def _handle_data_tuple(self, data_tuple, stream):
start_time = time.time()
values = []
for value in data_tuple.values:
values.append(self.serializer.deserialize(value))
# create HeronTuple
tup = TupleHelper.make_tuple(stream,
data_tuple.key,
values,
roots=data_tuple.roots)
deserialized_time = time.time()
self.bolt_impl.process(tup)
execute_latency_ns = (time.time() -
deserialized_time) * constants.SEC_TO_NS
deserialize_latency_ns = (deserialized_time -
start_time) * constants.SEC_TO_NS
self.pplan_helper.context.invoke_hook_bolt_execute(
tup, execute_latency_ns)
self.bolt_metrics.deserialize_data_tuple(stream.id,
stream.component_name,
deserialize_latency_ns)
self.bolt_metrics.execute_tuple(stream.id, stream.component_name,
execute_latency_ns)
def test_root_tuple_info(self):
STREAM_ID = "stream id"
TUPLE_ID = "tuple_id"
root_info = TupleHelper.make_root_tuple_info(STREAM_ID, TUPLE_ID)
self.assertEqual(root_info.stream_id, STREAM_ID)
self.assertEqual(root_info.tuple_id, TUPLE_ID)
def test_root_tuple_info(self):
STREAM_ID = "stream id"
TUPLE_ID = "tuple_id"
root_info = TupleHelper.make_root_tuple_info(STREAM_ID, TUPLE_ID)
self.assertEqual(root_info.stream_id, STREAM_ID)
self.assertEqual(root_info.tuple_id, TUPLE_ID)
def send_tick(): tick = TupleHelper.make_tick_tuple() start_time = time.time() self.bolt_impl.process_tick(tick) tick_execute_latency_ns = (time.time() - start_time) * system_constants.SEC_TO_NS self.bolt_metrics.execute_tuple(tick.id, tick.component, tick_execute_latency_ns) self.output_helper.send_out_tuples() self.looper.wake_up() # so emitted tuples would be added to buffer now self._prepare_tick_tup_timer()
def test_tick_tuple(self): tup = TupleHelper.make_tick_tuple() self.assertEqual(tup.id, "__tick") self.assertEqual(tup.component, "__system") self.assertEqual(tup.stream, "__tick") self.assertIsNone(tup.task) self.assertIsNone(tup.values) self.assertIsNone(tup.roots) self.assertAlmostEqual(tup.creation_time, time.time(), delta=0.01)
def send_tick(): tick = TupleHelper.make_tick_tuple() start_time = time.time() self.bolt_impl.process_tick(tick) tick_execute_latency_ns = (time.time() - start_time) * system_constants.SEC_TO_NS self.bolt_metrics.execute_tuple(tick.id, tick.component, tick_execute_latency_ns) self.output_helper.send_out_tuples() self.looper.wake_up() # so emitted tuples would be added to buffer now self._prepare_tick_tup_timer()
def test_tick_tuple(self):
tup = TupleHelper.make_tick_tuple()
self.assertEqual(tup.id, "__tick")
self.assertEqual(tup.component, "__system")
self.assertEqual(tup.stream, "__tick")
self.assertIsNone(tup.task)
self.assertIsNone(tup.values)
self.assertIsNone(tup.roots)
self.assertAlmostEqual(tup.creation_time, time.time(), delta=0.01)
def test_normal_tuple(self):
STREAM = mock_protobuf.get_mock_stream_id(id="stream_id", component_name="comp_name")
TUPLE_KEY = "tuple_key"
VALUES = mock_generator.prim_list
# No roots
tup = TupleHelper.make_tuple(STREAM, TUPLE_KEY, VALUES)
self.assertEqual(tup.id, TUPLE_KEY)
self.assertEqual(tup.component, STREAM.component_name)
self.assertEqual(tup.stream, STREAM.id)
self.assertIsNone(tup.task)
self.assertEqual(tup.values, VALUES)
self.assertAlmostEqual(tup.creation_time, time.time(), delta=0.01)
self.assertIsNone(tup.roots)
def test_normal_tuple(self):
STREAM = mock_protobuf.get_mock_stream_id(id="stream_id",
component_name="comp_name")
TUPLE_KEY = "tuple_key"
VALUES = mock_generator.prim_list
# No roots
tup = TupleHelper.make_tuple(STREAM, TUPLE_KEY, VALUES)
self.assertEqual(tup.id, TUPLE_KEY)
self.assertEqual(tup.component, STREAM.component_name)
self.assertEqual(tup.stream, STREAM.id)
self.assertIsNone(tup.task)
self.assertEqual(tup.values, VALUES)
self.assertAlmostEqual(tup.creation_time, time.time(), delta=0.01)
self.assertIsNone(tup.roots)
def _handle_data_tuple(self, data_tuple, stream):
start_time = time.time()
values = []
for value in data_tuple.values:
values.append(self.serializer.deserialize(value))
# create HeronTuple
tup = TupleHelper.make_tuple(stream, data_tuple.key, values, roots=data_tuple.roots)
deserialized_time = time.time()
self.bolt_impl.process(tup)
execute_latency_ns = (time.time() - deserialized_time) * system_constants.SEC_TO_NS
deserialize_latency_ns = (deserialized_time - start_time) * system_constants.SEC_TO_NS
self.pplan_helper.context.invoke_hook_bolt_execute(tup, execute_latency_ns)
self.bolt_metrics.deserialize_data_tuple(stream.id, stream.component_name,
deserialize_latency_ns)
self.bolt_metrics.execute_tuple(stream.id, stream.component_name, execute_latency_ns)
def emit(self,
tup,
tup_id=None,
stream=Stream.DEFAULT_STREAM_ID,
direct_task=None,
need_task_ids=False):
"""Emits a new tuple from this Spout
It is compatible with StreamParse API.
:type tup: list or tuple
:param tup: the new output Tuple to send from this spout,
should contain only serializable data.
:type tup_id: str or object
:param tup_id: the ID for the Tuple. Leave this blank for an unreliable emit.
(Same as messageId in Java)
:type stream: str
:param stream: the ID of the stream this Tuple should be emitted to.
Leave empty to emit to the default stream.
:type direct_task: int
:param direct_task: the task to send the Tuple to if performing a direct emit.
:type need_task_ids: bool
:param need_task_ids: indicate whether or not you would like the task IDs the Tuple was emitted.
"""
# first check whether this tuple is sane
self.pplan_helper.check_output_schema(stream, tup)
# get custom grouping target task ids; get empty list if not custom grouping
custom_target_task_ids = self.pplan_helper.choose_tasks_for_custom_grouping(
stream, tup)
self.pplan_helper.context.invoke_hook_emit(tup, stream, None)
data_tuple = tuple_pb2.HeronDataTuple()
data_tuple.key = 0
if direct_task is not None:
if not isinstance(direct_task, int):
raise TypeError(
"direct_task argument needs to be an integer, given: %s" %
str(type(direct_task)))
# performing emit-direct
data_tuple.dest_task_ids.append(direct_task)
elif custom_target_task_ids is not None:
# for custom grouping
for task_id in custom_target_task_ids:
data_tuple.dest_task_ids.append(task_id)
if tup_id is not None:
tuple_info = TupleHelper.make_root_tuple_info(stream, tup_id)
if self.acking_enabled:
# this message is rooted
root = data_tuple.roots.add()
root.taskid = self.pplan_helper.my_task_id
root.key = tuple_info.key
self.in_flight_tuples[tuple_info.key] = tuple_info
else:
self.immediate_acks.append(tuple_info)
tuple_size_in_bytes = 0
start_time = time.time()
# Serialize
for obj in tup:
serialized = self.serializer.serialize(obj)
data_tuple.values.append(serialized)
tuple_size_in_bytes += len(serialized)
serialize_latency_ns = (time.time() - start_time) * constants.SEC_TO_NS
self.spout_metrics.serialize_data_tuple(stream, serialize_latency_ns)
super(SpoutInstance,
self).admit_data_tuple(stream_id=stream,
data_tuple=data_tuple,
tuple_size_in_bytes=tuple_size_in_bytes)
self.total_tuples_emitted += 1
self.spout_metrics.update_emit_count(stream)
if need_task_ids:
sent_task_ids = custom_target_task_ids or []
if direct_task is not None:
sent_task_ids.append(direct_task)
return sent_task_ids
def emit(self, tup, tup_id=None, stream=Stream.DEFAULT_STREAM_ID,
direct_task=None, need_task_ids=False):
"""Emits a new tuple from this Spout
It is compatible with StreamParse API.
:type tup: list or tuple
:param tup: the new output Tuple to send from this spout,
should contain only serializable data.
:type tup_id: str or object
:param tup_id: the ID for the Tuple. Leave this blank for an unreliable emit.
(Same as messageId in Java)
:type stream: str
:param stream: the ID of the stream this Tuple should be emitted to.
Leave empty to emit to the default stream.
:type direct_task: int
:param direct_task: the task to send the Tuple to if performing a direct emit.
:type need_task_ids: bool
:param need_task_ids: indicate whether or not you would like the task IDs the Tuple was emitted.
"""
# first check whether this tuple is sane
self.pplan_helper.check_output_schema(stream, tup)
# get custom grouping target task ids; get empty list if not custom grouping
custom_target_task_ids = self.pplan_helper.choose_tasks_for_custom_grouping(stream, tup)
self.pplan_helper.context.invoke_hook_emit(tup, stream, None)
data_tuple = tuple_pb2.HeronDataTuple()
data_tuple.key = 0
if direct_task is not None:
if not isinstance(direct_task, int):
raise TypeError("direct_task argument needs to be an integer, given: %s"
% str(type(direct_task)))
# performing emit-direct
data_tuple.dest_task_ids.append(direct_task)
elif custom_target_task_ids is not None:
# for custom grouping
for task_id in custom_target_task_ids:
data_tuple.dest_task_ids.append(task_id)
if tup_id is not None:
tuple_info = TupleHelper.make_root_tuple_info(stream, tup_id)
if self.acking_enabled:
# this message is rooted
root = data_tuple.roots.add()
root.taskid = self.pplan_helper.my_task_id
root.key = tuple_info.key
self.in_flight_tuples[tuple_info.key] = tuple_info
else:
self.immediate_acks.append(tuple_info)
tuple_size_in_bytes = 0
start_time = time.time()
# Serialize
for obj in tup:
serialized = self.serializer.serialize(obj)
data_tuple.values.append(serialized)
tuple_size_in_bytes += len(serialized)
serialize_latency_ns = (time.time() - start_time) * system_constants.SEC_TO_NS
self.spout_metrics.serialize_data_tuple(stream, serialize_latency_ns)
super(SpoutInstance, self).admit_data_tuple(stream_id=stream, data_tuple=data_tuple,
tuple_size_in_bytes=tuple_size_in_bytes)
self.total_tuples_emitted += 1
self.spout_metrics.update_emit_count(stream)
if need_task_ids:
sent_task_ids = custom_target_task_ids or []
if direct_task is not None:
sent_task_ids.append(direct_task)
return sent_task_ids