/// Clear out the raw set and cooked sets. Destroy the entire
/// cooked data structure but leave the raw one present though
/// empty. This is the same as the initial (post-creation) state.
/// @param[in] ca the object pointer
void
ca_clear_pa(ca_o ca)
{
dict_t *dict;
dnode_t *dnp, *next;
pa_o pa;
if ((dict = ca->ca_raw_pa_dict)) {
for (dnp = dict_first(dict); dnp;) {
next = dict_next(dict, dnp);
pa = (pa_o)dnode_getkey(dnp);
dict_delete(dict, dnp);
dnode_destroy(dnp);
pa_destroy(pa);
dnp = next;
}
}
if ((dict = ca->ca_cooked_pa_dict)) {
for (dnp = dict_first(dict); dnp;) {
next = dict_next(dict, dnp);
pa = (pa_o)dnode_getkey(dnp);
dict_delete(dict, dnp);
dnode_destroy(dnp);
pa_destroy(pa);
dnp = next;
}
dict_destroy(ca->ca_cooked_pa_dict);
ca->ca_cooked_pa_dict = NULL;
}
}
void dict_merge(dict_t *dest, dict_t *source)
{
dict_load_t load;
dnode_t *leftnode = dict_first(dest), *rightnode = dict_first(source);
assert (dict_similar(dest, source));
if (source == dest)
return;
#ifdef NO_FC_SOLVE
dest->nodecount = 0;
#endif
load_begin_internal(&load, dest);
for (;;) {
if (leftnode != NULL && rightnode != NULL) {
if (dest->compare(leftnode->key, rightnode->key, source->context) < 0)
goto copyleft;
else
goto copyright;
} else if (leftnode != NULL) {
goto copyleft;
} else if (rightnode != NULL) {
goto copyright;
} else {
assert (leftnode == NULL && rightnode == NULL);
break;
}
copyleft:
{
dnode_t *next = dict_next(dest, leftnode);
#ifndef NDEBUG
leftnode->left = NULL; /* suppress assertion in dict_load_next */
#endif
dict_load_next(&load, leftnode, leftnode->key);
leftnode = next;
continue;
}
copyright:
{
dnode_t *next = dict_next(source, rightnode);
#ifndef NDEBUG
rightnode->left = NULL;
#endif
dict_load_next(&load, rightnode, rightnode->key);
rightnode = next;
continue;
}
}
dict_clear(source);
dict_load_end(&load);
}
/*
void cxml_node_free(CLOG_INFO* info, void * data) {
CXMLNODE *node = (CXMLNODE*) data;
*/
void cxml_node_free(CLOG_INFO* info, CXMLNODE **node) {
dnode_t *dn = NULL;
if(NULL==node || NULL==*node) {
return;
}
clog( info, CTRACE, "XML: xml_node_free(), free the attributes");
// free the attributes
if(NULL!=(*node)->att) {
if(!dict_isempty((*node)->att)) {
for (dn = dict_first((*node)->att); dn; dn = dict_next((*node)->att, dn)) {
char *key=(char*)dnode_getkey(dn);
char *data=(char*)dnode_get(dn);
if(NULL!=key) free(key); key=NULL;
if(NULL!=data) free(data); data=NULL;
}
}
dict_free_nodes((*node)->att);
dict_destroy((*node)->att);
(*node)->att=NULL;
}
clog( info, CTRACE, "XML: xml_node_free(), free the name");
// free the name
if(NULL!=(*node)->name) cstring_free(&((*node)->name));
clog( info, CTRACE, "XML: xml_node_free(), free the data");
// free the data
if(NULL!=(*node)->data) cstring_free(&((*node)->data));
clog( info, CTRACE, "XML: xml_node_free(), free the subs");
// free the children
if(NULL!=(*node)->sub) {
if(!dict_isempty((*node)->sub)) {
for (dn = dict_first((*node)->sub); dn; dn = dict_next((*node)->sub, dn)) {
char *key=(char*)dnode_getkey(dn);
CXMLNODE *data=(CXMLNODE*)dnode_get(dn);
if(NULL!=key) free(key); key=NULL;
cxml_node_free(info, &data);
}
}
dict_free_nodes((*node)->sub);
dict_destroy((*node)->sub);
(*node)->sub=NULL;
}
free((*node));
(*node)=NULL;
node=NULL;
}
static int
dict_copy_elements(const ref * pdrfrom /* t_dictionary */ ,
ref * pdrto /* t_dictionary */ , int options,
dict_stack_t *pds)
{
int space = r_space(pdrto);
int index;
ref elt[2];
ref *pvslot;
int code;
if (space != avm_max) {
/* Do the store check before starting the copy. */
index = dict_first(pdrfrom);
while ((index = dict_next(pdrfrom, index, elt)) >= 0)
if (!(options & COPY_NEW_ONLY) ||
dict_find(pdrto, &elt[0], &pvslot) <= 0
) {
store_check_space(space, &elt[0]);
store_check_space(space, &elt[1]);
}
}
/* Now copy the contents. */
index = dict_first(pdrfrom);
while ((index = dict_next(pdrfrom, index, elt)) >= 0) {
ref *pvalue = pv_no_defn;
if ((options & COPY_NEW_ONLY) &&
dict_find(pdrto, &elt[0], &pvslot) > 0
)
continue;
if ((options & COPY_FOR_RESIZE) &&
r_has_type(&elt[0], t_name) &&
(pvalue = elt[0].value.pname->pvalue, pv_valid(pvalue))
)
elt[0].value.pname->pvalue = pv_no_defn;
if ((code = dict_put(pdrto, &elt[0], &elt[1], pds)) < 0) {
/*
* If COPY_FOR_RESIZE is set, the dict_put isn't supposed to
* be able to fail, but we don't want to depend on this.
*/
if (pvalue != pv_no_defn)
elt[0].value.pname->pvalue = pvalue;
return code;
}
}
return 0;
}
static int verify_bintree( TA_Libc *libHandle, dict_t *dict)
{
dnode_t *first, *next;
first = dict_first( libHandle, dict);
if (dict->dupes) {
if( first ) {
next = dict_next( libHandle, dict, first);
while (first && next ) {
if (dict->compare(libHandle, first->key, next->key) > 0)
return 0;
first = next;
if( first )
next = dict_next( libHandle, dict, first);
}
}
} else {
if( first )
{
next = dict_next(libHandle, dict, first);
while (first && next) {
if (dict->compare(libHandle, first->key, next->key) >= 0)
return 0;
first = next;
if( first )
next = dict_next(libHandle, dict, first);
}
}
}
return 1;
}
static int verify_bintree(dict_t *dict)
{
dnode_t *first, *next;
first = dict_first(dict);
if (dict->dupes) {
while (first && (next = dict_next(dict, first))) {
#ifdef BE_QSORT_COMPATIBLE
if (dict->compare(&first->key, &next->key) > 0)
return 0;
#else
if (dict->compare(first->key, next->key) > 0)
return 0;
#endif
first = next;
}
} else {
while (first && (next = dict_next(dict, first))) {
#ifdef BE_QSORT_COMPATIBLE
if (dict->compare(&first->key, &next->key) >= 0)
return 0;
#else
if (dict->compare(first->key, next->key) >= 0)
return 0;
#endif
first = next;
}
}
return 1;
}
static int
global_saxdb_read(struct dict *db)
{
struct record_data *hir;
time_t posted;
long flags;
unsigned long duration;
char *str, *from, *message;
dict_iterator_t it;
for(it=dict_first(db); it; it=iter_next(it))
{
hir = iter_data(it);
if(hir->type != RECDB_OBJECT)
{
log_module(G_LOG, LOG_WARNING, "Unexpected rectype %d for %s.", hir->type, iter_key(it));
continue;
}
str = database_get_data(hir->d.object, KEY_FLAGS, RECDB_QSTRING);
flags = str ? strtoul(str, NULL, 0) : 0;
str = database_get_data(hir->d.object, KEY_POSTED, RECDB_QSTRING);
posted = str ? strtoul(str, NULL, 0) : 0;
str = database_get_data(hir->d.object, KEY_DURATION, RECDB_QSTRING);
duration = str ? strtoul(str, NULL, 0) : 0;
from = database_get_data(hir->d.object, KEY_FROM, RECDB_QSTRING);
message = database_get_data(hir->d.object, KEY_MESSAGE, RECDB_QSTRING);
message_add(flags, posted, duration, from, message);
}
return 0;
}
/*
* Enumerate the next glyph from a directory. This is essentially a
* wrapper around dict_first/dict_next to implement the enumerate_glyph
* font procedure.
*
* Note that *prdict will be null if the font is a subfont of a
* CIDFontType 0 CIDFont.
*/
int
zchar_enumerate_glyph(const gs_memory_t *mem, const ref *prdict, int *pindex, gs_glyph *pglyph)
{
int index = *pindex - 1;
ref elt[2];
if (!r_has_type(prdict, t_dictionary))
return 0; /* *pindex was 0, is still 0 */
if (index < 0)
index = dict_first(prdict);
next:
index = dict_next(prdict, index, elt);
*pindex = index + 1;
if (index >= 0) {
switch (r_type(elt)) {
case t_integer:
*pglyph = gs_min_cid_glyph + elt[0].value.intval;
break;
case t_name:
*pglyph = name_index(mem, elt);
break;
default: /* can't handle it */
goto next;
}
}
return 0;
}
/// Any PTXes which survived shopping are eligible to be winners,
/// as long as they've been seen and evaluated at all. This test is
/// necessary because not all commands are run in all PTXes, so the
/// fact that a PTX has not been invalidated could mean it was not
/// even evaluated.
/// This function returns the first eligible surviving PTX. It does not
/// establish a policy per se; since PTXes are stored in an order set by
/// the server, the policy of which matching PTX is 'best' can be
/// dictated by the server.
/// @return the chosen PTX id
static CCS
_shop_ptx_winner(shopping_state_s *ssp)
{
dnode_t *dnp, *next;
ssp->wix[0] = ssp->winner[0] = '\0';
if (ssp->ptx_dict) {
for (dnp = dict_first(ssp->ptx_dict); dnp;) {
CCS key, id;
next = dict_next(ssp->ptx_dict, dnp);
key = (CCS)dnode_getkey(dnp);
id = (CCS)dnode_get(dnp);
// Remember, only an evaluated PTX can be a winner.
// These are marked with a lower-case index, but
// convert it back to upper case before returning.
if (islower((int)key[0])) {
snprintf(ssp->wix, charlen(ssp->wix), "%c%s",
toupper((int)key[0]), key + 1);
snprintf(ssp->winner, charlen(ssp->winner), "%s", id);
return ssp->winner;
}
dnp = next;
}
}
return NULL;
}
/*
* Swap the contents of a level dictionary (level2dict or ll3dict) and
* systemdict. If a value in the level dictionary is itself a dictionary,
* and it contains a key/value pair referring to itself, swap its contents
* with the contents of the same dictionary in systemdict. (This is a hack
* to swap the contents of statusdict.)
*/
static int
swap_level_dict(i_ctx_t *i_ctx_p, const char *dict_name)
{
ref *pleveldict;
ref rleveldict;
int index;
ref elt[2]; /* key, value */
ref *psubdict;
/*
* We have to copy the refs for leveldict and subdict, since they may
* move if their containing dictionary is resized.
*/
if (dict_find_string(systemdict, dict_name, &pleveldict) <= 0)
return_error(e_undefined);
rleveldict = *pleveldict;
index = dict_first(&rleveldict);
while ((index = dict_next(&rleveldict, index, &elt[0])) >= 0)
if (r_has_type(&elt[1], t_dictionary) &&
dict_find(&elt[1], &elt[0], &psubdict) > 0 &&
obj_eq(imemory, &elt[1], psubdict)
) {
/* elt[1] is the 2nd-level sub-dictionary */
int isub = dict_first(&elt[1]);
ref subelt[2];
int found = dict_find(systemdict, &elt[0], &psubdict);
ref rsubdict;
if (found <= 0)
continue;
rsubdict = *psubdict;
while ((isub = dict_next(&elt[1], isub, &subelt[0])) >= 0)
if (!obj_eq(imemory, &subelt[0], &elt[0])) {
/* don't swap dict itself */
int code = swap_entry(i_ctx_p, subelt, &rsubdict, &elt[1]);
if (code < 0)
return code;
}
} else {
int code = swap_entry(i_ctx_p, elt, systemdict, &rleveldict);
if (code < 0)
return code;
}
return 0;
}
TA_RetCode TA_DictFree( TA_Dict *dict )
{
TA_PrivDictInfo *theDict;
dnode_t *node;
dnode_t *next;
TA_String *stringToDelete;
void *valueToDelete;
dict_t *kazlibDict;
TA_Libc *libHandle;
int flags;
theDict = (TA_PrivDictInfo *)dict;
if( theDict == NULL )
return TA_BAD_PARAM;
kazlibDict = &theDict->d;
libHandle = theDict->libHandle;
/* Delete all the key-value pair sequentially. */
node = dict_first( libHandle, kazlibDict );
while (node != NULL)
{
/* Get the next node. */
next = dict_next( libHandle, kazlibDict, node );
/* Free the 'node, the 'key' string and the 'value'. */
flags = theDict->flags;
valueToDelete = dnode_get(node);
if( flags & (TA_DICT_KEY_TWO_STRING|TA_DICT_KEY_ONE_STRING) )
{
stringToDelete = TA_StringFromChar(dnode_getkey(node));
dict_delete_free( libHandle, kazlibDict, node );
TA_StringFree( TA_GetGlobalStringCache( libHandle ), stringToDelete );
}
else
dict_delete_free( libHandle, kazlibDict, node );
if( flags & TA_DICT_KEY_TWO_STRING )
{
/* The value is a dictionary. Delete it. */
TA_DictFree( (TA_Dict *)valueToDelete );
}
else if( theDict->freeValueFunc )
theDict->freeValueFunc( libHandle, valueToDelete );
node = next;
}
/* Free the TA_PrivDictInfo */
TA_Free( libHandle, theDict );
return TA_SUCCESS;
}
void dict_process(dict_t *dict, void *context, dnode_process_t function)
{
dnode_t *node = dict_first(dict), *next;
while (node != NULL) {
/* check for callback function deleting */
/* the next node from under us */
assert (dict_contains(dict, node));
next = dict_next(dict, node);
function(dict, node, context);
node = next;
}
}
static int verify_bintree(dict_t *dict)
{
dnode_t *first, *next;
first = dict_first(dict);
while (first && (next = dict_next(dict, first))) {
if (dict->compare(first->key, next->key) >= 0)
return 0;
first = next;
}
return 1;
}
static void write_dquots(dict_t *dict, struct quota_handle *qh)
{
dnode_t *n;
struct dquot *dq;
for (n = dict_first(dict); n; n = dict_next(dict, n)) {
dq = dnode_get(n);
if (dq) {
dq->dq_h = qh;
update_grace_times(dq);
qh->qh_ops->commit_dquot(dq);
}
}
}
/// Traverses the CA, calling the specified function on each 'cooked' PA.
/// In order to enforce the conventional ordering of read-before-write
/// we go around twice, handling reads on the first pass and everything
/// else on the second.
/// @param[in] ca the object pointer
/// @param[in] process pointer to the callback function
/// @param[in] data pointer which is passed to the callback
/// @return -1 on error, sum of process() return codes on success
int
ca_foreach_cooked_pa(ca_o ca, int (*process) (pa_o, void *), void *data)
{
dict_t *dict;
dnode_t *dnp;
pa_o pa;
int rc = 0, pret;
if ((dict = ca->ca_cooked_pa_dict)) {
for (dnp = dict_first(dict); dnp; dnp = dict_next(dict, dnp)) {
pa = (pa_o)dnode_getkey(dnp);
if (pa_is_read(pa)) {
pret = process(pa, data);
if (pret < 0) {
putil_int("ca_foreach_cooked_pa(%s)", pa_get_abs(pa));
return -1;
} else {
rc += pret;
}
}
}
for (dnp = dict_first(dict); dnp; dnp = dict_next(dict, dnp)) {
pa = (pa_o)dnode_getkey(dnp);
if (!pa_is_read(pa)) {
pret = process(pa, data);
if (pret < 0) {
putil_int("ca_foreach_cooked_pa(%s)", pa_get_abs(pa));
return -1;
} else {
rc += pret;
}
}
}
}
return rc;
}
/// Serializes the CmdAction and writes it to the specified file descriptor.
/// On Windows this must send to a socket. On Unix it can use any
/// kind of file descriptor.
/// @param[in] ca the object pointer
/// @param[in] fd file descriptor to which the serialized form is sent
void
ca_write(ca_o ca, int fd)
{
dict_t *dict;
dnode_t *dnp, *next;
pa_o pa;
CCS pabuf;
dict = ca->ca_raw_pa_dict;
if (dict_count(dict) <= 0) {
return;
}
// In case buffered files were left open by sloppy audited programs.
fflush(NULL);
for (dnp = dict_first(dict); dnp;) {
pa = (pa_o)dnode_getkey(dnp);
// Unfortunately it's too early to dcode any written files
// since they may still be open. But we should get stats of
// non-member read ops since they may differ in the event
// of a distributed build. We must assume logical coherence
// for all write ops, member and non-member.
// In other words, read ops are allowed to be on physically
// separate files with the same path (e.g. /usr/include/stdio.h)
// but write ops to the same path are assumed to be to a shared file.
// This matters in the case of a distributed build.
if (pa_is_read(pa) && !pa_is_member(pa)) {
(void)pa_stat(pa, 0);
}
if ((pabuf = pa_toCSVString(pa))) {
if (write(fd, pabuf, strlen(pabuf)) == -1) {
putil_syserr(0, "write()");
}
putil_free(pabuf);
}
// Dictionary bookkeeping.
next = dict_next(dict, dnp);
dict_delete(dict, dnp);
dnp = next;
pa_destroy(pa);
}
}
static int
zforall(i_ctx_t *i_ctx_p)
{
os_ptr op = osp;
os_ptr obj = op - 1;
es_ptr ep = esp;
es_ptr cproc = ep + 4;
check_estack(6);
check_proc(*op);
switch (r_type(obj)) {
default:
return_op_typecheck(obj);
case t_array:
check_read(*obj);
make_op_estack(cproc, array_continue);
break;
case t_dictionary:
check_dict_read(*obj);
make_int(cproc, dict_first(obj));
++cproc;
make_op_estack(cproc, dict_continue);
break;
case t_string:
check_read(*obj);
make_op_estack(cproc, string_continue);
break;
case t_mixedarray:
case t_shortarray:
check_read(*obj);
make_op_estack(cproc, packedarray_continue);
break;
}
/*
* Push:
* - a mark;
* - the composite object;
* - the procedure;
* - the iteration index (only for dictionaries, done above);
* and invoke the continuation operator.
*/
make_mark_estack(ep + 1, es_for, forall_cleanup);
ep[2] = *obj;
ep[3] = *op;
esp = cproc - 1;
pop(2);
return (*real_opproc(cproc))(i_ctx_p);
}
void ledger_close_context(ledger_ctx *ctx) {
dnode_t *cur;
ledger_topic *topic = NULL;
for(cur = dict_first(&ctx->topics);
cur != NULL;
cur = dict_next(&ctx->topics, cur)) {
topic = dnode_get(cur);
ledger_topic_close(topic);
free(topic);
}
ledger_position_storage_close(&ctx->position_storage);
dict_free_nodes(&ctx->topics);
}
/* Implementation for enumerating parameters in a dictionary */
static int /* ret 0 ok, 1 if EOF, or -ve err */
dict_param_enumerate(iparam_list * plist, gs_param_enumerator_t * penum,
gs_param_key_t * key, ref_type * type)
{
ref elt[2];
int code;
dict_param_list *const pdlist = (dict_param_list *) plist;
int index =
(penum->intval != 0 ? penum->intval : dict_first(&pdlist->dict));
index = dict_next(&pdlist->dict, index, elt);
if (index < 0)
return 1;
*type = r_type(&elt[1]);
code = ref_to_key(&elt[0], key, plist);
penum->intval = index;
return code;
}
/// Checks the list of PAs and tells us whether any of them references
/// a file which needs to be uploaded.
/// @param[in] ca the object pointer
/// @return true if the object refers to an uploadable file
int
ca_is_uploadable(ca_o ca)
{
dict_t *dict;
dnode_t *dnp;
pa_o pa;
int rc = 0;
if ((dict = ca->ca_cooked_pa_dict)) {
for (dnp = dict_first(dict); dnp; dnp = dict_next(dict, dnp)) {
pa = (pa_o)dnode_getkey(dnp);
if (pa_get_uploadable(pa)) {
rc++;
}
}
}
return rc;
}
/// Merge two CmdActions, a 'leader' and a 'donor', together. The donor
/// is then redundant.
/// @param[in] leader the leader object pointer
/// @param[in] donor the donor object pointer
void
ca_merge(ca_o leader, ca_o donor)
{
CCS sub;
dict_t *dict;
dnode_t *dnp, *next;
pa_o pa;
// ASSUMPTION: aggregated CAs are composed from
// commands run serially - i.e. any parallelism
// is above the build-script level.
// Stringify the donor and leave that string representation in
// the leader for the record.
sub = ca_format_header(donor);
if (leader->ca_subs) {
leader->ca_subs = (CCS)putil_realloc((void *)leader->ca_subs,
(strlen(leader->ca_subs) +
strlen(sub) +
1) * CHARSIZE);
strcat((CS)leader->ca_subs, sub);
} else {
leader->ca_subs = (CCS)putil_malloc((strlen(sub) + 1) * CHARSIZE);
strcpy((CS)leader->ca_subs, sub);
}
putil_free(sub);
// Traverse the donor's raw list of PA's and move them into the leader's.
if ((dict = donor->ca_raw_pa_dict)) {
for (dnp = dict_first(dict); dnp;) {
next = dict_next(dict, dnp);
pa = (pa_o)dnode_getkey(dnp);
ca_record_pa(leader, pa);
dict_delete(dict, dnp);
dnode_destroy(dnp);
dnp = next;
}
dict_destroy(donor->ca_raw_pa_dict);
donor->ca_raw_pa_dict = NULL;
}
}
static int verify_bintree(dict_t *dict)
{
dnode_t *first, *next;
first = dict_first(dict);
if (dict->dupes) {
while (first && (next = dict_next(dict, first))) {
if (dict->compare(first->key, next->key, dict->context) > 0)
return 0;
first = next;
}
} else {
while (first && (next = dict_next(dict, first))) {
if (dict->compare(first->key, next->key, dict->context) >= 0)
return 0;
first = next;
}
}
return 1;
}
void
process_from_founded_sig(dict_t *dict)
{
if ( !dict || !dict_count(dict) )
return;
if ( !check_rpd_count(true) )
return;
dnode_t *node;
pdb_class *pc;
char *c_name;
ea_t ea;
for ( node = dict_first(dict); node; node = dict_next(dict, node) )
{
c_name = (char *)dnode_get(node);
ea = (ea_t)dnode_getkey(node);
pc = p_pool->find_class(c_name);
if ( !pc )
continue;
fill_vtbl(c_name, ea, pc);
}
}
/// Free all data structures allocated by _shop_ptx_init().
static void
_shop_ptx_destroy(dict_t *dict)
{
dnode_t *dnp, *next;
if (dict) {
for (dnp = dict_first(dict); dnp;) {
CCS key, id;
next = dict_next(dict, dnp);
key = (CCS)dnode_getkey(dnp);
id = (CCS)dnode_get(dnp);
dict_delete_free(dict, dnp);
putil_free(key);
putil_free(id);
dnp = next;
}
dict_destroy(dict);
}
}
int TA_DictAccessFirst( TA_Dict *dict )
{
TA_PrivDictInfo *theDict;
dict_t *kazlibDict;
theDict = (TA_PrivDictInfo *)dict;
if( theDict == NULL )
return (int)NULL;
kazlibDict = &theDict->d;
if( !(theDict->flags & TA_DICT_KEY_ONE_STRING) )
return 0; /* All other dictionary type are not supported. */
/* Get the first node. */
theDict->accessNode = dict_first( theDict->libHandle, kazlibDict );
if( !theDict->accessNode )
return 0;
return dict_count( kazlibDict );
}
/// Traverses the CA, calling the specified function on each 'raw' PA.
/// @param[in] ca the object pointer
/// @param[in] process pointer to the callback function
/// @param[in] data pointer which is passed to the callback
/// @return -1 on error, sum of process() return codes on success
int
ca_foreach_raw_pa(ca_o ca, int (*process) (pa_o, void *), void *data)
{
dict_t *dict;
dnode_t *dnp;
pa_o pa;
int rc = 0, pret;
dict = ca->ca_raw_pa_dict;
for (dnp = dict_first(dict); dnp; dnp = dict_next(dict, dnp)) {
pa = (pa_o)dnode_getkey(dnp);
pret = process(pa, data);
if (pret < 0) {
putil_int("error from ca_foreach_raw_pa()");
return -1;
} else {
rc += pret;
}
}
return rc;
}
int mongrel2_ws_broadcast(mongrel2_socket *pub_socket, m2_ws_sessions_state *ses, bstring data){
mongrel2_ws_sessions_state_lock(ses);
dnode_t *iter = dict_first(ses->dict);
const m2_ws_session_id *idptr = NULL;
while(iter != NULL){
printf(".");
idptr = dnode_getkey(iter);
assert(idptr != NULL);
assert(idptr->req != NULL);
mongrel2_ws_reply(pub_socket,idptr->req,data);
iter = dict_next(ses->dict,iter);
}
printf(" done sending\n");
mongrel2_ws_sessions_state_unlock(ses);
return 0;
}
TEST(mydict, dict)
{
dict_t* d = dict_create((void*)123);
int k, v;
dict_node_t* node = NULL;
int i = 0;
int sum = 0;
for (i = 0; i < 10000; i++) {
k = i, v = i;
node = dict_add(d, &k, sizeof(k), &v, sizeof(v));
ASSERT_TRUE(node != NULL);
sum += i;
}
for (i = 0; i < 10000; i++) {
node = dict_find(d, &k, sizeof(k));
ASSERT_EQ((long)dict_get_val(node), i);
}
i = 0;
for(node = dict_first(d); node; node = dict_next(d, node)) {
i += (long)dict_get_val(node);
}
ASSERT_EQ(i, sum);
for (i = 0; i < 10000; i++) {
k = i;
node = dict_delete(d, &k, sizeof(k));
ASSERT_EQ((long)dict_get_val(node), i);
}
ASSERT_TRUE(dict_empty(d));
dict_destroy(d);
}
static void
hash_cleanup(UNUSED_ARG(void *extra))
{
dict_iterator_t it, next;
DelServer(self, 0, NULL);
for (it = dict_first(channels); it; it = next) {
next = iter_next(it);
DelChannel(iter_data(it));
}
dict_delete(channels);
dict_delete(clients);
dict_delete(servers);
userList_clean(&curr_opers);
count_opers = 0;
free(slf_list);
free(slf_list_extra);
free(nuf_list);
free(nuf_list_extra);
free(ncf2_list);
free(ncf2_list_extra);
free(duf_list);
free(duf_list_extra);
free(ncf_list);
free(ncf_list_extra);
free(jf_list);
free(jf_list_extra);
free(dcf_list);
free(dcf_list_extra);
free(pf_list);
free(pf_list_extra);
free(kf_list);
free(kf_list_extra);
free(tf_list);
free(tf_list_extra);
}
static int
zsethalftone5(i_ctx_t *i_ctx_p)
{
os_ptr op = osp;
uint count;
gs_halftone_component *phtc;
gs_halftone_component *pc;
int code = 0;
int j;
gs_halftone *pht;
gx_device_halftone *pdht;
ref sprocs[GS_CLIENT_COLOR_MAX_COMPONENTS + 1];
ref tprocs[GS_CLIENT_COLOR_MAX_COMPONENTS + 1];
gs_memory_t *mem;
uint edepth = ref_stack_count(&e_stack);
int npop = 2;
int dict_enum = dict_first(op);
ref rvalue[2];
int cname, colorant_number;
byte * pname;
uint name_size;
int halftonetype, type = 0;
gs_state *pgs = igs;
int space_index = r_space_index(op - 1);
mem = (gs_memory_t *) idmemory->spaces_indexed[space_index];
check_type(*op, t_dictionary);
check_dict_read(*op);
check_type(op[-1], t_dictionary);
check_dict_read(op[-1]);
/*
* We think that Type 2 and Type 4 halftones, like
* screens set by setcolorscreen, adapt automatically to
* the device color space, so we need to mark them
* with a different internal halftone type.
*/
dict_int_param(op - 1, "HalftoneType", 1, 5, 0, &type);
halftonetype = (type == 2 || type == 4)
? ht_type_multiple_colorscreen
: ht_type_multiple;
/* Count how many components that we will actually use. */
for (count = 0; ;) {
bool have_default = false;
/* Move to next element in the dictionary */
if ((dict_enum = dict_next(op, dict_enum, rvalue)) == -1)
break;
/*
* Verify that we have a valid component. We may have a
* /HalfToneType entry.
*/
if (!r_has_type(&rvalue[1], t_dictionary))
continue;
/* Get the name of the component verify that we will use it. */
cname = name_index(mem, &rvalue[0]);
code = gs_get_colorname_string(mem, cname, &pname, &name_size);
if (code < 0)
break;
colorant_number = gs_cname_to_colorant_number(pgs, pname, name_size,
halftonetype);
if (colorant_number < 0)
continue;
else if (colorant_number == GX_DEVICE_COLOR_MAX_COMPONENTS) {
/* If here then we have the "Default" component */
if (have_default)
return_error(e_rangecheck);
have_default = true;
}
count++;
/*
* Check to see if we have already reached the legal number of
* components.
*/
if (count > GS_CLIENT_COLOR_MAX_COMPONENTS + 1) {
code = gs_note_error(e_rangecheck);
break;
}
}
check_estack(5); /* for sampling Type 1 screens */
refset_null(sprocs, count);
refset_null(tprocs, count);
rc_alloc_struct_0(pht, gs_halftone, &st_halftone,
imemory, pht = 0, ".sethalftone5");
phtc = gs_alloc_struct_array(mem, count, gs_halftone_component,
&st_ht_component_element,
".sethalftone5");
rc_alloc_struct_0(pdht, gx_device_halftone, &st_device_halftone,
imemory, pdht = 0, ".sethalftone5");
if (pht == 0 || phtc == 0 || pdht == 0) {
j = 0; /* Quiet the compiler:
gs_note_error isn't necessarily identity,
so j could be left ununitialized. */
code = gs_note_error(e_VMerror);
} else {
dict_enum = dict_first(op);
for (j = 0, pc = phtc; ;) {
int type;
/* Move to next element in the dictionary */
if ((dict_enum = dict_next(op, dict_enum, rvalue)) == -1)
break;
/*
* Verify that we have a valid component. We may have a
* /HalfToneType entry.
*/
if (!r_has_type(&rvalue[1], t_dictionary))
continue;
/* Get the name of the component */
cname = name_index(mem, &rvalue[0]);
code = gs_get_colorname_string(mem, cname, &pname, &name_size);
if (code < 0)
break;
colorant_number = gs_cname_to_colorant_number(pgs, pname, name_size,
halftonetype);
if (colorant_number < 0)
continue; /* Do not use this component */
pc->cname = cname;
pc->comp_number = colorant_number;
/* Now process the component dictionary */
check_dict_read(rvalue[1]);
if (dict_int_param(&rvalue[1], "HalftoneType", 1, 7, 0, &type) < 0) {
code = gs_note_error(e_typecheck);
break;
}
switch (type) {
default:
code = gs_note_error(e_rangecheck);
break;
case 1:
code = dict_spot_params(&rvalue[1], &pc->params.spot,
sprocs + j, tprocs + j);
pc->params.spot.screen.spot_function = spot1_dummy;
pc->type = ht_type_spot;
break;
case 3:
code = dict_threshold_params(&rvalue[1], &pc->params.threshold,
tprocs + j);
pc->type = ht_type_threshold;
break;
case 7:
code = dict_threshold2_params(&rvalue[1], &pc->params.threshold2,
tprocs + j, imemory);
pc->type = ht_type_threshold2;
break;
}
if (code < 0)
break;
pc++;
j++;
}
}
if (code >= 0) {
pht->type = halftonetype;
pht->params.multiple.components = phtc;
pht->params.multiple.num_comp = j;
pht->params.multiple.get_colorname_string = gs_get_colorname_string;
code = gs_sethalftone_prepare(igs, pht, pdht);
}
if (code >= 0) {
/*
* Put the actual frequency and angle in the spot function component dictionaries.
*/
dict_enum = dict_first(op);
for (pc = phtc; ; ) {
/* Move to next element in the dictionary */
if ((dict_enum = dict_next(op, dict_enum, rvalue)) == -1)
break;
/* Verify that we have a valid component */
if (!r_has_type(&rvalue[1], t_dictionary))
continue;
/* Get the name of the component and verify that we will use it. */
cname = name_index(mem, &rvalue[0]);
code = gs_get_colorname_string(mem, cname, &pname, &name_size);
if (code < 0)
break;
colorant_number = gs_cname_to_colorant_number(pgs, pname, name_size,
halftonetype);
if (colorant_number < 0)
continue;
if (pc->type == ht_type_spot) {
code = dict_spot_results(i_ctx_p, &rvalue[1], &pc->params.spot);
if (code < 0)
break;
}
pc++;
}
}
if (code >= 0) {
/*
* Schedule the sampling of any Type 1 screens,
* and any (Type 1 or Type 3) TransferFunctions.
* Save the stack depths in case we have to back out.
*/
uint odepth = ref_stack_count(&o_stack);
ref odict, odict5;
odict = op[-1];
odict5 = *op;
pop(2);
op = osp;
esp += 5;
make_mark_estack(esp - 4, es_other, sethalftone_cleanup);
esp[-3] = odict;
make_istruct(esp - 2, 0, pht);
make_istruct(esp - 1, 0, pdht);
make_op_estack(esp, sethalftone_finish);
for (j = 0; j < count; j++) {
gx_ht_order *porder = NULL;
if (pdht->components == 0)
porder = &pdht->order;
else {
/* Find the component in pdht that matches component j in
the pht; gs_sethalftone_prepare() may permute these. */
int k;
int comp_number = phtc[j].comp_number;
for (k = 0; k < count; k++) {
if (pdht->components[k].comp_number == comp_number) {
porder = &pdht->components[k].corder;
break;
}
}
}
switch (phtc[j].type) {
case ht_type_spot:
code = zscreen_enum_init(i_ctx_p, porder,
&phtc[j].params.spot.screen,
&sprocs[j], 0, 0, space_index);
if (code < 0)
break;
/* falls through */
case ht_type_threshold:
if (!r_has_type(tprocs + j, t__invalid)) {
/* Schedule TransferFunction sampling. */
/****** check_xstack IS WRONG ******/
check_ostack(zcolor_remap_one_ostack);
check_estack(zcolor_remap_one_estack);
code = zcolor_remap_one(i_ctx_p, tprocs + j,
porder->transfer, igs,
zcolor_remap_one_finish);
op = osp;
}
break;
default: /* not possible here, but to keep */
/* the compilers happy.... */
;
}
if (code < 0) { /* Restore the stack. */
ref_stack_pop_to(&o_stack, odepth);
ref_stack_pop_to(&e_stack, edepth);
op = osp;
op[-1] = odict;
*op = odict5;
break;
}
npop = 0;
}
}
if (code < 0) {
gs_free_object(mem, pdht, ".sethalftone5");
gs_free_object(mem, phtc, ".sethalftone5");
gs_free_object(mem, pht, ".sethalftone5");
return code;
}
pop(npop);
return (ref_stack_count(&e_stack) > edepth ? o_push_estack : 0);
}
