#include #include #include #include #include #include #include #include #include #include #include "public.h" #define srs_trace(msg, ...) printf(msg, ##__VA_ARGS__);printf("\n") int io_port = 1990; int sleep_ms = 100; void stack_print(long int previous_sp, int level) { if (level <= 0) { return; } register long int rsp asm("sp"); char buf[level * 1024]; stack_print(rsp, level - 1); srs_trace("%d. psp=%#lx, sp=%#lx, size=%dB(%dB+%dKB)", level, previous_sp, rsp, (int)(previous_sp - rsp), (int)(previous_sp - rsp - sizeof(buf)), (int)(sizeof(buf) / 1024)); } int huge_stack_test() { srs_trace("==================================================="); srs_trace("huge_stack test: start"); register long int rsp asm("sp"); stack_print(rsp, 10); srs_trace("huge_stack test: end"); return 0; } int sleep_test() { srs_trace("==================================================="); srs_trace("sleep test: start"); srs_trace("1. sleep..."); st_utime_t start = st_utime(); st_usleep(sleep_ms * 1000); st_utime_t end = st_utime(); srs_trace("2. sleep ok, sleep=%dus, deviation=%dus", (int)(sleep_ms * 1000), (int)(end - start - sleep_ms * 1000)); srs_trace("sleep test: end"); return 0; } void* sleep2_func0(void* arg) { int sleep_ms = 100; st_utime_t start = st_utime(); st_usleep(sleep_ms * 1000); st_utime_t end = st_utime(); srs_trace("sleep ok, sleep=%dus, deviation=%dus", (int)(sleep_ms * 1000), (int)(end - start - sleep_ms * 1000)); return NULL; } void* sleep2_func1(void* arg) { int sleep_ms = 250; st_utime_t start = st_utime(); st_usleep(sleep_ms * 1000); st_utime_t end = st_utime(); srs_trace("sleep ok, sleep=%dus, deviation=%dus", (int)(sleep_ms * 1000), (int)(end - start - sleep_ms * 1000)); return NULL; } int sleep2_test() { srs_trace("==================================================="); srs_trace("sleep2 test: start"); st_thread_t trd0 = st_thread_create(sleep2_func0, NULL, 1, 0); st_thread_t trd1 = st_thread_create(sleep2_func1, NULL, 1, 0); st_thread_join(trd0, NULL); st_thread_join(trd1, NULL); srs_trace("sleep test: end"); return 0; } st_mutex_t sleep_work_cond = NULL; void* sleep_deviation_func(void* arg) { st_mutex_lock(sleep_work_cond); srs_trace("2. work thread start."); int64_t i; for (i = 0; i < 3000000000ULL; i++) { } st_mutex_unlock(sleep_work_cond); srs_trace("3. work thread end."); return NULL; } int sleep_deviation_test() { srs_trace("==================================================="); srs_trace("sleep deviation test: start"); sleep_work_cond = st_mutex_new(); st_thread_create(sleep_deviation_func, NULL, 0, 0); st_mutex_lock(sleep_work_cond); srs_trace("1. sleep..."); st_utime_t start = st_utime(); // other thread to do some complex work. st_mutex_unlock(sleep_work_cond); st_usleep(1000 * 1000); st_utime_t end = st_utime(); srs_trace("4. sleep ok, sleep=%dus, deviation=%dus", (int)(sleep_ms * 1000), (int)(end - start - sleep_ms * 1000)); st_mutex_lock(sleep_work_cond); srs_trace("sleep deviation test: end"); st_mutex_destroy(sleep_work_cond); return 0; } void* thread_func(void* arg) { srs_trace("1. thread run"); st_usleep(sleep_ms * 1000); srs_trace("2. thread completed"); return NULL; } int thread_test() { srs_trace("==================================================="); srs_trace("thread test: start"); st_thread_t trd = st_thread_create(thread_func, NULL, 1, 0); if (trd == NULL) { srs_trace("st_thread_create failed"); return -1; } st_thread_join(trd, NULL); srs_trace("3. thread joined"); srs_trace("thread test: end"); return 0; } st_mutex_t sync_start = NULL; st_cond_t sync_cond = NULL; st_mutex_t sync_mutex = NULL; st_cond_t sync_end = NULL; void* sync_master(void* arg) { // wait for main to sync_start this thread. st_mutex_lock(sync_start); st_mutex_unlock(sync_start); st_usleep(sleep_ms * 1000); st_cond_signal(sync_cond); st_mutex_lock(sync_mutex); srs_trace("2. st mutex is ok"); st_mutex_unlock(sync_mutex); st_usleep(sleep_ms * 1000); srs_trace("3. st thread is ok"); st_cond_signal(sync_cond); return NULL; } void* sync_slave(void* arg) { // lock mutex to control thread. st_mutex_lock(sync_mutex); // wait for main to sync_start this thread. st_mutex_lock(sync_start); st_mutex_unlock(sync_start); // wait thread to ready. st_cond_wait(sync_cond); srs_trace("1. st cond is ok"); // release mutex to control thread st_usleep(sleep_ms * 1000); st_mutex_unlock(sync_mutex); // wait thread to exit. st_cond_wait(sync_cond); srs_trace("4. st is ok"); st_cond_signal(sync_end); return NULL; } int sync_test() { srs_trace("==================================================="); srs_trace("sync test: start"); if ((sync_start = st_mutex_new()) == NULL) { srs_trace("st_mutex_new sync_start failed"); return -1; } st_mutex_lock(sync_start); if ((sync_cond = st_cond_new()) == NULL) { srs_trace("st_cond_new cond failed"); return -1; } if ((sync_end = st_cond_new()) == NULL) { srs_trace("st_cond_new end failed"); return -1; } if ((sync_mutex = st_mutex_new()) == NULL) { srs_trace("st_mutex_new mutex failed"); return -1; } if (!st_thread_create(sync_master, NULL, 0, 0)) { srs_trace("st_thread_create failed"); return -1; } if (!st_thread_create(sync_slave, NULL, 0, 0)) { srs_trace("st_thread_create failed"); return -1; } // run all threads. st_mutex_unlock(sync_start); st_cond_wait(sync_end); srs_trace("sync test: end"); return 0; } void* io_client(void* arg) { int fd; if ((fd = socket(AF_INET, SOCK_STREAM, 0)) == -1) { srs_trace("create linux socket error."); return NULL; } srs_trace("6. client create linux socket success. fd=%d", fd); st_netfd_t stfd; if ((stfd = st_netfd_open_socket(fd)) == NULL){ srs_trace("st_netfd_open_socket open socket failed."); return NULL; } srs_trace("7. client st open socket success. fd=%d", fd); struct sockaddr_in addr; addr.sin_family = AF_INET; addr.sin_port = htons(io_port); addr.sin_addr.s_addr = INADDR_ANY; if (st_connect(stfd, (const struct sockaddr*)&addr, sizeof(struct sockaddr_in), ST_UTIME_NO_TIMEOUT) == -1) { srs_trace("bind socket error."); return NULL; } char buf[1024]; if (st_read_fully(stfd, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) != sizeof(buf)) { srs_trace("st_read_fully failed"); return NULL; } if (st_write(stfd, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) != sizeof(buf)) { srs_trace("st_write failed"); return NULL; } st_netfd_close(stfd); return NULL; } int io_test() { srs_trace("==================================================="); srs_trace("io test: start, port=%d", io_port); int fd; if ((fd = socket(AF_INET, SOCK_STREAM, 0)) == -1) { srs_trace("create linux socket error."); return -1; } srs_trace("1. server create linux socket success. fd=%d", fd); int reuse_socket = 1; if (setsockopt(fd, SOL_SOCKET, SO_REUSEADDR, &reuse_socket, sizeof(int)) == -1) { srs_trace("setsockopt reuse-addr error."); return -1; } srs_trace("2. server setsockopt reuse-addr success. fd=%d", fd); struct sockaddr_in addr; addr.sin_family = AF_INET; addr.sin_port = htons(io_port); addr.sin_addr.s_addr = INADDR_ANY; if (bind(fd, (const struct sockaddr*)&addr, sizeof(struct sockaddr_in)) == -1) { srs_trace("bind socket error."); return -1; } srs_trace("3. server bind socket success. fd=%d", fd); if (listen(fd, 10) == -1) { srs_trace("listen socket error."); return -1; } srs_trace("4. server listen socket success. fd=%d", fd); st_netfd_t stfd; if ((stfd = st_netfd_open_socket(fd)) == NULL){ srs_trace("st_netfd_open_socket open socket failed."); return -1; } srs_trace("5. server st open socket success. fd=%d", fd); if (!st_thread_create(io_client, NULL, 0, 0)) { srs_trace("st_thread_create failed"); return -1; } st_netfd_t client_stfd = st_accept(stfd, NULL, NULL, ST_UTIME_NO_TIMEOUT); srs_trace("8. server get a client. fd=%d", st_netfd_fileno(client_stfd)); char buf[1024]; if (st_write(client_stfd, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) != sizeof(buf)) { srs_trace("st_write failed"); return -1; } if (st_read_fully(client_stfd, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) != sizeof(buf)) { srs_trace("st_read_fully failed"); return -1; } srs_trace("9. server io completed."); st_netfd_close(stfd); st_netfd_close(client_stfd); srs_trace("io test: end"); return 0; } int pipe_test() { srs_trace("==================================================="); srs_trace("pipe test: start"); int fds[2]; if (pipe(fds) < 0) { srs_trace("pipe failed"); return -1; } srs_trace("1. pipe ok, %d=>%d", fds[1], fds[0]); st_netfd_t fdw; if ((fdw = st_netfd_open_socket(fds[1])) == NULL) { srs_trace("st_netfd_open_socket open socket failed."); return -1; } srs_trace("2. open write fd ok"); st_netfd_t fdr; if ((fdr = st_netfd_open_socket(fds[0])) == NULL) { srs_trace("st_netfd_open_socket open socket failed."); return -1; } srs_trace("3. open read fd ok"); char buf[1024]; if (st_write(fdw, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) < 0) { srs_trace("st_write socket failed."); return -1; } srs_trace("4. write to pipe ok"); if (st_read(fdr, buf, sizeof(buf), ST_UTIME_NO_TIMEOUT) < 0) { srs_trace("st_read socket failed."); return -1; } srs_trace("5. read from pipe ok"); st_netfd_close(fdw); st_netfd_close(fdr); srs_trace("pipe test: end"); return 0; } int main(int argc, char** argv) { srs_trace("ETIME=%d", ETIME); if (st_set_eventsys(ST_EVENTSYS_ALT) < 0) { srs_trace("st_set_eventsys failed"); return -1; } if (st_init() < 0) { srs_trace("st_init failed"); return -1; } if (sleep2_test() < 0) { srs_trace("sleep2_test failed"); return -1; } if (sleep_test() < 0) { srs_trace("sleep_test failed"); return -1; } if (sleep_deviation_test() < 0) { srs_trace("sleep_deviation_test failed"); return -1; } if (huge_stack_test() < 0) { srs_trace("huge_stack_test failed"); return -1; } if (thread_test() < 0) { srs_trace("thread_test failed"); return -1; } if (sync_test() < 0) { srs_trace("sync_test failed"); return -1; } if (io_test() < 0) { srs_trace("io_test failed"); return -1; } if (pipe_test() < 0) { srs_trace("pipe_test failed"); return -1; } // cleanup. srs_trace("wait for all thread completed"); st_thread_exit(NULL); // the following never enter, // the above code will exit when all thread exit, // current is a primordial st-thread, when all thread exit, // the st idle thread will exit(0), see _st_idle_thread_start() srs_trace("all thread completed"); return 0; }