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mirror of https://git.kernel.org/pub/scm/network/wireless/iwd.git synced 2024-11-09 13:39:23 +01:00
iwd/tools/run-tests
James Prestwood 2be49a93ba auto-t: make test timeout configurable
With the addition of DPP PKEX autotests some of the timeouts are
quite long and hit test-runners maximum timeouts. For UML we should
allow this since time-travel lets us skip idle waits. Move the test
timeout out of a global define and into the argument list so QEMU
and UML can define it differently.
2023-11-13 09:46:34 -06:00

1049 lines
27 KiB
Python
Executable File

#!/usr/bin/python3
import os
import shutil
import sys
import subprocess
import atexit
import time
import unittest
import importlib
from unittest.result import TestResult
import multiprocessing
import re
import traceback
from configparser import ConfigParser
from prettytable import PrettyTable
from termcolor import colored
from glob import glob
from collections import namedtuple
import dbus.mainloop.glib
from gi.repository import GLib
from runner import Runner
from utils import Process, Namespace, BarChart
config = None
intf_id = 0
dbus.mainloop.glib.DBusGMainLoop(set_as_default=True)
def dbg(*s, **kwargs):
'''
Allows prints if stdout has been re-directed
'''
print(*s, **kwargs, file=sys.__stdout__)
def write_results(file, results):
with open(file, 'w') as f:
for test, results in results.items():
if results.failures != 0 or results.errors != 0:
f.write('%s:FAIL\n' % test)
else:
f.write('%s:PASS\n' % test)
def exit_vm():
if config:
for p in Process.get_all():
print("Process %s still running!" % p.args[0])
p.kill()
if config.ctx and config.ctx.results:
success = print_results(config.ctx.results, int(config.ctx.args.timeout))
if config.ctx.args.result:
write_results(config.ctx.args.result, config.ctx.results)
os.sync()
runner.stop()
class Interface:
def __init__(self, name, config, ns):
self.name = name
self.ctrl_interface = '/var/run/hostapd/' + name
self.config = config
self.ns = ns
def __del__(self):
Process(['iw', 'dev', self.name, 'del'], namespace=self.ns.name).wait()
def set_interface_state(self, state):
Process(['ip', 'link', 'set', self.name, state], namespace=self.ns.name).wait()
class Radio:
def __init__(self, name, default_ns):
self.name = name
# hostapd will reset this if this radio is used by it
self.use = 'iwd'
self.interface = None
self.ns = default_ns
def __del__(self):
print("Removing radio %s" % self.name)
self.interface = None
def set_namespace(self, ns):
self.ns = ns
Process(['iw', 'phy', self.name, 'set', 'netns', 'name', ns.name]).wait()
def create_interface(self, config, use):
global intf_id
ifname = 'wln%s' % intf_id
intf_id += 1
self.interface = Interface(ifname, config, self.ns)
self.use = use
Process(['iw', 'phy', self.name, 'interface', 'add', ifname,
'type', 'managed'], namespace=self.ns.name).wait()
return self.interface
def __str__(self):
ret = self.name + ':\n'
ret += '\tUsed By: %s' % self.use
if self.interface:
ret += ' (%s)' % self.interface.name
if self.ns is not None:
ret += ' (ns=%s)' % self.ns.name
ret += '\n'
return ret
class VirtualRadio(Radio):
'''
A subclass of 'Radio' specific to mac80211_hwsim radios.
TODO: Using D-Bus to create and destroy radios is more desireable
than the command line.
'''
def __init__(self, name, default_ns, cfg=None):
global config
self.disable_cipher = None
self.disable_iftype = None
self.hwsim = config.hwsim.Hwsim()
if cfg:
self.disable_iftype = cfg.get('iftype_disable', None)
self.disable_cipher = cfg.get('cipher_disable', None)
self._radio = self.hwsim.radios.create(name, p2p_device=True,
iftype_disable=self.disable_iftype,
cipher_disable=self.disable_cipher)
super().__init__(self._radio.name, default_ns)
def __del__(self):
super().__del__()
# If the radio was moved into a namespace this will fail
try:
self._radio.remove()
except:
pass
self._radio = None
def __str__(self):
ret = super().__str__()
if self.disable_iftype:
ret += '\tDisabled interface types: %s\n' % self.disable_iftype
if self.disable_cipher:
ret += '\tDisabled ciphers: %s\n' % self.disable_cipher
ret += '\tPath: %s' % self._radio.path
ret += '\n'
return ret
class HostapdInstance:
'''
A single instance of hostapd. In reality all hostapd instances
are started as a single process. This class just makes things
convenient for communicating with one of the hostapd APs.
'''
def __init__(self, config, radio):
self.radio = radio
self.config = config
self.cli = None
self.intf = radio.create_interface(self.config, 'hostapd')
self.intf.set_interface_state('up')
def __del__(self):
print("Removing HostapdInstance %s" % self.config)
self.intf.set_interface_state('down')
self.radio = None
self.intf = None
def __str__(self):
ret = 'Hostapd (%s)\n' % self.intf.name
ret += '\tConfig: %s\n' % self.config
return ret
class Hostapd:
'''
A set of running hostapd instances. This is really just a single
process since hostapd can be started with multiple config files.
'''
def __init__(self, ns, radios, configs, radius):
if len(configs) != len(radios):
raise Exception("Config (%d) and radio (%d) list length not equal" % \
(len(configs), len(radios)))
print("Initializing hostapd instances")
Process(['ip', 'link', 'set', 'eth0', 'up']).wait()
Process(['ip', 'link', 'set', 'eth1', 'up']).wait()
self.ns = ns
self.global_ctrl_iface = '/var/run/hostapd/ctrl' + (str(ns.name) if ns.name else 'main')
self.instances = [HostapdInstance(c, r) for c, r in zip(configs, radios)]
ifaces = [rad.interface.name for rad in radios]
ifaces = ','.join(ifaces)
args = ['hostapd', '-g', self.global_ctrl_iface]
if ifaces:
args.extend(['-i', ifaces])
#
# Config files should already be present in /tmp. This appends
# ctrl_interface and does any variable replacement. Currently
# this is just any $ifaceN occurrences.
#
for c in configs:
full_path = '/tmp/%s' % c
args.append(full_path)
self._rewrite_config(full_path)
if radius:
args.append(radius)
if Process.is_verbose('hostapd'):
args.append('-d')
self.process = Process(args, namespace=ns.name)
self.process.wait_for_socket(self.global_ctrl_iface, 30)
for hapd in self.instances:
self.process.wait_for_socket(hapd.intf.ctrl_interface, 30)
def attach_cli(self):
global config
for hapd in self.instances:
hapd.cli = config.hostapd.HostapdCLI(config=hapd.config)
def _rewrite_config(self, config):
'''
Replaces any $ifaceN values with the correct interface
names as well as appends the ctrl_interface path to
the config file.
'''
with open(config, 'r+') as f:
data = f.read()
to_replace = []
for match in re.finditer(r'\$iface[0-9]+', data):
tag = data[match.start():match.end()]
idx = tag.split('iface')[1]
to_replace.append((tag, self.instances[int(idx)].intf.name))
for r in to_replace:
data = data.replace(r[0], r[1], 1)
data += '\nctrl_interface=/var/run/hostapd\n'
f.write(data)
def __getitem__(self, config):
if not config:
return self.instances[0]
for hapd in self.instances:
if hapd.config == config:
return hapd
return None
def __del__(self):
print("Removing Hostapd")
try:
os.remove(self.global_ctrl_iface)
except:
print("Failed to remove %s" % self.global_ctrl_iface)
for hapd in self.instances:
GLib.source_remove(hapd.cli.io_watch)
# Hostapd may have already been stopped
if self.process:
self.process.kill()
# Hostapd creates simdb sockets for EAP-SIM/AKA tests but does not
# clean them up.
for f in glob("/tmp/eap_sim_db*"):
os.remove(f)
class TestContext(Namespace):
'''
Contains all information for a given set of tests being run
such as processes, radios, interfaces and test results.
'''
def __init__(self, args):
self.name = None
self.args = args
self.hw_config = None
self.hostapd = None
self.wpas_interfaces = None
self.radios = []
self.results = {}
self.namespaces = []
self._last_mem_available = 0
self._mem_chart = BarChart()
def start_dbus_monitor(self):
if not Process.is_verbose('dbus-monitor'):
return
self.start_process(['dbus-monitor', '--address', self.dbus_address])
def start_haveged(self):
self.start_process(['haveged', '-F'])
def create_radios(self):
setup = self.hw_config['SETUP']
nradios = int(setup['num_radios'])
args = ['hwsim']
if self.hw_config['SETUP'].get('hwsim_medium', 'no') in ['no', '0', 'false']:
# register hwsim as medium
args.extend(['--no-register'])
proc = self.start_process(args)
proc.wait_for_service(self, 'net.connman.hwsim', 20)
for i in range(nradios):
name = 'rad%u' % i
# Get any [radX] sections. These are for configuring
# any special radios. This no longer requires a
# radio_conf list, we just assume radios start rad0
# and increment.
rad_config = None
if self.hw_config.has_section(name):
rad_config = self.hw_config[name]
self.radios.append(VirtualRadio(name, self, rad_config))
def discover_radios(self):
import pyroute2
phys = []
try:
iw = pyroute2.iwutil.IW()
except:
iw = pyroute2.IW()
attrs = [phy['attrs'] for phy in iw.list_wiphy()]
for attr in attrs:
for key, value in attr:
if key == 'NL80211_ATTR_WIPHY_NAME':
if value not in phys:
phys.append(value)
break
print('Discovered radios: %s' % str(phys))
self.radios = [Radio(name, self) for name in phys]
def start_radios(self):
reg_domain = self.hw_config['SETUP'].get('reg_domain', None)
if reg_domain:
Process(['iw', 'reg', 'set', reg_domain]).wait()
if self.args.hw:
self.discover_radios()
else:
self.create_radios()
def start_hostapd(self):
if not 'HOSTAPD' in self.hw_config:
return
settings = self.hw_config['HOSTAPD']
if self.args.hw:
# Just grab the first N radios. It gets rather
# complicated trying to map radX radios specified in
# hw.conf so any passed through physical adapters are
# just given to hostapd/IWD as they appear during
# discovery.
#
# TODO: It may be desireable to map PCI/USB adapters to
# specific radX radios specified in the config but
# there are really 2 separate use cases here.
# 1. You want to test a *specific* radio with IWD
# or hostapd. For this you would want radX
# to map to a specific radio
# 2. You have many adapters in use to run multiple
# tests. In this case you would not care what
# was using each radio, just that there was
# enough to run all tests.
hapd_configs = [conf for rad, conf in settings.items() if rad != 'radius_server']
hapd_processes = [(self, self.radios[:len(hapd_configs)], hapd_configs)]
else:
hapd_processes = []
for ns in [self] + self.namespaces:
ns_radios = [rad for rad in ns.radios if rad.name in settings]
if len(ns_radios):
ns_configs = [settings[rad.name] for rad in ns_radios]
hapd_processes.append((ns, ns_radios, ns_configs))
if not hapd_processes:
hapd_processes.append((self, [], []))
radius_config = settings.get('radius_server', None)
self.hostapd = [Hostapd(ns, radios, configs, radius_config)
for ns, radios, configs in hapd_processes]
for hapd in self.hostapd:
hapd.attach_cli()
def get_frequencies(self):
frequencies = []
for hapd in self.hostapd:
frequencies += [instance.cli.frequency for instance in hapd.instances]
return frequencies
def get_hapd_instance(self, config=None):
instances = [i for hapd in self.hostapd for i in hapd.instances]
if config is None:
return instances[0]
for hapd in instances:
if hapd.config == config:
return hapd
def start_wpas_interfaces(self):
if 'WPA_SUPPLICANT' not in self.hw_config:
return
if not shutil.which('wpa_supplicant'):
print('wpa_supplicant not found, dependent tests will be skipped')
return
settings = self.hw_config['WPA_SUPPLICANT']
if self.args.hw:
nradios = len(settings.items())
wpas_radios = self.radios[:nradios]
self.wpas_interfaces = []
#
# Physical radios most likely will use a different name
# than 'rad#' but the config file is referenced by these
# 'rad#' names. Iterate through both the settings and
# physical radios to create interfaces associated with
# each config file.
#
for vrad, hwrad in zip(settings.items(), wpas_radios):
self.wpas_interfaces.append(hwrad.create_interface(vrad[1], 'wpas'))
else:
wpas_radios = [rad for rad in self.radios if rad.name in settings]
self.wpas_interfaces = [rad.create_interface(settings[rad.name], 'wpas') \
for rad in wpas_radios]
def start_ofono(self):
sim_keys = self.hw_config['SETUP'].get('sim_keys', None)
if not sim_keys:
print("Ofono not requred")
return
elif sim_keys != 'ofono':
os.environ['IWD_SIM_KEYS'] = sim_keys
return
if not shutil.which('ofonod') or not shutil.which('phonesim'):
print("Ofono or Phonesim not found, skipping test")
return
os.environ['OFONO_PHONESIM_CONFIG'] = '/tmp/phonesim.conf'
phonesim_args = ['phonesim', '-p', '12345', '/usr/share/phonesim/default.xml']
self.start_process(phonesim_args)
#
# TODO:
# Is there something to wait for? Without this phonesim rejects
# connections on all but the fist test.
#
time.sleep(3)
ofono_args = ['ofonod', '-n', '--plugin=atmodem,phonesim']
if Process.is_verbose('ofonod'):
ofono_args.append('-d')
self.start_process(ofono_args)
print("Ofono started")
def create_namespaces(self):
if not self.hw_config.has_section('NameSpaces'):
return
for key, value in self.hw_config.items('NameSpaces'):
radio_names = value.split(',')
# Gather up radio objects for this namespace
radios = [rad for rad in self.radios if rad.name in radio_names]
# Remove radios from 'root' namespace
self.radios = list(set(self.radios) - set(radios))
self.namespaces.append(Namespace(self.args, key, radios))
def get_namespace(self, ns):
for n in self.namespaces:
if n.name == ns:
return n
return None
def stop_test_processes(self):
for n in self.namespaces:
n.reset()
self.namespaces = []
self.hostapd = None
self.wpas_interfaces = None
self.reset()
def meminfo_to_dict(self):
def removesuffix(string, suffix):
if string.endswith(suffix):
return string[:-len(suffix)]
return string
ret = {}
with open('/proc/meminfo', 'r') as f:
data = f.read().strip().split('\n')
for l in data:
entry = l.split(':')
ret[entry[0]] = int(removesuffix(entry[1], 'kB'))
return ret
def __str__(self):
ret = 'Arguments:\n'
for arg in vars(self.args):
ret += '\t --%s %s\n' % (arg, str(getattr(self.args, arg)))
if self.hostapd:
for hapd in self.hostapd:
ret += 'Hostapd (ns=%s):\n' % (hapd.ns.name,)
for h in hapd.instances:
ret += '\t%s\n' % (str(h),)
else:
ret += 'Hostapd:\n'
ret += '\tNo Hostapd instances\n'
info = self.meminfo_to_dict()
self._mem_chart.add_value(info['MemAvailable'])
ret += 'Available Memory: %u kB\n' % info['MemAvailable']
ret += 'Last Test Delta: %+d kB\n' % (info['MemAvailable'] - self._last_mem_available)
ret += 'Per-test Usage:\n'
ret += str(self._mem_chart)
self._last_mem_available = info['MemAvailable']
ret += super().__str__()
for n in self.namespaces:
ret += n.__str__()
return ret
def build_unit_list(args):
'''
Build list of unit tests based on passed arguments. This first
checks for literal names provided in the arguments, then if
no matches were found, checks for a glob match.
'''
tests = []
test_root = args.testhome + '/unit'
for unit in args.unit_tests.split(','):
path = '%s/%s' % (test_root, unit)
if os.access(unit, os.X_OK):
tests.append(unit)
elif os.access(path, os.X_OK):
tests.append(path)
else:
# Full list or glob, first build up valid list of tests
matches = glob(path)
if matches == []:
raise Exception("Could not find test %s" % unit)
matches = [exe for exe in matches if os.access(exe, os.X_OK)]
tests.extend(matches)
return sorted(tests)
def build_test_list(args):
'''
Build list of auto test directories based on passed arguments.
First check for absolute paths, then look in <iwd>/autotests,
then glob match.
'''
tests = []
test_root = args.testhome + '/autotests'
# Run all tests
if not args.autotests:
# Get list of all autotests (committed in git)
Process(['git', 'config', '--system', '--add', 'safe.directory',
os.path.normpath(args.testhome)]).wait()
tests = os.popen('git -C %s ls-files autotests/ | cut -f2 -d"/" \
| grep "^test" | uniq' % args.testhome).read() \
.strip().split('\n')
tests = [test_root + '/' + t for t in tests]
else:
print("Generating partial test list")
full_list = sorted(os.listdir(test_root))
for t in args.autotests.split(','):
path = '%s/%s' % (test_root, t)
if t.endswith('+'):
t = t.split('+')[0]
i = full_list.index(t)
tests = [test_root + '/' + x for x in full_list[i:] \
if x.startswith('test')]
elif os.path.exists(t):
if t not in tests:
tests.append(t)
elif os.path.exists(path):
if path not in tests:
tests.append(path)
else:
matches = glob(path)
if matches == []:
raise Exception("Could not find test %s" % t)
tests.extend(list(set(matches) - set(tests)))
return sorted(tests)
SimpleResult = namedtuple('SimpleResult', 'run failures errors skipped time')
def start_test(ctx, subtests, rqueue):
'''
Run an individual test. 'subtests' are parsed prior to calling
but these effectively make up a single test. 'rqueue' is the
results queue which is required since this is using
multiprocessing.
'''
run = 0
errors = 0
failures = 0
skipped = 0
start = time.time()
#
# Iterate through each individual python test.
#
for s in subtests:
loader = unittest.TestLoader()
try:
module = importlib.import_module(os.path.splitext(s)[0])
except OSError as e:
dbg(subprocess.check_output("cat /proc/buddyinfo", shell=True).decode('utf-8'))
dbg(subprocess.check_output("dmesg | tail -80", shell=True).decode('utf-8'))
print(ctx)
raise e
subtest = loader.loadTestsFromModule(module)
# The test suite is being (ab)used to get a bit more granularity
# with individual tests. The 'normal' way to use unittest is to
# just create a test suite and run them. The problem here is that
# test results are queued and printed at the very end so its
# difficult to know *where* a test failed (python gives a stack
# trace but printing the exception/failure immediately shows
# where in the debug logs something failed). Moreso if there are
# several test functions inside a single python file they run
# as a single test and it is difficult (again) to know where
# something failed.
# Iterating through each python test file
for test in subtest:
limit_funcs = []
if ctx.args.sub_tests:
for i in ctx.args.sub_tests:
if len(i.split('.')) == 2:
limit_funcs.append(i.split('.')[1])
# Iterating through individual test functions inside a
# Test() class. Due to the nature of unittest we have
# to jump through some hoops to set up the test class
# only once by turning the enumeration into a list, then
# enumerating (again) to keep track of the index (just
# enumerating the test class doesn't allow len() because
# it is not a list).
tlist = list(enumerate(test))
for index, t in enumerate(tlist):
# enumerate is returning a tuple, index 1 is our
# actual object.
t = t[1]
func, file = str(t).split(' ')
#
# TODO: There may be a better way of doing this
# but strigifying the test class gives us a string:
# <function> (<file>.<class>)
#
file = file.strip('()').split('.')[0] + '.py'
# Create an empty result here in case the test fails
result = TestResult()
try:
skip = len(limit_funcs) > 0 and func not in limit_funcs
# Set up class only on first test
if index == 0:
if not skip:
dbg("%s\n\t%s RUNNING" % (file, str(func)), end='')
t.setUpClass()
else:
if not skip:
dbg("\t%s RUNNING" % str(func), end='')
sys.__stdout__.flush()
name = os.path.basename(os.getcwd())
Process.write_separators(name, "\n====== %s:%s:%s ======\n\n" %
(name, file, func))
if not skip:
# Run test (setUp/tearDown run automatically)
result = t()
# Tear down class only on last test
if index == len(tlist) - 1:
t.tearDownClass()
if skip:
continue
except unittest.SkipTest as e:
result.skipped.append(t)
except Exception as e:
dbg('\n%s threw an uncaught exception:' % func)
traceback.print_exc(file=sys.__stdout__)
run += result.testsRun
errors += len(result.errors)
failures += len(result.failures)
skipped += len(result.skipped)
if len(result.skipped) > 0:
dbg(colored(" SKIPPED", "cyan"))
elif run == 0 or len(result.errors) > 0 or len(result.failures) > 0:
dbg(colored(" FAILED", "red"))
for e in result.errors:
dbg(e[1])
for f in result.failures:
dbg(f[1])
else:
dbg(colored(" PASSED", "green"))
# Prevents future test modules with the same name (e.g.
# connection_test.py) from being loaded from the cache
sys.modules.pop(module.__name__)
#
# The multiprocessing queue is picky with what objects it will serialize
# and send between processes. Because of this we put the important bits
# of the result into our own 'SimpleResult' tuple.
#
sresult = SimpleResult(run=run, failures=failures, errors=errors,
skipped=skipped, time=time.time() - start)
rqueue.put(sresult)
# This may not be required since we are manually popping sys.modules
importlib.invalidate_caches()
def pre_test(ctx, test, copied):
'''
Copy test files, start processes, and any other pre test work.
'''
os.chdir(test)
dbg("\nStarting %s" % colored(os.path.basename(test), "white", attrs=['bold']))
if not os.path.exists(test + '/hw.conf'):
raise Exception("No hw.conf found for %s" % test)
ctx.hw_config = ConfigParser()
ctx.hw_config.read(test + '/hw.conf')
#
# We have two types of test files: tests and everything else. Rather
# than require each test to specify the files needing to be copied to
# /tmp (previously 'tmpfs_extra_stuff'), we just copy everything which
# isn't a test. There is really no reason not to do this as any file
# present in a test directory should be needed by the test.
#
# All files
files = os.listdir(test)
# Tests (starts or ends with 'test')
subtests = [f for f in files if f.startswith('test') or \
os.path.splitext(f)[0].endswith('test')]
# Everything else (except .py files)
to_copy = [f for f in list(set(files) - set(subtests)) if not f.endswith('.py') \
and f != '__pycache__']
for f in to_copy:
if os.path.isdir(f):
shutil.copytree(f, '/tmp/' + f)
else:
shutil.copy(f, '/tmp')
copied.append(f)
# Prune down any subtests if needed
if ctx.args.sub_tests:
ctx.args.sub_tests = ctx.args.sub_tests.split(',')
to_run = [x.split('.')[0] for x in ctx.args.sub_tests]
pruned = []
for s in subtests:
no_ext = s
# Handle <file>.<test function> format
if '.' in s:
no_ext = s.split('.')[0]
if no_ext in to_run:
pruned.append(no_ext + '.py')
subtests = pruned
if ctx.args.log:
ctx.start_process(['iwmon', '--nowiphy'])
elif ctx.args.monitor:
ctx.start_process(['iwmon'], outfile=ctx.args.monitor)
ctx.start_dbus()
ctx.start_haveged()
ctx.start_dbus_monitor()
ctx.start_radios()
ctx.create_namespaces()
ctx.start_hostapd()
ctx.start_wpas_interfaces()
ctx.start_ofono()
if ctx.hw_config.getboolean('SETUP', 'start_iwd', fallback=True):
ctx.start_iwd()
print(ctx)
sys.path.insert(1, test)
return sorted(subtests)
def post_test(ctx, to_copy):
'''
Remove copied files, and stop test processes.
'''
try:
for f in to_copy:
if os.path.isdir('/tmp/' + f):
shutil.rmtree('/tmp/' + f)
elif os.path.exists('/tmp/' + f):
os.remove('/tmp/' + f)
except Exception as e:
print("Exception thrown in post_test")
finally:
ctx.stop_test_processes()
if ctx.args.valgrind:
for f in os.listdir('/tmp'):
if f.startswith("valgrind.log."):
dbg(f)
with open('/tmp/' + f, 'r') as v:
dbg(v.read())
dbg("\n")
os.remove('/tmp/' + f)
# Special case for when logging is enabled
if os.path.isfile('/tmp/iwd-tls-debug-server-cert.pem'):
os.remove('/tmp/iwd-tls-debug-server-cert.pem')
allowed = ['phonesim.conf', 'certs', 'secrets', 'iwd']
for f in [f for f in os.listdir('/tmp') if f not in allowed]:
dbg("File %s was not cleaned up!" % f)
try:
os.remove('/tmp/' + f)
except:
pass
def print_results(results, max_timeout):
table = PrettyTable(['Test', colored('Passed', 'green'), colored('Failed', 'red'), \
colored('Skipped', 'cyan'), colored('Time', 'yellow')])
total_pass = 0
total_fail = 0
total_skip = 0
total_time = 0
for test, result in results.items():
if result.time == max_timeout:
failed = "Timed out"
passed = "Timed out"
elif result.time == 0:
failed = "Exception"
passed = "Exception"
else:
failed = result.failures + result.errors
passed = result.run - failed
total_pass += passed
total_fail += failed
total_skip += result.skipped
total_time += result.time
time = '%.2f' % result.time
table.add_row([test, colored(passed, 'green'), colored(failed, 'red'), \
colored(result.skipped, 'cyan'), colored(time, 'yellow')])
total_time = '%.2f' % total_time
table.add_row(['Total', colored(total_pass, 'green'), colored(total_fail, 'red'), \
colored(total_skip, 'cyan'), colored(total_time, 'yellow')])
dbg(table)
return total_fail == 0
def run_auto_tests(ctx, args):
tests = build_test_list(args)
for test in tests:
copied = []
try:
subtests = pre_test(ctx, test, copied)
if len(subtests) < 1:
dbg("No tests to run")
sys.exit()
rqueue = multiprocessing.Queue()
p = multiprocessing.Process(target=start_test, args=(ctx, subtests, rqueue))
p.start()
# Rather than time each subtest we just time the total but
# mutiply the default time by the number of tests being run.
p.join(int(args.timeout) * len(subtests))
if p.is_alive():
# Timeout
p.terminate()
ctx.results[os.path.basename(test)] = SimpleResult(run=0,
failures=0, errors=0,
skipped=0, time=int(args.timeout))
else:
ctx.results[os.path.basename(test)] = rqueue.get()
except Exception as ex:
dbg("%s threw an uncaught exception" % test)
traceback.print_exc(file=sys.__stdout__)
ctx.results[os.path.basename(test)] = SimpleResult(run=0, failures=0,
errors=0, skipped=0, time=0)
finally:
post_test(ctx, copied)
def run_unit_tests(ctx, args):
os.chdir(args.testhome + '/unit')
units = build_unit_list(args)
for u in units:
p = ctx.start_process([u]).wait()
if p.returncode != 0:
dbg("Unit test %s failed" % os.path.basename(u))
else:
dbg("Unit test %s passed" % os.path.basename(u))
def run_tests(args):
global config
os.chdir(args.testhome)
#
# This allows all autotest utils (iwd/hostapd/etc) to access the
# TestContext. Any other module or script (in the same interpreter) can
# simply import config.ctx and access all live test information,
# start/stop processes, see active radios etc.
#
config = importlib.import_module('config')
config.ctx = TestContext(args)
# Must import these after config so ctx gets set
config.hwsim = importlib.import_module('hwsim')
config.hostapd = importlib.import_module('hostapd')
# Start writing out kernel log
config.ctx.start_process(["dmesg", '--follow'])
if args.unit_tests is None:
run_auto_tests(config.ctx, args)
else:
run_unit_tests(config.ctx, args)
runner = Runner()
atexit.register(exit_vm)
runner.prepare_environment()
if runner.args.start:
ctx = TestContext(runner.args)
ctx.start_dbus()
os.chdir(runner.args.testhome)
os.environ['DBUS_SYSTEM_BUS_ADDRESS'] = ctx.dbus_address
subprocess.run([runner.args.start])
else:
run_tests(runner.args)
runner.cleanup_environment()