def run_set( name, V_list, N_list, T_list ):
outfile.write( '%s = [\n' % name )
for i in range( len( V_list ) ):
outfile.write( '# T=%g, N=%g, V=%g\n' %
( T_list[i], N_list[i], V_list[i] ) )
outfile.write( '[' )
for c in range( 3 ):
runtime = run_single.run_single( T_list[i], V_list[i], N_list[i] )
runtime *= T/T_list[i]
outfile.write( '%g,' % runtime )
outfile.write( '],\n' )
outfile.flush()
outfile.write( ']\n' )
def run_set(outfile, name, V_list, N_list, T_list):
outfile.write('%s = [\n' % name)
for i in range(len(V_list)):
outfile.write('# T=%g, N=%g, V=%g\n' %
(T_list[i], N_list[i], V_list[i]))
run_times = []
est_times = []
for c in range(REPEAT):
run_time = run_single.run_single(T_list[i], V_list[i], N_list[i], R, D)
est_time = run_time * (T / T_list[i])
run_times.append(run_time)
est_times.append(est_time)
outfile.write('# run_times = %s\n' % str(run_times))
outfile.write('%s,\n' % str(est_times))
outfile.flush()
outfile.write(']\n')
def run_set(outfile, name, V_list, N_list, T_list):
outfile.write('%s = [\n' % name)
for i in range(len(V_list)):
outfile.write('# T=%g, N=%g, V=%g\n' %
(T_list[i], N_list[i], V_list[i]))
run_times = []
est_times = []
for c in range(REPEAT):
run_time = run_single.run_single(T_list[i], V_list[i], N_list[i],
R, D)
est_time = run_time * (T / T_list[i])
run_times.append(run_time)
est_times.append(est_time)
outfile.write('# run_times = %s\n' % str(run_times))
outfile.write('%s,\n' % str(est_times))
outfile.flush()
outfile.write(']\n')
def run_set(outfile, name, V_list, N_list, T_list):
outfile.write('%s = [\n' % name)
for i in range(len(V_list)):
outfile.write('# T=%g, N=%g, V=%g\n' %
(T_list[i], N_list[i], V_list[i]))
run_times = []
est_times = []
for c in range(REPEAT):
run_time, steps, stepspersec = run_single.run_single(
T_list[i], V_list[i], N_list[i])
est_time = run_time * (T / T_list[i])
run_times.append(run_time)
est_times.append(est_time)
outfile.write('# steps= %d, steps/sec= %f, steps/N= %f\n'\
% (steps, stepspersec, float(steps) / N_list[i]))
outfile.write('# run_times = %s\n' % str(run_times))
outfile.write('%s,\n' % str(est_times))
outfile.flush()
outfile.write(']\n')
def run_set(outfile, name, V_list, N_list, T_list):
outfile.write('%s = [\n' % name)
for i in range(len(V_list)):
outfile.write('# T=%g, N=%g, V=%g\n' %
(T_list[i], N_list[i], V_list[i]))
run_times = []
est_times = []
for c in range(REPEAT):
run_time, steps, stepspersec = run_single.run_single(T_list[i],
V_list[i],
N_list[i])
est_time = run_time * (T / T_list[i])
run_times.append(run_time)
est_times.append(est_time)
outfile.write('# steps= %d, steps/sec= %f, steps/N= %f\n'\
% (steps, stepspersec, float(steps) / N_list[i]))
outfile.write('# run_times = %s\n' % str(run_times))
outfile.write('%s,\n' % str(est_times))
outfile.flush()
outfile.write(']\n')
nminutes = 1
if len(sys.argv) > 4:
run_type = sys.argv[4]
else:
run_type = 'run_single'
last_experiment_time = time.time()
while True:
print('\n\n\n======================================================')
print('New experiment burst. Initiated at ' + strftime('%Y-%m-%d %H:%M:%S'))
print('======================================================')
if run_type == 'run_single':
run_single([input_metadata_file_path, data_file_path, 'localhost', '0', False])
elif run_type == 'run_sweep':
run_sweep([input_metadata_file_path, data_file_path, 'localhost', '0', False])
else:
break
try:
print('Waiting for next experiment burst... (press ctrl-c to stop)')
while time.time() - last_experiment_time < nminutes*60:
sleep(1)
last_experiment_time = time.time()
except KeyboardInterrupt:
print('\nThe bursts experiment has ended.\n')
