/* 300sec > DSME SNOOZE TIMEOUT */
static void test_init_alarm_in5min(void)
{
load_alarmtracker(time(0)+300);
/* INTERNAL MSGs */
DSM_MSGTYPE_SET_ALARM_STATE *msg;
assert(message_queue_is_empty());
/* DBUS IF */
assert(dbusmsgq_async->len == 0);
assert(dbusmsgq_blocking->len == 0);
/* DSMESOCK */
assert((msg = queued_dsmesock(DSM_MSGTYPE_SET_ALARM_STATE)));
assert(msg->alarm_set);
free(msg);
assert(g_slist_length(dsmesock_broadcasts)==0);
assert(timer_exists());
sumtime(first_timer_seconds());
trigger_timer();
assert(!message_queue_is_empty());
assert((msg = queued(DSM_MSGTYPE_SET_ALARM_STATE)));
assert(msg->alarm_set);
free(msg);
assert(dbusmsgq_async->len == 0);
assert(dbusmsgq_blocking->len == 0);
assert(g_slist_length(dsmesock_broadcasts)==0);
assert(!timer_exists());
unload_alarmtracker();
}
static void testcase17(void)
{
/*
* 1. overheat
* 2. cool down before shutdown; we still have to shutdown
*/
module_t* state = load_state_module("USER", DSME_STATE_USER);
assert(!timer_exists());
// overheat
DSM_MSGTYPE_SET_THERMAL_STATE msg =
TEST_MSG_INIT(DSM_MSGTYPE_SET_THERMAL_STATE);
msg.overheated = true;
send_message(state, &msg);
assert(message_queue_is_empty());
assert(timer_exists());
// cool down
DSM_MSGTYPE_SET_THERMAL_STATE msg2 =
TEST_MSG_INIT(DSM_MSGTYPE_SET_THERMAL_STATE);
msg2.overheated = false;
send_message(state, &msg2);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
expect_shutdown(state);
unload_module_under_test(state);
}
static void testcase2b(void)
{
/*
* continue after booting to actdead
* 2. unplug a known to be plugged in charger
* 3. wait for the shutdown to happen
*/
module_t* state = load_state_module("ACT_DEAD", DSME_STATE_ACTDEAD);
assert(!timer_exists());
// unplug charger
connect_charger(state);
assert(!timer_exists());
assert(message_queue_is_empty());
disconnect_charger(state);
assert(timer_exists());
assert(message_queue_is_empty());
// plug charger
connect_charger(state);
assert(!timer_exists());
// unplug charger
disconnect_charger(state);
assert(message_queue_is_empty());
assert(timer_exists());
// wait for the shutdown
trigger_timer();
expect_shutdown(state);
unload_module_under_test(state);
}
static void expect_shutdown_or_reboot(module_t* module,
dsme_state_t state,
int runlevel)
{
DSM_MSGTYPE_STATE_CHANGE_IND* ind;
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == state);
free(ind);
DSM_MSGTYPE_SAVE_DATA_IND* ind2;
assert((ind2 = queued(DSM_MSGTYPE_SAVE_DATA_IND)));
free(ind2);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_SHUTDOWN* msg3;
assert((msg3 = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg3->runlevel == runlevel);
free(msg3);
assert(!timer_exists());
assert(message_queue_is_empty());
}
static void request_shutdown_expecting_actdead(module_t* state)
{
DSM_MSGTYPE_SHUTDOWN_REQ msg = TEST_MSG_INIT(DSM_MSGTYPE_SHUTDOWN_REQ);
send_message(state, &msg);
DSM_MSGTYPE_STATE_CHANGE_IND* ind;
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_ACTDEAD);
free(ind);
DSM_MSGTYPE_SAVE_DATA_IND* ind2;
assert((ind2 = queued(DSM_MSGTYPE_SAVE_DATA_IND)));
free(ind2);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_CHANGE_RUNLEVEL* msg2;
assert((msg2 = queued(DSM_MSGTYPE_CHANGE_RUNLEVEL)));
assert(msg2->runlevel == 5);
free(msg2);
assert(!timer_exists());
assert(message_queue_is_empty());
}
static void testcase21(void)
{
/* non-rd_mode cases and cal problems */
// non-rd_mode
rd_mode = "";
setenv("BOOTSTATE", "DIIBADAABA", true);
module_t* state = load_module_under_test("../modules/libstate.so");
unsetenv("BOOTSTATE");
DSM_MSGTYPE_STATE_CHANGE_IND* ind;
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_MALF);
free(ind);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_HWWD_KICK* ind3;
assert((ind3 = queued(DSM_MSGTYPE_HWWD_KICK)));
free(ind3);
DSM_MSGTYPE_SHUTDOWN* msg;
assert((msg = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg->runlevel == 8);
free(msg);
assert(message_queue_is_empty());
assert(!timer_exists());
unload_module_under_test(state);
// cal problem
rd_mode = 0;
setenv("BOOTSTATE", "DIIBADAABA", true);
state = load_module_under_test("../modules/libstate.so");
unsetenv("BOOTSTATE");
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_MALF);
free(ind);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
assert((ind3 = queued(DSM_MSGTYPE_HWWD_KICK)));
free(ind3);
assert((msg = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg->runlevel == 8);
free(msg);
assert(message_queue_is_empty());
assert(!timer_exists());
unload_module_under_test(state);
}
static void testcase23(void)
{
/* broken timers */
// thermal shutdown when not able to create a timer
dsme_create_timer_fails = 1;
module_t* state = load_state_module("USER", DSME_STATE_USER);
assert(!timer_exists());
DSM_MSGTYPE_SET_THERMAL_STATE msg =
TEST_MSG_INIT(DSM_MSGTYPE_SET_THERMAL_STATE);
msg.overheated = true;
send_message(state, &msg);
DSM_MSGTYPE_STATE_CHANGE_IND* ind2;
assert((ind2 = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind2->state == DSME_STATE_SHUTDOWN);
free(ind2);
DSM_MSGTYPE_SAVE_DATA_IND* ind3;
assert((ind3 = queued(DSM_MSGTYPE_SAVE_DATA_IND)));
free(ind3);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_HWWD_KICK* ind4;
assert((ind4 = queued(DSM_MSGTYPE_HWWD_KICK)));
free(ind4);
DSM_MSGTYPE_SHUTDOWN* msg2;
assert((msg2 = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg2->runlevel == 0);
free(msg2);
assert(!timer_exists());
assert(message_queue_is_empty());
unload_module_under_test(state);
// start in actdead and plug and unplug the charger, but timer fails
dsme_create_timer_fails = 1;
state = load_state_module("ACT_DEAD", DSME_STATE_ACTDEAD);
assert(!timer_exists());
connect_charger(state);
assert(message_queue_is_empty());
assert(!timer_exists());
disconnect_charger(state);
expect_shutdown(state);
assert(!timer_exists());
assert(message_queue_is_empty());
unload_module_under_test(state);
}
static void testcase12(void)
{
/* shutdown on empty battery */
module_t* state = load_state_module("USER", DSME_STATE_USER);
assert(!timer_exists());
// unplug charger
disconnect_charger(state);
// indicate an empty battery
DSM_MSGTYPE_SET_BATTERY_STATE msg =
TEST_MSG_INIT(DSM_MSGTYPE_SET_BATTERY_STATE);
msg.empty = true;
send_message(state, &msg);
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_BATTERY_EMPTY_IND* ind;
assert((ind = queued(DSM_MSGTYPE_BATTERY_EMPTY_IND)));
free(ind);
DSM_MSGTYPE_STATE_CHANGE_IND* ind2;
assert((ind2 = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind2->state == DSME_STATE_SHUTDOWN);
free(ind2);
DSM_MSGTYPE_SAVE_DATA_IND* ind3;
assert((ind3 = queued(DSM_MSGTYPE_SAVE_DATA_IND)));
free(ind3);
// expect shutdown
trigger_timer();
DSM_MSGTYPE_SHUTDOWN* msg2;
assert((msg2 = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg2->runlevel == 0);
free(msg2);
assert(!timer_exists());
assert(message_queue_is_empty());
unload_module_under_test(state);
}
/* Set alarm with com.nokia.time dbus interface */
static void test_init_set_alarm_in5min(void)
{
load_alarmtracker(0);
DBusMessage* alarm_setup_msg = dbus_message_new_signal("/com/nokia/time", "com.nokia.time", "next_bootup_event");
time_t new_alarm_time = time(0)+300;
dbus_message_append_args(alarm_setup_msg,
DBUS_TYPE_INT32, &new_alarm_time);
dsme_dbus_stub_send_signal(alarm_setup_msg);
free(alarm_setup_msg);
assert(!message_queue_is_empty());
assert(queued(DSM_MSGTYPE_WAIT));
assert(message_queue_is_empty());
DSM_MSGTYPE_WAKEUP wakeupmsg =
TEST_MSG_INIT(DSM_MSGTYPE_WAKEUP);
send_message(alarmtracker_module, &wakeupmsg);
/* INTERNAL MSGs */
DSM_MSGTYPE_SET_ALARM_STATE *msg;
assert(message_queue_is_empty());
/* DBUS IF */
assert(dbusmsgq_async->len == 0);
assert(dbusmsgq_blocking->len == 0);
/* DSMESOCK */
assert((msg = queued_dsmesock(DSM_MSGTYPE_SET_ALARM_STATE)));
assert(msg->alarm_set);
free(msg);
assert(g_slist_length(dsmesock_broadcasts)==0);
assert(timer_exists());
sumtime(first_timer_seconds());
trigger_timer();
assert(!message_queue_is_empty());
assert((msg = queued(DSM_MSGTYPE_SET_ALARM_STATE)));
assert(msg->alarm_set);
free(msg);
assert(dbusmsgq_async->len == 0);
assert(dbusmsgq_blocking->len == 0);
assert(g_slist_length(dsmesock_broadcasts)==0);
assert(!timer_exists());
unload_alarmtracker();
}
static void testcase5(void)
{
/*
* 1. request shutdown when charger is known to be unplugged
* 2. plug in charger before timer runs out
* => expect shutdown
*/
module_t* state = load_state_module("USER", DSME_STATE_USER);
assert(!timer_exists());
// unplug charger
disconnect_charger(state);
assert(message_queue_is_empty());
assert(!timer_exists());
// request shutdown
DSM_MSGTYPE_SHUTDOWN_REQ msg = TEST_MSG_INIT(DSM_MSGTYPE_SHUTDOWN_REQ);
send_message(state, &msg);
DSM_MSGTYPE_STATE_CHANGE_IND* ind;
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_SHUTDOWN);
free(ind);
DSM_MSGTYPE_SAVE_DATA_IND* ind2;
assert((ind2 = queued(DSM_MSGTYPE_SAVE_DATA_IND)));
free(ind2);
assert(message_queue_is_empty());
assert(timer_exists());
// plug in charger
connect_charger(state);
assert(message_queue_is_empty());
// expect shutdown
trigger_timer();
DSM_MSGTYPE_HWWD_KICK* ind3;
assert((ind3 = queued(DSM_MSGTYPE_HWWD_KICK)));
free(ind3);
DSM_MSGTYPE_SHUTDOWN* msg2;
assert((msg2 = queued(DSM_MSGTYPE_SHUTDOWN)));
assert(msg2->runlevel == 0);
free(msg2);
assert(!timer_exists());
assert(message_queue_is_empty());
unload_module_under_test(state);
}
irom static void gpio_init_timer(gpio_t *gpio)
{
const gpio_config_entry_t *cfg = get_config(gpio);
gpio->timer.delay = 0;
gpio_init_output(gpio);
if(cfg->timer.direction == gpio_up)
gpio_output_set(0, 1 << gpio->index, 0, 0);
else
gpio_output_set(1 << gpio->index, 0, 0, 0);
if(cfg->timer.autotrigger)
trigger_timer(gpio, 1);
}
static void testcase18(void)
{
/*
* 1. start in actdead
* 2. request startup
*/
module_t* state = load_state_module("ACT_DEAD", DSME_STATE_ACTDEAD);
assert(!timer_exists());
assert(message_queue_is_empty());
// query state
DSM_MSGTYPE_STATE_QUERY msg = TEST_MSG_INIT(DSM_MSGTYPE_STATE_QUERY);
send_message(state, &msg);
DSM_MSGTYPE_STATE_CHANGE_IND* ind;
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_ACTDEAD);
free(ind);
assert(message_queue_is_empty());
assert(!timer_exists());
// request startup
DSM_MSGTYPE_POWERUP_REQ msg2 = TEST_MSG_INIT(DSM_MSGTYPE_POWERUP_REQ);
send_message(state, &msg2);
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_USER);
free(ind);
assert(timer_exists());
trigger_timer();
DSM_MSGTYPE_CHANGE_RUNLEVEL* req;
assert((req = queued(DSM_MSGTYPE_CHANGE_RUNLEVEL)));
assert(req->runlevel == 2);
assert(message_queue_is_empty());
assert(!timer_exists());
// query state
send_message(state, &msg);
assert((ind = queued(DSM_MSGTYPE_STATE_CHANGE_IND)));
assert(ind->state == DSME_STATE_USER);
free(ind);
assert(message_queue_is_empty());
assert(!timer_exists());
unload_module_under_test(state);
}
static void testcase16(void)
{
/* thermal shutdown due to overheating */
module_t* state = load_state_module("USER", DSME_STATE_USER);
assert(!timer_exists());
DSM_MSGTYPE_SET_THERMAL_STATE msg =
TEST_MSG_INIT(DSM_MSGTYPE_SET_THERMAL_STATE);
msg.overheated = true;
send_message(state, &msg);
assert(message_queue_is_empty());
assert(timer_exists());
trigger_timer();
expect_shutdown(state);
unload_module_under_test(state);
}
static void testcase9(void)
{
/* start in actdead and plug and uplug the charger */
module_t* state = load_state_module("ACT_DEAD", DSME_STATE_ACTDEAD);
assert(!timer_exists());
// plug charger
connect_charger(state);
assert(message_queue_is_empty());
assert(!timer_exists());
// unplug charger
disconnect_charger(state);
assert(message_queue_is_empty());
assert(timer_exists());
// wait for the shutdown
trigger_timer();
expect_shutdown(state);
unload_module_under_test(state);
}
irom app_action_t application_function_gpio_set(application_parameters_t ap)
{
unsigned int gpio_index;
gpio_t *gpio;
const gpio_config_entry_t *cfg;
gpio_index = atoi((*ap.args)[1]);
if(!(gpio = find_gpio(gpio_index)))
{
snprintf(ap.dst, ap.size, "gpio-set: invalid gpio %u\n", gpio_index);
return(app_action_error);
}
cfg = get_config(gpio);
switch(cfg->mode)
{
case(gpio_disabled):
{
snprintf(ap.dst, ap.size, "gpio-set: gpio %s is disabled\n", gpio->name);
return(app_action_error);
}
case(gpio_input):
{
snprintf(ap.dst, ap.size, "gpio-set: gpio %s is input\n", gpio->name);
return(app_action_error);
}
case(gpio_counter):
{
if(ap.nargs < 3)
gpio->counter.count = 0;
else
gpio->counter.count = atoi((*ap.args)[2]);
break;
}
case(gpio_output):
{
if(ap.nargs < 3)
{
snprintf(ap.dst, ap.size, "gpio-set: missing arguments\n");
return(app_action_error);
}
set_output(gpio, !!atoi((*ap.args)[2]));
break;
}
case(gpio_timer):
{
if(ap.nargs == 3)
trigger_timer(gpio, !!atoi((*ap.args)[2]));
else
trigger_timer(gpio, !gpio->timer.delay);
break;
}
case(gpio_pwm):
{
unsigned int min_duty;
unsigned int max_duty;
unsigned int delay;
min_duty = 0;
max_duty = 0;
delay = 0;
if(ap.nargs > 2)
min_duty = atoi((*ap.args)[2]);
if(ap.nargs > 3)
max_duty = atoi((*ap.args)[3]);
if(ap.nargs > 4)
delay = atoi((*ap.args)[4]);
if(min_duty > 65535)
{
snprintf(ap.dst, ap.size, "gpio-set(pwm): min_duty too large: %u > 65535\n", min_duty);
return(app_action_error);
}
if(max_duty > 65535)
{
snprintf(ap.dst, ap.size, "gpio-set(pwm): max_duty too large: %u > 65535\n", max_duty);
return(app_action_error);
}
if(delay > 100)
{
snprintf(ap.dst, ap.size, "gpio-set: gpio %s, delay %u%% > 100%%\n", gpio->name, delay);
return(app_action_error);
}
gpio->pwm.min_duty = min_duty;
gpio->pwm.max_duty = max_duty;
gpio->pwm.delay_top = delay;
gpio->pwm.direction = gpio_up;
pwm_set_duty(min_duty, gpio->pwm.channel);
pwm_start();
break;
}
case(gpio_i2c):
{
snprintf(ap.dst, ap.size, "gpio-set: gpio %s is reserved for i2c\n", gpio->name);
return(app_action_error);
}
default:
{
snprintf(ap.dst, ap.size, "gpio-set: cannot set gpio %u\n", cfg->mode);
return(app_action_error);
}
}
dump(&config->gpios, gpio, ap.size, ap.dst);
return(app_action_normal);
}
