def ApolloExample():
SOS = SSOS()
SOS.init()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
sql_string = """
SELECT
policyIndex,
COUNT(policyIndex) AS iterCount,
AVG(DISTINCT sum_time_inclusive_duration) AS avgTime
FROM (
SELECT
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "cali.event.attr.level"
THEN tblVals.val END) AS "cali_event_attr_level",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "vector_size"
THEN tblVals.val END) AS "vector_size",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "cali.event.end"
THEN tblVals.val END) AS "cali_event_end",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "iteration"
THEN tblVals.val END) AS "iteration",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "policyIndex"
THEN tblVals.val END) AS "policyIndex",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "sum#time.inclusive.duration"
THEN tblVals.val END) AS "sum_time_inclusive_duration",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "event.end#loop"
THEN tblVals.val END) AS "event_end_loop"
FROM tblPubs
LEFT OUTER JOIN tblData
ON tblPubs.guid = tblData.pub_guid
LEFT OUTER JOIN tblVals
ON tblData.guid = tblVals.guid
GROUP BY tblVals.meta_relation_id )
WHERE
event_end_loop LIKE 'RAJA_kernel'
GROUP BY
policyIndex
;
"""
results, col_names = SOS.query(sql_string, sos_host, sos_port)
# ) WHERE cali_event_end IS NOT NULL;
#
print "=========="
print str(col_names)
print "----------"
# Print out the results in a pretty column-aligned way:
widths = [max(map(len, col)) for col in zip(*results)]
for row in results:
print " ".join((val.ljust(width) for val, width in zip(row, widths)))
print "=========="
def demonstrateManifest():
SOS = SSOS()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
SOS.init()
max_frame, manifest, col_names = SOS.request_pub_manifest(
"", sos_host, sos_port)
print "Manifest:"
print(str(col_names))
# Print out the manifest in a pretty column-aligned way:
widths = [max(map(len, col)) for col in zip(*manifest)]
for row in manifest:
print " ".join((val.ljust(width) for val, width in zip(row, widths)))
print ""
print " Pub count .....: " + str(len(manifest))
print " Max frame .....: " + str(max_frame)
print ""
SOS.finalize()
print
def queryUniqueNames():
SOS = SSOS()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
print "Initializing SOS..."
SOS.init()
print "DONE initializing SOS..."
sql_string = """
SELECT
DISTINCT value_name
FROM viewCombined
;
"""
results, col_names = SOS.query(sql_string, sos_host, sos_port)
numeric_fields = dict()
numeric_fields['name'] = [el[0] for el in results]
name_count = len(numeric_fields['name'])
print str(numeric_fields['name'])
print str(name_count) + " unique names."
SOS.finalize()
print " ...DONE!"
print
def demonstrateSOS():
SOS = SSOS()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
print "Initializing SOS..."
SOS.init()
sql_string = "SELECT * FROM viewCombined;"
print "Sending this query to the SOS daemon: "
print " " + sql_string
results, col_names = SOS.query(sql_string, sos_host, sos_port)
print "Results:"
print " Output.........: "
print str(results)
print ""
print " Row count......: " + str(len(results))
print " Column count...: " + str(len(col_names))
print " Column names...: " # + str(col_names) #pp.pprint(col_names)
pp.pprint(col_names)
print ""
print "Finalizing..."
SOS.finalize()
print " ...DONE!"
print
def demonstrateSOS():
SOS = SSOS()
print "Analysis: Initializing SOS..."
SOS.init()
time.sleep(5.0)
iterations = 0
while iterations < 48:
sql_string = "select v.val, v.guid, max(v.time_pack), count(v.time_pack) from tblvals v inner join tbldata d on v.guid = d.guid and d.name like 'Iteration' group by (v.guid);"
#print "Sending this query to the SOS daemon: "
#print " " + sql_string
results, col_names = SOS.query(sql_string, "localhost",
os.environ['SOS_CMD_PORT'])
values = []
themax = 5.0
for i in range(0, len(results)):
values.append(float(results[i][0]))
if iterations < int(results[i][3]):
iterations = int(results[i][3])
if len(values) > 0:
themax = check_balance(SOS, values, iterations)
time.sleep(themax)
SOS.finalize()
print "Analysis: DONE!"
print
def ApolloExample():
SOS = SSOS()
SOS.init()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
sql_string = """
SELECT
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "featureName"
THEN tblVals.val END) AS "featureName",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "featureHint"
THEN tblVals.val END) AS "featureHint",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "featureGoal"
THEN tblVals.val END) AS "featureGoal",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "featureUnit"
THEN tblVals.val END) AS "featureUnit",
GROUP_CONCAT(CASE WHEN tblData.NAME LIKE "featureValue"
THEN tblVals.val END) AS "featureValue"
FROM tblPubs
LEFT OUTER JOIN tblData
ON tblPubs.guid = tblData.pub_guid
LEFT OUTER JOIN tblVals
ON tblData.guid = tblVals.guid
GROUP BY
tblVals.meta_relation_id
;
"""
print sql_string;
results, col_names = SOS.query(sql_string, sos_host, sos_port)
# ) WHERE cali_event_end IS NOT NULL;
#
print ""
print "=========="
print str(col_names)
print "----------"
for row in results:
print str(row)
print "=========="
def my_main():
global SOS
global config
parseConfigFile()
SOS = SSOS()
print("Initializing SOS: ...")
SOS.init()
print("OK!\n")
# Get at least one active aggregator
lookupAggregators()
# wait for a frame to show up.
next_frame = 0
# while config["aggregators"]["runtime"] or next_frame < config["aggregators"]["maxframe"]:
while next_frame < config["aggregators"]["maxframe"]:
# wait for the next batch of frames
waitForServer(SOS, next_frame)
print "Processing frame", next_frame
start = time.time()
do_something(next_frame)
# clean up the database for long runs
cleanDB(SOS, next_frame)
next_frame = next_frame + 1
end = time.time()
print "loop time:", str(end-start)
# finalize SOS
SOS.finalize()
print " ...DONE!"
return
def demonstrateSOS():
SOS = SSOS()
#print "Initializing SOS..."
#SOS.init()
sql_string = "SELECT * FROM viewCombined LIMIT 10000;"
print "Querying FILE(" + sql_file + "): "
print " " + sql_string
results, col_names = SOS.queryFile(sql_string, sql_file)
print "Results:"
print " Output rows....: " + str(len(results))
print " Output values..: " + str(results)
print " Column count...: " + str(len(col_names))
print " Column names...: " # + str(col_names) #pp.pprint(col_names)
pp.pprint(col_names)
print ""
print "Finalizing..."
#SOS.finalize();
print " ...DONE!"
print
def main():
sos = SSOS()
# print "numpy.__version__ == " + str(np.__version__)
# print "pandas.__version__ == " + str(pd.__version__)
# print "sklearn.__version__ == " + str(skl.__version__)
data = pd.read_csv("kripke_sample.csv", index_col=False)
# Target
# NOTE: Here binned into every 10% for DecisionTreeClassifier
y = (data["percent_of_fastest"].values/10).astype(int)
y = y.squeeze()
# Features
x = data.drop("percent_of_fastest", axis="columns").values
print ">>>>> Initializing pipelines..."
basic_pipe = [('estimator', DecisionTreeClassifier(max_depth=5))]
dtree_pipe = [('standardize', StandardScaler()),\
('estimator', DecisionTreeClassifier(max_depth=5))]
svc_pipe = [('standardize', StandardScaler()),\
('estimator', SVC())]
print ">>>>> Selecting pipe:"
pipe = basic_pipe
print pipe
print ">>>>> Initializing model..."
model = Pipeline(pipe)
print ">>>>> Cross-validation... (10-fold)"
scores = cross_val_score(model, x, y, cv=10)
print("\n".join([(" " + str(score)) for score in scores]))
print " score.mean == " + str(np.mean(scores))
print ">>>>> Training model..."
model.fit(x, y)
trained_model = model.named_steps["estimator"]
print trained_model
print ">>>>> Rules learned:"
rules = tree_to_string(trained_model, data.columns[:-1])
print rules
def triggerSOSD():
SOS = SSOS()
sense_handle = "example_sense"
payload_data = "Hello, I've been triggered by Python!"
#payload_data = "adjust;100ms"
payload_size = len(payload_data)
print "Initializing SOS..."
SOS.init()
print "Triggering SOSD w/the following:"
print " sense_handle = " + str(sense_handle)
print " payload_size = " + str(payload_size)
print " payload_data = " + str(payload_data)
SOS.trigger(sense_handle, payload_size, payload_data)
SOS.finalize()
print "DONE!"
print
def demonstrateSOS():
SOS = SSOS()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
print "Initializing SOS..."
SOS.init()
frame_start = -1 #-1 == latest_frame
frame_depth = 1 #-1 == all frames
pub_filter = ""
val_filter = ""
print "Sending this cache_grab to the SOS daemon: "
print " pub_filter == " + str(pub_filter)
print " val_filter == " + str(val_filter)
print " frame_start == " + str(frame_start)
print " frame_depth == " + str(frame_depth)
results, col_names = \
SOS.cache_grab(pub_filter, val_filter, \
frame_start, frame_depth, \
sos_host, sos_port)
print "Results:"
print " Output.........: "
print str(results)
print ""
print " Row count......: " + str(len(results))
print " Column count...: " + str(len(col_names))
print " Column names...: " # + str(col_names) #pp.pprint(col_names)
pp.pprint(col_names)
print ""
print "Finalizing..."
SOS.finalize()
print " ...DONE!"
print
def queryAndPlot():
SOS = SSOS()
print "Initializing SOS..."
SOS.init()
print "DONE init SOS..."
sql_string = """
SELECT MAX(frame) FROM viewCombined WHERE viewCombined.value_name LIKE "lulesh.time"
;
"""
results, col_names = SOS.query(sql_string, "localhost",
os.environ.get("SOS_CMD_PORT"))
max_cycle = int(results[0][0])
print "Max cycle: " + str(max_cycle)
#####
#
# Get the list of field names for non-string values.
#
sql_string = """
SELECT
DISTINCT value_name
FROM viewCombined
WHERE value_type != 3
AND frame = """ + str(max_cycle) + """
;
"""
results, col_names = SOS.query(sql_string, "localhost",
os.environ.get("SOS_CMD_PORT"))
numeric_fields = dict()
numeric_fields['name'] = [el[0] for el in results]
name_count = len(numeric_fields['name'])
print str(name_count) + " unique names."
#
#####
filenames = []
for c in range(0, (max_cycle + 1)):
print "******* CYCLE " + str(c) + " *********"
#####
#
# Compose a query with the unique numeric fields as columns:
#
sql_string = """ """
sql_string += """ SELECT """
sql_string += """ comm_rank """
# sql_string += """,frame """
for field_name in numeric_fields['name']:
sql_string += """,GROUP_CONCAT( CASE WHEN """
sql_string += ' value_name LIKE "' + field_name + '" '
sql_string += ' THEN value END) AS "' + field_name + '" '
sql_string += """, GROUP_CONCAT( CASE WHEN """
sql_string += ' value_name LIKE "lulesh.coords" '
sql_string += ' THEN value END) AS "lulesh.coords" '
sql_string += """ FROM viewCombined """
sql_string += " WHERE frame = " + str(c) + " "
sql_string += """ GROUP BY """
sql_string += """ comm_rank """
# sql_string += """,frame """
sql_string += """;"""
#print "Composite SQL statement: "
#print sql_string
#print ""
#print "Running composite query..."
results, col_names = SOS.query(sql_string, "localhost",
os.environ.get("SOS_CMD_PORT"))
#print ""
#
# Print out the results:
#
#print "=========="
#for col in col_names:
# print str(col) + " "
#print "=========="
#for row in results:
# for col_index in range(len(row)):
# print str(col_names[col_index]) + ": " + str(row[col_index])
# print "----------"
#print "=========="
#
#####
#####
#
# Build an attribute dictionary of the values.
#
attr = dict()
attr['comm_rank'] = [el[0] for el in results]
position = 1
for field_name in numeric_fields['name']:
attr[field_name] = [el[position] for el in results]
#print str(field_name) + " in position " + str(position) + " = " + str(attr[field_name])
position += 1
res_coords = [el[position] for el in results]
#print "lulesh.coords in position " + str(position) + " = " + str(res_coords)
for field_name in numeric_fields['name']:
rank = 0
for this_ranks_value in attr[field_name]:
print "comm_rank(" + str(
rank) + ")." + field_name + " = " + this_ranks_value
rank += 1
rank_max = len(attr['comm_rank'])
coords = list()
coords = [el.split() for el in res_coords]
#print attr
dset = vtk_writer.vtk_hex_data_set()
dset.clear()
dset.set_cycle(c)
for rank in range(rank_max):
fields = {}
for field_name in numeric_fields['name']:
fields[field_name] = attr[field_name][rank]
fields["rank"] = rank
hex_coords = [None] * 24
xpt = [None] * 8
ypt = [None] * 8
zpt = [None] * 8
cpt = [None] * 8
for i in range(24):
hex_coords[i] = float(coords[rank][i])
dset.add_hex(hex_coords, fields, rank)
dset.write_vtk_file()
filenames.append(dset.get_file_name())
vtk_writer.write_visit_file(filenames)
visit.AddArgument("-par")
visit.Launch()
OpenDatabase("dataset.visit")
AddPlot("Pseudocolor", "rank")
AddPlot("Mesh", "mesh")
DrawPlots()
# loop through times
tsNames = GetWindowInformation().timeSliders
for ts in tsNames:
SetActiveTimeSlider(ts)
for state in list(range(TimeSliderGetNStates()))[::10] + [0]:
SetTimeSliderState(state)
print "Setting share_power permissions on the newly created VTK files..."
subprocess.call("$PROJECT_BASE/share_power .", shell=True)
print ""
print "Sleeping for 100 seconds..."
print ""
time.sleep(100)
SOS.finalize()
print " ...DONE!"
print
def sosAutoTranspose():
SOS = SSOS()
sosHost = "localhost"
sosPort = os.environ.get("SOS_CMD_PORT")
printf("Initializing SOS: ...\b\b\b")
SOS.init()
printf("OK!\n")
#####
#
# Get the maximum simulation cycle found in the database.
#
# NOTE: The cycleFieldName variable should match what is being used
# either by your application or SOSflow. If you are not using
# an explicit cycle value, you can use SOSflow's internal
# field named "frame" that is updated every time SOS_publish(...)
# is called. As long as you are publishing to SOS at the end
# of major program steps, this will give you what you want.
#
# NOTE: For online queries, if you want to ensure that your most
# current projection represents a complete set of values,
# and you're investigating a block-synchronous code, you can
# grab the current maximum and subtract one.
#
cycleFieldName = "frame"
#
sqlMaxFrame = "SELECT MAX(" + cycleFieldName + ") FROM viewCombined;"
results, col_names = SOS.query(sqlMaxFrame, sosHost, sosPort)
max_cycle = int(results[0][0])
print "Maximum observed '" + cycleFieldName + "' value: " + str(max_cycle)
#
sqlMaxFrame = "SELECT MAX(comm_rank) FROM viewCombined;"
results, col_names = SOS.query(sqlMaxFrame, sosHost, sosPort)
rank_max = int(results[0][0])
print "Maximum observed 'comm_rank' value: " + str(rank_max)
#
#####
#####
#
# Get the list of field names we will use to build a custom query.
#
# NOTE: To filter out SOS_VAL_TYPE_STRING fields, add in:
# ... += "WHERE value_type != 3"
sqlFieldNames = """
SELECT
DISTINCT value_name
FROM viewCombined
;
"""
results, col_names = SOS.query(sqlFieldNames, sosHost, sosPort)
selectedFields = dict()
selectedFields['name'] = [el[0] for el in results]
name_count = len(selectedFields['name'])
printf("(%d fields)", name_count)
printf("\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b")
#
# NOTE: Debug output...
#
#print "Selected " + str(name_count) + " unique names:"
#for name in selectedFields['name']:
# print " " + str(name)
#print ""
#
#####
#####
#
# Compose a query with the unique numeric fields as columns:
sqlValsToColsByRank = """ """
sqlValsToColsByRank += """ SELECT """
sqlValsToColsByRank += """ comm_rank """
for field_name in selectedFields['name']:
sqlValsToColsByRank += """,GROUP_CONCAT( CASE WHEN """
sqlValsToColsByRank += ' value_name LIKE "' + field_name + '" '
sqlValsToColsByRank += ' THEN value END) AS "' + field_name + '" '
#end:for field_name
#
# NOTE: We can now manually grab some hardcoded field names
# that might not have been included in selectedFields
# if things were being filtered by type:
#
#
sqlValsToColsByRank += """ FROM viewCombined """
#
# NOTE: Uncomment this, and comment out the 'GROUP BY' frame below,
# for cases where we only want to see the largest frame.
#
#sqlValsToColsByRank += " WHERE frame = " + str(simCycle) + " "
sqlValsToColsByRank += """ GROUP BY """
sqlValsToColsByRank += """ comm_rank """
sqlValsToColsByRank += """,frame """
sqlValsToColsByRank += """;"""
#
results, col_names = SOS.query(sqlValsToColsByRank, sosHost, sosPort)
#
#
#####
print str(col_names)
print str(results)
#####
#
# Whew! All done!
#
# NOTE: See vtkWriter.py for more details.
#
SOS.finalize()
#
#####
print " ...DONE!"
print
return
def sosScatterplotGenerator():
global SOS
global config
parseConfigFile()
SOS = SSOS()
printf("Initializing SOS: ...\b\b\b")
SOS.init()
printf("OK!\n")
# NOTE: When allocation time is scarce, 'stride' here can be
# set so that intermediate cycles can be skipped, which is
# especially useful when there are thousands of cycles.
#
stride = 1
#####
#
# Get the maximum simulation cycle found in the database.
#
# NOTE: The cycleFieldName variable should match what is being used
# either by your application or SOSflow. If you are not using
# an explicit cycle value, you can use SOSflow's internal
# field named "frame" that is updated every time SOS_publish(...)
# is called. As long as you are publishing to SOS at the end
# of major program steps, this will give you what you want.
#
# NOTE: For online queries, if you want to ensure that your most
# current projection represents a complete set of values,
# and you're investigating a block-synchronous code, you can
# grab the current maximum and subtract one.
#
cycleFieldName = "frame"
#
num_rows = 0
# Get at least one active aggregator
lookupAggregators()
# wait for a few frames to show up. Frame 0 and 1 are TAU metadata.
# Frame 2 represents a true iteration.
max_cycle, maxtime = waitForServer(SOS, cycleFieldName, max(stride, 1),
True)
print "Maximum observed '" + cycleFieldName + "' value: " + str(
max_cycle) + " (so far)"
#
sqlMaxFrame = "SELECT count(*) FROM tblpubs;"
results, col_names = queryAllAggregators(sqlMaxFrame)
# We got results from each aggregator, so sum them up
rank_maxes = [int(x[0]) for x in results]
rank_max = sum(rank_maxes)
print "Maximum observed pub_guids: " + str(rank_max)
#
#####
if config["output_adios"]:
# ADIOS file output
ad.init_noxml()
g = ad.declare_group("TAU_metrics", "", ad.FLAG.YES)
ad.define_var(g, "process_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "program_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "process_index", "", ad.DATATYPE.unsigned_integer,
"process_count", "process_count", "0")
ad.define_var(g, "memory_HWM", "", ad.DATATYPE.double, "process_count",
"process_count", "0")
ad.define_var(g, "memory_RSS", "", ad.DATATYPE.double, "process_count",
"process_count", "0")
ad.define_var(g, "total_FLOPS", "", ad.DATATYPE.double,
"process_count", "process_count", "0")
ad.define_var(g, "latest_FLOPS", "", ad.DATATYPE.double,
"process_count", "process_count", "0")
#ad.define_var(g, "program_name", "", ad.DATATYPE.string, "program_count", "program_count", "0")
ad.define_var(g, "program_index", "", ad.DATATYPE.unsigned_integer,
"process_count", "process_count", "0")
ad.define_var(g, "MPI_rank", "", ad.DATATYPE.unsigned_integer,
"process_count", "process_count", "0")
print "using ADIOS method:", str(config["adios_method"])
ad.select_method(g, str(config["adios_method"]), "verbose=3", "")
#
#
# EXAMPLE A: Generate .txt set for ALL simulation cycles:
print "Generating TXT files..."
lastX = [0.0] * (rank_max + 1)
lastY = [0.0] * (rank_max + 1)
lastZ = [0.0] * (rank_max + 1)
simCycle = max_cycle
mintime = 0.0
# Keep running until there are no more frames to wait for.
# At runtime, this is a moving target, since max_cycle gets updated.
while config["aggregators"][
"runtime"] or simCycle < config["aggregators"]["maxframe"]:
print "Processing frame", simCycle
start = time.time()
vtkOutputFileName = generateADIOSFile(SOS, cycleFieldName, simCycle,
lastX, lastY, lastZ, stride,
mintime, maxtime)
# clean up the database for long runs
cleanDB(SOS, cycleFieldName, simCycle)
simCycle = simCycle + stride
# wait for the next batch of frames
mintime = maxtime
max_cycle, maxtime = waitForServer(SOS, cycleFieldName, simCycle,
False)
end = time.time()
print "loop time:", str(end - start)
#####
#
# Whew! All done!
#
# NOTE: See vtkWriter.py for more details.
#
if config["output_adios"]:
ad.finalize()
SOS.finalize()
#
#####
print " ...DONE!"
print
return
import cStringIO
import warnings
import numpy as np
import pandas as pd
import sklearn as skl
from sklearn.preprocessing import StandardScaler
from sklearn.tree import DecisionTreeClassifier
from sklearn.tree import DecisionTreeRegressor
from sklearn.pipeline import Pipeline
from sklearn.model_selection import cross_val_score
from sklearn.svm import SVC
from ssos import SSOS
VERBOSE = False
FRAME_INTERVAL = 500
SOS = SSOS()
def generateDecisionTree(data, region_names):
#print "numpy.__version__ == " + str(np.__version__)
#print "pandas.__version__ == " + str(pd.__version__)
#print "sklearn.__version__ == " + str(skl.__version__)
# TODO: Label the data (mark the winning KernelVariant as 1, else 0)
#
# If (iteration % 10) is some "GroupID" then we find the fastest variant
# for that group. Maybe make the operation weight a function of iteration
# within that GroupId. This lets us pretend different iteration groupings
# have different behavior.
# NOTE: For tree 2, we need to do something about sets of unique X's producing
def main():
controller_start = time.time()
SOS = SSOS()
SOS.init()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
step = 0
prior_frame_max = 0
log(1, "Online.")
query.createApolloView(SOS, sos_host, sos_port)
#log(1, "Wiping all prior data in the SOS database...")
#query.wipeAllExistingData(SOS, sos_host, sos_port)
data = {}
while (os.environ.get("SOS_SHUTDOWN") != "TRUE"):
# Clearing prior training data from SOS
# query.wipeTrainingData(SOS, sos_host, sos_port, prior_frame_max)
data['prior_frame_max'] = \
query.waitForMoreRowsUsingSQL(SOS, sos_host, sos_port, prior_frame_max)
data['latest_query_rows'], data['latest_region_names'] = \
query.getTrainingData(SOS, sos_host, sos_port, row_limit=0)
pickle_latest_data(cargo)
dataset_guid = SOS.get_guid()
# Model: RegressionTree
data['rtree_skl'] = trees.generateRegressionTree(
log,
data,
assign_guid=dataset_guid,
tree_max_depth=3,
one_big_tree=False)
# Model: DecisionTree
data['dtree_def'], data['dtree_skl'] = \
trees.generateDecisionTree(
log, data, assign_guid=dataset_guid,
tree_max_depth=3, one_big_tree=False)
# TODO(chad): Bootstrap conditions VS. active monitoring conditions
# Analyze the data coming in compared to existing rtree
data['model_pkg_json'] = guide.analyzePerformance(data)
# TODO(chad): Ship out the model package.
if (ONCE_THEN_EXIT):
controller_elapsed = time.time() - controller_start
log(1, "Done. Full cycle of controller took " \
+ str(controller_elapsed) + "seconds.")
return
step += 1
##### return to top of loop until shut down #####
########## end of controller.py ##########
log(1, "Done.")
return
def sosToADIOS():
global SOS
global config
global validation
parseConfigFile()
SOS = SSOS()
printf("Initializing SOS: ...\b\b\b")
SOS.init()
printf("OK!\n")
#####
#
# Get the maximum simulation cycle found in the database.
#
# NOTE: The cycleFieldName variable should match what is being used
# either by your application or SOSflow. If you are not using
# an explicit cycle value, you can use SOSflow's internal
# field named "frame" that is updated every time SOS_publish(...)
# is called. As long as you are publishing to SOS at the end
# of major program steps, this will give you what you want.
#
# NOTE: For online queries, if you want to ensure that your most
# current projection represents a complete set of values,
# and you're investigating a block-synchronous code, you can
# grab the current maximum and subtract one.
#
#
num_rows = 0
# Get at least one active aggregator
lookupAggregators()
g = None
if config["output_adios"]:
# ADIOS file output
ad.init_noxml()
g = ad.declare_group("TAU_metrics", "", ad.FLAG.YES)
ad.define_var(g, "program_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "comm_rank_count", "", ad.DATATYPE.unsigned_integer,
"", "", "")
ad.define_var(g, "thread_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "event_type_count", "", ad.DATATYPE.unsigned_integer,
"", "", "")
ad.define_var(g, "timer_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "timer_event_count", "", ad.DATATYPE.unsigned_integer,
"", "", "")
ad.define_var(g, "event_timestamps", "", ad.DATATYPE.unsigned_long,
"timer_event_count,6", "timer_event_count,6", "0,0")
ad.define_var(g, "counter_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "counter_event_count", "",
ad.DATATYPE.unsigned_integer, "", "", "")
ad.define_var(g, "counter_values", "", ad.DATATYPE.unsigned_long,
"counter_event_count,6", "counter_event_count,6", "0,0")
ad.define_var(g, "comm_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "comm_timestamps", "", ad.DATATYPE.unsigned_long,
"comm_count,8", "comm_count,8", "0,0")
print("using ADIOS method:", str(config["adios_method"]))
ad.select_method(g, str(config["adios_method"]), "verbose=3", "")
# wait for a frame to show up. Frame 0 (and maybe 1) are TAU metadata.
# The rest should be just timers.
next_frame = 0
# first iteration, we are writing the file. after that, appending.
adios_mode = "w"
waitForServer(SOS, 0)
buildColumnMap(SOS)
# Keep running until there are no more frames to wait for.
# At runtime, this is a moving target, since next_frame gets updated.
done = False
total_count = 0
while (not done or total_count > 0) and (
config["aggregators"]["runtime"]
or next_frame < config["aggregators"]["maxframe"]):
# wait for the next batch of frames
if not done:
timeout = waitForServer(SOS, next_frame + 1)
if timeout:
done = True
#if len(column_map) == 0:
# buildColumnMap(SOS)
print("Processing frame", next_frame)
start = time.time()
fd = ad.open("TAU_metrics",
str(config["outputdir"]) + "/tau-metrics.bp", adios_mode)
meta_count = writeMetaData(SOS, next_frame, g, fd)
timer_count = writeTimerData(SOS, next_frame, g, fd)
total_count = meta_count + timer_count
ad.close(fd)
# future iterations are appending, not writing
adios_mode = "a"
print("Processed", total_count, "rows")
if total_count == 0 and done:
break
next_frame = next_frame + 1
end = time.time()
print("loop time:", str(end - start))
# finalize adios
if config["output_adios"]:
ad.finalize()
# finalize SOS
SOS.finalize()
for p in validation:
for r in validation[p]:
for t in validation[p][r]:
if len(validation[p][r][t]) != 0:
print("VALIDATION ERROR!", p, r, t, validation[p][r][t],
"was not exited")
print(" ...DONE!")
return
def demonstrateSOS():
SOS = SSOS()
print "Initializing SOS..."
SOS.init()
count = 0
count_max = 10
print " Packing " + str(count_max) + " integer values in a loop..."
while (count < count_max):
count = count + 1
SOS.pack(("loop_val_" + str(count)), SOS.INT, count)
#SOS.announce()
SOS.publish()
sql_pubs = "SELECT * FROM tblPubs;"
sql_data = "SELECT * FROM tblData;"
pubs, col_names = SOS.query(sql_pubs, "localhost",
os.environ.get("SOS_CMD_PORT"))
print "-----"
print "Pubs: (" + str(len(pubs)) + ")"
count = 0
print str(col_names)
while count < len(pubs):
print str(pubs[count])
count = count + 1
data, col_names = SOS.query(sql_data, "localhost",
os.environ.get("SOS_CMD_PORT"))
print "-----"
print "Data: (" + str(len(data)) + ")"
count = 0
print str(col_names)
while count < len(data):
print str(data[count])
count = count + 1
print ""
SOS.finalize()
print " ...DONE!"
print
import os
import json
import time
import cStringIO
import numpy as np
import pandas as pd
import sklearn as skl
from sklearn.preprocessing import StandardScaler
from sklearn.tree import DecisionTreeClassifier
from sklearn.tree import DecisionTreeRegressor
from sklearn.pipeline import Pipeline
from sklearn.model_selection import cross_val_score
from sklearn.svm import SVC
from ssos import SSOS
sos = SSOS()
# TODO: Make Python class with unimplemented members:
# -time between polling
# -...etc. The tunable knobs we want to search
# over in the paper.
#
def main():
sos.init()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
# INSERT HERE: Loop to check that "enough" data has come in.
def queryAndPlot():
SOS = SSOS()
print "Initializing SOS..."
SOS.init()
#####
#
# Get the maximum simulation frame.
#
#sql_string = """
#SELECT
#MAX(frame)
#FROM viewCombined
#WHERE viewCombined.value_name LIKE "lulesh.time"
#;
#"""
#results, col_names = SOS.query(sql_string,
# "localhost",
# os.environ.get("SOS_CMD_PORT"))
#max_cycle = int(results[0][0])
#print "Max cycle: " + str(max_cycle)
#
#####
#####
#
# Get the list of field names for non-string values.
#
# Removed: AND frame = """ + str(max_cycle) + """
#
sql_string = """
SELECT
DISTINCT value_name
FROM viewCombined
WHERE value_type NOT LIKE "SOS_VAL_TYPE_STRING"
;
"""
results, col_names = SOS.query(sql_string, "localhost",
os.environ.get("SOS_CMD_PORT"))
print "Field names:"
for field_name in results:
print " " + str(field_name)
attr = dict()
attr['value_name'] = [el[0] for el in results]
name_count = len(attr['value_name'])
print str(name_count) + " unique names."
#
#####
#####
#
# Compose a query with those unique fields as columns in the results.
#
# Removed: sql_string += " WHERE frame = " + str(max_cycle) + " "
#
sql_string = """ """
sql_string += """ SELECT """
sql_string += """ comm_rank """
sql_string += """,frame """
for field_name in attr['value_name']:
sql_string += """,GROUP_CONCAT( CASE WHEN """
sql_string += ' value_name LIKE "' + field_name + '" '
sql_string += ' THEN value END) AS "' + field_name + '" '
sql_string += """ FROM viewCombined """
sql_string += """ GROUP BY """
sql_string += """ comm_rank """
sql_string += """,frame """
sql_string += """;"""
print "Composite SQL statement: "
print sql_string
print ""
print "Running composite query..."
results, col_names = SOS.query(sql_string, "localhost",
os.environ.get("SOS_CMD_PORT"))
print ""
#
# Print out the results:
#
print "=========="
for col in col_names:
print str(col) + " "
print "=========="
for row in results:
for col_index in range(len(row)):
print str(col_names[col_index]) + ": " + str(row[col_index])
print "----------"
print "=========="
#
#####
SOS.finalize()
print " ...DONE!"
print
def main():
controller_start = time.time()
SOS = SSOS()
SOS.init()
sos_host = "localhost"
sos_port = os.environ.get("SOS_CMD_PORT")
step = 0
prior_frame_max = 0
log(1, "Online.")
print("CREATE VIEW", flush=True) # ggout
query.createApolloView(SOS, sos_host, sos_port)
#log(1, "Wiping all prior data in the SOS database...")
print("WIPE DATA", flush=True) # ggout
query.wipeAllExistingData(SOS, sos_host, sos_port)
prev_dtree_def = None
triggers = 0
while (os.environ.get("SOS_SHUTDOWN") != "TRUE"):
# Clearing prior training data
# query.wipeTrainingData(SOS, sos_host, sos_port, prior_frame_max)
prior_frame_max = query.waitForMoreRowsUsingSQL(
SOS, sos_host, sos_port, prior_frame_max)
data, region_names = query.getTrainingData(SOS,
sos_host,
sos_port,
row_limit=0)
#print('data', data)
#print('region_names', region_names)
dataset_guid = SOS.get_guid()
data.to_pickle("./output/models/step.%d.trainingdata.pickle" %
prior_frame_max)
with open(
("./output/models/step.%d.region_names.pickle" % prior_frame_max),
"wb") as f:
pickle.dump(region_names, f)
print("Pickled step ", prior_frame_max) # ggout
continue
# ggout
# Model: DecisionTree
dtree_def, dtree_skl = trees.generateDecisionTree(
log,
data,
assign_guid=dataset_guid,
tree_max_depth=3,
one_big_tree=False)
dtree_len = len(dtree_def)
if (dtree_len < 1):
log(0, "No models generated for step %d." % prior_frame_max)
else:
with open(("./output/models/step.%d.model.json" % prior_frame_max),
"w") as f:
f.write(dtree_def)
if True: #prev_dtree_def == None or prev_dtree_def != dtree_def:
prev_dtree_def = dtree_def
#SOS.trigger("APOLLO_MODELS", dtree_len, dtree_def)
triggers += 1
print("===> Trigger ",
triggers,
" because models differ",
flush=True) # ggout
# Model: RegressionTree
#rtree_skl = trees.generateRegressionTree(log, data,
# assign_guid=dataset_guid,
# tree_max_depth=3,
# one_big_tree=False)
# TODO(chad): Add NN models / streaming models here
# TODO(chad): Drop models into an arena to fight, and only send models
# out when they are better than some prior model for any
# given loop. Could use async queues for analysis and for
# model distribution.
if dtree_len > 0:
if (ONCE_THEN_EXIT):
controller_elapsed = time.time() - controller_start
log(
1, "Done. Full cycle of controller took " +
str(controller_elapsed) + "seconds.")
return
else:
if (VERBOSE):
log(1, "NOTICE: Model was not generated, nothing to send.")
if (ONCE_THEN_EXIT):
log(1, "Done.")
return
step += 1
##### return to top of loop until shut down #####
########## end of controller.py ##########
log(1, "Done.")
return
def sosToADIOS():
global SOS
global config
parseConfigFile()
SOS = SSOS()
printf("Initializing SOS: ...\b\b\b")
SOS.init()
printf("OK!\n")
#####
#
# Get the maximum simulation cycle found in the database.
#
# NOTE: The cycleFieldName variable should match what is being used
# either by your application or SOSflow. If you are not using
# an explicit cycle value, you can use SOSflow's internal
# field named "frame" that is updated every time SOS_publish(...)
# is called. As long as you are publishing to SOS at the end
# of major program steps, this will give you what you want.
#
# NOTE: For online queries, if you want to ensure that your most
# current projection represents a complete set of values,
# and you're investigating a block-synchronous code, you can
# grab the current maximum and subtract one.
#
#
num_rows = 0
# Get at least one active aggregator
lookupAggregators()
g = None
if config["output_adios"]:
# ADIOS file output
ad.init_noxml()
g = ad.declare_group("TAU_metrics", "", ad.FLAG.YES)
ad.define_var(g, "program_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "comm_rank_count", "", ad.DATATYPE.unsigned_integer,
"", "", "")
ad.define_var(g, "thread_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "metric_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "timer_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "timer_value_count", "", ad.DATATYPE.unsigned_integer,
"", "", "")
ad.define_var(g, "timer_values", "", ad.DATATYPE.unsigned_integer,
"timer_value_count,6", "timer_value_count,6", "0,0")
ad.define_var(g, "counter_count", "", ad.DATATYPE.unsigned_integer, "",
"", "")
ad.define_var(g, "counter_value_count", "",
ad.DATATYPE.unsigned_integer, "", "", "")
ad.define_var(g, "counter_values", "", ad.DATATYPE.double,
"counter_value_count,5", "counter_value_count,5", "0,0")
print "using ADIOS method:", str(config["adios_method"])
ad.select_method(g, str(config["adios_method"]), "verbose=3", "")
# wait for a frame to show up. Frame 0 (and maybe 1) are TAU metadata.
# The rest should be just timers.
next_frame = 0
# first iteration, we are writing the file. after that, appending.
adios_mode = "w"
# Keep running until there are no more frames to wait for.
# At runtime, this is a moving target, since next_frame gets updated.
while config["aggregators"][
"runtime"] or next_frame < config["aggregators"]["maxframe"]:
# wait for the next batch of frames
timeout = waitForServer(SOS, next_frame)
if timeout:
break
print "Processing frame", next_frame
start = time.time()
fd = ad.open("TAU_metrics", "tau-metrics.bp", adios_mode)
writeMetaData(SOS, next_frame, g, fd)
writeTimerData(SOS, next_frame, g, fd)
writeCounterData(SOS, next_frame, g, fd)
ad.close(fd)
# future iterations are appending, not writing
adios_mode = "a"
# clean up the database for long runs
cleanDB(SOS, next_frame)
next_frame = next_frame + 1
end = time.time()
print "loop time:", str(end - start)
# finalize adios
if config["output_adios"]:
ad.finalize()
# finalize SOS
SOS.finalize()
print " ...DONE!"
return
def sosVTKProjector():
SOS = SSOS()
sosHost = "localhost"
sosPort = os.environ.get("SOS_CMD_PORT")
printf("Initializing SOS: ...\b\b\b")
SOS.init()
printf("OK!\n")
#####
#
# Get the maximum simulation cycle found in the database.
#
# NOTE: The cycleFieldName variable should match what is being used
# either by your application or SOSflow. If you are not using
# an explicit cycle value, you can use SOSflow's internal
# field named "frame" that is updated every time SOS_publish(...)
# is called. As long as you are publishing to SOS at the end
# of major program steps, this will give you what you want.
#
# NOTE: For online queries, if you want to ensure that your most
# current projection represents a complete set of values,
# and you're investigating a block-synchronous code, you can
# grab the current maximum and subtract one.
#
cycleFieldName = "frame"
#
sqlMaxFrame = "SELECT MAX(" + cycleFieldName + ") FROM viewCombined;"
results, col_names = SOS.query(sqlMaxFrame, sosHost, sosPort)
max_cycle = int(results[0][0])
print "Maximum observed '" + cycleFieldName + "' value: " + str(max_cycle)
#
sqlMaxFrame = "SELECT MAX(comm_rank) FROM viewCombined;"
results, col_names = SOS.query(sqlMaxFrame, sosHost, sosPort)
rank_max = int(results[0][0])
print "Maximum observed 'comm_rank' value: " + str(rank_max)
#
#####
#####
#
# Here we drive the generation of the .vtk file[s]:
filenames = []
#
# NOTE: When allocation time is scarce, 'stride' here can be
# set so that intermediate cycles can be skipped, which is
# especially useful when there are thousands of cycles.
#
stride = 1
#
# EXAMPLE A: Generate .vtk set for ALL simulation cycles:
print "Generating VTK files..."
lastX = [0.0] * (rank_max + 1)
lastY = [0.0] * (rank_max + 1)
lastZ = [0.0] * (rank_max + 1)
for simCycle in range(0, max_cycle, stride):
printf(" ... %d of %d ", (simCycle + 1), max_cycle)
vtkOutputFileName = generateVTKFile(SOS, cycleFieldName, simCycle,
lastX, lastY, lastZ)
filenames.append(vtkOutputFileName)
#end:for simCycle
printf(" ")
printf("\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b")
printf("\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b\b")
# -----
# EXAMPLE B: Generate .vtk file for MOST RECENT cycle:
#vtkOutputFile = generateVTKFile(selectedFields, max_cycle)
#filenames.append(vtkOutputFile)
#
#####
#####
#
# Produce a dataset.visit 'group file' that tells VisIt obout our per-
# cycle .vtk files, to explore them in sequence:
vtk_writer.write_visit_file(filenames)
#
#####
#####
#
# NOTE: This block of code can be used to launch VisIt automatically
# after the script generates the input file.
#
#visit.AddArgument("-par")
#visit.Launch()
#OpenDatabase("dataset.visit")
#AddPlot("Pseudocolor", "rank")
#AddPlot("Mesh", "mesh")
#DrawPlots()
# loop through times
#tsNames = GetWindowInformation().timeSliders
#for ts in tsNames:
# SetActiveTimeSlider(ts)
#for state in list(range(TimeSliderGetNStates()))[::10] + [0]:
# SetTimeSliderState(state)
#print "Setting share_power permissions on the newly created VTK files..."
#subprocess.call("$PROJECT_BASE/share_power .", shell=True)
#print ""
#print "Sleeping for 100 seconds..."
#print ""
#time.sleep(100)
#
#####
#####
#
# Whew! All done!
#
# NOTE: See vtkWriter.py for more details.
#
SOS.finalize()
#
#####
print " ...DONE!"
print
return
