#endif
{"delay", required_argument, 0, 0}, /* Retransmit delay */
{"steady", no_argument, 0, 0}, /* Don't transmit immediately after getting a response. */
{"max-retransmits", required_argument, 0, 0}, /* Set the max retransmissions */
{"retransmit-forever", no_argument, 0, 0}, /* Retransmit forever if needed */
#ifndef NO_ENCRYPTION
{"secret", required_argument, 0, 0}, /* Pre-shared secret */
{"no-encryption", no_argument, 0, 0}, /* Disable encryption */
#endif
/* i/o options. */
{"console", no_argument, 0, 0}, /* Enable console */
{"exec", required_argument, 0, 0}, /* Enable execute */
{"e", required_argument, 0, 0},
{"command", no_argument, 0, 0}, /* Enable command (default) */
{"ping", no_argument, 0, 0}, /* Ping */
/* Tunnel drivers */
{"dns", required_argument, 0, 0}, /* Enable DNS */
#if 0
{"tcp", optional_argument, 0, 0}, /* Enable TCP */
#endif
/* Debug options */
{"d", no_argument, 0, 0}, /* More debug */
{"q", no_argument, 0, 0}, /* Less debug */
{"packet-trace", no_argument, 0, 0}, /* Trace packets */
/* Sentry */
{0, 0, 0, 0} /* End */
};
int c;
int option_index;
const char *option_name;
NBBOOL tunnel_driver_created = FALSE;
ll_t *drivers_to_create = ll_create(NULL);
uint32_t drivers_created = 0;
log_level_t min_log_level = LOG_LEVEL_WARNING;
group = select_group_create();
system_dns = dns_get_system();
/* Seed with the current time; not great, but it'll suit our purposes. */
srand((unsigned int)time(NULL));
/* This is required for win32 support. */
winsock_initialize();
#ifndef WIN32
/* set the SIGCHLD handler to SIG_IGN causing zombie child processes to be reaped automatically */
if(signal(SIGCHLD, SIG_IGN) == SIG_ERR)
{
perror("Couldn't set SIGCHLD handler to SIG_IGN");
exit(1);
}
#endif
/* Set the default log level */
log_set_min_console_level(min_log_level);
/* Parse the command line options. */
opterr = 0;
while((c = getopt_long_only(argc, argv, "", long_options, &option_index)) != -1)
{
switch(c)
{
case 0:
option_name = long_options[option_index].name;
/* General options */
if(!strcmp(option_name, "help") || !strcmp(option_name, "h"))
{
usage(argv[0], "--help requested");
}
if(!strcmp(option_name, "version"))
{
printf(NAME" "VERSION" (client)\n");
exit(0);
}
else if(!strcmp(option_name, "isn"))
{
uint16_t isn = (uint16_t) (atoi(optarg) & 0xFFFF);
debug_set_isn(isn);
}
else if(!strcmp(option_name, "delay"))
{
int delay = (int) atoi(optarg);
session_set_delay(delay);
LOG_INFO("Setting delay between packets to %dms", delay);
}
else if(!strcmp(option_name, "steady"))
{
session_set_transmit_immediately(FALSE);
}
else if(!strcmp(option_name, "max-retransmits"))
{
controller_set_max_retransmits(atoi(optarg));
}
else if(!strcmp(option_name, "retransmit-forever"))
{
controller_set_max_retransmits(-1);
}
#ifndef NO_ENCRYPTION
else if(!strcmp(option_name, "secret"))
{
session_set_preshared_secret(optarg);
}
else if(!strcmp(option_name, "no-encryption"))
{
session_set_encryption(FALSE);
}
#endif
/* i/o drivers */
else if(!strcmp(option_name, "console"))
{
ll_add(drivers_to_create, ll_32(drivers_created++), make_console());
/* session = session_create_console(group, "console");
controller_add_session(session); */
}
else if(!strcmp(option_name, "exec") || !strcmp(option_name, "e"))
{
ll_add(drivers_to_create, ll_32(drivers_created++), make_exec(optarg));
/* session = session_create_exec(group, optarg, optarg);
controller_add_session(session); */
}
else if(!strcmp(option_name, "command"))
{
ll_add(drivers_to_create, ll_32(drivers_created++), make_command());
/* session = session_create_command(group, "command");
controller_add_session(session); */
}
else if(!strcmp(option_name, "ping"))
{
ll_add(drivers_to_create, ll_32(drivers_created++), make_ping());
/* session = session_create_ping(group, "ping");
controller_add_session(session); */
}
/* Tunnel driver options */
else if(!strcmp(option_name, "dns"))
{
tunnel_driver_created = TRUE;
tunnel_driver = create_dns_driver(group, optarg);
}
else if(!strcmp(option_name, "tcp"))
{
tunnel_driver_created = TRUE;
create_tcp_driver(optarg);
}
/* Debug options */
else if(!strcmp(option_name, "d"))
{
if(min_log_level > 0)
{
min_log_level--;
log_set_min_console_level(min_log_level);
}
}
else if(!strcmp(option_name, "q"))
{
min_log_level++;
log_set_min_console_level(min_log_level);
}
else if(!strcmp(option_name, "packet-trace"))
{
session_enable_packet_trace();
}
else
{
usage(argv[0], "Unknown option");
}
break;
case '?':
default:
usage(argv[0], "Unrecognized argument");
break;
}
}
create_drivers(drivers_to_create);
ll_destroy(drivers_to_create);
if(tunnel_driver_created && argv[optind])
{
printf("It looks like you used --dns and also passed a domain on the commandline.\n");
printf("That's not allowed! Either use '--dns domain=xxx' or don't use a --dns\n");
printf("argument!\n");
exit(1);
}
/* If no output was set, use the domain, and use the last option as the
* domain. */
if(!tunnel_driver_created)
{
/* Make sure they gave a domain. */
if(optind >= argc)
{
printf("Starting DNS driver without a domain! This will only work if you\n");
printf("are directly connecting to the dnscat2 server.\n");
printf("\n");
printf("You'll need to use --dns server=<server> if you aren't.\n");
tunnel_driver = create_dns_driver_internal(group, NULL, "0.0.0.0", 53, DEFAULT_TYPES, NULL);
}
else
{
tunnel_driver = create_dns_driver_internal(group, argv[optind], "0.0.0.0", 53, DEFAULT_TYPES, NULL);
}
}
/* Be sure we clean up at exit. */
atexit(cleanup);
/* Start the driver! */
driver_dns_go(tunnel_driver);
return 0;
}
int main () {
printf("Tester for ll\n");
ll * l1 = ll_create(2);
printf("Head is %d\n",l1->head);
ll_add(l1,"AAAAAAAAAAAAA",5,1);
ll_add(l1,"AAAAAAAAAAAAA",5,1);
ll_add(l1,"AAAAAAAAAAAAA",5,1);
ll_add(l1,"AAAAAAAAAAAAA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"AAAAAAAAAAACCA",5,1);
ll_add(l1,"ACAAAAAAAAACCA",5,1);
ll_add(l1,"ACAAAAAAAAACCA",5,1);
ll_add(l1,"ACAAAAAAAAACCA",5,1);
ll_add(l1,"ACAAAAAAAAACCA",5,1);
ll_print(l1);
int hw;
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
ll_max(l1,300,&hw,5);
printf("There are %d max's\n",hw);
ll_max(l1,3,&hw,5);
printf("There are %d max's\n",hw);
ll_max(l1,3,&hw,5);
printf("There are %d max's\n",hw);
ll_max(l1,3,&hw,5);
printf("There are %d max's\n",hw);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_max(l1,3,&hw,5);
ll_print(l1);
return 0;
}
/*
* This function creates a fdinfo entry if the device needs format detection
*/
static int hook_open(struct tracy_event *e, int argpos, bool resolve_symlinks)
{
int rc = TRACY_HOOK_CONTINUE;
struct fstab_rec *fstabrec;
struct multiboot_child_data *mbc = e->child->custom;
char *path = NULL;
long *argptr = NULL;
if (e->child->pre_syscall) {
argptr = &e->args.a0;
// we don't need to handle readonly access
int flags = (int)argptr[argpos + 1];
if ((flags & O_ACCMODE) == O_RDONLY)
goto out;
// get path
path = get_patharg(e->child, argptr[argpos], resolve_symlinks);
if (!path) {
rc = TRACY_HOOK_ABORT;
goto out;
}
// check if we need to redirect this partition
fstabrec = get_fstab_rec(path);
if (!fstabrec) {
goto out;
}
// losetup's can be formatted already
if (!fstabrec->replacement_bind) {
ERROR("%s: no bind for %s\n", __func__, path);
goto out;
}
// check fs now
// to update the last_checked timestamp
check_fs_nomount(fstabrec->stub_device);
mbc->handled_by_open = 1;
// store path for post_syscall
mbc->tmp = path;
}
else if (mbc->handled_by_open) {
// we need to handle format for this fd
if (mbc->tmp) {
int fd = (int)e->args.return_code;
ERROR("open(%s) = %d\n", mbc->tmp, fd);
// add to fd list
if (fd >= 0) {
struct fd_info *fdi =
make_fdinfo(e->child, fd, mbc->tmp);
if (fdi)
ll_add(mbc->files, fd, fdi);
else {
ERROR("Couldn't make fdinfo for %s!\n",
mbc->tmp);
free(mbc->tmp);
}
}
// open failed
else
free(mbc->tmp);
mbc->tmp = NULL;
}
}
out:
if (rc && path)
free(path);
if (!e->child->pre_syscall)
mbc->handled_by_open = 0;
return rc;
}
