def run_workload(cls):
big_cpu = cls.env.target.bl.bigs[0]
big_cpufreq = "/sys/devices/system/cpu/cpu{}/cpufreq".format(big_cpu)
max_freq_path = os.path.join(big_cpufreq, "scaling_max_freq")
available_freqs_path = os.path.join(big_cpufreq,
"scaling_available_frequencies")
available_freqs_str = cls.env.target.read_value(available_freqs_path)
available_freqs = available_freqs_str.split()
min_frequency = available_freqs[0]
max_frequency = available_freqs[-1]
wload = RTA(cls.env.target, "busy_threads",
calibration=cls.env.calibration())
wload.conf(kind="profile", params=cls.params)
phase_duration = WORKLOAD_DURATION_S / 3.
cls.env.ftrace.start()
wload.run(out_dir=cls.env.res_dir, background=True)
time.sleep(phase_duration)
cls.env.target.write_value(max_freq_path, min_frequency)
time.sleep(phase_duration)
cls.env.target.write_value(max_freq_path, max_frequency)
time.sleep(phase_duration)
cls.env.ftrace.stop()
cls.env.ftrace.get_trace(cls.trace_file)
def _do_test(self, task, exp_phases):
rtapp = RTA(self.target, name='test', calibration=self.calibration)
rtapp.conf(
kind = 'profile',
params = {'my_task': task.get()},
run_dir=self.target_run_dir
)
with open(rtapp.json) as f:
conf = json.load(f, object_pairs_hook=OrderedDict)
# Check that the configuration looks like we expect it to
phases = conf['tasks']['my_task']['phases'].values()
self.assertEqual(len(phases), len(exp_phases), 'Wrong number of phases')
for phase, exp_phase in zip(phases, exp_phases):
self.assertDictEqual(phase, exp_phase)
# Try running the workload and check that it produces the expected log
# files
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [c for c in self.target.executed_commands if 'rt-app' in c]
self.assertListEqual(rtapp_cmds, [self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
self.assert_output_file_exists('rt-app-my_task-0.log')
self.assert_can_read_logfile(exp_tasks=['my_task'])
def __init__(self, name, test_env, cpus, period_ms=100, duty_cycle_pct=50,
duration_s=1, kind='profile', num_tasks=1):
super(Task, self).__init__("task")
self.name = name
self.period_ms = period_ms
self.duty_cycle_pct = duty_cycle_pct
self.duration_s = duration_s
self.cpus = cpus
allowed_kinds = ['profile', 'custom']
if kind not in allowed_kinds:
raise ValueError('{} not allowed, kind can be one of {}'
.format(kind, allowed_kinds))
self.kind = kind
self.num_tasks = num_tasks
# Create rt-app workload
t = Periodic(period_ms=period_ms,
duty_cycle_pct=duty_cycle_pct,
duration_s=duration_s).get()
self.wload = RTA(test_env.target, name, test_env.calibration())
if num_tasks > 1:
conf_params = {name + "_{}".format(i): t for i in xrange(num_tasks)}
else:
conf_params = {name: t}
self.wload.conf(kind=kind,
params=conf_params,
run_dir=test_env.target.working_directory)
def populate_params(cls):
for idx in range(len(cls.env.target.bl.bigs)):
task = cls.task_prefix + str(idx)
cls.params[task] = RTA.periodic(**BIG_WORKLOAD)
for idx in range(len(cls.env.target.bl.littles)):
task = cls.task_prefix + str(idx)
cls.params[task] = RTA.periodic(**SMALL_WORKLOAD)
def populate_params(cls):
for idx in range(len(cls.env.target.bl.bigs)):
task = cls.task_prefix + str(idx)
cls.params[task] = RTA.periodic(**BIG_WORKLOAD)
for idx in range(len(cls.env.target.bl.littles)):
task = cls.task_prefix + str(idx)
cls.params[task] = RTA.periodic(**SMALL_WORKLOAD)
def _get_calib_conf(self, calibration):
rtapp = RTA(self.target, name='test', calibration=calibration)
rtapp.conf(kind='profile',
params={'t1': Periodic().get()},
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
return json.load(f)['global']['calibration']
def _get_calib_conf(self, calibration):
rtapp = RTA(self.target, name='test', calibration=calibration)
rtapp.conf(
kind = 'profile',
params = {'t1': Periodic().get()},
run_dir=self.target_run_dir
)
with open(rtapp.json) as f:
return json.load(f)['global']['calibration']
def run_workload(cls):
wload = RTA(
cls.env.target,
"wake_migration",
calibration=cls.env.calibration())
wload.conf(kind="profile", params=cls.params)
cls.env.ftrace.start()
wload.run(
out_dir=cls.env.res_dir,
background=False)
cls.env.ftrace.stop()
trace = cls.env.ftrace.get_trace(cls.trace_file)
def populate_tasks(cls):
migrator_workload = BIG_WORKLOAD.copy()
migrator_workload["duration_s"] = 9
migrator_workload["delay_s"] = 1
for idx in range(cls.num_tasks):
task = "early_starters" + str(idx)
cls.params[task] = RTA.periodic(**BIG_WORKLOAD)
cls.early_starters.append(task)
# Tasks that will be idle pulled
task = "migrator" + str(idx)
cls.params[task] = RTA.periodic(**migrator_workload)
cls.migrators.append(task)
def populate_tasks(cls):
migrator_workload = BIG_WORKLOAD.copy()
migrator_workload["duration_s"] = 9
migrator_workload["delay_s"] = 1
for idx in range(cls.num_tasks):
task = "early_starters" + str(idx)
cls.params[task] = RTA.periodic(**BIG_WORKLOAD)
cls.early_starters.append(task)
# Tasks that will be idle pulled
task = "migrator" + str(idx)
cls.params[task] = RTA.periodic(**migrator_workload)
cls.migrators.append(task)
def calibration(self, force=False):
if not force and self._calib:
return self._calib
required = False
if force:
required = True
if 'rt-app' in self.__tools:
required = True
elif 'wloads' in self.conf:
wloads = self.conf['wloads']
for wl_idx in wloads:
if 'rt-app' in wloads[wl_idx]['type']:
required = True
break
if not required:
logging.debug('No RT-App workloads, skipping calibration')
return
if not force and 'rtapp-calib' in self.conf:
logging.info('Loading RTApp calibration from configuration file...')
self._calib = {
int(key): int(value)
for key, value in self.conf['rtapp-calib'].items()
}
else:
logging.info('Calibrating RTApp...')
self._calib = RTA.calibrate(self.target)
logging.info('Using RT-App calibration values: %s',
"{" + ", ".join('"%r": %r' % (key, self._calib[key])
for key in sorted(self._calib)) + "}")
return self._calib
def __init__(self, name, test_env, cpus, period_ms=100, duty_cycle_pct=50,
duration_s=1, kind='profile', num_tasks=1):
super(Task, self).__init__("task")
self.name = name
self.period_ms = period_ms
self.duty_cycle_pct = duty_cycle_pct
self.duration_s = duration_s
self.cpus = cpus
allowed_kinds = ['profile', 'custom']
if kind not in allowed_kinds:
raise ValueError('{} not allowed, kind can be one of {}'
.format(kind, allowed_kinds))
self.kind = kind
self.num_tasks = num_tasks
# Create rt-app workload
t = Periodic(period_ms=period_ms,
duty_cycle_pct=duty_cycle_pct,
duration_s=duration_s).get()
self.wload = RTA(test_env.target, name, test_env.calibration())
if num_tasks > 1:
conf_params = {name + "_{}".format(i): t for i in xrange(num_tasks)}
else:
conf_params = {name: t}
self.wload.conf(kind=kind,
params=conf_params,
run_dir=test_env.target.working_directory)
def calibration(self, force=False):
"""
Get rt-app calibration. Run calibration on target if necessary.
:param force: Always run calibration on target, even if we have not
installed rt-app or have already run calibration.
:returns: A dict with calibration results, which can be passed as the
``calibration`` parameter to :class:`RTA`, or ``None`` if
force=False and we have not installed rt-app.
"""
if not force and self._calib:
return self._calib
required = force or 'rt-app' in self.__installed_tools
if not required:
self._log.debug('No RT-App workloads, skipping calibration')
return
if not force and 'rtapp-calib' in self.conf:
self._log.warning('Using configuration provided RTApp calibration')
self._calib = {
int(key): int(value)
for key, value in self.conf['rtapp-calib'].items()
}
else:
self._log.info('Calibrating RTApp...')
self._calib = RTA.calibrate(self.target)
self._log.info('Using RT-App calibration values:')
self._log.info(' %s',
"{" + ", ".join('"%r": %r' % (key, self._calib[key])
for key in sorted(self._calib)) + "}")
return self._calib
def calibration(self, force=False):
"""
Get rt-app calibration. Run calibration on target if necessary.
:param force: Always run calibration on target, even if we have not
installed rt-app or have already run calibration.
:returns: A dict with calibration results, which can be passed as the
``calibration`` parameter to :class:`RTA`, or ``None`` if
force=False and we have not installed rt-app.
"""
if not force and self._calib:
return self._calib
required = force or 'rt-app' in self.__installed_tools
if not required:
self._log.debug('No RT-App workloads, skipping calibration')
return
if not force and 'rtapp-calib' in self.conf:
self._log.warning('Using configuration provided RTApp calibration')
self._calib = {
int(key): int(value)
for key, value in self.conf['rtapp-calib'].items()
}
else:
self._log.info('Calibrating RTApp...')
self._calib = RTA.calibrate(self.target)
self._log.info('Using RT-App calibration values:')
self._log.info(' %s',
"{" + ", ".join('"%r": %r' % (key, self._calib[key])
for key in sorted(self._calib)) + "}")
return self._calib
def run_workload(cls):
big_cpu = cls.env.target.bl.bigs[0]
big_cpufreq = "/sys/devices/system/cpu/cpu{}/cpufreq".format(big_cpu)
max_freq_path = os.path.join(big_cpufreq, "scaling_max_freq")
available_freqs_path = os.path.join(big_cpufreq,
"scaling_available_frequencies")
available_freqs_str = cls.env.target.read_value(available_freqs_path)
available_freqs = available_freqs_str.split()
min_frequency = available_freqs[0]
max_frequency = available_freqs[-1]
wload = RTA(cls.env.target,
"busy_threads",
calibration=cls.env.calibration())
wload.conf(kind="profile", params=cls.params)
phase_duration = WORKLOAD_DURATION_S / 3.
cls.env.ftrace.start()
wload.run(out_dir=cls.env.res_dir, background=True)
time.sleep(phase_duration)
cls.env.target.write_value(max_freq_path, min_frequency)
time.sleep(phase_duration)
cls.env.target.write_value(max_freq_path, max_frequency)
time.sleep(phase_duration)
cls.env.ftrace.stop()
cls.env.ftrace.get_trace(cls.trace_file)
def _do_test(self, task, exp_phases):
rtapp = RTA(self.target, name='test', calibration=self.calibration)
rtapp.conf(kind='profile',
params={'my_task': task.get()},
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
conf = json.load(f, object_pairs_hook=OrderedDict)
# Check that the configuration looks like we expect it to
phases = conf['tasks']['my_task']['phases'].values()
self.assertEqual(len(phases), len(exp_phases),
'Wrong number of phases')
for phase, exp_phase in zip(phases, exp_phases):
self.assertDictEqual(phase, exp_phase)
# Try running the workload and check that it produces the expected log
# files
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [
c for c in self.target.executed_commands if 'rt-app' in c
]
self.assertListEqual(rtapp_cmds, [self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
self.assert_output_file_exists('rt-app-my_task-0.log')
self.assert_can_read_logfile(exp_tasks=['my_task'])
def _test_custom_smoke(self, calibration):
"""
Test RTA custom workload
Creates an rt-app workload using 'custom' and checks that the json
roughly matches the file we provided. If we have root, attempts to run
the workload.
"""
json_path = os.path.join(os.getenv('LISA_HOME'),
'assets', 'mp3-short.json')
rtapp = RTA(self.target, name='test', calibration=calibration)
# Configure this RTApp instance to:
rtapp.conf(kind='custom', params=json_path, duration=5,
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
conf = json.load(f)
# Convert k to str because the json loader gives us unicode strings
tasks = set([str(k) for k in conf['tasks'].keys()])
self.assertSetEqual(
tasks,
set(['AudioTick', 'AudioOut', 'AudioTrack',
'mp3.decoder', 'OMXCall']))
# Would like to try running the workload but mp3-short.json has nonzero
# 'priority' fields, and we probably don't have permission for that
# unless we're root.
if self.target.is_rooted:
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [c for c in self.target.executed_commands
if 'rt-app' in c]
self.assertListEqual(rtapp_cmds, [self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
def populate_params(cls):
cls.rtapp = RTA(cls.target,cls.rta_name)
cls.rtapp.conf(
kind='profile',
params={
cls.task_name: Periodic(
period_ms=40, duty_cycle_pct=1,
duration_s=2,
cpus=cls.test_cpu,
).get(),
},
run_dir='/tmp'
)
def run_workload(cls):
wload = RTA(cls.env.target,
"wake_migration",
calibration=cls.env.calibration())
wload.conf(kind="profile", params=cls.params)
cls.env.ftrace.start()
wload.run(out_dir=cls.env.res_dir, background=False)
cls.env.ftrace.stop()
trace = cls.env.ftrace.get_trace(cls.trace_file)
def calibration(self, force=False):
if not force and self._calib:
return self._calib
required = False
if force:
required = True
if 'rt-app' in self.__tools:
required = True
elif 'wloads' in self.conf:
wloads = self.conf['wloads']
for wl_idx in wloads:
if 'rt-app' in wloads[wl_idx]['type']:
required = True
break
if not required:
logging.debug('No RT-App workloads, skipping calibration')
return
if not force and 'rtapp-calib' in self.conf:
logging.warning(
r'%14s - Using configuration provided RTApp calibration',
'Target')
self._calib = {
int(key): int(value)
for key, value in self.conf['rtapp-calib'].items()
}
else:
logging.info(r'%14s - Calibrating RTApp...', 'Target')
self._calib = RTA.calibrate(self.target)
logging.info(r'%14s - Using RT-App calibration values:', 'Target')
logging.info(
r'%14s - %s', 'Target',
"{" + ", ".join('"%r": %r' % (key, self._calib[key])
for key in sorted(self._calib)) + "}")
return self._calib
def test_profile_periodic_smoke(self):
"""
Smoketest Periodic rt-app workload
Creates a workload using Periodic, tests that the JSON has the expected
content, then tests that it can be run.
"""
rtapp = RTA(self.target, name='test', calibration=self.calibration)
rtapp.conf(kind='profile',
params={
'task_p20':
Periodic(
period_ms=100,
duty_cycle_pct=20,
duration_s=1,
).get(),
},
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
conf = json.load(f)
[phase] = conf['tasks']['task_p20']['phases'].values()
self.assertDictEqual(
phase, {
'loop': 10,
'run': 20000,
'timer': {
'period': 100000,
'ref': 'task_p20'
}
})
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [
c for c in self.target.executed_commands if 'rt-app' in c
]
self.assertListEqual(rtapp_cmds, [self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
self.assert_output_file_exists('rt-app-task_p20-0.log')
self.assert_can_read_logfile(exp_tasks=['task_p20'])
def _test_custom_smoke(self, calibration):
"""
Test RTA custom workload
Creates an rt-app workload using 'custom' and checks that the json
roughly matches the file we provided. If we have root, attempts to run
the workload.
"""
json_path = os.path.join(os.getenv('LISA_HOME'), 'assets',
'mp3-short.json')
rtapp = RTA(self.target, name='test', calibration=calibration)
# Configure this RTApp instance to:
rtapp.conf(kind='custom',
params=json_path,
duration=5,
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
conf = json.load(f)
# Convert k to str because the json loader gives us unicode strings
tasks = set([str(k) for k in conf['tasks'].keys()])
self.assertSetEqual(
tasks,
set([
'AudioTick', 'AudioOut', 'AudioTrack', 'mp3.decoder', 'OMXCall'
]))
# Would like to try running the workload but mp3-short.json has nonzero
# 'priority' fields, and we probably don't have permission for that
# unless we're root.
if self.target.is_rooted:
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [
c for c in self.target.executed_commands if 'rt-app' in c
]
self.assertListEqual(rtapp_cmds,
[self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
def run_workload(cls):
big_cpu = cls.env.target.bl.bigs[0]
big_cpufreq = "/sys/devices/system/cpu/cpu{}/cpufreq".format(big_cpu)
max_freq_path = os.path.join(big_cpufreq, "scaling_max_freq")
available_freqs_path = os.path.join(big_cpufreq,
"scaling_available_frequencies")
available_freqs_str = cls.env.target.read_value(available_freqs_path)
available_freqs = available_freqs_str.split()
min_frequency = available_freqs[0]
max_frequency = available_freqs[-1]
wload = RTA(cls.env.target, "busy_threads",
calibration=cls.env.calibration())
wload.conf(kind="profile", params=cls.params)
phase_duration = WORKLOAD_DURATION_S / 3.
cls.env.ftrace.start()
wload.run(out_dir=cls.env.res_dir, background=True)
time.sleep(phase_duration)
# Writing values on the target can take a non-negligible amount of time.
# To prevent this from shifting the transitions between
# constrained/unconstrained phases, measure this write latency and
# reduce our sleep time by that amount.
def write_and_sleep(max_freq):
time_before = time.time()
cls.env.target.write_value(max_freq_path, max_freq)
write_latency = time.time() - time_before
if (write_latency > phase_duration):
raise ValueError(
"Latency of Target.write_value greater than phase duration! "
"Increase WORKLOAD_DURATION_S or speed up target connection")
time.sleep(phase_duration - write_latency)
write_and_sleep(min_frequency)
write_and_sleep(max_frequency)
cls.env.ftrace.stop()
cls.env.ftrace.get_trace(cls.trace_file)
class Task(SchedEntity):
"""
Task Entity class
:param name: Name of the task.
:type name: str
:param test_env: Test environment.
:type test_env: env.TestEnv
:param cpus: List of CPUs the workload can run on.
:type cpus: list(int)
:param period_ms: Period of each task in milliseconds.
:type period_ms: int
:param duty_cycle_pct: Dduty cycle of the periodic workload.
Default 50%
:type duty_cycle_pct: int
:param duration_s: Total duration of the workload. Default 1 second.
:type duration_s: int
:param kind: Type of RTA workload. Can be 'profile' or 'custom'.
Default value is 'profile'.
:type kind: str
:param num_tasks: Number of tasks to spawn.
:type num_tasks: int
"""
def __init__(self,
name,
test_env,
cpus,
period_ms=100,
duty_cycle_pct=50,
duration_s=1,
kind='profile',
num_tasks=1):
super(Task, self).__init__("task")
self.name = name
self.period_ms = period_ms
self.duty_cycle_pct = duty_cycle_pct
self.duration_s = duration_s
self.cpus = cpus
allowed_kinds = ['profile', 'custom']
if kind not in allowed_kinds:
raise ValueError('{} not allowed, kind can be one of {}'.format(
kind, allowed_kinds))
self.kind = kind
self.num_tasks = num_tasks
# Create rt-app workload
t = Periodic(period_ms=period_ms,
duty_cycle_pct=duty_cycle_pct,
duration_s=duration_s).get()
self.wload = RTA(test_env.target, name, test_env.calibration())
if num_tasks > 1:
conf_params = {
name + "_{}".format(i): t
for i in xrange(num_tasks)
}
else:
conf_params = {name: t}
self.wload.conf(kind=kind,
params=conf_params,
run_dir=test_env.target.working_directory)
def __repr__(self):
return "Task: " + self.name
def add_children(self, ses):
raise TypeError('Cannot add children entities to a task entity.')
def get_expected_util(self):
"""
Get expected utilization value. For tasks this corresponds to
corresponds to the duty cycle of the task.
:returns: int - expected utilization of the task
"""
return 1024 * (self.duty_cycle_pct * self.num_tasks / 100.0)
def populate_params(cls):
cls.params[cls.task_prefix] = RTA.step(**STEP_WORKLOAD)
cls.params[cls.task_prefix + "1"] = RTA.step(**STEP_WORKLOAD)
def populate_params(cls):
for i in range(cls.num_tasks):
task = cls.task_prefix + str(i)
cls.params[task] = RTA.periodic(**SMALL_WORKLOAD)
class Task(SchedEntity):
"""
Task Entity class
:param name: Name of the task.
:type name: str
:param test_env: Test environment.
:type test_env: env.TestEnv
:param cpus: List of CPUs the workload can run on.
:type cpus: list(int)
:param period_ms: Period of each task in milliseconds.
:type period_ms: int
:param duty_cycle_pct: Dduty cycle of the periodic workload.
Default 50%
:type duty_cycle_pct: int
:param duration_s: Total duration of the workload. Default 1 second.
:type duration_s: int
:param kind: Type of RTA workload. Can be 'profile' or 'custom'.
Default value is 'profile'.
:type kind: str
:param num_tasks: Number of tasks to spawn.
:type num_tasks: int
"""
def __init__(self, name, test_env, cpus, period_ms=100, duty_cycle_pct=50,
duration_s=1, kind='profile', num_tasks=1):
super(Task, self).__init__("task")
self.name = name
self.period_ms = period_ms
self.duty_cycle_pct = duty_cycle_pct
self.duration_s = duration_s
self.cpus = cpus
allowed_kinds = ['profile', 'custom']
if kind not in allowed_kinds:
raise ValueError('{} not allowed, kind can be one of {}'
.format(kind, allowed_kinds))
self.kind = kind
self.num_tasks = num_tasks
# Create rt-app workload
t = Periodic(period_ms=period_ms,
duty_cycle_pct=duty_cycle_pct,
duration_s=duration_s).get()
self.wload = RTA(test_env.target, name, test_env.calibration())
if num_tasks > 1:
conf_params = {name + "_{}".format(i): t for i in xrange(num_tasks)}
else:
conf_params = {name: t}
self.wload.conf(kind=kind,
params=conf_params,
run_dir=test_env.target.working_directory)
def __repr__(self):
return "Task: " + self.name
def add_children(self, ses):
raise TypeError('Cannot add children entities to a task entity.')
def get_expected_util(self):
"""
Get expected utilization value. For tasks this corresponds to
corresponds to the duty cycle of the task.
:returns: int - expected utilization of the task
"""
return 1024 * (self.duty_cycle_pct * self.num_tasks / 100.0)
def populate_params(cls):
cls.params[cls.task_prefix] = RTA.step(**STEP_WORKLOAD)
cls.params[cls.task_prefix + "1"] = RTA.step(**STEP_WORKLOAD)
def populate_params(cls):
for i in range(cls.num_tasks):
task = cls.task_prefix + str(i)
cls.params[task] = RTA.periodic(**SMALL_WORKLOAD)
def test_composition(self):
"""
Test RTA task composition with __add__
Creates a composed workload by +-ing RTATask objects, tests that the
JSON has the expected content, then tests running the workload
"""
rtapp = RTA(self.target, name='test', calibration=self.calibration)
light = Periodic(duty_cycle_pct=10, duration_s=1.0, period_ms=10)
start_pct = 10
end_pct = 90
delta_pct = 20
num_ramp_phases = ((end_pct - start_pct) / delta_pct) + 1
ramp = Ramp(start_pct=start_pct,
end_pct=end_pct,
delta_pct=delta_pct,
time_s=1,
period_ms=50)
heavy = Periodic(duty_cycle_pct=90, duration_s=0.1, period_ms=100)
lrh_task = light + ramp + heavy
rtapp.conf(kind='profile',
params={'task_ramp': lrh_task.get()},
run_dir=self.target_run_dir)
with open(rtapp.json) as f:
conf = json.load(f, object_pairs_hook=OrderedDict)
phases = conf['tasks']['task_ramp']['phases'].values()
exp_phases = [
# Light phase:
{
"loop": 100,
"run": 1000,
"timer": {
"period": 10000,
"ref": "task_ramp"
}
},
# Ramp phases:
{
"loop": 20,
"run": 5000,
"timer": {
"period": 50000,
"ref": "task_ramp"
}
},
{
"loop": 20,
"run": 15000,
"timer": {
"period": 50000,
"ref": "task_ramp"
}
},
{
"loop": 20,
"run": 25000,
"timer": {
"period": 50000,
"ref": "task_ramp"
}
},
{
"loop": 20,
"run": 35000,
"timer": {
"period": 50000,
"ref": "task_ramp"
}
},
{
"loop": 20,
"run": 45000,
"timer": {
"period": 50000,
"ref": "task_ramp"
}
},
# Heavy phase:
{
"loop": 1,
"run": 90000,
"timer": {
"period": 100000,
"ref": "task_ramp"
}
}
]
self.assertListEqual(phases, exp_phases)
rtapp.run(out_dir=self.host_out_dir)
rtapp_cmds = [
c for c in self.target.executed_commands if 'rt-app' in c
]
self.assertListEqual(rtapp_cmds, [self.get_expected_command(rtapp)])
self.assert_output_file_exists('output.log')
self.assert_output_file_exists('test_00.json')
self.assert_output_file_exists('rt-app-task_ramp-0.log')
self.assert_can_read_logfile(exp_tasks=['task_ramp'])