/* * Copyright © 2009 Keith Packard * * This program is free software; you can redistribute it and/or modify * it under the terms of the GNU General Public License as published by * the Free Software Foundation; either version 2 of the License, or * (at your option) any later version. * * This program is distributed in the hope that it will be useful, but * WITHOUT ANY WARRANTY; without even the implied warranty of * MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU * General Public License for more details. * * You should have received a copy of the GNU General Public License along * with this program; if not, write to the Free Software Foundation, Inc., * 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA. */ #include "ao.h" #include "ao_telem.h" #include "ao_flight.h" #if !HAS_MONITOR #error Must define HAS_MONITOR to 1 #endif #ifndef LEGACY_MONITOR #error Must define LEGACY_MONITOR #endif #ifndef HAS_MONITOR_PUT #define HAS_MONITOR_PUT 1 #endif #ifndef AO_MONITOR_LED #error Must define AO_MONITOR_LED #endif uint8_t ao_monitoring_mutex; uint8_t ao_monitoring; static uint8_t ao_monitor_disabled; static uint8_t ao_internal_monitoring; static uint8_t ao_external_monitoring; union ao_monitor ao_monitor_ring[AO_MONITOR_RING]; uint8_t ao_monitor_head; static void _ao_monitor_adjust(void) { if (ao_monitoring) ao_radio_recv_abort(); if (ao_monitor_disabled) ao_monitoring = 0; else { if (ao_external_monitoring) ao_monitoring = ao_external_monitoring; else ao_monitoring = ao_internal_monitoring; } ao_wakeup(&ao_monitoring); } void ao_monitor_get(void) { uint8_t size; for (;;) { switch (ao_monitoring) { case 0: ao_sleep(&ao_monitoring); continue; #if LEGACY_MONITOR case AO_MONITORING_ORIG: size = sizeof (struct ao_telemetry_orig_recv); break; #endif default: if (ao_monitoring > AO_MAX_TELEMETRY) ao_monitoring = AO_MAX_TELEMETRY; size = ao_monitoring; break; } if (!ao_radio_recv(&ao_monitor_ring[ao_monitor_head], size + 2, 0)) continue; ao_monitor_head = ao_monitor_ring_next(ao_monitor_head); ao_wakeup(&ao_monitor_head); } } #if AO_MONITOR_LED struct ao_task ao_monitor_blink_task; void ao_monitor_blink(void) { #ifdef AO_MONITOR_BAD uint8_t *recv; #endif for (;;) { ao_sleep(&ao_monitor_head); #ifdef AO_MONITOR_BAD recv = (uint8_t *) &ao_monitor_ring[ao_monitor_ring_prev(ao_monitor_head)]; if (ao_monitoring && !(recv[ao_monitoring + 1] & AO_RADIO_STATUS_CRC_OK)) ao_led_for(AO_MONITOR_BAD, AO_MS_TO_TICKS(100)); else #endif ao_led_for(AO_MONITOR_LED, AO_MS_TO_TICKS(100)); } } #endif #if HAS_MONITOR_PUT static const char xdigit[16] = { '0', '1', '2', '3', '4', '5', '6', '7', '8', '9', 'a', 'b', 'c', 'd', 'e', 'f' }; #define hex(c) do { putchar(xdigit[(c) >> 4]); putchar(xdigit[(c)&0xf]); } while (0) void ao_monitor_put(void) { #if LEGACY_MONITOR char callsign[AO_MAX_CALLSIGN+1]; #endif #if LEGACY_MONITOR || HAS_RSSI int16_t rssi; #endif uint8_t ao_monitor_tail; uint8_t state; uint8_t sum, byte; union ao_monitor *m; #define recv_raw ((m->raw)) #define recv_orig ((m->orig)) #define recv_tiny ((m->tiny)) ao_monitor_tail = ao_monitor_head; for (;;) { while (!ao_external_monitoring) ao_sleep(&ao_external_monitoring); while (ao_monitor_tail == ao_monitor_head && ao_external_monitoring) ao_sleep(&ao_monitor_head); if (!ao_external_monitoring) continue; m = &ao_monitor_ring[ao_monitor_tail]; ao_monitor_tail = ao_monitor_ring_next(ao_monitor_tail); switch (ao_monitoring) { case 0: break; #if LEGACY_MONITOR case AO_MONITORING_ORIG: state = recv_orig.telemetry_orig.flight_state; rssi = (int16_t) AO_RSSI_FROM_RADIO(recv_orig.rssi); ao_xmemcpy(callsign, recv_orig.telemetry_orig.callsign, AO_MAX_CALLSIGN); if (state > ao_flight_invalid) state = ao_flight_invalid; if (recv_orig.status & PKT_APPEND_STATUS_1_CRC_OK) { /* General header fields */ printf(AO_TELEM_VERSION " %d " AO_TELEM_CALL " %s " AO_TELEM_SERIAL " %d " AO_TELEM_FLIGHT " %d " AO_TELEM_RSSI " %d " AO_TELEM_STATE " %s " AO_TELEM_TICK " %d ", AO_TELEMETRY_VERSION, callsign, recv_orig.telemetry_orig.serial, recv_orig.telemetry_orig.flight, rssi, ao_state_names[state], recv_orig.telemetry_orig.adc.tick); /* Raw sensor values */ printf(AO_TELEM_RAW_ACCEL " %d " AO_TELEM_RAW_BARO " %d " AO_TELEM_RAW_THERMO " %d " AO_TELEM_RAW_BATT " %d " AO_TELEM_RAW_DROGUE " %d " AO_TELEM_RAW_MAIN " %d ", recv_orig.telemetry_orig.adc.accel, recv_orig.telemetry_orig.adc.pres, recv_orig.telemetry_orig.adc.temp, recv_orig.telemetry_orig.adc.v_batt, recv_orig.telemetry_orig.adc.sense_d, recv_orig.telemetry_orig.adc.sense_m); /* Sensor calibration values */ printf(AO_TELEM_CAL_ACCEL_GROUND " %d " AO_TELEM_CAL_BARO_GROUND " %d " AO_TELEM_CAL_ACCEL_PLUS " %d " AO_TELEM_CAL_ACCEL_MINUS " %d ", recv_orig.telemetry_orig.ground_accel, recv_orig.telemetry_orig.ground_pres, recv_orig.telemetry_orig.accel_plus_g, recv_orig.telemetry_orig.accel_minus_g); if (recv_orig.telemetry_orig.u.k.unused == 0x8000) { /* Kalman state values */ printf(AO_TELEM_KALMAN_HEIGHT " %d " AO_TELEM_KALMAN_SPEED " %d " AO_TELEM_KALMAN_ACCEL " %d ", recv_orig.telemetry_orig.height, recv_orig.telemetry_orig.u.k.speed, recv_orig.telemetry_orig.accel); } else { /* Ad-hoc flight values */ printf(AO_TELEM_ADHOC_ACCEL " %d " AO_TELEM_ADHOC_SPEED " %ld " AO_TELEM_ADHOC_BARO " %d ", recv_orig.telemetry_orig.accel, recv_orig.telemetry_orig.u.flight_vel, recv_orig.telemetry_orig.height); } ao_gps_print(&recv_orig.telemetry_orig.gps); ao_gps_tracking_print(&recv_orig.telemetry_orig.gps_tracking); putchar('\n'); #if HAS_RSSI ao_rssi_set(rssi); #endif } else { printf("CRC INVALID RSSI %3d\n", rssi); } break; #endif /* LEGACY_MONITOR */ default: #if AO_PROFILE { extern uint32_t ao_rx_start_tick, ao_rx_packet_tick, ao_rx_done_tick, ao_rx_last_done_tick; extern uint32_t ao_fec_decode_start, ao_fec_decode_end; printf ("between packet: %d\n", ao_rx_start_tick - ao_rx_last_done_tick); printf ("receive start delay: %d\n", ao_rx_packet_tick - ao_rx_start_tick); printf ("decode time: %d\n", ao_fec_decode_end - ao_fec_decode_start); printf ("rx cleanup: %d\n", ao_rx_done_tick - ao_fec_decode_end); } #endif ao_mutex_get(&ao_monitoring_mutex); printf("TELEM "); hex((uint8_t) (ao_monitoring + 2)); sum = 0x5a; for (state = 0; state < ao_monitoring + 2; state++) { byte = recv_raw.packet[state]; sum += byte; hex(byte); } hex(sum); putchar ('\n'); ao_mutex_put(&ao_monitoring_mutex); #if HAS_RSSI if (recv_raw.packet[ao_monitoring + 1] & AO_RADIO_STATUS_CRC_OK) { rssi = AO_RSSI_FROM_RADIO(recv_raw.packet[ao_monitoring]); ao_rssi_set(rssi); } #endif break; } ao_usb_flush(); } } struct ao_task ao_monitor_put_task; #endif struct ao_task ao_monitor_get_task; void ao_monitor_set(uint8_t monitoring) { ao_internal_monitoring = monitoring; _ao_monitor_adjust(); } void ao_monitor_disable(void) { ++ao_monitor_disabled; _ao_monitor_adjust(); } void ao_monitor_enable(void) { --ao_monitor_disabled; _ao_monitor_adjust(); } #if HAS_MONITOR_PUT static void set_monitor(void) { ao_external_monitoring = ao_cmd_hex(); ao_wakeup(&ao_external_monitoring); ao_wakeup(&ao_monitor_head); _ao_monitor_adjust(); } const struct ao_cmds ao_monitor_cmds[] = { { set_monitor, "m <0 off, 1 old, 20 std>\0Set radio monitoring" }, { 0, NULL }, }; #endif void ao_monitor_init(void) { #if HAS_MONITOR_PUT ao_cmd_register(&ao_monitor_cmds[0]); ao_add_task(&ao_monitor_put_task, ao_monitor_put, "monitor_put"); #endif ao_add_task(&ao_monitor_get_task, ao_monitor_get, "monitor_get"); #if AO_MONITOR_LED ao_add_task(&ao_monitor_blink_task, ao_monitor_blink, "monitor_blink"); #endif }