void tracy_free(struct tracy* t) {
/* Free hooks list */
ll_free(t->hooks);
/* Free all children */
free_children(t->childs);
ll_free(t->childs);
free(t);
}
int main(int argc, char** argv) {
struct tracy *tracy;
ll = ll_init();
tracy = tracy_init(TRACY_TRACE_CHILDREN);
if (argc < 2) {
printf("Usage: county <program name> <program arguments>\n");
return EXIT_FAILURE;
}
if (tracy_set_default_hook(tracy, all)) {
printf("Failed to hook default hook.\n");
return EXIT_FAILURE;
}
argv++; argc--;
if (!tracy_exec(tracy, argv)) {
perror("tracy_exec returned NULL");
return EXIT_FAILURE;
}
tracy_main(tracy);
tracy_free(tracy);
print_stats();
ll_free(ll);
return 0;
}
/*
* Functionality for pthread_mutex_unlock()
*/
int mypthread_mutex_unlock(mypthread_mutex_t *mutex) {
sem_wait(&mutex_sem);
mutex->lock = false;
ll_free(&(mutex->blocked_q_head), &(mutex->blocked_q_tail));
sem_post(&mutex_sem);
return 0;
}
//-----------------------------------------------------------------------------
static void req_free(rq_http_req_t *req)
{
param_t *param;
assert(req);
assert(req->reply);
assert(BUF_LENGTH(req->reply) == 0);
req->reply = expbuf_free(req->reply);
assert(req->reply == NULL);
// if the message is not NULL, then it means that we didn't send off the reply.
assert(req->msg == NULL);
if (req->param_list) {
assert(req->params);
while((param = ll_pop_head(req->param_list))) {
assert(param->key);
free(param->key);
assert(param->value);
free(param->value);
free(param);
}
req->param_list = ll_free(req->param_list);
assert(req->param_list == NULL);
}
if (req->host) { free(req->host); }
if (req->path) { free(req->path); }
if (req->params) { free(req->params); }
free(req);
}
static t_ll *find_cols_rec(t_ll *files, int c, int width)
{
t_ll *cols;
t_ll *more_cols;
t_ll *file;
int i;
int max;
int len;
cols = init_cols(c);
for (i = 0, file = files; file != NULL; i++, file = file->next)
{
max = COLSIZE_AT(i);
len = my_strlen(FINFO_LL_FILENAME(file)) + g_opts->filetypesymb;
if (len > max)
{
COLSIZE_AT(i) = len;
}
}
if (columns_too_large(cols, width))
{
ll_free(cols);
return (NULL);
}
more_cols = find_cols_rec(files, c + 1, width);
return (more_cols != NULL) ? more_cols : cols;
}
void rq_http_free(rq_http_t *http)
{
assert(http);
assert(http->risp);
http->risp = risp_shutdown(http->risp);
assert(http->risp == NULL);
if (http->safe_buffer) {
assert(http->safe_len >= 0);
free(http->safe_buffer);
http->safe_buffer = NULL;
http->safe_len = 0;
}
assert(http->queue);
free(http->queue);
http->queue = NULL;
http->rq = NULL;
http->handler = NULL;
http->arg = NULL;
assert(http->req_list);
assert(ll_count(http->req_list) == 0);
http->req_list = ll_free(http->req_list);
assert(http->req_list == NULL);
free(http);
}
void sll_free(struct sortedll_st* sll)
{
if (sll)
{
ll_free(sll->ll);
free(sll);
}
}
void queue_free(Queue *q){
if(q->l != NULL)
{
ll_free(q->l);
}
q->l = NULL;
free(q);
}
static int on_accepted(const struct jbxm_initconf_st* iconf,
struct jbxm_callback_if_st* cbif)
{
assert(iconf);
assert(cbif);
assert(cbif->type == JBXM_CBT_ACCEPTED);
bool success = false;
struct UserData_st* ud = calloc(1, sizeof(struct UserData_st));
if (! ud)
{
fprintf(stderr, "error: calloc (errno=%d)\n", errno);
goto EXIT_LABEL;
}
// set ud members
ud->headers = hm_init(19);
if (! ud->headers)
{
fprintf(stderr, "error: hm_init\n");
goto EXIT_LABEL;
}
ud->body_chunks = ll_init(free_varmem);
if (! ud->body_chunks)
{
fprintf(stderr, "error: ll_init\n");
goto EXIT_LABEL;
}
// save to memory
dbSET0(cbif, "user-data", ud);
success = true;
EXIT_LABEL:
if (! success)
{
if (ud)
{
hm_free(ud->headers);
ll_free(ud->body_chunks);
free(ud);
}
return -1;
}
return 0;
}
//-----------------------------------------------------------------------------
// Cleanup the resources allocated int he settings object. Currently this
// just includes the list of controllers.
void settings_cleanup(settings_t *ptr)
{
char *str;
assert(ptr != NULL);
while ((str = ll_pop_head(ptr->interfaces))) { free(str); }
assert(ll_count(ptr->interfaces) == 0);
ll_free(ptr->interfaces);
free(ptr->interfaces);
ptr->interfaces = NULL;
while ((str = ll_pop_head(ptr->controllers))) { free(str); }
assert(ll_count(ptr->controllers) == 0);
ll_free(ptr->controllers);
free(ptr->controllers);
ptr->controllers = NULL;
}
/*
* Functionality for pthread_cond_broadcast()
*/
int mypthread_cond_broadcast(mypthread_cond_t *cond) {
sem_wait(&cond_sem);
sem_wait(&mypthread_sem);
//Make active all threads sleeping on cond variable
ll_free(&(cond->cond_q_head), &(cond->cond_q_tail));
sem_post(&mypthread_sem);
sem_post(&cond_sem);
return 0;
}
// nodelist should already be empty, otherwise how did we break out of the loop?
static void cleanup_nodes(system_data_t *sysdata)
{
assert(sysdata);
assert(sysdata->nodelist);
assert(ll_count(sysdata->nodelist) == 0);
ll_free(sysdata->nodelist);
free(sysdata->nodelist);
sysdata->nodelist = NULL;
}
int main(void) {
LinkedList* list = ll_new(0);
for(size_t i =1;i<=5;i++)
ll_insert(list,i,i-1);
ll_print(list);
list = ll_reverse(list);
ll_print(list);
ll_free(list);
return EXIT_SUCCESS;
}
/* Free the memory allocated for the sk_list
*/
int sk_free()
{
SK_P FAR *sk_ptr;
ll_access(&sk_list);
while ((sk_ptr = (SK_P FAR *)ll_next(&sk_list)) != NULL) {
MEM_UNLOCK(&sk_ptr->ptr->sk_val);
FREE(&sk_ptr->ptr->sk_val);
}
ll_deaccess(&sk_list);
ll_free(&sk_list);
return( db_status );
}
static void config_unload(control_t *control) {
entry_t *entry;
assert(control);
while ((entry = ll_pop_head(control->entries))) {
free(entry);
}
ll_free(control->entries);
free(control->entries);
control->entries = NULL;
control->start = 0;
control->end = 0;
}
void run_linked_list_tests() {
char* inputs[] = {
"item1",
"item2",
"item3",
};
int num_inputs = sizeof(inputs) / sizeof(char*);
char* data;
// after init
LinkedList *ll = ll_new();
assert("Starts empty", ll_is_empty(ll));
assert("Initial size is 0", ll_size(ll)==0);
assert("Peek returns null", ll_peek(ll)==NULL);
// after pushing one item
ll_push(ll, inputs[0]);
assert("Is not empty after pushing an item", !ll_is_empty(ll));
assert("Has size of 1 after pushing an item", ll_size(ll)==1);
assert("Peeking returns the item we pushed", ll_peek(ll)==inputs[0]);
// after two items
ll_push(ll, inputs[1]);
assert("Is not empty after pushing a second item", !ll_is_empty(ll));
assert("Has size of 2 after pushing a second item", ll_size(ll)==2);
assert("Peeking returns the second item", ll_peek(ll)==inputs[1]);
// after three items
ll_push(ll, inputs[2]);
assert("Is not empty after pushing a third item", !ll_is_empty(ll));
assert("Has size of 3 after pushing a third item", ll_size(ll)==3);
assert("Peeking returns the third item", ll_peek(ll)==inputs[2]);
// iterating through the items
int index = num_inputs;
int all_match = 1;
ll_each(ll, char* input, ({
all_match &= (inputs[--index] == input);
}));
assert("It iterates the correct number of times", index==0);
assert("The item provided matched each time", all_match);
// popping an item
data = ll_pop(ll);
assert("It is not empty after popping the third item", !ll_is_empty(ll));
assert("Has size of 2 after popping the third item", ll_size(ll)==2);
assert("Peeking returns the second item", ll_peek(ll)==inputs[1]);
// cleanup
ll_free(ll);
}
int main( int argc, char** argv){
int d = 0, quit = 1, commandNum, numRead;
char *input, command;
Line l = line_init(stdin);
Ll ll = ll_init();
gen_parse_args( argc, argv, &d);
while( quit){
printf("Command: ");
line_read_line( l);
input = get_line( l);
sscanf(input, " %c%n", &command, &numRead);
switch( command){
case 'q': quit = 0; break;
case 'i': if( gen_exists_num( input+numRead) ){
sscanf(input+numRead, "%d", &commandNum);
ll_insert( ll, commandNum , d);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'd': if( gen_exists_num( input+numRead) ){
sscanf( input+numRead, "%d", &commandNum);
ll_delete( ll, commandNum, d);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'c': if( gen_exists_num( input+numRead) ){
sscanf( input+numRead, "%d", &commandNum);
if( ll_contains( ll, commandNum, d) )
printf("LIST DOES CONTAIN %d\n", commandNum);
else printf("LIST DOES NOT CONATAIN %d\n", commandNum);
}
else printf("Sorry, you didn't enter a number!\n");
break;
case 'e': ll_empty( ll, d); break;
case 'l': ll_print( ll, d); break;
case 'r': ll_print_rev( ll, d); break;
case '?': gen_print_help(); break;
case 'h': gen_print_help(); break;
case '\n': break;
default: printf("Invalid Command\n");
}
free( input);
}
ll_free( ll, d);
line_free( l);
return 0;
}
void hm_free(struct hashmap_st* hm)
{
if (hm)
{
struct lnklst_st** end = &hm->array[hm->array_num];
for (struct lnklst_st** pos=hm->array; pos != end; pos++)
{
ll_free(*pos);
}
free(hm->array);
free(hm);
}
}
// The queue list would not be empty, but the queues themselves should already be cleared as part of the server shutdown event.
static void cleanup_queues(system_data_t *sysdata)
{
queue_t *q;
assert(sysdata);
assert(sysdata->queues);
while ((q = ll_pop_head(sysdata->queues))) {
queue_free(q);
free(q);
}
assert(ll_count(sysdata->queues) == 0);
ll_free(sysdata->queues);
free(sysdata->queues);
sysdata->queues = NULL;
}
// cleanup the list of controllers.
static void cleanup_controllers(system_data_t *sysdata)
{
controller_t *ct;
assert(sysdata);
assert(sysdata->controllers);
while ((ct = ll_pop_head(sysdata->controllers))) {
controller_free(ct);
free(ct);
}
assert(ll_count(sysdata->controllers) == 0);
ll_free(sysdata->controllers);
free(sysdata->controllers);
sysdata->controllers = NULL;
}
int ll_check(){
printf("Testing Linked Lists Functions\n");
LinkList *l;
counter = 0;
l = ll_init(); assert_i(ll_size(l), 0, "Check LL Size after init");
//ll_print(l);
ll_addFront(l, 1, -1); assert_i(ll_size(l), 1, "Check LL Size after addFront");
ll_addFront(l, 2, -2); assert_i(ll_size(l), 2, "Check LL Size after addFront");
ll_addFront(l, 3, -3); assert_i(ll_size(l), 3, "Check LL Size after addFront");
//ll_print(l);
ll_addBack(l, 4, -4); assert_i(ll_size(l), 4, "Check LL Size after addBack");
ll_addBack(l, 5, -5); assert_i(ll_size(l), 5, "Check LL Size after addBack");
ll_addBack(l, 6, -6); assert_i(ll_size(l), 6, "Check LL Size after addBack");
//ll_print(l);
int x, y;
ll_getFront(l, &x, &y);
assert_p(x, y, 3, -3, "Check LL getFront");
assert_i(ll_size(l), 5, "Check LL Size after getFront");
ll_getFront(l, &x, &y);
assert_p(x, y, 2, -2, "Check LL getFront");
assert_i(ll_size(l), 4, "Check LL Size after getFront");
ll_getFront(l, &x, &y);
assert_p(x, y, 1, -1, "Check LL getFront");
assert_i(ll_size(l), 3, "Check LL Size after getFront");
ll_getFront(l, &x, &y);
assert_p(x, y, 4, -4, "Check LL getFront");
assert_i(ll_size(l), 2, "Check LL Size after getFront");
ll_getFront(l, &x, &y);
assert_p(x, y, 5, -5, "Check LL getFront");
assert_i(ll_size(l), 1, "Check LL Size after getFront");
ll_getFront(l, &x, &y);
assert_p(x, y, 6, -6, "Check LL getFront");
assert_i(ll_size(l), 0, "Check LL Size after getFront");
ll_addBack(l, 2, 3); assert_i(ll_size(l), 1, "Check LL Size after addBack on Empty List");
ll_getFront(l, &x, &y);
assert_p(x, y, 2, 3, "Check LL getFront");
assert_i(ll_size(l), 0, "Check LL Size after getFront");
ll_free(l);
}
// cleanup 'server'
static void cleanup_servers(system_data_t *sysdata)
{
server_t *server;
assert(sysdata);
assert(sysdata->servers);
while ((server = ll_pop_head(sysdata->servers))) {
server_free(server);
free(server);
}
assert(ll_count(sysdata->servers) == 0);
sysdata->servers = ll_free(sysdata->servers);
assert(sysdata->servers == NULL);
sysdata->servers = NULL;
}
void ll_free_recur(LList* list) {
//assert existence
assert(list != NULL);
if (list->length > 0) {
//INVARIANT: curr is non-NULL
LNode* curr = list->head;
LNode* child = curr->next;
while (child != NULL) {
ln_free_recur(curr);
curr = child;
child = child->next;
}
// INVARIANT: child == NULL
ln_free_recur(curr);
}
ll_free(list);
}
struct lnklst_st* new_lstnmods(struct lnklst_st* fkvs)
{
FUNC_ENTER
struct sortedll_st* ports = NULL;
struct lnklst_st* lstnmods = NULL; // ports がユニークなので lnklst_t でよい
ports = sll_init(NULL, cmp_as_long_, SLLOPT_DISALLOW_DUPVAL);
if (! ports)
{
FIRE("sll_init");
}
syserr = ll_foreach(fkvs, collect_port_, ports);
if (syserr)
{
FIRE("ll_foreach");
}
lstnmods = new_lstnmods_(ports, fkvs);
if (! lstnmods)
{
FIRE("new_lstnmods_");
}
FUNC_CHECKPOINT
if (HAS_ERROR())
{
ll_free(lstnmods);
lstnmods = NULL;
}
sll_free(ports);
ports = NULL;
FUNC_LEAVE
return lstnmods;
}
int main() {
log_info("Creating a linked list.");
LinkedList* list = ll_new();
check(list->first == NULL, "List was not correctly initialised.");
check(list->length == 0, "List should not have any elements.");
log_info("Adding an element to the list.");
int v = 1337;
int* vpointer = malloc(sizeof(int));
*vpointer = v;
ll_prepend(list, vpointer);
check(list->length == 1, "Length increment failed");
check(list->first != NULL, "Append failed");
check(list->first->data == vpointer, "Bad address");
log_info("The address of list->first->data %p",
list->first->data);
check(*((int*) list->first->data) == v, "Bad value");
log_info("The value is %d as expected",
*((int*) list->first->data));
log_info("Adding another element.");
v = 1338;
int* another = malloc(sizeof(int));
*another = v;
ll_prepend(list, another);
check(list->length == 2, "Length increment failed");
check(*((int*) list->first->data) == v, "List increment screwed up");
log_info("Checking list[0].");
check(*((int*) ll_get(list, 0)) == v, "First element does not match what was last prepended.");
log_info("Checking list[1].");
check(*((int*) ll_get(list, 1)) == 1337, "First element does not match what was first prepended.");
log_info("Freeing the linked list.");
ll_free(list);
return 0;
error:
return 1;
}
static int on_disconnect(const struct jbxm_initconf_st* iconf,
struct jbxm_callback_if_st* cbif)
{
assert(iconf);
assert(cbif);
assert(cbif->type == JBXM_CBT_DISCONNECT);
struct UserData_st* ud = NULL;
dbUNSET(cbif, "user-data", &ud);
assert(ud);
if (ud->luaS)
{
lua_close(ud->luaS);
ud->luaS = NULL;
}
ll_free(ud->chunks);
free(ud);
return 0;
}
static int on_disconnect(const struct jbxm_initconf_st* iconf,
struct jbxm_callback_if_st* cbif)
{
assert(iconf);
assert(cbif);
assert(cbif->type == JBXM_CBT_DISCONNECT);
struct UserData_st* ud = NULL;
dbUNSET(cbif, "user-data", &ud);
assert(ud);
free(ud->method);
free(ud->path);
free(ud->response);
hm_clear(ud->headers, free_header_);
hm_free(ud->headers);
ll_free(ud->body_chunks);
free(ud);
return 0;
}
static void free_fdinfo_list(struct tracy_ll *ll)
{
struct tracy_ll_item *t;
t = ll->head;
// free custom fields
while (t) {
if (t->data) {
struct fd_info *fdi = t->data;
if (fdi) {
WARNING("unclosed file: %d(%s)\n", t->id,
fdi->filename);
free_fdinfo(fdi);
t->data = NULL;
}
}
t = t->next;
}
// free the list itself
ll_free(ll);
}
void rq_blacklist_free(rq_blacklist_t *blacklist)
{
cache_entry_t *tmp;
assert(blacklist);
assert(blacklist->rq);
assert(blacklist->queue);
assert(blacklist->expires > 0);
assert(blacklist->cache);
blacklist->rq = NULL;
blacklist->queue = NULL;
assert(blacklist->risp);
risp_shutdown(blacklist->risp);
blacklist->risp = NULL;
while ((tmp = ll_pop_head(blacklist->cache))) {
free(tmp);
}
ll_free(blacklist->cache);
free(blacklist->cache);
blacklist->cache = NULL;
}
/**
* Cleans up after all tests have been run, cleans up all global variables
*/
void clean_up(){
ll_free(problems);
}
