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/* GLib testing utilities
* Copyright (C) 2007 Imendio AB
* Authors: Tim Janik, Sven Herzberg
*
* This library is free software; you can redistribute it and/or
* modify it under the terms of the GNU Lesser General Public
* License as published by the Free Software Foundation; either
* version 2.1 of the License, or (at your option) any later version.
*
* This library is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
* Lesser General Public License for more details.
*
* You should have received a copy of the GNU Lesser General Public
* License along with this library; if not, see <http://www.gnu.org/licenses/>.
*/
#include "config.h"
#include "gtestutils.h"
#include "gfileutils.h"
#include <sys/types.h>
#ifdef G_OS_UNIX
#include <sys/wait.h>
#include <sys/time.h>
#include <fcntl.h>
#include <unistd.h>
#include <glib/gstdio.h>
#endif
#include <string.h>
#include <stdlib.h>
#include <stdio.h>
#ifdef HAVE_SYS_RESOURCE_H
#include <sys/resource.h>
#endif
#ifdef G_OS_WIN32
#include <io.h>
#include <windows.h>
#endif
#include <errno.h>
#include <signal.h>
#ifdef HAVE_SYS_SELECT_H
#include <sys/select.h>
#endif /* HAVE_SYS_SELECT_H */
#include "gmain.h"
#include "gpattern.h"
#include "grand.h"
#include "gstrfuncs.h"
#include "gtimer.h"
#include "gslice.h"
#include "gspawn.h"
#include "glib-private.h"
/**
* SECTION:testing
* @title: Testing
* @short_description: a test framework
* @see_also: [gtester][gtester], [gtester-report][gtester-report]
*
* GLib provides a framework for writing and maintaining unit tests
* in parallel to the code they are testing. The API is designed according
* to established concepts found in the other test frameworks (JUnit, NUnit,
* RUnit), which in turn is based on smalltalk unit testing concepts.
*
* - Test case: Tests (test methods) are grouped together with their
* fixture into test cases.
*
* - Fixture: A test fixture consists of fixture data and setup and
* teardown methods to establish the environment for the test
* functions. We use fresh fixtures, i.e. fixtures are newly set
* up and torn down around each test invocation to avoid dependencies
* between tests.
*
* - Test suite: Test cases can be grouped into test suites, to allow
* subsets of the available tests to be run. Test suites can be
* grouped into other test suites as well.
*
* The API is designed to handle creation and registration of test suites
* and test cases implicitly. A simple call like
* |[<!-- language="C" -->
* g_test_add_func ("/misc/assertions", test_assertions);
* ]|
* creates a test suite called "misc" with a single test case named
* "assertions", which consists of running the test_assertions function.
*
* In addition to the traditional g_assert_true(), the test framework provides
* an extended set of assertions for comparisons: g_assert_cmpfloat(),
* g_assert_cmpfloat_with_epsilon(), g_assert_cmpint(), g_assert_cmpuint(),
* g_assert_cmphex(), g_assert_cmpstr(), and g_assert_cmpmem(). The
* advantage of these variants over plain g_assert_true() is that the assertion
* messages can be more elaborate, and include the values of the compared
* entities.
*
* Note that g_assert() should not be used in unit tests, since it is a no-op
* when compiling with `G_DISABLE_ASSERT`. Use g_assert() in production code,
* and g_assert_true() in unit tests.
*
* A full example of creating a test suite with two tests using fixtures:
* |[<!-- language="C" -->
* #include <glib.h>
* #include <locale.h>
*
* typedef struct {
* MyObject *obj;
* OtherObject *helper;
* } MyObjectFixture;
*
* static void
* my_object_fixture_set_up (MyObjectFixture *fixture,
* gconstpointer user_data)
* {
* fixture->obj = my_object_new ();
* my_object_set_prop1 (fixture->obj, "some-value");
* my_object_do_some_complex_setup (fixture->obj, user_data);
*
* fixture->helper = other_object_new ();
* }
*
* static void
* my_object_fixture_tear_down (MyObjectFixture *fixture,
* gconstpointer user_data)
* {
* g_clear_object (&fixture->helper);
* g_clear_object (&fixture->obj);
* }
*
* static void
* test_my_object_test1 (MyObjectFixture *fixture,
* gconstpointer user_data)
* {
* g_assert_cmpstr (my_object_get_property (fixture->obj), ==, "initial-value");
* }
*
* static void
* test_my_object_test2 (MyObjectFixture *fixture,
* gconstpointer user_data)
* {
* my_object_do_some_work_using_helper (fixture->obj, fixture->helper);
* g_assert_cmpstr (my_object_get_property (fixture->obj), ==, "updated-value");
* }
*
* int
* main (int argc, char *argv[])
* {
* setlocale (LC_ALL, "");
*
* g_test_init (&argc, &argv, NULL);
* g_test_bug_base ("http://bugzilla.gnome.org/show_bug.cgi?id=");
*
* // Define the tests.
* g_test_add ("/my-object/test1", MyObjectFixture, "some-user-data",
* my_object_fixture_set_up, test_my_object_test1,
* my_object_fixture_tear_down);
* g_test_add ("/my-object/test2", MyObjectFixture, "some-user-data",
* my_object_fixture_set_up, test_my_object_test2,
* my_object_fixture_tear_down);
*
* return g_test_run ();
* }
* ]|
*
* ### Integrating GTest in your project
*
* If you are using the [Meson](http://mesonbuild.com) build system, you will
* typically use the provided `test()` primitive to call the test binaries,
* e.g.:
*
* |[<!-- language="plain" -->
* test(
* 'foo',
* executable('foo', 'foo.c', dependencies: deps),
* env: [
* 'G_TEST_SRCDIR=@0@'.format(meson.current_source_dir()),
* 'G_TEST_BUILDDIR=@0@'.format(meson.current_build_dir()),
* ],
* )
*
* test(
* 'bar',
* executable('bar', 'bar.c', dependencies: deps),
* env: [
* 'G_TEST_SRCDIR=@0@'.format(meson.current_source_dir()),
* 'G_TEST_BUILDDIR=@0@'.format(meson.current_build_dir()),
* ],
* )
* ]|
*
* If you are using Autotools, you're strongly encouraged to use the Automake
* [TAP](https://testanything.org/) harness; GLib provides template files for
* easily integrating with it:
*
* - [glib-tap.mk](https://git.gnome.org/browse/glib/tree/glib-tap.mk)
* - [tap-test](https://git.gnome.org/browse/glib/tree/tap-test)
* - [tap-driver.sh](https://git.gnome.org/browse/glib/tree/tap-driver.sh)
*
* You can copy these files in your own project's root directory, and then
* set up your `Makefile.am` file to reference them, for instance:
*
* |[<!-- language="plain" -->
* include $(top_srcdir)/glib-tap.mk
*
* # test binaries
* test_programs = \
* foo \
* bar
*
* # data distributed in the tarball
* dist_test_data = \
* foo.data.txt \
* bar.data.txt
*
* # data not distributed in the tarball
* test_data = \
* blah.data.txt
* ]|
*
* Make sure to distribute the TAP files, using something like the following
* in your top-level `Makefile.am`:
*
* |[<!-- language="plain" -->
* EXTRA_DIST += \
* tap-driver.sh \
* tap-test
* ]|
*
* `glib-tap.mk` will be distributed implicitly due to being included in a
* `Makefile.am`. All three files should be added to version control.
*
* If you don't have access to the Autotools TAP harness, you can use the
* [gtester][gtester] and [gtester-report][gtester-report] tools, and use
* the [glib.mk](https://git.gnome.org/browse/glib/tree/glib.mk) Automake
* template provided by GLib.
*/
/**
* g_test_initialized:
*
* Returns %TRUE if g_test_init() has been called.
*
* Returns: %TRUE if g_test_init() has been called.
*
* Since: 2.36
*/
/**
* g_test_quick:
*
* Returns %TRUE if tests are run in quick mode.
* Exactly one of g_test_quick() and g_test_slow() is active in any run;
* there is no "medium speed".
*
* By default, tests are run in quick mode. In tests that use
* g_test_init(), the options `-m quick`, `-m slow` and `-m thorough`
* can be used to change this.
*
* Returns: %TRUE if in quick mode
*/
/**
* g_test_slow:
*
* Returns %TRUE if tests are run in slow mode.
* Exactly one of g_test_quick() and g_test_slow() is active in any run;
* there is no "medium speed".
*
* By default, tests are run in quick mode. In tests that use
* g_test_init(), the options `-m quick`, `-m slow` and `-m thorough`
* can be used to change this.
*
* Returns: the opposite of g_test_quick()
*/
/**
* g_test_thorough:
*
* Returns %TRUE if tests are run in thorough mode, equivalent to
* g_test_slow().
*
* By default, tests are run in quick mode. In tests that use
* g_test_init(), the options `-m quick`, `-m slow` and `-m thorough`
* can be used to change this.
*
* Returns: the same thing as g_test_slow()
*/
/**
* g_test_perf:
*
* Returns %TRUE if tests are run in performance mode.
*
* By default, tests are run in quick mode. In tests that use
* g_test_init(), the option `-m perf` enables performance tests, while
* `-m quick` disables them.
*
* Returns: %TRUE if in performance mode
*/
/**
* g_test_undefined:
*
* Returns %TRUE if tests may provoke assertions and other formally-undefined
* behaviour, to verify that appropriate warnings are given. It might, in some
* cases, be useful to turn this off with if running tests under valgrind;
* in tests that use g_test_init(), the option `-m no-undefined` disables
* those tests, while `-m undefined` explicitly enables them (the default
* behaviour).
*
* Returns: %TRUE if tests may provoke programming errors
*/
/**
* g_test_verbose:
*
* Returns %TRUE if tests are run in verbose mode.
* In tests that use g_test_init(), the option `--verbose` enables this,
* while `-q` or `--quiet` disables it.
* The default is neither g_test_verbose() nor g_test_quiet().
*
* Returns: %TRUE if in verbose mode
*/
/**
* g_test_quiet:
*
* Returns %TRUE if tests are run in quiet mode.
* In tests that use g_test_init(), the option `-q` or `--quiet` enables
* this, while `--verbose` disables it.
* The default is neither g_test_verbose() nor g_test_quiet().
*
* Returns: %TRUE if in quiet mode
*/
/**
* g_test_queue_unref:
* @gobject: the object to unref
*
* Enqueue an object to be released with g_object_unref() during
* the next teardown phase. This is equivalent to calling
* g_test_queue_destroy() with a destroy callback of g_object_unref().
*
* Since: 2.16
*/
/**
* GTestTrapFlags:
* @G_TEST_TRAP_SILENCE_STDOUT: Redirect stdout of the test child to
* `/dev/null` so it cannot be observed on the console during test
* runs. The actual output is still captured though to allow later
* tests with g_test_trap_assert_stdout().
* @G_TEST_TRAP_SILENCE_STDERR: Redirect stderr of the test child to
* `/dev/null` so it cannot be observed on the console during test
* runs. The actual output is still captured though to allow later
* tests with g_test_trap_assert_stderr().
* @G_TEST_TRAP_INHERIT_STDIN: If this flag is given, stdin of the
* child process is shared with stdin of its parent process.
* It is redirected to `/dev/null` otherwise.
*
* Test traps are guards around forked tests.
* These flags determine what traps to set.
*
* Deprecated: #GTestTrapFlags is used only with g_test_trap_fork(),
* which is deprecated. g_test_trap_subprocess() uses
* #GTestSubprocessFlags.
*/
/**
* GTestSubprocessFlags:
* @G_TEST_SUBPROCESS_INHERIT_STDIN: If this flag is given, the child
* process will inherit the parent's stdin. Otherwise, the child's
* stdin is redirected to `/dev/null`.
* @G_TEST_SUBPROCESS_INHERIT_STDOUT: If this flag is given, the child
* process will inherit the parent's stdout. Otherwise, the child's
* stdout will not be visible, but it will be captured to allow
* later tests with g_test_trap_assert_stdout().
* @G_TEST_SUBPROCESS_INHERIT_STDERR: If this flag is given, the child
* process will inherit the parent's stderr. Otherwise, the child's
* stderr will not be visible, but it will be captured to allow
* later tests with g_test_trap_assert_stderr().
*
* Flags to pass to g_test_trap_subprocess() to control input and output.
*
* Note that in contrast with g_test_trap_fork(), the default is to
* not show stdout and stderr.
*/
/**
* g_test_trap_assert_passed:
*
* Assert that the last test subprocess passed.
* See g_test_trap_subprocess().
*
* Since: 2.16
*/
/**
* g_test_trap_assert_failed:
*
* Assert that the last test subprocess failed.
* See g_test_trap_subprocess().
*
* This is sometimes used to test situations that are formally considered to
* be undefined behaviour, like inputs that fail a g_return_if_fail()
* check. In these situations you should skip the entire test, including the
* call to g_test_trap_subprocess(), unless g_test_undefined() returns %TRUE
* to indicate that undefined behaviour may be tested.
*
* Since: 2.16
*/
/**
* g_test_trap_assert_stdout:
* @soutpattern: a glob-style [pattern][glib-Glob-style-pattern-matching]
*
* Assert that the stdout output of the last test subprocess matches
* @soutpattern. See g_test_trap_subprocess().
*
* Since: 2.16
*/
/**
* g_test_trap_assert_stdout_unmatched:
* @soutpattern: a glob-style [pattern][glib-Glob-style-pattern-matching]
*
* Assert that the stdout output of the last test subprocess
* does not match @soutpattern. See g_test_trap_subprocess().
*
* Since: 2.16
*/
/**
* g_test_trap_assert_stderr:
* @serrpattern: a glob-style [pattern][glib-Glob-style-pattern-matching]
*
* Assert that the stderr output of the last test subprocess
* matches @serrpattern. See g_test_trap_subprocess().
*
* This is sometimes used to test situations that are formally
* considered to be undefined behaviour, like code that hits a
* g_assert() or g_error(). In these situations you should skip the
* entire test, including the call to g_test_trap_subprocess(), unless
* g_test_undefined() returns %TRUE to indicate that undefined
* behaviour may be tested.
*
* Since: 2.16
*/
/**
* g_test_trap_assert_stderr_unmatched:
* @serrpattern: a glob-style [pattern][glib-Glob-style-pattern-matching]
*
* Assert that the stderr output of the last test subprocess
* does not match @serrpattern. See g_test_trap_subprocess().
*
* Since: 2.16
*/
/**
* g_test_rand_bit:
*
* Get a reproducible random bit (0 or 1), see g_test_rand_int()
* for details on test case random numbers.
*
* Since: 2.16
*/
/**
* g_assert:
* @expr: the expression to check
*
* Debugging macro to terminate the application if the assertion
* fails. If the assertion fails (i.e. the expression is not true),
* an error message is logged and the application is terminated.
*
* The macro can be turned off in final releases of code by defining
* `G_DISABLE_ASSERT` when compiling the application, so code must
* not depend on any side effects from @expr. Similarly, it must not be used
* in unit tests, otherwise the unit tests will be ineffective if compiled with
* `G_DISABLE_ASSERT`. Use g_assert_true() and related macros in unit tests
* instead.
*/
/**
* g_assert_not_reached:
*
* Debugging macro to terminate the application if it is ever
* reached. If it is reached, an error message is logged and the
* application is terminated.
*
* The macro can be turned off in final releases of code by defining
* `G_DISABLE_ASSERT` when compiling the application. Hence, it should not be
* used in unit tests, where assertions should always be effective.
*/
/**
* g_assert_true:
* @expr: the expression to check
*
* Debugging macro to check that an expression is true.
*
* If the assertion fails (i.e. the expression is not true),
* an error message is logged and the application is either
* terminated or the testcase marked as failed.
*
* Note that unlike g_assert(), this macro is unaffected by whether
* `G_DISABLE_ASSERT` is defined. Hence it should only be used in tests and,
* conversely, g_assert() should not be used in tests.
*
* See g_test_set_nonfatal_assertions().
*
* Since: 2.38
*/
/**
* g_assert_false:
* @expr: the expression to check
*
* Debugging macro to check an expression is false.
*
* If the assertion fails (i.e. the expression is not false),
* an error message is logged and the application is either
* terminated or the testcase marked as failed.
*
* Note that unlike g_assert(), this macro is unaffected by whether
* `G_DISABLE_ASSERT` is defined. Hence it should only be used in tests and,
* conversely, g_assert() should not be used in tests.
*
* See g_test_set_nonfatal_assertions().
*
* Since: 2.38
*/
/**
* g_assert_null:
* @expr: the expression to check
*
* Debugging macro to check an expression is %NULL.
*
* If the assertion fails (i.e. the expression is not %NULL),
* an error message is logged and the application is either
* terminated or the testcase marked as failed.
*
* Note that unlike g_assert(), this macro is unaffected by whether
* `G_DISABLE_ASSERT` is defined. Hence it should only be used in tests and,
* conversely, g_assert() should not be used in tests.
*
* See g_test_set_nonfatal_assertions().
*
* Since: 2.38
*/
/**
* g_assert_nonnull:
* @expr: the expression to check
*
* Debugging macro to check an expression is not %NULL.
*
* If the assertion fails (i.e. the expression is %NULL),
* an error message is logged and the application is either
* terminated or the testcase marked as failed.
*
* Note that unlike g_assert(), this macro is unaffected by whether
* `G_DISABLE_ASSERT` is defined. Hence it should only be used in tests and,
* conversely, g_assert() should not be used in tests.
*
* See g_test_set_nonfatal_assertions().
*
* Since: 2.40
*/
/**
* g_assert_cmpstr:
* @s1: a string (may be %NULL)
* @cmp: The comparison operator to use.
* One of ==, !=, <, >, <=, >=.
* @s2: another string (may be %NULL)
*
* Debugging macro to compare two strings. If the comparison fails,
* an error message is logged and the application is either terminated
* or the testcase marked as failed.
* The strings are compared using g_strcmp0().
*
* The effect of `g_assert_cmpstr (s1, op, s2)` is
* the same as `g_assert_true (g_strcmp0 (s1, s2) op 0)`.
* The advantage of this macro is that it can produce a message that
* includes the actual values of @s1 and @s2.
*
* |[<!-- language="C" -->
* g_assert_cmpstr (mystring, ==, "fubar");
* ]|
*
* Since: 2.16
*/
/**
* g_assert_cmpint:
* @n1: an integer
* @cmp: The comparison operator to use.
* One of ==, !=, <, >, <=, >=.
* @n2: another integer
*
* Debugging macro to compare two integers.
*
* The effect of `g_assert_cmpint (n1, op, n2)` is
* the same as `g_assert_true (n1 op n2)`. The advantage
* of this macro is that it can produce a message that includes the
* actual values of @n1 and @n2.
*
* Since: 2.16
*/
/**
* g_assert_cmpuint:
* @n1: an unsigned integer
* @cmp: The comparison operator to use.
* One of ==, !=, <, >, <=, >=.
* @n2: another unsigned integer
*
* Debugging macro to compare two unsigned integers.
*
* The effect of `g_assert_cmpuint (n1, op, n2)` is
* the same as `g_assert_true (n1 op n2)`. The advantage
* of this macro is that it can produce a message that includes the
* actual values of @n1 and @n2.
*
* Since: 2.16
*/
/**
* g_assert_cmphex:
* @n1: an unsigned integer
* @cmp: The comparison operator to use.
* One of ==, !=, <, >, <=, >=.
* @n2: another unsigned integer
*
* Debugging macro to compare to unsigned integers.
*
* This is a variant of g_assert_cmpuint() that displays the numbers
* in hexadecimal notation in the message.
*
* Since: 2.16
*/
/**
* g_assert_cmpfloat:
* @n1: an floating point number
* @cmp: The comparison operator to use.
* One of ==, !=, <, >, <=, >=.
* @n2: another floating point number
*
* Debugging macro to compare two floating point numbers.
*
* The effect of `g_assert_cmpfloat (n1, op, n2)` is
* the same as `g_assert_true (n1 op n2)`. The advantage
* of this macro is that it can produce a message that includes the
* actual values of @n1 and @n2.
*
* Since: 2.16
*/
/**
* g_assert_cmpfloat_with_epsilon:
* @n1: an floating point number
* @n2: another floating point number
* @epsilon: a numeric value that expresses the expected tolerance
* between @n1 and @n2
*
* Debugging macro to compare two floating point numbers within an epsilon.
*
* The effect of `g_assert_cmpfloat_with_epsilon (n1, n2, epsilon)` is
* the same as `g_assert_true (abs (n1 - n2) < epsilon)`. The advantage
* of this macro is that it can produce a message that includes the
* actual values of @n1 and @n2.
*
* Since: 2.58
*/
/**
* g_assert_cmpmem:
* @m1: pointer to a buffer
* @l1: length of @m1
* @m2: pointer to another buffer
* @l2: length of @m2
*
* Debugging macro to compare memory regions. If the comparison fails,
* an error message is logged and the application is either terminated
* or the testcase marked as failed.
*
* The effect of `g_assert_cmpmem (m1, l1, m2, l2)` is
* the same as `g_assert_true (l1 == l2 && memcmp (m1, m2, l1) == 0)`.
* The advantage of this macro is that it can produce a message that
* includes the actual values of @l1 and @l2.
*
* |[<!-- language="C" -->
* g_assert_cmpmem (buf->data, buf->len, expected, sizeof (expected));
* ]|
*
* Since: 2.46
*/
/**
* g_assert_no_error:
* @err: a #GError, possibly %NULL
*
* Debugging macro to check that a #GError is not set.
*
* The effect of `g_assert_no_error (err)` is
* the same as `g_assert_true (err == NULL)`. The advantage
* of this macro is that it can produce a message that includes
* the error message and code.
*
* Since: 2.20
*/
/**
* g_assert_error:
* @err: a #GError, possibly %NULL
* @dom: the expected error domain (a #GQuark)
* @c: the expected error code
*
* Debugging macro to check that a method has returned
* the correct #GError.
*
* The effect of `g_assert_error (err, dom, c)` is
* the same as `g_assert_true (err != NULL && err->domain
* == dom && err->code == c)`. The advantage of this
* macro is that it can produce a message that includes the incorrect
* error message and code.
*
* This can only be used to test for a specific error. If you want to
* test that @err is set, but don't care what it's set to, just use
* `g_assert (err != NULL)`
*
* Since: 2.20
*/
/**
* GTestCase:
*
* An opaque structure representing a test case.
*/
/**
* GTestSuite:
*
* An opaque structure representing a test suite.
*/
/* Global variable for storing assertion messages; this is the counterpart to
* glibc's (private) __abort_msg variable, and allows developers and crash
* analysis systems like Apport and ABRT to fish out assertion messages from
* core dumps, instead of having to catch them on screen output.
*/
GLIB_VAR char *__glib_assert_msg;
char *__glib_assert_msg = NULL;
/* --- constants --- */
#define G_TEST_STATUS_TIMED_OUT 1024
/* --- structures --- */
struct GTestCase
{
gchar *name;
guint fixture_size;
void (*fixture_setup) (void*, gconstpointer);
void (*fixture_test) (void*, gconstpointer);
void (*fixture_teardown) (void*, gconstpointer);
gpointer test_data;
};
struct GTestSuite
{
gchar *name;
GSList *suites;
GSList *cases;
};
typedef struct DestroyEntry DestroyEntry;
struct DestroyEntry
{
DestroyEntry *next;
GDestroyNotify destroy_func;
gpointer destroy_data;
};
/* --- prototypes --- */
static void test_run_seed (const gchar *rseed);
static void test_trap_clear (void);
static guint8* g_test_log_dump (GTestLogMsg *msg,
guint *len);
static void gtest_default_log_handler (const gchar *log_domain,
GLogLevelFlags log_level,
const gchar *message,
gpointer unused_data);
static const char * const g_test_result_names[] = {
"OK",
"SKIP",
"FAIL",
"TODO"
};
/* --- variables --- */
static int test_log_fd = -1;
static gboolean test_mode_fatal = TRUE;
static gboolean g_test_run_once = TRUE;
static gboolean test_run_list = FALSE;
static gchar *test_run_seedstr = NULL;
static GRand *test_run_rand = NULL;
static gchar *test_run_name = "";
static GSList **test_filename_free_list;
static guint test_run_forks = 0;
static guint test_run_count = 0;
static guint test_count = 0;
static guint test_skipped_count = 0;
static GTestResult test_run_success = G_TEST_RUN_FAILURE;
static gchar *test_run_msg = NULL;
static guint test_startup_skip_count = 0;
static GTimer *test_user_timer = NULL;
static double test_user_stamp = 0;
static GSList *test_paths = NULL;
static GSList *test_paths_skipped = NULL;
static GTestSuite *test_suite_root = NULL;
static int test_trap_last_status = 0; /* unmodified platform-specific status */
static GPid test_trap_last_pid = 0;
static char *test_trap_last_subprocess = NULL;
static char *test_trap_last_stdout = NULL;
static char *test_trap_last_stderr = NULL;
static char *test_uri_base = NULL;
static gboolean test_debug_log = FALSE;
static gboolean test_tap_log = FALSE;
static gboolean test_nonfatal_assertions = FALSE;
static DestroyEntry *test_destroy_queue = NULL;
static char *test_argv0 = NULL;
static char *test_argv0_dirname;
static const char *test_disted_files_dir;
static const char *test_built_files_dir;
static char *test_initial_cwd = NULL;
static gboolean test_in_forked_child = FALSE;
static gboolean test_in_subprocess = FALSE;
static GTestConfig mutable_test_config_vars = {
FALSE, /* test_initialized */
TRUE, /* test_quick */
FALSE, /* test_perf */
FALSE, /* test_verbose */
FALSE, /* test_quiet */
TRUE, /* test_undefined */
};
const GTestConfig * const g_test_config_vars = &mutable_test_config_vars;
static gboolean no_g_set_prgname = FALSE;
/* --- functions --- */
const char*
g_test_log_type_name (GTestLogType log_type)
{
switch (log_type)
{
case G_TEST_LOG_NONE: return "none";
case G_TEST_LOG_ERROR: return "error";
case G_TEST_LOG_START_BINARY: return "binary";
case G_TEST_LOG_LIST_CASE: return "list";
case G_TEST_LOG_SKIP_CASE: return "skip";
case G_TEST_LOG_START_CASE: return "start";
case G_TEST_LOG_STOP_CASE: return "stop";
case G_TEST_LOG_MIN_RESULT: return "minperf";
case G_TEST_LOG_MAX_RESULT: return "maxperf";
case G_TEST_LOG_MESSAGE: return "message";
case G_TEST_LOG_START_SUITE: return "start suite";
case G_TEST_LOG_STOP_SUITE: return "stop suite";
}
return "???";
}
static void
g_test_log_send (guint n_bytes,
const guint8 *buffer)
{
if (test_log_fd >= 0)
{
int r;
do
r = write (test_log_fd, buffer, n_bytes);
while (r < 0 && errno == EINTR);
}
if (test_debug_log)
{
GTestLogBuffer *lbuffer = g_test_log_buffer_new ();
GTestLogMsg *msg;
guint ui;
g_test_log_buffer_push (lbuffer, n_bytes, buffer);
msg = g_test_log_buffer_pop (lbuffer);
g_warn_if_fail (msg != NULL);
g_warn_if_fail (lbuffer->data->len == 0);
g_test_log_buffer_free (lbuffer);
/* print message */
g_printerr ("{*LOG(%s)", g_test_log_type_name (msg->log_type));
for (ui = 0; ui < msg->n_strings; ui++)
g_printerr (":{%s}", msg->strings[ui]);
if (msg->n_nums)
{
g_printerr (":(");
for (ui = 0; ui < msg->n_nums; ui++)
{
if ((long double) (long) msg->nums[ui] == msg->nums[ui])
g_printerr ("%s%ld", ui ? ";" : "", (long) msg->nums[ui]);
else
g_printerr ("%s%.16g", ui ? ";" : "", (double) msg->nums[ui]);
}
g_printerr (")");
}
g_printerr (":LOG*}\n");
g_test_log_msg_free (msg);
}
}
static void
g_test_log (GTestLogType lbit,
const gchar *string1,
const gchar *string2,
guint n_args,
long double *largs)
{
GTestResult result;
gboolean fail;
GTestLogMsg msg;
gchar *astrings[3] = { NULL, NULL, NULL };
guint8 *dbuffer;
guint32 dbufferlen;
switch (lbit)
{
case G_TEST_LOG_START_BINARY:
if (test_tap_log)
g_print ("# random seed: %s\n", string2);
else if (g_test_verbose ())
g_print ("GTest: random seed: %s\n", string2);
break;
case G_TEST_LOG_START_SUITE:
if (test_tap_log)
{
if (string1[0] != 0)
g_print ("# Start of %s tests\n", string1);
else
g_print ("1..%d\n", test_count);
}
break;
case G_TEST_LOG_STOP_SUITE:
if (test_tap_log)
{
if (string1[0] != 0)
g_print ("# End of %s tests\n", string1);
}
break;
case G_TEST_LOG_STOP_CASE:
result = largs[0];
fail = result == G_TEST_RUN_FAILURE;
if (test_tap_log)
{
g_print ("%s %d %s", fail ? "not ok" : "ok", test_run_count, string1);
if (result == G_TEST_RUN_INCOMPLETE)
g_print (" # TODO %s\n", string2 ? string2 : "");
else if (result == G_TEST_RUN_SKIPPED)
g_print (" # SKIP %s\n", string2 ? string2 : "");
else
g_print ("\n");
}
else if (g_test_verbose ())
g_print ("GTest: result: %s\n", g_test_result_names[result]);
else if (!g_test_quiet ())
g_print ("%s\n", g_test_result_names[result]);
if (fail && test_mode_fatal)
{
if (test_tap_log)
g_print ("Bail out!\n");
g_abort ();
}
if (result == G_TEST_RUN_SKIPPED)
test_skipped_count++;
break;
case G_TEST_LOG_MIN_RESULT:
if (test_tap_log)
g_print ("# min perf: %s\n", string1);
else if (g_test_verbose ())
g_print ("(MINPERF:%s)\n", string1);
break;
case G_TEST_LOG_MAX_RESULT:
if (test_tap_log)
g_print ("# max perf: %s\n", string1);
else if (g_test_verbose ())
g_print ("(MAXPERF:%s)\n", string1);
break;
case G_TEST_LOG_MESSAGE:
if (test_tap_log)
g_print ("# %s\n", string1);
else if (g_test_verbose ())
g_print ("(MSG: %s)\n", string1);
break;
case G_TEST_LOG_ERROR:
if (test_tap_log)
g_print ("Bail out! %s\n", string1);
else if (g_test_verbose ())
g_print ("(ERROR: %s)\n", string1);
break;
default: ;
}
msg.log_type = lbit;
msg.n_strings = (string1 != NULL) + (string1 && string2);
msg.strings = astrings;
astrings[0] = (gchar*) string1;
astrings[1] = astrings[0] ? (gchar*) string2 : NULL;
msg.n_nums = n_args;
msg.nums = largs;
dbuffer = g_test_log_dump (&msg, &dbufferlen);
g_test_log_send (dbufferlen, dbuffer);
g_free (dbuffer);
switch (lbit)
{
case G_TEST_LOG_START_CASE:
if (test_tap_log)
;
else if (g_test_verbose ())
g_print ("GTest: run: %s\n", string1);
else if (!g_test_quiet ())
g_print ("%s: ", string1);
break;
default: ;
}
}
/* We intentionally parse the command line without GOptionContext
* because otherwise you would never be able to test it.
*/
static void
parse_args (gint *argc_p,
gchar ***argv_p)
{
guint argc = *argc_p;
gchar **argv = *argv_p;
guint i, e;
test_argv0 = argv[0];
test_initial_cwd = g_get_current_dir ();
/* parse known args */
for (i = 1; i < argc; i++)
{
if (strcmp (argv[i], "--g-fatal-warnings") == 0)
{
GLogLevelFlags fatal_mask = (GLogLevelFlags) g_log_set_always_fatal ((GLogLevelFlags) G_LOG_FATAL_MASK);
fatal_mask = (GLogLevelFlags) (fatal_mask | G_LOG_LEVEL_WARNING | G_LOG_LEVEL_CRITICAL);
g_log_set_always_fatal (fatal_mask);
argv[i] = NULL;
}
else if (strcmp (argv[i], "--keep-going") == 0 ||
strcmp (argv[i], "-k") == 0)
{
test_mode_fatal = FALSE;
argv[i] = NULL;
}
else if (strcmp (argv[i], "--debug-log") == 0)
{
test_debug_log = TRUE;
argv[i] = NULL;
}
else if (strcmp (argv[i], "--tap") == 0)
{
test_tap_log = TRUE;
argv[i] = NULL;
}
else if (strcmp ("--GTestLogFD", argv[i]) == 0 || strncmp ("--GTestLogFD=", argv[i], 13) == 0)
{
gchar *equal = argv[i] + 12;
if (*equal == '=')
test_log_fd = g_ascii_strtoull (equal + 1, NULL, 0);
else if (i + 1 < argc)
{
argv[i++] = NULL;
test_log_fd = g_ascii_strtoull (argv[i], NULL, 0);
}
argv[i] = NULL;
}
else if (strcmp ("--GTestSkipCount", argv[i]) == 0 || strncmp ("--GTestSkipCount=", argv[i], 17) == 0)
{
gchar *equal = argv[i] + 16;
if (*equal == '=')
test_startup_skip_count = g_ascii_strtoull (equal + 1, NULL, 0);
else if (i + 1 < argc)
{
argv[i++] = NULL;
test_startup_skip_count = g_ascii_strtoull (argv[i], NULL, 0);
}
argv[i] = NULL;
}
else if (strcmp ("--GTestSubprocess", argv[i]) == 0)
{
test_in_subprocess = TRUE;
/* We typically expect these child processes to crash, and some
* tests spawn a *lot* of them. Avoid spamming system crash
* collection programs such as systemd-coredump and abrt.
*/
#ifdef HAVE_SYS_RESOURCE_H
{
struct rlimit limit = { 0, 0 };
(void) setrlimit (RLIMIT_CORE, &limit);
}
#endif
argv[i] = NULL;
}
else if (strcmp ("-p", argv[i]) == 0 || strncmp ("-p=", argv[i], 3) == 0)
{
gchar *equal = argv[i] + 2;
if (*equal == '=')
test_paths = g_slist_prepend (test_paths, equal + 1);
else if (i + 1 < argc)
{
argv[i++] = NULL;
test_paths = g_slist_prepend (test_paths, argv[i]);
}
argv[i] = NULL;
}
else if (strcmp ("-s", argv[i]) == 0 || strncmp ("-s=", argv[i], 3) == 0)
{
gchar *equal = argv[i] + 2;
if (*equal == '=')
test_paths_skipped = g_slist_prepend (test_paths_skipped, equal + 1);
else if (i + 1 < argc)
{
argv[i++] = NULL;
test_paths_skipped = g_slist_prepend (test_paths_skipped, argv[i]);
}
argv[i] = NULL;
}
else if (strcmp ("-m", argv[i]) == 0 || strncmp ("-m=", argv[i], 3) == 0)
{
gchar *equal = argv[i] + 2;
const gchar *mode = "";
if (*equal == '=')
mode = equal + 1;
else if (i + 1 < argc)
{
argv[i++] = NULL;
mode = argv[i];
}
if (strcmp (mode, "perf") == 0)
mutable_test_config_vars.test_perf = TRUE;
else if (strcmp (mode, "slow") == 0)
mutable_test_config_vars.test_quick = FALSE;
else if (strcmp (mode, "thorough") == 0)
mutable_test_config_vars.test_quick = FALSE;
else if (strcmp (mode, "quick") == 0)
{
mutable_test_config_vars.test_quick = TRUE;
mutable_test_config_vars.test_perf = FALSE;
}
else if (strcmp (mode, "undefined") == 0)
mutable_test_config_vars.test_undefined = TRUE;
else if (strcmp (mode, "no-undefined") == 0)
mutable_test_config_vars.test_undefined = FALSE;
else
g_error ("unknown test mode: -m %s", mode);
argv[i] = NULL;
}
else if (strcmp ("-q", argv[i]) == 0 || strcmp ("--quiet", argv[i]) == 0)
{
mutable_test_config_vars.test_quiet = TRUE;
mutable_test_config_vars.test_verbose = FALSE;
argv[i] = NULL;
}
else if (strcmp ("--verbose", argv[i]) == 0)
{
mutable_test_config_vars.test_quiet = FALSE;
mutable_test_config_vars.test_verbose = TRUE;
argv[i] = NULL;
}
else if (strcmp ("-l", argv[i]) == 0)
{
test_run_list = TRUE;
argv[i] = NULL;
}
else if (strcmp ("--seed", argv[i]) == 0 || strncmp ("--seed=", argv[i], 7) == 0)
{
gchar *equal = argv[i] + 6;
if (*equal == '=')
test_run_seedstr = equal + 1;
else if (i + 1 < argc)
{
argv[i++] = NULL;
test_run_seedstr = argv[i];
}
argv[i] = NULL;
}
else if (strcmp ("-?", argv[i]) == 0 ||
strcmp ("-h", argv[i]) == 0 ||
strcmp ("--help", argv[i]) == 0)
{
printf ("Usage:\n"
" %s [OPTION...]\n\n"
"Help Options:\n"
" -h, --help Show help options\n\n"
"Test Options:\n"
" --g-fatal-warnings Make all warnings fatal\n"
" -l List test cases available in a test executable\n"
" -m {perf|slow|thorough|quick} Execute tests according to mode\n"
" -m {undefined|no-undefined} Execute tests according to mode\n"
" -p TESTPATH Only start test cases matching TESTPATH\n"
" -s TESTPATH Skip all tests matching TESTPATH\n"
" --seed=SEEDSTRING Start tests with random seed SEEDSTRING\n"
" --debug-log debug test logging output\n"
" -q, --quiet Run tests quietly\n"
" --verbose Run tests verbosely\n",
argv[0]);
exit (0);
}
}
/* collapse argv */
e = 1;
for (i = 1; i < argc; i++)
if (argv[i])
{
argv[e++] = argv[i];
if (i >= e)
argv[i] = NULL;
}
*argc_p = e;
}
/**
* g_test_init:
* @argc: Address of the @argc parameter of the main() function.
* Changed if any arguments were handled.
* @argv: Address of the @argv parameter of main().
* Any parameters understood by g_test_init() stripped before return.
* @...: %NULL-terminated list of special options. Currently the only
* defined option is `"no_g_set_prgname"`, which
* will cause g_test_init() to not call g_set_prgname().
*
* Initialize the GLib testing framework, e.g. by seeding the
* test random number generator, the name for g_get_prgname()
* and parsing test related command line args.
*
* So far, the following arguments are understood:
*
* - `-l`: List test cases available in a test executable.
* - `--seed=SEED`: Provide a random seed to reproduce test
* runs using random numbers.
* - `--verbose`: Run tests verbosely.
* - `-q`, `--quiet`: Run tests quietly.
* - `-p PATH`: Execute all tests matching the given path.
* - `-s PATH`: Skip all tests matching the given path.
* This can also be used to force a test to run that would otherwise
* be skipped (ie, a test whose name contains "/subprocess").
* - `-m {perf|slow|thorough|quick|undefined|no-undefined}`: Execute tests according to these test modes:
*
* `perf`: Performance tests, may take long and report results (off by default).
*
* `slow`, `thorough`: Slow and thorough tests, may take quite long and maximize coverage
* (off by default).
*
* `quick`: Quick tests, should run really quickly and give good coverage (the default).
*
* `undefined`: Tests for undefined behaviour, may provoke programming errors
* under g_test_trap_subprocess() or g_test_expect_message() to check
* that appropriate assertions or warnings are given (the default).
*
* `no-undefined`: Avoid tests for undefined behaviour
*
* - `--debug-log`: Debug test logging output.
*
* Since: 2.16
*/
void
(g_test_init) (int *argc,
char ***argv,
...)
{
static char seedstr[4 + 4 * 8 + 1];
va_list args;
gpointer option;
/* make warnings and criticals fatal for all test programs */
GLogLevelFlags fatal_mask = (GLogLevelFlags) g_log_set_always_fatal ((GLogLevelFlags) G_LOG_FATAL_MASK);
fatal_mask = (GLogLevelFlags) (fatal_mask | G_LOG_LEVEL_WARNING | G_LOG_LEVEL_CRITICAL);
g_log_set_always_fatal (fatal_mask);
/* check caller args */
g_return_if_fail (argc != NULL);
g_return_if_fail (argv != NULL);
g_return_if_fail (g_test_config_vars->test_initialized == FALSE);
mutable_test_config_vars.test_initialized = TRUE;
va_start (args, argv);
while ((option = va_arg (args, char *)))
{
if (g_strcmp0 (option, "no_g_set_prgname") == 0)
no_g_set_prgname = TRUE;
}
va_end (args);
/* setup random seed string */
g_snprintf (seedstr, sizeof (seedstr), "R02S%08x%08x%08x%08x", g_random_int(), g_random_int(), g_random_int(), g_random_int());
test_run_seedstr = seedstr;
/* parse args, sets up mode, changes seed, etc. */
parse_args (argc, argv);
if (!g_get_prgname() && !no_g_set_prgname)
g_set_prgname ((*argv)[0]);
/* sanity check */
if (test_tap_log)
{
if (test_paths || test_startup_skip_count)
{
/* Not invoking every test (even if SKIPped) breaks the "1..XX" plan */
g_printerr ("%s: -p and --GTestSkipCount options are incompatible with --tap\n",
(*argv)[0]);
exit (1);
}
}
/* verify GRand reliability, needed for reliable seeds */
if (1)
{
GRand *rg = g_rand_new_with_seed (0xc8c49fb6);
guint32 t1 = g_rand_int (rg), t2 = g_rand_int (rg), t3 = g_rand_int (rg), t4 = g_rand_int (rg);
/* g_print ("GRand-current: 0x%x 0x%x 0x%x 0x%x\n", t1, t2, t3, t4); */
if (t1 != 0xfab39f9b || t2 != 0xb948fb0e || t3 != 0x3d31be26 || t4 != 0x43a19d66)
g_warning ("random numbers are not GRand-2.2 compatible, seeds may be broken (check $G_RANDOM_VERSION)");
g_rand_free (rg);
}
/* check rand seed */
test_run_seed (test_run_seedstr);
/* report program start */
g_log_set_default_handler (gtest_default_log_handler, NULL);
g_test_log (G_TEST_LOG_START_BINARY, g_get_prgname(), test_run_seedstr, 0, NULL);
test_argv0_dirname = g_path_get_dirname (test_argv0);
/* Make sure we get the real dirname that the test was run from */
if (g_str_has_suffix (test_argv0_dirname, "/.libs"))
{
gchar *tmp;
tmp = g_path_get_dirname (test_argv0_dirname);
g_free (test_argv0_dirname);
test_argv0_dirname = tmp;
}
test_disted_files_dir = g_getenv ("G_TEST_SRCDIR");
if (!test_disted_files_dir)
test_disted_files_dir = test_argv0_dirname;
test_built_files_dir = g_getenv ("G_TEST_BUILDDIR");
if (!test_built_files_dir)
test_built_files_dir = test_argv0_dirname;
}
static void
test_run_seed (const gchar *rseed)
{
guint seed_failed = 0;
if (test_run_rand)
g_rand_free (test_run_rand);
test_run_rand = NULL;
while (strchr (" \t\v\r\n\f", *rseed))
rseed++;
if (strncmp (rseed, "R02S", 4) == 0) /* seed for random generator 02 (GRand-2.2) */
{
const char *s = rseed + 4;
if (strlen (s) >= 32) /* require 4 * 8 chars */
{
guint32 seedarray[4];
gchar *p, hexbuf[9] = { 0, };
memcpy (hexbuf, s + 0, 8);
seedarray[0] = g_ascii_strtoull (hexbuf, &p, 16);
seed_failed += p != NULL && *p != 0;
memcpy (hexbuf, s + 8, 8);
seedarray[1] = g_ascii_strtoull (hexbuf, &p, 16);
seed_failed += p != NULL && *p != 0;
memcpy (hexbuf, s + 16, 8);
seedarray[2] = g_ascii_strtoull (hexbuf, &p, 16);
seed_failed += p != NULL && *p != 0;
memcpy (hexbuf, s + 24, 8);
seedarray[3] = g_ascii_strtoull (hexbuf, &p, 16);
seed_failed += p != NULL && *p != 0;
if (!seed_failed)
{
test_run_rand = g_rand_new_with_seed_array (seedarray, 4);
return;
}
}
}
g_error ("Unknown or invalid random seed: %s", rseed);
}
/**
* g_test_rand_int:
*
* Get a reproducible random integer number.
*
* The random numbers generated by the g_test_rand_*() family of functions
* change with every new test program start, unless the --seed option is
* given when starting test programs.
*
* For individual test cases however, the random number generator is
* reseeded, to avoid dependencies between tests and to make --seed
* effective for all test cases.
*
* Returns: a random number from the seeded random number generator.
*
* Since: 2.16
*/
gint32
g_test_rand_int (void)
{
return g_rand_int (test_run_rand);
}
/**
* g_test_rand_int_range:
* @begin: the minimum value returned by this function
* @end: the smallest value not to be returned by this function
*
* Get a reproducible random integer number out of a specified range,
* see g_test_rand_int() for details on test case random numbers.
*
* Returns: a number with @begin <= number < @end.
*
* Since: 2.16
*/
gint32
g_test_rand_int_range (gint32 begin,
gint32 end)
{
return g_rand_int_range (test_run_rand, begin, end);
}
/**
* g_test_rand_double:
*
* Get a reproducible random floating point number,
* see g_test_rand_int() for details on test case random numbers.
*
* Returns: a random number from the seeded random number generator.
*
* Since: 2.16
*/
double
g_test_rand_double (void)
{
return g_rand_double (test_run_rand);
}
/**
* g_test_rand_double_range:
* @range_start: the minimum value returned by this function
* @range_end: the minimum value not returned by this function
*
* Get a reproducible random floating pointer number out of a specified range,
* see g_test_rand_int() for details on test case random numbers.
*
* Returns: a number with @range_start <= number < @range_end.
*
* Since: 2.16
*/
double
g_test_rand_double_range (double range_start,
double range_end)
{
return g_rand_double_range (test_run_rand, range_start, range_end);
}
/**
* g_test_timer_start:
*
* Start a timing test. Call g_test_timer_elapsed() when the task is supposed
* to be done. Call this function again to restart the timer.
*
* Since: 2.16
*/
void
g_test_timer_start (void)
{
if (!test_user_timer)
test_user_timer = g_timer_new();
test_user_stamp = 0;
g_timer_start (test_user_timer);
}
/**
* g_test_timer_elapsed:
*
* Get the time since the last start of the timer with g_test_timer_start().
*
* Returns: the time since the last start of the timer, as a double
*
* Since: 2.16
*/
double
g_test_timer_elapsed (void)
{
test_user_stamp = test_user_timer ? g_timer_elapsed (test_user_timer, NULL) : 0;
return test_user_stamp;
}
/**
* g_test_timer_last:
*
* Report the last result of g_test_timer_elapsed().
*
* Returns: the last result of g_test_timer_elapsed(), as a double
*
* Since: 2.16
*/
double
g_test_timer_last (void)
{
return test_user_stamp;
}
/**
* g_test_minimized_result:
* @minimized_quantity: the reported value
* @format: the format string of the report message
* @...: arguments to pass to the printf() function
*
* Report the result of a performance or measurement test.
* The test should generally strive to minimize the reported
* quantities (smaller values are better than larger ones),
* this and @minimized_quantity can determine sorting
* order for test result reports.
*
* Since: 2.16
*/
void
g_test_minimized_result (double minimized_quantity,
const char *format,
...)
{
long double largs = minimized_quantity;
gchar *buffer;
va_list args;
va_start (args, format);
buffer = g_strdup_vprintf (format, args);
va_end (args);
g_test_log (G_TEST_LOG_MIN_RESULT, buffer, NULL, 1, &largs);
g_free (buffer);
}
/**
* g_test_maximized_result:
* @maximized_quantity: the reported value
* @format: the format string of the report message
* @...: arguments to pass to the printf() function
*
* Report the result of a performance or measurement test.
* The test should generally strive to maximize the reported
* quantities (larger values are better than smaller ones),
* this and @maximized_quantity can determine sorting
* order for test result reports.
*
* Since: 2.16
*/
void
g_test_maximized_result (double maximized_quantity,
const char *format,
...)
{
long double largs = maximized_quantity;
gchar *buffer;
va_list args;
va_start (args, format);
buffer = g_strdup_vprintf (format, args);
va_end (args);
g_test_log (G_TEST_LOG_MAX_RESULT, buffer, NULL, 1, &largs);
g_free (buffer);
}
/**
* g_test_message:
* @format: the format string
* @...: printf-like arguments to @format
*
* Add a message to the test report.
*
* Since: 2.16
*/
void
g_test_message (const char *format,
...)
{
gchar *buffer;
va_list args;
va_start (args, format);
buffer = g_strdup_vprintf (format, args);
va_end (args);
g_test_log (G_TEST_LOG_MESSAGE, buffer, NULL, 0, NULL);
g_free (buffer);
}
/**
* g_test_bug_base:
* @uri_pattern: the base pattern for bug URIs
*
* Specify the base URI for bug reports.
*
* The base URI is used to construct bug report messages for
* g_test_message() when g_test_bug() is called.
* Calling this function outside of a test case sets the
* default base URI for all test cases. Calling it from within
* a test case changes the base URI for the scope of the test
* case only.
* Bug URIs are constructed by appending a bug specific URI
* portion to @uri_pattern, or by replacing the special string
* '\%s' within @uri_pattern if that is present.
*
* Since: 2.16
*/
void
g_test_bug_base (const char *uri_pattern)
{
g_free (test_uri_base);
test_uri_base = g_strdup (uri_pattern);
}
/**
* g_test_bug:
* @bug_uri_snippet: Bug specific bug tracker URI portion.
*
* This function adds a message to test reports that
* associates a bug URI with a test case.
* Bug URIs are constructed from a base URI set with g_test_bug_base()
* and @bug_uri_snippet.
*
* Since: 2.16
*/
void
g_test_bug (const char *bug_uri_snippet)
{
char *c;
g_return_if_fail (test_uri_base != NULL);
g_return_if_fail (bug_uri_snippet != NULL);
c = strstr (test_uri_base, "%s");
if (c)
{
char *b = g_strndup (test_uri_base, c - test_uri_base);
char *s = g_strconcat (b, bug_uri_snippet, c + 2, NULL);
g_free (b);
g_test_message ("Bug Reference: %s", s);
g_free (s);
}
else
g_test_message ("Bug Reference: %s%s", test_uri_base, bug_uri_snippet);
}
/**
* g_test_get_root:
*
* Get the toplevel test suite for the test path API.
*
* Returns: the toplevel #GTestSuite
*
* Since: 2.16
*/
GTestSuite*
g_test_get_root (void)
{
if (!test_suite_root)
{
test_suite_root = g_test_create_suite ("root");
g_free (test_suite_root->name);
test_suite_root->name = g_strdup ("");
}
return test_suite_root;
}
/**
* g_test_run:
*
* Runs all tests under the toplevel suite which can be retrieved
* with g_test_get_root(). Similar to g_test_run_suite(), the test
* cases to be run are filtered according to test path arguments
* (`-p testpath` and `-s testpath`) as parsed by g_test_init().
* g_test_run_suite() or g_test_run() may only be called once in a
* program.
*
* In general, the tests and sub-suites within each suite are run in
* the order in which they are defined. However, note that prior to
* GLib 2.36, there was a bug in the `g_test_add_*`
* functions which caused them to create multiple suites with the same
* name, meaning that if you created tests "/foo/simple",
* "/bar/simple", and "/foo/using-bar" in that order, they would get
* run in that order (since g_test_run() would run the first "/foo"
* suite, then the "/bar" suite, then the second "/foo" suite). As of
* 2.36, this bug is fixed, and adding the tests in that order would
* result in a running order of "/foo/simple", "/foo/using-bar",
* "/bar/simple". If this new ordering is sub-optimal (because it puts
* more-complicated tests before simpler ones, making it harder to
* figure out exactly what has failed), you can fix it by changing the
* test paths to group tests by suite in a way that will result in the
* desired running order. Eg, "/simple/foo", "/simple/bar",
* "/complex/foo-using-bar".
*
* However, you should never make the actual result of a test depend
* on the order that tests are run in. If you need to ensure that some
* particular code runs before or after a given test case, use
* g_test_add(), which lets you specify setup and teardown functions.
*
* If all tests are skipped, this function will return 0 if
* producing TAP output, or 77 (treated as "skip test" by Automake) otherwise.
*
* Returns: 0 on success, 1 on failure (assuming it returns at all),
* 0 or 77 if all tests were skipped with g_test_skip()
*
* Since: 2.16
*/
int
g_test_run (void)
{
if (g_test_run_suite (g_test_get_root()) != 0)
return 1;
/* 77 is special to Automake's default driver, but not Automake's TAP driver
* or Perl's prove(1) TAP driver. */
if (test_tap_log)
return 0;
if (test_run_count > 0 && test_run_count == test_skipped_count)
return 77;
else
return 0;
}
/**
* g_test_create_case:
* @test_name: the name for the test case
* @data_size: the size of the fixture data structure
* @test_data: test data argument for the test functions
* @data_setup: (scope async): the function to set up the fixture data
* @data_test: (scope async): the actual test function
* @data_teardown: (scope async): the function to teardown the fixture data
*
* Create a new #GTestCase, named @test_name, this API is fairly
* low level, calling g_test_add() or g_test_add_func() is preferable.
* When this test is executed, a fixture structure of size @data_size
* will be automatically allocated and filled with zeros. Then @data_setup is
* called to initialize the fixture. After fixture setup, the actual test
* function @data_test is called. Once the test run completes, the
* fixture structure is torn down by calling @data_teardown and
* after that the memory is automatically released by the test framework.
*
* Splitting up a test run into fixture setup, test function and
* fixture teardown is most useful if the same fixture is used for
* multiple tests. In this cases, g_test_create_case() will be
* called with the same fixture, but varying @test_name and
* @data_test arguments.
*
* Returns: a newly allocated #GTestCase.
*
* Since: 2.16
*/
GTestCase*
g_test_create_case (const char *test_name,
gsize data_size,
gconstpointer test_data,
GTestFixtureFunc data_setup,
GTestFixtureFunc data_test,
GTestFixtureFunc data_teardown)
{
GTestCase *tc;
g_return_val_if_fail (test_name != NULL, NULL);
g_return_val_if_fail (strchr (test_name, '/') == NULL, NULL);
g_return_val_if_fail (test_name[0] != 0, NULL);
g_return_val_if_fail (data_test != NULL, NULL);
tc = g_slice_new0 (GTestCase);
tc->name = g_strdup (test_name);
tc->test_data = (gpointer) test_data;
tc->fixture_size = data_size;
tc->fixture_setup = (void*) data_setup;
tc->fixture_test = (void*) data_test;
tc->fixture_teardown = (void*) data_teardown;
return tc;
}
static gint
find_suite (gconstpointer l, gconstpointer s)
{
const GTestSuite *suite = l;
const gchar *str = s;
return strcmp (suite->name, str);
}
static gint
find_case (gconstpointer l, gconstpointer s)
{
const GTestCase *tc = l;
const gchar *str = s;
return strcmp (tc->name, str);
}
/**
* GTestFixtureFunc:
* @fixture: (not nullable): the test fixture
* @user_data: the data provided when registering the test
*
* The type used for functions that operate on test fixtures. This is
* used for the fixture setup and teardown functions as well as for the
* testcases themselves.
*
* @user_data is a pointer to the data that was given when registering
* the test case.
*
* @fixture will be a pointer to the area of memory allocated by the
* test framework, of the size requested. If the requested size was
* zero then @fixture will be equal to @user_data.
*
* Since: 2.28
*/
void
g_test_add_vtable (const char *testpath,
gsize data_size,
gconstpointer test_data,
GTestFixtureFunc data_setup,
GTestFixtureFunc fixture_test_func,
GTestFixtureFunc data_teardown)
{
gchar **segments;
guint ui;
GTestSuite *suite;
g_return_if_fail (testpath != NULL);
g_return_if_fail (g_path_is_absolute (testpath));
g_return_if_fail (fixture_test_func != NULL);
suite = g_test_get_root();
segments = g_strsplit (testpath, "/", -1);
for (ui = 0; segments[ui] != NULL; ui++)
{
const char *seg = segments[ui];
gboolean islast = segments[ui + 1] == NULL;
if (islast && !seg[0])
g_error ("invalid test case path: %s", testpath);
else if (!seg[0])
continue; /* initial or duplicate slash */
else if (!islast)
{
GSList *l;
GTestSuite *csuite;
l = g_slist_find_custom (suite->suites, seg, find_suite);
if (l)
{
csuite = l->data;
}
else
{
csuite = g_test_create_suite (seg);
g_test_suite_add_suite (suite, csuite);
}
suite = csuite;
}
else /* islast */
{
GTestCase *tc;
if (g_slist_find_custom (suite->cases, seg, find_case))
g_error ("duplicate test case path: %s", testpath);
tc = g_test_create_case (seg, data_size, test_data, data_setup, fixture_test_func, data_teardown);
g_test_suite_add (suite, tc);
}
}
g_strfreev (segments);
}
/**
* g_test_fail:
*
* Indicates that a test failed. This function can be called
* multiple times from the same test. You can use this function
* if your test failed in a recoverable way.
*
* Do not use this function if the failure of a test could cause
* other tests to malfunction.
*
* Calling this function will not stop the test from running, you
* need to return from the test function yourself. So you can
* produce additional diagnostic messages or even continue running
* the test.
*
* If not called from inside a test, this function does nothing.
*
* Since: 2.30
**/
void
g_test_fail (void)
{
test_run_success = G_TEST_RUN_FAILURE;
}
/**
* g_test_incomplete:
* @msg: (nullable): explanation
*
* Indicates that a test failed because of some incomplete
* functionality. This function can be called multiple times
* from the same test.
*
* Calling this function will not stop the test from running, you
* need to return from the test function yourself. So you can
* produce additional diagnostic messages or even continue running
* the test.
*
* If not called from inside a test, this function does nothing.
*
* Since: 2.38
*/
void
g_test_incomplete (const gchar *msg)
{
test_run_success = G_TEST_RUN_INCOMPLETE;
g_free (test_run_msg);
test_run_msg = g_strdup (msg);
}
/**
* g_test_skip:
* @msg: (nullable): explanation
*
* Indicates that a test was skipped.
*
* Calling this function will not stop the test from running, you
* need to return from the test function yourself. So you can
* produce additional diagnostic messages or even continue running
* the test.
*
* If not called from inside a test, this function does nothing.
*
* Since: 2.38
*/
void
g_test_skip (const gchar *msg)
{
test_run_success = G_TEST_RUN_SKIPPED;
g_free (test_run_msg);
test_run_msg = g_strdup (msg);
}
/**
* g_test_failed:
*
* Returns whether a test has already failed. This will
* be the case when g_test_fail(), g_test_incomplete()
* or g_test_skip() have been called, but also if an
* assertion has failed.
*
* This can be useful to return early from a test if
* continuing after a failed assertion might be harmful.
*
* The return value of this function is only meaningful
* if it is called from inside a test function.
*
* Returns: %TRUE if the test has failed
*
* Since: 2.38
*/
gboolean
g_test_failed (void)
{
return test_run_success != G_TEST_RUN_SUCCESS;
}
/**
* g_test_set_nonfatal_assertions:
*
* Changes the behaviour of g_assert_cmpstr(), g_assert_cmpint(),
* g_assert_cmpuint(), g_assert_cmphex(), g_assert_cmpfloat(),
* g_assert_true(), g_assert_false(), g_assert_null(), g_assert_no_error(),
* g_assert_error(), g_test_assert_expected_messages() and the various
* g_test_trap_assert_*() macros to not abort to program, but instead
* call g_test_fail() and continue. (This also changes the behavior of
* g_test_fail() so that it will not cause the test program to abort
* after completing the failed test.)
*
* Note that the g_assert_not_reached() and g_assert() are not
* affected by this.
*
* This function can only be called after g_test_init().
*
* Since: 2.38
*/
void
g_test_set_nonfatal_assertions (void)
{
if (!g_test_config_vars->test_initialized)
g_error ("g_test_set_nonfatal_assertions called without g_test_init");
test_nonfatal_assertions = TRUE;
test_mode_fatal = FALSE;
}
/**
* GTestFunc:
*
* The type used for test case functions.
*
* Since: 2.28
*/
/**
* g_test_add_func:
* @testpath: /-separated test case path name for the test.
* @test_func: (scope async): The test function to invoke for this test.
*
* Create a new test case, similar to g_test_create_case(). However
* the test is assumed to use no fixture, and test suites are automatically
* created on the fly and added to the root fixture, based on the
* slash-separated portions of @testpath.
*
* If @testpath includes the component "subprocess" anywhere in it,
* the test will be skipped by default, and only run if explicitly
* required via the `-p` command-line option or g_test_trap_subprocess().
*
* Since: 2.16
*/
void
g_test_add_func (const char *testpath,
GTestFunc test_func)
{
g_return_if_fail (testpath != NULL);
g_return_if_fail (testpath[0] == '/');
g_return_if_fail (test_func != NULL);
g_test_add_vtable (testpath, 0, NULL, NULL, (GTestFixtureFunc) test_func, NULL);
}
/**
* GTestDataFunc:
* @user_data: the data provided when registering the test
*
* The type used for test case functions that take an extra pointer
* argument.
*
* Since: 2.28
*/
/**
* g_test_add_data_func:
* @testpath: /-separated test case path name for the test.
* @test_data: Test data argument for the test function.
* @test_func: (scope async): The test function to invoke for this test.
*
* Create a new test case, similar to g_test_create_case(). However
* the test is assumed to use no fixture, and test suites are automatically
* created on the fly and added to the root fixture, based on the
* slash-separated portions of @testpath. The @test_data argument
* will be passed as first argument to @test_func.
*
* If @testpath includes the component "subprocess" anywhere in it,
* the test will be skipped by default, and only run if explicitly
* required via the `-p` command-line option or g_test_trap_subprocess().
*
* Since: 2.16
*/
void
g_test_add_data_func (const char *testpath,
gconstpointer test_data,
GTestDataFunc test_func)
{
g_return_if_fail (testpath != NULL);
g_return_if_fail (testpath[0] == '/');
g_return_if_fail (test_func != NULL);
g_test_add_vtable (testpath, 0, test_data, NULL, (GTestFixtureFunc) test_func, NULL);
}
/**
* g_test_add_data_func_full:
* @testpath: /-separated test case path name for the test.
* @test_data: Test data argument for the test function.
* @test_func: The test function to invoke for this test.
* @data_free_func: #GDestroyNotify for @test_data.
*
* Create a new test case, as with g_test_add_data_func(), but freeing
* @test_data after the test run is complete.
*
* Since: 2.34
*/
void
g_test_add_data_func_full (const char *testpath,
gpointer test_data,
GTestDataFunc test_func,
GDestroyNotify data_free_func)
{
g_return_if_fail (testpath != NULL);
g_return_if_fail (testpath[0] == '/');
g_return_if_fail (test_func != NULL);
g_test_add_vtable (testpath, 0, test_data, NULL,
(GTestFixtureFunc) test_func,
(GTestFixtureFunc) data_free_func);
}
static gboolean
g_test_suite_case_exists (GTestSuite *suite,
const char *test_path)
{
GSList *iter;
char *slash;
GTestCase *tc;
test_path++;
slash = strchr (test_path, '/');
if (slash)
{
for (iter = suite->suites; iter; iter = iter->next)
{
GTestSuite *child_suite = iter->data;
if (!strncmp (child_suite->name, test_path, slash - test_path))
if (g_test_suite_case_exists (child_suite, slash))
return TRUE;
}
}
else
{
for (iter = suite->cases; iter; iter = iter->next)
{
tc = iter->data;
if (!strcmp (tc->name, test_path))
return TRUE;
}
}
return FALSE;
}
/**
* g_test_create_suite:
* @suite_name: a name for the suite
*
* Create a new test suite with the name @suite_name.
*
* Returns: A newly allocated #GTestSuite instance.
*
* Since: 2.16
*/
GTestSuite*
g_test_create_suite (const char *suite_name)
{
GTestSuite *ts;
g_return_val_if_fail (suite_name != NULL, NULL);
g_return_val_if_fail (strchr (suite_name, '/') == NULL, NULL);
g_return_val_if_fail (suite_name[0] != 0, NULL);
ts = g_slice_new0 (GTestSuite);
ts->name = g_strdup (suite_name);
return ts;
}
/**
* g_test_suite_add:
* @suite: a #GTestSuite
* @test_case: a #GTestCase
*
* Adds @test_case to @suite.
*
* Since: 2.16
*/
void
g_test_suite_add (GTestSuite *suite,
GTestCase *test_case)
{
g_return_if_fail (suite != NULL);
g_return_if_fail (test_case != NULL);
suite->cases = g_slist_append (suite->cases, test_case);
}
/**
* g_test_suite_add_suite:
* @suite: a #GTestSuite
* @nestedsuite: another #GTestSuite
*
* Adds @nestedsuite to @suite.
*
* Since: 2.16
*/
void
g_test_suite_add_suite (GTestSuite *suite,
GTestSuite *nestedsuite)
{
g_return_if_fail (suite != NULL);
g_return_if_fail (nestedsuite != NULL);
suite->suites = g_slist_append (suite->suites, nestedsuite);
}
/**
* g_test_queue_free:
* @gfree_pointer: the pointer to be stored.
*
* Enqueue a pointer to be released with g_free() during the next
* teardown phase. This is equivalent to calling g_test_queue_destroy()
* with a destroy callback of g_free().
*
* Since: 2.16
*/
void
g_test_queue_free (gpointer gfree_pointer)
{
if (gfree_pointer)
g_test_queue_destroy (g_free, gfree_pointer);
}
/**
* g_test_queue_destroy:
* @destroy_func: Destroy callback for teardown phase.
* @destroy_data: Destroy callback data.
*
* This function enqueus a callback @destroy_func to be executed
* during the next test case teardown phase. This is most useful
* to auto destruct allocated test resources at the end of a test run.
* Resources are released in reverse queue order, that means enqueueing
* callback A before callback B will cause B() to be called before
* A() during teardown.
*
* Since: 2.16
*/
void
g_test_queue_destroy (GDestroyNotify destroy_func,
gpointer destroy_data)
{
DestroyEntry *dentry;
g_return_if_fail (destroy_func != NULL);
dentry = g_slice_new0 (DestroyEntry);
dentry->destroy_func = destroy_func;
dentry->destroy_data = destroy_data;
dentry->next = test_destroy_queue;
test_destroy_queue = dentry;
}
static gboolean
test_case_run (GTestCase *tc)
{
gchar *old_base = g_strdup (test_uri_base);
GSList **old_free_list, *filename_free_list = NULL;
gboolean success = G_TEST_RUN_SUCCESS;
old_free_list = test_filename_free_list;
test_filename_free_list = &filename_free_list;
if (++test_run_count <= test_startup_skip_count)
g_test_log (G_TEST_LOG_SKIP_CASE, test_run_name, NULL, 0, NULL);
else if (test_run_list)
{
g_print ("%s\n", test_run_name);
g_test_log (G_TEST_LOG_LIST_CASE, test_run_name, NULL, 0, NULL);
}
else
{
GTimer *test_run_timer = g_timer_new();
long double largs[3];
void *fixture;
g_test_log (G_TEST_LOG_START_CASE, test_run_name, NULL, 0, NULL);
test_run_forks = 0;
test_run_success = G_TEST_RUN_SUCCESS;
g_clear_pointer (&test_run_msg, g_free);
g_test_log_set_fatal_handler (NULL, NULL);
if (test_paths_skipped && g_slist_find_custom (test_paths_skipped, test_run_name, (GCompareFunc)g_strcmp0))
g_test_skip ("by request (-s option)");
else
{
g_timer_start (test_run_timer);
fixture = tc->fixture_size ? g_malloc0 (tc->fixture_size) : tc->test_data;
test_run_seed (test_run_seedstr);
if (tc->fixture_setup)
tc->fixture_setup (fixture, tc->test_data);
tc->fixture_test (fixture, tc->test_data);
test_trap_clear();
while (test_destroy_queue)
{
DestroyEntry *dentry = test_destroy_queue;
test_destroy_queue = dentry->next;
dentry->destroy_func (dentry->destroy_data);
g_slice_free (DestroyEntry, dentry);
}
if (tc->fixture_teardown)
tc->fixture_teardown (fixture, tc->test_data);
if (tc->fixture_size)
g_free (fixture);
g_timer_stop (test_run_timer);
}
success = test_run_success;
test_run_success = G_TEST_RUN_FAILURE;
largs[0] = success; /* OK */
largs[1] = test_run_forks;
largs[2] = g_timer_elapsed (test_run_timer, NULL);
g_test_log (G_TEST_LOG_STOP_CASE, test_run_name, test_run_msg, G_N_ELEMENTS (largs), largs);
g_clear_pointer (&test_run_msg, g_free);
g_timer_destroy (test_run_timer);
}
g_slist_free_full (filename_free_list, g_free);
test_filename_free_list = old_free_list;
g_free (test_uri_base);
test_uri_base = old_base;
return (success == G_TEST_RUN_SUCCESS ||
success == G_TEST_RUN_SKIPPED);
}
static gboolean
path_has_prefix (const char *path,
const char *prefix)
{
int prefix_len = strlen (prefix);
return (strncmp (path, prefix, prefix_len) == 0 &&
(path[prefix_len] == '\0' ||
path[prefix_len] == '/'));
}
static gboolean
test_should_run (const char *test_path,
const char *cmp_path)
{
if (strstr (test_run_name, "/subprocess"))
{
if (g_strcmp0 (test_path, cmp_path) == 0)
return TRUE;
if (g_test_verbose ())
g_print ("GTest: skipping: %s\n", test_run_name);
return FALSE;
}
return !cmp_path || path_has_prefix (test_path, cmp_path);
}
/* Recurse through @suite, running tests matching @path (or all tests
* if @path is %NULL).
*/
static int
g_test_run_suite_internal (GTestSuite *suite,
const char *path)
{
guint n_bad = 0;
gchar *old_name = test_run_name;
GSList *iter;
g_return_val_if_fail (suite != NULL, -1);
g_test_log (G_TEST_LOG_START_SUITE, suite->name, NULL, 0, NULL);
for (iter = suite->cases; iter; iter = iter->next)
{
GTestCase *tc = iter->data;
test_run_name = g_build_path ("/", old_name, tc->name, NULL);
if (test_should_run (test_run_name, path))
{
if (!test_case_run (tc))
n_bad++;
}
g_free (test_run_name);
}
for (iter = suite->suites; iter; iter = iter->next)
{
GTestSuite *ts = iter->data;
test_run_name = g_build_path ("/", old_name, ts->name, NULL);
if (!path || path_has_prefix (path, test_run_name))
n_bad += g_test_run_suite_internal (ts, path);
g_free (test_run_name);
}
test_run_name = old_name;
g_test_log (G_TEST_LOG_STOP_SUITE, suite->name, NULL, 0, NULL);
return n_bad;
}
static int
g_test_suite_count (GTestSuite *suite)
{
int n = 0;
GSList *iter;
g_return_val_if_fail (suite != NULL, -1);
for (iter = suite->cases; iter; iter = iter->next)
{
GTestCase *tc = iter->data;
if (strcmp (tc->name, "subprocess") != 0)
n++;
}
for (iter = suite->suites; iter; iter = iter->next)
{
GTestSuite *ts = iter->data;
if (strcmp (ts->name, "subprocess") != 0)
n += g_test_suite_count (ts);
}
return n;
}
/**
* g_test_run_suite:
* @suite: a #GTestSuite
*
* Execute the tests within @suite and all nested #GTestSuites.
* The test suites to be executed are filtered according to
* test path arguments (`-p testpath` and `-s testpath`) as parsed by
* g_test_init(). See the g_test_run() documentation for more
* information on the order that tests are run in.
*
* g_test_run_suite() or g_test_run() may only be called once
* in a program.
*
* Returns: 0 on success
*
* Since: 2.16
*/
int
g_test_run_suite (GTestSuite *suite)
{
int n_bad = 0;
g_return_val_if_fail (g_test_run_once == TRUE, -1);
g_test_run_once = FALSE;
test_count = g_test_suite_count (suite);
test_run_name = g_strdup_printf ("/%s", suite->name);
if (test_paths)
{
GSList *iter;
for (iter = test_paths; iter; iter = iter->next)
n_bad += g_test_run_suite_internal (suite, iter->data);
}
else
n_bad = g_test_run_suite_internal (suite, NULL);
g_free (test_run_name);
test_run_name = NULL;
return n_bad;
}
static void
gtest_default_log_handler (const gchar *log_domain,
GLogLevelFlags log_level,
const gchar *message,
gpointer unused_data)
{
const gchar *strv[16];
gboolean fatal = FALSE;
gchar *msg;
guint i = 0;
if (log_domain)
{
strv[i++] = log_domain;
strv[i++] = "-";
}
if (log_level & G_LOG_FLAG_FATAL)
{
strv[i++] = "FATAL-";
fatal = TRUE;
}
if (log_level & G_LOG_FLAG_RECURSION)
strv[i++] = "RECURSIVE-";
if (log_level & G_LOG_LEVEL_ERROR)
strv[i++] = "ERROR";
if (log_level & G_LOG_LEVEL_CRITICAL)
strv[i++] = "CRITICAL";
if (log_level & G_LOG_LEVEL_WARNING)
strv[i++] = "WARNING";
if (log_level & G_LOG_LEVEL_MESSAGE)
strv[i++] = "MESSAGE";
if (log_level & G_LOG_LEVEL_INFO)
strv[i++] = "INFO";
if (log_level & G_LOG_LEVEL_DEBUG)
strv[i++] = "DEBUG";
strv[i++] = ": ";
strv[i++] = message;
strv[i++] = NULL;
msg = g_strjoinv ("", (gchar**) strv);
g_test_log (fatal ? G_TEST_LOG_ERROR : G_TEST_LOG_MESSAGE, msg, NULL, 0, NULL);
g_log_default_handler (log_domain, log_level, message, unused_data);
g_free (msg);
}
void
g_assertion_message (const char *domain,
const char *file,
int line,
const char *func,
const char *message)
{
char lstr[32];
char *s;
if (!message)
message = "code should not be reached";
g_snprintf (lstr, 32, "%d", line);
s = g_strconcat (domain ? domain : "", domain && domain[0] ? ":" : "",
"ERROR:", file, ":", lstr, ":",
func, func[0] ? ":" : "",
" ", message, NULL);
g_printerr ("**\n%s\n", s);
/* Don't print a fatal error indication if assertions are non-fatal, or
* if we are a child process that might be sharing the parent's stdout. */
if (test_nonfatal_assertions || test_in_subprocess || test_in_forked_child)
g_test_log (G_TEST_LOG_MESSAGE, s, NULL, 0, NULL);
else
g_test_log (G_TEST_LOG_ERROR, s, NULL, 0, NULL);
if (test_nonfatal_assertions)
{
g_free (s);
g_test_fail ();
return;
}
/* store assertion message in global variable, so that it can be found in a
* core dump */
if (__glib_assert_msg != NULL)
/* free the old one */
free (__glib_assert_msg);
__glib_assert_msg = (char*) malloc (strlen (s) + 1);
strcpy (__glib_assert_msg, s);
g_free (s);
if (test_in_subprocess)
{
/* If this is a test case subprocess then it probably hit this
* assertion on purpose, so just exit() rather than abort()ing,
* to avoid triggering any system crash-reporting daemon.
*/
_exit (1);
}
else
g_abort ();
}
/**
* g_assertion_message_expr: (skip)
* @domain: (nullable):
* @file:
* @line:
* @func:
* @expr: (nullable):
*/
void
g_assertion_message_expr (const char *domain,
const char *file,
int line,
const char *func,
const char *expr)
{
char *s;
if (!expr)
s = g_strdup ("code should not be reached");
else
s = g_strconcat ("assertion failed: (", expr, ")", NULL);
g_assertion_message (domain, file, line, func, s);
g_free (s);
/* Normally g_assertion_message() won't return, but we need this for
* when test_nonfatal_assertions is set, since
* g_assertion_message_expr() is used for always-fatal assertions.
*/
if (test_in_subprocess)
_exit (1);
else
g_abort ();
}
void
g_assertion_message_cmpnum (const char *domain,
const char *file,
int line,
const char *func,
const char *expr,
long double arg1,
const char *cmp,
long double arg2,
char numtype)
{
char *s = NULL;
switch (numtype)
{
case 'i': s = g_strdup_printf ("assertion failed (%s): (%" G_GINT64_MODIFIER "i %s %" G_GINT64_MODIFIER "i)", expr, (gint64) arg1, cmp, (gint64) arg2); break;
case 'x': s = g_strdup_printf ("assertion failed (%s): (0x%08" G_GINT64_MODIFIER "x %s 0x%08" G_GINT64_MODIFIER "x)", expr, (guint64) arg1, cmp, (guint64) arg2); break;
case 'f': s = g_strdup_printf ("assertion failed (%s): (%.9g %s %.9g)", expr, (double) arg1, cmp, (double) arg2); break;
/* ideally use: floats=%.7g double=%.17g */
}
g_assertion_message (domain, file, line, func, s);
g_free (s);
}
void
g_assertion_message_cmpstr (const char *domain,
const char *file,
int line,
const char *func,
const char *expr,
const char *arg1,
const char *cmp,
const char *arg2)
{
char *a1, *a2, *s, *t1 = NULL, *t2 = NULL;
a1 = arg1 ? g_strconcat ("\"", t1 = g_strescape (arg1, NULL), "\"", NULL) : g_strdup ("NULL");
a2 = arg2 ? g_strconcat ("\"", t2 = g_strescape (arg2, NULL), "\"", NULL) : g_strdup ("NULL");
g_free (t1);
g_free (t2);
s = g_strdup_printf ("assertion failed (%s): (%s %s %s)", expr, a1, cmp, a2);
g_free (a1);
g_free (a2);
g_assertion_message (domain, file, line, func, s);
g_free (s);
}
void
g_assertion_message_error (const char *domain,
const char *file,
int line,
const char *func,
const char *expr,
const GError *error,
GQuark error_domain,
int error_code)
{
GString *gstring;
/* This is used by both g_assert_error() and g_assert_no_error(), so there
* are three cases: expected an error but got the wrong error, expected
* an error but got no error, and expected no error but got an error.
*/
gstring = g_string_new ("assertion failed ");
if (error_domain)
g_string_append_printf (gstring, "(%s == (%s, %d)): ", expr,
g_quark_to_string (error_domain), error_code);
else
g_string_append_printf (gstring, "(%s == NULL): ", expr);
if (error)
g_string_append_printf (gstring, "%s (%s, %d)", error->message,
g_quark_to_string (error->domain), error->code);
else
g_string_append_printf (gstring, "%s is NULL", expr);
g_assertion_message (domain, file, line, func, gstring->str);
g_string_free (gstring, TRUE);
}
/**
* g_strcmp0:
* @str1: (nullable): a C string or %NULL
* @str2: (nullable): another C string or %NULL
*
* Compares @str1 and @str2 like strcmp(). Handles %NULL
* gracefully by sorting it before non-%NULL strings.
* Comparing two %NULL pointers returns 0.
*
* Returns: an integer less than, equal to, or greater than zero, if @str1 is <, == or > than @str2.
*
* Since: 2.16
*/
int
g_strcmp0 (const char *str1,
const char *str2)
{
if (!str1)
return -(str1 != str2);
if (!str2)
return str1 != str2;
return strcmp (str1, str2);
}
static void
test_trap_clear (void)
{
test_trap_last_status = 0;
test_trap_last_pid = 0;
g_clear_pointer (&test_trap_last_subprocess, g_free);
g_clear_pointer (&test_trap_last_stdout, g_free);
g_clear_pointer (&test_trap_last_stderr, g_free);
}
#ifdef G_OS_UNIX
static int
sane_dup2 (int fd1,
int fd2)
{
int ret;
do
ret = dup2 (fd1, fd2);
while (ret < 0 && errno == EINTR);
return ret;
}
#endif
typedef struct {
GPid pid;
GMainLoop *loop;
int child_status; /* unmodified platform-specific status */
GIOChannel *stdout_io;
gboolean echo_stdout;
GString *stdout_str;
GIOChannel *stderr_io;
gboolean echo_stderr;
GString *stderr_str;
} WaitForChildData;
static void
check_complete (WaitForChildData *data)
{
if (data->child_status != -1 && data->stdout_io == NULL && data->stderr_io == NULL)
g_main_loop_quit (data->loop);
}
static void
child_exited (GPid pid,
gint status,
gpointer user_data)
{
WaitForChildData *data = user_data;
g_assert (status != -1);
data->child_status = status;
check_complete (data);
}
static gboolean
child_timeout (gpointer user_data)
{
WaitForChildData *data = user_data;
#ifdef G_OS_WIN32
TerminateProcess (data->pid, G_TEST_STATUS_TIMED_OUT);
#else
kill (data->pid, SIGALRM);
#endif
return FALSE;
}
static gboolean
child_read (GIOChannel *io, GIOCondition cond, gpointer user_data)
{
WaitForChildData *data = user_data;
GIOStatus status;
gsize nread, nwrote, total;
gchar buf[4096];
FILE *echo_file = NULL;
status = g_io_channel_read_chars (io, buf, sizeof (buf), &nread, NULL);
if (status == G_IO_STATUS_ERROR || status == G_IO_STATUS_EOF)
{
// FIXME data->error = (status == G_IO_STATUS_ERROR);
if (io == data->stdout_io)
g_clear_pointer (&data->stdout_io, g_io_channel_unref);
else
g_clear_pointer (&data->stderr_io, g_io_channel_unref);
check_complete (data);
return FALSE;
}
else if (status == G_IO_STATUS_AGAIN)
return TRUE;
if (io == data->stdout_io)
{
g_string_append_len (data->stdout_str, buf, nread);
if (data->echo_stdout)
echo_file = stdout;
}
else
{
g_string_append_len (data->stderr_str, buf, nread);
if (data->echo_stderr)
echo_file = stderr;
}
if (echo_file)
{
for (total = 0; total < nread; total += nwrote)
{
int errsv;
nwrote = fwrite (buf + total, 1, nread - total, echo_file);
errsv = errno;
if (nwrote == 0)
g_error ("write failed: %s", g_strerror (errsv));
}
}
return TRUE;
}
static void
wait_for_child (GPid pid,
int stdout_fd, gboolean echo_stdout,
int stderr_fd, gboolean echo_stderr,
guint64 timeout)
{
WaitForChildData data;
GMainContext *context;
GSource *source;
data.pid = pid;
data.child_status = -1;
context = g_main_context_new ();
data.loop = g_main_loop_new (context, FALSE);
source = g_child_watch_source_new (pid);
g_source_set_callback (source, (GSourceFunc) child_exited, &data, NULL);
g_source_attach (source, context);
g_source_unref (source);
data.echo_stdout = echo_stdout;
data.stdout_str = g_string_new (NULL);
data.stdout_io = g_io_channel_unix_new (stdout_fd);
g_io_channel_set_close_on_unref (data.stdout_io, TRUE);
g_io_channel_set_encoding (data.stdout_io, NULL, NULL);
g_io_channel_set_buffered (data.stdout_io, FALSE);
source = g_io_create_watch (data.stdout_io, G_IO_IN | G_IO_ERR | G_IO_HUP);
g_source_set_callback (source, (GSourceFunc) child_read, &data, NULL);
g_source_attach (source, context);
g_source_unref (source);
data.echo_stderr = echo_stderr;
data.stderr_str = g_string_new (NULL);
data.stderr_io = g_io_channel_unix_new (stderr_fd);
g_io_channel_set_close_on_unref (data.stderr_io, TRUE);
g_io_channel_set_encoding (data.stderr_io, NULL, NULL);
g_io_channel_set_buffered (data.stderr_io, FALSE);
source = g_io_create_watch (data.stderr_io, G_IO_IN | G_IO_ERR | G_IO_HUP);
g_source_set_callback (source, (GSourceFunc) child_read, &data, NULL);
g_source_attach (source, context);
g_source_unref (source);
if (timeout)
{
source = g_timeout_source_new (0);
g_source_set_ready_time (source, g_get_monotonic_time () + timeout);
g_source_set_callback (source, (GSourceFunc) child_timeout, &data, NULL);
g_source_attach (source, context);
g_source_unref (source);
}
g_main_loop_run (data.loop);
g_main_loop_unref (data.loop);
g_main_context_unref (context);
test_trap_last_pid = pid;
test_trap_last_status = data.child_status;
test_trap_last_stdout = g_string_free (data.stdout_str, FALSE);
test_trap_last_stderr = g_string_free (data.stderr_str, FALSE);
g_clear_pointer (&data.stdout_io, g_io_channel_unref);
g_clear_pointer (&data.stderr_io, g_io_channel_unref);
}
/**
* g_test_trap_fork:
* @usec_timeout: Timeout for the forked test in micro seconds.
* @test_trap_flags: Flags to modify forking behaviour.
*
* Fork the current test program to execute a test case that might
* not return or that might abort.
*
* If @usec_timeout is non-0, the forked test case is aborted and
* considered failing if its run time exceeds it.
*
* The forking behavior can be configured with the #GTestTrapFlags flags.
*
* In the following example, the test code forks, the forked child
* process produces some sample output and exits successfully.
* The forking parent process then asserts successful child program
* termination and validates child program outputs.
*
* |[<!-- language="C" -->
* static void
* test_fork_patterns (void)
* {
* if (g_test_trap_fork (0, G_TEST_TRAP_SILENCE_STDOUT | G_TEST_TRAP_SILENCE_STDERR))
* {
* g_print ("some stdout text: somagic17\n");
* g_printerr ("some stderr text: semagic43\n");
* exit (0); // successful test run
* }
* g_test_trap_assert_passed ();
* g_test_trap_assert_stdout ("*somagic17*");
* g_test_trap_assert_stderr ("*semagic43*");
* }
* ]|
*
* Returns: %TRUE for the forked child and %FALSE for the executing parent process.
*
* Since: 2.16
*
* Deprecated: This function is implemented only on Unix platforms,
* and is not always reliable due to problems inherent in
* fork-without-exec. Use g_test_trap_subprocess() instead.
*/
gboolean
g_test_trap_fork (guint64 usec_timeout,
GTestTrapFlags test_trap_flags)
{
#ifdef G_OS_UNIX
int stdout_pipe[2] = { -1, -1 };
int stderr_pipe[2] = { -1, -1 };
int errsv;
test_trap_clear();
if (pipe (stdout_pipe) < 0 || pipe (stderr_pipe) < 0)
{
errsv = errno;
g_error ("failed to create pipes to fork test program: %s", g_strerror (errsv));
}
test_trap_last_pid = fork ();
errsv = errno;
if (test_trap_last_pid < 0)
g_error ("failed to fork test program: %s", g_strerror (errsv));
if (test_trap_last_pid == 0) /* child */
{
int fd0 = -1;
test_in_forked_child = TRUE;
close (stdout_pipe[0]);
close (stderr_pipe[0]);
if (!(test_trap_flags & G_TEST_TRAP_INHERIT_STDIN))
{
fd0 = g_open ("/dev/null", O_RDONLY, 0);
if (fd0 < 0)
g_error ("failed to open /dev/null for stdin redirection");
}
if (sane_dup2 (stdout_pipe[1], 1) < 0 || sane_dup2 (stderr_pipe[1], 2) < 0 || (fd0 >= 0 && sane_dup2 (fd0, 0) < 0))
{
errsv = errno;
g_error ("failed to dup2() in forked test program: %s", g_strerror (errsv));
}
if (fd0 >= 3)
close (fd0);
if (stdout_pipe[1] >= 3)
close (stdout_pipe[1]);
if (stderr_pipe[1] >= 3)
close (stderr_pipe[1]);
return TRUE;
}
else /* parent */
{
test_run_forks++;
close (stdout_pipe[1]);
close (stderr_pipe[1]);
wait_for_child (test_trap_last_pid,
stdout_pipe[0], !(test_trap_flags & G_TEST_TRAP_SILENCE_STDOUT),
stderr_pipe[0], !(test_trap_flags & G_TEST_TRAP_SILENCE_STDERR),
usec_timeout);
return FALSE;
}
#else
g_message ("Not implemented: g_test_trap_fork");
return FALSE;
#endif
}
/**
* g_test_trap_subprocess:
* @test_path: (nullable): Test to run in a subprocess
* @usec_timeout: Timeout for the subprocess test in micro seconds.
* @test_flags: Flags to modify subprocess behaviour.
*
* Respawns the test program to run only @test_path in a subprocess.
* This can be used for a test case that might not return, or that
* might abort.
*
* If @test_path is %NULL then the same test is re-run in a subprocess.
* You can use g_test_subprocess() to determine whether the test is in
* a subprocess or not.
*
* @test_path can also be the name of the parent test, followed by
* "`/subprocess/`" and then a name for the specific subtest (or just
* ending with "`/subprocess`" if the test only has one child test);
* tests with names of this form will automatically be skipped in the
* parent process.
*
* If @usec_timeout is non-0, the test subprocess is aborted and
* considered failing if its run time exceeds it.
*
* The subprocess behavior can be configured with the
* #GTestSubprocessFlags flags.
*
* You can use methods such as g_test_trap_assert_passed(),
* g_test_trap_assert_failed(), and g_test_trap_assert_stderr() to
* check the results of the subprocess. (But note that
* g_test_trap_assert_stdout() and g_test_trap_assert_stderr()
* cannot be used if @test_flags specifies that the child should
* inherit the parent stdout/stderr.)
*
* If your `main ()` needs to behave differently in
* the subprocess, you can call g_test_subprocess() (after calling
* g_test_init()) to see whether you are in a subprocess.
*
* The following example tests that calling
* `my_object_new(1000000)` will abort with an error
* message.
*
* |[<!-- language="C" -->
* static void
* test_create_large_object (void)
* {
* if (g_test_subprocess ())
* {
* my_object_new (1000000);
* return;
* }
*
* // Reruns this same test in a subprocess
* g_test_trap_subprocess (NULL, 0, 0);
* g_test_trap_assert_failed ();
* g_test_trap_assert_stderr ("*ERROR*too large*");
* }
*
* int
* main (int argc, char **argv)
* {
* g_test_init (&argc, &argv, NULL);
*
* g_test_add_func ("/myobject/create_large_object",
* test_create_large_object);
* return g_test_run ();
* }
* ]|
*
* Since: 2.38
*/
void
g_test_trap_subprocess (const char *test_path,
guint64 usec_timeout,
GTestSubprocessFlags test_flags)
{
GError *error = NULL;
GPtrArray *argv;
GSpawnFlags flags;
int stdout_fd, stderr_fd;
GPid pid;
/* Sanity check that they used GTestSubprocessFlags, not GTestTrapFlags */
g_assert ((test_flags & (G_TEST_TRAP_INHERIT_STDIN | G_TEST_TRAP_SILENCE_STDOUT | G_TEST_TRAP_SILENCE_STDERR)) == 0);
if (test_path)
{
if (!g_test_suite_case_exists (g_test_get_root (), test_path))
g_error ("g_test_trap_subprocess: test does not exist: %s", test_path);
}
else
{
test_path = test_run_name;
}
if (g_test_verbose ())
g_print ("GTest: subprocess: %s\n", test_path);
test_trap_clear ();
test_trap_last_subprocess = g_strdup (test_path);
argv = g_ptr_array_new ();
g_ptr_array_add (argv, test_argv0);
g_ptr_array_add (argv, "-q");
g_ptr_array_add (argv, "-p");
g_ptr_array_add (argv, (char *)test_path);
g_ptr_array_add (argv, "--GTestSubprocess");
if (test_log_fd != -1)
{
char log_fd_buf[128];
g_ptr_array_add (argv, "--GTestLogFD");
g_snprintf (log_fd_buf, sizeof (log_fd_buf), "%d", test_log_fd);
g_ptr_array_add (argv, log_fd_buf);
}
g_ptr_array_add (argv, NULL);
flags = G_SPAWN_DO_NOT_REAP_CHILD;
if (test_flags & G_TEST_TRAP_INHERIT_STDIN)
flags |= G_SPAWN_CHILD_INHERITS_STDIN;
if (!g_spawn_async_with_pipes (test_initial_cwd,
(char **)argv->pdata,
NULL, flags,
NULL, NULL,
&pid, NULL, &stdout_fd, &stderr_fd,
&error))
{
g_error ("g_test_trap_subprocess() failed: %s",
error->message);
}
g_ptr_array_free (argv, TRUE);
wait_for_child (pid,
stdout_fd, !!(test_flags & G_TEST_SUBPROCESS_INHERIT_STDOUT),
stderr_fd, !!(test_flags & G_TEST_SUBPROCESS_INHERIT_STDERR),
usec_timeout);
}
/**
* g_test_subprocess:
*
* Returns %TRUE (after g_test_init() has been called) if the test
* program is running under g_test_trap_subprocess().
*
* Returns: %TRUE if the test program is running under
* g_test_trap_subprocess().
*
* Since: 2.38
*/
gboolean
g_test_subprocess (void)
{
return test_in_subprocess;
}
/**
* g_test_trap_has_passed:
*
* Check the result of the last g_test_trap_subprocess() call.
*
* Returns: %TRUE if the last test subprocess terminated successfully.
*
* Since: 2.16
*/
gboolean
g_test_trap_has_passed (void)
{
#ifdef G_OS_UNIX
return (WIFEXITED (test_trap_last_status) &&
WEXITSTATUS (test_trap_last_status) == 0);
#else
return test_trap_last_status == 0;
#endif
}
/**
* g_test_trap_reached_timeout:
*
* Check the result of the last g_test_trap_subprocess() call.
*
* Returns: %TRUE if the last test subprocess got killed due to a timeout.
*
* Since: 2.16
*/
gboolean
g_test_trap_reached_timeout (void)
{
#ifdef G_OS_UNIX
return (WIFSIGNALED (test_trap_last_status) &&
WTERMSIG (test_trap_last_status) == SIGALRM);
#else
return test_trap_last_status == G_TEST_STATUS_TIMED_OUT;
#endif
}
static gboolean
log_child_output (const gchar *process_id)
{
gchar *escaped;
#ifdef G_OS_UNIX
if (WIFEXITED (test_trap_last_status)) /* normal exit */
{
if (WEXITSTATUS (test_trap_last_status) == 0)
g_test_message ("child process (%s) exit status: 0 (success)",
process_id);
else
g_test_message ("child process (%s) exit status: %d (error)",
process_id, WEXITSTATUS (test_trap_last_status));
}
else if (WIFSIGNALED (test_trap_last_status) &&
WTERMSIG (test_trap_last_status) == SIGALRM)
{
g_test_message ("child process (%s) timed out", process_id);
}
else if (WIFSIGNALED (test_trap_last_status))
{
const gchar *maybe_dumped_core = "";
#ifdef WCOREDUMP
if (WCOREDUMP (test_trap_last_status))
maybe_dumped_core = ", core dumped";
#endif
g_test_message ("child process (%s) killed by signal %d (%s)%s",
process_id, WTERMSIG (test_trap_last_status),
g_strsignal (WTERMSIG (test_trap_last_status)),
maybe_dumped_core);
}
else
{
g_test_message ("child process (%s) unknown wait status %d",
process_id, test_trap_last_status);
}
#else
if (test_trap_last_status == 0)
g_test_message ("child process (%s) exit status: 0 (success)",
process_id);
else
g_test_message ("child process (%s) exit status: %d (error)",
process_id, test_trap_last_status);
#endif
escaped = g_strescape (test_trap_last_stdout, NULL);
g_test_message ("child process (%s) stdout: \"%s\"", process_id, escaped);
g_free (escaped);
escaped = g_strescape (test_trap_last_stderr, NULL);
g_test_message ("child process (%s) stderr: \"%s\"", process_id, escaped);
g_free (escaped);
/* so we can use short-circuiting:
* logged_child_output = logged_child_output || log_child_output (...) */
return TRUE;
}
void
g_test_trap_assertions (const char *domain,
const char *file,
int line,
const char *func,
guint64 assertion_flags, /* 0-pass, 1-fail, 2-outpattern, 4-errpattern */
const char *pattern)
{
gboolean must_pass = assertion_flags == 0;
gboolean must_fail = assertion_flags == 1;
gboolean match_result = 0 == (assertion_flags & 1);
gboolean logged_child_output = FALSE;
const char *stdout_pattern = (assertion_flags & 2) ? pattern : NULL;
const char *stderr_pattern = (assertion_flags & 4) ? pattern : NULL;
const char *match_error = match_result ? "failed to match" : "contains invalid match";
char *process_id;
#ifdef G_OS_UNIX
if (test_trap_last_subprocess != NULL)
{
process_id = g_strdup_printf ("%s [%d]", test_trap_last_subprocess,
test_trap_last_pid);
}
else if (test_trap_last_pid != 0)
process_id = g_strdup_printf ("%d", test_trap_last_pid);
#else
if (test_trap_last_subprocess != NULL)
process_id = g_strdup (test_trap_last_subprocess);
#endif
else
g_error ("g_test_trap_ assertion with no trapped test");
if (must_pass && !g_test_trap_has_passed())
{
char *msg;
logged_child_output = logged_child_output || log_child_output (process_id);
msg = g_strdup_printf ("child process (%s) failed unexpectedly", process_id);
g_assertion_message (domain, file, line, func, msg);
g_free (msg);
}
if (must_fail && g_test_trap_has_passed())
{
char *msg;
logged_child_output = logged_child_output || log_child_output (process_id);
msg = g_strdup_printf ("child process (%s) did not fail as expected", process_id);
g_assertion_message (domain, file, line, func, msg);
g_free (msg);
}
if (stdout_pattern && match_result == !g_pattern_match_simple (stdout_pattern, test_trap_last_stdout))
{
char *msg;
logged_child_output = logged_child_output || log_child_output (process_id);
msg = g_strdup_printf ("stdout of child process (%s) %s: %s", process_id, match_error, stdout_pattern);
g_assertion_message (domain, file, line, func, msg);
g_free (msg);
}
if (stderr_pattern && match_result == !g_pattern_match_simple (stderr_pattern, test_trap_last_stderr))
{
char *msg;
logged_child_output = logged_child_output || log_child_output (process_id);
msg = g_strdup_printf ("stderr of child process (%s) %s: %s", process_id, match_error, stderr_pattern);
g_assertion_message (domain, file, line, func, msg);
g_free (msg);
}
g_free (process_id);
}
static void
gstring_overwrite_int (GString *gstring,
guint pos,
guint32 vuint)
{
vuint = g_htonl (vuint);
g_string_overwrite_len (gstring, pos, (const gchar*) &vuint, 4);
}
static void
gstring_append_int (GString *gstring,
guint32 vuint)
{
vuint = g_htonl (vuint);
g_string_append_len (gstring, (const gchar*) &vuint, 4);
}
static void
gstring_append_double (GString *gstring,
double vdouble)
{
union { double vdouble; guint64 vuint64; } u;
u.vdouble = vdouble;
u.vuint64 = GUINT64_TO_BE (u.vuint64);
g_string_append_len (gstring, (const gchar*) &u.vuint64, 8);
}
static guint8*
g_test_log_dump (GTestLogMsg *msg,
guint *len)
{
GString *gstring = g_string_sized_new (1024);
guint ui;
gstring_append_int (gstring, 0); /* message length */
gstring_append_int (gstring, msg->log_type);
gstring_append_int (gstring, msg->n_strings);
gstring_append_int (gstring, msg->n_nums);
gstring_append_int (gstring, 0); /* reserved */
for (ui = 0; ui < msg->n_strings; ui++)
{
guint l = strlen (msg->strings[ui]);
gstring_append_int (gstring, l);
g_string_append_len (gstring, msg->strings[ui], l);
}
for (ui = 0; ui < msg->n_nums; ui++)
gstring_append_double (gstring, msg->nums[ui]);
*len = gstring->len;
gstring_overwrite_int (gstring, 0, *len); /* message length */
return (guint8*) g_string_free (gstring, FALSE);
}
static inline long double
net_double (const gchar **ipointer)
{
union { guint64 vuint64; double vdouble; } u;
guint64 aligned_int64;
memcpy (&aligned_int64, *ipointer, 8);
*ipointer += 8;
u.vuint64 = GUINT64_FROM_BE (aligned_int64);
return u.vdouble;
}
static inline guint32