static ya_result
config_zone_section_init(config_data *config)
{
ya_result return_code;
tmp_zone_idx++;
/* store the previously configured zone, if any */
config_zone_section_register(config);
/* make a new zone section ready */
tmp_zones = zone_alloc();
if(FAIL(return_code = confs_init(zone_tab, tmp_zones)))
{
zone_free(tmp_zones);
tmp_zones = NULL;
osformatln(termerr, "config: zone: configuration initialize (zone): %r", return_code);
}
return return_code;
}
void worker_thread_process(void *data)
{
packet_t *packet;
packet_t *next;
assert(data);
packet = (packet_t *)data;
packet->meta_hd = meta_hd_pp[sys_thread_id_get()];
assert(packet->meta_hd != NULL);
//meta_buffer_sys_clear(packet->meta_hd);
packet->flag &= ~PKT_HANDLE_MASK;/*清理上次的结果*/
module_list_process(module_hd_p, pktag_hd_p, packet->pktag, packet);
if (packet->flag & PKT_LOOP_NEXT) {
threadpool_add_task(tp, worker_thread_process, packet, 0);
} else if (packet->flag & PKT_DONT_FREE) {
meta_buffer_sys_clear(packet->meta_hd);
} else {
do {
next = packet->next_packet;
meta_buffer_sys_clear(packet->meta_hd);
zone_free(packet_zone, packet);
packet = next;
} while (packet != NULL);
}
}
static void
config_zone_section_register(config_data *config)
{
if(tmp_zones != NULL)
{
ya_result return_code;
if(FAIL(return_code = zone_register(&config->zones, tmp_zones)))
{
switch(return_code)
{
case DATABASE_ZONE_MISSING_DOMAIN:
case DATABASE_ZONE_MISSING_MASTER:
{
log_err("config: zone: section #%d: %r", tmp_zone_idx, return_code);
exit(EXIT_FAILURE);
break;
}
default:
{
log_err("config: zone: section #%d: %r", tmp_zone_idx, return_code);
zone_free(tmp_zones);
break;
}
}
}
tmp_zones = NULL;
}
}
void process_loop(module_hd_t *module_head)
{
int32_t status, tag_id;
uint64_t pkt_num = 0;
extern int system_exit;
module_info_t *recv;
packet_t *packet;
if (g_conf.mode == MODE_LIVE || g_conf.mode == MODE_FILE) {
/*收包，线程中加入处理*/
status = 0;
packet_zone = zone_init("pcap_read", sizeof(packet_t) + MAX_PACKET_LEN, MAX_PACKET_HANDLE);
assert(packet_zone);
recv = module_info_get_from_name(module_head, "recv");
assert(recv && recv->ops->process);
do {
do {
packet = (void *)zone_alloc(packet_zone, 0);
} while(packet == NULL);
tag_id = recv->ops->process(recv, packet);
if (tag_id > 0) {
assert(packet->data);
pkt_num++;
status = threadpool_add_task(tp, worker_thread_process, packet, 0);
if (status != 0) {
log_error(syslog_p, "Threadpool add task, status %d\n", status);
status = 0;
}
if (g_conf.pkt_num != 0 && pkt_num >= g_conf.pkt_num) {
system_exit = 1;
}
} else {
status = tag_id;
zone_free(packet_zone, packet);
}
} while( status >= 0 && !system_exit);
if (g_conf.mode == MODE_FILE) {
sleep(1);/*等待最后加入的work处理完成*/
}
} else if (g_conf.mode == MODE_SE) {
do {
status = module_list_process(module_head, pktag_hd_p, -1, NULL);
pkt_num++;
if (g_conf.pkt_num != 0 && pkt_num >= g_conf.pkt_num) {
system_exit = 1;
}
} while (status >= 0 && !system_exit);
}
}
Sound::~Sound() {
SoundContext::Ref ctx = m_ctx.lock();
if (ctx) {
if (m_is)
ZMusic.Get().Dec(kNumStreamingBuffers*kStreamingBufferSize, 0);
for (SourceVec::iterator it = m_sources.begin(); it != m_sources.end(); ++it) {
SoundContext::Source &source = *it;
if (source.mapped) {
SoundContext::WriteLock L(ctx->m_m);
ctx->UnmapSource(source);
}
if (source.source)
m_alDriver->SyncDeleteSources(ALDRIVER_SIG 1, &source.source);
}
for (int i = 0; i < kNumStreamingBuffers; ++i) {
if (m_sbufs[i])
m_alDriver->SyncDeleteBuffers(ALDRIVER_SIG 1, &m_sbufs[i]);
}
// NOTE: in Sound::Tick we issue a custom ALDriver command that queries the status
// of the source (alSourcei(AL_SOURCE_STATE). This is an asynchronous command that
// writes to a member of a Source object contained in the m_sources[] vector of this
// object.
//
// There is no chance of contention here (or crashing because we write to this
// data after the destructor is finished) because in order for us to issue this command
// the source must have a valid openAL source/buffer attached. That means we call
// ALDriver::DeleteSources() & ALDriver::DeleteBuffers() which are both synchronous operations
// and therefore our custom command is guaranteed to be executed before the destructor returns
}
m_ib.reset();
if (m_vbd)
delete m_vbd;
if (m_bsi)
delete m_bsi;
if (m_is)
delete m_is;
if (m_blockData)
zone_free(m_blockData);
}
void destroy_zone(struct ZONE * zp)
{
if( zp == NULL) {
fprintf(stderr, "Zone::destroy_zone called with null pointer\n");
return;
}
if( zp->magic != ZPMAGIC ){
fprintf(stderr, "Zone::destroy_zone called with invalid zp\n");
return;
}
# ifdef DEBUG
if( zp -> count > 0)
fprintf(stderr,"Zone::destroy_zone some (%d) used area found\n", zp->count);
# endif
# if 1
/* dual implementation, one */
while( zp->next != (struct MEMHEAD*)zp ){
zone_free(zp, zp->next+1); /* +1 == sizeof(struct MEMHEAD) */
}
# else
/* dual implementation, two */
{
unsigned int i;
struct MEMHEAD *p;
for(i = 0; i< zp->cnt; i++){
p = zp->next->next;
free(zp->next);
zp->next =p;
}
zp->cnt = 0;
}
# endif
zp->magic = 0;
free(zp);
# ifdef DEBUG
fprintf(stderr,"Zone::destroy_zone called, access count:%d\n", zp->acnt);
# endif
}
/**
* List all keys and their rollover time. If listed_zone is set limit
* to that zone
* \param sockfd client socket
* \param listed_zone name of the zone
* \param dbconn active database connection
* \return 0 ok, 1 fail.
*/
static int
perform_rollover_list(int sockfd, const char *listed_zone,
db_connection_t *dbconn)
{
zone_list_t *zonelist = NULL;
zone_t *zone = NULL;
const zone_t *zone_walk = NULL;
const char* fmt = "%-31s %-8s %-30s\n";
if (listed_zone) {
zone = zone_new_get_by_name(dbconn, listed_zone);
} else {
zonelist = zone_list_new_get(dbconn);
}
if (listed_zone && !zone) {
ods_log_error("[%s] zone '%s' not found", module_str, listed_zone);
client_printf(sockfd, "zone '%s' not found\n", listed_zone);
return 1;
}
if (!zone && !zonelist) {
ods_log_error("[%s] error enumerating zones", module_str);
client_printf(sockfd, "error enumerating zones\n");
return 1;
}
client_printf(sockfd, "Keys:\n");
client_printf(sockfd, fmt, "Zone:", "Keytype:", "Rollover expected:");
if (zone) {
print_zone(sockfd, fmt, zone);
zone_free(zone);
return 0;
}
while ((zone_walk = zone_list_next(zonelist))) {
print_zone(sockfd, fmt, zone_walk);
}
zone_list_free(zonelist);
return 0;
}
void * zone_realloc(struct ZONE * zp, void *ptr, size_t size)
{
struct MEMHEAD * p;
if( zp == NULL) {
fprintf(stderr, "Zone::zone_realloc called with null pointer\n");
return NULL;
}
if( zp->magic != ZPMAGIC ){
fprintf(stderr, "Zone::zone_realloc called with invalid zp\n");
return NULL;
}
acntup();
if( ptr == NULL) {
return zone_malloc(zp, size);
}
if( size == 0 ){
zone_free(zp, ptr);
return NULL;
}
CHKSET(zp, ptr);
p = (struct MEMHEAD *) realloc((char *)ptr - sizeof(struct MEMHEAD),
size + sizeof(struct MEMHEAD));
if( NULL == p )
return NULL;
(p->next)->prev = p; /* realloc preserves data*/
(p->prev)->next = p;
CHKSET(zp, p+1);
return p + 1;
}
int main(int argc, char *argv[])
{
plan(10);
/* Prepare query. */
knot_pkt_t *query = knot_pkt_new(NULL, 512, NULL);
if (query == NULL) {
return KNOT_ERROR; /* Fatal */
}
knot_dname_t *qname = knot_dname_from_str("beef.");
int ret = knot_pkt_put_question(query, qname, KNOT_CLASS_IN, KNOT_RRTYPE_A);
knot_dname_free(&qname, NULL);
if (ret != KNOT_EOK) {
knot_pkt_free(&query);
return KNOT_ERROR; /* Fatal */
}
/* Prepare response */
uint8_t rbuf[65535];
size_t rlen = sizeof(rbuf);
memcpy(rbuf, query->wire, query->size);
knot_wire_flags_set_qr(rbuf);
rrl_req_t rq;
rq.w = rbuf;
rq.len = rlen;
rq.query = query;
rq.flags = 0;
/* 1. create rrl table */
rrl_table_t *rrl = rrl_create(RRL_SIZE);
ok(rrl != NULL, "rrl: create");
/* 2. set rate limit */
uint32_t rate = 10;
rrl_setrate(rrl, rate);
is_int(rate, rrl_rate(rrl), "rrl: setrate");
/* 3. setlocks */
ret = rrl_setlocks(rrl, RRL_LOCKS);
is_int(KNOT_EOK, ret, "rrl: setlocks");
/* 4. N unlimited requests. */
conf_zone_t *zone_conf = malloc(sizeof(conf_zone_t));
conf_init_zone(zone_conf);
zone_conf->name = strdup("rrl.");
zone_t *zone = zone_new(zone_conf);
struct sockaddr_storage addr;
struct sockaddr_storage addr6;
sockaddr_set(&addr, AF_INET, "1.2.3.4", 0);
sockaddr_set(&addr6, AF_INET6, "1122:3344:5566:7788::aabb", 0);
ret = 0;
for (unsigned i = 0; i < rate; ++i) {
if (rrl_query(rrl, &addr, &rq, zone) != KNOT_EOK ||
rrl_query(rrl, &addr6, &rq, zone) != KNOT_EOK) {
ret = KNOT_ELIMIT;
break;
}
}
is_int(0, ret, "rrl: unlimited IPv4/v6 requests");
#ifdef ENABLE_TIMED_TESTS
/* 5. limited request */
ret = rrl_query(rrl, &addr, &rq, zone);
is_int(0, ret, "rrl: throttled IPv4 request");
/* 6. limited IPv6 request */
ret = rrl_query(rrl, &addr6, &rq, zone);
is_int(0, ret, "rrl: throttled IPv6 request");
#else
skip_block(2, "Timed tests not enabled");
#endif
/* 7. invalid values. */
ret = 0;
rrl_create(0); // NULL
ret += rrl_setrate(0, 0); // 0
ret += rrl_rate(0); // 0
ret += rrl_setlocks(0,0); // -1
ret += rrl_query(0, 0, 0, 0); // -1
ret += rrl_query(rrl, 0, 0, 0); // -1
ret += rrl_query(rrl, (void*)0x1, 0, 0); // -1
ret += rrl_destroy(0); // -1
is_int(-488, ret, "rrl: not crashed while executing functions on NULL context");
#ifdef ENABLE_TIMED_TESTS
/* 8. hopscotch test */
struct runnable_data rd = {
1, rrl, &addr, &rq, zone
};
rrl_hopscotch(&rd);
ok(rd.passed, "rrl: hashtable is ~ consistent");
/* 9. reseed */
is_int(0, rrl_reseed(rrl), "rrl: reseed");
/* 10. hopscotch after reseed. */
rrl_hopscotch(&rd);
ok(rd.passed, "rrl: hashtable is ~ consistent");
#else
skip_block(3, "Timed tests not enabled");
#endif
zone_free(&zone);
knot_pkt_free(&query);
rrl_destroy(rrl);
return 0;
}
static time_t
perform_enforce(int sockfd, engine_type *engine, int bForceUpdate,
task_type* task, db_connection_t *dbconn)
{
zone_list_t *zonelist = NULL;
zone_t *zone, *firstzone = NULL;
policy_t *policy;
key_data_list_t *keylist;
const key_data_t *key;
time_t t_next, t_now = time_now(), t_reschedule = -1;
/* Flags that indicate tasks to be scheduled after zones have been
* enforced. */
int bSignerConfNeedsWriting = 0;
int bSubmitToParent = 0;
int bRetractFromParent = 0;
int zone_updated;
if (!(zonelist = zone_list_new(dbconn))
/*|| zone_list_associated_fetch(zonelist)*/
|| zone_list_get(zonelist))
{
zone_list_free(zonelist);
zonelist = NULL;
}
if (!zonelist) {
/* TODO: log error */
ods_log_error("[%s] zonelist NULL", module_str);
/* TODO: backoff? */
return t_reschedule;
}
for (zone = zone_list_get_next(zonelist); zone;
zone_free(zone), zone = zone_list_get_next(zonelist))
{
if (engine->need_to_reload || engine->need_to_exit) break;
if (!bForceUpdate && (zone_next_change(zone) == -1)) {
continue;
} else if (zone_next_change(zone) > t_now && !bForceUpdate) {
/* This zone needs no update, however it might be the first
* for future updates */
if (zone_next_change(zone) < t_reschedule || !firstzone)
{
t_reschedule = zone_next_change(zone);
if (firstzone) {
zone_free(firstzone);
}
firstzone = zone;
zone = NULL; /* keeps firstzone from being freed. */
}
continue;
}
if (!(policy = zone_get_policy(zone))) {
client_printf(sockfd,
"Next update for zone %s NOT scheduled "
"because policy is missing !\n", zone_name(zone));
if (zone_next_change(zone) != -1
&& (zone_set_next_change(zone, -1)
|| zone_update(zone)))
{
/* TODO: Log error */
}
continue;
}
if (policy_passthrough(policy)) {
ods_log_info("Passing through zone %s.\n", zone_name(zone));
zone_set_signconf_needs_writing(zone, 1);
zone_update(zone);
bSignerConfNeedsWriting = 1;
policy_free(policy);
continue;
}
zone_updated = 0;
t_next = update(engine, dbconn, zone, policy, t_now, &zone_updated);
policy_free(policy);
bSignerConfNeedsWriting |= zone_signconf_needs_writing(zone);
keylist = zone_get_keys(zone);
while ((key = key_data_list_next(keylist))) {
if (key_data_ds_at_parent(key) == KEY_DATA_DS_AT_PARENT_SUBMIT) {
ods_log_warning("[%s] please submit DS "
"with keytag %d for zone %s",
module_str, key_data_keytag(key)&0xFFFF, zone_name(zone));
bSubmitToParent = 1;
} else if (key_data_ds_at_parent(key) == KEY_DATA_DS_AT_PARENT_RETRACT) {
ods_log_warning("[%s] please retract DS "
"with keytag %d for zone %s",
module_str, key_data_keytag(key)&0xFFFF, zone_name(zone));
bRetractFromParent = 1;
}
}
key_data_list_free(keylist);
if (t_next == -1) {
client_printf(sockfd,
"Next update for zone %s NOT scheduled "
"by enforcer !\n", zone_name(zone));
ods_log_debug("Next update for zone %s NOT scheduled "
"by enforcer !\n", zone_name(zone));
} else {
/* Invalid schedule time then skip the zone.*/
char tbuf[32] = "date/time invalid\n"; /* at least 26 bytes */
ctime_r(&t_next, tbuf); /* note that ctime_r inserts \n */
client_printf(sockfd,
"Next update for zone %s scheduled at %s",
zone_name(zone), tbuf);
ods_log_debug("Next update for zone %s scheduled at %s",
zone_name(zone), tbuf);
}
if (zone_next_change(zone) != t_next) {
zone_set_next_change(zone, t_next);
zone_updated = 1;
}
/*
* Commit the changes to the zone if there where any.
*/
if (zone_updated) {
if (zone_update(zone)) {
ods_log_debug("[%s] error zone_update(%s)", module_str, zone_name(zone));
}
}
/*
* Find out when to schedule the next change.
*/
if (zone_next_change(zone) != -1
&& (zone_next_change(zone) < t_reschedule
|| !firstzone))
{
t_reschedule = zone_next_change(zone);
if (firstzone) {
zone_free(firstzone);
}
firstzone = zone;
zone = NULL;
}
}
zone_list_free(zonelist);
/*
* Schedule the next change if needed.
*/
if (firstzone) {
reschedule_enforce(task, t_reschedule, zone_name(firstzone));
zone_free(firstzone);
}
/* Launch signer configuration writer task when one of the
* zones indicated that it needs to be written.
* TODO: unschedule it first!
*/
if (bSignerConfNeedsWriting) {
task_type *signconf =
signconf_task(dbconn, "signconf", "signer configurations");
enf_schedule_task(sockfd,engine,signconf,"signconf");
} else {
ods_log_info("[%s] No changes to any signconf file required", module_str);
}
/* Launch ds-submit task when one of the updated key states has the
* DS_SUBMIT flag set. */
if (bSubmitToParent) {
task_type *submit =
keystate_ds_submit_task(engine);
enf_schedule_task(sockfd, engine, submit, "ds-submit");
}
/* Launch ds-retract task when one of the updated key states has the
* DS_RETRACT flag set. */
if (bRetractFromParent) {
task_type *retract =
keystate_ds_retract_task(engine);
enf_schedule_task(sockfd, engine, retract, "ds-retract");
}
return t_reschedule;
}
RADRT_API bool RADRT_CALL Decode(const void *buff, AddrSize buffLength, Image &out)
{
RAD_ASSERT(buff&&buffLength);
RAD_ASSERT(buffLength <= std::numeric_limits<stream::SPos>::max());
out.Free();
stream::MemInputBuffer ib(buff, (stream::SPos)buffLength);
stream::InputStream is(ib);
{
char sig[SigSize];
if (is.Read(sig, SigSize, 0) != SigSize)
return false;
// NOTE: png_sig_cmp() returns 0 if the sig matches the PNG sig.
if (png_sig_cmp((png_bytep)sig, 0, SigSize))
return false;
}
png_structp png;
png_infop info;
png = png_create_read_struct_2(PNG_LIBPNG_VER_STRING, 0, PNGErrorHandler, PNGWarningHandler, 0, PNGMalloc, PNGFree);
if (!png)
return false;
info = png_create_info_struct(png);
if (!info)
{
png_destroy_read_struct(&png, 0, 0);
return false;
}
png_set_read_fn(png, &is, PNGRead);
png_set_sig_bytes(png, SigSize);
try
{
png_uint_32 w, h;
int bd, color, interlace;
png_read_info(png, info);
png_get_IHDR(png, info, &w, &h, &bd, &color, &interlace, 0, 0);
if (!out.AllocateFrames(1)||!out.AllocateMipmaps(0, 1))
{
png_destroy_read_struct(&png, &info, 0);
return false;
}
Mipmap &m = out.frames[0].mipmaps[0];
out.format = Format(png, info, bd, color);
if (out.format == InvalidFormat)
{
out.Free();
png_destroy_read_struct(&png, &info, 0);
return false;
}
out.bpp = FormatBPP(out.format);
if (!out.AllocateMipmap(0, 0, w, h, w * out.bpp, w * h * out.bpp))
{
out.Free();
png_destroy_read_struct(&png, &info, 0);
return false;
}
png_set_strip_16(png);
if (color == PNG_COLOR_TYPE_PALETTE)
{
png_set_palette_to_rgb(png);
}
if (color == PNG_COLOR_TYPE_GRAY && bd < 8)
{
png_set_expand_gray_1_2_4_to_8(png);
}
if (png_get_valid(png, info, PNG_INFO_tRNS))
{
png_set_tRNS_to_alpha(png);
}
png_set_swap(png);
int passes = png_set_interlace_handling(png);
png_bytep dstRow = 0;
png_bytep imgRow = 0;
png_uint_32 stride = (png_uint_32)png_get_rowbytes(png, info);
RAD_ASSERT(stride >= m.stride);
if (stride != m.stride)
{
dstRow = (png_bytep)safe_zone_malloc(ZImageCodec, stride, 0);
}
for (int pass = 0; pass < passes; ++pass)
{
if (stride == m.stride)
{
dstRow = (png_bytep)m.data; // reset.
}
imgRow = (png_bytep)m.data;
for (png_uint_32 y = 0; y < h; ++y)
{
if (pass > 0 && stride != m.stride)
{
RAD_ASSERT(imgRow != dstRow);
// interlaced image, copy the result of the last pass.
memcpy(dstRow, imgRow, m.stride);
}
png_read_rows(png, &dstRow, 0, 1);
if (stride != m.stride)
{
// imgRow/dstRow are correct, we are copying from dstRow to imgRow.
memcpy(imgRow, dstRow, m.stride);
}
else
{
dstRow += m.stride;
}
imgRow += m.stride;
}
}
if (stride != m.stride)
{
RAD_ASSERT(dstRow);
zone_free(dstRow);
}
png_read_end(png, info);
}
catch (PNGException&)
{
out.Free();
png_destroy_read_struct(&png, &info, 0);
return false;
}
png_destroy_read_struct(&png, &info, 0);
return true;
}
static int
perform_keystate_list(int sockfd, db_connection_t *dbconn,
const char* filterZone, char** filterKeytype, char** filterKeystate,
void (printheader)(int sockfd),
void (printkey)(int sockfd, zone_t* zone, key_data_t* key, char*tchange, hsm_key_t* hsmKey)) {
key_data_list_t* key_list;
key_data_t* key;
zone_t *zone = NULL;
char* tchange;
hsm_key_t *hsmkey;
int cmp;
int i, skipPrintKey;
if (!(key_list = key_data_list_new_get(dbconn))) {
client_printf_err(sockfd, "Unable to get list of keys, memory "
"allocation or database error!\n");
return 1;
}
if (printheader) {
(*printheader)(sockfd);
}
while ((key = key_data_list_get_next(key_list))) {
/* only refetches zone if different from previous */
if (zone
&& (db_value_cmp(zone_id(zone), key_data_zone_id(key), &cmp)
|| cmp)) {
zone_free(zone);
zone = NULL;
}
if (!zone) {
zone = key_data_get_zone(key);
}
hsmkey = key_data_get_hsm_key(key);
key_data_cache_key_states(key);
tchange = map_keytime(zone, key); /* allocs */
skipPrintKey = 0;
if(printkey == NULL)
skipPrintKey = 1;
if(filterZone != NULL && strcmp(zone_name(zone), filterZone))
skipPrintKey = 1;
for(i=0; filterKeytype && filterKeytype[i]; i++)
if(!strcasecmp(filterKeytype[i],key_data_role_text(key)))
break;
if(filterKeytype && filterKeytype[i] == NULL)
skipPrintKey = 1;
for(i=0; filterKeystate && filterKeystate[i]; i++)
if(!strcasecmp(filterKeystate[i],map_keystate(key)))
break;
if(filterKeystate && filterKeystate[i] == NULL)
skipPrintKey = 1;
if (!skipPrintKey) {
(*printkey)(sockfd, zone, key, tchange, hsmkey);
}
free(tchange);
hsm_key_free(hsmkey);
key_data_free(key);
}
zone_free(zone);
key_data_list_free(key_list);
return 0;
}