def create_program_summary(program): summary = "%s, %s - %s\n\n%s" % ( IDS_TODAY_LABEL if common.is_time_today(program.start_time) else common.get_date(program.start_time), common.get_time(program.start_time), common.get_time(program.start_time + program.duration), create_summary(program)) return summary
def create_program_summary(program):
summary = "%s, %s - %s\n\n%s" % (IDS_TODAY_LABEL if common.is_time_today(
program.start_time) else common.get_date(program.start_time),
common.get_time(program.start_time),
common.get_time(program.start_time +
program.duration),
create_summary(program))
return summary
def run_method_agents(method, agents):
grin_method = common.get_method('grin')
berlang_method = common.get_method('berlang')
xs = []
ys = []
ys2 = []
ys3 = []
for agent in agents:
print('prog:{}'.format(agent), end='\r')
ys.append(common.test_progressive(agent, 'U', 1, 0.5)['wait'])
print('grin:{}'.format(agent), end='\r')
ys2.append(grin_method(0.03, agent, 'U', 1, 0.5)['wait'])
print('berlang:{}'.format(agent), end='\r')
ys3.append(berlang_method(0.03, agent, 'U', 1, 0.5)['wait'])
xs.append(agent)
plt.clf()
plt.plot(xs, ys, xs, ys2, xs, ys3)
plt.legend(('Progressive wait ratio', 'Grin wait ratio', 'B-Erlang wait ratio'))
plt.xlabel('Agent number')
plt.ylabel('Ratio')
plt.grid(True)
plt.title('Methods ' + ' perfomance with different agent numbers')
plt.savefig(common.get_time() + 'agents_' + 'compare' + '_file.png')
print('\n')
def loghandler():
'''日志处理函数'''
global Log
global GameLog
print('服务器日志启动')
while True:
sleep(10) # 间隔多长时间记录一次
path = os.getcwd() + LOG_PATH + '/{}'\
.format(get_time()[:10])
if not os.path.exists(path):
os.mkdir(path)
if Log:
print(Log)
with open(path + '/log.txt', 'a') as f:
logwrite = Log
Log = Log[len(logwrite):]
for line in logwrite:
f.write(line + '\n')
if GameLog:
print(GameLog)
with open(path + '/gamelog.txt', 'a') as f2:
gamelogwrite = GameLog
GameLog = []
for line in gamelogwrite:
f2.write(line + '\n')
def __init__(self, paras):
"""
连接到指定的mongodb数据库
"""
self._db = get_mongodb_client(paras)[DB]
self.time_dict = get_time()
self.infl_scale = 0
def run_method_critical(method, criticals):
method_run = common.get_method(method)
xs = []
ys = []
ys2 = []
ys3 = []
ys4 = []
ys5 = []
for critical in criticals:
print('Running with critical:{}'.format(critical))
res = method_run(critical, 20, 'U', 1, 0.5)
xs.append(critical)
ys.append(res['abandon'])
ys2.append(res['wait'])
ys3.append(0.03)
ys4.append(common.test_progressive(20, 'U', 1, 0.5)['wait'])
ys5.append(res['limited'])
print(critical, end='\r')
plt.clf()
plt.plot(xs, ys, xs, ys2, xs, ys3, xs, ys4, xs, ys5)
plt.legend(('Abandon ratio', 'Wait ratio', '0.03 ratio',
'Progressive wait ratio', 'Progressive limited ratio'))
plt.xlabel('Critical value')
plt.ylabel('Ratio')
plt.grid(True)
plt.title(
common.get_nice_name(method) +
' perfomance with different critical values')
plt.savefig(common.get_time() + 'critical_' + method + '_file.png')
print('\n')
def build_graph(lemma_cmd, proof_cmds):
lemma_name = lemma_name_from_statement(getAddBody(lemma_cmd))
graph = ProofGraph(getAddBody(lemma_cmd))
next_node_id = 1
states = [(get_id(lemma_cmd), graph.start_node)]
state_map = {}
for cmd in proof_cmds:
if isAdd(cmd):
most_recent_state, most_recent_node = states[-1]
if shouldFilterCommand(cmd):
state_map[get_id(cmd)] = most_recent_state
continue
states.append((get_id(cmd),
graph.mkNode(sanitizeTactic(getAddBody(cmd)),
datetime.fromtimestamp(get_time(cmd)),
most_recent_node)))
next_node_id += 1
if isFinishingProofCmd(getAddBody(cmd)):
for statenum, node in states:
graph.setNodeColor(node, "blue")
if isFailed(cmd):
most_recent_state, most_recent_node = states[-1]
graph.setNodeColor(most_recent_node, "red")
if isCancel(cmd):
cancel_dest = getCancelDest(cmd)
cancel_dest = state_map.get(cancel_dest, cancel_dest)
while len(states) > 0 and states[-1][0] != cancel_dest:
states.pop()
assert len(states) > 0
if not os.path.exists("graphs"):
os.mkdir("graphs")
graph_filename = "graphs/" + lemma_name + ".svg"
graph.draw(graph_filename)
return graph
def run_method_busy(busies):
grin_method = common.get_method('grin')
berlang_method = common.get_method('berlang')
xs = []
ys = []
ys2 = []
ys3 = []
for busy in busies:
print('prog:{}'.format(busy), end='\r')
ys.append(common.test_progressive(20, 'U', 1, busy)['wait'])
print('grin:{}'.format(busy), end='\r')
ys2.append(grin_method(0.03, 20, 'U', 1, busy)['wait'])
print('berlang:{}'.format(busy), end='\r')
ys3.append(berlang_method(0.03, 20, 'U', 1, busy)['wait'])
xs.append(busy)
plt.clf()
plt.plot(xs, ys, xs, ys2, xs, ys3)
plt.legend(('Progressive wait ratio', 'Grin wait ratio', 'B-Erlang wait ratio'))
plt.xlabel('busy ratio')
plt.ylabel('Ratio')
plt.grid(True)
plt.title('Methods ' + 'perfomance with different busy ratios')
plt.savefig(common.get_time() + 'busy' + 'compare'+ 'busy' + '_file.png')
print('\n')
def set_frame(self, index, force = False):
if not force:
self.next_frame = index
return
if self.frame:
self.frame.destroy()
self.frame = FRAMES[index](self)
self.current_time = get_time()
def get_class_parameters(kwarg):
ret = {'attrs': []}
for key in ('rsc', 'fsc', 'usc'):
if key in kwarg:
ret['attrs'].append(['TCA_HFSC_%s' % key.upper(),
{'m1': get_rate(kwarg[key].get('m1', 0)),
'd': get_time(kwarg[key].get('d', 0)),
'm2':get_rate(kwarg[key].get('m2', 0))}])
return ret
def update_loop(self):
try:
if self.next_frame is not None:
self.set_frame(self.next_frame, True)
self.next_frame = None
return
self.loop_count += 1
current_time = get_time()
dt = current_time - self.current_time
self.current_time = current_time
self.audio.update(dt)
self.make_update(dt)
except:
import traceback
traceback.print_exc()
self.exit()
def run_method_ratios(dist, ratios):
grin_method = common.get_method('grin')
berlang_method = common.get_method('berlang')
xs = []
ys = []
ys2 = []
ys3 = []
for ratio in ratios:
print('prog:{}'.format(ratio), end='\r')
ys.append(common.test_progressive(20, dist, ratio, 0.5)['wait'])
print('grin:{}'.format(ratio), end='\r')
ys2.append(grin_method(0.03, 20, dist, ratio, 0.5)['wait'])
print('berlang:{}'.format(ratio), end='\r')
ys3.append(berlang_method(0.03, 20, dist, ratio, 0.5)['wait'])
xs.append(ratio)
plt.clf()
plt.plot(xs, ys, xs, ys2, xs, ys3)
plt.legend(('Progressive wait ratio', 'Grin wait ratio',
'B-Erlang wait ratio'))
plt.ylabel('Ratio')
plt.grid(True)
if (dist == 'E'):
plt.xlabel('service to setup lambda ratio')
name = 'exponentially'
plt.title(
'Perfomance with different service to setup lambda ratio.\nBoth distributed '
+ name + '.')
else:
plt.xlabel('service to setup ratio')
name = 'uniformly'
plt.title(
'Perfomance with different service to setup ratio.\nBoth distributed '
+ name + '.')
plt.savefig(common.get_time() + 'dist' + 'compare' + name +
'_file.png')
print('\n')
import logging
import os
from common import get_time
# 初始化日志默认配置
LOG_PATH = '/log'
path = os.getcwd() + LOG_PATH + '/{}'.format(get_time()[:10])
if not os.path.exists(path):
os.mkdir(path)
fmt = '%(asctime)s %(levelname)s Line:%(lineno)s==>%(message)s'
logging.basicConfig(
filename=path + '/game.log', # 日志输出文件
level=logging.DEBUG, # 日志写入级别
datefmt='%Y-%m-%d %H:%M:%S', # 时间格式
format=fmt) # 日志写入格式
def create_program_title(program, is_record, is_series_record, is_conflicting): title = "%s %s" % (common.get_time(program.start_time), create_recording_title(program, is_record, is_series_record, is_conflicting)) return title
def get_save_path(self):
return config.local_storage_path + common.get_time(
) + os.sep, common.get_time() + os.sep
def _get_log_path():
return config.log_path + common.get_time() + '_flask.log'
def __init__(self, paras):
self._db = get_mongodb_client(paras)[DB]
self.time_dict = get_time()
self._coll_app_comts = self._db['app_comments']
self._coll_app_det = self._db['app_detail']
self._coll_app_bd = self._db['app_bangdan']
def get_commands(logdir, user, session_label):
with open(f"{logdir}/{user}-sessions/{session_label}",
'r') as session_file:
return sorted([loads(line) for line in session_file.readlines()],
key=lambda cmd: get_time(cmd))
import unittest
from HTMLTestReportCN import HTMLTestRunner
from common import get_time, REPORTPATH
datetime = get_time()
tests = unittest.defaultTestLoader.discover('')
f = open(REPORTPATH + '/' + '接口' + datetime + '.html', 'wb')
runner = HTMLTestRunner(stream=f, title='接口自动化测试报告', tester='linlin')
runner.run(tests)
f.close()
def except_deal(self, user):
self.Log.append(get_time() + '用户退出' + user.user_name)
self.deal_quit(user, self)
pass
def simulate(sim_data):
scrip = sim_data['SC']
trans = sim_data['TP']
capt = sim_data['CP']
sl = sim_data['SL']
tar1 = sim_data['T1']
tar2 = sim_data['T2']
start = sim_data['TS']
end_time = sim_data['EN']
sim_name = sim_data['NM']
sim_type = sim_data['ST']
str_id = sim_data['ID']
data = sim_data['DATA']
sl_val = 0
t1_val = 0
t2_val = 0
t1_vol = 0
t2_vol = 0
vol = 0
results = {}
entry = 0
status = ""
end = c.get_timestamp(c.get_only_date(start)+" "+end_time)
sim_id = c.gen_id("sim_tracker","sim_id")
c.pr("I","Starting simulation for [SIM ID -> "+sim_id+"] [Scrip -> "+scrip +"] [Type -> "+sim_type+"] [Transaction -> "+trans+"] [Entry Point -> "+c.get_date(start)+"] [Capital -> "+str(capt)+"] [T1 -> "+str(tar1)+"%] [T2 -> "+str(tar2)+"%] [SL -> "+str(sl)+"%]",1)
#Step 1 Load the Scrip
#data = c.fetch_scrip_data(scrip,start,end)
#data = c.fetch_scrip_cache(cdata,start,end)
tkeys = list(data.keys())
tkeys.sort()
tctr = 0
for tk in tkeys:
if tk == start:
break
else:
tctr += 1
tkeys = tkeys[tctr:]
#Step 2 Take entry at the entry point at average price of first data candle
entry = tkeys[0]
ep_data = data[tkeys[0]]
#Removing key which corresponds to EP
tkeys.pop(0)
avg_ent = round((ep_data['open'] + ep_data['close'] + ep_data['high'] + ep_data['low'])/4,1)
#Step 3 Calulate the volume which can be undertaken
vol = math.floor(capt/avg_ent)
#Step 4 Calculate SL/T1/T2 after entry
if trans == "SELL":
sl_val = round(avg_ent + (round((avg_ent * sl),1)),1)
t1_val = round(avg_ent - (round((avg_ent * tar1),1)),1)
t2_val = round(avg_ent - (round((avg_ent * tar2),1)),1)
if trans == "BUY":
sl_val = round(avg_ent - (round((avg_ent * sl),1)),1)
t1_val = round(avg_ent + (round((avg_ent * tar1),1)),1)
t2_val = round(avg_ent + (round((avg_ent * tar2),1)),1)
#Calculate Volume split
t1_vol = math.ceil(vol * 0.7)
t2_vol = vol - t1_vol
#Step 4.1 Record the simulation data in DB
sim_query = "INSERT INTO sim_tracker VALUES ('"+sim_id+"','"+str_id+"','"+scrip+"','"+sim_type+"','"+trans+"',"+str(capt)+","+str(tar1)+","+str(tar2)+","+str(sl)+","+str(t1_vol)+","+str(t2_vol)+",'"+start+"','"+end+"')"
s.execQuery(sim_query)
#c.pr("I","First Candle [Open "+str(ep_data['open'])+"] [Low "+str(ep_data['low'])+"] [High "+str(ep_data['high'])+"] [Close "+str(ep_data['close'])+"]",1)
c.pr("I","[EP AVG(OLHC) "+str(avg_ent)+"] [SL "+str(sl_val)+"] [T1 "+str(t1_val)+"] [T2 "+str(t2_val)+"] [Vol "+str(vol)+"] [T1 Vol "+str(t1_vol)+"] [T2 Vol "+str(t2_vol)+"]" ,1)
#Step 5 Loop through time keys and check for condition
for key in tkeys:
#Check if there is volume to sell
if vol:
ep_data = data[key]
avg_prc = round((ep_data['open'] + ep_data['close'] + ep_data['high'] + ep_data['low'])/4,1)
if trans == "SELL":
#Check if this did hit SL
if sl_val >= avg_prc:
if t1_vol:
if avg_prc <= t1_val:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " T1 Hit -> Yes" ,1)
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = t1_vol
results[key]['ST'] = "T1H"
vol = vol - t1_vol
t1_vol = 0
if t1_vol == 0 and t2_vol:
if avg_prc <= t2_val:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " T2 Hit -> Yes" ,1)
if key in results:
results[key]['VL'] += t2_vol
results[key]['ST'] = "T2H"
vol = vol - t2_vol
t2_vol = 0
else:
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = t2_vol
results[key]['ST'] = "T2H"
vol = vol - t2_vol
t2_vol = 0
else:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " SL Hit -> Yes" ,1)
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = vol
results[key]['ST'] = "SLH"
vol = 0
#exit()
if trans == "BUY":
if sl_val <= avg_prc:
if t1_vol:
if avg_prc >= t1_val:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " T1 Hit -> Yes" ,1)
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = t1_vol
results[key]['ST'] = "T1H"
vol = vol - t1_vol
t1_vol = 0
if t1_vol == 0 and t2_vol:
if avg_prc >= t2_val:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " T2 Hit -> Yes" ,1)
if key in results:
results[key]['VL'] += t2_vol
results[key]['ST'] = "T2H"
vol = vol - t2_vol
t2_vol = 0
else:
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = t2_vol
results[key]['ST'] = "T2H"
vol = vol - t2_vol
t2_vol = 0
else:
#c.pr("I","Volume Is At "+str(vol)+" On "+c.get_time(key)+" AVG Price "+str(avg_prc)+ " SL Hit -> Yes" ,1)
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_prc
results[key]['VL'] = vol
results[key]['ST'] = "SLH"
vol = 0
else:
c.pr("I","Ending Simulations As Volume is 0",1)
break
#If the volume is still there at 3:10 square off at 3:10
if vol:
#c.pr("I","Squaring of Position At 03:10 PM",1)
ed_data = data[key]
avg_ext = round((ed_data['open'] + ed_data['close'] + ed_data['high'] + ed_data['low'])/4,1)
results[key] = {}
results[key]['EN'] = avg_ent
results[key]['EX'] = avg_ext
results[key]['VL'] = vol
results[key]['ST'] = "SQF"
#Step 6. Display Result
c.pr("I","Simulation Resuts",1)
for res in results:
PL = 0
if trans == "BUY":
PL = round(((results[res]['EX'] - results[res]['EN']) * results[res]['VL']),1)
if trans == "SELL":
PL = round(((results[res]['EN'] - results[res]['EX']) * results[res]['VL']),1)
c.pr("I","[ET -> "+c.get_time(entry)+"] [EP -> "+str(results[res]['EN'])+"] [ET -> "+c.get_time(res)+"] [XP -> "+str(results[res]['EX'])+"] [Volume -> "+str(results[res]['VL'])+"] [P/L -> "+str(PL)+"] [Status -> "+results[res]['ST']+"]",1)
res_query = "INSERT INTO sim_results VALUES ('"+sim_id+"',"+str(start)+","+res+","+str(results[res]['EN'])+","+str(results[res]['EX'])+","+str(results[res]['VL'])+","+str(PL)+",'"+results[res]['ST']+"')"
s.execQuery(res_query)
c.pr("I","--------------------------------------------------------",1)
return
def create_program_title(program, is_record, is_series_record, is_conflicting):
title = "%s %s" % (common.get_time(program.start_time),
create_recording_title(program, is_record,
is_series_record,
is_conflicting))
return title
def main():
parser = argparse.ArgumentParser(description='Run synthesis experiment.')
parser.add_argument('-n', type=int, help='Number of repetitions', default=10)
parser.add_argument('--filter', type=str, help='Filter which experiments to run', default="")
parser.add_argument('--exclude', type=str, help='Exclude some experiments', default="")
parser.add_argument('--exp_name', type=str, help='Name of this experiment', default="")
parser.add_argument('--args', type=str, help='Arguments to be passed to mimic', default="")
parser.add_argument('--metric', type=str, help='Which metric should be used during search? Comma-separated list', default="0")
global argv
argv = parser.parse_args()
workdir = os.path.abspath(os.path.dirname(__file__) + "/../tests")
n = argv.n
metrics = map(lambda x: int(x), argv.metric.split(","))
global base_command
if argv.args != "":
base_command = base_command + " " + argv.args
fncs = parse_functions(workdir, argv.filter, argv.exclude)
# create a directory to store information
global out
out = workdir + "/out"
if not os.path.exists(out):
os.mkdir(out)
timefordir = common.get_time(True)
out = out + "/" + timefordir
if argv.exp_name != "":
out = out + "_" + argv.exp_name
if os.path.exists(out):
print "ERROR, out directory exists already: " + out
sys.exit(1)
os.mkdir(out)
logfile = out + "/readme.txt"
# run the experiment
tasks = []
c = 0
print ""
for f, i, m in [(f, i, m) for f in fncs for i in range(n) for m in metrics]:
tasks.append((c, f, i, m))
c += 1
shuffle(tasks) # shuffle tasks
results = []
print "Running experiment..."
def get_details():
s = ""
s += " function(s): %d" % len(fncs)
s += "\n repetitions: %d" % n
s += "\n output directory: %s" % out[out.find("/tests/")+1:]
return s
print get_details()
common.fprint(logfile, "Arguments: " + " ".join(sys.argv) + "\n")
common.fprinta(logfile, "Time: " + common.get_time() + "\n")
common.fprinta(logfile, get_details() + "\n" + line + "\n")
print line
stat = status.get_status()
stat.set_message("Running experiment...")
stat.init_progress(len(tasks))
for c, f, i, m in tasks:
stat.writeln("Running mimic for %s..." % (f.shortname))
res = run.mimic(f, metric=m, cleanup=0)
stat.writeln(" done in %.2f seconds and %d searches" % (res.total_time, res.total_searches))
stat.inc_progress(force_update=True)
results.append(res)
jn = cPickle.dumps(results)
common.fprint(out + "/result.pickle", jn)
stat.end_progress()
print line
print "Finished experiment:"
print get_details()
common.fprinta(logfile, "Time: " + common.get_time() + "\n")