Rm laikad (#30299)
* rm laika
* Rm laika
* Needed this
* More rm
* More rm
old-commit-hash: 56dea7b0b4
testing-closet
Harald Schäfer
2 years ago
committed by
GitHub
parent
3d602a86dc
commit
7c4d29c3d1
14 changed files with 5 additions and 1135 deletions
@ -1,468 +0,0 @@ |
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#!/usr/bin/env python3 |
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import math |
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import os |
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import time |
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import shutil |
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from collections import defaultdict |
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from concurrent.futures import Future, ProcessPoolExecutor |
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from enum import IntEnum |
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from typing import List, Optional, Dict, Any |
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|
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import numpy as np |
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|
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from cereal import log, messaging |
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from openpilot.common.params import Params, put_nonblocking |
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from laika import AstroDog |
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from laika.constants import SECS_IN_HR, SECS_IN_MIN |
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from laika.downloader import DownloadFailed |
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from laika.ephemeris import EphemerisType, GPSEphemeris, GLONASSEphemeris, ephemeris_structs, parse_qcom_ephem |
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from laika.gps_time import GPSTime |
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from laika.helpers import ConstellationId, get_sv_id |
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from laika.raw_gnss import GNSSMeasurement, correct_measurements, process_measurements, read_raw_ublox |
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from laika.raw_gnss import gps_time_from_qcom_report, get_measurements_from_qcom_reports |
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from laika.opt import calc_pos_fix, get_posfix_sympy_fun, calc_vel_fix, get_velfix_sympy_func |
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from openpilot.selfdrive.locationd.models.constants import GENERATED_DIR, ObservationKind |
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from openpilot.selfdrive.locationd.models.gnss_kf import GNSSKalman |
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from openpilot.selfdrive.locationd.models.gnss_kf import States as GStates |
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from openpilot.system.hardware.hw import Paths |
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from openpilot.system.swaglog import cloudlog |
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|
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MAX_TIME_GAP = 10 |
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EPHEMERIS_CACHE = 'LaikadEphemerisV3' |
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CACHE_VERSION = 0.2 |
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POS_FIX_RESIDUAL_THRESHOLD = 100.0 |
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|
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|
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class LogEphemerisType(IntEnum): |
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nav = 0 |
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nasaUltraRapid = 1 |
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glonassIacUltraRapid = 2 |
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qcom = 3 |
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|
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class EphemerisSource(IntEnum): |
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gnssChip = 0 |
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internet = 1 |
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cache = 2 |
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unknown = 3 |
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|
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def get_log_eph_type(ephem): |
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if ephem.eph_type == EphemerisType.NAV: |
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source_type = LogEphemerisType.nav |
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elif ephem.eph_type == EphemerisType.QCOM_POLY: |
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source_type = LogEphemerisType.qcom |
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else: |
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assert ephem.file_epoch is not None |
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file_src = ephem.file_source |
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if file_src == 'igu': # example nasa: '2214/igu22144_00.sp3.Z' |
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source_type = LogEphemerisType.nasaUltraRapid |
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elif file_src == 'Sta': # example nasa: '22166/ultra/Stark_1D_22061518.sp3' |
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source_type = LogEphemerisType.glonassIacUltraRapid |
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else: |
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raise Exception(f"Didn't expect file source {file_src}") |
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return source_type |
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|
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def get_log_eph_source(ephem): |
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if ephem.file_name == 'qcom' or ephem.file_name == 'ublox': |
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source = EphemerisSource.gnssChip |
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elif ephem.file_name == EPHEMERIS_CACHE: |
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source = EphemerisSource.cache |
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else: |
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source = EphemerisSource.internet |
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return source |
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|
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class Laikad: |
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def __init__(self, valid_const=(ConstellationId.GPS, ConstellationId.GLONASS), auto_fetch_navs=True, auto_update=False, |
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valid_ephem_types=(EphemerisType.NAV, EphemerisType.QCOM_POLY), |
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save_ephemeris=False, use_qcom=False): |
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""" |
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valid_const: GNSS constellation which can be used |
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auto_fetch_navs: If true fetch navs from internet when needed |
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auto_update: If true download AstroDog will download all files needed. This can be ephemeris or correction data like ionosphere. |
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valid_ephem_types: Valid ephemeris types to be used by AstroDog |
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save_ephemeris: If true saves and loads nav and orbit ephemeris to cache. |
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""" |
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self.astro_dog = AstroDog(valid_const=valid_const, auto_update=auto_update, valid_ephem_types=valid_ephem_types, |
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clear_old_ephemeris=True, cache_dir=Paths.download_cache_root()) |
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self.gnss_kf = GNSSKalman(GENERATED_DIR, cython=True, erratic_clock=use_qcom) |
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self.auto_fetch_navs = auto_fetch_navs |
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self.orbit_fetch_executor: Optional[ProcessPoolExecutor] = None |
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self.orbit_fetch_future: Optional[Future] = None |
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self.last_report_time = GPSTime(0, 0) |
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self.last_fetch_navs_t = GPSTime(0, 0) |
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self.last_cached_t = GPSTime(0, 0) |
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self.save_ephemeris = save_ephemeris |
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self.load_cache() |
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self.posfix_functions = {constellation: get_posfix_sympy_fun(constellation) for constellation in (ConstellationId.GPS, ConstellationId.GLONASS)} |
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self.velfix_function = get_velfix_sympy_func() |
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self.last_fix_pos = None |
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self.last_fix_t = None |
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self.use_qcom = use_qcom |
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self.first_log_time = None |
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self.ttff = -1 |
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self.measurement_lag = 0.630 if self.use_qcom else 0.095 |
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# qcom specific stuff |
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self.qcom_reports_received = 4 |
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self.qcom_reports = [] |
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def load_cache(self): |
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if not self.save_ephemeris: |
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return |
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cache_bytes = Params().get(EPHEMERIS_CACHE) |
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if not cache_bytes: |
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return |
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nav_dict = {} |
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try: |
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with ephemeris_structs.EphemerisCache.from_bytes(cache_bytes) as ephem_cache: |
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glonass_navs = [GLONASSEphemeris(data_struct, file_name=EPHEMERIS_CACHE) for data_struct in ephem_cache.glonassEphemerides] |
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gps_navs = [GPSEphemeris(data_struct, file_name=EPHEMERIS_CACHE) for data_struct in ephem_cache.gpsEphemerides] |
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for e in sum([glonass_navs, gps_navs], []): |
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if e.prn not in nav_dict: |
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nav_dict[e.prn] = [] |
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nav_dict[e.prn].append(e) |
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self.astro_dog.add_navs(nav_dict) |
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except Exception: |
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cloudlog.exception("Error parsing cache") |
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cloudlog.debug( |
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f"Loaded navs ({sum([len(nav_dict[prn]) for prn in nav_dict.keys()])}). Unique orbit and nav sats: {list(nav_dict.keys())} ") |
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def cache_ephemeris(self): |
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if self.save_ephemeris and (self.last_report_time - self.last_cached_t > SECS_IN_MIN): |
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nav_list: List = sum([v for k,v in self.astro_dog.navs.items()], []) |
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#TODO this only saves currently valid ephems, when we download future ephems we should save them too |
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valid_navs = [e for e in nav_list if e.valid(self.last_report_time)] |
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if len(valid_navs) > 0: |
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ephem_cache = ephemeris_structs.EphemerisCache(glonassEphemerides=[e.data for e in valid_navs if e.prn[0]=='R'], |
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gpsEphemerides=[e.data for e in valid_navs if e.prn[0]=='G']) |
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put_nonblocking(EPHEMERIS_CACHE, ephem_cache.to_bytes()) |
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cloudlog.debug("Cache saved") |
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self.last_cached_t = self.last_report_time |
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def create_ephem_statuses(self): |
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ephemeris_statuses = [] |
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eph_list: List = sum([v for k,v in self.astro_dog.navs.items()], []) + sum([v for k,v in self.astro_dog.qcom_polys.items()], []) |
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for eph in eph_list: |
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status = log.GnssMeasurements.EphemerisStatus.new_message() |
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status.constellationId = ConstellationId.from_rinex_char(eph.prn[0]).value |
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status.svId = get_sv_id(eph.prn) |
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status.type = get_log_eph_type(eph).value |
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status.source = get_log_eph_source(eph).value |
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status.tow = eph.epoch.tow |
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status.gpsWeek = eph.epoch.week |
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ephemeris_statuses.append(status) |
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return ephemeris_statuses |
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def get_lsq_fix(self, t, measurements): |
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if self.last_fix_t is None or abs(self.last_fix_t - t) > 0: |
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min_measurements = 5 if any(p.constellation_id == ConstellationId.GLONASS for p in measurements) else 4 |
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position_solution, pr_residuals, pos_std = calc_pos_fix(measurements, self.posfix_functions, min_measurements=min_measurements) |
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if len(position_solution) < 3: |
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return None |
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position_estimate = position_solution[:3] |
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position_std = pos_std[:3] |
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velocity_solution, prr_residuals, vel_std = calc_vel_fix(measurements, position_estimate, self.velfix_function, min_measurements=min_measurements) |
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if len(velocity_solution) < 3: |
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return None |
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velocity_estimate = velocity_solution[:3] |
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velocity_std = vel_std[:3] |
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return position_estimate, position_std, velocity_estimate, velocity_std |
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def is_good_report(self, gnss_msg): |
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if gnss_msg.which() in ['drMeasurementReport', 'measurementReport'] and self.use_qcom: |
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# TODO: Understand and use remaining unknown constellations |
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try: |
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if gnss_msg.which() == 'drMeasurementReport': |
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constellation_id = ConstellationId.from_qcom_source(gnss_msg.drMeasurementReport.source) |
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else: |
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constellation_id = ConstellationId.from_qcom_source(gnss_msg.measurementReport.source) |
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good_constellation = constellation_id in [ConstellationId.GPS, ConstellationId.SBAS, ConstellationId.GLONASS] |
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report_time = gps_time_from_qcom_report(gnss_msg) |
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except NotImplementedError: |
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return False |
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# Garbage timestamps with week > 32767 are sometimes sent by module. |
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# This is an issue with gpsTime and GLONASS time. |
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good_week = report_time.week < np.iinfo(np.int16).max |
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return good_constellation and good_week |
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elif gnss_msg.which() == 'measurementReport' and not self.use_qcom: |
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return True |
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else: |
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return False |
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def read_report(self, gnss_msg): |
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if self.use_qcom: |
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# QCOM reports are per constellation, so we need to aggregate them |
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# Additionally, the pseudoranges are broken in the measurementReports |
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# and the doppler filteredSpeed is broken in the drMeasurementReports |
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report_time = gps_time_from_qcom_report(gnss_msg) |
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if report_time - self.last_report_time == 0: |
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self.qcom_reports.append(gnss_msg) |
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self.last_report_time = report_time |
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elif report_time - self.last_report_time > 0: |
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self.qcom_reports_received = max(1, len(self.qcom_reports)) |
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self.qcom_reports = [gnss_msg] |
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self.last_report_time = report_time |
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else: |
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# Sometimes DR reports get sent one iteration late (1second), they need to be ignored |
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cloudlog.warning(f"Received report with time {report_time} before last report time {self.last_report_time}") |
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if len(self.qcom_reports) == self.qcom_reports_received: |
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new_meas = get_measurements_from_qcom_reports(self.qcom_reports) |
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else: |
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new_meas = [] |
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else: |
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report = gnss_msg.measurementReport |
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self.last_report_time = GPSTime(report.gpsWeek, report.rcvTow) |
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new_meas = read_raw_ublox(report) |
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return self.last_report_time, new_meas |
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def is_ephemeris(self, gnss_msg): |
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if self.use_qcom: |
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return gnss_msg.which() == 'drSvPoly' |
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else: |
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return gnss_msg.which() in ('ephemeris', 'glonassEphemeris') |
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def read_ephemeris(self, gnss_msg): |
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if self.use_qcom: |
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try: |
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ephem = parse_qcom_ephem(gnss_msg.drSvPoly) |
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self.astro_dog.add_qcom_polys({ephem.prn: [ephem]}) |
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except Exception: |
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cloudlog.exception("Error parsing qcom svPoly ephemeris from qcom module") |
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return |
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else: |
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if gnss_msg.which() == 'ephemeris': |
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data_struct = ephemeris_structs.Ephemeris.new_message(**gnss_msg.ephemeris.to_dict()) |
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try: |
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ephem = GPSEphemeris(data_struct, file_name='ublox') |
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except Exception: |
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cloudlog.exception("Error parsing GPS ephemeris from ublox") |
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return |
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elif gnss_msg.which() == 'glonassEphemeris': |
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data_struct = ephemeris_structs.GlonassEphemeris.new_message(**gnss_msg.glonassEphemeris.to_dict()) |
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try: |
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ephem = GLONASSEphemeris(data_struct, file_name='ublox') |
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except Exception: |
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cloudlog.exception("Error parsing GLONASS ephemeris from ublox") |
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return |
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else: |
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cloudlog.error(f"Unsupported ephemeris type: {gnss_msg.which()}") |
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return |
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self.astro_dog.add_navs({ephem.prn: [ephem]}) |
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self.cache_ephemeris() |
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def process_report(self, new_meas, t): |
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# Filter measurements with unexpected pseudoranges for GPS and GLONASS satellites |
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new_meas = [m for m in new_meas if 1e7 < m.observables['C1C'] < 3e7] |
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processed_measurements = process_measurements(new_meas, self.astro_dog) |
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if self.last_fix_pos is not None: |
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est_pos = self.last_fix_pos |
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correct_delay = True |
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else: |
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est_pos = self.gnss_kf.x[GStates.ECEF_POS].tolist() |
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correct_delay = False |
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corrected_measurements = correct_measurements(processed_measurements, est_pos, self.astro_dog, correct_delay=correct_delay) |
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# If many measurements weren't corrected, position may be garbage, so reset |
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if len(processed_measurements) >= 8 and len(corrected_measurements) < 5: |
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cloudlog.error("Didn't correct enough measurements, resetting estimate position") |
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self.last_fix_pos = None |
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self.last_fix_t = None |
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return corrected_measurements |
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def calc_fix(self, t, measurements): |
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instant_fix = self.get_lsq_fix(t, measurements) |
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if instant_fix is None: |
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return None |
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else: |
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position_estimate, position_std, velocity_estimate, velocity_std = instant_fix |
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self.last_fix_t = t |
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self.last_fix_pos = position_estimate |
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self.lat_fix_pos_std = position_std |
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return position_estimate, position_std, velocity_estimate, velocity_std |
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def process_gnss_msg(self, gnss_msg, gnss_mono_time: int, block=False): |
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out_msg = messaging.new_message("gnssMeasurements") |
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t = gnss_mono_time * 1e-9 |
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msg_dict: Dict[str, Any] = {"measTime": gnss_mono_time - int(1e9 * self.measurement_lag)} |
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if self.first_log_time is None: |
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self.first_log_time = 1e-9 * gnss_mono_time |
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if self.is_ephemeris(gnss_msg): |
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self.read_ephemeris(gnss_msg) |
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elif self.is_good_report(gnss_msg): |
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report_t, new_meas = self.read_report(gnss_msg) |
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if report_t.week > 0: |
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if self.auto_fetch_navs: |
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self.fetch_navs(report_t, block) |
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corrected_measurements = self.process_report(new_meas, t) |
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msg_dict['correctedMeasurements'] = [create_measurement_msg(m) for m in corrected_measurements] |
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fix = self.calc_fix(t, corrected_measurements) |
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measurement_msg = log.LiveLocationKalman.Measurement.new_message |
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if fix is not None: |
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position_estimate, position_std, velocity_estimate, velocity_std = fix |
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if self.ttff <= 0: |
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self.ttff = max(1e-3, t - self.first_log_time) |
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msg_dict["positionECEF"] = measurement_msg(value=position_estimate, std=position_std.tolist(), valid=bool(self.last_fix_t == t)) |
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msg_dict["velocityECEF"] = measurement_msg(value=velocity_estimate, std=velocity_std.tolist(), valid=bool(self.last_fix_t == t)) |
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self.update_localizer(self.last_fix_pos, t, corrected_measurements) |
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P_diag = self.gnss_kf.P.diagonal() |
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kf_valid = all(self.kf_valid(t)) |
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msg_dict["kalmanPositionECEF"] = measurement_msg(value=self.gnss_kf.x[GStates.ECEF_POS].tolist(), |
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std=np.sqrt(P_diag[GStates.ECEF_POS]).tolist(), |
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valid=kf_valid) |
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msg_dict["kalmanVelocityECEF"] = measurement_msg(value=self.gnss_kf.x[GStates.ECEF_VELOCITY].tolist(), |
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std=np.sqrt(P_diag[GStates.ECEF_VELOCITY]).tolist(), |
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valid=kf_valid) |
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msg_dict['gpsWeek'] = self.last_report_time.week |
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msg_dict['gpsTimeOfWeek'] = self.last_report_time.tow |
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msg_dict['timeToFirstFix'] = self.ttff |
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msg_dict['ephemerisStatuses'] = self.create_ephem_statuses() |
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out_msg.gnssMeasurements = msg_dict |
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return out_msg |
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def update_localizer(self, est_pos, t: float, measurements: List[GNSSMeasurement]): |
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# Check time and outputs are valid |
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valid = self.kf_valid(t) |
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if not all(valid): |
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if not valid[0]: # Filter not initialized |
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pass |
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elif not valid[1]: |
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cloudlog.error("Time gap of over 10s detected, gnss kalman reset") |
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elif not valid[2]: |
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cloudlog.error("Gnss kalman filter state is nan") |
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if est_pos is not None and len(est_pos) > 0: |
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cloudlog.info(f"Reset kalman filter with {est_pos}") |
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self.init_gnss_localizer(est_pos) |
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else: |
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return |
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if len(measurements) > 0: |
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kf_add_observations(self.gnss_kf, t, measurements) |
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else: |
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# Ensure gnss filter is updated even with no new measurements |
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self.gnss_kf.predict(t) |
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|
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def kf_valid(self, t: float) -> List[bool]: |
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filter_time = self.gnss_kf.filter.get_filter_time() |
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return [not math.isnan(filter_time), |
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abs(t - filter_time) < MAX_TIME_GAP, |
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all(np.isfinite(self.gnss_kf.x[GStates.ECEF_POS]))] |
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|
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def init_gnss_localizer(self, est_pos): |
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x_initial, p_initial_diag = np.copy(GNSSKalman.x_initial), np.copy(np.diagonal(GNSSKalman.P_initial)) |
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x_initial[GStates.ECEF_POS] = est_pos |
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p_initial_diag[GStates.ECEF_POS] = 1000 ** 2 |
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self.gnss_kf.init_state(x_initial, covs_diag=p_initial_diag) |
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|
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def fetch_navs(self, t: GPSTime, block): |
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# Download new navs if 1 hour of navs data left |
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if t + SECS_IN_HR not in self.astro_dog.navs_fetched_times and (abs(t - self.last_fetch_navs_t) > SECS_IN_MIN): |
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astro_dog_vars = self.astro_dog.valid_const, self.astro_dog.auto_update, self.astro_dog.valid_ephem_types, self.astro_dog.cache_dir |
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ret = None |
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|
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if block: # Used for testing purposes |
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ret = get_orbit_data(t, *astro_dog_vars) |
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elif self.orbit_fetch_future is None: |
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self.orbit_fetch_executor = ProcessPoolExecutor(max_workers=1) |
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self.orbit_fetch_future = self.orbit_fetch_executor.submit(get_orbit_data, t, *astro_dog_vars) |
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elif self.orbit_fetch_future.done(): |
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ret = self.orbit_fetch_future.result() |
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self.orbit_fetch_executor = self.orbit_fetch_future = None |
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|
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if ret is not None: |
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if ret[0] is None: |
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self.last_fetch_navs_t = ret[2] |
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else: |
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self.astro_dog.navs, self.astro_dog.navs_fetched_times, self.last_fetch_navs_t = ret |
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self.cache_ephemeris() |
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|
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|
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def get_orbit_data(t: GPSTime, valid_const, auto_update, valid_ephem_types, cache_dir): |
||||
astro_dog = AstroDog(valid_const=valid_const, auto_update=auto_update, valid_ephem_types=valid_ephem_types, cache_dir=cache_dir) |
||||
cloudlog.info(f"Start to download/parse navs for time {t.as_datetime()}") |
||||
start_time = time.monotonic() |
||||
try: |
||||
astro_dog.get_navs(t) |
||||
cloudlog.info(f"Done parsing navs. Took {time.monotonic() - start_time:.1f}s") |
||||
cloudlog.debug(f"Downloaded navs ({sum([len(v) for v in astro_dog.navs])}): {list(astro_dog.navs.keys())}" + |
||||
f"With time range: {[f'{start.as_datetime()}, {end.as_datetime()}' for (start,end) in astro_dog.orbit_fetched_times._ranges]}") |
||||
return astro_dog.navs, astro_dog.navs_fetched_times, t |
||||
except (DownloadFailed, RuntimeError, ValueError, IOError) as e: |
||||
cloudlog.warning(f"No orbit data found or parsing failure: {e}") |
||||
return None, None, t |
||||
|
||||
|
||||
def create_measurement_msg(meas: GNSSMeasurement): |
||||
c = log.GnssMeasurements.CorrectedMeasurement.new_message() |
||||
c.constellationId = meas.constellation_id.value |
||||
c.svId = meas.sv_id |
||||
c.glonassFrequency = meas.glonass_freq if meas.constellation_id == ConstellationId.GLONASS else 0 |
||||
c.pseudorange = float(meas.observables_final['C1C']) |
||||
c.pseudorangeStd = float(meas.observables_std['C1C']) |
||||
c.pseudorangeRate = float(meas.observables_final['D1C']) |
||||
c.pseudorangeRateStd = float(meas.observables_std['D1C']) |
||||
c.satPos = meas.sat_pos_final.tolist() |
||||
c.satVel = meas.sat_vel.tolist() |
||||
c.satVel = meas.sat_vel.tolist() |
||||
return c |
||||
|
||||
def kf_add_observations(gnss_kf: GNSSKalman, t: float, measurements: List[GNSSMeasurement]): |
||||
ekf_data = defaultdict(list) |
||||
for m in measurements: |
||||
m_arr = m.as_array() |
||||
if m.constellation_id == ConstellationId.GPS: |
||||
ekf_data[ObservationKind.PSEUDORANGE_GPS].append(m_arr) |
||||
elif m.constellation_id == ConstellationId.GLONASS: |
||||
ekf_data[ObservationKind.PSEUDORANGE_GLONASS].append(m_arr) |
||||
ekf_data[ObservationKind.PSEUDORANGE_RATE_GPS] = ekf_data[ObservationKind.PSEUDORANGE_GPS] |
||||
ekf_data[ObservationKind.PSEUDORANGE_RATE_GLONASS] = ekf_data[ObservationKind.PSEUDORANGE_GLONASS] |
||||
for kind, data in ekf_data.items(): |
||||
if len(data) > 0: |
||||
gnss_kf.predict_and_observe(t, kind, data) |
||||
|
||||
|
||||
def clear_tmp_cache(): |
||||
if os.path.exists(Paths.download_cache_root()): |
||||
shutil.rmtree(Paths.download_cache_root()) |
||||
os.mkdir(Paths.download_cache_root()) |
||||
|
||||
|
||||
def main(): |
||||
#clear_tmp_cache() |
||||
|
||||
use_qcom = not Params().get_bool("UbloxAvailable") |
||||
if use_qcom: |
||||
raw_name = "qcomGnss" |
||||
else: |
||||
raw_name = "ubloxGnss" |
||||
raw_gnss_sock = messaging.sub_sock(raw_name, conflate=False) |
||||
pm = messaging.PubMaster(['gnssMeasurements']) |
||||
|
||||
# disable until set as main gps source, to better analyze startup time |
||||
# TODO ensure low CPU usage before enabling |
||||
use_internet = False # "LAIKAD_NO_INTERNET" not in os.environ |
||||
|
||||
replay = "REPLAY" in os.environ |
||||
laikad = Laikad(save_ephemeris=not replay, auto_fetch_navs=use_internet, use_qcom=use_qcom) |
||||
|
||||
while True: |
||||
for in_msg in messaging.drain_sock(raw_gnss_sock, wait_for_one=True): |
||||
out_msg = laikad.process_gnss_msg(getattr(in_msg, raw_name), in_msg.logMonoTime, replay) |
||||
pm.send('gnssMeasurements', out_msg) |
||||
|
||||
|
||||
if __name__ == "__main__": |
||||
main() |
||||
@ -1,319 +0,0 @@ |
||||
#!/usr/bin/env python3 |
||||
import pytest |
||||
import time |
||||
import unittest |
||||
from cereal import log |
||||
from openpilot.common.params import Params |
||||
from datetime import datetime |
||||
from unittest import mock |
||||
|
||||
|
||||
from laika.constants import SECS_IN_DAY |
||||
from laika.downloader import DownloadFailed |
||||
from laika.ephemeris import EphemerisType |
||||
from laika.gps_time import GPSTime |
||||
from laika.helpers import ConstellationId |
||||
from laika.raw_gnss import GNSSMeasurement, read_raw_ublox, read_raw_qcom |
||||
from openpilot.selfdrive.locationd.laikad import EPHEMERIS_CACHE, Laikad |
||||
from openpilot.selfdrive.test.openpilotci import get_url |
||||
from openpilot.tools.lib.logreader import LogReader |
||||
|
||||
from openpilot.selfdrive.test.process_replay.process_replay import get_process_config, replay_process |
||||
|
||||
GPS_TIME_PREDICTION_ORBITS_RUSSIAN_SRC = GPSTime.from_datetime(datetime(2022, month=1, day=29, hour=12)) |
||||
UBLOX_TEST_ROUTE = "4cf7a6ad03080c90|2021-09-29--13-46-36" |
||||
QCOM_TEST_ROUTE = "616dc83ca1f7f11e|2023-07-11--10-52-31" |
||||
|
||||
|
||||
def get_log_ublox(): |
||||
logs = LogReader(get_url(UBLOX_TEST_ROUTE, 0)) |
||||
|
||||
ublox_cfg = get_process_config("ubloxd") |
||||
all_logs = replay_process(ublox_cfg, logs) |
||||
low_gnss = [] |
||||
for m in all_logs: |
||||
if m.which() != "ubloxGnss" or m.ubloxGnss.which() != 'measurementReport': |
||||
continue |
||||
|
||||
MAX_MEAS = 7 |
||||
if m.ubloxGnss.measurementReport.numMeas > MAX_MEAS: |
||||
mb = log.Event.new_message(ubloxGnss=m.ubloxGnss.to_dict()) |
||||
mb.logMonoTime = m.logMonoTime |
||||
mb.ubloxGnss.measurementReport.numMeas = MAX_MEAS |
||||
mb.ubloxGnss.measurementReport.measurements = list(m.ubloxGnss.measurementReport.measurements)[:MAX_MEAS] |
||||
mb.ubloxGnss.measurementReport.measurements[0].pseudorange += 1000 |
||||
low_gnss.append(mb.as_reader()) |
||||
else: |
||||
low_gnss.append(m) |
||||
return all_logs, low_gnss |
||||
|
||||
|
||||
def get_log_qcom(): |
||||
logs = LogReader(get_url(QCOM_TEST_ROUTE, 0)) |
||||
all_logs = [m for m in logs if m.which() == 'qcomGnss'] |
||||
return all_logs |
||||
|
||||
|
||||
def verify_messages(lr, laikad, return_one_success=False): |
||||
good_msgs = [] |
||||
for m in lr: |
||||
if m.which() == 'ubloxGnss': |
||||
gnss_msg = m.ubloxGnss |
||||
elif m.which() == 'qcomGnss': |
||||
gnss_msg = m.qcomGnss |
||||
else: |
||||
continue |
||||
msg = laikad.process_gnss_msg(gnss_msg, m.logMonoTime, block=True) |
||||
if msg is not None and len(msg.gnssMeasurements.correctedMeasurements) > 0: |
||||
good_msgs.append(msg) |
||||
if return_one_success: |
||||
return msg |
||||
return good_msgs |
||||
|
||||
|
||||
def get_first_gps_time(logs): |
||||
for m in logs: |
||||
if m.which() == 'ubloxGnss': |
||||
if m.ubloxGnss.which == 'measurementReport': |
||||
new_meas = read_raw_ublox(m.ubloxGnss.measurementReport) |
||||
if len(new_meas) > 0: |
||||
return new_meas[0].recv_time |
||||
elif m.which() == "qcomGnss": |
||||
if m.qcomGnss.which == 'measurementReport': |
||||
new_meas = read_raw_qcom(m.qcomGnss.measurementReport) |
||||
if len(new_meas) > 0: |
||||
return new_meas[0].recv_time |
||||
|
||||
|
||||
def get_measurement_mock(gpstime, sat_ephemeris): |
||||
meas = GNSSMeasurement(ConstellationId.GPS, 1, gpstime.week, gpstime.tow, {'C1C': 0., 'D1C': 0.}, {'C1C': 0., 'D1C': 0.}) |
||||
# Fake measurement being processed |
||||
meas.observables_final = meas.observables |
||||
meas.sat_ephemeris = sat_ephemeris |
||||
return meas |
||||
|
||||
|
||||
@pytest.mark.slow |
||||
class TestLaikad(unittest.TestCase): |
||||
|
||||
@classmethod |
||||
def setUpClass(cls): |
||||
logs, low_gnss = get_log_ublox() |
||||
cls.logs = logs |
||||
cls.low_gnss = low_gnss |
||||
cls.logs_qcom = get_log_qcom() |
||||
first_gps_time = get_first_gps_time(logs) |
||||
cls.first_gps_time = first_gps_time |
||||
|
||||
def setUp(self): |
||||
Params().remove(EPHEMERIS_CACHE) |
||||
|
||||
def test_fetch_navs_non_blocking(self): |
||||
gpstime = GPSTime.from_datetime(datetime(2021, month=3, day=1)) |
||||
laikad = Laikad() |
||||
laikad.fetch_navs(gpstime, block=False) |
||||
laikad.orbit_fetch_future.result(30) |
||||
|
||||
# Get results and save orbits to laikad: |
||||
laikad.fetch_navs(gpstime, block=False) |
||||
ephem = laikad.astro_dog.navs['G01'][0] |
||||
self.assertIsNotNone(ephem) |
||||
|
||||
laikad.fetch_navs(gpstime+2*SECS_IN_DAY, block=False) |
||||
laikad.orbit_fetch_future.result(30) |
||||
# Get results and save orbits to laikad: |
||||
laikad.fetch_navs(gpstime + 2 * SECS_IN_DAY, block=False) |
||||
|
||||
ephem2 = laikad.astro_dog.navs['G01'][0] |
||||
self.assertIsNotNone(ephem) |
||||
self.assertNotEqual(ephem, ephem2) |
||||
|
||||
|
||||
def test_fetch_navs_with_wrong_clocks(self): |
||||
laikad = Laikad() |
||||
|
||||
def check_has_navs(): |
||||
self.assertGreater(len(laikad.astro_dog.navs), 0) |
||||
ephem = laikad.astro_dog.navs['G01'][0] |
||||
self.assertIsNotNone(ephem) |
||||
real_current_time = GPSTime.from_datetime(datetime(2021, month=3, day=1)) |
||||
wrong_future_clock_time = real_current_time + SECS_IN_DAY |
||||
|
||||
laikad.fetch_navs(wrong_future_clock_time, block=True) |
||||
check_has_navs() |
||||
self.assertEqual(laikad.last_fetch_navs_t, wrong_future_clock_time) |
||||
|
||||
# Test fetching orbits with earlier time |
||||
assert real_current_time < laikad.last_fetch_navs_t |
||||
|
||||
laikad.astro_dog.orbits = {} |
||||
laikad.fetch_navs(real_current_time, block=True) |
||||
check_has_navs() |
||||
self.assertEqual(laikad.last_fetch_navs_t, real_current_time) |
||||
|
||||
def test_laika_online(self): |
||||
laikad = Laikad(auto_update=True, valid_ephem_types=EphemerisType.ULTRA_RAPID_ORBIT) |
||||
correct_msgs = verify_messages(self.logs, laikad) |
||||
|
||||
correct_msgs_expected = 560 |
||||
self.assertEqual(correct_msgs_expected, len(correct_msgs)) |
||||
self.assertEqual(correct_msgs_expected, len([m for m in correct_msgs if m.gnssMeasurements.positionECEF.valid])) |
||||
|
||||
def test_kf_becomes_valid(self): |
||||
laikad = Laikad(auto_update=False) |
||||
m = self.logs[0] |
||||
self.assertFalse(all(laikad.kf_valid(m.logMonoTime * 1e-9))) |
||||
kf_valid = False |
||||
for m in self.logs: |
||||
if m.which() != 'ubloxGnss': |
||||
continue |
||||
|
||||
laikad.process_gnss_msg(m.ubloxGnss, m.logMonoTime, block=True) |
||||
kf_valid = all(laikad.kf_valid(m.logMonoTime * 1e-9)) |
||||
if kf_valid: |
||||
break |
||||
self.assertTrue(kf_valid) |
||||
|
||||
def test_laika_online_nav_only(self): |
||||
for use_qcom, logs in zip([True, False], [self.logs_qcom, self.logs], strict=True): |
||||
laikad = Laikad(auto_update=True, valid_ephem_types=EphemerisType.NAV, use_qcom=use_qcom) |
||||
# Disable fetch_orbits to test NAV only |
||||
correct_msgs = verify_messages(logs, laikad) |
||||
correct_msgs_expected = 55 if use_qcom else 560 |
||||
valid_fix_expected = 55 if use_qcom else 560 |
||||
|
||||
self.assertEqual(correct_msgs_expected, len(correct_msgs)) |
||||
self.assertEqual(valid_fix_expected, len([m for m in correct_msgs if m.gnssMeasurements.positionECEF.valid])) |
||||
|
||||
@mock.patch('laika.downloader.download_and_cache_file') |
||||
def test_laika_offline(self, downloader_mock): |
||||
downloader_mock.side_effect = DownloadFailed("Mock download failed") |
||||
laikad = Laikad(auto_update=False) |
||||
laikad.fetch_navs(GPS_TIME_PREDICTION_ORBITS_RUSSIAN_SRC, block=True) |
||||
|
||||
@mock.patch('laika.downloader.download_and_cache_file') |
||||
def test_download_failed_russian_source(self, downloader_mock): |
||||
downloader_mock.side_effect = DownloadFailed |
||||
laikad = Laikad(auto_update=False) |
||||
correct_msgs = verify_messages(self.logs, laikad) |
||||
expected_msgs = 376 |
||||
self.assertEqual(expected_msgs, len(correct_msgs)) |
||||
self.assertEqual(expected_msgs, len([m for m in correct_msgs if m.gnssMeasurements.positionECEF.valid])) |
||||
|
||||
def test_laika_get_orbits(self): |
||||
laikad = Laikad(auto_update=False) |
||||
# Pretend process has loaded the orbits on startup by using the time of the first gps message. |
||||
laikad.fetch_navs(self.first_gps_time, block=True) |
||||
self.dict_has_values(laikad.astro_dog.navs) |
||||
|
||||
@unittest.skip("Use to debug live data") |
||||
def test_laika_get_navs_now(self): |
||||
laikad = Laikad(auto_update=False) |
||||
laikad.fetch_navs(GPSTime.from_datetime(datetime.utcnow()), block=True) |
||||
prn = "G01" |
||||
self.assertGreater(len(laikad.astro_dog.navs[prn]), 0) |
||||
prn = "R01" |
||||
self.assertGreater(len(laikad.astro_dog.navs[prn]), 0) |
||||
|
||||
def test_get_navs_in_process(self): |
||||
for auto_fetch_navs in [True, False]: |
||||
for use_qcom, logs in zip([True, False], [self.logs_qcom, self.logs], strict=True): |
||||
laikad = Laikad(auto_update=False, use_qcom=use_qcom, auto_fetch_navs=auto_fetch_navs) |
||||
has_navs = False |
||||
has_fix = False |
||||
seen_chip_eph = False |
||||
seen_internet_eph = False |
||||
|
||||
for m in logs: |
||||
if m.which() != 'ubloxGnss' and m.which() != 'qcomGnss': |
||||
continue |
||||
|
||||
gnss_msg = m.qcomGnss if use_qcom else m.ubloxGnss |
||||
out_msg = laikad.process_gnss_msg(gnss_msg, m.logMonoTime, block=False) |
||||
if laikad.orbit_fetch_future is not None: |
||||
laikad.orbit_fetch_future.result() |
||||
vals = laikad.astro_dog.navs.values() |
||||
has_navs = len(vals) > 0 and max([len(v) for v in vals]) > 0 |
||||
vals = laikad.astro_dog.qcom_polys.values() |
||||
has_polys = len(vals) > 0 and max([len(v) for v in vals]) > 0 |
||||
has_fix = has_fix or out_msg.gnssMeasurements.positionECEF.valid |
||||
if len(out_msg.gnssMeasurements.ephemerisStatuses): |
||||
seen_chip_eph = seen_chip_eph or any(x.source == 'gnssChip' for x in out_msg.gnssMeasurements.ephemerisStatuses) |
||||
seen_internet_eph = seen_internet_eph or any(x.source == 'internet' for x in out_msg.gnssMeasurements.ephemerisStatuses) |
||||
|
||||
self.assertTrue(has_navs or has_polys) |
||||
self.assertTrue(has_fix) |
||||
self.assertTrue(seen_chip_eph or auto_fetch_navs) |
||||
self.assertTrue(seen_internet_eph or not auto_fetch_navs) |
||||
self.assertEqual(len(laikad.astro_dog.navs_fetched_times._ranges), 0) |
||||
self.assertEqual(None, laikad.orbit_fetch_future) |
||||
|
||||
def test_cache(self): |
||||
use_qcom = True |
||||
for use_qcom, logs in zip([True, False], [self.logs_qcom, self.logs], strict=True): |
||||
Params().remove(EPHEMERIS_CACHE) |
||||
laikad = Laikad(auto_update=True, save_ephemeris=True, use_qcom=use_qcom) |
||||
def wait_for_cache(): |
||||
max_time = 2 |
||||
while Params().get(EPHEMERIS_CACHE) is None: |
||||
time.sleep(0.1) |
||||
max_time -= 0.1 |
||||
if max_time < 0: |
||||
self.fail("Cache has not been written after 2 seconds") |
||||
|
||||
# Test cache with no ephemeris |
||||
laikad.last_report_time = GPSTime(1,0) |
||||
laikad.cache_ephemeris() |
||||
if Params().get(EPHEMERIS_CACHE) is not None: |
||||
self.fail("Cache should not have been written without valid ephem") |
||||
|
||||
#laikad.astro_dog.get_navs(self.first_gps_time) |
||||
msg = verify_messages(logs, laikad, return_one_success=True) |
||||
laikad.cache_ephemeris() |
||||
wait_for_cache() |
||||
|
||||
# Check both nav and orbits separate |
||||
laikad = Laikad(auto_update=False, valid_ephem_types=EphemerisType.NAV, |
||||
save_ephemeris=True, use_qcom=use_qcom, auto_fetch_navs=False) |
||||
# Verify navs are loaded from cache |
||||
self.dict_has_values(laikad.astro_dog.navs) |
||||
# Verify cache is working for only nav by running a segment |
||||
msg = verify_messages(logs, laikad, return_one_success=True) |
||||
self.assertTrue(len(msg.gnssMeasurements.ephemerisStatuses)) |
||||
self.assertTrue(any(x.source=='cache' for x in msg.gnssMeasurements.ephemerisStatuses)) |
||||
self.assertIsNotNone(msg) |
||||
|
||||
#TODO test cache with only orbits |
||||
#with patch('selfdrive.locationd.laikad.get_orbit_data', return_value=None) as mock_method: |
||||
# # Verify no orbit downloads even if orbit fetch times is reset since the cache has recently been saved and we don't want to download high frequently |
||||
# laikad.astro_dog.orbit_fetched_times = TimeRangeHolder() |
||||
# laikad.fetch_navs(self.first_gps_time, block=False) |
||||
# mock_method.assert_not_called() |
||||
|
||||
# # Verify cache is working for only orbits by running a segment |
||||
# laikad = Laikad(auto_update=False, valid_ephem_types=EphemerisType.ULTRA_RAPID_ORBIT, save_ephemeris=True) |
||||
# msg = verify_messages(self.logs, laikad, return_one_success=True) |
||||
# self.assertIsNotNone(msg) |
||||
# # Verify orbit data is not downloaded |
||||
# mock_method.assert_not_called() |
||||
#break |
||||
|
||||
def test_low_gnss_meas(self): |
||||
cnt = 0 |
||||
laikad = Laikad() |
||||
for m in self.low_gnss: |
||||
msg = laikad.process_gnss_msg(m.ubloxGnss, m.logMonoTime, block=True) |
||||
if msg is None: |
||||
continue |
||||
gm = msg.gnssMeasurements |
||||
if len(gm.correctedMeasurements) != 0 and gm.positionECEF.valid: |
||||
cnt += 1 |
||||
self.assertEqual(cnt, 560) |
||||
|
||||
def dict_has_values(self, dct): |
||||
self.assertGreater(len(dct), 0) |
||||
self.assertGreater(min([len(v) for v in dct.values()]), 0) |
||||
|
||||
|
||||
if __name__ == "__main__": |
||||
unittest.main() |
||||
@ -1,185 +0,0 @@ |
||||
import os |
||||
import time |
||||
import shutil |
||||
from datetime import datetime |
||||
from collections import defaultdict |
||||
from openpilot.system.hardware.hw import Paths |
||||
|
||||
import rpyc |
||||
from rpyc.utils.server import ThreadedServer |
||||
|
||||
#from openpilot.common.params import Params |
||||
import cereal.messaging as messaging |
||||
from openpilot.selfdrive.manager.process_config import managed_processes |
||||
from laika.lib.coordinates import ecef2geodetic |
||||
|
||||
DELTA = 0.001 |
||||
ALT_DELTA = 30 |
||||
MATCH_NUM = 10 |
||||
REPORT_STATS = 10 |
||||
|
||||
EPHEM_CACHE = "/data/params/d/LaikadEphemerisV3" |
||||
|
||||
SERVER_LOG_FILE = "/tmp/fuzzy_server.log" |
||||
server_log = open(SERVER_LOG_FILE, "w+") |
||||
|
||||
def slog(msg): |
||||
server_log.write(f"{datetime.now().strftime('%H:%M:%S.%f')} | {msg}\n") |
||||
server_log.flush() |
||||
|
||||
def handle_laikad(msg): |
||||
if not hasattr(msg, 'correctedMeasurements'): |
||||
return None |
||||
|
||||
num_corr = len(msg.correctedMeasurements) |
||||
pos_ecef = msg.positionECEF.value |
||||
pos_geo = [] |
||||
if len(pos_ecef) > 0: |
||||
pos_geo = ecef2geodetic(pos_ecef) |
||||
|
||||
pos_std = msg.positionECEF.std |
||||
pos_valid = msg.positionECEF.valid |
||||
|
||||
slog(f"{num_corr} {pos_geo} {pos_ecef} {pos_std} {pos_valid}") |
||||
return pos_geo, (num_corr, pos_geo, list(pos_ecef), list(msg.positionECEF.std)) |
||||
|
||||
hw_msgs = 0 |
||||
ephem_msgs: dict = defaultdict(int) |
||||
def handle_ublox(msg): |
||||
global hw_msgs |
||||
|
||||
d = msg.to_dict() |
||||
|
||||
if 'hwStatus2' in d: |
||||
hw_msgs += 1 |
||||
|
||||
if 'ephemeris' in d: |
||||
ephem_msgs[msg.ephemeris.svId] += 1 |
||||
|
||||
num_meas = None |
||||
if 'measurementReport' in d: |
||||
num_meas = msg.measurementReport.numMeas |
||||
|
||||
return [hw_msgs, ephem_msgs, num_meas] |
||||
|
||||
|
||||
def start_procs(procs): |
||||
for p in procs: |
||||
managed_processes[p].start() |
||||
time.sleep(1) |
||||
|
||||
def kill_procs(procs, no_retry=False): |
||||
for p in procs: |
||||
managed_processes[p].stop() |
||||
time.sleep(1) |
||||
|
||||
if not no_retry: |
||||
for p in procs: |
||||
mp = managed_processes[p].proc |
||||
if mp is not None and mp.is_alive(): |
||||
managed_processes[p].stop() |
||||
time.sleep(3) |
||||
|
||||
def check_alive_procs(procs): |
||||
for p in procs: |
||||
mp = managed_processes[p].proc |
||||
if mp is None or not mp.is_alive(): |
||||
return False, p |
||||
return True, None |
||||
|
||||
|
||||
class RemoteCheckerService(rpyc.Service): |
||||
def on_connect(self, conn): |
||||
pass |
||||
|
||||
def on_disconnect(self, conn): |
||||
#kill_procs(self.procs, no_retry=False) |
||||
# this execution is delayed, it will kill the next run of laikad |
||||
# TODO: add polling to wait for everything is killed |
||||
pass |
||||
|
||||
def run_checker(self, slat, slon, salt, sockets, procs, timeout): |
||||
global hw_msgs, ephem_msgs |
||||
hw_msgs = 0 |
||||
ephem_msgs = defaultdict(int) |
||||
|
||||
slog(f"Run test: {slat} {slon} {salt}") |
||||
|
||||
# quectel_mod = Params().get_bool("UbloxAvailable") |
||||
|
||||
match_cnt = 0 |
||||
msg_cnt = 0 |
||||
stats_laikad = [] |
||||
stats_ublox = [] |
||||
|
||||
self.procs = procs |
||||
start_procs(procs) |
||||
sm = messaging.SubMaster(sockets) |
||||
|
||||
start_time = time.monotonic() |
||||
while True: |
||||
sm.update() |
||||
|
||||
if sm.updated['ubloxGnss']: |
||||
stats_ublox.append(handle_ublox(sm['ubloxGnss'])) |
||||
|
||||
if sm.updated['gnssMeasurements']: |
||||
pos_geo, stats = handle_laikad(sm['gnssMeasurements']) |
||||
if pos_geo is None or len(pos_geo) == 0: |
||||
continue |
||||
|
||||
match = all(abs(g-s) < DELTA for g,s in zip(pos_geo[:2], [slat, slon], strict=True)) |
||||
match &= abs(pos_geo[2] - salt) < ALT_DELTA |
||||
if match: |
||||
match_cnt += 1 |
||||
if match_cnt >= MATCH_NUM: |
||||
return True, "MATCH", f"After: {round(time.monotonic() - start_time, 4)}" |
||||
|
||||
# keep some stats for error reporting |
||||
stats_laikad.append(stats) |
||||
|
||||
if (msg_cnt % 10) == 0: |
||||
a, p = check_alive_procs(procs) |
||||
if not a: |
||||
return False, "PROC CRASH", f"{p}" |
||||
msg_cnt += 1 |
||||
|
||||
if (time.monotonic() - start_time) > timeout: |
||||
h = f"LAIKAD: {stats_laikad[-REPORT_STATS:]}" |
||||
if len(h) == 0: |
||||
h = f"UBLOX: {stats_ublox[-REPORT_STATS:]}" |
||||
return False, "TIMEOUT", h |
||||
|
||||
|
||||
def exposed_run_checker(self, slat, slon, salt, timeout=180, use_laikad=True): |
||||
try: |
||||
procs = [] |
||||
sockets = [] |
||||
|
||||
if use_laikad: |
||||
procs.append("laikad") # pigeond, ubloxd # might wanna keep them running |
||||
sockets += ['ubloxGnss', 'gnssMeasurements'] |
||||
|
||||
if os.path.exists(EPHEM_CACHE): |
||||
os.remove(EPHEM_CACHE) |
||||
shutil.rmtree(Paths.download_cache_root(), ignore_errors=True) |
||||
|
||||
ret = self.run_checker(slat, slon, salt, sockets, procs, timeout) |
||||
kill_procs(procs) |
||||
return ret |
||||
|
||||
except Exception as e: |
||||
# always make sure processes get killed |
||||
kill_procs(procs) |
||||
return False, "CHECKER CRASHED", f"{str(e)}" |
||||
|
||||
|
||||
def exposed_kill_procs(self): |
||||
kill_procs(self.procs, no_retry=True) |
||||
|
||||
|
||||
if __name__ == "__main__": |
||||
print(f"Sever Log written to: {SERVER_LOG_FILE}") |
||||
t = ThreadedServer(RemoteCheckerService, port=18861) |
||||
t.start() |
||||
|
||||
@ -1,105 +0,0 @@ |
||||
#!/usr/bin/env python3 |
||||
import os |
||||
import time |
||||
import unittest |
||||
|
||||
import cereal.messaging as messaging |
||||
import openpilot.system.sensord.pigeond as pd |
||||
|
||||
from openpilot.common.params import Params |
||||
from openpilot.system.hardware import TICI |
||||
from openpilot.selfdrive.manager.process_config import managed_processes |
||||
from openpilot.selfdrive.test.helpers import with_processes |
||||
|
||||
|
||||
def wait_for_location(sm, timeout, con=10): |
||||
cons_meas = 0 |
||||
start_time = time.monotonic() |
||||
while (time.monotonic() - start_time) < timeout: |
||||
sm.update() |
||||
if not sm.updated["gnssMeasurements"]: |
||||
continue |
||||
|
||||
msg = sm["gnssMeasurements"] |
||||
cons_meas = (cons_meas + 1) if 'positionECEF' in msg.to_dict() else 0 |
||||
if cons_meas >= con: |
||||
return True |
||||
return False |
||||
|
||||
|
||||
class TestLaikad(unittest.TestCase): |
||||
@classmethod |
||||
def setUpClass(self): |
||||
if not TICI: |
||||
raise unittest.SkipTest |
||||
|
||||
ublox_available = Params().get_bool("UbloxAvailable") |
||||
if not ublox_available: |
||||
raise unittest.SkipTest |
||||
|
||||
def setUp(self): |
||||
# ensure laikad cold start |
||||
Params().remove("LaikadEphemerisV3") |
||||
os.environ["LAIKAD_NO_INTERNET"] = "1" |
||||
managed_processes['laikad'].start() |
||||
|
||||
def tearDown(self): |
||||
managed_processes['laikad'].stop() |
||||
|
||||
|
||||
@with_processes(['pigeond', 'ubloxd']) |
||||
def test_laikad_cold_start(self): |
||||
time.sleep(5) |
||||
|
||||
start_time = time.monotonic() |
||||
sm = messaging.SubMaster(["gnssMeasurements"]) |
||||
|
||||
success = wait_for_location(sm, 60*2, con=10) |
||||
duration = time.monotonic() - start_time |
||||
|
||||
assert success, "Waiting for location timed out (2min)!" |
||||
assert duration < 60, f"Received Location {duration}!" |
||||
|
||||
|
||||
@with_processes(['ubloxd']) |
||||
def test_laikad_ublox_reset_start(self): |
||||
time.sleep(2) |
||||
|
||||
pigeon, pm = pd.create_pigeon() |
||||
pd.init_baudrate(pigeon) |
||||
assert pigeon.reset_device(), "Could not reset device!" |
||||
|
||||
laikad_sock = messaging.sub_sock("gnssMeasurements", timeout=0.1) |
||||
ublox_gnss_sock = messaging.sub_sock("ubloxGnss", timeout=0.1) |
||||
|
||||
pd.init_baudrate(pigeon) |
||||
pd.initialize_pigeon(pigeon) |
||||
pd.run_receiving(pigeon, pm, 180) |
||||
|
||||
ublox_msgs = messaging.drain_sock(ublox_gnss_sock) |
||||
laikad_msgs = messaging.drain_sock(laikad_sock) |
||||
|
||||
gps_ephem_cnt = 0 |
||||
glonass_ephem_cnt = 0 |
||||
for um in ublox_msgs: |
||||
if um.ubloxGnss.which() == 'ephemeris': |
||||
gps_ephem_cnt += 1 |
||||
elif um.ubloxGnss.which() == 'glonassEphemeris': |
||||
glonass_ephem_cnt += 1 |
||||
|
||||
assert gps_ephem_cnt > 0, "NO gps ephemeris collected!" |
||||
assert glonass_ephem_cnt > 0, "NO glonass ephemeris collected!" |
||||
|
||||
pos_meas = 0 |
||||
duration = -1 |
||||
for lm in laikad_msgs: |
||||
pos_meas = (pos_meas + 1) if 'positionECEF' in lm.gnssMeasurements.to_dict() else 0 |
||||
if pos_meas > 5: |
||||
duration = (lm.logMonoTime - laikad_msgs[0].logMonoTime)*1e-9 |
||||
break |
||||
|
||||
assert pos_meas > 5, "NOT enough positions at end of read!" |
||||
assert duration < 120, "Laikad took too long to get a Position!" |
||||
|
||||
if __name__ == "__main__": |
||||
unittest.main() |
||||
Loading…
Reference in new issue