struct val_anchors*
anchors_create(void)
{
struct val_anchors* a = (struct val_anchors*)calloc(1, sizeof(*a));
if(!a)
return NULL;
a->region = regional_create();
if(!a->region) {
free(a);
return NULL;
}
a->tree = rbtree_create(anchor_cmp);
if(!a->tree) {
anchors_delete(a);
return NULL;
}
a->autr = autr_global_create();
if(!a->autr) {
anchors_delete(a);
return NULL;
}
lock_basic_init(&a->lock);
lock_protect(&a->lock, a, sizeof(*a));
lock_protect(&a->lock, a->autr, sizeof(*a->autr));
return a;
}
void
alloc_init(struct alloc_cache* alloc, struct alloc_cache* super,
int thread_num)
{
memset(alloc, 0, sizeof(*alloc));
alloc->super = super;
alloc->thread_num = thread_num;
alloc->next_id = (uint64_t)thread_num; /* in steps, so that type */
alloc->next_id <<= THRNUM_SHIFT; /* of *_id is used. */
alloc->last_id = 1; /* so no 64bit constants, */
alloc->last_id <<= THRNUM_SHIFT; /* or implicit 'int' ops. */
alloc->last_id -= 1; /* for compiler portability. */
alloc->last_id |= alloc->next_id;
alloc->next_id += 1; /* because id=0 is special. */
alloc->max_reg_blocks = 100;
alloc->num_reg_blocks = 0;
alloc->reg_list = NULL;
alloc->cleanup = NULL;
alloc->cleanup_arg = NULL;
if(alloc->super)
prealloc_blocks(alloc, alloc->max_reg_blocks);
if(!alloc->super) {
lock_quick_init(&alloc->lock);
lock_protect(&alloc->lock, alloc, sizeof(*alloc));
}
}
/** create a new localzone */
static struct local_zone*
local_zone_create(uint8_t* nm, size_t len, int labs,
enum localzone_type t, uint16_t dclass)
{
struct local_zone* z = (struct local_zone*)calloc(1, sizeof(*z));
if(!z) {
return NULL;
}
z->node.key = z;
z->dclass = dclass;
z->type = t;
z->name = nm;
z->namelen = len;
z->namelabs = labs;
lock_rw_init(&z->lock);
z->region = regional_create();
if(!z->region) {
free(z);
return NULL;
}
rbtree_init(&z->data, &local_data_cmp);
lock_protect(&z->lock, &z->parent, sizeof(*z)-sizeof(rbnode_t));
/* also the zones->lock protects node, parent, name*, class */
return z;
}
struct msgreply_entry*
query_info_entrysetup(struct query_info* q, struct reply_info* r,
hashvalue_t h)
{
struct msgreply_entry* e = (struct msgreply_entry*)malloc(
sizeof(struct msgreply_entry));
if(!e) return NULL;
memcpy(&e->key, q, sizeof(*q));
e->entry.hash = h;
e->entry.key = e;
e->entry.data = r;
lock_rw_init(&e->entry.lock);
lock_protect(&e->entry.lock, &e->key, sizeof(e->key));
lock_protect(&e->entry.lock, &e->entry.hash, sizeof(e->entry.hash) +
sizeof(e->entry.key) + sizeof(e->entry.data));
lock_protect(&e->entry.lock, e->key.qname, e->key.qname_len);
q->qname = NULL;
return e;
}
struct local_zones*
local_zones_create(void)
{
struct local_zones* zones = (struct local_zones*)calloc(1,
sizeof(*zones));
if(!zones)
return NULL;
rbtree_init(&zones->ztree, &local_zone_cmp);
lock_rw_init(&zones->lock);
lock_protect(&zones->lock, &zones->ztree, sizeof(zones->ztree));
/* also lock protects the rbnode's in struct local_zone */
return zones;
}
struct val_neg_cache* val_neg_create(struct config_file* cfg, size_t maxiter)
{
struct val_neg_cache* neg = (struct val_neg_cache*)calloc(1,
sizeof(*neg));
if(!neg) {
log_err("Could not create neg cache: out of memory");
return NULL;
}
neg->nsec3_max_iter = maxiter;
neg->max = 1024*1024; /* 1 M is thousands of entries */
if(cfg) neg->max = cfg->neg_cache_size;
rbtree_init(&neg->tree, &val_neg_zone_compare);
lock_basic_init(&neg->lock);
lock_protect(&neg->lock, neg, sizeof(*neg));
return neg;
}
static int
testframe_init(struct module_env* env, struct cachedb_env* cachedb_env)
{
struct testframe_moddata* d;
(void)env;
verbose(VERB_ALGO, "testframe_init");
d = (struct testframe_moddata*)calloc(1,
sizeof(struct testframe_moddata));
cachedb_env->backend_data = (void*)d;
if(!cachedb_env->backend_data) {
log_err("out of memory");
return 0;
}
lock_basic_init(&d->lock);
lock_protect(&d->lock, d, sizeof(*d));
return 1;
}