/* $NetBSD: t_threads.c,v 1.9 2017/01/13 05:18:22 christos Exp $ */ /*- * Copyright (c) 2016 The NetBSD Foundation, Inc. * All rights reserved. * * Redistribution and use in source and binary forms, with or without * modification, are permitted provided that the following conditions * are met: * 1. Redistributions of source code must retain the above copyright * notice, this list of conditions and the following disclaimer. * 2. Redistributions in binary form must reproduce the above copyright * notice, this list of conditions and the following disclaimer in the * documentation and/or other materials provided with the distribution. * * THIS SOFTWARE IS PROVIDED BY THE NETBSD FOUNDATION, INC. AND CONTRIBUTORS * ``AS IS'' AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED * TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR * PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE FOUNDATION OR CONTRIBUTORS * BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL, EXEMPLARY, OR * CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO, PROCUREMENT OF * SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS; OR BUSINESS * INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY, WHETHER IN * CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR OTHERWISE) * ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE, EVEN IF ADVISED OF THE * POSSIBILITY OF SUCH DAMAGE. */ #include __RCSID("$NetBSD: t_threads.c,v 1.9 2017/01/13 05:18:22 christos Exp $"); #include #include #include #include #include #include #include #include "h_common.h" #define MAX_THREADS (size_t)10 ATF_TC(threads1); ATF_TC_HEAD(threads1, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that td_thr_iter() call without extra logic works"); } static volatile int exiting1; static void * busyFunction1(void *arg) { while (exiting1 == 0) usleep(50000); return NULL; } static int iterateThreads1(td_thread_t *thread, void *arg) { return TD_ERR_OK; } ATF_TC_BODY(threads1, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction1, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads1, NULL) == TD_ERR_OK); exiting1 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); } ATF_TC(threads2); ATF_TC_HEAD(threads2, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that td_thr_iter() call is executed for each thread once"); } static volatile int exiting2; static void * busyFunction2(void *arg) { while (exiting2 == 0) usleep(50000); return NULL; } static int iterateThreads2(td_thread_t *thread, void *arg) { int *counter = (int *)arg; ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads2, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction2, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads2, &count) == TD_ERR_OK); exiting2 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads3); ATF_TC_HEAD(threads3, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that for each td_thr_iter() call td_thr_info() is valid"); } static volatile int exiting3; static void * busyFunction3(void *arg) { while (exiting3 == 0) usleep(50000); return NULL; } static int iterateThreads3(td_thread_t *thread, void *arg) { int *counter = (int *)arg; td_thread_info_t info; ATF_REQUIRE(td_thr_info(thread, &info) == TD_ERR_OK); ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads3, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction3, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads3, &count) == TD_ERR_OK); exiting3 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads4); ATF_TC_HEAD(threads4, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that for each td_thr_iter() call td_thr_getname() is " "valid"); } static volatile int exiting4; static void * busyFunction4(void *arg) { while (exiting4 == 0) usleep(50000); return NULL; } static int iterateThreads4(td_thread_t *thread, void *arg) { int *counter = (int *)arg; char name[PTHREAD_MAX_NAMELEN_NP]; ATF_REQUIRE(td_thr_getname(thread, name, sizeof(name)) == TD_ERR_OK); printf("Thread name: %s\n", name); ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads4, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction4, NULL)); } for (i = 0; i < MAX_THREADS; i++) { PTHREAD_REQUIRE (pthread_setname_np(threads[i], "test_%d", (void*)i)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads4, &count) == TD_ERR_OK); exiting4 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads5); ATF_TC_HEAD(threads5, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that td_thr_getname() handles shorter buffer parameter " "and the result is properly truncated"); } static volatile int exiting5; static void * busyFunction5(void *arg) { while (exiting5 == 0) usleep(50000); return NULL; } static int iterateThreads5(td_thread_t *thread, void *arg) { int *counter = (int *)arg; /* Arbitrarily short string buffer */ char name[3]; ATF_REQUIRE(td_thr_getname(thread, name, sizeof(name)) == TD_ERR_OK); printf("Thread name: %s\n", name); /* strlen(3) does not count including a '\0' character */ ATF_REQUIRE(strlen(name) < sizeof(name)); ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads5, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction5, NULL)); } for (i = 0; i < MAX_THREADS; i++) { PTHREAD_REQUIRE (pthread_setname_np(threads[i], "test_%d", (void*)i)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads5, &count) == TD_ERR_OK); exiting5 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads6); ATF_TC_HEAD(threads6, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that pthread_t can be translated with td_map_pth2thr() " "to td_thread_t -- and assert earlier that td_thr_iter() call is " "valid"); } static volatile int exiting6; static void * busyFunction6(void *arg) { while (exiting6 == 0) usleep(50000); return NULL; } static int iterateThreads6(td_thread_t *thread, void *arg) { int *counter = (int *)arg; ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads6, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction6, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads6, &count) == TD_ERR_OK); for (i = 0; i < MAX_THREADS; i++) { td_thread_t *td_thread; ATF_REQUIRE(td_map_pth2thr(main_ta, threads[i], &td_thread) == TD_ERR_OK); } exiting6 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads7); ATF_TC_HEAD(threads7, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that pthread_t can be translated with td_map_pth2thr() " "to td_thread_t -- and assert later that td_thr_iter() call is " "valid"); } static volatile int exiting7; static void * busyFunction7(void *arg) { while (exiting7 == 0) usleep(50000); return NULL; } static int iterateThreads7(td_thread_t *thread, void *arg) { int *counter = (int *)arg; ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads7, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction7, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); for (i = 0; i < MAX_THREADS; i++) { td_thread_t *td_thread; ATF_REQUIRE(td_map_pth2thr(main_ta, threads[i], &td_thread) == TD_ERR_OK); } ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads7, &count) == TD_ERR_OK); exiting7 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads8); ATF_TC_HEAD(threads8, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that pthread_t can be translated with td_map_pth2thr() " "to td_thread_t -- compare thread's name of pthread_t and " "td_thread_t"); } static volatile int exiting8; static void * busyFunction8(void *arg) { while (exiting8 == 0) usleep(50000); return NULL; } static int iterateThreads8(td_thread_t *thread, void *arg) { int *counter = (int *)arg; ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads8, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction8, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads8, &count) == TD_ERR_OK); for (i = 0; i < MAX_THREADS; i++) { td_thread_t *td_thread; char td_threadname[PTHREAD_MAX_NAMELEN_NP]; char pth_threadname[PTHREAD_MAX_NAMELEN_NP]; ATF_REQUIRE(td_map_pth2thr(main_ta, threads[i], &td_thread) == TD_ERR_OK); ATF_REQUIRE(td_thr_getname(td_thread, td_threadname, sizeof(td_threadname)) == TD_ERR_OK); PTHREAD_REQUIRE(pthread_getname_np(threads[i], pth_threadname, sizeof(pth_threadname))); ATF_REQUIRE(strcmp(td_threadname, pth_threadname) == 0); } exiting8 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TC(threads9); ATF_TC_HEAD(threads9, tc) { atf_tc_set_md_var(tc, "descr", "Asserts that pthread_t can be translated with td_map_pth2thr() " "to td_thread_t -- assert that thread is in the TD_STATE_RUNNING " "state"); } static volatile int exiting9; static void * busyFunction9(void *arg) { while (exiting9 == 0) usleep(50000); return NULL; } static int iterateThreads9(td_thread_t *thread, void *arg) { int *counter = (int *)arg; ++(*counter); return TD_ERR_OK; } ATF_TC_BODY(threads9, tc) { struct td_proc_callbacks_t dummy_callbacks; td_proc_t *main_ta; size_t i; pthread_t threads[MAX_THREADS]; int count = 0; dummy_callbacks.proc_read = basic_proc_read; dummy_callbacks.proc_write = basic_proc_write; dummy_callbacks.proc_lookup = basic_proc_lookup; dummy_callbacks.proc_regsize = dummy_proc_regsize; dummy_callbacks.proc_getregs = dummy_proc_getregs; dummy_callbacks.proc_setregs = dummy_proc_setregs; for (i = 0; i < MAX_THREADS; i++) { printf("Creating thread %zu\n", i); PTHREAD_REQUIRE (pthread_create(&threads[i], NULL, busyFunction9, NULL)); } printf("Calling td_open(3)\n"); ATF_REQUIRE(td_open(&dummy_callbacks, NULL, &main_ta) == TD_ERR_OK); for (i = 0; i < MAX_THREADS; i++) { td_thread_t *td_thread; td_thread_info_t info; ATF_REQUIRE(td_map_pth2thr(main_ta, threads[i], &td_thread) == TD_ERR_OK); ATF_REQUIRE(td_thr_info(td_thread, &info) == TD_ERR_OK); ATF_REQUIRE_EQ(info.thread_state, TD_STATE_RUNNING); } ATF_REQUIRE(td_thr_iter(main_ta, iterateThreads9, &count) == TD_ERR_OK); exiting9 = 1; printf("Calling td_close(3)\n"); ATF_REQUIRE(td_close(main_ta) == TD_ERR_OK); ATF_REQUIRE_EQ_MSG(count, MAX_THREADS + 1, "counted threads (%d) != expected threads (%zu)", count, MAX_THREADS + 1); } ATF_TP_ADD_TCS(tp) { ATF_TP_ADD_TC(tp, threads1); ATF_TP_ADD_TC(tp, threads2); ATF_TP_ADD_TC(tp, threads3); ATF_TP_ADD_TC(tp, threads4); ATF_TP_ADD_TC(tp, threads5); ATF_TP_ADD_TC(tp, threads6); ATF_TP_ADD_TC(tp, threads7); ATF_TP_ADD_TC(tp, threads8); ATF_TP_ADD_TC(tp, threads9); return atf_no_error(); }