def validate_and_resolve(self, manual: ReferenceManual) -> ReferenceManual:
mlog.log('Validating loaded manual...')
# build type map and func map for methods
for obj in manual.objects:
assert obj.name not in self.type_map, f'Duplicate object name {obj.name}'
self.type_map[obj.name] = obj
for m in obj.methods:
mid = f'{obj.name}.{m.name}'
assert mid not in self.type_map, f'Duplicate metod {mid}'
self.func_map[mid] = m
# Build func map for functions
for func in manual.functions:
assert func.name not in [*self.func_map.keys()
], f'Duplicate function {func.name}'
self.func_map[func.name] = func
mlog.log('Validating functions...')
for func in manual.functions:
mlog.log(' -- validating', mlog.bold(func.name))
self._validate_func(func)
mlog.log('Validating objects...')
for obj in manual.objects:
mlog.log(' -- validating', mlog.bold(obj.name))
self._validate_named_object(obj)
self._validate_feature_check(obj)
# Resolve and validate inheritence
if obj.extends:
assert obj.extends in self.type_map, f'Unknown extends object {obj.extends} in {obj.name}'
obj.extends_obj = self.type_map[obj.extends]
obj.extends_obj.extended_by += [obj]
# Only returned objects can be associated with module
if obj.obj_type is not ObjectType.RETURNED:
assert obj.defined_by_module is None
for m in obj.methods:
assert m.obj is obj
self._validate_func(m)
# Resolve inherited methods
for obj in manual.objects:
inherited_methods = obj.inherited_methods
curr = obj.extends_obj
while curr is not None:
inherited_methods += curr.methods
curr = curr.extends_obj
return manual
def generate_hotdoc_config(self):
cwd = os.path.abspath(os.curdir)
ncwd = os.path.join(self.sourcedir, self.subdir)
mlog.log('Generating Hotdoc configuration for: ', mlog.bold(self.name))
os.chdir(ncwd)
self.hotdoc.run_hotdoc(self.flatten_config_command())
os.chdir(cwd)
def generate_hotdoc_config(self):
cwd = os.path.abspath(os.curdir)
ncwd = os.path.join(self.sourcedir, self.subdir)
mlog.log('Generating Hotdoc configuration for: ', mlog.bold(self.name))
os.chdir(ncwd)
self.hotdoc.run_hotdoc(self.flatten_config_command())
os.chdir(cwd)
def _write_file(self, data: str, file_id: str) -> None: #
''' Write the data to disk ans store the id for the generated data '''
self.generated_files[file_id] = self._gen_filename(file_id)
out_file = self.out_dir / self.generated_files[file_id]
out_file.write_text(data, encoding='ascii')
mlog.log('Generated', mlog.bold(out_file.name))
def print_system_info():
print(mlog.bold('System information.').get_text(mlog.colorize_console))
print('Architecture:', platform.architecture())
print('Machine:', platform.machine())
print('Platform:', platform.system())
print('Processor:', platform.processor())
print('System:', platform.system())
print('')
def print_system_info():
print(mlog.bold('System information.').get_text(mlog.colorize_console))
print('Architecture:', platform.architecture())
print('Machine:', platform.machine())
print('Platform:', platform.system())
print('Processor:', platform.processor())
print('System:', platform.system())
print('')
def generate(self) -> None:
mlog.log('\n\n', mlog.bold('=== Functions ==='), '\n')
for f in self.functions:
self._generate_function(f)
mlog.log('\n\n', mlog.bold('=== Elementary ==='), '\n')
for obj in self.elementary:
self._generate_object(obj)
mlog.log('\n\n', mlog.bold('=== Builtins ==='), '\n')
for obj in self.builtins:
self._generate_object(obj)
mlog.log('\n\n', mlog.bold('=== Returned objects ==='), '\n')
for obj in self.returned:
self._generate_object(obj)
mlog.log('\n\n', mlog.bold('=== Modules ==='), '\n')
for obj in self.modules:
self._generate_object(obj)
for mod_obj in self.extract_returned_by_module(obj):
self._generate_object(mod_obj)
def _load_function(self,
path: Path,
obj: T.Optional[Object] = None) -> Function:
path_label = path.relative_to(self.yaml_dir).as_posix()
mlog.log('Loading', mlog.bold(path_label))
raw = self._load(self.read_file(path),
self.template.s_function,
label=path_label)
return self._process_function_base(raw)
def print_system_info():
print(mlog.bold('System information.'))
print('Architecture:', platform.architecture())
print('Machine:', platform.machine())
print('Platform:', platform.system())
print('Processor:', platform.processor())
print('System:', platform.system())
print('')
print(flush=True)
def declaration(self, state, args, kwargs):
if len(args) != 2:
raise InterpreterException('declaration takes exactly two arguments.')
check_stringlist(args)
disabled, required, _ = extract_required_kwarg(kwargs, state.subproject)
if disabled:
return ModuleReturnValue(False, [False])
lang, compiler = self._compiler(state)
parser = declaration_parsers.get(lang)
if not parser:
raise InterpreterException('no declaration parser for language %s' % lang)
compiler_args = self._compile_args(compiler, state, kwargs)
compiler_args += compiler.get_werror_args()
pkg = args[0]
decl = args[1]
tree = parser.parse(decl)
name = extract_declaration_name(tree)
proto = rewrite_declaration(tree, name)
check_prototype = not is_lone_identifier(tree)
if check_prototype:
checker = prototype_checkers.get(lang)
if not checker:
raise InterpreterException('no checker program for language %s' % lang)
prog = checker(tree, pkg, name)
ok = compiler.compiles(prog, state.environment, compiler_args, None)
status = mlog.green('YES') if ok else mlog.red('NO')
mlog.log('Checking that', mlog.bold(name, True), 'has prototype', mlog.bold(proto, True), ':', status)
else:
ok = compiler.has_header_symbol(pkg, name, '', state.environment, compiler_args, None)
self._checklog('declaration for', name, ok)
self._set_config_var(state, ok, name, kwargs)
if not ok and required:
raise InterpreterException('{} declaration {} required but not found.'.format(lang, name))
return ModuleReturnValue(ok, [ok])
def _generate_object(self, obj: Object) -> None:
tags = []
tags += [{
ObjectType.ELEMENTARY: mlog.yellow('[elementary]'),
ObjectType.BUILTIN: mlog.green('[builtin]'),
ObjectType.MODULE: mlog.blue('[module]'),
ObjectType.RETURNED: mlog.cyan('[returned]'),
}[obj.obj_type]]
if obj.is_container:
tags += [mlog.red('[container]')]
mlog.log()
mlog.log('Object', mlog.bold(obj.name), *tags)
with my_nested():
desc = obj.description
if '\n' in desc:
desc = desc[:desc.index('\n')]
mlog.log('Description:', mlog.bold(desc))
mlog.log('Returned by:', mlog.bold(str([x.name for x in obj.returned_by])))
mlog.log('Methods:')
with my_nested():
for m in obj.methods:
self._generate_function(m)
def _generate_function(self, func: Function) -> None:
mlog.log()
mlog.log('Function', mlog.bold(func.name))
with my_nested():
desc = func.description
if '\n' in desc:
desc = desc[:desc.index('\n')]
mlog.log('Description:', mlog.bold(desc))
mlog.log('Return type:', mlog.bold(self._types_to_string(func.returns)))
mlog.log('Pos args: ', mlog.bold(str([x.name for x in func.posargs])))
mlog.log('Opt args: ', mlog.bold(str([x.name for x in func.optargs])))
mlog.log('Varargs: ', mlog.bold(func.varargs.name if func.varargs is not None else 'null'))
mlog.log('Kwargs: ', mlog.bold(str(list(func.kwargs.keys()))))
def _load_object(self, obj_type: ObjectType, path: Path) -> Object:
path_label = path.relative_to(self.yaml_dir).as_posix()
mlog.log(f'Loading', mlog.bold(path_label))
raw = load(self.read_file(path), s_object, label=path_label).data
def as_methods(mlist: T.List[Function]) -> T.List[Method]:
res: T.List[Method] = []
for i in mlist:
assert isinstance(i, Method)
res += [i]
return res
methods = raw.pop('methods', [])
obj = Object(methods=[], obj_type=obj_type, **raw)
obj.methods = as_methods([self._process_function_base(x, obj) for x in methods])
return obj
def _configure_sitemap(self) -> None:
'''
Replaces the `@REFMAN_PLACEHOLDER@` placeholder with the reference
manual sitemap. The structure of the sitemap is derived from the
file IDs.
'''
raw = self.sitemap_in.read_text(encoding='utf-8')
out = ''
for l in raw.split('\n'):
if '@REFMAN_PLACEHOLDER@' not in l:
out += f'{l}\n'
continue
mlog.log('Generating', mlog.bold(self.sitemap_out.as_posix()))
base_indent = l.replace('@REFMAN_PLACEHOLDER@', '')
for k in sorted(self.generated_files.keys()):
indent = base_indent + '\t' * k.count('.')
out += f'{indent}{self.generated_files[k]}\n'
self.sitemap_out.write_text(out, encoding='utf-8')
def bold(text):
return mlog.bold(text).get_text(mlog.colorize_console)
def main():
print_system_info()
parser = argparse.ArgumentParser()
parser.add_argument('--cov', action='store_true')
parser.add_argument('--backend',
default=None,
dest='backend',
choices=backendlist)
parser.add_argument('--cross',
default=False,
dest='cross',
action='store_true')
parser.add_argument('--failfast', action='store_true')
parser.add_argument('--no-unittests', action='store_true', default=False)
(options, _) = parser.parse_known_args()
# Enable coverage early...
enable_coverage = options.cov
if enable_coverage:
os.makedirs('.coverage', exist_ok=True)
sys.argv.remove('--cov')
import coverage
coverage.process_startup()
returncode = 0
cross = options.cross
backend, _ = guess_backend(options.backend, shutil.which('msbuild'))
no_unittests = options.no_unittests
# Running on a developer machine? Be nice!
if not mesonlib.is_windows() and not mesonlib.is_haiku(
) and 'CI' not in os.environ:
os.nice(20)
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
print(mlog.bold('Running unittests.').get_text(mlog.colorize_console))
print(flush=True)
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
env['MESON_UNIT_TEST_BACKEND'] = backend.name
with tempfile.TemporaryDirectory() as temp_dir:
# Enable coverage on all subsequent processes.
if enable_coverage:
Path(temp_dir, 'usercustomize.py').open('w').write(
'import coverage\n'
'coverage.process_startup()\n')
env['COVERAGE_PROCESS_START'] = '.coveragerc'
if 'PYTHONPATH' in env:
env['PYTHONPATH'] = os.pathsep.join(
[temp_dir, env.get('PYTHONPATH')])
else:
env['PYTHONPATH'] = temp_dir
if not cross:
cmd = mesonlib.python_command + [
'run_meson_command_tests.py', '-v'
]
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
if no_unittests:
print('Skipping all unit tests.')
returncode = 0
else:
cmd = mesonlib.python_command + ['run_unittests.py', '-v']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
cmd = mesonlib.python_command + ['run_project_tests.py'
] + sys.argv[1:]
returncode += subprocess.call(cmd, env=env)
else:
cross_test_args = mesonlib.python_command + ['run_cross_test.py']
print(
mlog.bold('Running armhf cross tests.').get_text(
mlog.colorize_console))
print(flush=True)
cmd = cross_test_args + ['cross/ubuntu-armhf.txt']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
print(
mlog.bold('Running mingw-w64 64-bit cross tests.').get_text(
mlog.colorize_console))
print(flush=True)
cmd = cross_test_args + ['cross/linux-mingw-w64-64bit.txt']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
return returncode
def bold(text):
return mlog.bold(text).get_text(mlog.colorize_console)
def main():
print_system_info()
parser = argparse.ArgumentParser()
parser.add_argument('--cov', action='store_true')
parser.add_argument('--backend', default=None, dest='backend',
choices=backendlist)
parser.add_argument('--cross', default=False, dest='cross', action='store_true')
parser.add_argument('--failfast', action='store_true')
(options, _) = parser.parse_known_args()
# Enable coverage early...
enable_coverage = options.cov
if enable_coverage:
os.makedirs('.coverage', exist_ok=True)
sys.argv.remove('--cov')
import coverage
coverage.process_startup()
returncode = 0
cross = options.cross
backend, _ = guess_backend(options.backend, shutil.which('msbuild'))
# Running on a developer machine? Be nice!
if not mesonlib.is_windows() and not mesonlib.is_haiku() and 'CI' not in os.environ:
os.nice(20)
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
print(mlog.bold('Running unittests.').get_text(mlog.colorize_console))
print(flush=True)
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
env['MESON_UNIT_TEST_BACKEND'] = backend.name
with tempfile.TemporaryDirectory() as temp_dir:
# Enable coverage on all subsequent processes.
if enable_coverage:
Path(temp_dir, 'usercustomize.py').open('w').write(
'import coverage\n'
'coverage.process_startup()\n')
env['COVERAGE_PROCESS_START'] = '.coveragerc'
if 'PYTHONPATH' in env:
env['PYTHONPATH'] = os.pathsep.join([temp_dir, env.get('PYTHONPATH')])
else:
env['PYTHONPATH'] = temp_dir
if not cross:
cmd = mesonlib.python_command + ['run_meson_command_tests.py', '-v']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
cmd = mesonlib.python_command + ['run_unittests.py', '-v']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
cmd = mesonlib.python_command + ['run_project_tests.py'] + sys.argv[1:]
returncode += subprocess.call(cmd, env=env)
else:
cross_test_args = mesonlib.python_command + ['run_cross_test.py']
print(mlog.bold('Running armhf cross tests.').get_text(mlog.colorize_console))
print(flush=True)
cmd = cross_test_args + ['cross/ubuntu-armhf.txt']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
print(mlog.bold('Running mingw-w64 64-bit cross tests.')
.get_text(mlog.colorize_console))
print(flush=True)
cmd = cross_test_args + ['cross/linux-mingw-w64-64bit.txt']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
return returncode
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
print(mlog.bold('Running unittests.').get_text(mlog.colorize_console))
print()
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
env['MESON_UNIT_TEST_BACKEND'] = backend.name
with tempfile.TemporaryDirectory() as td:
# Enable coverage on all subsequent processes.
if enable_coverage:
with open(os.path.join(td, 'usercustomize.py'), 'w') as f:
f.write('import coverage\n'
'coverage.process_startup()\n')
env['COVERAGE_PROCESS_START'] = '.coveragerc'
env['PYTHONPATH'] = os.pathsep.join([td] + env.get('PYTHONPATH', []))
returncode += subprocess.call([sys.executable, 'run_unittests.py', '-v'], env=env)
# Ubuntu packages do not have a binary without -6 suffix.
if should_run_linux_cross_tests():
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
print(mlog.bold('Running unittests.').get_text(mlog.colorize_console))
print()
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
env['MESON_UNIT_TEST_BACKEND'] = backend.name
with tempfile.TemporaryDirectory() as td:
# Enable coverage on all subsequent processes.
if enable_coverage:
with open(os.path.join(td, 'usercustomize.py'), 'w') as f:
f.write('import coverage\n' 'coverage.process_startup()\n')
env['COVERAGE_PROCESS_START'] = '.coveragerc'
env['PYTHONPATH'] = os.pathsep.join([td] +
env.get('PYTHONPATH', []))
if not cross:
returncode += subprocess.call(mesonlib.python_command +
['run_meson_command_tests.py', '-v'],
def main() -> None:
parser = argparse.ArgumentParser()
parser.add_argument('case', type=pathlib.Path, help='The test case to run')
parser.add_argument('--subtest',
type=int,
action='append',
dest='subtests',
help='which subtests to run')
parser.add_argument('--backend',
action='store',
help="Which backend to use")
parser.add_argument('--cross-file',
action='store',
help='File describing cross compilation environment.')
parser.add_argument('--native-file',
action='store',
help='File describing native compilation environment.')
parser.add_argument('--use-tmpdir',
action='store_true',
help='Use tmp directory for temporary files.')
args = T.cast('ArgumentType', parser.parse_args())
setup_commands(args.backend)
detect_system_compiler(args)
print_tool_versions()
test = TestDef(args.case, args.case.stem, [])
tests = load_test_json(test, False)
if args.subtests:
tests = [t for i, t in enumerate(tests) if i in args.subtests]
def should_fail(path: pathlib.Path) -> str:
dir_ = path.parent.stem
# FIXME: warning tets might not be handled correctly still…
if dir_.startswith(('failing', 'warning')):
if ' ' in dir_:
return dir_.split(' ')[1]
return 'meson'
return ''
results = [
run_test(t, t.args, should_fail(t.path), args.use_tmpdir)
for t in tests
]
failed = False
for test, result in zip(tests, results):
if result is None:
is_skipped = True
skip_reason = 'not run because preconditions were not met'
else:
for l in result.stdo.splitlines():
if test_emits_skip_msg(l):
is_skipped = True
offset = l.index('MESON_SKIP_TEST') + 16
skip_reason = l[offset:].strip()
break
else:
is_skipped = False
skip_reason = ''
if is_skipped:
msg = mlog.yellow('SKIP:')
elif result.msg:
msg = mlog.red('FAIL:')
failed = True
else:
msg = mlog.green('PASS:'******'Reason:'), skip_reason)
if result is not None and result.msg and 'MESON_SKIP_TEST' not in result.stdo:
mlog.log('reason:', result.msg)
if result.step is BuildStep.configure:
# For configure failures, instead of printing stdout,
# print the meson log if available since it's a superset
# of stdout and often has very useful information.
mlog.log(result.mlog)
else:
mlog.log(result.stdo)
for cmd_res in result.cicmds:
mlog.log(cmd_res)
mlog.log(result.stde)
exit(1 if failed else 0)
def main():
print_system_info()
parser = argparse.ArgumentParser()
parser.add_argument('--backend',
default=None,
dest='backend',
choices=backendlist)
parser.add_argument('--cross', default=[], dest='cross', action='append')
parser.add_argument('--cross-only', action='store_true')
parser.add_argument('--failfast', action='store_true')
parser.add_argument('--no-unittests', action='store_true', default=False)
(options, _) = parser.parse_known_args()
returncode = 0
backend, _ = guess_backend(options.backend, shutil.which('msbuild'))
no_unittests = options.no_unittests
# Running on a developer machine? Be nice!
if not mesonlib.is_windows() and not mesonlib.is_haiku(
) and 'CI' not in os.environ:
os.nice(20)
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
if not options.cross:
cmd = mesonlib.python_command + ['run_meson_command_tests.py', '-v']
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
if no_unittests:
print('Skipping all unit tests.')
print(flush=True)
returncode = 0
else:
print(mlog.bold('Running unittests.'))
print(flush=True)
cmd = mesonlib.python_command + [
'run_unittests.py', '--backend=' + backend.name, '-v'
]
if options.failfast:
cmd += ['--failfast']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
cmd = mesonlib.python_command + ['run_project_tests.py'] + sys.argv[1:]
returncode += subprocess.call(cmd, env=env)
else:
cross_test_args = mesonlib.python_command + ['run_cross_test.py']
for cf in options.cross:
print(mlog.bold(f'Running {cf} cross tests.'))
print(flush=True)
cmd = cross_test_args + ['cross/' + cf]
if options.failfast:
cmd += ['--failfast']
if options.cross_only:
cmd += ['--cross-only']
returncode += subprocess.call(cmd, env=env)
if options.failfast and returncode != 0:
return returncode
return returncode
# Appveyor sets the `platform` environment variable which completely messes
# up building with the vs2010 and vs2015 backends.
#
# Specifically, MSBuild reads the `platform` environment variable to set
# the configured value for the platform (Win32/x64/arm), which breaks x86
# builds.
#
# Appveyor setting this also breaks our 'native build arch' detection for
# Windows in environment.py:detect_windows_arch() by overwriting the value
# of `platform` set by vcvarsall.bat.
#
# While building for x86, `platform` should be unset.
if 'APPVEYOR' in os.environ and os.environ['arch'] == 'x86':
os.environ.pop('platform')
# Run tests
print(mlog.bold('Running unittests.').get_text(mlog.colorize_console))
print()
# Can't pass arguments to unit tests, so set the backend to use in the environment
env = os.environ.copy()
env['MESON_UNIT_TEST_BACKEND'] = backend.name
with tempfile.TemporaryDirectory() as td:
# Enable coverage on all subsequent processes.
if enable_coverage:
with open(os.path.join(td, 'usercustomize.py'), 'w') as f:
f.write('import coverage\n'
'coverage.process_startup()\n')
env['COVERAGE_PROCESS_START'] = '.coveragerc'
env['PYTHONPATH'] = os.pathsep.join([td] + env.get('PYTHONPATH', []))
if not cross:
returncode += subprocess.call(mesonlib.python_command + ['run_meson_command_tests.py', '-v'], env=env)
returncode += subprocess.call(mesonlib.python_command + ['run_unittests.py', '-v'], env=env)
def _checklog(self, which, what, ok):
status = mlog.green('YES') if ok else mlog.red('NO')
mlog.log('Checking that', which, mlog.bold(what, True), 'exists:', status)
