def __init__(self, master):
super().__init__(master)
self.columnconfigure(0, weight=1)
self.columnconfigure(1, weight=1)
self.project_dir = DirectoryInput(root,
text='Project Directory:',
padding=10)
self.project_dir.grid(row=0, columnspan=2, sticky='ew')
baseframe = tk.LabelFrame(root, text='Baseline')
baseframe.columnconfigure(0, weight=1)
baseframe.columnconfigure(1, weight=1)
baseframe.grid(row=1, column=0, sticky='nsew')
baseline = runner.Runner(baseframe) #, run_button=False)
baseline.grid(sticky='nsew')
diffframe = tk.LabelFrame(root, text='Alternative')
diffframe.columnconfigure(0, weight=1)
diffframe.columnconfigure(1, weight=1)
diffframe.grid(row=1, column=1, sticky='nsew')
different = runner.Runner(diffframe) #, run_button=False)
different.grid(row=0, column=1, sticky='nsew')
filediffs = FileDiffs(self)
filediffs.grid(row=2, columnspan=2, sticky='ew')
def printSMCRegTables(dataType='double',
numRegs=[0, 1, 2, 4, 8, 16, 32, 64, 128, 256],
dispChem=False,
dispDyn=False):
tests = [
('lidryer', {
'Num Species': 9
}), # hydrogen
('drm19', {
'Num Species': 21
}), # methane
('grimech30', {
'Num Species': 53
}), # methane
('hai', {
'Num Species': 71
}), # propane
('prf_ethanol', {
'Num Species': 107
})
] # ethanol
dynSA = analyze.StaticAnalysis(
os.path.join(baseXMLDir, 'advance-smc-modified.xml'))
f = open('RegAllocTables.tsv', 'wt')
for (chem, config) in tests:
chemSA = analyze.StaticAnalysis(
os.path.join(baseXMLDir, '%s.xml' % chem))
for nreg in numRegs:
config['FP Regs/thread'] = nreg
config['Int Regs/thread'] = nreg
r = runner.Runner(chemSA).runModel(config)
runner.writeRegAllocTables(f, r, dataType)
if dispChem:
temp = r['functions'].values(
)[0]['loops'][0]['regAlloc'][dataType]
for varType in ['state', 'stream']:
t = temp[varType]
for (x, y) in [('inRegs', 'inCache'), ('hits', 'misses')]:
print '%d\t' * 3 % (t[x], t[y], t[x] + t[y]),
print
r = runner.Runner(dynSA).runModel(config)
runner.writeRegAllocTables(f, r, dataType)
if dispDyn:
temp = r['regAlloc'][dataType]
for varType in ['state', 'stream']:
t = temp[varType]
print '%d\t' * 3 % (t['hits'], t['misses'],
t['hits'] + t['misses']),
print
f.close()
def test1():
# parameters to vary
stddev = 0.2
variedParamDict = {
# paramDict[myVariedParam] = [variedParamTruthVal, 0.2] # for log normal
"kon": [0.5,stddev],
"koff": [5.0,stddev]
}
# list of observables to be scored by GA
outputList = {
#"Cai":OutputObj("Cai","mean",[8,10], # in [s]
# 0.1), # value you want
"Nai":OutputObj("Nai","val_vs_time",[ 0, 2],
[1,0.5,0.15],timeInterpolations=[ 0,1,2]) # check that interpolated values at 0, 100, 200 are 1, 0.5 ...
}
#testState = "Cai"
simulation = runner.Runner()
results = run(
simulation,
yamlVarFile = "inputParams.yaml",
variedParamDict = variedParamDict,
jobDuration = 30e3, # [ms]
numRandomDraws = 8,
numIters = 5,
#sigmaScaleRate = 0.45,
outputList = outputList,
debug = True
)
def start(self):
self.startingPosition = self.entity.global_position
self.dead = False
self.started = False
self.count = 0
self.reachedGoal = True
self.backUp = False
self.count = 0
self.stuck = False
self.stuck_flag = False
self.currentPath = []
self.seed = random.randint(0, 4800)
self.frame_count = 0
self.prevPos = None
self.closestPathNodes = None
self.closeNodeSelf = None
self.closeNodeTarget = None
self.currentNodeIndex = 0
self.entity.add_component(runner.Runner(self.manager, self.controller), self.physics)
self.entity.add_component(powerup_manager.PowerupManager(self.controller, False), self.physics)
self.vehicle = self.entity.add_component(VehicleScript(self.startingPosition, self.controller), self.physics)
self.entity.register_handler(GameStarted, self.start_game)
self.currentNodeXZ = self.manager.astar.findCurrentNode(
(self.entity.transform().global_position().x, self.entity.transform().global_position().z))
def validation():
testState = "Cai"
simulation = runner.Runner()
results = run(
simulation,
yamlVarFile = "inputParams.yaml",
variedParamDict = variedParamListDefault,
jobDuration = 25e3, # [ms]
numRandomDraws = 3,
numIters = 10,
sigmaScaleRate = 0.45,
outputParamName = "Container",
outputParamSearcher = testState,
outputParamMethod = "min",
outputParamTruthVal=0.1,
debug = True
)
refKon = 0.6012
bestKon = results['bestFitDict']
bestKon = bestKon['kon']
assert(np.abs(refKon - bestKon) < 1e-3), "FAIL!"
print("PASS!!")
def doit(): import runner simulation = runner.Runner() yamlFile = "inputParams.yaml" data = GenerateData(simulation,yamlFile) FitData(data,simulation,yamlFile)
def decodeFromJSON(session_name):
# INIT RUNNERS LIST
RUNNERS = []
# INIT SPONSORS LIST
SPONSORS = []
# SEE IF THE SESSION EXISTS:
rootdir = os.getcwd()
sessionsdir = rootdir + "/sessions/"
session_was_found = False
for subdir, dirs, files in os.walk(sessionsdir):
if subdir != sessionsdir:
if subdir[len(sessionsdir):] == session_name:
session_was_found = True
with open(sessionsdir +session_name + "/runners.json", "r") as runnersFile:
runner_list = json.loads(runnersFile.read())
if not session_was_found:
print(f"The session {session_name} could not be found")
return None, None
for new_runner in runner_list:
NEW_RUNNER = runner.Runner(new_runner[0].get("firstname"), new_runner[0].get("lastname"))
NEW_RUNNER.value_per_lap = new_runner[0].get("lapvalue")
NEW_RUNNER.number_of_laps = new_runner[0].get("numberoflaps")
for sponsorship in new_runner[1]:
NEW_RUNNER.addSponsorship(sponsorship.get("firstname"), sponsorship.get("lastname"), sponsorship.get("valueperlap"), sponsorship.get("maxval"))
RUNNERS.append(NEW_RUNNER)
return RUNNERS, updateSponsorList(RUNNERS)
def main():
n_test = 1000
args = parser.parse_args()
logging.info('Loading graph %s' % args.graph_type)
graph_train = [None] * (args.graph_nbr)
for graph_ in range(args.graph_nbr):
graph_train[graph_] = graph.Graph(graph_type=args.graph_type,
min_n=args.node_min,
max_n=args.node_max,
p=args.p,
m=args.m,
seed=120 + graph_)
graph_test = [None] * n_test
for graph_ in range(n_test):
graph_test[graph_] = graph.Graph(graph_type=args.graph_type,
min_n=args.node_min,
max_n=args.node_max,
p=args.p,
m=args.m,
seed=1 + graph_)
logging.info('Loading agent and environment')
agent_class = agent.Agent(args.model, args.lr, args.bs, args.n_step,
args.environment_name, args.node_max)
print("Running a single instance simulation...")
my_runner = runner.Runner(graph_train, agent_class, args.verbose)
my_runner.loop(args.graph_nbr, 1, args.niter)
agent_class.save_model()
# torch.save(agent_class,"model.pt")
my_runner.change_to_test(graph_test)
my_runner.loop(n_test, 1, args.niter)
def main(arglist):
current_time = strftime("%Y-%m-%d-%H-%M-%S", gmtime())
writer = SummaryWriter(log_dir='./logs/' + current_time + '-snake')
actors = 6
if arglist.train == False:
actors = 1
env_runner = runner.Runner(arglist, arglist.scenario, actors)
while arglist.train or env_runner.episode < 1:
env_runner.reset()
replay_buffers = env_runner.run()
for replay_buffer in replay_buffers:
env_runner.qmix_algo.episode_batch.add(replay_buffer)
env_runner.qmix_algo.train()
for episode in env_runner.episodes:
env_runner.qmix_algo.update_targets(episode)
for episode in env_runner.episodes:
if episode % 500 == 0 and arglist.train:
env_runner.qmix_algo.save_model('./saved/agents_' + str(episode))
print(env_runner.win_counted_array)
for idx, episode in enumerate(env_runner.episodes):
print("Total reward in episode {} = {} and global step: {}".format(episode, env_runner.episode_reward[idx], env_runner.episode_global_step))
if arglist.train:
writer.add_scalar('Reward', env_runner.episode_reward[idx], episode)
writer.add_scalar('Victory', env_runner.win_counted_array[idx], episode)
if arglist.train == False:
env_runner.save()
env_runner.close()
def runConfig(result,
sa,
blockx,
blocky,
blockz,
problemSize,
cacheSizes,
config={}):
print ' Running block size (%d, %d, %d) ...' % (blockx, blocky, blockz)
runr = runner.Runner(sa)
config['X Problem Size'] = problemSize
config['Y Problem Size'] = problemSize
config['Z Problem Size'] = problemSize
config['X Block Size'] = blockx
config['Y Block Size'] = blocky
config['Z Block Size'] = blockz
BW = []
for cacheSize in cacheSizes:
print ' Running cache size %g ...' % cacheSize
config['$/thread group (kB)'] = cacheSize
r = runr.runModel(config)
BW.append(float(r['BW']) / 2**30)
return {'problemSize': problemSize, 'blockx': blockx, 'blocky': blocky, 'blockz': blockz, \
'cacheSizes': cacheSizes, 'BW': BW, 'WS': float(r['WS']) / 2**10, \
'gflops': float(r['flops']) / 10**9, 'wgflops': float(r['wflops']) / 10**9, \
'GPRegs': r['GPRegs'], 'FPRegs': r['FPRegs'], \
'cputime': r['cputime'], 'ramtime': r['ramtime'], 'time': r['time']}
def __init__(self, config_map):
super().__init__(config_map)
self.headers = {
"Host":
"search.map.daum.net",
"Connection":
"keep-alive",
"User-Agent":
"Mozilla/5.0 (Macintosh; Intel Mac OS X 10_15_6) AppleWebKit/537.36 (KHTML, like Gecko) "
"Chrome/84.0.4147.125 Safari/537.36",
"Accept":
"*/*",
"Sec-Fetch-Site":
"cross-site",
"Sec-Fetch-Mode":
"no-cors",
"Sec-Fetch-Dest":
"script",
"Referer":
"https://map.kakao.com/?from=total&nil_suggest=btn&q=%EC%97%AD%EC%82%BC%20%EC%B9%B4%ED%8E%98"
"&tab=place",
"Accept-Encoding":
"gzip, deflate, br",
"Accept-Language":
"ko,en;q=0.9,en-US;q=0.8,ja;q=0.7"
}
self.addr_loader = addr_data_loader.AddrDataLoader()
self.runner = runner.Runner()
self.locks = {}
self.progress_bar = {}
self.progress_count = 0
self.progress_lock = threading.Lock()
self.completes = []
def start_task(self, show_progress, encoding, working_dir, directive, params):
self._encoding = encoding
self._show_progress = show_progress
# Default the to the current files directory if no working directory was given
if (working_dir == "" and self.window.active_view()
and self.window.active_view().file_name()):
working_dir = os.path.dirname(self.window.active_view().file_name())
if not hasattr(self, 'output_view'):
# Try not to call get_output_panel until the regexes are assigned
self.output_view = self.window.get_output_panel("autolatex")
self.output_view.settings().set("result_file_regex", "^(.*?):([0-9]+):(?:([0-9]+):)?\\s*(.*?)\\s*$")
self.output_view.settings().set("result_line_regex", "^l\\.([0-9]+)\\s+")
self.output_view.settings().set("result_base_dir", working_dir)
# Call get_output_panel a second time after assigning the above
# settings, so that it'll be picked up as a result buffer
self.window.get_output_panel("autolatex")
# Show the progress
if self._show_progress:
sublime.status_message(_T("Building [%d%%]") % int(0))
autolatex_directory = utils.find_AutoLaTeX_directory(working_dir)
self._thread = runner.Runner(
self,
autolatex_directory,
directive,
params)
self._thread.start()
def runApp(batchSize, threadnum, json, image_dir):
"""create runner """
dpu = runner.Runner(json)
listimage = os.listdir(image_dir)
runTotal = len(listimage)
""" pre-process all images """
img = []
for i in range(runTotal):
image = cv2.imread(os.path.join(image_dir, listimage[i]))
image = cv2.cvtColor(image, cv2.COLOR_BGR2RGB)
image = image / 255.0
img.append(image)
"""run with batch """
threadAll = []
time1 = time.time()
for i in range(threadnum):
t1 = threading.Thread(target=runDPU,
args=(dpu, img, i, batchSize, threadnum,
runTotal))
threadAll.append(t1)
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = time.time()
timetotal = time2 - time1
fps = float(runTotal / timetotal)
print("%.2f FPS" % fps)
del dpu
return
def createRunners(self):
# move the current runners, if any, to the array with old runners
if self.runners:
self.oldCpuTimes.append(max(r.currentCpuTime for r in self.runners))
self.oldRunners.extend(self.runners)
self.runners = []
# reset other state
self.convergenceTime = None
self.lastOfUpdateTime = time.time()
self.runnerGeneration += 1
bestParams = None
if self.oldRunners and bool(g.getConfig("optimization.restartFromBestValue")):
# get best params
bestParams = self.getBestParams()
for id in range(int(g.getConfig("optimization.runsPerJob"))):
r = runner.Runner(self, id + 1, self.currentMethod, self.runnerGeneration)
if not r.prepare(self.workDir, self.copasiFile, bestParams):
g.log(LOG_ERROR, "{}: failed to create a runner".format(r.getName()))
return False
self.runners.append(r)
# note that this may create more processes than the number of free CPU cores!
for r in self.runners:
r.execute()
return True
def main():
args = parser.parse_args()
logging.info('Loading graph %s' % args.graph_type)
# seed = 125
# graph_one = graph.Graph(graph_type=args.graph_type, cur_n=20, p=0.15,m=4, seed=seed)
logging.info('Loading environment %s' % args.environment_name)
env_class = environmentClass.Environment(args)
logging.info('Loading agent...')
agent_class = agentClass.Agent(env_class.graphs, args.model, args.lr,
args.bs, args.n_step)
if args.batch is not None:
print("Running a batched simulation with {} agents in parallel...".
format(args.batch))
my_runner = runner.BatchRunner(env_class, agent_class, args.batch,
args.verbose)
final_reward = my_runner.loop(args.ngames, args.epoch, args.niter)
print("Obtained a final average reward of {}".format(final_reward))
agent_class.save_model()
else:
print("Running a single instance simulation...")
my_runner = runner.Runner(env_class, agent_class, args.verbose)
final_reward = my_runner.loop(args.ngames, args.epoch, args.niter)
print("Obtained a final reward of {}".format(final_reward))
agent_class.save_model()
def app(image_dir,threads,model):
listimage=os.listdir(image_dir)
runTotal = len(listimage)
global out_q
out_q = [None] * runTotal
g = xir.graph.Graph.deserialize(pathlib.Path(model))
subgraphs = get_subgraph (g)
all_dpu_runners = []
for i in range(threads):
all_dpu_runners.append(runner.Runner(subgraphs[0], "run"))
''' preprocess images '''
print('Pre-processing',runTotal,'images...')
img = []
for i in range(runTotal):
path = os.path.join(image_dir,listimage[i])
img.append(preprocess_fn(path))
'''run threads '''
print('Starting',threads,'threads...')
threadAll = []
start=0
for i in range(threads):
if (i==threads-1):
end = len(img)
else:
end = start+(len(img)//threads)
in_q = img[start:end]
t1 = threading.Thread(target=runDPU, args=(i,start,all_dpu_runners[i], in_q))
threadAll.append(t1)
start=end
time1 = time.time()
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = time.time()
timetotal = time2 - time1
fps = float(runTotal / timetotal)
print("FPS=%.2f, total frames = %.0f , time=%.4f seconds" %(fps,runTotal, timetotal))
''' post-processing '''
classes = ['zero','one','two','three','four','five','six','seven','eight','nine']
correct = 0
wrong = 0
for i in range(len(out_q)):
prediction = classes[out_q[i]]
ground_truth, _ = listimage[i].split('_',1)
if (ground_truth==prediction):
correct += 1
else:
wrong += 1
accuracy = correct/len(out_q)
print('Correct:',correct,'Wrong:',wrong,'Accuracy:', accuracy)
def main(argv):
global threadnum
"""create runner """
dpu = runner.Runner(argv[2])
listimage = os.listdir(calib_image_dir)
threadAll = []
threadnum = int(argv[1])
i = 0
global runTotall
runTotall = len(listimage)
"""image list to be run """
img = []
for i in range(runTotall):
path = os.path.join(calib_image_dir, listimage[i])
image = cv2.imread(path)
img.append(input_fn.preprocess_fn(image))
"""run with batch """
time1 = time.time()
for i in range(int(threadnum)):
t1 = threading.Thread(target=runInceptionV1,
args=(dpu, img, i * batchSize))
threadAll.append(t1)
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = time.time()
timetotal = time2 - time1
fps = float(runTotall / timetotal)
print("%.2f FPS" % fps)
del dpu
def evaluate_image(load_checkpoint):
"""
Creates a convolutional network, optionally loads its weights from file, and
runs it on a random test image from CIFAR-10. Visualizes top predictions.
Args:
load_checkpoint: Boolean flag indicating if weights should be loaded from file.
"""
# Load data from file into memory.
class_names, _, _, images_test, labels_test = load_cifar10()
# Create network.
my_model = model.Model()
# Create runner, optionally load a weights from file.
my_runner = runner.Runner(model=my_model)
if load_checkpoint:
my_runner.load(os.path.join(".", "checkpoints", "my_model"))
# Evaluate network on a random test image.
image_index = np.random.randint(0, images_test.shape[0])
image = images_test[image_index]
label = labels_test[image_index]
guess_class, guess_prob = my_runner.run(image)
# Visualize the result.
visualize_classification(image, label, guess_class, guess_prob, class_names)
def GenerateData(
jobDuration=1e3, # duration of simulation
simulation=None,
yamlFile=None):
if simulation is None:
import runner
simulation = runner.Runner()
varDictDflt = simulation.params.copy()
recordedData = []
import random
for i in range(numCells):
# default parameters for model
varDicti = varDictDflt.copy()
# can iterate through jeys to make random
randKey = random.choice(list(varDicti))
varDicti[randKey] += 0.02 * np.random.randn(1)
# place holder/perform simulation
returnDict = dict() # return results vector
simulation.simulate(varDicti, returnDict, jobDuration=jobDuration)
## do output processing
data = returnDict['data']
tRef = data['t'] * 1e3 # turn [s] back to [ms]
#print(jobDuration)
caiRef = data[testState] + 0.005 * np.random.randn(np.shape(tRef)[0])
plt.plot(tRef, caiRef)
recordedDatai = {'t': tRef, 'Cai': caiRef}
recordedData.append(recordedDatai)
return recordedData
def load_model(self, model):
"""Load DPU models for both DNNDK runtime and VART.
For DNNDK, this method will compile the ML model `*.elf` binary file,
compile it into `*.so` file located in the destination directory
on the target. This will make sure DNNDK libraries can work
without problems.
The ML model file, if not set explicitly, is required to be located
in the same folder as the bitstream and hwh files.
The destination folder by default is `/usr/lib`.
Currently only `*.elf` files are supported as models. The reason is
that `*.so` usually have to be recompiled targeting a specific
rootfs.
For VART, this method will automatically generate the `meta.json` file
in the same folder as the model file.
Parameters
----------
model : str
The name of the ML model binary. Can be absolute or relative path.
"""
if os.path.isfile(model):
abs_model = model
elif os.path.isfile(self.overlay_dirname + "/" + model):
abs_model = self.overlay_dirname + "/" + model
else:
raise ValueError(
"File {} does not exist.".format(model))
if not os.path.isdir(XCL_DST_PATH):
raise ValueError(
"Folder {} does not exist.".format(XCL_DST_PATH))
if not model.endswith(".elf"):
raise RuntimeError("Currently only elf files can be loaded.")
else:
if self.runtime == 'dnndk':
kernel_name = get_kernel_name_for_dnndk(abs_model)
model_so = "libdpumodel{}.so".format(kernel_name)
_ = subprocess.check_output(
["gcc", "-fPIC", "-shared", abs_model, "-o",
os.path.join(XCL_DST_PATH, model_so)])
elif self.runtime == 'vart':
model_name, kernel_name = get_kernel_name_for_vart(abs_model)
runner_folder = os.path.dirname(os.path.abspath(abs_model))
meta_json = os.path.join(runner_folder, 'meta.json')
with open(meta_json, 'w') as f:
f.write('{\n')
f.write('"lib": "libvart-dpu-runner.so",\n')
f.write('"filename": "{}",\n'.format(model_name))
f.write('"kernel": [ "{}" ]\n'.format(kernel_name))
f.write('}')
self.runner = runner.Runner(runner_folder)[0]
else:
raise ValueError('Runtime can only be dnndk or vart.')
def test3():
simulation = runner.Runner(),
yamlVarFile = "inputParams.yaml",
testState = "Cai",
# parameters to vary
variedParamDict = {
"kon": [0.5,0.2],
"koff": [5.0,0.2],
},
# get trial simulation results
returnData = []
for i in range(2):
varDict={
'kon':0.4+i*0.1,'koff':4.4}
returnDict=simulate(
varDict=varDict, # dictionary of parameters to be used for simulation
# returnDict=dict(), # dictionary output to be returned by simulation
jobDuration = 25e3 # [ms]
)
cai = analyze.GetData('Cai',returnDict['data'])
returnData.append( cai )
if 1:
raise RuntimeError("DSF")
# once above works, do
traces = cellDetect()
for trace in traces:
outputObj=outPutList["Cai"]
outputObj.vals = cai
outputObj.ts = ts
results.cellNum=1
allResults.append(results)
print("make plots with cell number, legend")
timeRange = [0, 2] # where to measure
vals = cai
outputList= {
#"Cai":OutputObj("Cai","val_vs_time",[ 0, 2],
#[1,0.5,0.15],timeInterpolations=[ 0,1,2]) # check that interpolated values at 0, 100, 200 are 1, 0.5 ...
"Cai":OutputObj("Cai","val_vs_time",timeRange,
vals,timeInterpolations=ts) # check that interpolated values at 0, 100, 200 are 1, 0.5 ...
}
results = run(
simulation,
yamlVarFile = yamlVarFile,
variedParamDict = variedParamDict,
jobDuration = 30e3, # [ms]
numRandomDraws = 8,
numIters = 5,
#sigmaScaleRate = 0.45,
outputList = outputList,
debug = True
)
def app(image_dir,threads,model):
listimage=os.listdir(image_dir)
runTotal = len(listimage)
global out_q
out_q = [None] * runTotal
all_dpu_runners = []
threadAll = []
for i in range(threads):
all_dpu_runners.append(runner.Runner(model)[0])
''' preprocess images '''
img = []
for i in range(runTotal):
path = os.path.join(image_dir,listimage[i])
img.append(preprocess_fn(path))
'''run threads '''
start=0
for i in range(threads):
if (i==threads-1):
end = len(img)
else:
end = start+(len(img)//threads)
in_q = img[start:end]
t1 = threading.Thread(target=runDPU, args=(i,start,all_dpu_runners[i], in_q))
threadAll.append(t1)
start=end
time1 = time.time()
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = time.time()
timetotal = time2 - time1
fps = float(runTotal / timetotal)
print("FPS=%.2f, total frames = %.0f , time=%.4f seconds" %(fps,runTotal, timetotal))
''' post-processing '''
classes = ['airplane','automobile','bird','cat','deer','dog','frog','horse','ship','truck']
correct = 0
wrong = 0
print('output buffer length:',len(out_q))
for i in range(len(out_q)):
argmax = np.argmax((out_q[i]))
prediction = classes[argmax]
ground_truth, _ = listimage[i].split('_')
if (ground_truth==prediction):
correct += 1
else:
wrong += 1
accuracy = correct/len(out_q)
print('Correct:',correct,'Wrong:',wrong,'Accuracy:', accuracy)
def test_runner_logger_use_elsewhere(self, args):
r = runner.Runner(
args["network"], args["AMQPURL"], size=args["size"], seed=args["seed"]
)
assert r.AMQPURL is not None
r._attach_data_collector("")
assert r.logger is not None
r.logger.debug("use elsewhere")
def __init__(self, config_map):
super().__init__(config_map)
if "addr_key" not in self.config_map["bot"]:
raise Exception("invalid config (not exit addr key)")
self.addr_loader = addr_data_loader.AddrDataLoader()
self.runner = runner.Runner()
self.addr_url = self.config_map["bot"]["addr_url"]
self.addr_key = self.config_map["bot"]["addr_key"]
def runApp(batchSize, threads, image_dir, model):
listImage = os.listdir(image_dir)
runTotal = len(listImage)
global out_q
out_q = [None] * runTotal
g = xir.graph.Graph.deserialize(pathlib.Path(model))
subgraphs = get_subgraph(g)
assert len(subgraphs) == 1
all_dpu_runners = []
for i in range(threads):
all_dpu_runners.append(runner.Runner(subgraphs[0], "run"))
""" pre-process all images """
img = []
print(listImage)
for i in range(len(listImage)):
image = cv2.imread(os.path.join(image_dir, listImage[i]))
cv2.imshow('test', image)
cv2.waitKey()
# image = cv2.cvtColor(image,cv2.COLOR_BGR2GRAY)
# image = cv2.resize(image,200,200)
image = image.reshape(-1, 200, 200, 3).astype('float32')
image = image / 255.0
img.append(image)
"""run with batch """
threadAll = []
start = 0
for i in range(threads):
if (i == threads - 1):
end = len(img)
else:
end = start + (len(img) // threads)
in_q = img[start:end]
t1 = threading.Thread(target=runDPU,
args=(i, start, all_dpu_runners[i], in_q,
listImage))
threadAll.append(t1)
start = end
time1 = time.time()
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = time.time()
timetotal = time2 - time1
fps = float(runTotal / timetotal)
print("FPS=%.2f, total frames = %.0f , time = %.4f seconds" %
(fps, runTotal, timetotal))
return
def main(argv):
global threadnum
listimage = os.listdir(calib_image_dir)
threadAll = []
threadnum = int(argv[1])
i = 0
global runTotall
runTotall = len(listimage)
g = xir.graph.Graph.deserialize(pathlib.Path(argv[2]))
subgraphs = get_subgraph(g)
assert len(subgraphs) == 1 # only one DPU kernel
all_dpu_runners = []
for i in range(int(threadnum)):
all_dpu_runners.append(runner.Runner(subgraphs[0], "run"))
"""image list to be run """
xclbin_p = str("/mnt/dpu.xclbin")
kernelName_p = "pp_pipeline_accel"
deviceIdx_p = 0
fpga_pp = waa_rt.PreProcess(xclbin_p, kernelName_p, deviceIdx_p)
time1 = int(round(time.time() * 1000))
img = []
for i in range(runTotall):
path = os.path.join(calib_image_dir, listimage[i])
image = cv2.imread(path)
rows, cols, channels = image.shape
image = fpga_pp.preprocess_input(image, rows, cols)
img.append(image)
time_pre = int(round(time.time() * 1000))
start = 0
for i in range(int(threadnum)):
if (i == threadnum - 1):
end = len(img)
else:
end = start + (len(img) // threadnum)
t1 = threading.Thread(target=runResnet50,
args=(all_dpu_runners[i], img[start:end],
len(img[start:end])))
threadAll.append(t1)
start = end
for x in threadAll:
x.start()
for x in threadAll:
x.join()
time2 = int(round(time.time() * 1000))
timetotal = time2 - time1
fps = float(runTotall * 1000 / timetotal)
#print("Pre time: %d ms" %(time_pre - time1))
#print("DPU + post time: %d ms" %(time2 - time_pre))
#print("Total time : %d ms" %timetotal)
#print("Total frames : %d" %len(img))
print("Performance : %.2f FPS" % fps)
def test_does_remember_jobs(self):
with tempfile.NamedTemporaryFile(mode='r') as outfile:
self.runner.add_job('echo "%d" >> %s\n' % (0, outfile.name))
self.runner = runner.Runner(cancel='cat %s' %
self.cancel_file.name,
queue=self.queue)
self.runner.should_cancel = self.cancel_at([])
self.runner.run()
result = outfile.read()
self.assertEqual(result, '0\n')
def collectSMCSummaryData(dynxml):
config = {}
config['X Problem Size'] = 128
config['Y Problem Size'] = 128
config['Z Problem Size'] = 128
config['X Block Size'] = 128
config['Y Block Size'] = 128
config['Z Block Size'] = 128
config['$/thread group (kB)'] = 1024
tests = [('lidryer' , {'$/thread group (kB)': 0, 'Num Species': 9 }), \
('drm19' , {'$/thread group (kB)': 0, 'Num Species': 21 }), \
('grimech30' , {'$/thread group (kB)': 0, 'Num Species': 53 }), \
('hai' , {'$/thread group (kB)': 0, 'Num Species': 71 }), \
('prf_ethanol', {'$/thread group (kB)': 0, 'Num Species': 107}), \
('lidryer' , {'$/thread group (kB)': 1e9, 'Num Species': 9 }), \
('drm19' , {'$/thread group (kB)': 1e9, 'Num Species': 21 }), \
('grimech30' , {'$/thread group (kB)': 1e9, 'Num Species': 53 }), \
('hai' , {'$/thread group (kB)': 1e9, 'Num Species': 71 }), \
('prf_ethanol', {'$/thread group (kB)': 1e9, 'Num Species': 107}), \
('lidryer', {'$/thread group (kB)': 1024, 'Num Species': 9, 'X Block Size': 16, 'Y Block Size': 16}), \
('drm19', {'$/thread group (kB)': 1024, 'Num Species': 21, 'X Block Size': 16, 'Y Block Size': 8}), \
('grimech30', {'$/thread group (kB)': 1024, 'Num Species': 53, 'X Block Size': 8 , 'Y Block Size': 8}), \
('hai', {'$/thread group (kB)': 1024, 'Num Species': 71, 'X Block Size': 8 , 'Y Block Size': 4}), \
('prf_ethanol', {'$/thread group (kB)': 1024, 'Num Species': 107, 'X Block Size': 8 , 'Y Block Size': 4})]
dynSA = analyze.StaticAnalysis(dynxml)
results = []
for (c, t) in tests:
for k in t.keys():
config[k] = t[k]
chemSA = analyze.StaticAnalysis(os.path.join(baseXMLDir, '%s.xml' % c))
results.append((runner.Runner(dynSA).runModel(config),
runner.Runner(chemSA).runModel(config)))
del results[-1][0]['functions']
del results[-1][1]['functions']
return results
def main():
np.random.seed(1)
args = parser.parse_args()
if args.train:
train = True
else:
train = False
print("Running a single instance simulation...")
agent_class = DoubleDQN_FC(skip_frame=4,
epsilon_init=1,
epsilon_final=0.25,
memory_size=2**14, #16384
batch_size=64,
discount=0.99,
train=train,
my_model=args.load_model)
print([(key, agent_class.__dict__[key]) for key in agent_class.__dict__.keys()])
my_runner = runner.Runner(args.env, agent_class, args.verbose)
if not args.display:
final_reward, loss_evo, reward_evo, avgq_evo = my_runner.loop(args.ngames, args.niter, train)
else:
final_reward, loss_evo, reward_evo, avgq_evo = my_runner.loop(args.ngames, args.niter,
train, render=True)
print("Obtained a final reward of {}".format(final_reward))
##
save_path = './figs/'
if train:
# saving figures
plt.plot(loss_evo)
plt.title('loss evolution')
#plt.show()
plt.savefig(save_path + 'loss_evolution.png')
plt.clf()
plt.plot(avgq_evo)
plt.title('average Q evolution')
#plt.show()
plt.savefig(save_path + 'mean_q_evolution.png')
plt.clf()
plt.plot(np.arange(args.ngames),reward_evo)
plt.title('reward evolution')
#plt.show()
plt.savefig(save_path + 'reward_evolution.png')
plt.clf()
def run_agent(nb_episodes, args):
env_class = environment.Environment()
agent_class = arg_dico[args.agent]
print("Running a single instance simulation...")
name = args.agent
my_runner = runner.Runner(env_class, agent_class(env_class), name)
if name in ["RD", "QL"]:
final_reward = my_runner.loop(nb_episodes)
plot_results([final_reward], [args.agent])
elif name in ["PI", "VI"]:
policy, V = my_runner.loop(nb_episodes)
plot_policy(policy, V, name)