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"""
Program for verification of downloaded classification datsets.
"""
import sys
import os
from os import path
import argparse
import csv
class DsProblemStat:
"""
Statistics on problems usage in dataset
"""
def __init__(self):
self.similar_left = set()
self.similar_right = set()
self.n_similar_left = 0
self.n_similar_right = 0
self.left = set()
self.n_left = 0
self.right = set()
self.n_right = 0
def update_similar(self, s1, s2):
"""
Update statistics for similarity sample
Parameters:
s1, s2 -- solutions used in similarity sample
"""
self.similar_left.add(s1)
self.similar_right.add(s2)
self.n_similar_right += 1
self.n_similar_left += 1
def update_left(self, s):
"""
Update statistics for dissimilarity sample
"""
self.left.add(s)
self.n_left += 1
def update_right(self, s):
"""
Update statistics for dissimilarity sample
"""
self.right.add(s)
self.n_right += 1
#-------End of class DsProblemStat ------------------------
class SamplePartStat:
"""
Statistics of the part of set of samples:
similar, left or right
"""
def __init__(self):
"""
Initialize statistics of the part of sample:
similar, left or right
"""
self.min_fract_sol_used = 1
self.max_fract_sol_used = 0
self.min_uniqueness = 1
self.max_uniqueness = 0
self.sols_used = 0
self.n_total = 0
def update(self, n_unique, n_used, n_total):
"""
Update statistics of the part of sample
with data on solutions of one problem
Parameters:
- n_unique -- number of unique problem solutions used in samples
- n_used -- number of total problem solutions used in samples
- n_total -- number of all problem solutions existed
"""
#Fraction of all problem solutions used in samples
_fract_used = float(n_unique) / float(n_total)
self.min_fract_sol_used = min(self.min_fract_sol_used, _fract_used)
self.max_fract_sol_used = max(self.max_fract_sol_used, _fract_used)
#Ratio of number of problem solutions are used in sample to
#number of cases where the problem is used in samples
#Indicator how unique is usage of solution in the samples
_uniqueness = float(n_unique) / float(n_used)
self.min_uniqueness = min(self.min_uniqueness, _uniqueness)
self.max_uniqueness = max(self.max_uniqueness, _uniqueness)
#Number of cases where problem is used in the samples
self.sols_used += n_unique
self.n_total += n_total
def report(self, title):
"""
Report statistics
"""
print(title)
print(f"Total {self.sols_used} from all {self.n_total} " +
"of problem solutions are used")
print("Fraction of used problem solutions varies from " +
f"{self.min_fract_sol_used:5.3f} to {self.max_fract_sol_used:5.3f} ")
print("Uniqueness of used problem solutions varies from " +
f"{self.min_uniqueness:7.5f} to {self.max_uniqueness:7.5f}")
#-------End of class SamplePartStat ------------------------
class DsStat:
"""
Class defining statistics of dataset: test validation or training
"""
def __init__(self):
self.simil_left_stat = SamplePartStat()
self.simil_right_stat = SamplePartStat()
self.left_stat = SamplePartStat()
self.right_stat = SamplePartStat()
self.total_sols = 0
self.min_sols = 999999999
self.min_problem = None
self.max_sols = 0
self.max_problem = None
self.n_problems = 0
def update(self, problem, problem_stat, n_total):
"""
Update statistics of problem solutions usage
Parameters:
- problem -- problem name
- problem_stat -- Statistics of problem solutions
in the form of DsProblemStat object
- n_total -- Total number of solutions of the problem
"""
self.simil_left_stat.update(len(problem_stat.similar_left),
problem_stat.n_similar_left,
n_total)
self.simil_right_stat.update(len(problem_stat.similar_right),
problem_stat.n_similar_right,
n_total)
self.left_stat.update(len(problem_stat.left),
problem_stat.n_left,
n_total)
self.right_stat.update(len(problem_stat.right),
problem_stat.n_right,
n_total)
#Number of all problem solutions existed
self.total_sols += n_total
#Minimum number of problem solutions
if n_total < self.min_sols:
self.min_sols = n_total
self.min_problem = problem
#Maximum number of problem solutions
if n_total > self.max_sols:
self.max_sols = n_total
self.max_problem = problem
self.n_problems += 1
def update_solutions(self, n_total):
"""
Update statistics of dataset problem solutions
with data on solutions of one problem
- n_total -- number of all problem solutions existed
"""
#Number of all problem solutions existed
self.total_sols += n_total
#Minimum number of problem solutions
self.min_sols = min(self.min_sols, n_total)
#Maximum number of propblem solutions
self.max_sols = max(self.max_sols, n_total)
self.n_problems += 1
def report(self, title):
"""
Printing report of dataset statistics
Parameters:
- title -- title of the report
"""
print(title)
print(f"Dataset uses {self.n_problems} problems " +
f"having total {self.total_sols} solutions")
print("Average number of problem solutions " +
f"is {float(self.total_sols) / float(self.n_problems)}")
print(f"Problem {self.min_problem} has lowest " +
f"number {self.min_sols} of solutions")
print(f"Problem {self.max_problem} has highest " +
f"number {self.max_sols} of solutions")
self.simil_left_stat.report("Statistics of left side of similarity samples:")
self.simil_right_stat.report("Statistics of right side of similarity samples:")
self.left_stat.report("Statistics of left side of dissimilarity samples:")
self.right_stat.report("Statistics of right side of dissimilarity samples:")
print("\n")
#-------End of class DsStat ------------------------
def readDsProblems(fname):
"""
Read problems of the dataset
Parameters:
-fname -- file name
Returns:
- initialized dictionary
* key - problem name
* value - dictionary of number of problem used
in similar and dissimilar samples as right and left one
- number of errors found
"""
if not os.path.exists(fname):
sys.exit(f"File {fname} of problems of datset is not found")
_problem_dict = {}
_n_errors = 0
with open(fname) as _f:
for _p in _f:
_p = _p.rstrip('\n')
if _p in _problem_dict:
print(f"Error: multiple occurrences of problem {_p} in file{fname}")
_n_errors +=1
else:
_problem_dict[_p] = DsProblemStat()
return _problem_dict, _n_errors
def readDsSamples(cvs_file, problems):
"""
Read samples of dataset
Parameters;
- cvs_file -- csv file defining dataset
- problems -- dictionary of problems of the dataset
key: problem name
value: Statistics of problem usage
in the form of DsProblemStat
Fills in problems(dictionary of problems of the dataset)
Returns:
- number of samples in the loaded datasets
- number of similar samples
- number of dissimilar samples
- number of errors found
"""
_n_errors = 0
if not os.path.exists(cvs_file):
sys.exit(f"File {cvs_file} with datset is not found")
_n_samples = 0
_n_similar = 0
_n_disssimilar = 0
with open(cvs_file, newline='') as _:
_reader = csv.reader(_)
next(_reader)
for _p1, _s1, _p2, _s2 in _reader:
_n_samples += 1
if _p1 not in problems:
print(f"Error: problem {_p1} occurred in file {cvs_file} " +
"is not among problems of that dataset")
_n_errors +=1
if _p2 != _p1 and _p2 not in problems:
print(f"Error: problem {_p2} occurred in file {cvs_file} " +
"is not among problems of that dataset")
_n_errors +=1
if _p1 == _p2:
_n_similar += 1
problems[_p1].update_similar(_s1, _s2)
else:
_n_disssimilar += 1
problems[_p1].update_left(_s1)
problems[_p2].update_right(_s2)
return _n_samples, _n_similar, _n_disssimilar, _n_errors
def checkNoCommonProblems(ds1, ds2, fname1, fname2):
"""
Check that no common problems in two datasets
Parameters:
- ds1 -- 1-st dataset as dictionary of its problems
dictionary of problems of the dataset
key: problem name
value: Statistics of problem usage as DsProblemStat
- ds2 -- 2-nd dataset as dictionary of its problems
similar to ds1
- fname1 -- file name of 1-st dataset
- fname2 -- file name of 2-nd dataset
Returns number of errors found
"""
_n_errors = 0
_common_problems = frozenset(ds1.keys()).intersection(ds2.keys())
if _common_problems:
_n_errors = len(_common_problems)
print(f"Error datasets {fname1} and {fname2} " +
"have following {_n_errors} common problems:")
print(_common_problems)
return _n_errors
def checkDsSolVsDir(problem, solutions, ds_fn, ds_dir, fn_extension):
"""
Check that all solutiosn of a given problem are in dataset
Parameters:
- problem -- problem to check
- solutions -- set of solutions to check
- ds_fn -- file name of dataset whose problem
and solutions are checked
- ds_dir -- directory with source dataset
- fn_extension -- extensions of source code files of problem solutions
Returns number of errors
"""
_n_errors = 0
for _s in solutions:
if not os.path.exists(f"{ds_dir}/{problem}/{_s}.{fn_extension}"):
print(f"Solution {_s}.{fn_extension} occurring in file {ds_fn} " +
f"is not in problem directory {ds_dir}/{problem}")
_n_errors +=1
return _n_errors
def checkDsVsDir(ds, ds_dir, ds_fn, fn_extension):
"""
Check loaded dataset with respect to source dataset directory
Parameters:
- ds -- dictionary defining dataset to be checked
key: problem name
value: Statistics of problem usage as DsProblemStat
- ds_dir -- directory with source dataset
- ds_fn -- file name of dataset whose problem
and solutions are checked
- fn_extension -- extensions of source code files of problem solutions
Returns:
- number of errors found
"""
_n_errors = 0
for _p, _samples in ds.items():
if not os.path.exists(f"{ds_dir}/{_p}"):
print(f"Problem {_p} is not in dataset directory {ds_dir}")
_n_errors +=1
_n_errors += checkDsSolVsDir(
_p, _samples.similar_right, ds_fn, ds_dir, fn_extension)
_n_errors += checkDsSolVsDir(
_p, _samples.similar_left, ds_fn, ds_dir, fn_extension)
_n_errors += checkDsSolVsDir(
_p, _samples.right, ds_fn, ds_dir, fn_extension)
_n_errors += checkDsSolVsDir(
_p, _samples.left, ds_fn, ds_dir, fn_extension)
return _n_errors
def checkDirVsDatasets(source, train, val, test):
"""
Check that all problems from source dataset directory are in one
of datasets
Parameters:
- source -- directory with source dataset
- train -- dictionary defining training dataset to be checked
key: problem name
value: Statistics of problem usage as DsProblemStat
- val -- dictionary defining validation dataset to be checked
similar to train
- test -- dictionary defining test dataset to be checked
similar to train
Returns:
- number of problems in source dataset directory
- number of solutions in source dataset directory
- number of errors found
"""
_test_stat = DsStat()
_val_stat = DsStat()
_train_stat = DsStat()
_problems = os.listdir(source)
_n_total_solutions = 0
_n_errors = 0
if not _problems:
sys.exit(f"Directory {source} of source code dataset is empty")
for _p in _problems:
_solutions = os.listdir(f"{source}/{_p}")
_n_solutions = len(_solutions)
if not _solutions:
print(f"Error: Directory {source}/{_p} of source code dataset is empty")
_n_errors += 1
continue
_n_total_solutions += _n_solutions
if _p in test:
_test_stat.update(_p, test[_p], _n_solutions)
elif _p in train:
_train_stat.update(_p, train[_p], _n_solutions)
elif _p in val:
_val_stat.update(_p, val[_p], _n_solutions)
else:
print(f"Error: problem {_p} is not present in any datasets")
_n_errors +=1
print("\n")
_train_stat.report("Statistics of training dataset")
_val_stat.report("Statistics of validation dataset")
_test_stat.report("Statistics of test dataset")
return len(_problems), _n_total_solutions, _n_errors
#------------- End of functions -----------------------------
def main(args):
"""
Main function of program for verifying dataset
Parameters:
- args -- Parsed command line arguments
as object returned by ArgumentParser
"""
if not os.path.exists(args.ds):
sys.exit(f"Directory {args.source} of source code dataset is not found")
n_total_errors = 0
train_problems, _n_errors = readDsProblems(args.train_problems)
n_total_errors += _n_errors
val_problems, _n_errors = readDsProblems(args.val_problems)
n_total_errors += _n_errors
test_problems, _n_errors = readDsProblems(args.test_problems)
n_total_errors += _n_errors
n_trains, n_train_similars, n_train_dissimilars, _n_errors = \
readDsSamples(args.train_samples, train_problems)
n_total_errors += _n_errors
n_vals, n_val_similars, n_val_dissimilars, _n_errors = \
readDsSamples(args.val_samples, val_problems)
n_total_errors += _n_errors
n_tests, n_test_similars, n_test_dissimilars, _n_errors = \
readDsSamples(args.test_samples, test_problems)
n_total_errors += _n_errors
n_total_errors += checkNoCommonProblems(train_problems, val_problems,
args.train_problems,
args.val_problems)
n_total_errors += checkNoCommonProblems(train_problems, test_problems,
args.train_problems,
args.test_problems)
n_total_errors += checkNoCommonProblems(test_problems, val_problems,
args.test_problems,
args.val_problems)
n_total_errors += checkDsVsDir(train_problems, args.ds,
args.train_samples, args.sol_ext)
n_total_errors += checkDsVsDir(val_problems, args.ds,
args.val_samples, args.sol_ext)
n_total_errors += checkDsVsDir(test_problems, args.ds,
args.test_samples, args.sol_ext)
print(f"Training dataset has {n_trains} samples: " +
f"{n_train_similars} similar and {n_train_dissimilars} " +
f"dissimilar ones built on {len(train_problems)} problems")
print(f"Validation dataset has {n_vals} samples: " +
f"{n_val_similars} similar and {n_val_dissimilars} " +
f"dissimilar ones built on {len(val_problems)} problems")
print(f"Test dataset has {n_trains} samples: " +
f"{n_test_similars} similar and {n_test_dissimilars} " +
f"dissimilar ones built on {len(test_problems)} problems")
n_source_problems, n_source_solutions, _n_errors = checkDirVsDatasets(
args.ds, train_problems, val_problems, test_problems)
print(f"Source dataset directory has {n_source_problems} problems " +
f"with {n_source_solutions} total solutions")
if n_total_errors:
print(f"There were found {n_total_errors} errors in datasets")
else:
print("No errors were found in test and training datasets")
#------------- End of function main -----------------------------
################################################################################
# Command line arguments are described below
################################################################################
if __name__ == '__main__':
print("\nVERIFYING CONSISTENCY OF TESTING, VALIDATION AND TRAINING SIMILARITY DATASETS")
#Command-line arguments
parser = argparse.ArgumentParser(
description = "Verication of testing, validation and training datsets " +
"of similarity analysis")
parser.add_argument("ds", type=str,
help="Directory with source dataset")
parser.add_argument("--test_samples", type=str,
help="file with samples of test dataset")
parser.add_argument("--val_samples", type=str, required=True,
help="file with samples of validation dataset")
parser.add_argument("--train_samples", type=str, required=True,
help="file with samples of training datset")
parser.add_argument("--test_problems", type=str, required=True,
help="file with problems of test dataset")
parser.add_argument("--val_problems", type=str, required=True,
help="file with problems of validation dataset")
parser.add_argument("--train_problems", type=str, required=True,
help="file with problems of training datset")
parser.add_argument("--sol_ext", type=str, default="cpp",
help="extentions of files with solutions")
args = parser.parse_args()
print("Parameter settings used:")
for k,v in sorted(vars(args).items()):
print("{}: {}".format(k,v))
main(args)