| 1 | #ifdef TEST_APC |
| 2 | #include <sch/sched.h> |
| 3 | #include <test.h> |
| 4 | #include <thread/apc.h> |
| 5 | #include <thread/reaper.h> |
| 6 | #include <thread/thread.h> |
| 7 | #include <thread/workqueue.h> |
| 8 | #include <time/spin_sleep.h> |
| 9 | |
| 10 | static atomic_bool apc_ran = false; |
| 11 | static void the_apc(void *a) { |
| 12 | atomic_store(&apc_ran, true); |
| 13 | } |
| 14 | |
| 15 | static void apc_thread(void *) { |
| 16 | while (!atomic_load(&apc_ran)) |
| 17 | scheduler_yield(); |
| 18 | } |
| 19 | |
| 20 | static struct thread *ted = NULL; |
| 21 | TEST_DECLARE(apc_test, .tier = TEST_TIER_UNIT) { |
| 22 | ted = thread_spawn(name: "apc_test_thread" , entry: apc_thread, NULL); |
| 23 | struct apc *a = kmalloc(sizeof(struct apc), ALLOC_FLAGS_ZERO); |
| 24 | if (!a || !ted) |
| 25 | goto pluh; |
| 26 | |
| 27 | apc_init(a, fn: the_apc, NULL); |
| 28 | |
| 29 | apc_enqueue(t: ted, a, type: APC_TYPE_KERNEL); |
| 30 | |
| 31 | while (!atomic_load(&apc_ran)) |
| 32 | scheduler_yield(); |
| 33 | |
| 34 | pluh: |
| 35 | return TEST_SUCCESS; |
| 36 | } |
| 37 | |
| 38 | static atomic_uint the_event_apc_ran_times = 0; |
| 39 | static atomic_bool event_apc_test_ok = false; |
| 40 | static void the_event_apc(void *pc) { |
| 41 | atomic_fetch_add(&the_event_apc_ran_times, 1); |
| 42 | } |
| 43 | |
| 44 | APC_EVENT_CREATE(apc_event_test, "TEST_EVENT" ); |
| 45 | |
| 46 | static void apc_event_test_thread(void *) { |
| 47 | /* We want to enqueue an event APC, then raise to DISPATCH, trigger it a |
| 48 | * few times, check that no APCs got triggered, and then lower from there, |
| 49 | * and then check that APCs got triggered, and then test masking, etc. */ |
| 50 | struct event_apc *evtapc = apc_event_apc_create(); |
| 51 | apc_event_apc_init(a: evtapc, fn: the_event_apc, NULL); |
| 52 | apc_enqueue_event_apc(a: evtapc, APC_EVENT(apc_event_test)); |
| 53 | |
| 54 | enum irql old = irql_raise(new_level: IRQL_DISPATCH_LEVEL); |
| 55 | apc_event_signal(APC_EVENT(apc_event_test)); |
| 56 | TEST_ASSERT_VOID(atomic_load(&the_event_apc_ran_times) == 0); |
| 57 | irql_lower(old_level: old); |
| 58 | |
| 59 | TEST_ASSERT_VOID(atomic_load(&the_event_apc_ran_times) == 1); |
| 60 | |
| 61 | apc_disable_kernel(); |
| 62 | apc_event_signal(APC_EVENT(apc_event_test)); |
| 63 | TEST_ASSERT_VOID(atomic_load(&the_event_apc_ran_times) == 1); |
| 64 | apc_enable_kernel(); |
| 65 | |
| 66 | TEST_ASSERT_VOID(atomic_load(&the_event_apc_ran_times) == 2); |
| 67 | apc_event_signal(APC_EVENT(apc_event_test)); |
| 68 | TEST_ASSERT_VOID(atomic_load(&the_event_apc_ran_times) == 3); |
| 69 | atomic_store(&event_apc_test_ok, true); |
| 70 | } |
| 71 | |
| 72 | static struct thread *ated = NULL; |
| 73 | TEST_DECLARE(apc_event_test, .tier = TEST_TIER_UNIT) { |
| 74 | ated = thread_spawn(name: "apc_event_test_thread" , entry: apc_event_test_thread, NULL); |
| 75 | while (!atomic_load(&event_apc_test_ok)) |
| 76 | scheduler_yield(); |
| 77 | |
| 78 | return TEST_SUCCESS; |
| 79 | } |
| 80 | |
| 81 | #endif |
| 82 | |