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choices.remove(ind[i])
random.choice(choices)
random.gauss(0,1)
random.random()
np.exp(tau*norm + tau_prime * random.gauss(0,1)
random.gauss(0,1)
Exception('ES mutation strategy works with int, float, or grid distributions, the type provided cannot be interpreted')
GenOffspring(self, pop)
pop (dict)
offspring (dict)
list(range(0,len(pop)
defaultdict(list)
range(self.popsize)
random.random()
random.sample(pop_indices,2)
self.cx(ind1=list(pop[index1][0])
list(pop[index2][0])
list(pop[index1][1])
list(pop[index2][1])
append(ind1)
append(strat1)
print('crossover is done for sample {} between {} and {}'.format(i,index1,index2)
random.choice(pop_indices)
self.mutES(ind=list(pop[index][0])
list(pop[index][1])
append(ind)
append(strat)
print('mutation is done for sample {} based on {}'.format(i,index)
random.choice(pop_indices)
append(pop[index][0])
append(pop[index][1])
print('reproduction is done for sample {} based on {}'.format(i,index)
run_cases(self)
open (self.csvlogger, 'w')
fout.write('caseid, ')
fout.write(item + ',')
fout.write('mean_reward,max_reward\n')
print('PARAM dict', self.param_dict)
print('PARAM types', self.datatypes)
self.init_pop()
range(1, self.ngens)
format(ind)
range(self.currentcase, self.currentcase+self.popsize+1)
self.GenOffspring(pop=self.population)
core_list.append([offspring[key][0], caseids[case_idx]])
Pool(self.ncores)
p.map(self.gen_object, core_list)
p.close()
p.join()
append(fitness[ind])
range(len(offspring)
range(len(offspring)
self.fit(offspring[ind][0], caseids[case_idx])
append(fitness)
copy.deepcopy(self.select(pop=offspring)
pd.read_csv('tune.csv')
csvdata.sort_values(by=['caseid'],ascending=True)
csvdata.sort_values(by=['mean_reward'],ascending=False)
csvdata.sort_values(by=['max_reward'],ascending=False)
asc_data.to_csv('tune.csv', index=False)
np.mean(des_data.iloc[:,4:5])
mean.tolist()
len([print ('failed')
isinstance(item, str)
print ('%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%')
print('Mean Rewards for all cases=', totalmean)
print ('%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%')
print ('All TUNE CASES ARE COMPLETED')
print ('%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%')
print('--debug: Check tunesummary.txt file for best hyperparameters found')
print('--debug: Check tune.csv file for complete csv logger of all cases results')
print('--debug: Check tunecases directory for case-by-case detailed results')
open ('tunesummary.txt', 'w')
fout.write(self.logo)
fout.write('*****************************************************\n')
fout.write('Summary for the TUNE case \n')
fout.write('*****************************************************\n')
fout.write('Number of cases evaluated: {} \n'.format(self.ncases)
fout.write('Number of failed cases: {} \n'.format(failed_cases)
fout.write('Parameter names: {} \n'.format(self.param_names)
fout.write('Parameter values: {} \n '.format(self.param_dict)
fout.write ('--------------------------------------------------------------------------------------\n')
fout.write ('Top {} hyperparameter configurations ranked according to MEAN reward \n'.format(top)
fout.write(des_data.iloc[:top].to_string(index=False)
fout.write ('Top {} hyperparameter configurations ranked according to MEAN reward \n'.format(top)
fout.write(des_data.iloc[:top].to_string(index=False)
fout.write ('\n')
fout.write ('--------------------------------------------------------------------------------------\n')
fout.write ('Top {} hyperparameter configurations ranked according to MAX reward \n'.format(top)
fout.write(des_data2.iloc[:top].to_string(index=False)
fout.write ('Top {} hyperparameter configurations ranked according to MAX reward \n'.format(top)
fout.write(des_data2.iloc[:top].to_string(index=False)
parse_args()
argparse.ArgumentParser(description='Train a Fast R-CNN network')
parser.parse_args()
parse_args()
print('Called with args:')
print(args)
torch.cuda.is_available()
print("WARNING: You have a CUDA device, so you should probably run with --cuda")