openpilot is an open source driver assistance system. openpilot performs the functions of Automated Lane Centering and Adaptive Cruise Control for over 200 supported car makes and models.
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#!/usr/bin/env python3
import capnp
import os
import sys
import threading
import importlib
import time
if "CI" in os.environ:
def tqdm(x):
return x
else:
from tqdm import tqdm # type: ignore
from cereal import car, log
from selfdrive.car.car_helpers import get_car
import selfdrive.manager as manager
import cereal.messaging as messaging
from common.params import Params
from cereal.services import service_list
from collections import namedtuple
from selfdrive.manager import managed_processes
# Numpy gives different results based on CPU features after version 19
NUMPY_TOLERANCE = 1e-7
ProcessConfig = namedtuple('ProcessConfig', ['proc_name', 'pub_sub', 'ignore', 'init_callback', 'should_recv_callback', 'tolerance'])
def wait_for_event(evt):
if not evt.wait(15):
if threading.currentThread().getName() == "MainThread":
# tested process likely died. don't let test just hang
raise Exception("Timeout reached. Tested process likely crashed.")
else:
# done testing this process, let it die
sys.exit(0)
class FakeSocket:
def __init__(self, wait=True):
self.data = []
self.wait = wait
self.recv_called = threading.Event()
self.recv_ready = threading.Event()
def receive(self, non_blocking=False):
if non_blocking:
return None
if self.wait:
self.recv_called.set()
wait_for_event(self.recv_ready)
self.recv_ready.clear()
return self.data.pop()
def send(self, data):
if self.wait:
wait_for_event(self.recv_called)
self.recv_called.clear()
self.data.append(data)
if self.wait:
self.recv_ready.set()
def wait_for_recv(self):
wait_for_event(self.recv_called)
class DumbSocket:
def __init__(self, s=None):
if s is not None:
try:
dat = messaging.new_message(s)
except capnp.lib.capnp.KjException: # pylint: disable=c-extension-no-member
# lists
dat = messaging.new_message(s, 0)
self.data = dat.to_bytes()
def receive(self, non_blocking=False):
return self.data
def send(self, dat):
pass
class FakeSubMaster(messaging.SubMaster):
def __init__(self, services):
super(FakeSubMaster, self).__init__(services, addr=None)
self.sock = {s: DumbSocket(s) for s in services}
self.update_called = threading.Event()
self.update_ready = threading.Event()
self.wait_on_getitem = False
def __getitem__(self, s):
# hack to know when fingerprinting is done
if self.wait_on_getitem:
self.update_called.set()
wait_for_event(self.update_ready)
self.update_ready.clear()
return self.data[s]
def update(self, timeout=-1):
self.update_called.set()
wait_for_event(self.update_ready)
self.update_ready.clear()
def update_msgs(self, cur_time, msgs):
wait_for_event(self.update_called)
self.update_called.clear()
super(FakeSubMaster, self).update_msgs(cur_time, msgs)
self.update_ready.set()
def wait_for_update(self):
wait_for_event(self.update_called)
class FakePubMaster(messaging.PubMaster):
def __init__(self, services): # pylint: disable=super-init-not-called
self.data = {}
self.sock = {}
self.last_updated = None
for s in services:
try:
data = messaging.new_message(s)
except capnp.lib.capnp.KjException:
data = messaging.new_message(s, 0)
self.data[s] = data.as_reader()
self.sock[s] = DumbSocket()
self.send_called = threading.Event()
self.get_called = threading.Event()
def send(self, s, dat):
self.last_updated = s
if isinstance(dat, bytes):
self.data[s] = log.Event.from_bytes(dat)
else:
self.data[s] = dat.as_reader()
self.send_called.set()
wait_for_event(self.get_called)
self.get_called.clear()
def wait_for_msg(self):
wait_for_event(self.send_called)
self.send_called.clear()
dat = self.data[self.last_updated]
self.get_called.set()
return dat
def fingerprint(msgs, fsm, can_sock):
print("start fingerprinting")
fsm.wait_on_getitem = True
# populate fake socket with data for fingerprinting
canmsgs = [msg for msg in msgs if msg.which() == "can"]
wait_for_event(can_sock.recv_called)
can_sock.recv_called.clear()
can_sock.data = [msg.as_builder().to_bytes() for msg in canmsgs[:300]]
can_sock.recv_ready.set()
can_sock.wait = False
# we know fingerprinting is done when controlsd sets sm['lateralPlan'].sensorValid
wait_for_event(fsm.update_called)
fsm.update_called.clear()
fsm.wait_on_getitem = False
can_sock.wait = True
can_sock.data = []
fsm.update_ready.set()
print("finished fingerprinting")
def get_car_params(msgs, fsm, can_sock):
can = FakeSocket(wait=False)
sendcan = FakeSocket(wait=False)
canmsgs = [msg for msg in msgs if msg.which() == 'can']
for m in canmsgs[:300]:
can.send(m.as_builder().to_bytes())
_, CP = get_car(can, sendcan)
Params().put("CarParams", CP.to_bytes())
def radar_rcv_callback(msg, CP, cfg, fsm):
if msg.which() != "can":
return [], False
elif CP.radarOffCan:
return ["radarState", "liveTracks"], True
radar_msgs = {"honda": [0x445], "toyota": [0x19f, 0x22f], "gm": [0x474],
"chrysler": [0x2d4]}.get(CP.carName, None)
if radar_msgs is None:
raise NotImplementedError
for m in msg.can:
if m.src == 1 and m.address in radar_msgs:
return ["radarState", "liveTracks"], True
return [], False
def calibration_rcv_callback(msg, CP, cfg, fsm):
# calibrationd publishes 1 calibrationData every 5 cameraOdometry packets.
# should_recv always true to increment frame
recv_socks = []
frame = fsm.frame + 1 # incrementing hasn't happened yet in SubMaster
if frame == 0 or (msg.which() == 'cameraOdometry' and (frame % 5) == 0):
recv_socks = ["liveCalibration"]
return recv_socks, fsm.frame == 0 or msg.which() == 'cameraOdometry'
def ublox_rcv_callback(msg):
msg_class, msg_id = msg.ubloxRaw[2:4]
if (msg_class, msg_id) in {(1, 7 * 16)}:
return ["gpsLocationExternal"]
elif (msg_class, msg_id) in {(2, 1 * 16 + 5), (10, 9)}:
return ["ubloxGnss"]
else:
return []
CONFIGS = [
ProcessConfig(
proc_name="controlsd",
pub_sub={
"can": ["controlsState", "carState", "carControl", "sendcan", "carEvents", "carParams"],
"thermal": [], "health": [], "liveCalibration": [], "driverMonitoringState": [], "longitudinalPlan": [], "lateralPlan": [], "gpsLocation": [], "liveLocationKalman": [], "liveParameters": [], "radarState": [],
"modelV2": [], "frontFrame": [], "frame": [], "ubloxRaw": [], "managerState": [],
},
ignore=["logMonoTime", "valid", "controlsState.startMonoTime", "controlsState.cumLagMs"],
init_callback=fingerprint,
should_recv_callback=None,
tolerance=NUMPY_TOLERANCE,
),
ProcessConfig(
proc_name="radard",
pub_sub={
"can": ["radarState", "liveTracks"],
"liveParameters": [], "carState": [], "modelV2": [],
},
ignore=["logMonoTime", "valid", "radarState.cumLagMs"],
init_callback=get_car_params,
should_recv_callback=radar_rcv_callback,
tolerance=None,
),
ProcessConfig(
proc_name="plannerd",
pub_sub={
"modelV2": ["lateralPlan"], "radarState": ["longitudinalPlan"],
"carState": [], "controlsState": [], "liveParameters": [],
},
ignore=["logMonoTime", "valid", "longitudinalPlan.processingDelay"],
init_callback=get_car_params,
should_recv_callback=None,
tolerance=None,
),
ProcessConfig(
proc_name="calibrationd",
pub_sub={
"carState": ["liveCalibration"],
"cameraOdometry": []
},
ignore=["logMonoTime", "valid"],
init_callback=get_car_params,
should_recv_callback=calibration_rcv_callback,
tolerance=None,
),
ProcessConfig(
proc_name="dmonitoringd",
pub_sub={
"driverState": ["driverMonitoringState"],
"liveCalibration": [], "carState": [], "modelV2": [], "controlsState": [],
},
ignore=["logMonoTime", "valid"],
init_callback=get_car_params,
should_recv_callback=None,
tolerance=NUMPY_TOLERANCE,
),
ProcessConfig(
proc_name="locationd",
pub_sub={
"cameraOdometry": ["liveLocationKalman"],
"sensorEvents": [], "gpsLocationExternal": [], "liveCalibration": [], "carState": [],
},
ignore=["logMonoTime", "valid"],
init_callback=get_car_params,
should_recv_callback=None,
tolerance=NUMPY_TOLERANCE,
),
ProcessConfig(
proc_name="paramsd",
pub_sub={
"liveLocationKalman": ["liveParameters"],
"carState": []
},
ignore=["logMonoTime", "valid"],
init_callback=get_car_params,
should_recv_callback=None,
tolerance=NUMPY_TOLERANCE,
),
ProcessConfig(
proc_name="ubloxd",
pub_sub={
"ubloxRaw": ["ubloxGnss", "gpsLocationExternal"],
},
ignore=["logMonoTime"],
init_callback=None,
should_recv_callback=ublox_rcv_callback,
tolerance=None,
),
]
def replay_process(cfg, lr):
proc = managed_processes[cfg.proc_name]
if isinstance(proc, str):
return python_replay_process(cfg, lr)
else:
return cpp_replay_process(cfg, lr)
def python_replay_process(cfg, lr):
sub_sockets = [s for _, sub in cfg.pub_sub.items() for s in sub]
pub_sockets = [s for s in cfg.pub_sub.keys() if s != 'can']
fsm = FakeSubMaster(pub_sockets)
fpm = FakePubMaster(sub_sockets)
args = (fsm, fpm)
if 'can' in list(cfg.pub_sub.keys()):
can_sock = FakeSocket()
args = (fsm, fpm, can_sock)
all_msgs = sorted(lr, key=lambda msg: msg.logMonoTime)
pub_msgs = [msg for msg in all_msgs if msg.which() in list(cfg.pub_sub.keys())]
params = Params()
params.clear_all()
params.manager_start()
params.put("OpenpilotEnabledToggle", "1")
params.put("Passive", "0")
params.put("CommunityFeaturesToggle", "1")
os.environ['NO_RADAR_SLEEP'] = "1"
os.environ['SKIP_FW_QUERY'] = "1"
os.environ['FINGERPRINT'] = ""
for msg in lr:
if msg.which() == 'carParams':
# TODO: get a stock VW route
if "Generic Volkswagen" in msg.carParams.carFingerprint:
os.environ['FINGERPRINT'] = "VOLKSWAGEN GOLF"
else:
os.environ['FINGERPRINT'] = msg.carParams.carFingerprint
break
manager.prepare_managed_process(cfg.proc_name, build=True)
mod = importlib.import_module(manager.managed_processes[cfg.proc_name])
thread = threading.Thread(target=mod.main, args=args)
thread.daemon = True
thread.start()
if cfg.init_callback is not None:
if 'can' not in list(cfg.pub_sub.keys()):
can_sock = None
cfg.init_callback(all_msgs, fsm, can_sock)
CP = car.CarParams.from_bytes(params.get("CarParams", block=True))
# wait for started process to be ready
if 'can' in list(cfg.pub_sub.keys()):
can_sock.wait_for_recv()
else:
fsm.wait_for_update()
log_msgs, msg_queue = [], []
for msg in tqdm(pub_msgs):
if cfg.should_recv_callback is not None:
recv_socks, should_recv = cfg.should_recv_callback(msg, CP, cfg, fsm)
else:
recv_socks = [s for s in cfg.pub_sub[msg.which()] if
(fsm.frame + 1) % int(service_list[msg.which()].frequency / service_list[s].frequency) == 0]
should_recv = bool(len(recv_socks))
if msg.which() == 'can':
can_sock.send(msg.as_builder().to_bytes())
else:
msg_queue.append(msg.as_builder())
if should_recv:
fsm.update_msgs(0, msg_queue)
msg_queue = []
recv_cnt = len(recv_socks)
while recv_cnt > 0:
m = fpm.wait_for_msg()
log_msgs.append(m)
recv_cnt -= m.which() in recv_socks
return log_msgs
def cpp_replay_process(cfg, lr):
sub_sockets = [s for _, sub in cfg.pub_sub.items() for s in sub] # We get responses here
pm = messaging.PubMaster(cfg.pub_sub.keys())
sockets = {s : messaging.sub_sock(s, timeout=1000) for s in sub_sockets}
all_msgs = sorted(lr, key=lambda msg: msg.logMonoTime)
pub_msgs = [msg for msg in all_msgs if msg.which() in list(cfg.pub_sub.keys())]
manager.prepare_managed_process(cfg.proc_name)
manager.start_managed_process(cfg.proc_name)
time.sleep(1) # We give the process time to start
log_msgs = []
for s in sub_sockets:
messaging.recv_one_or_none(sockets[s])
for msg in tqdm(pub_msgs):
pm.send(msg.which(), msg.as_builder())
resp_sockets = sub_sockets if cfg.should_recv_callback is None else cfg.should_recv_callback(msg)
for s in resp_sockets:
response = messaging.recv_one(sockets[s])
if response is not None:
log_msgs.append(response)
manager.kill_managed_process(cfg.proc_name)
return log_msgs