static __xdata uint8_t ao_pad_ignite;
static __xdata struct ao_pad_command command;
static __xdata struct ao_pad_query query;
+static __pdata uint8_t ao_pad_armed;
+static __pdata uint16_t ao_pad_arm_time;
+static __pdata uint8_t ao_pad_box;
+static __xdata uint8_t ao_pad_disabled;
+
+#define DEBUG 1
-#if 1
-#define PRINTD(...) printf(__VA_ARGS__)
-#define FLUSHD() flush()
+#if DEBUG
+static __pdata uint8_t ao_pad_debug;
+#define PRINTD(...) (ao_pad_debug ? (printf(__VA_ARGS__), 0) : 0)
+#define FLUSHD() (ao_pad_debug ? (flush(), 0) : 0)
#else
#define PRINTD(...)
#define FLUSHD()
#endif
+static void
+ao_siren(uint8_t v)
+{
+#ifdef AO_SIREN
+ ao_gpio_set(AO_SIREN_PORT, AO_SIREN_PIN, AO_SIREN, v);
+#else
+ ao_beep(v ? AO_BEEP_MID : 0);
+#endif
+}
+
+static void
+ao_strobe(uint8_t v)
+{
+#ifdef AO_STROBE
+ ao_gpio_set(AO_STROBE_PORT, AO_STROBE_PIN, AO_STROBE, v);
+#endif
+}
+
static void
ao_pad_run(void)
{
+ uint8_t pins;
+
for (;;) {
while (!ao_pad_ignite)
ao_sleep(&ao_pad_ignite);
/*
* Actually set the pad bits
*/
- AO_PAD_PORT = (AO_PAD_PORT & (~AO_PAD_ALL_PINS)) | ao_pad_ignite;
+ pins = 0;
+#if AO_PAD_NUM > 0
+ if (ao_pad_ignite & (1 << 0))
+ pins |= (1 << AO_PAD_PIN_0);
+#endif
+#if AO_PAD_NUM > 1
+ if (ao_pad_ignite & (1 << 1))
+ pins |= (1 << AO_PAD_PIN_1);
+#endif
+#if AO_PAD_NUM > 2
+ if (ao_pad_ignite & (1 << 2))
+ pins |= (1 << AO_PAD_PIN_2);
+#endif
+#if AO_PAD_NUM > 3
+ if (ao_pad_ignite & (1 << 3))
+ pins |= (1 << AO_PAD_PIN_3);
+#endif
+ AO_PAD_PORT = (AO_PAD_PORT & (~AO_PAD_ALL_PINS)) | pins;
while (ao_pad_ignite) {
ao_pad_ignite = 0;
+
ao_delay(AO_PAD_FIRE_TIME);
}
AO_PAD_PORT &= ~(AO_PAD_ALL_PINS);
}
}
+#define AO_PAD_ARM_SIREN_INTERVAL 200
+
static void
ao_pad_monitor(void)
{
__pdata uint8_t prev = 0, cur = 0;
__pdata uint8_t beeping = 0;
__xdata struct ao_data *packet;
+ __pdata uint16_t arm_beep_time = 0;
sample = ao_data_head;
for (;;) {
#define VOLTS_TO_PYRO(x) ((int16_t) ((x) * 27.0 / 127.0 / 3.3 * 32767.0))
cur = 0;
- if (pyro > VOLTS_TO_PYRO(4))
+ if (pyro > VOLTS_TO_PYRO(10)) {
query.arm_status = AO_PAD_ARM_STATUS_ARMED;
- else if (pyro < VOLTS_TO_PYRO(1))
+ cur |= AO_LED_ARMED;
+ } else if (pyro < VOLTS_TO_PYRO(5)) {
query.arm_status = AO_PAD_ARM_STATUS_DISARMED;
- else
+ arm_beep_time = 0;
+ } else {
+ if ((ao_time() % 100) < 50)
+ cur |= AO_LED_ARMED;
query.arm_status = AO_PAD_ARM_STATUS_UNKNOWN;
+ arm_beep_time = 0;
+ }
for (c = 0; c < AO_PAD_NUM; c++) {
int16_t sense = packet->adc.sense[c];
uint8_t status = AO_PAD_IGNITER_STATUS_UNKNOWN;
- if (query.arm_status == AO_PAD_ARM_STATUS_ARMED) {
- /*
- * pyro is run through a divider, so pyro = v_pyro * 27 / 127 ~= v_pyro / 20
- * v_pyro = pyro * 127 / 27
- *
- * v_pyro \
- * 100k igniter
- * output /
- * 100k \
- * sense relay
- * 27k /
- * gnd ---
- *
- * If the relay is closed, then sense will be 0
- * If no igniter is present, then sense will be v_pyro * 27k/227k = pyro * 127 / 227 ~= pyro/2
- * If igniter is present, then sense will be v_pyro * 27k/127k ~= v_pyro / 20 = pyro
- */
-
- if (sense <= pyro / 8)
- status = AO_PAD_IGNITER_STATUS_NO_IGNITER_RELAY_CLOSED;
- else if (pyro / 8 * 3 <= sense && sense <= pyro / 8 * 5)
- status = AO_PAD_IGNITER_STATUS_NO_IGNITER_RELAY_OPEN;
- else if (pyro / 8 * 7 <= sense) {
- status = AO_PAD_IGNITER_STATUS_GOOD_IGNITER_RELAY_OPEN;
+ /*
+ * pyro is run through a divider, so pyro = v_pyro * 27 / 127 ~= v_pyro / 20
+ * v_pyro = pyro * 127 / 27
+ *
+ * v_pyro \
+ * 100k igniter
+ * output /
+ * 100k \
+ * sense relay
+ * 27k /
+ * gnd ---
+ *
+ * If the relay is closed, then sense will be 0
+ * If no igniter is present, then sense will be v_pyro * 27k/227k = pyro * 127 / 227 ~= pyro/2
+ * If igniter is present, then sense will be v_pyro * 27k/127k ~= v_pyro / 20 = pyro
+ */
+
+ if (sense <= pyro / 8) {
+ status = AO_PAD_IGNITER_STATUS_NO_IGNITER_RELAY_CLOSED;
+ if ((ao_time() % 100) < 50)
cur |= AO_LED_CONTINUITY(c);
- }
+ }
+ else if (pyro / 8 * 3 <= sense && sense <= pyro / 8 * 5)
+ status = AO_PAD_IGNITER_STATUS_NO_IGNITER_RELAY_OPEN;
+ else if (pyro / 8 * 7 <= sense) {
+ status = AO_PAD_IGNITER_STATUS_GOOD_IGNITER_RELAY_OPEN;
+ cur |= AO_LED_CONTINUITY(c);
}
query.igniter_status[c] = status;
}
if (cur != prev) {
- ao_led_set_mask(cur, AO_LED_CONTINUITY_MASK);
+ PRINTD("change leds from %02x to %02x mask %02x\n",
+ prev, cur, AO_LED_CONTINUITY_MASK|AO_LED_ARMED);
+ ao_led_set_mask(cur, AO_LED_CONTINUITY_MASK | AO_LED_ARMED);
prev = cur;
}
- if (pyro > VOLTS_TO_PYRO(9) && sample == 0) {
+ if (ao_pad_armed && (int16_t) (ao_time() - ao_pad_arm_time) > AO_PAD_ARM_TIME)
+ ao_pad_armed = 0;
+
+ if (ao_pad_armed) {
+ ao_strobe(1);
+ if (sample & 2)
+ ao_siren(1);
+ else
+ ao_siren(0);
beeping = 1;
- ao_beep(AO_BEEP_HIGH);
+ } else if (query.arm_status == AO_PAD_ARM_STATUS_ARMED && !beeping) {
+ if (arm_beep_time == 0) {
+ arm_beep_time = AO_PAD_ARM_SIREN_INTERVAL;
+ beeping = 1;
+ ao_siren(1);
+ }
+ --arm_beep_time;
} else if (beeping) {
beeping = 0;
- ao_beep(0);
+ ao_siren(0);
+ ao_strobe(0);
}
}
}
-static __pdata uint8_t ao_pad_armed;
-static __pdata uint16_t ao_pad_arm_time;
-static __pdata uint8_t ao_pad_box;
-static __xdata uint8_t ao_pad_disabled;
-
void
ao_pad_disable(void)
{
int16_t time_difference;
int8_t ret;
- ao_beep_for(AO_BEEP_MID, AO_MS_TO_TICKS(200));
ao_pad_box = 0;
ao_led_set(0);
ao_led_on(AO_LED_POWER);
break;
}
- if (command.channels & ~(AO_PAD_ALL_PINS))
+ if (command.channels & ~(AO_PAD_ALL_CHANNELS))
break;
time_difference = command.tick - ao_time();
query.tick = ao_time();
query.box = ao_pad_box;
- query.channels = AO_PAD_ALL_PINS;
+ query.channels = AO_PAD_ALL_CHANNELS;
query.armed = ao_pad_armed;
- PRINTD ("query tick %d box %d channels %02x arm %d arm_status %d igniter %d\n",
+ PRINTD ("query tick %d box %d channels %02x arm %d arm_status %d igniter %d,%d,%d,%d\n",
query.tick, query.box, query.channels, query.armed,
- query.arm_status, query.igniter_status);
+ query.arm_status,
+ query.igniter_status[0],
+ query.igniter_status[1],
+ query.igniter_status[2],
+ query.igniter_status[3]);
ao_radio_cmac_send(&query, sizeof (query));
break;
case AO_LAUNCH_FIRE:
}
PRINTD ("ignite\n");
ao_pad_ignite = ao_pad_armed;
+ ao_pad_arm_time = ao_time();
ao_wakeup(&ao_pad_ignite);
break;
}
static __xdata struct ao_task ao_pad_ignite_task;
static __xdata struct ao_task ao_pad_monitor_task;
+#if DEBUG
+void
+ao_pad_set_debug(void)
+{
+ ao_cmd_decimal();
+ if (ao_cmd_status == ao_cmd_success)
+ ao_pad_debug = ao_cmd_lex_i != 0;
+}
+#endif
+
__code struct ao_cmds ao_pad_cmds[] = {
{ ao_pad_test, "t\0Test pad continuity" },
{ ao_pad_manual, "i <key> <n>\0Fire igniter. <key> is doit with D&I" },
+#if DEBUG
+ { ao_pad_set_debug, "D <0 off, 1 on>\0Debug" },
+#endif
{ 0, NULL }
};
#endif
#if AO_PAD_NUM > 3
ao_enable_output(AO_PAD_PORT, AO_PAD_PIN_3, AO_PAD_3, 0);
+#endif
+#ifdef AO_STROBE
+ ao_enable_output(AO_STROBE_PORT, AO_STROBE_PIN, AO_STROBE, 0);
+#endif
+#ifdef AO_SIREN
+ ao_enable_output(AO_SIREN_PORT, AO_SIREN_PIN, AO_SIREN, 0);
#endif
ao_cmd_register(&ao_pad_cmds[0]);
ao_add_task(&ao_pad_task, ao_pad, "pad listener");