def testGetSubTestDescriptionWithoutDocstring(self):
with self.subTest(foo=1, bar=2):
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self._subtest),
'testGetSubTestDescriptionWithoutDocstring (' + __name__ +
'.Test_TextTestResult) (foo=1, bar=2)')
with self.subTest('some message'):
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self._subtest),
'testGetSubTestDescriptionWithoutDocstring (' + __name__ +
'.Test_TextTestResult) [some message]')
def run_test_without_subtest(self, fixture, name, *, raises=None, failures_contain=[], errors_contain=[]):
tc = fixture(methodName=name)
stream = stream_for_unittest()
tr = unittest.TextTestResult(stream=stream, descriptions=True, verbosity=1)
tc.run(tr)
failures = '\n'.join(
f"{test}\n{indent(stack_trace)}"
for test, stack_trace in tr.failures
)
for text in failures_contain:
self.assertIn(text, failures)
errors = '\n'.join(
f"{test}\n{indent(stack_trace)}"
for test, stack_trace in tr.errors
)
for text in errors_contain:
self.assertIn(text, errors)
if raises is AssertionError:
self.assertNotEqual(len(tr.failures), 0, "Expected failures but got none")
elif raises is not None:
self.assertNotEqual(len(tr.errors), 0, "Expected errors but got none")
self.assertIn(
raises.__name__,
'\n'.join(
stack_trace
for _, stack_trace in tr.errors
),
)
else:
self.assertEqual(tr.testsRun, 1, "Expected one test to be run")
self.assertEqual(len(tr.failures), 0, f"Expected no failures, but got:\n\n{indent(failures)}")
self.assertEqual(len(tr.errors), 0, f"Expected no errors, but got:\n\n{indent(errors)}")
def _make_result(verbose, failfast):
"""Creates a TextTestResult object that writes a stream to a StringIO"""
stream = _WritelnDecorator(StringIO())
result = unittest.TextTestResult(stream, True, verbose)
result.buffer = False
result.failfast = failfast
return result
def testGetDescriptionWithMultiLineDocstring(self):
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self),
'testGetDescriptionWithMultiLineDocstring (' + __name__ +
'.Test_TestResult)\nTests getDescription() for a method with a longer docstring.'
)
def run(self):
self.run_command("build")
import glob
lib=glob.glob(os.getcwd()+"/build/*")[0]
sys.path.insert(0,lib)
print >>sys.stderr,"Using %s for tested modules"%(lib)
import unittest
result=unittest.TextTestResult(sys.stdout,True,True)
suite= unittest.defaultTestLoader.discover("./tests")
print "Discovered %d test cases"%suite.countTestCases()
result.buffer=True
suite.run(result)
print ""
if not result.wasSuccessful():
if len(result.errors):
print "============ Errors disovered ================="
for r in result.errors:
print r[0],":",r[1]
if len(result.failures):
print "============ Failures disovered ================="
for r in result.failures:
print r[0],":",r[1]
sys.exit(1)
else:
print "All tests successful"
def testGetSubTestDescriptionForFalsyValues(self):
expected = 'testGetSubTestDescriptionForFalsyValues (%s.Test_TextTestResult) [%s]'
result = unittest.TextTestResult(None, True, 1)
for arg in [0, None, []]:
with self.subTest(arg):
self.assertEqual(result.getDescription(self._subtest),
expected % (__name__, arg))
def test():
'''
Runnig automated tests
'''
import unittest
tests = unittest.TestLoader().discover('tests')
unittest.TextTestResult(verbosity=2).run(tests)
def testGetSubTestDescriptionWithoutDocstringAndParams(self):
with self.subTest():
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self._subtest),
'testGetSubTestDescriptionWithoutDocstringAndParams '
'(' + __name__ + '.Test_TextTestResult) (<subtest>)')
def testinstall():
"""
Performs aperforms basic tests to make sure grid2op is properly installed and working.
It's not because these tests pass that grid2op will be fully functional however.
"""
test_loader = unittest.TestLoader()
this_directory = os.path.abspath(os.path.dirname(__file__))
test_suite = test_loader.discover(os.path.join(this_directory, 'tests'),
pattern=__LI_FILENAME_TESTS[0])
for file_name in __LI_FILENAME_TESTS[1:]:
test_suite.addTest(test_loader.discover(os.path.join(this_directory, 'tests'),
pattern=file_name)
)
results = unittest.TextTestResult(stream=sys.stderr, descriptions=True, verbosity=1)
test_suite.run(results)
if results.wasSuccessful():
sys.exit(0)
else:
for _, str_ in results.errors:
print(str_)
print("-------------------------\n")
for _, str_ in results.failures:
print(str_)
print("-------------------------\n")
raise RuntimeError("Test not successful !")
def run(cls):
global result
requests.packages.urllib3.disable_warnings()
try:
cls.print_symbol()
usage = """
syntribos <config> <input_file> --test-types=TEST_TYPES
syntribos <config> <input_file> -t TEST_TYPE TEST_TYPE ...
syntribos <config> <input_file>
"""
args, unknown = syntribos.arguments.SyntribosCLI(
usage=usage).parse_known_args()
test_env_manager = TestEnvManager(
"", args.config, test_repo_package_name="os")
test_env_manager.finalize()
cls.set_env()
init_root_log_handler()
cls.print_log()
result = unittest.TextTestResult(
unittest.runner._WritelnDecorator(sys.stdout),
True, 2 if args.verbose else 1)
start_time = time.time()
for file_path, req_str in args.input:
for test_name, test_class in cls.get_tests(args.test_types):
for test in test_class.get_test_cases(file_path, req_str):
cls.run_test(test, result, args.dry_run)
cls.print_result(result, start_time)
except KeyboardInterrupt:
cafe.drivers.base.print_exception(
"Runner",
"run",
"Keyboard Interrupt, exiting...")
exit(0)
def testGetDescriptionWithoutDocstring(self):
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self),
'testGetDescriptionWithoutDocstring (' + __name__ +
'.Test_TestResult)')
return
def main(argv=None):
"""Main function.
:param argv: command line arguments
"""
if argv is None:
argv = sys.argv[1:]
if len(argv) > 0:
if argv[0] == 'install':
from .. import setup
setup.install()
return
elif argv[0] == 'info':
from problog.core import list_transformations
list_transformations()
return
elif argv[0] == 'unittest':
import unittest
test_results = unittest.TextTestResult(sys.stderr, False, 1)
unittest.TestLoader().discover(os.path.join(os.path.dirname(__file__), '..')).run(test_results)
return
elif argv[0] == '--version':
print (version.version)
return
else:
return run_task(argv)
else:
return run_task(argv)
def testGetDescriptionWithOneLineDocstring(self):
"""Tests getDescription() for a method with a docstring."""
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self),
('testGetDescriptionWithOneLineDocstring '
'(' + __name__ + '.Test_TestResult)\n'
'Tests getDescription() for a method with a docstring.'))
def testGetNestedSubTestDescriptionWithoutDocstring(self):
with self.subTest(foo=1):
with self.subTest(bar=2):
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(
result.getDescription(self._subtest),
'testGetNestedSubTestDescriptionWithoutDocstring '
'(' + __name__ + '.Test_TestResult) (bar=2, foo=1)')
def _run_test(self, test_name, verbosity, tearDownError=None):
stream = io.StringIO()
stream = unittest.runner._WritelnDecorator(stream)
result = unittest.TextTestResult(stream, True, verbosity)
test = self.Test(test_name)
test.tearDownError = tearDownError
test.run(result)
return stream.getvalue()
def run(self, result, *args, **kwargs):
self.result = result
ori = unittest.TestCase.run
_result = unittest.TextTestResult(
unittest.runner._WritelnDecorator(sys.stderr), True, 1)
ori(self, _result, *args, **kwargs)
_result.stopTestRun()
_result.printErrors()
def testGetSubTestDescriptionWithOneLineDocstring(self):
"""Tests getDescription() for a method with a docstring."""
result = unittest.TextTestResult(None, True, 1)
with self.subTest(foo=1, bar=2):
self.assertEqual(
result.getDescription(self._subtest),
('testGetSubTestDescriptionWithOneLineDocstring '
'(' + __name__ + '.Test_TextTestResult) (foo=1, bar=2)\n'
'Tests getDescription() for a method with a docstring.'))
def main(_):
# pybullet imports multiprocessing in their setup.py, which causes an
# issue when we import multiprocessing.pool.dummy down the line because
# the PYTHONPATH has changed.
for module in [
'multiprocessing', 'multiprocessing.pool',
'multiprocessing.dummy', 'multiprocessing.pool.dummy'
]:
if module in sys.modules:
del sys.modules[module]
# Reimport multiprocessing to avoid spurious error printouts. See
# https://bugs.python.org/issue15881.
import multiprocessing as _ # pylint: disable=g-import-not-at-top
run_separately = [
x.rstrip()
for x in open('test_individually.txt', 'r').readlines() if x
]
test_loader = TestLoader(blacklist=run_separately)
test_suite = test_loader.discover('tf_agents', pattern='*_test.py')
stderr = StderrWrapper()
result = unittest.TextTestResult(stderr,
descriptions=True,
verbosity=2)
test_suite.run(result)
external_test_failures = []
for test in run_separately:
filename = 'tf_agents/%s.py' % test.replace('.', '/')
try:
subprocess.check_call([sys.executable, filename])
except subprocess.CalledProcessError as e:
external_test_failures.append(e)
result.printErrors()
for failure in external_test_failures:
stderr.writeln(str(failure))
final_output = (
'Tests run: {} grouped and {} external. '.format(
result.testsRun, len(run_separately)) +
'Errors: {} Failures: {} External failures: {}.'.format(
len(result.errors), len(result.failures),
len(external_test_failures)))
header = '=' * len(final_output)
stderr.writeln(header)
stderr.writeln(final_output)
stderr.writeln(header)
if result.wasSuccessful() and not external_test_failures:
return 0
else:
return 1
def testGetDescriptionWithMultiLineDocstring(self):
"""Tests getDescription() for a method with a longer docstring.
The second line of the docstring.
"""
result = unittest.TextTestResult(None, True, 1)
self.assertEqual(result.getDescription(self),
('testGetDescriptionWithMultiLineDocstring '
'(' + __name__ + '.Test_TextTestResult)\n'
'Tests getDescription() for a method with a longer '
'docstring.'))
def python():
if sys.gettrace() is None:
import pip._internal
pip._internal.main(
["install", "-I", "-e", str(CURDIR.parent.joinpath(r"Include\Roffild\RoffildPython"))])
with open(CURDIR.joinpath("python_unittests.log"), "w") as log:
log.writeln = lambda text="": log.write(text + "\n")
testresult = unittest.TextTestResult(log, "", 100)
unittest.defaultTestLoader.discover(
CURDIR.parent.joinpath(r"Include\Roffild\RoffildPython\roffild\test")).run(testresult)
testresult.printErrors()
def testGetSubTestDescriptionWithMultiLineDocstring(self):
"""Tests getDescription() for a method with a longer docstring.
The second line of the docstring.
"""
result = unittest.TextTestResult(None, True, 1)
with self.subTest(foo=1, bar=2):
self.assertEqual(
result.getDescription(self._subtest),
'testGetSubTestDescriptionWithMultiLineDocstring (' +
__name__ + """.Test_TestResult) (bar=2, foo=1)
Tests getDescription() for a method with a longer docstring.""")
def _do_tests(self, dirpath):
print('\nRunning tests in directory', dirpath)
self.result = unittest.TextTestResult(sys.stdout , 1, 3)
loader = unittest.TestLoader().discover(dirpath, self.test_glob)
loader.run(self.result)
print("errors:", len(self.result.errors),\
"failures:", len(self.result.failures),\
"skipped:", len(self.result.skipped),\
"expectedFailures:", len(self.result.expectedFailures),\
"unexpected successes:", len(self.result.unexpectedSuccesses))
sys.stdout.flush()
if not self.result.wasSuccessful():
self.failed_dirs.append(dirpath)
self.success = self.success and self.result.wasSuccessful()
def test_case_run():
"""
对testCase 和 testsuite的run方法进行验证
:return:
"""
# testCase的执行
result = unittest.TextTestResult(sys.stdout, 'test result', 1)
unittest_case = unittest_demo.UnitTestCase("test_add")
unittest_case.run(result)
# testsuite的执行
suite = unittest.TestSuite()
loader = unittest.TestLoader()
suite.addTest(loader.loadTestsFromTestCase(unittest_demo.UnitTestCase))
suite.run(result)
def run_scenarios():
metadata = {
'network_config': str({'content_path': 'random_value_test_random'})}
userdata = util.get_resource('windows/multipart_metadata')
test_result = unittest.TextTestResult(
_WritelnDecorator(sys.stderr), None, 0)
scenarios = [
scenario.BaseWindowsScenario(
test_class=test_smoke.TestWindowsSmoke,
recipee=windows.WindowsCloudbaseinitRecipee,
userdata=userdata,
metadata=metadata,
image=CONF.images[0],
result=test_result),
]
Runner(scenarios).run()
def main(_):
run_separately = load_test_list('test_individually.txt')
test_loader = TestLoader(blacklist=run_separately)
test_suite = test_loader.discover('rl_reliability_metrics',
pattern='*_test.py')
external_test_failures = []
for test in run_separately:
filename = 'rl_reliability_metrics.%s' % test
try:
# Using stderr=subprocess.STDOUT results in an exception in some
# environments.
subprocess.check_call(
['python3', '-m', 'unittest', '-v', filename])
except subprocess.CalledProcessError as e:
external_test_failures.append(e)
stderr = StderrWrapper()
result = unittest.TextTestResult(stderr,
descriptions=True,
verbosity=2)
test_suite.run(result)
result.printErrors()
for failure in external_test_failures:
stderr.writeln('Individually run test failure:{}'.format(
str(failure)))
final_output = (
'Tests run: {} grouped and {} external. '.format(
result.testsRun, len(run_separately)) +
'Errors: {} Failures: {} External failures: {}.'.format(
len(result.errors), len(result.failures),
len(external_test_failures)))
header = '=' * len(final_output)
stderr.writeln(header)
stderr.writeln(final_output)
stderr.writeln(header)
if result.wasSuccessful():
return 0
else:
return 1
def main(_):
test_loader = unittest.TestLoader()
test_suite = test_loader.discover('tensorflow_gan', pattern='*_test.py')
stderr = StderrWrapper()
result = unittest.TextTestResult(stderr, descriptions=True, verbosity=2)
test_suite.run(result)
result.printErrors()
final_output = ('Tests run: {}. Errors: {} Failures: {}.'.format(
result.testsRun, len(result.errors), len(result.failures)))
header = '=' * len(final_output)
stderr.writeln(header)
stderr.writeln(final_output)
stderr.writeln(header)
if result.wasSuccessful():
return 0
else:
return 1
def run(self):
sys.path.insert(0, os.getcwd())
import unittest
result = unittest.TextTestResult(sys.stdout, True, True)
suite = unittest.defaultTestLoader.discover("./tests")
print("Discovered %d test cases" % suite.countTestCases())
result.buffer = True
suite.run(result)
print("")
if not result.wasSuccessful():
if len(result.errors):
print("============ Errors disovered =================")
for res in result.errors:
print(res[0], ":", res[1])
if len(result.failures):
print("============ Failures disovered =================")
for res in result.failures:
print(res[0], ":", res[1])
sys.exit(1)
else:
print("All tests successful")
set(
x.split(':')[0].strip() + '.html'
for x in args.load_list.readlines()))
else:
tests = []
# Collect summary of all the individual test runs
summary = testtools.StreamSummary()
# Output information to stdout
if not args.subunit:
# Human readable test output
pertest = testtools.StreamToExtendedDecorator(
testtools.MultiTestResult(
# Individual test progress
unittest.TextTestResult(
unittest.runner._WritelnDecorator(sys.stdout), False, 2),
# End of run, summary of failures.
testtools.TextTestResult(sys.stdout),
))
else:
from subunit.v2 import StreamResultToBytes
pertest = StreamResultToBytes(sys.stdout)
if args.list:
output = subunit.CopyStreamResult([summary, pertest])
output.startTestRun()
for test in re.compile("(?<=').+(?=')").findall(
file("test/testcases.js").read()):
output.status(test_status='exists', test_id=test[:-5])
output.stopTestRun()
async def _main():
args = get_argparser().parse_args()
create_logger(args)
device = None
try:
# TODO(py3.7): use importlib.resources
firmware_filename = os.path.join(os.path.dirname(__file__),
"glasgow.ihex")
if args.action in ("build", "test", "tool"):
pass
elif args.action == "factory":
device = GlasgowHardwareDevice(args.serial,
firmware_filename,
_factory_rev=args.factory_rev)
else:
device = GlasgowHardwareDevice(args.serial, firmware_filename)
if args.action == "voltage":
if args.voltage is not None:
await device.reset_alert(args.ports)
await device.poll_alert() # clear any remaining alerts
try:
await device.set_voltage(args.ports, args.voltage)
except:
await device.set_voltage(args.ports, 0.0)
raise
if args.set_alert and args.voltage != 0.0:
await asyncio.sleep(
0.050) # let the output capacitor discharge a bit
await device.set_alert_tolerance(args.ports, args.voltage,
args.tolerance / 100)
print("Port\tVio\tVlimit\tVsense\tMonitor")
alerts = await device.poll_alert()
for port in args.ports:
vio = await device.get_voltage(port)
vlimit = await device.get_voltage_limit(port)
vsense = await device.measure_voltage(port)
alert = await device.get_alert(port)
notice = ""
if port in alerts:
notice += " (ALERT)"
print("{}\t{:.2}\t{:.2}\t{:.3}\t{:.2}-{:.2}\t{}".format(
port, vio, vlimit, vsense, alert[0], alert[1], notice))
if args.action == "safe":
await device.reset_alert("AB")
await device.set_voltage("AB", 0.0)
await device.poll_alert() # clear any remaining alerts
logger.info("all ports safe")
if args.action == "voltage-limit":
if args.voltage is not None:
await device.set_voltage_limit(args.ports, args.voltage)
print("Port\tVio\tVlimit")
for port in args.ports:
vio = await device.get_voltage(port)
vlimit = await device.get_voltage_limit(port)
print("{}\t{:.2}\t{:.2}".format(port, vio, vlimit))
if args.action in ("run", "run-repl", "run-prebuilt"):
target, applet = _applet(device.revision, args)
device.demultiplexer = DirectDemultiplexer(
device, target.multiplexer.pipe_count)
plan = target.build_plan()
if args.action in ("run", "run-repl"):
await device.download_target(plan, rebuild=args.rebuild)
if args.action == "run-prebuilt":
bitstream_file = args.bitstream or open(
"{}.bin".format(args.applet), "rb")
with bitstream_file:
logger.warn("downloading prebuilt bitstream from %r",
bitstream_file.name)
await device.download_bitstream(bitstream_file.read())
do_trace = hasattr(args, "trace") and args.trace
if do_trace:
logger.info("starting applet analyzer")
await device.write_register(target.analyzer.addr_done, 0)
analyzer_iface = await device.demultiplexer.claim_interface(
target.analyzer, target.analyzer.mux_interface, args=None)
trace_decoder = TraceDecoder(target.analyzer.event_sources)
vcd_writer = VCDWriter(
args.trace,
timescale="1 ns",
check_values=False,
comment='Generated by Glasgow for bitstream ID %s' %
plan.bitstream_id.hex())
async def run_analyzer():
signals = {}
strobes = set()
for field_name, field_trigger, field_width in trace_decoder.events(
):
if field_trigger == "throttle":
var_type = "wire"
var_init = 0
elif field_trigger == "change":
var_type = "wire"
var_init = "x"
elif field_trigger == "strobe":
if field_width > 0:
var_type = "tri"
var_init = "z"
else:
var_type = "event"
var_init = ""
else:
assert False
signals[field_name] = vcd_writer.register_var(
scope="",
name=field_name,
var_type=var_type,
size=field_width,
init=var_init)
if field_trigger == "strobe":
strobes.add(field_name)
init = True
while not trace_decoder.is_done():
trace_decoder.process(await analyzer_iface.read())
for cycle, events in trace_decoder.flush():
if events == "overrun":
target.analyzer.logger.error(
"FIFO overrun, shutting down")
for name in signals:
vcd_writer.change(signals[name],
next_timestamp, "x")
timestamp += 1e3 # 1us
break
event_repr = " ".join("{}={}".format(n, v)
for n, v in events.items())
target.analyzer.logger.trace("cycle %d: %s", cycle,
event_repr)
timestamp = 1e9 * (cycle + 0) // target.sys_clk_freq
next_timestamp = 1e9 * (cycle +
1) // target.sys_clk_freq
if init:
init = False
vcd_writer._timestamp = timestamp
for name, value in events.items():
vcd_writer.change(signals[name], timestamp, value)
for name, _value in events.items():
if name in strobes:
vcd_writer.change(signals[name],
next_timestamp, "z")
vcd_writer.flush()
vcd_writer.close(timestamp)
async def run_applet():
logger.info("running handler for applet %r", args.applet)
if applet.preview:
logger.warn(
"applet %r is PREVIEW QUALITY and may CORRUPT DATA",
args.applet)
try:
iface = await applet.run(device, args)
if args.action in ("run", "run-prebuilt"):
await applet.interact(device, args, iface)
if args.action == "run-repl":
if applet.has_custom_repl:
logger.warn(
"applet provides customized REPL(s); consider using `run "
"{} ...-repl` subcommands".format(applet.name))
logger.info(
"dropping to REPL; use 'help(iface)' to see available APIs"
)
await AsyncInteractiveConsole(locals={
"iface": iface
}).interact()
except GlasgowAppletError as e:
applet.logger.error(str(e))
except asyncio.CancelledError:
pass # terminate gracefully
finally:
await device.demultiplexer.flush()
async def wait_for_sigint():
await wait_for_signal(signal.SIGINT)
logger.debug("Ctrl+C pressed, terminating")
if do_trace:
analyzer_task = asyncio.ensure_future(run_analyzer())
applet_task = asyncio.ensure_future(run_applet())
sigint_task = asyncio.ensure_future(wait_for_sigint())
tasks = [applet_task, sigint_task]
done, pending = await asyncio.wait(
tasks, return_when=asyncio.FIRST_COMPLETED)
for task in pending:
task.cancel()
for task in tasks:
try:
await task
except asyncio.CancelledError:
pass
if do_trace:
await device.write_register(target.analyzer.addr_done, 1)
await analyzer_task
await device.demultiplexer.cancel()
if args.action == "tool":
tool = GlasgowApplet.all_applets[args.applet].tool_cls()
try:
await tool.run(args)
except GlasgowAppletError as e:
tool.logger.error(e)
raise SystemExit()
if args.action == "flash":
logger.info("reading device configuration")
header = await device.read_eeprom("fx2", 0,
8 + 4 + GlasgowConfig.size)
header[0] = 0xC2 # see below
fx2_config = FX2Config.decode(header, partial=True)
if (len(fx2_config.firmware) != 1
or fx2_config.firmware[0][0] != 0x4000 - GlasgowConfig.size
or len(fx2_config.firmware[0][1]) != GlasgowConfig.size):
raise SystemExit(
"Unrecognized or corrupted configuration block")
glasgow_config = GlasgowConfig.decode(fx2_config.firmware[0][1])
logger.info("device has serial %s-%s", glasgow_config.revision,
glasgow_config.serial)
if fx2_config.disconnect:
logger.info("device has flashed firmware")
else:
logger.info("device does not have flashed firmware")
if glasgow_config.bitstream_size:
logger.info("device has flashed bitstream ID %s",
glasgow_config.bitstream_id.hex())
else:
logger.info("device does not have flashed bitstream")
new_bitstream = b""
if args.remove_bitstream:
logger.info("removing bitstream")
glasgow_config.bitstream_size = 0
glasgow_config.bitstream_id = b"\x00" * 16
elif args.bitstream:
logger.info("using bitstream from %s", args.bitstream.name)
with args.bitstream as f:
new_bitstream = f.read()
glasgow_config.bitstream_size = len(new_bitstream)
glasgow_config.bitstream_id = b"\xff" * 16
elif args.applet:
logger.info("building bitstream for applet %s", args.applet)
target, applet = _applet(device.revision, args)
plan = target.build_plan()
new_bitstream_id = plan.bitstream_id
new_bitstream = plan.execute()
# We always build and reflash the bitstream in case the one currently
# in EEPROM is corrupted. If we only compared the ID, there would be
# no easy way to recover from that case. There's also no point in
# storing the bitstream hash (as opposed to Verilog hash) in the ID,
# as building the bitstream takes much longer than flashing it.
logger.info("built bitstream ID %s", new_bitstream_id.hex())
glasgow_config.bitstream_size = len(new_bitstream)
glasgow_config.bitstream_id = new_bitstream_id
fx2_config.firmware[0] = (0x4000 - GlasgowConfig.size,
glasgow_config.encode())
if args.remove_firmware:
logger.info("removing firmware")
fx2_config.disconnect = False
new_image = fx2_config.encode()
new_image[0] = 0xC0 # see below
else:
logger.info(
"using firmware from %r",
args.firmware.name if args.firmware else firmware_filename)
with (args.firmware or open(firmware_filename, "rb")) as f:
for (addr, chunk) in input_data(f, fmt="ihex"):
fx2_config.append(addr, chunk)
fx2_config.disconnect = True
new_image = fx2_config.encode()
if new_bitstream:
logger.info("programming bitstream")
old_bitstream = await device.read_eeprom(
"ice", 0, len(new_bitstream))
if old_bitstream != new_bitstream:
for (addr, chunk) in diff_data(old_bitstream,
new_bitstream):
await device.write_eeprom("ice", addr, chunk)
logger.info("verifying bitstream")
if await device.read_eeprom(
"ice", 0, len(new_bitstream)) != new_bitstream:
logger.critical("bitstream programming failed")
return 1
else:
logger.info("bitstream identical")
logger.info("programming configuration and firmware")
old_image = await device.read_eeprom("fx2", 0, len(new_image))
if old_image != new_image:
for (addr, chunk) in diff_data(old_image, new_image):
await device.write_eeprom("fx2", addr, chunk)
logger.info("verifying configuration and firmware")
if await device.read_eeprom("fx2", 0,
len(new_image)) != new_image:
logger.critical(
"configuration/firmware programming failed")
return 1
else:
logger.info("configuration and firmware identical")
if args.action == "build":
target, applet = _applet(args.rev, args)
plan = target.build_plan()
if args.type in ("il", "rtlil"):
logger.info("building RTLIL for applet %r", args.applet)
with open(args.filename or args.applet + ".il", "wt") as f:
f.write(plan.rtlil)
if args.type in ("bin", "bitstream"):
logger.info("building bitstream for applet %r", args.applet)
with open(args.filename or args.applet + ".bin", "wb") as f:
f.write(plan.execute())
if args.type in ("zip", "archive"):
logger.info("building archive for applet %r", args.applet)
plan.archive(args.filename or args.applet + ".zip")
if args.action == "test":
logger.info("testing applet %r", args.applet)
applet = GlasgowApplet.all_applets[args.applet]()
loader = unittest.TestLoader()
stream = unittest.runner._WritelnDecorator(sys.stderr)
result = unittest.TextTestResult(stream=stream,
descriptions=True,
verbosity=2)
result.failfast = True
def startTest(test):
unittest.TextTestResult.startTest(result, test)
result.stream.write("\n")
result.startTest = startTest
if args.tests == []:
suite = loader.loadTestsFromTestCase(applet.test_cls)
suite.run(result)
else:
for test in args.tests:
suite = loader.loadTestsFromName(test,
module=applet.test_cls)
suite.run(result)
if not result.wasSuccessful():
for _, traceback in result.errors + result.failures:
print(traceback, end="", file=sys.stderr)
return 1
if args.action == "factory":
logger.info("reading device configuration")
header = await device.read_eeprom("fx2", 0,
8 + 4 + GlasgowConfig.size)
if not re.match(rb"^\xff+$", header):
if args.force:
logger.warning(
"device already factory-programmed, proceeding anyway")
else:
logger.error("device already factory-programmed")
return 1
fx2_config = FX2Config(vendor_id=VID_QIHW,
product_id=PID_GLASGOW,
device_id=GlasgowConfig.encode_revision(
args.rev),
i2c_400khz=True)
glasgow_config = GlasgowConfig(args.factory_rev,
args.factory_serial)
fx2_config.append(0x4000 - GlasgowConfig.size,
glasgow_config.encode())
image = fx2_config.encode()
# Let FX2 hardware enumerate. This won't load the configuration block
# into memory automatically, but the firmware has code that does that
# if it detects a C0 load.
image[0] = 0xC0
logger.info("programming device configuration")
await device.write_eeprom("fx2", 0, image)
logger.info("verifying device configuration")
if await device.read_eeprom("fx2", 0, len(image)) != image:
logger.critical("factory programming failed")
return 1
except GlasgowDeviceError as e:
logger.error(e)
return 1
except GatewareBuildError as e:
applet.logger.error(e)
return 1
finally:
if device is not None:
device.close()
return 0
async def _main():
args = get_argparser().parse_args()
create_logger(args)
try:
firmware_file = os.path.join(os.path.dirname(__file__), "glasgow.ihex")
if args.action in ("build", "test", "tool"):
pass
elif args.action == "factory":
device = GlasgowHardwareDevice(firmware_file, VID_CYPRESS, PID_FX2)
else:
device = GlasgowHardwareDevice(firmware_file)
if args.action == "voltage":
if args.voltage is not None:
await device.reset_alert(args.ports)
await device.poll_alert() # clear any remaining alerts
try:
await device.set_voltage(args.ports, args.voltage)
except:
await device.set_voltage(args.ports, 0.0)
raise
if args.set_alert and args.voltage != 0.0:
await asyncio.sleep(
0.050) # let the output capacitor discharge a bit
await device.set_alert_tolerance(args.ports, args.voltage,
args.tolerance / 100)
print("Port\tVio\tVlimit\tVsense\tMonitor")
alerts = await device.poll_alert()
for port in args.ports:
vio = await device.get_voltage(port)
vlimit = await device.get_voltage_limit(port)
vsense = await device.measure_voltage(port)
alert = await device.get_alert(port)
notice = ""
if port in alerts:
notice += " (ALERT)"
print("{}\t{:.2}\t{:.2}\t{:.3}\t{:.2}-{:.2}\t{}".format(
port, vio, vlimit, vsense, alert[0], alert[1], notice))
if args.action == "voltage-limit":
if args.voltage is not None:
await device.set_voltage_limit(args.ports, args.voltage)
print("Port\tVio\tVlimit")
for port in args.ports:
vio = await device.get_voltage(port)
vlimit = await device.get_voltage_limit(port)
print("{}\t{:.2}\t{:.2}".format(port, vio, vlimit))
if args.action == "run":
if args.applet:
target, applet = _applet(device.revision, args)
device.demultiplexer = DirectDemultiplexer(device)
await device.download_target(
target,
rebuild=args.rebuild,
toolchain_opts=_toolchain_opts(args))
if args.trace:
logger.info("starting applet analyzer")
await device.write_register(target.analyzer.addr_done, 0)
analyzer_iface = await device.demultiplexer.claim_interface(
target.analyzer,
target.analyzer.mux_interface,
args=None)
trace_decoder = TraceDecoder(target.analyzer.event_sources)
vcd_writer = VCDWriter(
args.trace,
timescale="1 ns",
check_values=False,
comment='Generated by Glasgow for bitstream ID %s' %
target.get_bitstream_id().hex())
async def run_analyzer():
if not args.trace:
return
signals = {}
strobes = set()
for field_name, field_trigger, field_width in trace_decoder.events(
):
if field_trigger == "throttle":
var_type = "wire"
var_init = 0
elif field_trigger == "change":
var_type = "wire"
var_init = "x"
elif field_trigger == "strobe":
if field_width > 0:
var_type = "tri"
var_init = "z"
else:
var_type = "event"
var_init = ""
else:
assert False
signals[field_name] = vcd_writer.register_var(
scope="",
name=field_name,
var_type=var_type,
size=field_width,
init=var_init)
if field_trigger == "strobe":
strobes.add(field_name)
init = True
while not trace_decoder.is_done():
trace_decoder.process(await analyzer_iface.read())
for cycle, events in trace_decoder.flush():
if events == "overrun":
target.analyzer.logger.error(
"FIFO overrun, shutting down")
for name in signals:
vcd_writer.change(signals[name],
next_timestamp, "x")
timestamp += 1e3 # 1us
break
event_repr = " ".join("{}={}".format(n, v)
for n, v in events.items())
target.analyzer.logger.trace(
"cycle %d: %s", cycle, event_repr)
timestamp = 1e9 * (cycle +
0) // target.sys_clk_freq
next_timestamp = 1e9 * (cycle +
1) // target.sys_clk_freq
if init:
init = False
vcd_writer._timestamp = timestamp
for name, value in events.items():
vcd_writer.change(signals[name], timestamp,
value)
for name, _value in events.items():
if name in strobes:
vcd_writer.change(signals[name],
next_timestamp, "z")
vcd_writer.flush()
vcd_writer.close(timestamp)
async def run_applet():
logger.info("running handler for applet %r", args.applet)
try:
iface = await applet.run(device, args)
await applet.interact(device, args, iface)
except GlasgowAppletError as e:
applet.logger.error(str(e))
finally:
if args.trace:
await device.write_register(
target.analyzer.addr_done, 1)
done, pending = await asyncio.wait(
[run_analyzer(), run_applet()],
return_when=asyncio.FIRST_EXCEPTION)
for task in done:
await task
# Work around bugs in python-libusb1 that cause segfaults on interpreter shutdown.
await device.demultiplexer.flush()
else:
with args.bitstream as f:
logger.info("downloading bitstream from %r", f.name)
await device.download_bitstream(f.read())
if args.action == "tool":
tool = GlasgowApplet.all_applets[args.applet].tool_cls()
await tool.run(args)
if args.action == "flash":
logger.info("reading device configuration")
header = await device.read_eeprom("fx2", 0,
8 + 4 + GlasgowConfig.size)
header[0] = 0xC2 # see below
fx2_config = FX2Config.decode(header, partial=True)
if (len(fx2_config.firmware) != 1
or fx2_config.firmware[0][0] != 0x4000 - GlasgowConfig.size
or len(fx2_config.firmware[0][1]) != GlasgowConfig.size):
raise SystemExit(
"Unrecognized or corrupted configuration block")
glasgow_config = GlasgowConfig.decode(fx2_config.firmware[0][1])
logger.info("device has serial %s-%s", glasgow_config.revision,
glasgow_config.serial)
if fx2_config.disconnect:
logger.info("device has flashed firmware")
else:
logger.info("device does not have flashed firmware")
if glasgow_config.bitstream_size:
logger.info("device has flashed bitstream ID %s",
glasgow_config.bitstream_id.hex())
else:
logger.info("device does not have flashed bitstream")
new_bitstream = b""
if args.remove_bitstream:
logger.info("removing bitstream")
glasgow_config.bitstream_size = 0
glasgow_config.bitstream_id = b"\x00" * 16
elif args.bitstream:
logger.info("using bitstream from %s", args.bitstream.name)
with args.bitstream as f:
new_bitstream = f.read()
glasgow_config.bitstream_size = len(new_bitstream)
glasgow_config.bitstream_id = b"\xff" * 16
elif args.applet:
logger.info("building bitstream for applet %s", args.applet)
target, applet = _applet(device.revision, args)
new_bitstream_id = target.get_bitstream_id()
new_bitstream = target.get_bitstream(**_toolchain_opts(args))
# We always build and reflash the bitstream in case the one currently
# in EEPROM is corrupted. If we only compared the ID, there would be
# no easy way to recover from that case. There's also no point in
# storing the bitstream hash (as opposed to Verilog hash) in the ID,
# as building the bitstream takes much longer than flashing it.
logger.info("built bitstream ID %s", new_bitstream_id.hex())
glasgow_config.bitstream_size = len(new_bitstream)
glasgow_config.bitstream_id = new_bitstream_id
fx2_config.firmware[0] = (0x4000 - GlasgowConfig.size,
glasgow_config.encode())
if args.remove_firmware:
logger.info("removing firmware")
fx2_config.disconnect = False
new_image = fx2_config.encode()
new_image[0] = 0xC0 # see below
else:
logger.info(
"using firmware from %r",
args.firmware.name if args.firmware else firmware_file)
with (args.firmware or open(firmware_file, "rb")) as f:
for (addr, chunk) in input_data(f, fmt="ihex"):
fx2_config.append(addr, chunk)
fx2_config.disconnect = True
new_image = fx2_config.encode()
if new_bitstream:
logger.info("programming bitstream")
old_bitstream = await device.read_eeprom(
"ice", 0, len(new_bitstream))
if old_bitstream != new_bitstream:
for (addr, chunk) in diff_data(old_bitstream,
new_bitstream):
await device.write_eeprom("ice", addr, chunk)
logger.info("verifying bitstream")
if await device.read_eeprom(
"ice", 0, len(new_bitstream)) != new_bitstream:
logger.critical("bitstream programming failed")
return 1
else:
logger.info("bitstream identical")
logger.info("programming configuration and firmware")
old_image = await device.read_eeprom("fx2", 0, len(new_image))
if old_image != new_image:
for (addr, chunk) in diff_data(old_image, new_image):
await device.write_eeprom("fx2", addr, chunk)
logger.info("verifying configuration and firmware")
if await device.read_eeprom("fx2", 0,
len(new_image)) != new_image:
logger.critical(
"configuration/firmware programming failed")
return 1
else:
logger.info("configuration and firmware identical")
if args.action == "build":
target, applet = _applet(args.rev, args)
if args.type in ("v", "verilog"):
logger.info("building Verilog for applet %r", args.applet)
target.get_verilog().write(args.filename or args.applet + ".v")
if args.type in ("bin", "bitstream"):
logger.info("building bitstream for applet %r", args.applet)
with open(args.filename or args.applet + ".bin", "wb") as f:
f.write(target.get_bitstream(**_toolchain_opts(args)))
if args.type in ("zip", "archive"):
logger.info("building archive for applet %r", args.applet)
with target.get_build_tree() as tree:
if args.filename:
basename, = os.path.splitext(args.filename)
else:
basename = args.applet
shutil.make_archive(basename,
format="zip",
root_dir=tree,
logger=logger)
if args.action == "test":
logger.info("testing applet %r", args.applet)
applet = GlasgowApplet.all_applets[args.applet]()
loader = unittest.TestLoader()
stream = unittest.runner._WritelnDecorator(sys.stderr)
result = unittest.TextTestResult(stream=stream,
descriptions=True,
verbosity=2)
result.failfast = True
def startTest(test):
unittest.TextTestResult.startTest(result, test)
result.stream.write("\n")
result.startTest = startTest
if args.tests == []:
suite = loader.loadTestsFromTestCase(applet.test_cls)
suite.run(result)
else:
for test in args.tests:
suite = loader.loadTestsFromName(test,
module=applet.test_cls)
suite.run(result)
if not result.wasSuccessful():
for _, traceback in result.errors + result.failures:
print(traceback, end="", file=sys.stderr)
return 1
if args.action == "factory":
logger.info("reading device configuration")
header = await device.read_eeprom("fx2", 0,
8 + 4 + GlasgowConfig.size)
if not re.match(rb"^\xff+$", header):
if args.force:
logger.warning(
"device already factory-programmed, proceeding anyway")
else:
logger.error("device already factory-programmed")
return 1
fx2_config = FX2Config(vendor_id=VID_QIHW,
product_id=PID_GLASGOW,
device_id=1 + ord(args.rev) - ord('A'),
i2c_400khz=True)
glasgow_config = GlasgowConfig(args.rev, args.serial)
fx2_config.append(0x4000 - GlasgowConfig.size,
glasgow_config.encode())
image = fx2_config.encode()
# Let FX2 hardware enumerate. This won't load the configuration block
# into memory automatically, but the firmware has code that does that
# if it detects a C0 load.
image[0] = 0xC0
logger.info("programming device configuration")
await device.write_eeprom("fx2", 0, image)
logger.info("verifying device configuration")
if await device.read_eeprom("fx2", 0, len(image)) != image:
logger.critical("factory programming failed")
return 1
except GlasgowDeviceError as e:
logger.error(e)
return 1
except GatewareBuildError as e:
applet.logger.error(e)
return 1
return 0