void displayStrings(List* l)
{
list_start(l);
while (list_hasNext(l))
printf("%s", (char*)list_next(l));
printf("\n");
}
void displayIntegers(List* l)
{
list_start(l);
while (list_hasNext(l))
printf("%d ", *((int*)list_next(l)));
printf("\n");
}
void p2p_cron_announce(ITEM * ti)
{
ITEM *item = NULL;
ITEM *t_new = NULL;
int j = 0;
TID *tid = list_value(ti);
LOOKUP *l = tid->lookup;
NODE_L *n = NULL;
info(_log, NULL, "Start announcing after querying %lu nodes",
list_size(l->list));
item = list_start(l->list);
while (item != NULL && j < 8) {
n = list_value(item);
if (n->token_size != 0) {
t_new = tdb_put(P2P_ANNOUNCE_ENGAGE);
send_announce_request(&n->c_addr, tdb_tid(t_new),
l->target, n->token,
n->token_size);
j++;
}
item = list_next(item);
}
}
void p2p_cron_find(UCHAR * target)
{
ITEM *item_b = NULL;
BUCK *b = NULL;
ITEM *item_n = NULL;
UDP_NODE *n = NULL;
unsigned long int j = 0;
ITEM *ti = NULL;
if ((item_b = bckt_find_any_match(_main->nbhd->bucket, target)) == NULL) {
return;
} else {
b = list_value(item_b);
}
j = 0;
item_n = list_start(b->nodes);
while (item_n != NULL && j < 8) {
n = list_value(item_n);
if (_main->p2p->time_now.tv_sec > n->time_find) {
ti = tdb_put(P2P_FIND_NODE);
send_find_node_request(&n->c_addr, target, tdb_tid(ti));
time_add_5_min_approx(&n->time_find);
}
item_n = list_next(item_n);
j++;
}
}
static Iterator *list_iterable(const void *o) {
ListIterator* liter = obj_new(ListIterator,NULL);
liter->li = list_start((List*)o);
liter->next = iter_list_next;
liter->nextpair = NULL;
liter->len = list_size((List*)o);
return (Iterator*)liter;
}
void list_free(list_t list) {
list_start(list);
while(list_next(list))
node_free(list->curr->prev);
free(list);
list = NULL;
}
node_t list_seek(list_t list, int index) {
int i;
if(index < 0)
return NULL;
list_start(list);
for(i = 1; i != index; list_next(list), i++);
return list_peek(list);
}
void p2p_cron_ping(void)
{
ITEM *item_b = NULL;
BUCK *b = NULL;
ITEM *item_n = NULL;
UDP_NODE *n = NULL;
ITEM *ti = NULL;
unsigned long int j = 0;
/* Cycle through all the buckets */
item_b = list_start(_main->nbhd->bucket);
while (item_b != NULL) {
b = list_value(item_b);
/* Cycle through all the nodes */
j = 0;
item_n = list_start(b->nodes);
while (item_n != NULL) {
n = list_value(item_n);
/* It's time for pinging */
if (_main->p2p->time_now.tv_sec > n->time_ping) {
/* Ping the first 8 nodes. Ignore the rest. */
if (j < 8) {
ti = tdb_put(P2P_PING);
send_ping(&n->c_addr, tdb_tid(ti));
nbhd_pinged(n->id);
} else {
nbhd_pinged(n->id);
}
}
item_n = list_next(item_n);
j++;
}
item_b = list_next(item_b);
}
}
void p2p_error(BEN * packet, IP * from)
{
BEN *e = NULL;
BEN *code = NULL;
BEN *msg = NULL;
ITEM *i = NULL;
#if 0
BEN *t = NULL;
/* Transaction ID */
t = ben_dict_search_str(packet, "t");
if (!ben_is_str(t)) {
info(_log, from, "Missing transaction ID from");
return;
}
if (ben_str_i(t) != TID_SIZE) {
info(_log, from, "Broken transaction ID from");
return;
}
#endif
/* The error */
e = ben_dict_search_str(packet, "e");
if (!ben_is_list(e)) {
info(_log, from, "Missing or broken error message from");
return;
}
/* Error code */
i = list_start(e->v.l);
code = list_value(i);
if (!ben_is_int(code)) {
info(_log, from, "Broken error code from");
return;
}
/* Error message */
i = list_stop(e->v.l);
msg = list_value(i);
if (!ben_is_str(msg)) {
info(_log, from, "Broken error message from");
return;
}
if (ben_str_i(msg) > 100) {
info(_log, from, "Error message too big from");
return;
}
/* Notification */
info(_log, from, "ERROR %li: \"%s\" from", code->v.i, ben_str_s(msg));
}
void ben_free_r(BEN * node)
{
ITEM *item = NULL;
if (node == NULL) {
return;
}
switch (node->t) {
case BEN_DICT:
if (node->v.d != NULL) {
item = list_start(node->v.d);
while (item != NULL) {
item = ben_free_item(node, item);
}
list_free(node->v.d);
}
break;
case BEN_LIST:
if (node->v.l != NULL) {
item = list_start(node->v.l);
while (item != NULL) {
item = ben_free_item(node, item);
}
list_free(node->v.l);
}
break;
case BEN_STR:
if (node->v.s != NULL) {
str_free(node->v.s);
}
break;
}
}
void p2p_cron_lookup_all(void)
{
ITEM *i = list_start(_main->identity);
ID *identity = NULL;
while (i != NULL) {
identity = list_value(i);
if (_main->p2p->time_now.tv_sec > identity->time_announce_host) {
p2p_cron_lookup(identity->host_id, P2P_ANNOUNCE_START);
time_add_5_min_approx(&identity->time_announce_host);
}
i = list_next(i);
}
}
void cache_renew( time_t now ) {
ITEM *item = NULL;
CACHE *cache = NULL;
item = list_start( _main->cache->list );
while( item != NULL ) {
/* Lookup target on my own every 5 minutes */
cache = list_value( item );
if( now > cache->renew ) {
p2p_localhost_lookup_remote( cache->target, NULL );
time_add_5_min_approx( &cache->renew );
}
item = list_next( item );
}
}
void cache_expire( time_t now ) {
ITEM *item = NULL;
ITEM *next = NULL;
CACHE *cache = NULL;
item = list_start( _main->cache->list );
while( item != NULL ) {
next = list_next( item );
/* 30 minutes without activity. Kill it. */
cache = list_value( item );
if( now > cache->lifetime ) {
cache_del( item );
}
item = next;
}
}
void mime_hash( void ) {
ITEM *item = NULL;
struct obj_mime *tuple = NULL;
if( list_size( _main->mime->list ) < 1 ) {
return;
}
/* Create hash */
_main->mime->hash = hash_init( list_size( _main->mime->list ) + 10 );
/* Hash list */
item = list_start( _main->mime->list );
while( item != NULL ) {
tuple = item->val;
hash_put( _main->mime->hash, (UCHAR *)tuple->key, strlen( tuple->key), tuple->val );
item = list_next( item );
}
}
BEN *ben_dict_search_key(BEN * node, BEN * key)
{
ITEM *item = NULL;
BEN *thiskey = NULL;
TUPLE *tuple = NULL;
/* Tests */
if (node == NULL) {
return NULL;
}
if (node->t != BEN_DICT) {
return NULL;
}
if (key == NULL) {
return NULL;
}
if (key->t != BEN_STR) {
return NULL;
}
if (node->v.d == NULL) {
return NULL;
}
if (node->v.d->item == NULL) {
return NULL;
}
item = list_start(node->v.d);
do {
tuple = list_value(item);
thiskey = tuple->key;
if (thiskey->v.s->i == key->v.s->i &&
memcmp(thiskey->v.s->s, key->v.s->s, key->v.s->i) == 0) {
return tuple->val;
}
item = list_next(item);
} while (item != NULL);
return NULL;
}
int encode(flatcc_builder_t *B, void *buffer, size_t *size)
{
int i, veclen = 3;
void *buffer_ok;
flatcc_builder_reset(B);
C(start_as_root(B));
C(list_start(B, 0));
for (i = 0; i < veclen; ++i) {
/*
* By using push_start instead of push_create we can construct
* the sibling field (of Bar type) in-place on the stack,
* otherwise we would need to create a temporary Bar struct.
*/
C(list_push_start(B));
FooBar(sibling_create(B,
0xABADCAFEABADCAFE + i, 10000 + i, '@' + i, 1000000 + i,
123456 + i, 3.14159f + i, 10000 + i));
FooBar(name_create_str(B, "Hello, World!"));
FooBar(rating_add(B, 3.1415432432445543543 + i));
FooBar(postfix_add(B, '!' + i));
C(list_push_end(B));
}
C(list_end(B));
C(location_create_str(B, "https://www.example.com/myurl/"));
C(fruit_add(B, Enum(Bananas)));
C(initialized_add(B, True));
C(end_as_root(B));
/*
* This only works with the default emitter and only if the buffer
* is larger enough. Otherwise use whatever custom operation the
* emitter provides.
*/
buffer_ok = flatcc_builder_copy_buffer(B, buffer, *size);
*size = flatcc_builder_get_buffer_size(B);
return !buffer_ok;
}
void tox_settingschanged(void)
{
//free everything
tox_connected = 0;
list_freeall();
list_dropdown_clear(&dropdown_audio_in);
list_dropdown_clear(&dropdown_audio_out);
list_dropdown_clear(&dropdown_video);
tox_thread_init = 0;
toxaudio_postmessage(AUDIO_KILL, 0, 0, NULL);
toxvideo_postmessage(VIDEO_KILL, 0, 0, NULL);
toxav_postmessage(TOXAV_KILL, 0, 0, NULL);
tox_postmessage(0, 1, 0, NULL);
while(!tox_thread_init) {
yieldcpu(1);
}
list_start();
}
void list_printall(list_t list) {
list_start(list);
list_print(list);
}
/// insert data at the start of the list.
ListIter list_insert_front(List *ls, void *data) {
return list_insert(ls,list_start(ls),data);
}
void p2p_get_peers_get_values(BEN * values, UCHAR * node_id, ITEM * ti,
BEN * token, IP * from)
{
UCHAR nodes_compact_list[IP_SIZE_META_PAIR8];
UCHAR *p = nodes_compact_list;
LOOKUP *l = tdb_ldb(ti);
int nodes_compact_size = 0;
BEN *val = NULL;
ITEM *item = NULL;
long int j = 0;
char hex[HEX_LEN];
if (l == NULL) {
return;
}
ldb_update(l, node_id, token, from);
/* Extract values and create a nodes_compact_list */
item = list_start(values->v.l);
while (item != NULL && j < 8) {
val = list_value(item);
if (!ben_is_str(val) || ben_str_i(val) != IP_SIZE_META_PAIR) {
info(_log, from, "Values list broken from ");
return;
}
memcpy(p, ben_str_s(val), ben_str_i(val));
nodes_compact_size += IP_SIZE_META_PAIR;
p += IP_SIZE_META_PAIR;
item = list_next(item);
j++;
}
if (nodes_compact_size <= 0) {
return;
}
hex_hash_encode(hex, l->target);
info(_log, from, "Found %s at", hex);
/*
* Random lookups are not initiated by a client.
* Periodic announces are not initiated by a client either.
* And I do not want to cache random lookups.
*/
if (!l->send_response_to_initiator) {
return;
}
/* Merge responses to the cache */
cache_put(l->target, nodes_compact_list, nodes_compact_size);
/* Do not send more than one DNS response to a client.
* The client is happy after getting the first response anyway.
*/
if (ldb_number_of_dns_responses(l) >= 1) {
return;
}
/* Get the merged compact list from the cache. */
nodes_compact_size = cache_compact_list(nodes_compact_list, l->target);
if (nodes_compact_size <= 0) {
return;
}
/* Send the result back via DNS */
r_success(&l->c_addr, &l->msg, nodes_compact_list, nodes_compact_size);
}
void exampleList()
{
// Use pooling for efficiency, if you don't want to use pooling
// then comment out this line.
pool_list(16);
List* L = newList();
list_add(L, "a");
list_add(L, "b");
list_add(L, "c");
list_add(L, "d");
list_add(L, "e");
list_add(L, "f");
// Display the current list
displayStrings(L); //ABCDEF
// Remove first item
list_removeFirst(L);
displayStrings(L); //BCDEF
// Add first item back
list_addFirst(L, "a");
displayStrings(L);
list_clear(L);
if (list_isEmpty(L))
printf("List was cleared.\n");
// Add some strings and remove all that begin with -
int nums[] = {1, 2, 3, 4, 6, 7, 8};
int x;
for (x = 0; x < 7; x++)
list_add(L, &nums[x]);
displayIntegers(L);
list_start(L);
while (list_hasNext(L))
{
// get does not move the current node
x = *((int*)list_peek(L));
if (x % 2 == 0)
// remove will remove the node from the list altogether and
// return the data removed.
list_remove(L);
else
// next will just goto the next node and return the data.
list_next(L);
}
// Print out the odd numbers
displayIntegers(L);
// Try removing all while traversing
list_start(L);
while (list_hasNext(L))
list_remove(L);
displayIntegers(L);
if (L->first == NULL && L->last == NULL && L->size == 0)
printf("All cleaned up!\n");
// Traverse through an array of strings and find any that start
// with . and after it add 0 and add one before it that is -
list_add(L, ".1");
list_add(L, " two ");
list_add(L, ".3");
list_add(L, " four ");
list_add(L, ".5");
displayStrings(L);
list_start(L);
char* c;
while (list_hasNext(L))
{
c = (char*)list_peek(L);
if (c[0] == '.')
{
list_insertBefore(L, "-");
list_insertAfter(L, "0");
}
list_next(L);
}
displayStrings(L);
char* first = (char*)L->first->data;
char* last = (char*)L->last->data;
if (first[0] == '-' && last[0] == '+')
printf("Insertions correct.\n");
// This will clear the list of any nodes and pool them and then free
// the list itself from memory
list_free(L);
// If you're not using pooling this can be commented out. This will
// free all pooled nodes from memory. Always call this at the end
// of using any List.
unpool_list();
}
LONG ben_enc_size(BEN * node)
{
ITEM *item = NULL;
TUPLE *tuple = NULL;
char buf[BUF_SIZE];
LONG size = 0;
if (node == NULL) {
return size;
}
switch (node->t) {
case BEN_DICT:
size += 2; /* de */
if (node->v.d == NULL) {
return size;
}
if (node->v.d->item == NULL) {
return size;
}
item = list_start(node->v.d);
do {
tuple = list_value(item);
if (tuple->key != NULL && tuple->val != NULL) {
size += ben_enc_size(tuple->key);
size += ben_enc_size(tuple->val);
}
item = list_next(item);
} while (item != NULL);
break;
case BEN_LIST:
size += 2; /* le */
if (node->v.l == NULL) {
return size;
}
if (node->v.l->item == NULL) {
return size;
}
item = list_start(node->v.l);
do {
if (item->val != NULL) {
size += ben_enc_size(item->val);
}
item = list_next(item);
} while (item != NULL);
break;
case BEN_INT:
snprintf(buf, BUF_SIZE, "i%lie", node->v.i);
size += strlen(buf);
break;
case BEN_STR:
snprintf(buf, BUF_SIZE, "%li:", node->v.s->i);
size += strlen(buf) + node->v.s->i;
break;
}
return size;
}
UCHAR *ben_enc_rec(BEN * node, UCHAR * p)
{
ITEM *item = NULL;
TUPLE *tuple = NULL;
char buf[BUF_SIZE];
LONG len = 0;
if (node == NULL || p == NULL) {
return NULL;
}
switch (node->t) {
case BEN_DICT:
*p++ = 'd';
if (node->v.d != NULL && node->v.d->item != NULL) {
item = list_start(node->v.d);
do {
tuple = list_value(item);
if (tuple->key != NULL && tuple->val != NULL) {
if ((p =
ben_enc_rec(tuple->key,
p)) == NULL) {
return NULL;
}
if ((p =
ben_enc_rec(tuple->val,
p)) == NULL) {
return NULL;
}
}
item = list_next(item);
} while (item != NULL);
}
*p++ = 'e';
break;
case BEN_LIST:
*p++ = 'l';
if (node->v.l != NULL && node->v.l->item != NULL) {
item = list_start(node->v.l);
do {
if ((p = ben_enc_rec(item->val, p)) == NULL) {
return NULL;
}
item = list_next(item);
} while (item != NULL);
}
*p++ = 'e';
break;
case BEN_INT:
snprintf(buf, BUF_SIZE, "i%lie", node->v.i);
len = strlen(buf);
memcpy(p, buf, len);
p += len;
break;
case BEN_STR:
/* Meta */
snprintf(buf, BUF_SIZE, "%li:", node->v.s->i);
len = strlen(buf);
memcpy(p, buf, len);
p += len;
/* Data */
if (node->v.s->i > 0) {
memcpy(p, node->v.s->s, node->v.s->i);
p += node->v.s->i;
}
break;
}
return p;
}
/*Main function pass command line arg for each of the files to parse*/
int main ( int argc, char *argv[] ) {
int i;
linkedlist *wlist = NULL;
file_str *filestr;
FILE *fp;
char *linebuf;
unsigned int buflen;
char *word;
word_str *wordstr;
int linenum;
int *linenump;
if(argc <= 1)
{
printf("Sorry no files were given!");
return(-1);
}
/*iterate through the files*/
for(i=1;i<argc;i++)
{
linenum = 0;
fp = fopen(argv[i],"r");
if(fp == NULL)
{
printf("Bad filename detected\n");
return(-1);
}
/*reading each line*/
while(!feof(fp))
{
linenum++;
/*allocate some mem for the line read*/
buflen = BUFLEN;
linebuf = (char*)malloc(sizeof(char)*buflen);
if(linebuf == NULL)
{
printf("Could not allocate mem to read line from file!\n");
return(-1);
}
fgets(linebuf,sizeof(char)*BUFLEN,fp);
/*if there was not enough buffer length tack
*on some more and read more of the file
*/
while(1)
{
if(!(feof(fp)||(linebuf[strlen(linebuf)-1]=='\n')))
{
buflen += BUFLEN-1;
linebuf = (char*)realloc(linebuf,sizeof(char)*buflen);
if(linebuf == NULL)
{
/*The line was too long to read
*With some refactoring this operation could be split
*into multiple parsing. Issue is insuring a word is not
*cut off
*/
printf("Could not allocate mem to read line from file!\n");
return(-1);
}
}else{
break;
}
if(fgets(&linebuf[buflen-BUFLEN],sizeof(char)*BUFLEN,fp)==NULL)
{
/*we reached eof and no data was read make sure that word
*is cleared nice
*/
word[0]='\n';
}
}
/*break up the line into words based on delimeter string*/
word = strtok(linebuf, WORDDEL);
while(word != NULL &&!feof(fp))
{
/*see if the line was blank, skip it*/
if(linebuf[0]=='\n')
break;
/*we dont want the 'word' and 'word\n' to be different*/
if(word[strlen(word)-1]=='\n')
{
word[strlen(word)-1] = '\0';
}
/*record information about the file*/
filestr = (file_str*)malloc(sizeof(file_str));
if(filestr == NULL)
{
printf("Could not allocate mem to hold list for file name!\n");
return(-1);
}
filestr->filename=(char*)malloc(sizeof(char)*strlen(argv[i]));
if(filestr->filename == NULL)
{
printf("Could not allocate mem to store file name!\n");
return(-1);
}
strcpy(filestr->filename,argv[i]);
linenump = (int*)malloc(sizeof(int));
*linenump = linenum;
filestr->lines = list_start((void*)linenump);
/*record information about the word*/
wordstr = (word_str*)malloc(sizeof(word_str));
if(wordstr == NULL)
{
printf("Could not allocate mem for word list storage!\n");
return(-1);
}
wordstr->word = (char*)malloc(sizeof(char)*strlen(word));
if(wordstr->word == NULL)
{
printf("Could not allocate mem to store word!\n");
return(-1);
}
strcpy(wordstr->word,word);
/*create the linked list of files for the word*/
wordstr->files = list_start(filestr);
/*Add the word to the linkedlist, determine if the list is new*/
if(wlist==NULL)
wlist = list_start(wordstr);
else
wlist = list_add(wlist,wordstr);
/*clear out the word*/
word = strtok(NULL, WORDDEL);
}
/*free all of the memmory that was allocated for the line*/
free(linebuf);
}
/*close the file for the next file*/
fclose(fp);
}
/*sort all of the words*/
wlist = mergesort(wlist,wordcmp);
/*combine the file linkedlists for dup words*/
wlist = mergelist(wlist,wordcmp,wordmergepost);
/*Desplay formated index*/
display(wlist);
return (0);
}
dsEnqError srch_start()
{
struct ds_search_arg search_arg;
struct ds_search_result result;
struct DSError error;
dsEnqError return_error;
extern Filter make_filter();
DN curr_rdn;
if (*mvalue == '\0') {
return list_start();
}
if (get_default_service (&search_arg.sra_common) != 0) {
return nothingfound;
}
search_arg.sra_common.ca_servicecontrol.svc_options = SVC_OPT_PREFERCHAIN;
curr_rdn = search_arg.sra_baseobject = (*base_path != 'T'?
str2dn (base_path):
NULLDN);
search_arg.sra_eis.eis_allattributes = FALSE;
search_arg.sra_eis.eis_infotypes = EIS_ATTRIBUTETYPESONLY;
search_arg.sra_eis.eis_select = 0;
search_arg.sra_searchaliases = TRUE;
search_arg.sra_subset = SRA_ONELEVEL;
while (curr_rdn != NULLDN) {
if (!strcmp(curr_rdn->dn_rdn->rdn_at->oa_ot.ot_stroid,
"2.5.4.10")) {
search_arg.sra_subset = SRA_WHOLESUBTREE;
break;
}
curr_rdn = curr_rdn->dn_parent;
}
if ((search_arg.sra_filter = make_filter(filt_arr[typeindx])) == NULLFILTER)
return duaerror;
#ifndef NO_STATS
LLOG (log_stat, LLOG_NOTICE, ("search +%s, extent %d, val %s",
base_path,search_arg.sra_subset, mvalue));
#endif
if(ds_search (&search_arg, &error, &result) != DS_OK) {
/* deal with error */
free_seq(dnseq);
dnseq = NULLDS;
dn_number = 0;
log_ds_error(&error);
ds_error_free(&error);
switch (error.dse_type) {
case DSE_LOCALERROR:
return_error = duaerror;
break;
case DSE_REMOTEERROR:
return_error = localdsaerror;
break;
case DSE_ATTRIBUTEERROR:
return_error = attributerror;
break;
case DSE_REFERRAL:
case DSE_DSAREFERRAL:
return_error = remotedsaerror;
break;
case DSE_SECURITYERROR:
return_error = security;
break;
case DSE_NAMEERROR:
return_error = namerror;
break;
case DSE_SERVICEERROR:
return_error = serviceerror;
break;
default:
return_error = localdsaerror;
break;
}
} else {
correlate_search_results (&result);
dn_number = 0;
if (result.CSR_entries != NULLENTRYINFO) {
register EntryInfo *ptr;
return_error = Okay;
free_seq(dnseq);
dnseq = NULLDS;
dn_number = 0;
for (ptr = result.CSR_entries;
ptr != NULLENTRYINFO;
ptr = ptr->ent_next){
dn_number++;
dn2buf((caddr_t) ptr->ent_dn, goto_path);
add_seq(&dnseq, goto_path);
}
if (dn_number) dnseq = SortList(dnseq);
} else if (result.CSR_limitproblem == LSR_NOLIMITPROBLEM) {
free_seq(dnseq);
dnseq = NULLDS;
dn_number = 0;
return_error = nothingfound;
}
if(result.CSR_limitproblem != LSR_NOLIMITPROBLEM) {
switch (result.CSR_limitproblem) {
case LSR_TIMELIMITEXCEEDED:
if (dn_number > 0) return_error = timelimit_w_partial;
else {
free_seq(dnseq);
dnseq = NULLDS;
return_error = timelimit;
}
break;
case LSR_SIZELIMITEXCEEDED:
return_error = listsizelimit;
break;
case LSR_ADMINSIZEEXCEEDED:
if (dn_number > 0) return_error = adminlimit_w_partial;
else {
free_seq(dnseq);
dnseq = NULLDS;
return_error = adminlimit;
}
break;
}
entryinfo_free(result.CSR_entries, 0);
}
}
entry_number = dn_number;
filter_free(search_arg.sra_filter);
dn_free(search_arg.sra_baseobject);
ds_error_free(&error);
return return_error;
}
