static void test_002_003_execute(void) {
systime_t time;
msg_t msg;
/* The function chSemWaitTimeout() is invoked, after return the system
time, the counter and the returned message are tested.*/
test_set_step(1);
{
time = chVTGetSystemTimeX();
msg = chSemWaitTimeout(&sem1, MS2ST(1000));
test_assert_time_window(time + MS2ST(1000),
time + MS2ST(1000) + 1,
"out of time window");
test_assert_lock(chSemGetCounterI(&sem1) == 0,
"wrong counter value");
test_assert(MSG_TIMEOUT == msg,
"wrong timeout message");
}
/* The function chSemWaitTimeout() is invoked, after return the system
time, the counter and the returned message are tested.*/
test_set_step(2);
{
time = chVTGetSystemTimeX();
msg = chSemWaitTimeout(&sem1, MS2ST(1000));
test_assert_time_window(time + MS2ST(1000),
time + MS2ST(1000) + 1,
"out of time window");
test_assert_lock(chSemGetCounterI(&sem1) == 0,
"wrong counter value");
test_assert(MSG_TIMEOUT == msg,
"wrong timeout message");
}
}
static void rt_test_005_001_execute(void) {
/* [5.1.1] The function chSemWait() is invoked, after return the
counter and the returned message are tested.*/
test_set_step(1);
{
msg_t msg;
msg = chSemWait(&sem1);
test_assert_lock(chSemGetCounterI(&sem1) == 0, "wrong counter value");
test_assert(MSG_OK == msg, "wrong returned message");
}
/* [5.1.2] The function chSemSignal() is invoked, after return the
counter is tested.*/
test_set_step(2);
{
chSemSignal(&sem1);
test_assert_lock(chSemGetCounterI(&sem1) == 1, "wrong counter value");
}
/* [5.1.3] The function chSemReset() is invoked, after return the
counter is tested.*/
test_set_step(3);
{
chSemReset(&sem1, 2);
test_assert_lock(chSemGetCounterI(&sem1) == 2, "wrong counter value");
}
}
static void test_002_002_execute(void) {
/* The function chSemWait() is invoked, after return the counter and
the returned message are tested. The semaphore is signaled by another
thread.*/
test_set_step(1);
{
msg_t msg;
msg = chSemWait(&gsem1);
test_assert_lock(chSemGetCounterI(&gsem1) == 0,
"wrong counter value");
test_assert(MSG_OK == msg,
"wrong returned message");
}
/* The function chSemWait() is invoked, after return the counter and
the returned message are tested. The semaphore is reset by another
thread.*/
test_set_step(2);
{
msg_t msg;
msg = chSemWait(&gsem2);
test_assert_lock(chSemGetCounterI(&gsem2) == 0,
"wrong counter value");
test_assert(MSG_RESET == msg,
"wrong returned message");
}
}
static void queues1_execute(void) {
unsigned i;
size_t n;
/* Initial empty state */
test_assert_lock(1, chIQIsEmptyI(&iq), "not empty");
/* Queue filling */
chSysLock();
for (i = 0; i < TEST_QUEUES_SIZE; i++)
chIQPutI(&iq, 'A' + i);
chSysUnlock();
test_assert_lock(2, chIQIsFullI(&iq), "still has space");
test_assert_lock(3, chIQPutI(&iq, 0) == Q_FULL, "failed to report Q_FULL");
/* Queue emptying */
for (i = 0; i < TEST_QUEUES_SIZE; i++)
test_emit_token(chIQGet(&iq));
test_assert_lock(4, chIQIsEmptyI(&iq), "still full");
test_assert_sequence(5, "ABCD");
/* Queue filling again */
chSysLock();
for (i = 0; i < TEST_QUEUES_SIZE; i++)
chIQPutI(&iq, 'A' + i);
chSysUnlock();
/* Reading the whole thing */
n = chIQReadTimeout(&iq, wa[1], TEST_QUEUES_SIZE * 2, TIME_IMMEDIATE);
test_assert(6, n == TEST_QUEUES_SIZE, "wrong returned size");
test_assert_lock(7, chIQIsEmptyI(&iq), "still full");
/* Queue filling again */
chSysLock();
for (i = 0; i < TEST_QUEUES_SIZE; i++)
chIQPutI(&iq, 'A' + i);
chSysUnlock();
/* Partial reads */
n = chIQReadTimeout(&iq, wa[1], TEST_QUEUES_SIZE / 2, TIME_IMMEDIATE);
test_assert(8, n == TEST_QUEUES_SIZE / 2, "wrong returned size");
n = chIQReadTimeout(&iq, wa[1], TEST_QUEUES_SIZE / 2, TIME_IMMEDIATE);
test_assert(9, n == TEST_QUEUES_SIZE / 2, "wrong returned size");
test_assert_lock(10, chIQIsEmptyI(&iq), "still full");
/* Testing reset */
chSysLock();
chIQPutI(&iq, 0);
chIQResetI(&iq);
chSysUnlock();
test_assert_lock(11, chIQGetFullI(&iq) == 0, "still full");
threads[0] = chThdCreateStatic(wa[0], WA_SIZE, chThdGetPriorityX()+1, thread1, NULL);
test_assert_lock(12, chIQGetFullI(&iq) == 0, "not empty");
test_wait_threads();
/* Timeout */
test_assert(13, chIQGetTimeout(&iq, 10) == Q_TIMEOUT, "wrong timeout return");
}
static void rt_test_005_006_execute(void) {
binary_semaphore_t bsem;
msg_t msg;
/* [5.6.1] Creating a binary semaphore in "taken" state, the state is
checked.*/
test_set_step(1);
{
chBSemObjectInit(&bsem, true);
test_assert_lock(chBSemGetStateI(&bsem) == true, "not taken");
}
/* [5.6.2] Resetting the binary semaphore in "taken" state, the state
must not change.*/
test_set_step(2);
{
chBSemReset(&bsem, true);
test_assert_lock(chBSemGetStateI(&bsem) == true, "not taken");
}
/* [5.6.3] Starting a signaler thread at a lower priority.*/
test_set_step(3);
{
threads[0] = chThdCreateStatic(wa[0], WA_SIZE,
chThdGetPriorityX()-1, thread4, &bsem);
}
/* [5.6.4] Waiting for the binary semaphore to be signaled, the
semaphore is expected to be taken.*/
test_set_step(4);
{
msg = chBSemWait(&bsem);
test_assert_lock(chBSemGetStateI(&bsem) == true, "not taken");
test_assert(msg == MSG_OK, "unexpected message");
}
/* [5.6.5] Signaling the binary semaphore, checking the binary
semaphore state to be "not taken" and the underlying counter
semaphore counter to be one.*/
test_set_step(5);
{
chBSemSignal(&bsem);
test_assert_lock(chBSemGetStateI(&bsem) ==false, "still taken");
test_assert_lock(chSemGetCounterI(&bsem.sem) == 1, "unexpected counter");
}
/* [5.6.6] Signaling the binary semaphore again, the internal state
must not change from "not taken".*/
test_set_step(6);
{
chBSemSignal(&bsem);
test_assert_lock(chBSemGetStateI(&bsem) == false, "taken");
test_assert_lock(chSemGetCounterI(&bsem.sem) == 1, "unexpected counter");
}
}
static void queues2_execute(void) {
unsigned i;
size_t n;
/* Initial empty state */
test_assert_lock(1, chOQIsEmptyI(&oq), "not empty");
/* Queue filling */
for (i = 0; i < TEST_QUEUES_SIZE; i++)
chOQPut(&oq, 'A' + i);
test_assert_lock(2, chOQIsFullI(&oq), "still has space");
/* Queue emptying */
for (i = 0; i < TEST_QUEUES_SIZE; i++) {
char c;
chSysLock();
c = chOQGetI(&oq);
chSysUnlock();
test_emit_token(c);
}
test_assert_lock(3, chOQIsEmptyI(&oq), "still full");
test_assert_sequence(4, "ABCD");
test_assert_lock(5, chOQGetI(&oq) == Q_EMPTY, "failed to report Q_EMPTY");
/* Writing the whole thing */
n = chOQWriteTimeout(&oq, wa[1], TEST_QUEUES_SIZE * 2, TIME_IMMEDIATE);
test_assert(6, n == TEST_QUEUES_SIZE, "wrong returned size");
test_assert_lock(7, chOQIsFullI(&oq), "not full");
threads[0] = chThdCreateStatic(wa[0], WA_SIZE, chThdGetPriorityX()+1, thread2, NULL);
test_assert_lock(8, chOQGetFullI(&oq) == TEST_QUEUES_SIZE, "not empty");
test_wait_threads();
/* Testing reset */
chSysLock();
chOQResetI(&oq);
chSysUnlock();
test_assert_lock(9, chOQGetFullI(&oq) == 0, "still full");
/* Partial writes */
n = chOQWriteTimeout(&oq, wa[1], TEST_QUEUES_SIZE / 2, TIME_IMMEDIATE);
test_assert(10, n == TEST_QUEUES_SIZE / 2, "wrong returned size");
n = chOQWriteTimeout(&oq, wa[1], TEST_QUEUES_SIZE / 2, TIME_IMMEDIATE);
test_assert(11, n == TEST_QUEUES_SIZE / 2, "wrong returned size");
test_assert_lock(12, chOQIsFullI(&oq), "not full");
/* Timeout */
test_assert(13, chOQPutTimeout(&oq, 0, 10) == Q_TIMEOUT, "wrong timeout return");
}
static void rt_test_005_004_execute(void) {
/* [5.4.1] A thread is created, it goes to wait on the semaphore.*/
test_set_step(1);
{
threads[0] = chThdCreateStatic(wa[0], WA_SIZE, chThdGetPriorityX()+1, thread1, "A");
}
/* [5.4.2] The semaphore counter is increased by two, it is then
tested to be one, the thread must have completed.*/
test_set_step(2);
{
chSysLock();
chSemAddCounterI(&sem1, 2);
chSchRescheduleS();
chSysUnlock();
test_wait_threads();
test_assert_lock(chSemGetCounterI(&sem1) == 1, "invalid counter");
test_assert_sequence("A", "invalid sequence");
}
}
static void mbox1_execute(void) {
msg_t msg1, msg2;
unsigned i;
/*
* Testing initial space.
*/
test_assert_lock(1, chMBGetFreeCountI(&mb1) == MB_SIZE, "wrong size");
/*
* Testing enqueuing and backward circularity.
*/
for (i = 0; i < MB_SIZE - 1; i++) {
msg1 = chMBPost(&mb1, 'B' + i, TIME_INFINITE);
test_assert(2, msg1 == MSG_OK, "wrong wake-up message");
}
msg1 = chMBPostAhead(&mb1, 'A', TIME_INFINITE);
test_assert(3, msg1 == MSG_OK, "wrong wake-up message");
/*
* Testing post timeout.
*/
msg1 = chMBPost(&mb1, 'X', 1);
test_assert(4, msg1 == MSG_TIMEOUT, "wrong wake-up message");
chSysLock();
msg1 = chMBPostI(&mb1, 'X');
chSysUnlock();
test_assert(5, msg1 == MSG_TIMEOUT, "wrong wake-up message");
msg1 = chMBPostAhead(&mb1, 'X', 1);
test_assert(6, msg1 == MSG_TIMEOUT, "wrong wake-up message");
chSysLock();
msg1 = chMBPostAheadI(&mb1, 'X');
chSysUnlock();
test_assert(7, msg1 == MSG_TIMEOUT, "wrong wake-up message");
/*
* Testing final conditions.
*/
test_assert_lock(8, chMBGetFreeCountI(&mb1) == 0, "still empty");
test_assert_lock(9, chMBGetUsedCountI(&mb1) == MB_SIZE, "not full");
test_assert_lock(10, mb1.rdptr == mb1.wrptr, "pointers not aligned");
/*
* Testing dequeuing.
*/
for (i = 0; i < MB_SIZE; i++) {
msg1 = chMBFetch(&mb1, &msg2, TIME_INFINITE);
test_assert(11, msg1 == MSG_OK, "wrong wake-up message");
test_emit_token(msg2);
}
test_assert_sequence(12, "ABCDE");
/*
* Testing buffer circularity.
*/
msg1 = chMBPost(&mb1, 'B' + i, TIME_INFINITE);
test_assert(13, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBFetch(&mb1, &msg2, TIME_INFINITE);
test_assert(14, msg1 == MSG_OK, "wrong wake-up message");
test_assert(15, mb1.buffer == mb1.wrptr, "write pointer not aligned to base");
test_assert(16, mb1.buffer == mb1.rdptr, "read pointer not aligned to base");
/*
* Testing fetch timeout.
*/
msg1 = chMBFetch(&mb1, &msg2, 1);
test_assert(17, msg1 == MSG_TIMEOUT, "wrong wake-up message");
chSysLock();
msg1 = chMBFetchI(&mb1, &msg2);
chSysUnlock();
test_assert(18, msg1 == MSG_TIMEOUT, "wrong wake-up message");
/*
* Testing final conditions.
*/
test_assert_lock(19, chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(20, chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert_lock(21, mb1.rdptr == mb1.wrptr, "pointers not aligned");
/*
* Testing I-Class.
*/
chSysLock();
msg1 = chMBPostI(&mb1, 'A');
test_assert(22, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostI(&mb1, 'B');
test_assert(23, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostI(&mb1, 'C');
test_assert(24, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostI(&mb1, 'D');
test_assert(25, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostI(&mb1, 'E');
chSysUnlock();
test_assert(26, msg1 == MSG_OK, "wrong wake-up message");
test_assert(27, mb1.rdptr == mb1.wrptr, "pointers not aligned");
for (i = 0; i < MB_SIZE; i++) {
chSysLock();
msg1 = chMBFetchI(&mb1, &msg2);
chSysUnlock();
test_assert(28, msg1 == MSG_OK, "wrong wake-up message");
test_emit_token(msg2);
}
test_assert_sequence(29, "ABCDE");
test_assert_lock(30, chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(31, chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert(32, mb1.rdptr == mb1.wrptr, "pointers not aligned");
chSysLock();
msg1 = chMBPostAheadI(&mb1, 'E');
test_assert(33, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostAheadI(&mb1, 'D');
test_assert(34, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostAheadI(&mb1, 'C');
test_assert(35, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostAheadI(&mb1, 'B');
test_assert(36, msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBPostAheadI(&mb1, 'A');
chSysUnlock();
test_assert(37, msg1 == MSG_OK, "wrong wake-up message");
test_assert(38, mb1.rdptr == mb1.wrptr, "pointers not aligned");
for (i = 0; i < MB_SIZE; i++) {
chSysLock();
msg1 = chMBFetchI(&mb1, &msg2);
chSysUnlock();
test_assert(39, msg1 == MSG_OK, "wrong wake-up message");
test_emit_token(msg2);
}
test_assert_sequence(40, "ABCDE");
test_assert_lock(41, chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(42, chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert(43, mb1.rdptr == mb1.wrptr, "pointers not aligned");
/*
* Testing reset.
*/
chMBReset(&mb1);
/*
* Re-testing final conditions.
*/
test_assert_lock(44, chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(45, chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert_lock(46, mb1.buffer == mb1.wrptr, "write pointer not aligned to base");
test_assert_lock(47, mb1.buffer == mb1.rdptr, "read pointer not aligned to base");
}
static void test_008_001_execute(void) {
msg_t msg1, msg2;
unsigned i;
/* [8.1.1] Testing the mailbox size.*/
test_set_step(1);
{
test_assert_lock(chMBGetFreeCountI(&mb1) == MB_SIZE, "wrong size");
}
/* [8.1.2] Resetting the mailbox, conditions are checked, no errors
expected.*/
test_set_step(2);
{
chMBReset(&mb1);
test_assert_lock(chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert_lock(mb1.buffer == mb1.wrptr, "write pointer not aligned to base");
test_assert_lock(mb1.buffer == mb1.rdptr, "read pointer not aligned to base");
}
/* [8.1.3] Filling the mailbox using chMBPost() and chMBPostAhead()
once, no errors expected.*/
test_set_step(3);
{
for (i = 0; i < MB_SIZE - 1; i++) {
msg1 = chMBPost(&mb1, 'B' + i, TIME_INFINITE);
test_assert(msg1 == MSG_OK, "wrong wake-up message");
}
msg1 = chMBPostAhead(&mb1, 'A', TIME_INFINITE);
test_assert(msg1 == MSG_OK, "wrong wake-up message");
}
/* [8.1.4] Testing intermediate conditions. Data pointers must be
aligned, semaphore counters are checked.*/
test_set_step(4);
{
test_assert_lock(chMBGetFreeCountI(&mb1) == 0, "still empty");
test_assert_lock(chMBGetUsedCountI(&mb1) == MB_SIZE, "not full");
test_assert_lock(mb1.rdptr == mb1.wrptr, "pointers not aligned");
}
/* [8.1.5] Emptying the mailbox using chMBFetch(), no errors
expected.*/
test_set_step(5);
{
for (i = 0; i < MB_SIZE; i++) {
msg1 = chMBFetch(&mb1, &msg2, TIME_INFINITE);
test_assert(msg1 == MSG_OK, "wrong wake-up message");
test_emit_token(msg2);
}
test_assert_sequence("ABCD", "wrong get sequence");
}
/* [8.1.6] Posting and then fetching one more message, no errors
expected.*/
test_set_step(6);
{
msg1 = chMBPost(&mb1, 'B' + i, TIME_INFINITE);
test_assert(msg1 == MSG_OK, "wrong wake-up message");
msg1 = chMBFetch(&mb1, &msg2, TIME_INFINITE);
test_assert(msg1 == MSG_OK, "wrong wake-up message");
}
/* [8.1.7] Testing final conditions. Data pointers must be aligned to
buffer start, semaphore counters are checked.*/
test_set_step(7);
{
test_assert_lock(chMBGetFreeCountI(&mb1) == MB_SIZE, "not empty");
test_assert_lock(chMBGetUsedCountI(&mb1) == 0, "still full");
test_assert(mb1.buffer == mb1.wrptr, "write pointer not aligned to base");
test_assert(mb1.buffer == mb1.rdptr, "read pointer not aligned to base");
}
}
