int call_alloc(struct call **callp, struct flowmgr *fm, const char *convid)
{
struct call *call;
int err;
if (!callp || !fm)
return EINVAL;
call = mem_zalloc(sizeof(*call), call_destructor);
if (call == NULL) {
return ENOMEM;
}
info("flowmgr(%p): call(%p) alloc\n", fm, call);
call->fm = fm;
err = dict_add(fm->calls, convid, call);
if (err) {
warning("flowmgr: call_alloc: failed to add to calls: %m\n",
err);
goto out;
}
err = str_dup(&call->convid, convid);
if (err) {
goto out;
}
err = dict_alloc(&call->flows);
if (err) {
goto out;
}
err = dict_alloc(&call->users);
if (err) {
goto out;
}
list_init(&call->conf_parts);
list_init(&call->rrl);
list_init(&call->ghostl);
/* Call is now owned by the dictionary */
mem_deref(call);
out:
if (err) {
/* If no one received the call object,
* it is referenced by the dictionary
*/
mem_deref(call);
}
else if (callp) {
*callp = call;
}
return err;
}
DICT *
dict_erlang_open(const char *key, int open_flags, int dict_flags)
{
DICT_ERLANG *dict_erlang;
if (open_flags != O_RDONLY)
msg_fatal("%s:%s map requires O_RDONLY access mode",
DICT_TYPE_ERLANG, key);
erl_init(NULL, 0);
dict_erlang = (DICT_ERLANG *)dict_alloc(DICT_TYPE_ERLANG, key,
sizeof(DICT_ERLANG));
dict_erlang->dict.lookup = dict_erlang_lookup;
dict_erlang->dict.close = dict_erlang_close;
dict_erlang->dict.flags = dict_flags;
erlang_parse_config(dict_erlang, key);
if (dict_erlang->nodes->argc == 0)
msg_fatal("no erlang nodes specified");
dict_erlang->active_node = 0;
if (dict_erlang->cookie == NULL)
msg_fatal("no erlang cookie specified");
if (dict_erlang->mod == NULL)
msg_fatal("no erlang module specified");
if (dict_erlang->fun == NULL)
msg_fatal("no erlang function specified");
return (DICT_DEBUG(&dict_erlang->dict));
}
DICT *dict_tcp_open(const char *map, int open_flags, int dict_flags)
{
DICT_TCP *dict_tcp;
dict_errno = 0;
/*
* Sanity checks.
*/
if (dict_flags & DICT_FLAG_NO_UNAUTH)
msg_fatal("%s:%s map is not allowed for security sensitive data",
DICT_TYPE_TCP, map);
if (open_flags != O_RDONLY)
msg_fatal("%s:%s map requires O_RDONLY access mode",
DICT_TYPE_TCP, map);
/*
* Create the dictionary handle. Do not open the connection until the
* first request is made.
*/
dict_tcp = (DICT_TCP *) dict_alloc(DICT_TYPE_TCP, map, sizeof(*dict_tcp));
dict_tcp->fp = 0;
dict_tcp->raw_buf = dict_tcp->hex_buf = 0;
dict_tcp->dict.lookup = dict_tcp_lookup;
dict_tcp->dict.close = dict_tcp_close;
dict_tcp->dict.flags = dict_flags | DICT_FLAG_PATTERN;
if (dict_flags & DICT_FLAG_FOLD_MUL)
dict_tcp->dict.fold_buf = vstring_alloc(10);
return (DICT_DEBUG (&dict_tcp->dict));
}
/* Create an initial dictionary if necessary. */
static ref *
make_initial_dict(i_ctx_t *i_ctx_p, const char *iname, ref idicts[])
{
int i;
/* systemdict was created specially. */
if (!strcmp(iname, "systemdict"))
return systemdict;
for (i = 0; i < countof(initial_dictionaries); i++) {
const char *dname = initial_dictionaries[i].name;
const int dsize = initial_dictionaries[i].size;
if (!strcmp(iname, dname)) {
ref *dref = &idicts[i];
if (r_has_type(dref, t_null)) {
gs_ref_memory_t *mem =
(initial_dictionaries[i].local ?
iimemory_local : iimemory_global);
int code = dict_alloc(mem, dsize, dref);
if (code < 0)
return 0; /* disaster */
}
return dref;
}
}
/*
* Name mentioned in some op_def, but not in initial_dictionaries.
* Punt.
*/
return 0;
}
DICT *dict_pgsql_open(const char *name, int open_flags, int dict_flags)
{
DICT_PGSQL *dict_pgsql;
CFG_PARSER *parser;
/*
* Sanity check.
*/
if (open_flags != O_RDONLY)
return (dict_surrogate(DICT_TYPE_PGSQL, name, open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_PGSQL, name));
/*
* Open the configuration file.
*/
if ((parser = cfg_parser_alloc(name)) == 0)
return (dict_surrogate(DICT_TYPE_PGSQL, name, open_flags, dict_flags,
"open %s: %m", name));
dict_pgsql = (DICT_PGSQL *) dict_alloc(DICT_TYPE_PGSQL, name,
sizeof(DICT_PGSQL));
dict_pgsql->dict.lookup = dict_pgsql_lookup;
dict_pgsql->dict.close = dict_pgsql_close;
dict_pgsql->dict.flags = dict_flags;
dict_pgsql->parser = parser;
pgsql_parse_config(dict_pgsql, name);
dict_pgsql->active_host = 0;
dict_pgsql->pldb = plpgsql_init(dict_pgsql->hosts);
if (dict_pgsql->pldb == NULL)
msg_fatal("couldn't intialize pldb!\n");
dict_pgsql->dict.owner = cfg_get_owner(dict_pgsql->parser);
return (DICT_DEBUG (&dict_pgsql->dict));
}
/*
* Make a copy of dict "d". Shallow if "deep" is FALSE.
* The refcount of the new dict is set to 1.
* See item_copy() for "copyID".
* Returns NULL when out of memory.
*/
dict_T *
dict_copy(dict_T *orig, int deep, int copyID)
{
dict_T *copy;
dictitem_T *di;
int todo;
hashitem_T *hi;
if (orig == NULL)
return NULL;
copy = dict_alloc();
if (copy != NULL)
{
if (copyID != 0)
{
orig->dv_copyID = copyID;
orig->dv_copydict = copy;
}
todo = (int)orig->dv_hashtab.ht_used;
for (hi = orig->dv_hashtab.ht_array; todo > 0 && !got_int; ++hi)
{
if (!HASHITEM_EMPTY(hi))
{
--todo;
di = dictitem_alloc(hi->hi_key);
if (di == NULL)
break;
if (deep)
{
if (item_copy(&HI2DI(hi)->di_tv, &di->di_tv, deep,
copyID) == FAIL)
{
vim_free(di);
break;
}
}
else
copy_tv(&HI2DI(hi)->di_tv, &di->di_tv);
if (dict_add(copy, di) == FAIL)
{
dictitem_free(di);
break;
}
}
}
++copy->dv_refcount;
if (todo > 0)
{
dict_unref(copy);
copy = NULL;
}
}
return copy;
}
DICT *dict_cidr_open(const char *mapname, int open_flags, int dict_flags)
{
DICT_CIDR *dict_cidr;
VSTREAM *map_fp;
VSTRING *line_buffer = vstring_alloc(100);
VSTRING *why = vstring_alloc(100);
DICT_CIDR_ENTRY *rule;
DICT_CIDR_ENTRY *last_rule = 0;
int lineno = 0;
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
msg_fatal("%s:%s map requires O_RDONLY access mode",
DICT_TYPE_CIDR, mapname);
/*
* XXX Eliminate unnecessary queries by setting a flag that says "this
* map matches network addresses only".
*/
dict_cidr = (DICT_CIDR *) dict_alloc(DICT_TYPE_CIDR, mapname,
sizeof(*dict_cidr));
dict_cidr->dict.lookup = dict_cidr_lookup;
dict_cidr->dict.close = dict_cidr_close;
dict_cidr->dict.flags = dict_flags | DICT_FLAG_PATTERN;
dict_cidr->head = 0;
if ((map_fp = vstream_fopen(mapname, O_RDONLY, 0)) == 0)
msg_fatal("open %s: %m", mapname);
while (readlline(line_buffer, map_fp, &lineno)) {
rule = dict_cidr_parse_rule(vstring_str(line_buffer), why);
if (rule == 0) {
msg_warn("cidr map %s, line %d: %s: skipping this rule",
mapname, lineno, vstring_str(why));
continue;
}
if (last_rule == 0)
dict_cidr->head = rule;
else
last_rule->cidr_info.next = &(rule->cidr_info);
last_rule = rule;
}
/*
* Clean up.
*/
if (vstream_fclose(map_fp))
msg_fatal("cidr map %s: read error: %m", mapname);
vstring_free(line_buffer);
vstring_free(why);
return (DICT_DEBUG (&dict_cidr->dict));
}
DICT *dict_static_open(const char *name, int unused_flags, int dict_flags)
{
DICT *dict;
dict = dict_alloc(DICT_TYPE_STATIC, name, sizeof(*dict));
dict->lookup = dict_static_lookup;
dict->close = dict_static_close;
dict->flags = dict_flags | DICT_FLAG_FIXED;
dict->owner.status = DICT_OWNER_TRUSTED;
return (DICT_DEBUG (dict));
}
void
dict_xset(struct dict *d, const char * k, void *data)
{
struct dictentry *entry;
if ((entry = dict_alloc(k, data)) == NULL)
err(1, "dict_xset: malloc");
if (SPLAY_INSERT(_dict, &d->dict, entry))
errx(1, "dict_xset(%p, %s)", d, k);
d->count += 1;
}
static DICT *dict_cdbq_open(const char *path, int dict_flags)
{
DICT_CDBQ *dict_cdbq;
struct stat st;
char *cdb_path;
int fd;
cdb_path = concatenate(path, CDB_SUFFIX, (char *) 0);
if ((fd = open(cdb_path, O_RDONLY)) < 0)
return (dict_surrogate(DICT_TYPE_CDB, path, O_RDONLY, dict_flags,
"open database %s: %m", cdb_path));
dict_cdbq = (DICT_CDBQ *) dict_alloc(DICT_TYPE_CDB,
cdb_path, sizeof(*dict_cdbq));
#if defined(TINYCDB_VERSION)
if (cdb_init(&(dict_cdbq->cdb), fd) != 0)
msg_fatal("dict_cdbq_open: unable to init %s: %m", cdb_path);
#else
cdb_init(&(dict_cdbq->cdb), fd);
#endif
dict_cdbq->dict.lookup = dict_cdbq_lookup;
dict_cdbq->dict.close = dict_cdbq_close;
dict_cdbq->dict.stat_fd = fd;
if (fstat(fd, &st) < 0)
msg_fatal("dict_dbq_open: fstat: %m");
dict_cdbq->dict.mtime = st.st_mtime;
dict_cdbq->dict.owner.uid = st.st_uid;
dict_cdbq->dict.owner.status = (st.st_uid != 0);
close_on_exec(fd, CLOSE_ON_EXEC);
/*
* Warn if the source file is newer than the indexed file, except when
* the source file changed only seconds ago.
*/
if (stat(path, &st) == 0
&& st.st_mtime > dict_cdbq->dict.mtime
&& st.st_mtime < time((time_t *) 0) - 100)
msg_warn("database %s is older than source file %s", cdb_path, path);
/*
* If undecided about appending a null byte to key and value, choose to
* try both in query mode.
*/
if ((dict_flags & (DICT_FLAG_TRY1NULL | DICT_FLAG_TRY0NULL)) == 0)
dict_flags |= DICT_FLAG_TRY0NULL | DICT_FLAG_TRY1NULL;
dict_cdbq->dict.flags = dict_flags | DICT_FLAG_FIXED;
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict_cdbq->dict.fold_buf = vstring_alloc(10);
myfree(cdb_path);
return (&dict_cdbq->dict);
}
DICT *dict_random_open(const char *name, int open_flags, int dict_flags)
{
DICT_RANDOM *dict_random;
char *saved_name = 0;
size_t len;
/*
* Clarity first. Let the optimizer worry about redundant code.
*/
#define DICT_RANDOM_RETURN(x) do { \
if (saved_name != 0) \
myfree(saved_name); \
return (x); \
} while (0)
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
DICT_RANDOM_RETURN(dict_surrogate(DICT_TYPE_RANDOM, name,
open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_RANDOM, name));
/*
* Split the name name into its constituent parts.
*/
if ((len = balpar(name, "{}")) == 0 || name[len] != 0
|| *(saved_name = mystrndup(name + 1, len - 2)) == 0)
DICT_RANDOM_RETURN(dict_surrogate(DICT_TYPE_RANDOM, name,
open_flags, dict_flags,
"bad syntax: \"%s:%s\"; "
"need \"%s:{type:name...}\"",
DICT_TYPE_RANDOM, name,
DICT_TYPE_RANDOM));
/*
* Bundle up the result.
*/
dict_random =
(DICT_RANDOM *) dict_alloc(DICT_TYPE_RANDOM, name, sizeof(*dict_random));
dict_random->dict.lookup = dict_random_lookup;
dict_random->dict.close = dict_random_close;
dict_random->dict.flags = dict_flags | DICT_FLAG_PATTERN;
dict_random->replies = argv_splitq(saved_name, ", \t\r\n", "{}");
dict_random->dict.owner.status = DICT_OWNER_TRUSTED;
dict_random->dict.owner.uid = 0;
DICT_RANDOM_RETURN(DICT_DEBUG (&dict_random->dict));
}
/*
* Allocate an empty dict for a return value.
* Returns OK or FAIL.
*/
int
rettv_dict_alloc(typval_T *rettv)
{
dict_T *d = dict_alloc();
if (d == NULL)
return FAIL;
rettv->vval.v_dict = d;
rettv->v_type = VAR_DICT;
rettv->v_lock = 0;
++d->dv_refcount;
return OK;
}
DICT *dict_env_open(const char *name, int unused_flags, int dict_flags)
{
DICT *dict;
dict = dict_alloc(DICT_TYPE_ENVIRON, name, sizeof(*dict));
dict->lookup = dict_env_lookup;
dict->update = dict_env_update;
dict->close = dict_env_close;
dict->flags = dict_flags | DICT_FLAG_FIXED;
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict->fold_buf = vstring_alloc(10);
dict->owner.status = DICT_OWNER_TRUSTED;
return (DICT_DEBUG (dict));
}
DICT *dict_ht_open(const char *name, int unused_open_flags, int dict_flags)
{
DICT_HT *dict_ht;
dict_ht = (DICT_HT *) dict_alloc(DICT_TYPE_HT, name, sizeof(*dict_ht));
dict_ht->dict.lookup = dict_ht_lookup;
dict_ht->dict.update = dict_ht_update;
dict_ht->dict.sequence = dict_ht_sequence;
dict_ht->dict.close = dict_ht_close;
dict_ht->dict.flags = dict_flags | DICT_FLAG_FIXED;
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict_ht->dict.fold_buf = vstring_alloc(10);
dict_ht->table = htable_create(0);
dict_ht->dict.owner.status = DICT_OWNER_TRUSTED;
return (&dict_ht->dict);
}
void *
dict_set(struct dict *d, const char *k, void *data)
{
struct dictentry *entry, key;
char *old;
key.key = k;
if ((entry = SPLAY_FIND(_dict, &d->dict, &key)) == NULL) {
if ((entry = dict_alloc(k, data)) == NULL)
err(1, "dict_set: malloc");
SPLAY_INSERT(_dict, &d->dict, entry);
old = NULL;
d->count += 1;
} else {
old = entry->data;
entry->data = data;
}
return (old);
}
DICT *dict_nis_open(const char *map, int open_flags, int dict_flags)
{
DICT_NIS *dict_nis;
if (open_flags != O_RDONLY)
msg_fatal("%s:%s map requires O_RDONLY access mode",
DICT_TYPE_NIS, map);
dict_nis = (DICT_NIS *) dict_alloc(DICT_TYPE_NIS, map, sizeof(*dict_nis));
dict_nis->dict.lookup = dict_nis_lookup;
dict_nis->dict.close = dict_nis_close;
dict_nis->dict.flags = dict_flags | DICT_FLAG_FIXED;
if ((dict_flags & (DICT_FLAG_TRY1NULL | DICT_FLAG_TRY0NULL)) == 0)
dict_nis->dict.flags |= (DICT_FLAG_TRY1NULL | DICT_FLAG_TRY0NULL);
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict_nis->dict.fold_buf = vstring_alloc(10);
if (dict_nis_domain == 0)
dict_nis_init();
return (DICT_DEBUG (&dict_nis->dict));
}
/**********************************************************************
* public interface dict_mysql_open
* create association with database with appropriate values
* parse the map's config file
* allocate memory
**********************************************************************/
DICT *dict_mysql_open(const char *name, int open_flags, int dict_flags)
{
DICT_MYSQL *dict_mysql;
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
msg_fatal("%s:%s map requires O_RDONLY access mode",
DICT_TYPE_MYSQL, name);
dict_mysql = (DICT_MYSQL *) dict_alloc(DICT_TYPE_MYSQL, name,
sizeof(DICT_MYSQL));
dict_mysql->dict.lookup = dict_mysql_lookup;
dict_mysql->dict.close = dict_mysql_close;
dict_mysql->dict.flags = dict_flags | DICT_FLAG_FIXED;
dict_mysql->name = mysqlname_parse(name);
dict_mysql->pldb = plmysql_init(dict_mysql->name->hostnames,
dict_mysql->name->len_hosts);
if (dict_mysql->pldb == NULL)
msg_fatal("couldn't intialize pldb!\n");
return (DICT_DEBUG (&dict_mysql->dict));
}
DICT *dict_sqlite_open(const char *name, int open_flags, int dict_flags)
{
DICT_SQLITE *dict_sqlite;
CFG_PARSER *parser;
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
return (dict_surrogate(DICT_TYPE_SQLITE, name, open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_SQLITE, name));
/*
* Open the configuration file.
*/
if ((parser = cfg_parser_alloc(name)) == 0)
return (dict_surrogate(DICT_TYPE_SQLITE, name, open_flags, dict_flags,
"open %s: %m", name));
dict_sqlite = (DICT_SQLITE *) dict_alloc(DICT_TYPE_SQLITE, name,
sizeof(DICT_SQLITE));
dict_sqlite->dict.lookup = dict_sqlite_lookup;
dict_sqlite->dict.close = dict_sqlite_close;
dict_sqlite->dict.flags = dict_flags;
dict_sqlite->parser = parser;
sqlite_parse_config(dict_sqlite, name);
if (sqlite3_open(dict_sqlite->dbpath, &dict_sqlite->db))
msg_fatal("%s:%s: Can't open database: %s\n",
DICT_TYPE_SQLITE, name, sqlite3_errmsg(dict_sqlite->db));
dict_sqlite->dict.owner = cfg_get_owner(dict_sqlite->parser);
return (DICT_DEBUG (&dict_sqlite->dict));
}
static int
ref_param_begin_write_collection(gs_param_list * plist, gs_param_name pkey,
gs_param_dict * pvalue,
gs_param_collection_type_t coll_type)
{
iparam_list *const iplist = (iparam_list *) plist;
gs_ref_memory_t *imem = iplist->ref_memory;
dict_param_list *dlist = (dict_param_list *)
gs_alloc_bytes(plist->memory, size_of(dict_param_list),
"ref_param_begin_write_collection");
int code;
if (dlist == 0)
return_error(e_VMerror);
if (coll_type != gs_param_collection_array) {
ref dref;
code = dict_alloc(imem, pvalue->size, &dref);
if (code >= 0) {
code = dict_param_list_write(dlist, &dref, NULL, imem);
dlist->int_keys = coll_type == gs_param_collection_dict_int_keys;
}
} else {
ref aref;
code = gs_alloc_ref_array(imem, &aref, a_all, pvalue->size,
"ref_param_begin_write_collection");
if (code >= 0)
code = array_new_indexed_plist_write(dlist, &aref, NULL, imem);
}
if (code < 0)
gs_free_object(plist->memory, dlist, "ref_param_begin_write_collection");
else
pvalue->list = (gs_param_list *) dlist;
return code;
}
DICT *dict_thash_open(const char *path, int open_flags, int dict_flags)
{
DICT_THASH *dict_thash;
VSTREAM *fp = 0;
struct stat st;
time_t before;
time_t after;
VSTRING *line_buffer = 0;
int lineno;
char *key;
char *value;
HTABLE *table;
HTABLE_INFO *ht;
/*
* Let the optimizer worry about eliminating redundant code.
*/
#define DICT_THASH_OPEN_RETURN(d) { \
DICT *__d = (d); \
if (fp != 0) \
vstream_fclose(fp); \
if (line_buffer != 0) \
vstring_free(line_buffer); \
return (__d); \
} while (0)
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
DICT_THASH_OPEN_RETURN(dict_surrogate(DICT_TYPE_THASH, path,
open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_THASH, path));
/*
* Read the flat text file into in-memory hash. Read the file again if it
* may have changed while we were reading.
*/
for (before = time((time_t *) 0); /* see below */ ; before = after) {
if ((fp = vstream_fopen(path, open_flags, 0644)) == 0) {
DICT_THASH_OPEN_RETURN(dict_surrogate(DICT_TYPE_THASH, path,
open_flags, dict_flags,
"open database %s: %m", path));
}
if (line_buffer == 0)
line_buffer = vstring_alloc(100);
lineno = 0;
table = htable_create(13);
while (readlline(line_buffer, fp, &lineno)) {
/*
* Split on the first whitespace character, then trim leading and
* trailing whitespace from key and value.
*/
key = STR(line_buffer);
value = key + strcspn(key, " \t\r\n");
if (*value)
*value++ = 0;
while (ISSPACE(*value))
value++;
trimblanks(key, 0)[0] = 0;
trimblanks(value, 0)[0] = 0;
/*
* Enforce the "key whitespace value" format. Disallow missing
* keys or missing values.
*/
if (*key == 0 || *value == 0) {
msg_warn("%s, line %d: expected format: key whitespace value"
" -- ignoring this line", path, lineno);
continue;
}
if (key[strlen(key) - 1] == ':')
msg_warn("%s, line %d: record is in \"key: value\" format;"
" is this an alias file?", path, lineno);
/*
* Optionally fold the key.
*/
if (dict_flags & DICT_FLAG_FOLD_FIX)
lowercase(key);
/*
* Store the value under the key. Handle duplicates
* appropriately.
*/
if ((ht = htable_locate(table, key)) != 0) {
if (dict_flags & DICT_FLAG_DUP_IGNORE) {
/* void */ ;
} else if (dict_flags & DICT_FLAG_DUP_REPLACE) {
myfree(ht->value);
ht->value = mystrdup(value);
} else if (dict_flags & DICT_FLAG_DUP_WARN) {
msg_warn("%s, line %d: duplicate entry: \"%s\"",
path, lineno, key);
} else {
msg_fatal("%s, line %d: duplicate entry: \"%s\"",
path, lineno, key);
}
} else {
htable_enter(table, key, mystrdup(value));
}
}
/*
* See if the source file is hot.
*/
if (fstat(vstream_fileno(fp), &st) < 0)
msg_fatal("fstat %s: %m", path);
if (vstream_fclose(fp))
msg_fatal("read %s: %m", path);
fp = 0; /* DICT_THASH_OPEN_RETURN() */
after = time((time_t *) 0);
if (st.st_mtime < before - 1 || st.st_mtime > after)
break;
/*
* Yes, it is hot. Discard the result and read the file again.
*/
htable_free(table, myfree);
if (msg_verbose > 1)
msg_info("pausing to let file %s cool down", path);
doze(300000);
}
/*
* Create the in-memory table.
*/
dict_thash = (DICT_THASH *)
dict_alloc(DICT_TYPE_THASH, path, sizeof(*dict_thash));
dict_thash->dict.lookup = dict_thash_lookup;
dict_thash->dict.sequence = dict_thash_sequence;
dict_thash->dict.close = dict_thash_close;
dict_thash->dict.flags = dict_flags | DICT_FLAG_DUP_WARN | DICT_FLAG_FIXED;
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict_thash->dict.fold_buf = vstring_alloc(10);
dict_thash->info = 0;
dict_thash->table = table;
dict_thash->dict.owner.uid = st.st_uid;
dict_thash->dict.owner.status = (st.st_uid != 0);
DICT_THASH_OPEN_RETURN(DICT_DEBUG (&dict_thash->dict));
}
/* initialize the dictionaries that hold operator definitions. */
int
obj_init(i_ctx_t **pi_ctx_p, gs_dual_memory_t *idmem)
{
int level = gs_op_language_level();
ref system_dict;
i_ctx_t *i_ctx_p;
int code;
/*
* Create systemdict. The context machinery requires that
* we do this before initializing the interpreter.
*/
code = dict_alloc(idmem->space_global,
(level >= 3 ? SYSTEMDICT_LL3_SIZE :
level >= 2 ? SYSTEMDICT_LEVEL2_SIZE : SYSTEMDICT_SIZE),
&system_dict);
if (code < 0)
return code;
/* Initialize the interpreter. */
code = gs_interp_init(pi_ctx_p, &system_dict, idmem);
if (code < 0)
return code;
i_ctx_p = *pi_ctx_p;
{
#define icount countof(initial_dictionaries)
ref idicts[icount];
int i;
const op_def *const *tptr;
min_dstack_size = MIN_DSTACK_SIZE;
refset_null(idicts, icount);
/* Put systemdict on the dictionary stack. */
if (level >= 2) {
dsp += 2;
/*
* For the moment, let globaldict be an alias for systemdict.
*/
dsp[-1] = system_dict;
min_dstack_size++;
} else {
++dsp;
}
*dsp = system_dict;
/* Create dictionaries which are to be homes for operators. */
for (tptr = op_defs_all; *tptr != 0; tptr++) {
const op_def *def;
for (def = *tptr; def->oname != 0; def++)
if (op_def_is_begin_dict(def)) {
if (make_initial_dict(i_ctx_p, def->oname, idicts) == 0)
return_error(e_VMerror);
}
}
/* Set up the initial dstack. */
for (i = 0; i < countof(initial_dstack); i++) {
const char *dname = initial_dstack[i];
++dsp;
if (!strcmp(dname, "userdict"))
dstack_userdict_index = dsp - dsbot;
ref_assign(dsp, make_initial_dict(i_ctx_p, dname, idicts));
}
/* Enter names of referenced initial dictionaries into systemdict. */
initial_enter_name("systemdict", systemdict);
for (i = 0; i < icount; i++) {
ref *idict = &idicts[i];
if (!r_has_type(idict, t_null)) {
/*
* Note that we enter the dictionary in systemdict
* even if it is in local VM. There is a special
* provision in the garbage collector for this:
* see ivmspace.h for more information.
* In order to do this, we must temporarily
* identify systemdict as local, so that the
* store check in dict_put won't fail.
*/
uint save_space = r_space(systemdict);
r_set_space(systemdict, avm_local);
code = initial_enter_name(initial_dictionaries[i].name,
idict);
r_set_space(systemdict, save_space);
if (code < 0)
return code;
}
}
#undef icount
}
gs_interp_reset(i_ctx_p);
{
ref vnull, vtrue, vfalse;
make_null(&vnull);
make_true(&vtrue);
make_false(&vfalse);
if ((code = initial_enter_name("null", &vnull)) < 0 ||
(code = initial_enter_name("true", &vtrue)) < 0 ||
(code = initial_enter_name("false", &vfalse)) < 0
)
return code;
}
/* Create the error name table */
{
int n = countof(gs_error_names) - 1;
int i;
ref era;
code = ialloc_ref_array(&era, a_readonly, n, "ErrorNames");
if (code < 0)
return code;
for (i = 0; i < n; i++)
if ((code = name_enter_string(imemory, (const char *)gs_error_names[i],
era.value.refs + i)) < 0)
return code;
return initial_enter_name("ErrorNames", &era);
}
}
DICT *dict_union_open(const char *name, int open_flags, int dict_flags)
{
static const char myname[] = "dict_union_open";
DICT_UNION *dict_union;
char *saved_name = 0;
char *dict_type_name;
ARGV *argv = 0;
char **cpp;
DICT *dict;
int match_flags = 0;
struct DICT_OWNER aggr_owner;
size_t len;
/*
* Clarity first. Let the optimizer worry about redundant code.
*/
#define DICT_UNION_RETURN(x) do { \
if (saved_name != 0) \
myfree(saved_name); \
if (argv != 0) \
argv_free(argv); \
return (x); \
} while (0)
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
DICT_UNION_RETURN(dict_surrogate(DICT_TYPE_UNION, name,
open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_UNION, name));
/*
* Split the table name into its constituent parts.
*/
if ((len = balpar(name, CHARS_BRACE)) == 0 || name[len] != 0
|| *(saved_name = mystrndup(name + 1, len - 2)) == 0
|| ((argv = argv_splitq(saved_name, CHARS_COMMA_SP, CHARS_BRACE)),
(argv->argc == 0)))
DICT_UNION_RETURN(dict_surrogate(DICT_TYPE_UNION, name,
open_flags, dict_flags,
"bad syntax: \"%s:%s\"; "
"need \"%s:{type:name...}\"",
DICT_TYPE_UNION, name,
DICT_TYPE_UNION));
/*
* The least-trusted table in the set determines the over-all trust
* level. The first table determines the pattern-matching flags.
*/
DICT_OWNER_AGGREGATE_INIT(aggr_owner);
for (cpp = argv->argv; (dict_type_name = *cpp) != 0; cpp++) {
if (msg_verbose)
msg_info("%s: %s", myname, dict_type_name);
if (strchr(dict_type_name, ':') == 0)
DICT_UNION_RETURN(dict_surrogate(DICT_TYPE_UNION, name,
open_flags, dict_flags,
"bad syntax: \"%s:%s\"; "
"need \"%s:{type:name...}\"",
DICT_TYPE_UNION, name,
DICT_TYPE_UNION));
if ((dict = dict_handle(dict_type_name)) == 0)
dict = dict_open(dict_type_name, open_flags, dict_flags);
dict_register(dict_type_name, dict);
DICT_OWNER_AGGREGATE_UPDATE(aggr_owner, dict->owner);
if (cpp == argv->argv)
match_flags = dict->flags & (DICT_FLAG_FIXED | DICT_FLAG_PATTERN);
}
/*
* Bundle up the result.
*/
dict_union =
(DICT_UNION *) dict_alloc(DICT_TYPE_UNION, name, sizeof(*dict_union));
dict_union->dict.lookup = dict_union_lookup;
dict_union->dict.close = dict_union_close;
dict_union->dict.flags = dict_flags | match_flags;
dict_union->dict.owner = aggr_owner;
dict_union->re_buf = vstring_alloc(100);
dict_union->map_union = argv;
argv = 0;
DICT_UNION_RETURN(DICT_DEBUG (&dict_union->dict));
}
/// Copies a C string into a String (binary safe string, characters + length).
/// The resulting string is also NUL-terminated, to facilitate interoperating
/// with code using C strings.
///
/// @param str the C string to copy
/// @return the resulting String, if the input string was NULL, an
/// empty String is returned
String cstr_to_string(const char *str)
{
if (str == NULL) {
return (String) STRING_INIT;
}
size_t len = strlen(str);
return (String) {
.data = xmemdupz(str, len),
.size = len
};
}
static bool object_to_vim(Object obj, typval_T *tv, Error *err)
{
tv->v_type = VAR_UNKNOWN;
tv->v_lock = 0;
switch (obj.type) {
case kObjectTypeNil:
tv->v_type = VAR_NUMBER;
tv->vval.v_number = 0;
break;
case kObjectTypeBoolean:
tv->v_type = VAR_NUMBER;
tv->vval.v_number = obj.data.boolean;
break;
case kObjectTypeInteger:
if (obj.data.integer > INT_MAX || obj.data.integer < INT_MIN) {
set_api_error("Integer value outside range", err);
return false;
}
tv->v_type = VAR_NUMBER;
tv->vval.v_number = (int)obj.data.integer;
break;
case kObjectTypeFloat:
tv->v_type = VAR_FLOAT;
tv->vval.v_float = obj.data.floating;
break;
case kObjectTypeString:
tv->v_type = VAR_STRING;
tv->vval.v_string = xmemdupz(obj.data.string.data,
obj.data.string.size);
break;
case kObjectTypeArray:
tv->v_type = VAR_LIST;
tv->vval.v_list = list_alloc();
for (uint32_t i = 0; i < obj.data.array.size; i++) {
Object item = obj.data.array.items[i];
listitem_T *li = listitem_alloc();
if (!object_to_vim(item, &li->li_tv, err)) {
// cleanup
listitem_free(li);
list_free(tv->vval.v_list, true);
return false;
}
list_append(tv->vval.v_list, li);
}
tv->vval.v_list->lv_refcount++;
break;
case kObjectTypeDictionary:
tv->v_type = VAR_DICT;
tv->vval.v_dict = dict_alloc();
for (uint32_t i = 0; i < obj.data.dictionary.size; i++) {
KeyValuePair item = obj.data.dictionary.items[i];
String key = item.key;
if (key.size == 0) {
set_api_error("Empty dictionary keys aren't allowed", err);
// cleanup
dict_free(tv->vval.v_dict, true);
return false;
}
dictitem_T *di = dictitem_alloc((uint8_t *) key.data);
if (!object_to_vim(item.value, &di->di_tv, err)) {
// cleanup
dictitem_free(di);
dict_free(tv->vval.v_dict, true);
return false;
}
dict_add(tv->vval.v_dict, di);
}
tv->vval.v_dict->dv_refcount++;
break;
}
return true;
}
int
zdefault_make_font(gs_font_dir * pdir, const gs_font * oldfont,
const gs_matrix * pmat, gs_font ** ppfont)
{
gs_font *newfont = *ppfont;
gs_memory_t *mem = newfont->memory;
/* HACK: we know this font was allocated by the interpreter. */
gs_ref_memory_t *imem = (gs_ref_memory_t *)mem;
ref *fp = pfont_dict(oldfont);
font_data *pdata;
ref newdict, newmat, scalemat;
uint dlen = dict_maxlength(fp);
uint mlen = dict_length(fp) + 3; /* FontID, OrigFont, ScaleMatrix */
int code;
if (dlen < mlen)
dlen = mlen;
if ((pdata = gs_alloc_struct(mem, font_data, &st_font_data,
"make_font(font_data)")) == 0
)
return_error(e_VMerror);
/*
* This dictionary is newly created: it's safe to pass NULL as the
* dstack pointer to dict_copy and dict_put_string.
*/
if ((code = dict_alloc(imem, dlen, &newdict)) < 0 ||
(code = dict_copy(fp, &newdict, NULL)) < 0 ||
(code = gs_alloc_ref_array(imem, &newmat, a_all, 12,
"make_font(matrices)")) < 0
)
return code;
refset_null_new(newmat.value.refs, 12, imemory_new_mask(imem));
ref_assign(&scalemat, &newmat);
r_set_size(&scalemat, 6);
scalemat.value.refs += 6;
/*
* Create the scaling matrix. We could do this several different
* ways: by "dividing" the new FontMatrix by the base FontMatrix, by
* multiplying the current scaling matrix by a ScaleMatrix kept in
* the gs_font, or by multiplying the current scaling matrix by the
* ScaleMatrix from the font dictionary. We opt for the last of
* these.
*/
{
gs_matrix scale, prev_scale;
ref *ppsm;
if (!(dict_find_string(fp, "ScaleMatrix", &ppsm) > 0 &&
read_matrix(mem, ppsm, &prev_scale) >= 0 &&
gs_matrix_multiply(pmat, &prev_scale, &scale) >= 0)
)
scale = *pmat;
write_matrix_new(&scalemat, &scale, imem);
}
r_clear_attrs(&scalemat, a_write);
r_set_size(&newmat, 6);
write_matrix_new(&newmat, &newfont->FontMatrix, imem);
r_clear_attrs(&newmat, a_write);
if ((code = dict_put_string(&newdict, "FontMatrix", &newmat, NULL)) < 0 ||
(code = dict_put_string(&newdict, "OrigFont", pfont_dict(oldfont->base), NULL)) < 0 ||
(code = dict_put_string(&newdict, "ScaleMatrix", &scalemat, NULL)) < 0 ||
(code = add_FID(NULL, &newdict, newfont, imem)) < 0
)
return code;
newfont->client_data = pdata;
*pdata = *pfont_data(oldfont);
pdata->dict = newdict;
r_clear_attrs(dict_access_ref(&newdict), a_write);
return 0;
}
static DICT *dict_cdbm_open(const char *path, int dict_flags)
{
DICT_CDBM *dict_cdbm;
char *cdb_path;
char *tmp_path;
int fd;
struct stat st0, st1;
cdb_path = concatenate(path, CDB_SUFFIX, (char *) 0);
tmp_path = concatenate(path, CDB_TMP_SUFFIX, (char *) 0);
/*
* Repeat until we have opened *and* locked *existing* file. Since the
* new (tmp) file will be renamed to be .cdb file, locking here is
* somewhat funny to work around possible race conditions. Note that we
* can't open a file with O_TRUNC as we can't know if another process
* isn't creating it at the same time.
*/
for (;;) {
if ((fd = open(tmp_path, O_RDWR | O_CREAT, 0644)) < 0)
return (dict_surrogate(DICT_TYPE_CDB, path, O_RDWR, dict_flags,
"open database %s: %m", tmp_path));
if (fstat(fd, &st0) < 0)
msg_fatal("fstat(%s): %m", tmp_path);
/*
* Get an exclusive lock - we're going to change the database so we
* can't have any spectators.
*/
if (myflock(fd, INTERNAL_LOCK, MYFLOCK_OP_EXCLUSIVE) < 0)
msg_fatal("lock %s: %m", tmp_path);
if (stat(tmp_path, &st1) < 0)
msg_fatal("stat(%s): %m", tmp_path);
/*
* Compare file's state before and after lock: should be the same,
* and nlinks should be >0, or else we opened non-existing file...
*/
if (st0.st_ino == st1.st_ino && st0.st_dev == st1.st_dev
&& st0.st_rdev == st1.st_rdev && st0.st_nlink == st1.st_nlink
&& st0.st_nlink > 0)
break; /* successefully opened */
close(fd);
}
#ifndef NO_FTRUNCATE
if (st0.st_size)
ftruncate(fd, 0);
#endif
dict_cdbm = (DICT_CDBM *) dict_alloc(DICT_TYPE_CDB, path,
sizeof(*dict_cdbm));
if (cdb_make_start(&dict_cdbm->cdbm, fd) < 0)
msg_fatal("initialize database %s: %m", tmp_path);
dict_cdbm->dict.close = dict_cdbm_close;
dict_cdbm->dict.update = dict_cdbm_update;
dict_cdbm->cdb_path = cdb_path;
dict_cdbm->tmp_path = tmp_path;
dict_cdbm->dict.owner.uid = st1.st_uid;
dict_cdbm->dict.owner.status = (st1.st_uid != 0);
close_on_exec(fd, CLOSE_ON_EXEC);
/*
* If undecided about appending a null byte to key and value, choose a
* default to not append a null byte when creating a cdb.
*/
if ((dict_flags & (DICT_FLAG_TRY1NULL | DICT_FLAG_TRY0NULL)) == 0)
dict_flags |= DICT_FLAG_TRY0NULL;
else if ((dict_flags & DICT_FLAG_TRY1NULL)
&& (dict_flags & DICT_FLAG_TRY0NULL))
dict_flags &= ~DICT_FLAG_TRY0NULL;
dict_cdbm->dict.flags = dict_flags | DICT_FLAG_FIXED;
if (dict_flags & DICT_FLAG_FOLD_FIX)
dict_cdbm->dict.fold_buf = vstring_alloc(10);
return (&dict_cdbm->dict);
}
DICT *dict_sockmap_open(const char *mapname, int open_flags, int dict_flags)
{
DICT_SOCKMAP *dp;
char *saved_name = 0;
char *sockmap;
DICT_SOCKMAP_REFC_HANDLE *ref_handle;
HTABLE_INFO *client_info;
/*
* Let the optimizer worry about eliminating redundant code.
*/
#define DICT_SOCKMAP_OPEN_RETURN(d) { \
DICT *__d = (d); \
if (saved_name != 0) \
myfree(saved_name); \
return (__d); \
} while (0)
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
DICT_SOCKMAP_OPEN_RETURN(dict_surrogate(DICT_TYPE_SOCKMAP, mapname,
open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_SOCKMAP, mapname));
if (dict_flags & DICT_FLAG_NO_UNAUTH)
DICT_SOCKMAP_OPEN_RETURN(dict_surrogate(DICT_TYPE_SOCKMAP, mapname,
open_flags, dict_flags,
"%s:%s map is not allowed for security-sensitive data",
DICT_TYPE_SOCKMAP, mapname));
/*
* Separate the socketmap name from the socketmap server name.
*/
saved_name = mystrdup(mapname);
if ((sockmap = split_at_right(saved_name, ':')) == 0)
DICT_SOCKMAP_OPEN_RETURN(dict_surrogate(DICT_TYPE_SOCKMAP, mapname,
open_flags, dict_flags,
"%s requires server:socketmap argument",
DICT_TYPE_SOCKMAP));
/*
* Use one reference-counted client handle for all socketmaps with the
* same inet:host:port or unix:pathname information.
*
* XXX Todo: graceful degradation after endpoint syntax error.
*/
if (dict_sockmap_handles == 0)
dict_sockmap_handles = htable_create(1);
if ((client_info = htable_locate(dict_sockmap_handles, saved_name)) == 0) {
ref_handle = (DICT_SOCKMAP_REFC_HANDLE *) mymalloc(sizeof(*ref_handle));
client_info = htable_enter(dict_sockmap_handles,
saved_name, (char *) ref_handle);
/* XXX Late initialization, so we can reuse macros for consistency. */
DICT_SOCKMAP_RH_REFCOUNT(client_info) = 1;
DICT_SOCKMAP_RH_HANDLE(client_info) =
auto_clnt_create(saved_name, dict_sockmap_timeout,
dict_sockmap_max_idle, dict_sockmap_max_ttl);
} else
DICT_SOCKMAP_RH_REFCOUNT(client_info) += 1;
/*
* Instantiate a socket map handle.
*/
dp = (DICT_SOCKMAP *) dict_alloc(DICT_TYPE_SOCKMAP, mapname, sizeof(*dp));
dp->rdwr_buf = vstring_alloc(100);
dp->sockmap_name = mystrdup(sockmap);
dp->client_info = client_info;
dp->dict.lookup = dict_sockmap_lookup;
dp->dict.close = dict_sockmap_close;
/* Don't look up parent domains or network superblocks. */
dp->dict.flags = dict_flags | DICT_FLAG_PATTERN;
DICT_SOCKMAP_OPEN_RETURN(DICT_DEBUG (&dp->dict));
}
/*
* Allocate a variable for a Dictionary and fill it from "*arg".
* Return OK or FAIL. Returns NOTDONE for {expr}.
*/
int
get_dict_tv(char_u **arg, typval_T *rettv, int evaluate)
{
dict_T *d = NULL;
typval_T tvkey;
typval_T tv;
char_u *key = NULL;
dictitem_T *item;
char_u *start = skipwhite(*arg + 1);
char_u buf[NUMBUFLEN];
/*
* First check if it's not a curly-braces thing: {expr}.
* Must do this without evaluating, otherwise a function may be called
* twice. Unfortunately this means we need to call eval1() twice for the
* first item.
* But {} is an empty Dictionary.
*/
if (*start != '}')
{
if (eval1(&start, &tv, FALSE) == FAIL) /* recursive! */
return FAIL;
if (*start == '}')
return NOTDONE;
}
if (evaluate)
{
d = dict_alloc();
if (d == NULL)
return FAIL;
}
tvkey.v_type = VAR_UNKNOWN;
tv.v_type = VAR_UNKNOWN;
*arg = skipwhite(*arg + 1);
while (**arg != '}' && **arg != NUL)
{
if (eval1(arg, &tvkey, evaluate) == FAIL) /* recursive! */
goto failret;
if (**arg != ':')
{
EMSG2(_("E720: Missing colon in Dictionary: %s"), *arg);
clear_tv(&tvkey);
goto failret;
}
if (evaluate)
{
key = get_tv_string_buf_chk(&tvkey, buf);
if (key == NULL)
{
/* "key" is NULL when get_tv_string_buf_chk() gave an errmsg */
clear_tv(&tvkey);
goto failret;
}
}
*arg = skipwhite(*arg + 1);
if (eval1(arg, &tv, evaluate) == FAIL) /* recursive! */
{
if (evaluate)
clear_tv(&tvkey);
goto failret;
}
if (evaluate)
{
item = dict_find(d, key, -1);
if (item != NULL)
{
EMSG2(_("E721: Duplicate key in Dictionary: \"%s\""), key);
clear_tv(&tvkey);
clear_tv(&tv);
goto failret;
}
item = dictitem_alloc(key);
clear_tv(&tvkey);
if (item != NULL)
{
item->di_tv = tv;
item->di_tv.v_lock = 0;
if (dict_add(d, item) == FAIL)
dictitem_free(item);
}
}
if (**arg == '}')
break;
if (**arg != ',')
{
EMSG2(_("E722: Missing comma in Dictionary: %s"), *arg);
goto failret;
}
*arg = skipwhite(*arg + 1);
}
if (**arg != '}')
{
EMSG2(_("E723: Missing end of Dictionary '}': %s"), *arg);
failret:
if (evaluate)
dict_free(d);
return FAIL;
}
*arg = skipwhite(*arg + 1);
if (evaluate)
{
rettv->v_type = VAR_DICT;
rettv->vval.v_dict = d;
++d->dv_refcount;
}
return OK;
}
DICT *dict_pcre_open(const char *mapname, int open_flags, int dict_flags)
{
DICT_PCRE *dict_pcre;
VSTREAM *map_fp;
struct stat st;
VSTRING *line_buffer;
DICT_PCRE_RULE *last_rule = 0;
DICT_PCRE_RULE *rule;
int lineno = 0;
int nesting = 0;
char *p;
/*
* Sanity checks.
*/
if (open_flags != O_RDONLY)
return (dict_surrogate(DICT_TYPE_PCRE, mapname, open_flags, dict_flags,
"%s:%s map requires O_RDONLY access mode",
DICT_TYPE_PCRE, mapname));
/*
* Open the configuration file.
*/
if ((map_fp = vstream_fopen(mapname, O_RDONLY, 0)) == 0)
return (dict_surrogate(DICT_TYPE_PCRE, mapname, open_flags, dict_flags,
"open %s: %m", mapname));
if (fstat(vstream_fileno(map_fp), &st) < 0)
msg_fatal("fstat %s: %m", mapname);
line_buffer = vstring_alloc(100);
dict_pcre = (DICT_PCRE *) dict_alloc(DICT_TYPE_PCRE, mapname,
sizeof(*dict_pcre));
dict_pcre->dict.lookup = dict_pcre_lookup;
dict_pcre->dict.close = dict_pcre_close;
dict_pcre->dict.flags = dict_flags | DICT_FLAG_PATTERN;
if (dict_flags & DICT_FLAG_FOLD_MUL)
dict_pcre->dict.fold_buf = vstring_alloc(10);
dict_pcre->head = 0;
dict_pcre->expansion_buf = 0;
if (dict_pcre_init == 0) {
pcre_malloc = (void *(*) (size_t)) mymalloc;
pcre_free = (void (*) (void *)) myfree;
dict_pcre_init = 1;
}
dict_pcre->dict.owner.uid = st.st_uid;
dict_pcre->dict.owner.status = (st.st_uid != 0);
/*
* Parse the pcre table.
*/
while (readlline(line_buffer, map_fp, &lineno)) {
p = vstring_str(line_buffer);
trimblanks(p, 0)[0] = 0; /* Trim space at end */
if (*p == 0)
continue;
rule = dict_pcre_parse_rule(mapname, lineno, p, nesting, dict_flags);
if (rule == 0)
continue;
if (rule->op == DICT_PCRE_OP_IF) {
nesting++;
} else if (rule->op == DICT_PCRE_OP_ENDIF) {
nesting--;
}
if (last_rule == 0)
dict_pcre->head = rule;
else
last_rule->next = rule;
last_rule = rule;
}
if (nesting)
msg_warn("pcre map %s, line %d: more IFs than ENDIFs",
mapname, lineno);
vstring_free(line_buffer);
vstream_fclose(map_fp);
return (DICT_DEBUG (&dict_pcre->dict));
}
int megahal_keywords(brain_t brain, const list_t *words, dict_t **keywords) {
dict_t *keywords_p;
uint_fast32_t i;
uint32_t size;
int ret;
WARN_IF(words == NULL);
WARN_IF(keywords == NULL);
*keywords = dict_alloc();
if (*keywords == NULL) return -ENOMEM;
keywords_p = *keywords;
ret = list_size(words, &size);
if (ret) return ret;
for (i = 0; i < size; i++) {
word_t word;
ret = list_get(words, i, &word);
if (ret) return ret;
ret = db_map_get(brain, MAP_SWAP, word, &word);
if (ret != OK && ret != -ENOTFOUND) return ret;
ret = db_list_contains(brain, LIST_BAN, word);
if (ret == OK) continue;
if (ret != -ENOTFOUND) return ret;
ret = db_list_contains(brain, LIST_AUX, word);
if (ret == OK) continue;
if (ret != -ENOTFOUND) return ret;
ret = db_model_contains(brain, word);
if (ret == -ENOTFOUND) continue;
if (ret != OK) return ret;
ret = add_keyword(keywords_p, word);
if (ret) return ret;
}
ret = dict_size(keywords_p, &size);
if (ret) return ret;
if (size == 0)
return OK;
ret = list_size(words, &size);
if (ret) return ret;
for (i = 0; i < size; i++) {
word_t word;
ret = list_get(words, i, &word);
if (ret) return ret;
ret = db_map_get(brain, MAP_SWAP, word, &word);
if (ret != OK && ret != -ENOTFOUND) return ret;
ret = db_list_contains(brain, LIST_AUX, word);
if (ret == -ENOTFOUND) continue;
if (ret != OK) return ret;
ret = db_model_contains(brain, word);
if (ret == -ENOTFOUND) continue;
if (ret != OK) return ret;
ret = add_keyword(keywords_p, word);
if (ret) return ret;
}
return OK;
}
DICT *dict_ldap_open(const char *ldapsource, int dummy, int dict_flags)
{
char *myname = "dict_ldap_open";
DICT_LDAP *dict_ldap;
VSTRING *url_list;
char *s;
char *h;
char *server_host;
char *domainlist;
char *scope;
char *attr;
int tmp;
if (msg_verbose)
msg_info("%s: Using LDAP source %s", myname, ldapsource);
dict_ldap = (DICT_LDAP *) dict_alloc(DICT_TYPE_LDAP, ldapsource,
sizeof(*dict_ldap));
dict_ldap->dict.lookup = dict_ldap_lookup;
dict_ldap->dict.close = dict_ldap_close;
dict_ldap->dict.flags = dict_flags | DICT_FLAG_FIXED;
dict_ldap->ld = NULL;
dict_ldap->parser = cfg_parser_alloc(ldapsource);
dict_ldap->ldapsource = mystrdup(ldapsource);
server_host = cfg_get_str(dict_ldap->parser, "server_host",
"localhost", 1, 0);
/*
* get configured value of "server_port"; default to LDAP_PORT (389)
*/
dict_ldap->server_port =
cfg_get_int(dict_ldap->parser, "server_port", LDAP_PORT, 0, 0);
/*
* Define LDAP Version.
*/
dict_ldap->version = cfg_get_int(dict_ldap->parser, "version", 2, 2, 0);
switch (dict_ldap->version) {
case 2:
dict_ldap->version = LDAP_VERSION2;
break;
case 3:
dict_ldap->version = LDAP_VERSION3;
break;
default:
msg_warn("%s: %s Unknown version %d.", myname, ldapsource,
dict_ldap->version);
dict_ldap->version = LDAP_VERSION2;
}
#if defined(LDAP_API_FEATURE_X_OPENLDAP)
dict_ldap->ldap_ssl = 0;
#endif
url_list = vstring_alloc(32);
s = server_host;
while ((h = mystrtok(&s, " \t\n\r,")) != NULL) {
#if defined(LDAP_API_FEATURE_X_OPENLDAP)
/*
* Convert (host, port) pairs to LDAP URLs
*/
if (ldap_is_ldap_url(h)) {
LDAPURLDesc *url_desc;
int rc;
if ((rc = ldap_url_parse(h, &url_desc)) != 0) {
msg_error("%s: error parsing URL %s: %d: %s; skipping", myname,
h, rc, ldap_err2string(rc));
continue;
}
if (strcasecmp(url_desc->lud_scheme, "ldap") != 0 &&
dict_ldap->version != LDAP_VERSION3) {
msg_warn("%s: URL scheme %s requires protocol version 3", myname,
url_desc->lud_scheme);
dict_ldap->version = LDAP_VERSION3;
}
if (strcasecmp(url_desc->lud_scheme, "ldaps") == 0)
dict_ldap->ldap_ssl = 1;
ldap_free_urldesc(url_desc);
vstring_sprintf_append(url_list, " %s", h);
} else {
if (strrchr(h, ':'))
vstring_sprintf_append(url_list, " ldap://%s", h);
else
vstring_sprintf_append(url_list, " ldap://%s:%d", h,
dict_ldap->server_port);
}
#else
vstring_sprintf_append(url_list, " %s", h);
#endif
}
dict_ldap->server_host =
mystrdup(VSTRING_LEN(url_list) > 0 ? vstring_str(url_list) + 1 : "");
#if defined(LDAP_API_FEATURE_X_OPENLDAP)
/*
* With URL scheme, clear port to normalize connection cache key
*/
dict_ldap->server_port = LDAP_PORT;
if (msg_verbose)
msg_info("%s: %s server_host URL is %s", myname, ldapsource,
dict_ldap->server_host);
#endif
myfree(server_host);
vstring_free(url_list);
/*
* Scope handling thanks to Carsten Hoeger of SuSE.
*/
scope = cfg_get_str(dict_ldap->parser, "scope", "sub", 1, 0);
if (strcasecmp(scope, "one") == 0) {
dict_ldap->scope = LDAP_SCOPE_ONELEVEL;
} else if (strcasecmp(scope, "base") == 0) {
dict_ldap->scope = LDAP_SCOPE_BASE;
} else if (strcasecmp(scope, "sub") == 0) {
dict_ldap->scope = LDAP_SCOPE_SUBTREE;
} else {
msg_warn("%s: %s: Unrecognized value %s specified for scope; using sub",
myname, ldapsource, scope);
dict_ldap->scope = LDAP_SCOPE_SUBTREE;
}
myfree(scope);
dict_ldap->search_base = cfg_get_str(dict_ldap->parser, "search_base",
"", 0, 0);
domainlist = cfg_get_str(dict_ldap->parser, "domain", "", 0, 0);
if (*domainlist) {
#ifdef MATCH_FLAG_NONE
dict_ldap->domain = match_list_init(MATCH_FLAG_NONE,
domainlist, 1, match_string);
#else
dict_ldap->domain = match_list_init(domainlist, 1, match_string);
#endif
if (dict_ldap->domain == NULL)
msg_warn("%s: domain match list creation using \"%s\" failed, will continue without it",
myname, domainlist);
if (msg_verbose)
msg_info("%s: domain list created using \"%s\"", myname,
domainlist);
} else {
dict_ldap->domain = NULL;
}
myfree(domainlist);
/*
* get configured value of "timeout"; default to 10 seconds
*
* Thanks to Manuel Guesdon for spotting that this wasn't really getting
* set.
*/
dict_ldap->timeout = cfg_get_int(dict_ldap->parser, "timeout",
10, 0, 0);
dict_ldap->query_filter =
cfg_get_str(dict_ldap->parser, "query_filter",
"(mailacceptinggeneralid=%s)", 0, 0);
dict_ldap->result_filter =
cfg_get_str(dict_ldap->parser, "result_filter", "%s", 0, 0);
if (strcmp(dict_ldap->result_filter, "%s") == 0) {
myfree(dict_ldap->result_filter);
dict_ldap->result_filter = NULL;
}
attr = cfg_get_str(dict_ldap->parser, "result_attribute",
"maildrop", 0, 0);
dict_ldap->result_attributes = argv_split(attr, " ,\t\r\n");
dict_ldap->num_attributes = dict_ldap->result_attributes->argc;
myfree(attr);
attr = cfg_get_str(dict_ldap->parser, "special_result_attribute",
"", 0, 0);
if (*attr) {
argv_split_append(dict_ldap->result_attributes, attr, " ,\t\r\n");
}
myfree(attr);
/*
* get configured value of "bind"; default to true
*/
dict_ldap->bind = cfg_get_bool(dict_ldap->parser, "bind", 1);
/*
* get configured value of "bind_dn"; default to ""
*/
dict_ldap->bind_dn = cfg_get_str(dict_ldap->parser, "bind_dn", "", 0, 0);
/*
* get configured value of "bind_pw"; default to ""
*/
dict_ldap->bind_pw = cfg_get_str(dict_ldap->parser, "bind_pw", "", 0, 0);
/*
* get configured value of "cache"; default to false
*/
tmp = cfg_get_bool(dict_ldap->parser, "cache", 0);
if (tmp)
msg_warn("%s: %s ignoring cache", myname, ldapsource);
/*
* get configured value of "cache_expiry"; default to 30 seconds
*/
tmp = cfg_get_int(dict_ldap->parser, "cache_expiry", -1, 0, 0);
if (tmp >= 0)
msg_warn("%s: %s ignoring cache_expiry", myname, ldapsource);
/*
* get configured value of "cache_size"; default to 32k
*/
tmp = cfg_get_int(dict_ldap->parser, "cache_size", -1, 0, 0);
if (tmp >= 0)
msg_warn("%s: %s ignoring cache_size", myname, ldapsource);
/*
* get configured value of "recursion_limit"; default to 1000
*/
dict_ldap->recursion_limit = cfg_get_int(dict_ldap->parser,
"recursion_limit", 1000, 1, 0);
/*
* get configured value of "expansion_limit"; default to 0
*/
dict_ldap->expansion_limit = cfg_get_int(dict_ldap->parser,
"expansion_limit", 0, 0, 0);
/*
* get configured value of "size_limit"; default to expansion_limit
*/
dict_ldap->size_limit = cfg_get_int(dict_ldap->parser, "size_limit",
dict_ldap->expansion_limit,
0, 0);
/*
* Alias dereferencing suggested by Mike Mattice.
*/
dict_ldap->dereference = cfg_get_int(dict_ldap->parser, "dereference",
0, 0, 0);
if (dict_ldap->dereference < 0 || dict_ldap->dereference > 3) {
msg_warn("%s: %s Unrecognized value %d specified for dereference; using 0",
myname, ldapsource, dict_ldap->dereference);
dict_ldap->dereference = 0;
}
/* Referral chasing */
dict_ldap->chase_referrals = cfg_get_bool(dict_ldap->parser,
"chase_referrals", 0);
#ifdef LDAP_API_FEATURE_X_OPENLDAP
/*
* TLS options
*/
/* get configured value of "start_tls"; default to no */
dict_ldap->start_tls = cfg_get_bool(dict_ldap->parser, "start_tls", 0);
if (dict_ldap->start_tls && dict_ldap->version < LDAP_VERSION3) {
msg_warn("%s: %s start_tls requires protocol version 3",
myname, ldapsource);
dict_ldap->version = LDAP_VERSION3;
}
/* get configured value of "tls_require_cert"; default to no */
dict_ldap->tls_require_cert = cfg_get_bool(dict_ldap->parser,
"tls_require_cert", 0);
/* get configured value of "tls_ca_cert_file"; default "" */
dict_ldap->tls_ca_cert_file = cfg_get_str(dict_ldap->parser,
"tls_ca_cert_file", "", 0, 0);
/* get configured value of "tls_ca_cert_dir"; default "" */
dict_ldap->tls_ca_cert_dir = cfg_get_str(dict_ldap->parser,
"tls_ca_cert_dir", "", 0, 0);
/* get configured value of "tls_cert"; default "" */
dict_ldap->tls_cert = cfg_get_str(dict_ldap->parser, "tls_cert",
"", 0, 0);
/* get configured value of "tls_key"; default "" */
dict_ldap->tls_key = cfg_get_str(dict_ldap->parser, "tls_key",
"", 0, 0);
/* get configured value of "tls_random_file"; default "" */
dict_ldap->tls_random_file = cfg_get_str(dict_ldap->parser,
"tls_random_file", "", 0, 0);
/* get configured value of "tls_cipher_suite"; default "" */
dict_ldap->tls_cipher_suite = cfg_get_str(dict_ldap->parser,
"tls_cipher_suite", "", 0, 0);
#endif
/*
* Debug level.
*/
#if defined(LDAP_OPT_DEBUG_LEVEL) && defined(LBER_OPT_LOG_PRINT_FN)
dict_ldap->debuglevel = cfg_get_int(dict_ldap->parser, "debuglevel",
0, 0, 0);
#endif
/*
* Find or allocate shared LDAP connection container.
*/
dict_ldap_conn_find(dict_ldap);
/*
* Return the new dict_ldap structure.
*/
return (DICT_DEBUG (&dict_ldap->dict));
}
