void
test_session_tcp6(void) {
lagopus_result_t ret;
char cbuf[256] = {0};
char sbuf[256] = {0};
lagopus_session_t sesc, sess, sesa;
struct addrunion dst, src;
ret = session_create(SESSION_TCP6|SESSION_PASSIVE, &sess);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_OK, ret);
addrunion_ipv6_set(&src, "::0");
ret = session_bind(sess, &src, 10023);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_OK, ret);
ret = session_create(SESSION_TCP6|SESSION_ACTIVE, &sesc);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_OK, ret);
addrunion_ipv6_set(&dst, "::1");
ret = session_connect(sesc, &dst, 10023, NULL, 0);
if (ret == 0 || errno == EINPROGRESS) {
TEST_ASSERT(true);
} else {
TEST_ASSERT(false);
}
ret = session_accept(sess, &sesa);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_OK, ret);
TEST_ASSERT_NOT_NULL(sesa);
TEST_ASSERT_TRUE(session_is_alive(sess));
TEST_ASSERT_TRUE(session_is_alive(sesc));
TEST_ASSERT_TRUE(session_is_alive(sesa));
snprintf(cbuf, sizeof(cbuf), "hogehoge\n");
ret = session_write(sesc, cbuf, strlen(cbuf));
TEST_ASSERT_EQUAL(ret, strlen(cbuf));
ret = session_read(sesa, sbuf, sizeof(sbuf));
TEST_ASSERT_EQUAL(ret, strlen(sbuf));
ret = session_write(sesa, sbuf, strlen(sbuf));
TEST_ASSERT_EQUAL(ret, strlen(sbuf));
ret = session_read(sesc, cbuf, sizeof(cbuf));
TEST_ASSERT_EQUAL(ret, strlen(cbuf));
session_destroy(sesc);
session_destroy(sesa);
session_destroy(sess);
}
void
test_session_create_and_fail(void) {
lagopus_result_t ret;
lagopus_session_t ses;
ret = session_create(SESSION_ACTIVE|SESSION_TLS, &ses);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_INVALID_ARGS, ret);
ret = session_create(SESSION_TCP|SESSION_TLS, &ses);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_INVALID_ARGS, ret);
ret = session_create(SESSION_TLS|SESSION_PASSIVE, &ses);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_INVALID_ARGS, ret);
ret = session_create(SESSION_TCP|SESSION_ACTIVE, NULL);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_INVALID_ARGS, ret);
}
lagopus_result_t
session_accept(lagopus_session_t s1, lagopus_session_t *s2) {
int sock;
struct sockaddr_storage ss = {0,0,{0}};
socklen_t ss_len = sizeof(ss);
session_type_t t;
lagopus_result_t ret;
sock = accept(s1->sock, (struct sockaddr *) &ss, &ss_len);
if (sock < 0) {
lagopus_msg_warning("accept error.\n");
return LAGOPUS_RESULT_POSIX_API_ERROR;
}
t = ((s1->session_type
& (unsigned int) ~(SESSION_PASSIVE|SESSION_ACTIVE)) | SESSION_ACCEPTED);
ret = session_create(t, s2);
if (*s2 == NULL) {
close(sock);
return ret;
}
(*s2)->sock = sock;
if (s1->accept != NULL) {
return s1->accept(s1, s2);
}
return LAGOPUS_RESULT_OK;
}
static zx_status_t new_vc_cb(port_handler_t* ph, zx_signals_t signals, uint32_t evt) {
zx_handle_t h;
uint32_t dcount, hcount;
if (zx_channel_read(ph->handle, 0, NULL, &h, 0, 1, &dcount, &hcount) < 0) {
return ZX_OK;
}
if (hcount != 1) {
return ZX_OK;
}
vc_t* vc;
int fd;
if (session_create(&vc, &fd, true, false) < 0) {
zx_handle_close(h);
return ZX_OK;
}
zx_handle_t handles[FDIO_MAX_HANDLES];
uint32_t types[FDIO_MAX_HANDLES];
zx_status_t r = fdio_transfer_fd(fd, FDIO_FLAG_USE_FOR_STDIO | 0, handles, types);
if (zx_channel_write(h, 0, types,
static_cast<uint32_t>(r * sizeof(uint32_t)), handles, r) != ZX_OK) {
session_destroy(vc);
} else {
port_wait(&port, &vc->fh.ph);
}
zx_handle_close(h);
return ZX_OK;
}
inline NSAPIEnvironment::NSAPIEnvironment(const VirtualServer* vs, const char* uri)
{
// Break the thread's association with any HttpRequest. The existing
// HttpRequest may refer to a different VS and will be using a different
// Session (and therefore MALLOC pool).
hrq = HttpRequest::CurrentRequest();
if (hrq)
HttpRequest::SetCurrentRequest(NULL);
else
conf_get_thread_globals(threadHrq, threadVS);
// Remember the caller's MALLOC pool
if (keyPool == -1)
keyPool = getThreadMallocKey();
poolCaller = (pool_handle_t*)systhread_getdata(keyPool);
// Ensure session is allocated from the PERM_* pool so we can free it
// correctly later
if (poolCaller)
systhread_setdata(keyPool, NULL);
// Create a dummy Session. session_create() will create a pool for us.
memset(&address, 0, sizeof(address));
address.sin_family = AF_INET;
sn = session_create(PR_NewSink(), &address);
// Create a dummy Request
rq = request_restart_internal((char*)uri, NULL);
// Get the VS's objset
objset = vs ? vs->getObjset() : NULL;
// Setup the thread-specific "globals" for this vs
conf_set_thread_vs_globals(vs);
}
struct session_entry *create_session_entry(int remote_id_4, int local_id_4,
int local_id_6, int remote_id_6,
struct bib_entry* bib, u_int8_t l4protocol, unsigned int dying_time)
{
struct ipv4_pair pair_4 = {
.remote = addr4[remote_id_4],
.local = addr4[local_id_4],
};
struct ipv6_pair pair_6 = {
.local = addr6[local_id_6],
.remote = addr6[remote_id_6],
};
struct session_entry* entry = session_create(&pair_4, &pair_6, l4protocol);
if (!entry)
return NULL;
entry->dying_time = dying_time;
if (bib) {
entry->bib = bib;
list_add(&entry->entries_from_bib, &bib->sessions);
}
return entry;
}
static int create_session_handle(AMQP_CONNECTION_INSTANCE* instance)
{
int result;
// Codes_SRS_IOTHUBTRANSPORT_AMQP_CONNECTION_09_024: [`instance->session_handle` shall be created using session_create(), passing `instance->connection_handle`]
if ((instance->session_handle = session_create(instance->connection_handle, NULL, NULL)) == NULL)
{
// Codes_SRS_IOTHUBTRANSPORT_AMQP_CONNECTION_09_025: [If session_create() fails, amqp_connection_create() shall fail and return NULL]
result = __FAILURE__;
LogError("Failed creating the AMQP connection (connection_create2 failed)");
}
else
{
// Codes_SRS_IOTHUBTRANSPORT_AMQP_CONNECTION_09_026: [The `instance->session_handle` incoming window size shall be set as UINT_MAX using session_set_incoming_window()]
if (session_set_incoming_window(instance->session_handle, (uint32_t)DEFAULT_INCOMING_WINDOW_SIZE) != 0)
{
LogError("Failed to set the AMQP session incoming window size.");
}
// Codes_SRS_IOTHUBTRANSPORT_AMQP_CONNECTION_09_027: [The `instance->session_handle` outgoing window size shall be set as 100 using session_set_outgoing_window()]
if (session_set_outgoing_window(instance->session_handle, DEFAULT_OUTGOING_WINDOW_SIZE) != 0)
{
LogError("Failed to set the AMQP session outgoing window size.");
}
result = RESULT_OK;
}
return result;
}
/**
* Acquire existing session from sotrage or create new one.
* All session MUST be requested through this function.
* @param[in] ip IPv4 address of client.
* @param[in] existing_only Do only existing sssion search.
* @return New client.
*/
struct zsession *session_acquire(uint32_t ip, bool existing_only)
{
struct zsession *sess = NULL;
size_t sidx = STORAGE_IDX(ip);
// search for existing session
pthread_rwlock_rdlock(&zinst()->sessions_lock[sidx]);
HASH_FIND(hh, zinst()->sessions[sidx], &ip, sizeof(ip), sess);
if (NULL != sess) {
__atomic_add_fetch(&sess->refcnt, 1, __ATOMIC_RELAXED);
}
pthread_rwlock_unlock(&zinst()->sessions_lock[sidx]);
// or create new session
if (!existing_only && NULL == sess) {
pthread_rwlock_wrlock(&zinst()->sessions_lock[sidx]);
HASH_FIND(hh, zinst()->sessions[sidx], &ip, sizeof(ip), sess);
if (NULL != sess) {
__atomic_add_fetch(&sess->refcnt, 1, __ATOMIC_RELAXED);
} else {
sess = session_create();
sess->ip = ip;
__atomic_store_n(&sess->last_activity, ztime(false), __ATOMIC_RELAXED);
__atomic_add_fetch(&sess->refcnt, 1, __ATOMIC_RELAXED); // sessions storage reference
HASH_ADD(hh, zinst()->sessions[sidx], ip, sizeof(ip), sess);
}
pthread_rwlock_unlock(&zinst()->sessions_lock[sidx]);
}
return sess;
}
static
void read_confirm(struct rcontext* rcontext, const struct proto* proto) {
char buf[1500];
ssize_t olength = 0;
struct cipher_context *cipher;
olength = xdecrypt(rcontext->config, rcontext->config->keyX, proto->rid.value, proto->rid.length, buf);
if (olength < 0) {
return;
}
cipher = verify_challenge(rcontext->config, &rcontext->from, &rcontext->endpoint->local, rcontext->session ? rcontext->session->rkey : 0, proto->rid.value, proto->rid.length);
if (cipher == 0) {
fprintf(stderr, "!! verify_challenge failed\n");
return;
}
/* update session*/
if (rcontext->rendpoint == 0) {
rcontext->rendpoint = rendpoint_update(rcontext->config, &rcontext->from, 0);
}
if (rcontext->session == 0) {
fprintf(stderr, "Confirm accepted. Creating new session\n");
rcontext->session = session_create(rcontext->config, rcontext->endpoint, rcontext->rendpoint);
} else {
fprintf(stderr, "confirm accepted\n");
}
if (rcontext->session->rkey) {
cipher_context_free(rcontext->session->rkey);
}
rcontext->session->rkey = cipher_context_create(rcontext->config->cipher, buf);
write_accept(rcontext);
}
session_t *session_create_exec(select_group_t *group, char *name, char *process)
{
session_t *session = session_create(name);
session->driver = driver_create(DRIVER_TYPE_EXEC, driver_exec_create(group, process));
return session;
}
session_t *session_create_console(select_group_t *group, char *name)
{
session_t *session = session_create(name);
session->driver = driver_create(DRIVER_TYPE_CONSOLE, driver_console_create(group));
return session;
}
void
test_session_create_and_close(void) {
lagopus_result_t ret;
lagopus_session_t ses;
ret = session_create(SESSION_TCP|SESSION_ACTIVE, &ses);
TEST_ASSERT_EQUAL(LAGOPUS_RESULT_OK, ret);
session_destroy(ses);
}
session_t *session_create_ping(select_group_t *group, char *name)
{
session_t *session = session_create(name);
session->driver = driver_create(DRIVER_TYPE_PING, driver_ping_create(group));
session->is_ping = TRUE;
return session;
}
session_t *session_create_command(select_group_t *group, char *name)
{
session_t *session = session_create(name);
session->driver = driver_create(DRIVER_TYPE_COMMAND, driver_command_create(group));
session->is_command = TRUE;
return session;
}
int
main(int argc, char **argv)
{
/*
* Standard command-line parsing.
*/
HASH_T *options = parse_cmdline(argc, argv, arg_opts);
if(options == NULL || hash_get(options, "help") != NULL) {
show_usage(argc, argv, arg_opts);
return EXIT_FAILURE;
}
read_fortunes(hash_get(options, "fortune_file"));
/*
* Seed the random number generator.
*/
struct timeb t;
ftime(&t);
srandom((t.time * 1000 + t.millitm));
SESSION_T *session = NULL;
char *url = hash_get(options, "url");
const char *principal = hash_get(options, "principal");
CREDENTIALS_T *credentials = NULL;
const char *password = hash_get(options, "credentials");
if(password != NULL) {
credentials = credentials_create_password(password);
}
char *topic = hash_get(options, "topic");
/*
* A SESSION_LISTENER_T holds callbacks to inform the client
* about changes to the state. Used here for informational
* purposes only.
*/
SESSION_LISTENER_T session_listener = { 0 };
session_listener.on_state_changed = &on_session_state_changed;
/*
* Create a session with Diffusion.
*/
DIFFUSION_ERROR_T error = { 0 };
session = session_create(url, principal, credentials, &session_listener, NULL, &error);
if(session == NULL) {
fprintf(stderr, "TEST: Failed to create session\n");
fprintf(stderr, "ERR : %s\n", error.message);
return EXIT_FAILURE;
}
/*
* Add the "fortune" topic.
*/
TOPIC_DETAILS_T *details = create_topic_details_stateless();
add_topic(session, (ADD_TOPIC_PARAMS_T) { .topic_path = "fortune", .details = details });
void ast_ari_websocket_events_event_websocket_established(struct ast_ari_websocket_session *ws_session,
struct ast_variable *headers,
struct ast_ari_events_event_websocket_args *args)
{
RAII_VAR(struct event_session *, session, NULL, session_cleanup);
struct ast_json *msg;
int res;
size_t i;
int (* register_handler)(const char *, stasis_app_cb handler, void *data);
ast_debug(3, "/events WebSocket connection\n");
session = session_create(ws_session);
if (!session) {
ast_ari_websocket_session_write(ws_session, ast_ari_oom_json());
return;
}
if (args->subscribe_all) {
register_handler = &stasis_app_register_all;
} else {
register_handler = &stasis_app_register;
}
res = 0;
for (i = 0; i < args->app_count; ++i) {
if (ast_strlen_zero(args->app[i])) {
continue;
}
res |= session_register_app(session, args->app[i], register_handler);
}
if (ao2_container_count(session->websocket_apps) == 0) {
RAII_VAR(struct ast_json *, msg, NULL, ast_json_unref);
msg = ast_json_pack("{s: s, s: [s]}",
"type", "MissingParams",
"params", "app");
if (!msg) {
msg = ast_json_ref(ast_ari_oom_json());
}
ast_ari_websocket_session_write(session->ws_session, msg);
return;
}
if (res != 0) {
ast_ari_websocket_session_write(ws_session, ast_ari_oom_json());
return;
}
/* We don't process any input, but we'll consume it waiting for EOF */
while ((msg = ast_ari_websocket_session_read(ws_session))) {
ast_json_unref(msg);
}
}
int main(int argc, char* argv[]) {
if (argc != 2) {
fprintf(stderr, "usage: ./simple_client torrent-file\n");
return 1;
}
int ret = 0;
void* ses = session_create(SES_LISTENPORT, 6881, SES_LISTENPORT_END, 6889, SES_ALERT_MASK,
~(cat_progress | cat_port_mapping | cat_debug | cat_performance_warning | cat_peer), TAG_END);
void *t = session_add_torrent(ses, TOR_FILENAME, argv[1], TOR_SAVE_PATH, "./", TAG_END);
if (t == 0) {
fprintf(stderr, "Failed to add torrent\n");
ret = 1;
goto exit;
}
struct torrent_status st;
printf("press ctrl-C to stop\n");
signal(SIGINT, &stop);
signal(SIGABRT, &stop);
signal(SIGQUIT, &stop);
while (quit == 0) {
char const* message = "";
char const* state[] = { "queued", "checking", "downloading metadata", "downloading", "finished", "seeding",
"allocating", "checking_resume_data" };
if (torrent_get_status(t, &st, sizeof(st)) < 0)
break;
printf("\r%3.f%% %d kB (%5.f kB/s) up: %d kB (%5.f kB/s) peers: %d '%s' %s ", (double) st.progress * 100.,
(int) (st.total_payload_download / 1000), (double) st.download_payload_rate / 1000.,
(int) (st.total_payload_upload / 1000), (double) st.upload_payload_rate / 1000., st.num_peers, state[st.state],
message);
if (strlen(st.error) > 0) {
fprintf(stderr, "\nERROR: %s\n", st.error);
break;
}
fflush(stdout);
usleep(1000000);
}
printf("\nclosing\n");
exit:
session_close(ses);
return ret;
}
static void login_finish(struct connection *conn)
{
switch (conn->session_type) {
case SESSION_NORMAL:
if (!conn->session)
session_create(conn);
conn->sid = conn->session->sid;
break;
case SESSION_DISCOVERY:
/* set a dummy tsih value */
conn->sid.id.tsih = 1;
break;
}
}
static struct session_entry *create_session_entry(int remote_id_4, int local_id_4,
int local_id_6, int remote_id_6,
l4_protocol l4_proto)
{
struct session_entry* entry = session_create(&addr6[remote_id_6], &addr6[local_id_6],
&addr4[local_id_4], &addr4[remote_id_4],
l4_proto, NULL);
if (!entry)
return NULL;
log_debug(SESSION_PRINT_KEY, PRINT_SESSION(entry));
return entry;
}
/**
* Assumes that "tuple" and "bib"'s session doesn't exist, and creates it. Returns the resulting
* entry in "session".
* Assumes that "tuple" represents a IPv6 packet.
*/
static int create_session_ipv6(struct tuple *tuple6, struct bib_entry *bib,
struct session_entry **session, enum session_timer_type timer_type, enum tcp_state state)
{
struct ipv6_prefix prefix;
struct in_addr ipv4_dst;
struct ipv4_transport_addr addr4;
int error;
/* Translate address from IPv6 to IPv4 */
error = pool6_get(&tuple6->dst.addr6.l3, &prefix);
if (error) {
log_debug("Errcode %d while obtaining %pI6c's prefix.", error, &tuple6->dst.addr6.l3);
return error;
}
error = addr_6to4(&tuple6->dst.addr6.l3, &prefix, &ipv4_dst);
if (error) {
log_debug("Error code %d while translating the packet's address.", error);
return error;
}
/*
* Create the session entry.
*
* Fortunately, ICMP errors cannot reach this code because of the requirements in the header
* of section 3.5, so we can use the tuple as shortcuts for the packet's fields.
*/
addr4.l3 = ipv4_dst;
addr4.l4 = (tuple6->l4_proto != L4PROTO_ICMP) ? tuple6->dst.addr6.l4 : bib->ipv4.l4;
*session = session_create(&tuple6->src.addr6, &tuple6->dst.addr6,
&bib->ipv4, &addr4, tuple6->l4_proto, bib);
if (!(*session)) {
log_debug("Failed to allocate a session entry.");
return -ENOMEM;
}
(*session)->state = state;
apply_policies();
/* Add it to the table. */
error = sessiondb_add(*session, timer_type);
if (error) {
session_return(*session);
log_debug("Error code %d while adding the session to the DB.", error);
return error;
}
return 0;
}
lagopus_result_t
session_pair(session_type_t t, lagopus_session_t session[2]) {
int ret0, sock[2];
lagopus_result_t ret;
if (!(t & (SESSION_UNIX_STREAM|SESSION_UNIX_DGRAM))) {
lagopus_msg_warning("illegal session type: 0x%x\n", t);
return LAGOPUS_RESULT_INVALID_ARGS;
}
ret = session_create(t, &session[0]);
if (ret != LAGOPUS_RESULT_OK) {
lagopus_perror(ret);
return ret;
}
ret = session_create(t, &session[1]);
if (ret != LAGOPUS_RESULT_OK) {
session_destroy(session[0]);
lagopus_perror(ret);
return ret;
}
ret0 = socketpair(session[0]->family, session[0]->type, 0, sock);
if (ret0 != 0) {
ret = LAGOPUS_RESULT_POSIX_API_ERROR;
session_destroy(session[0]);
session_destroy(session[1]);
return ret;
}
session[0]->sock = sock[0];
session[1]->sock = sock[1];
return LAGOPUS_RESULT_OK;
}
void session_initialize(sessions_t *sessions, char *session_name, uint32_t seq)
{
if(!session_get(sessions, session_name))
{
session_t *session;
fprintf(stderr, "Creating new session %s with sequence number %d\n", session_name, seq);
session = session_create(sessions, session_name, seq);
/* If we're in exec mode, attach the process. */
/* TODO: This is likely where I'll bind it to a socket. */
if(sessions->exec)
{
session_attach_process(sessions, session, sessions->exec);
}
}
}
void session_setAttribute(const char *name, const char *value)
{
DBConnection dbc;
char * encoded;
session_tryload();
if (session_id == NULL) {
session_create();
}
Form_remove(session_attrs, name);
if (value != NULL) {
Form_add(session_attrs, name, value);
}
encoded = Form_encode(session_attrs);
dbc = DBC_open(session_db);
DBC_update(dbc, "sessions", "attributes", encoded, "id", session_id);
free(encoded);
DBC_close(dbc);
}
struct channel *
s_create_data_channel(void) {
uint64_t dpid = 0x01;
struct channel *channel;
lagopus_session_t session;
struct addrunion addr = {0,{{0}}};
addrunion_ipv4_set(&addr, "127.0.0.1");
channel = channel_alloc(&addr, dpid);
(void) session_create(SESSION_TCP|SESSION_ACTIVE, &session);
session_write_set(session, write_tcp);
channel_version_set(channel, 0x04);
channel_session_set(channel, session);
channel_xid_set(channel, 0x10);
return channel;
}
static
void read_challenge(struct rcontext* rcontext, const struct proto* proto) {
struct cipher_context* key2;
key2 = verify_challenge(rcontext->config, &rcontext->from, &rcontext->endpoint->local, rcontext->session ? rcontext->session->key1 : 0, proto->rid.value, proto->rid.length);
if (key2) {
if (rcontext->rendpoint == 0) {
rcontext->rendpoint = rendpoint_update(rcontext->config, &rcontext->from, 0);
}
if (rcontext->session == 0) {
fprintf(stderr, "Challenge accepted. Creating new session\n");
rcontext->session = session_create(rcontext->config, rcontext->endpoint, rcontext->rendpoint);
}
rcontext->session->key2 = key2;
write_confirm(rcontext, proto->id.value, proto->id.length);
} else {
fprintf(stderr, "Challenge verify failed\n");
}
}
Session *session_get_by_jid(const char *jid,Stream *stream,int delay_login){
Session *s;
User *u;
char *njid;
GList *it;
g_assert(sessions_jid!=NULL);
debug(L_("Looking up session for '%s'"),jid);
njid=jid_normalized(jid,0);
if (njid==NULL){
g_message(L_("Bad JID: '%s'"),jid);
return NULL;
}
debug(L_("Using '%s' as key"),njid);
s=(Session *)g_hash_table_lookup(sessions_jid,(gpointer)njid);
g_free(njid);
if (s) return s;
debug(L_("Session not found"));
if (!stream) return NULL;
u=user_get_by_jid(jid);
if (!u) return NULL;
debug(L_("User loaded, processing his subscriptions."));
for(it=g_list_first(u->contacts);it;it=g_list_next(it)){
Contact *c;
char *c_jid;
c=(Contact *)it->data;
if (c->subscribe == SUB_UNDEFINED) {
c_jid=jid_build(c->uin);
presence_send_subscribe(stream,c_jid,u->jid);
g_free(c_jid);
}
else if (c->subscribe == SUB_FROM || c->subscribe == SUB_BOTH){
c_jid=jid_build(c->uin);
presence_send_probe(stream,c_jid,u->jid);
g_free(c_jid);
}
}
debug(L_("Creating new session"));
return session_create(u,jid,NULL,NULL,stream,delay_login);
}
static int create_session_ipv4(struct tuple *tuple4, struct bib_entry *bib,
struct session_entry **session)
{
struct ipv6_prefix prefix;
struct in6_addr ipv6_src;
struct tuple tuple6;
int error;
error = pool6_peek(&prefix);
if (error)
return error;
error = addr_4to6(&tuple4->src.addr4.l3, &prefix, &ipv6_src);
if (error) {
log_debug("Error code %d while translating the packet's address.", error);
return error;
}
/*
* Fortunately, ICMP errors cannot reach this code because of the requirements in the header
* of section 3.5, so we can use the tuple as shortcuts for the packet's fields.
*/
if (bib)
tuple6.src.addr6 = bib->ipv6;
else
memset(&tuple6.src.addr6, 0, sizeof(tuple6.src.addr6));
tuple6.dst.addr6.l3 = ipv6_src;
tuple6.dst.addr6.l4 = tuple4->src.addr4.l4;
*session = session_create(&tuple6.src.addr6, &tuple6.dst.addr6,
&tuple4->dst.addr4, &tuple4->src.addr4, tuple4->l4_proto, bib);
if (!(*session)) {
log_debug("Failed to allocate a session entry.");
return -ENOMEM;
}
apply_policies();
return 0;
}
static int app_InitControlFD()
{
int ret_val = 0;
int res;
session_t *session = NULL;
cfg_t *cfg = app_getCfg();
app_trace(TRACE_INFO, "App. Create control session: %s:%u",
ip2str(cfg->local_ip, 0), cfg->local_port);
session = session_create(FAX_SESSION_MODE_CTRL, FAX_CTRL_FD_IDX,
FAX_SESSION_DIR_IN);
if(!session)
{
app_trace(TRACE_ERR, "App. Control session creating failed");
ret_val = -1; goto _exit;
}
res = session_initCtrl(session);
if(res)
{
app_trace(TRACE_ERR, "App. Control session init failed (%d)",
res);
session_destroy(session);
ret_val = -2; goto _exit;
}
cfg->pfds[FAX_CTRL_FD_IDX].fd = session->fds;
cfg->pfds[FAX_CTRL_FD_IDX].events = POLLIN;
cfg->session[FAX_CTRL_FD_IDX] = session;
cfg->session_cnt = 1;
app_trace(TRACE_INFO, "App. Control session created: Session %04x fd = %d",
session->ses_id, session->fds);
_exit:
return ret_val;
}
static bool inject(unsigned int index, __u32 local4addr, __u16 local4id,
__u32 remote4addr, __u16 remote4id)
{
struct ipv6_transport_addr remote6;
struct ipv6_transport_addr local6;
struct ipv4_transport_addr local4;
struct ipv4_transport_addr remote4;
int error;
remote6.l3.s6_addr32[0] = cpu_to_be32(0x20010db8u);
remote6.l3.s6_addr32[1] = 0;
remote6.l3.s6_addr32[2] = 0;
remote6.l3.s6_addr32[3] = cpu_to_be32(local4addr);
remote6.l4 = local4id;
local6.l3.s6_addr32[0] = cpu_to_be32(0x0064ff9bu);
local6.l3.s6_addr32[1] = 0;
local6.l3.s6_addr32[2] = 0;
local6.l3.s6_addr32[3] = cpu_to_be32(0xc0000200u | remote4addr);
local6.l4 = remote4id;
local4.l3.s_addr = cpu_to_be32(0xcb007100u | local4addr);
local4.l4 = local4id;
remote4.l3.s_addr = cpu_to_be32(0xc0000200u | remote4addr);
remote4.l4 = remote4id;
entries[index] = session_create(&remote6, &local6, &local4, &remote4,
L4PROTO_UDP, NULL);
if (!entries[index])
return false;
error = sessiontable_add(&table, entries[index], true);
if (error) {
log_err("Errcode %d on sessiontable_add.", error);
return false;
}
return true;
}
void
test_channel_session_get_set(void) {
struct channel *channel;
lagopus_session_t session;
lagopus_session_t ret_session;
channel = s_create_data_channel();
(void) session_create(SESSION_TCP|SESSION_ACTIVE, &session);
TEST_ASSERT_NOT_EQUAL_MESSAGE(session, channel_session_get(channel),
"session error.");
session_destroy(channel_session_get(channel));
/* Call func. */
channel_session_set(channel, session);
ret_session = channel_session_get(channel);
TEST_ASSERT_EQUAL_MESSAGE(ret_session, session,
"session error.");
session_destroy(channel_session_get(channel));
free(channel);
}
