stream-deploy/ZLM/3rdpart/media-server/libsip/test/sip-agent-test.cpp

516 lines
16 KiB
C++

#include <memory>
#include "sockutil.h"
#include "aio-timeout.h"
#include "sip-agent.h"
#include "sip-uac.h"
#include "sip-uas.h"
#include "sip-message.h"
#include "sip-transport.h"
#include "sip-timer.h"
#include "port/ip-route.h"
#include "http-parser.h"
#include "http-header-auth.h"
#include "sys/thread.h"
#include "sys/system.h"
#include "sys/sync.hpp"
#include "time64.h"
#include "channel.h"
#include "uri-parse.h"
#include "cstringext.h"
#include "base64.h"
#include "md5.h"
#include <stdint.h>
#define LOOP 100
#define NQUEUE 3
#define NCONCURRENT 200
#define CHANNEL_DONE ((void*)0xabcdef98)
#define TRANSPORT_PACKET_LOST 20
struct sip_tu_t
{
struct sip_agent_t* sip;
struct channel_t* q[NQUEUE];
struct sip_transport_t transport;
int32_t count;
};
struct sip_agent_test_t
{
socket_t udp;
bool running;
struct sip_tu_t alice;
struct sip_tu_t bob;
};
struct sip_packet_t
{
void* ptr;
int len;
};
struct sip_task_t
{
struct sip_tu_t* self;
struct sip_tu_t* peer;
char from[64];
char to[64];
ThreadEvent event;
struct sip_dialog_t* dialog;
int32_t terminated;
int32_t success;
int32_t failed;
};
static struct sip_task_t s_alice_tasks[NCONCURRENT];
static struct sip_task_t s_bob_tasks[NCONCURRENT];
static struct sip_agent_test_t s_sip;
static int sip_uac_transport_via(void* transport, const char* destination, char protocol[16], char local[128], char dns[128])
{
int r;
char ip[65];
u_short port;
struct uri_t* uri;
socklen_t addrlen;
struct sockaddr_storage addr;
// rfc3263 4.1 Selecting a Transport Protocol
// 1. If the URI specifies a transport protocol in the transport parameter,
// that transport protocol SHOULD be used. Otherwise, if no transport
// protocol is specified, but the TARGET(maddr) is a numeric IP address,
// the client SHOULD use UDP for a SIP URI, and TCP for a SIPS URI.
// 2. if no transport protocol is specified, and the TARGET is not numeric,
// but an explicit port is provided, the client SHOULD use UDP for a SIP URI,
// and TCP for a SIPS URI
// 3. Otherwise, if no transport protocol or port is specified, and the target
// is not a numeric IP address, the client SHOULD perform a NAPTR query for
// the domain in the URI.
// The client SHOULD try the first record. If an attempt should fail, based on
// the definition of failure in Section 4.3, the next SHOULD be tried, and if
// that should fail, the next SHOULD be tried, and so on.
addrlen = sizeof(addr);
memset(&addr, 0, sizeof(addr));
snprintf(protocol, 16, "%s", "UDP");
uri = uri_parse(destination, strlen(destination));
if (!uri)
return -1; // invalid uri
// rfc3263 4-Client Usage (p5)
// once a SIP server has successfully been contacted (success is defined below),
// all retransmissions of the SIP request and the ACK for non-2xx SIP responses
// to INVITE MUST be sent to the same host.
// Furthermore, a CANCEL for a particular SIP request MUST be sent to the same
// SIP server that the SIP request was delivered to.
// TODO: sips port
r = socket_addr_from(&addr, &addrlen, uri->host, uri->port ? uri->port : SIP_PORT);
if (0 == r)
{
socket_addr_to((struct sockaddr*)&addr, addrlen, ip, &port);
socket_getname(s_sip.udp, local, &port);
r = ip_route_get(ip, local);
if (0 == r)
{
dns[0] = 0;
struct sockaddr_storage ss;
socklen_t len = sizeof(ss);
if (0 == socket_addr_from(&ss, &len, local, port))
socket_addr_name((struct sockaddr*)&ss, len, dns, 128);
if (SIP_PORT != port)
snprintf(local + strlen(local), 128 - strlen(local), ":%hu", port);
if (NULL == strchr(dns, '.'))
snprintf(dns, 128, "%s", local); // don't have valid dns
}
else
{
assert(0);
}
}
else
{
assert(0);
}
uri_free(uri);
return r;
}
static int sip_uac_transport_send(void* param, const void* data, size_t bytes)
{
struct sip_task_t *task = (struct sip_task_t*)param;
if ((rand() % 100) < TRANSPORT_PACKET_LOST)
return 0; // packet lost
int i = rand() % NQUEUE;
sip_packet_t pkt;
pkt.ptr = malloc(bytes);
pkt.len = bytes;
memcpy(pkt.ptr, data, bytes);
char st[32];
time64_format(time64_now(), "%04Y-%02M-%02D %02h:%02m:%02s", st);
//printf("UAC: %s\n%.*s\n", st, bytes, (const char*)pkt.ptr);
assert(0 == channel_push(task->peer->q[i], &pkt));
return 0;
}
static int sip_uas_transport_send(void* param, const struct cstring_t* /*protocol*/, const struct cstring_t* /*url*/, const struct cstring_t* /*received*/, int /*rport*/, const void* data, int bytes)
{
assert(param == &s_sip.alice || param == &s_sip.bob);
struct sip_tu_t* tu = (struct sip_tu_t*)param;
struct sip_tu_t* peer = tu == &s_sip.alice ? &s_sip.bob : &s_sip.alice;
if ((rand() % 100) < TRANSPORT_PACKET_LOST)
return 0; // packet lost
sip_packet_t pkt;
pkt.ptr = malloc(bytes);
pkt.len = bytes;
memcpy(pkt.ptr, data, bytes);
char st[32];
time64_format(time64_now(), "%04Y-%02M-%02D %02h:%02m:%02s", st);
//printf("UAS: %s\n%.*s\n", st, bytes, (const char*)pkt.ptr);
int i = rand() % NQUEUE;
assert(0 == channel_push(peer->q[i], &pkt));
return 0;
}
static void sip_uac_task_ondestroy(void* param)
{
struct sip_task_t *task = (struct sip_task_t *)param;
atomic_decrement32(&task->terminated);
}
static int sip_uac_onmessage(void* param, const struct sip_message_t* reply, struct sip_uac_transaction_t* t, int code)
{
assert(code >= 200 && code < 700);
struct sip_task_t *task = (struct sip_task_t *)param;
task->success += (code >= 200 && code < 300);
task->failed += (code >= 300 && code < 700);
task->event.Signal();
return 0;
}
static void sip_uac_message_test(struct sip_task_t *task)
{
const char* msg = "<?xml version=\"1.0\"?><msg>Hello SIP</msg>";
std::shared_ptr<sip_uac_transaction_t> t(sip_uac_message(task->self->sip, task->from, task->to, sip_uac_onmessage, task), sip_uac_transaction_release);
sip_uac_transaction_ondestroy(t.get(), sip_uac_task_ondestroy, task);
sip_uac_add_header(t.get(), "Content-Type", "Application/xml");
assert(0 == sip_uac_send(t.get(), msg, strlen(msg), &task->self->transport, task));
assert(0 == task->event.Wait());
}
static int sip_uac_onregister(void* param, const struct sip_message_t* reply, struct sip_uac_transaction_t* t, int code)
{
assert(code >= 200 && code < 700);
struct sip_task_t *task = (struct sip_task_t *)param;
task->success += (code >= 200 && code < 300);
task->failed += (code >= 300 && code < 700);
task->event.Signal();
return 0;
}
static void sip_uac_register_test(struct sip_task_t *task)
{
std::shared_ptr<sip_uac_transaction_t> t(sip_uac_register(task->self->sip, task->from, "sip:127.0.0.1", 7200, sip_uac_onregister, task), sip_uac_transaction_release);
sip_uac_transaction_ondestroy(t.get(), sip_uac_task_ondestroy, task);
assert(0 == sip_uac_send(t.get(), NULL, 0, &task->self->transport, task));
assert(0 == task->event.Wait());
}
static int sip_uac_oninvited(void* param, const struct sip_message_t* reply, struct sip_uac_transaction_t* t, struct sip_dialog_t* dialog, const struct cstring_t* id, int code)
{
assert(code >= 100 && code < 700);
if (code >= 200 && code < 700)
{
struct sip_task_t *task = (struct sip_task_t *)param;
task->success += (code >= 200 && code < 300);
task->failed += (code >= 300 && code < 700);
assert(task->dialog == NULL);
if (200 <= code && code < 300)
{
assert(dialog);
sip_dialog_addref(dialog);
task->dialog = dialog;
sip_uac_ack(t, NULL, 0, NULL);
}
task->event.Signal();
}
return NULL;
}
static void sip_uac_invite_test(struct sip_task_t *task)
{
assert(task->dialog == NULL);
std::shared_ptr<sip_uac_transaction_t> t(sip_uac_invite(task->self->sip, task->from, task->to, sip_uac_oninvited, task), sip_uac_transaction_release);
sip_uac_transaction_ondestroy(t.get(), sip_uac_task_ondestroy, task);
assert(0 == sip_uac_send(t.get(), NULL, 0, &task->self->transport, task));
assert(0 == task->event.Wait());
}
static int sip_uac_onbye(void* param, const struct sip_message_t* reply, struct sip_uac_transaction_t* t, int code)
{
assert(code >= 200 && code < 700);
struct sip_task_t *task = (struct sip_task_t *)param;
task->success += (code >= 200 && code < 300);
task->failed += (code >= 300 && code < 700);
assert(task->dialog);
sip_dialog_release(task->dialog);
task->dialog = NULL;
if ((code >= 200 && code < 300) || 481 == code)
{
}
else
printf("%s bye failed: %d\n", task->from, code);
task->event.Signal();
return 0;
}
static void sip_uac_bye_test(struct sip_task_t *task)
{
assert(task->dialog);
std::shared_ptr<sip_uac_transaction_t> t(sip_uac_bye(task->self->sip, task->dialog, sip_uac_onbye, task), sip_uac_transaction_release);
sip_uac_transaction_ondestroy(t.get(), sip_uac_task_ondestroy, task);
assert(0 == sip_uac_send(t.get(), NULL, 0, &task->self->transport, task));
assert(0 == task->event.Wait());
}
static int STDCALL AliceThread(void* param)
{
struct sip_task_t* task = (struct sip_task_t*)param;
for (int i = 0; i < LOOP; i++)
{
switch (rand() % 3)
{
case 0:
atomic_increment32(&task->terminated);
sip_uac_register_test(task);
case 1:
atomic_increment32(&task->terminated);
sip_uac_message_test(task);
case 2:
atomic_increment32(&task->terminated);
sip_uac_invite_test(task);
while(task->dialog)
{
atomic_increment32(&task->terminated);
sip_uac_bye_test(task);
}
}
}
while(task->terminated != 0)
system_sleep(10);
printf("%s done\n", task->from);
return 0;
}
static void sip_uas_task_ondestroy(void* param)
{
struct sip_tu_t *tu = (struct sip_tu_t *)param;
assert(atomic_decrement32(&tu->count) >= 0);
}
static int sip_uas_oninvite(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, struct sip_dialog_t* redialog, const struct cstring_t* id, const void* data, int bytes)
{
char contact[128];
struct sip_tu_t* tu = (struct sip_tu_t*)param;
atomic_increment32(&tu->count);
sip_uas_transaction_ondestroy(t, sip_uas_task_ondestroy, param);
sip_contact_write(&req->to, contact, contact+sizeof(contact));
sip_uas_add_header(t, "Contact", contact);
assert(0 == sip_uas_reply(t, 200, NULL, 0, param));
return 0;
}
/// @param[in] code 0-ok, other-sip status code
/// @return 0-ok, other-error
static int sip_uas_onack(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, struct sip_dialog_t* dialog, const struct cstring_t* id, int code, const void* data, int bytes)
{
return 0;
}
/// on terminating a session(dialog)
static int sip_uas_onbye(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, const struct cstring_t* id)
{
struct sip_tu_t* tu = (struct sip_tu_t*)param;
atomic_increment32(&tu->count);
sip_uas_transaction_ondestroy(t, sip_uas_task_ondestroy, param);
return sip_uas_reply(t, 200, NULL, 0, param);
}
/// cancel a transaction(should be an invite transaction)
static int sip_uas_oncancel(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, const struct cstring_t* id)
{
struct sip_tu_t* tu = (struct sip_tu_t*)param;
atomic_increment32(&tu->count);
sip_uas_transaction_ondestroy(t, sip_uas_task_ondestroy, param);
return sip_uas_reply(t, 200, NULL, 0, param);
}
/// @param[in] expires in seconds
static int sip_uas_onregister(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, const char* user, const char* location, int expires)
{
struct sip_tu_t* tu = (struct sip_tu_t*)param;
atomic_increment32(&tu->count);
sip_uas_transaction_ondestroy(t, sip_uas_task_ondestroy, param);
return sip_uas_reply(t, 200, NULL, 0, param);
}
static int sip_uas_onmessage(void* param, const struct sip_message_t* req, struct sip_uas_transaction_t* t, const void* payload, int bytes)
{
struct sip_tu_t* tu = (struct sip_tu_t*)param;
atomic_increment32(&tu->count);
sip_uas_transaction_ondestroy(t, sip_uas_task_ondestroy, param);
return sip_uas_reply(t, 200, NULL, 0, param);
}
static int STDCALL InputThread(struct sip_tu_t* tu, int idx)
{
http_parser_t* parser = http_parser_create(HTTP_PARSER_RESPONSE, NULL, NULL);
while(channel_count(tu->q[idx]) > 0 || s_sip.running)
{
//int r = socket_recvfrom(test->udp, buffer, sizeof(buffer), 0, (struct sockaddr*)&addr, &addrlen);
sip_packet_t pkt;
memset(&pkt, 0, sizeof(pkt));
assert(0 == (sip_packet_t*)channel_pop(tu->q[idx], &pkt));
if(pkt.ptr == CHANNEL_DONE)
continue;
int response = 0 == strncasecmp("SIP", (char*)pkt.ptr, 3) ? 1 : 0;
http_parser_reset(parser, response ? HTTP_PARSER_RESPONSE : HTTP_PARSER_REQUEST);
size_t n = pkt.len;
assert(0 == http_parser_input(parser, pkt.ptr, &n));
struct sip_message_t* msg = sip_message_create(response ? SIP_MESSAGE_REPLY : SIP_MESSAGE_REQUEST);
assert(0 == sip_message_load(msg, parser));
assert(0 == sip_agent_input(tu->sip, msg, tu));
sip_message_destroy(msg);
free(pkt.ptr);
}
http_parser_destroy(parser);
return 0;
}
static int STDCALL AliceInputThread(void* param)
{
return InputThread(&s_sip.alice, (int)(intptr_t)param);
}
static int STDCALL BobInputThread(void* param)
{
return InputThread(&s_sip.bob, (int)(intptr_t)param);
}
extern "C" void sip_agent_test(void)
{
sip_timer_init();
s_sip.alice.transport = {
sip_uac_transport_via,
sip_uac_transport_send,
};
s_sip.bob.transport = {
sip_uac_transport_via,
sip_uac_transport_send,
};
s_sip.running = true;
struct sip_uas_handler_t handler;
handler.onregister = sip_uas_onregister;
handler.oninvite = sip_uas_oninvite;
handler.onack = sip_uas_onack;
handler.onbye = sip_uas_onbye;
handler.oncancel = sip_uas_oncancel;
handler.onmessage = sip_uas_onmessage;
handler.send = sip_uas_transport_send;
s_sip.udp = socket_udp();
s_sip.alice.sip = sip_agent_create(&handler);
s_sip.bob.sip = sip_agent_create(&handler);
s_sip.alice.count = 0;
s_sip.bob.count = 0;
pthread_t worker[NQUEUE*2];
for (int i = 0; i < NQUEUE; i++)
{
s_sip.alice.q[i] = channel_create(200, sizeof(struct sip_packet_t));
s_sip.bob.q[i] = channel_create(200, sizeof(struct sip_packet_t));
thread_create(&worker[2*i], AliceInputThread, (void*)(intptr_t)i); // alice
thread_create(&worker[2*i+1], BobInputThread, (void*)(intptr_t)i); // bob
}
pthread_t bob[NCONCURRENT];
pthread_t alice[NCONCURRENT];
for (int i = 0; i < NCONCURRENT; i++)
{
s_alice_tasks[i].dialog = NULL;
s_alice_tasks[i].self = &s_sip.alice;
s_alice_tasks[i].peer = &s_sip.bob;
s_alice_tasks[i].success = 0;
s_alice_tasks[i].failed = 0;
s_alice_tasks[i].terminated = 0;
snprintf(s_alice_tasks[i].from, sizeof(s_alice_tasks[i].from), "sip:alice%03d@127.0.0.1", i);
snprintf(s_alice_tasks[i].to, sizeof(s_alice_tasks[i].to), "sip:bob%03d@127.0.0.1", i);
thread_create(&alice[i], AliceThread, &s_alice_tasks[i]);
s_bob_tasks[i].dialog = NULL;
s_bob_tasks[i].self = &s_sip.bob;
s_bob_tasks[i].peer = &s_sip.alice;
s_bob_tasks[i].success = 0;
s_bob_tasks[i].failed = 0;
s_bob_tasks[i].terminated = 0;
snprintf(s_bob_tasks[i].from, sizeof(s_bob_tasks[i].from), "sip:BOB%03d@127.0.0.1", i);
snprintf(s_bob_tasks[i].to, sizeof(s_bob_tasks[i].to), "sip:ALICE%03d@127.0.0.1", i);
thread_create(&bob[i], AliceThread, &s_bob_tasks[i]);
}
// do worker
for (int i = 0; i < NCONCURRENT; i++)
{
thread_destroy(alice[i]);
thread_destroy(bob[i]);
}
s_sip.running = false;
for (int i = 0; i < NQUEUE; i++)
{
sip_packet_t pkt;
memset(&pkt, 0, sizeof(pkt));
pkt.ptr = CHANNEL_DONE;
channel_push(s_sip.alice.q[i], &pkt);
channel_push(s_sip.bob.q[i], &pkt);
thread_destroy(worker[2 * i]);
thread_destroy(worker[2 * i + 1]);
}
for (int i = 0; i < NQUEUE; i++)
{
assert(0 == channel_count(s_sip.alice.q[i]));
assert(0 == channel_count(s_sip.bob.q[i]));
channel_destroy(&s_sip.alice.q[i]);
channel_destroy(&s_sip.bob.q[i]);
}
while(s_sip.alice.count != 0 || s_sip.bob.count != 0)
system_sleep(10);
assert(0 == sip_agent_destroy(s_sip.alice.sip));
assert(0 == sip_agent_destroy(s_sip.bob.sip));
socket_close(s_sip.udp);
sip_timer_cleanup();
}