* The assumption here is that valid pointers never point to low
* memory regions. This helps catching pointers taken from
* struct/class memebers when the struct pointer was NULL.
+ *
+ * \see ASSERT_VALID_PTR_OR_NULL()
*/
- #define ASSERT_VALID_PTR(p) ((void)(LIKELY((p) >= (void *)CPU_RAM_START) \
+ #define ASSERT_VALID_PTR(p) ((void)(LIKELY((void *)(p) >= (void *)CPU_RAM_START) \
? 0 : __invalid_ptr(p, #p, THIS_FILE, __LINE__)))
/**
* Check that the given pointer is not pointing to invalid memory.
*
+ * \note The check for invalid memory is architecture specific and
+ * conservative. The current implementation only checks against
+ * a lower bound.
+ *
* \see ASSERT_VALID_PTR()
*/
- #define ASSERT_VALID_PTR_OR_NULL(p) ((void)(LIKELY((p == NULL) || ((p) >= (void *)CPU_RAM_START)) \
+ #define ASSERT_VALID_PTR_OR_NULL(p) ((void)(LIKELY((p == NULL) \
+ || ((void *)(p) >= (void *)CPU_RAM_START)) \
? 0 : __invalid_ptr((p), #p, THIS_FILE, __LINE__)))
#if !CONFIG_KDEBUG_DISABLE_TRACE
static void timer_test_constants(void)
{
- kprintf("TIMER_HW_HPTICKS_PER_SEC=%lu\n", TIMER_HW_HPTICKS_PER_SEC);
+ kprintf("TIMER_HW_HPTICKS_PER_SEC=%lu\n", (unsigned long)TIMER_HW_HPTICKS_PER_SEC);
#ifdef TIMER_PRESCALER
- kprintf("TIMER_PRESCALER=%d\n", TIMER_PRESCALER);
+ kprintf("TIMER_PRESCALER = %lu\n", (unsigned long)TIMER_PRESCALER);
#endif
#ifdef TIMER1_OVF_COUNT
- kprintf("TIMER1_OVF_COUNT=%d\n", (int)TIMER1_OVF_COUNT);
+ kprintf("TIMER1_OVF_COUNT = %lu\n", (unsigned long)TIMER1_OVF_COUNT);
#endif
- kprintf("TIMER_TICKS_PER_SEC=%d\n", (int)TIMER_TICKS_PER_SEC);
+ kprintf("TIMER_TICKS_PER_SEC= %lu\n", (unsigned long)TIMER_TICKS_PER_SEC);
kprintf("\n");
- kprintf("ms_to_ticks(100)=%lu\n", ms_to_ticks(100));
- kprintf("ms_to_ticks(10000)=%lu\n", ms_to_ticks(10000));
- kprintf("us_to_ticks(100)=%lu\n", us_to_ticks(100));
- kprintf("us_to_ticks(10000)=%lu\n", us_to_ticks(10000));
+ kprintf("ms_to_ticks(100) = %lu\n", (unsigned long)ms_to_ticks(100));
+ kprintf("ms_to_ticks(10000) = %lu\n", (unsigned long)ms_to_ticks(10000));
+ kprintf("us_to_ticks(100) = %lu\n", (unsigned long)us_to_ticks(100));
+ kprintf("us_to_ticks(10000) = %lu\n", (unsigned long)us_to_ticks(10000));
kprintf("\n");
- kprintf("ticks_to_ms(100)=%lu\n", ticks_to_ms(100));
- kprintf("ticks_to_ms(10000)=%lu\n", ticks_to_ms(10000));
- kprintf("ticks_to_us(100)=%lu\n", ticks_to_us(100));
- kprintf("ticks_to_us(10000)=%lu\n", ticks_to_us(10000));
+ kprintf("ticks_to_ms(100) = %lu\n", (unsigned long)ticks_to_ms(100));
+ kprintf("ticks_to_ms(10000) = %lu\n", (unsigned long)ticks_to_ms(10000));
+ kprintf("ticks_to_us(100) = %lu\n", (unsigned long)ticks_to_us(100));
+ kprintf("ticks_to_us(10000) = %lu\n", (unsigned long)ticks_to_us(10000));
kprintf("\n");
- kprintf("hptime_to_us(100)=%ld\n", hptime_to_us(100));
- kprintf("hptime_to_us(10000)=%lu\n", hptime_to_us(10000));
- kprintf("us_to_hptime(100)=%lu\n", us_to_hptime(100));
- kprintf("us_to_hptime(10000)=%lu\n", us_to_hptime(10000));
+ kprintf("hptime_to_us(100) = %lu\n", (unsigned long)hptime_to_us(100));
+ kprintf("hptime_to_us(10000)= %lu\n", (unsigned long)hptime_to_us(10000));
+ kprintf("us_to_hptime(100) = %lu\n", (unsigned long)us_to_hptime(100));
+ kprintf("us_to_hptime(10000)= %lu\n", (unsigned long)us_to_hptime(10000));
}
static void timer_test_delay(void)
{
Timer *timer = (Timer *)(void *)_timer;
- kprintf("Timer %ld expired\n", ticks_to_ms(timer->_delay));
+ kprintf("Timer %lu expired\n", (unsigned long)ticks_to_ms(timer->_delay));
timer_add(timer);
}
{
Timer *timer = &test_timers[i];
timer_setDelay(timer, ms_to_ticks(test_delays[i]));
- timer_set_event_softint(timer, timer_test_hook, (iptr_t)timer);
+ timer_setSoftint(timer, timer_test_hook, (iptr_t)timer);
timer_add(timer);
}
}
{
++secs;
start_time += 1000;
- kprintf("seconds = %d, ticks=%ld\n", secs, now);
+ kprintf("seconds = %d, ticks=%lu\n", secs, (unsigned long)now);
}
wdt_reset();
}