Best Python code snippet using slash
Euler_1_10.py
Source:Euler_1_10.py
1# EULER PROBLEMS 1- 102######################### EULER - 13# a = int(input())4# ans = []5# i = 16# while i < a:7# if i % 3 ==0 or i % 5 == 0:8# ans.append(i)9# i += 110# else:11# pass12# i += 113# print(sum(ans))14######################### EULER - 215# def fibo_sumeven():16# a = 117# b = 218# terms = [a, b]19# i = 020# addy = 021# check = True22# while check:23# addy = terms[i] + terms[i + 1]24# if addy < 4000000:25# terms.append(addy)26# i += 127# check = True28# elif addy >= 4000000:29# check = False30# alpha = []31# for i in terms:32# if i % 2 ==0:33# alpha.append(i)34# else:35# pass36# return sum(alpha)37# x = fibo_sumeven()38# print(x)39######################### EULER - 340# def prime_test(a): #a > 141# if a != 2 and a % 2 == 0:42# return "not prime"43# elif a == 2 or a % 2 != 0:44# i = 245# count = 046# if a == i:47# return "prime"48# elif a != i:49# while i < a:50# if a % i != 0:51# count += 152# i += 153# elif a % i == 0:54# count = 055# break56# if count == 0:57# return "not prime"58# elif count > 0:59# return "prime"60 61# d = int(input("Number: "))62# divisor = 263# dividend = d64# while dividend >= divisor:65# check = prime_test(divisor)66# if check == 'prime' and dividend % divisor == 0:67# condi = True68# while condi:69# div = dividend // divisor70# dividend = div71# if dividend % divisor == 0:72# continue73# elif dividend % divisor != 0 and dividend != 1:74# divisor += 175# condi = False76# elif dividend == 1:77# condi = False78# elif check == 'prime' and dividend % divisor != 0:79# divisor += 180# elif check == 'not prime':81# divisor += 182# print(f"Greatest Prime Divisor: {divisor}")83######################### EULER - 484# def str_rev(a):85# check = []86# for i in range(0, len(a)):87# alpha = a[-1* (i + 1)]88# check.append(alpha)89# return ''.join(check)90 91# combi = []92# for i in range(100, 1000):93# for j in range(100, 1000):94# combi.append(i * j)95# palins = []96# for alpha in combi:97# if str(alpha) == str_rev(str(alpha)):98# palins.append(alpha)99# else:100# pass101# print(max(palins))102 103######################### EULER - 5104# def prime_test(a): #a > 1105# if a != 2 and a % 2 == 0:106# return "not prime"107# elif a == 2 or a % 2 != 0:108# i = 2109# count = 0110# if a == i:111# return "prime"112# elif a != i:113# while i < a:114# if a % i != 0:115# count += 1116# i += 1117# elif a % i == 0:118# count = 0119# break120# if count == 0:121# return "not prime"122# elif count > 0:123# return "prime"124 125# def prime_fact(d):126# divisor = 2127# dividend = d128# divs_req = []129# while dividend >= divisor:130# check = prime_test(divisor)131# if check == 'prime' and dividend % divisor == 0:132# condi = True133# while condi:134# div = dividend // divisor135# dividend = div136# divs_req.append(divisor)137# if dividend % divisor == 0:138# continue139# elif dividend % divisor != 0 and dividend != 1:140# divisor += 1141# condi = False142# elif dividend == 1:143# condi = False144# elif check == 'prime' and dividend % divisor != 0:145# divisor += 1146# elif check == 'not prime':147# divisor += 1148# return divs_req149# print(f"Greatest Prime Divisor: {divisor}")150# print(f"Prime Factorization: {divs_req}")151# LCM152# def lcm_nos(a): #a is a list of the numbers153# fact = []154# fact_set = []155# common_count = {}156# common_min = {}157# final = 1158# for i in range(0, len(a)): 159# fact.append(prime_fact(a[i]))160# fact_set.append(set(prime_fact(a[i])))161# for j in range(1, len(fact_set)):162# fact_set[0] = fact_set[0].union(fact_set[j])163# for alpha in fact_set[0]:164# common_count[str(alpha)+"s"] = []165# for beta in fact:166# common_count[str(alpha)+"s"].append(beta.count(alpha))167# for k in fact_set[0]:168# common_min["min_"+str(k)+"s"] = max(common_count[str(k)+"s"])169# if common_min["min_"+str(k)+"s"] != 0:170# final *= k ** common_min["min_"+str(k)+"s"]171# else:172# pass 173# return final174# x= lcm_nos(list(range(1,20)))175# print(x)176# HCF not asked in Euler 5 but noted here for completeness of HCF & LCM stuff177#Extra178# def hcf_nos(a): #a is a list of the numbers179# fact = []180# fact_set = []181# common_count = {}182# common_min = {}183# final = 1184# for i in range(0, len(a)): 185# fact.append(prime_fact(a[i]))186# fact_set.append(set(prime_fact(a[i])))187# for j in range(1, len(fact_set)):188# fact_set[0] = fact_set[0].union(fact_set[j])189# for alpha in fact_set[0]:190# common_count[str(alpha)+"s"] = []191# # common_min["min_"+str(alpha)+"s"] = []192# for beta in fact:193# common_count[str(alpha)+"s"].append(beta.count(alpha))194# # common_min["min_"+str(alpha)+"s"].append(min(common_count[str(alpha)+"s"]))195# for k in fact_set[0]:196# common_min["min_"+str(k)+"s"] = min(common_count[str(k)+"s"])197# if common_min["min_"+str(k)+"s"] != 0:198# final *= k ** common_min["min_"+str(k)+"s"]199# else:200# pass201# return final202# x= hcf_nos([8, 12, 20])203# print(x)204######################### EULER - 6205# def ans(n):206# a = []207# b = []208# for i in range(1, n+1):209# a.append(i**2)210# b.append(i)211# alpha = sum(a)212# beta = (sum(b)) ** 2213# req = alpha - beta214# return abs(req)215# x = ans(100)216# print(x)217######################### EULER - 7218# n = int(input("Number: "))219# count_prime = 0220# that_prime = 0221# i = 2222# while count_prime != n:223# if prime_test(i) == 'prime':224# that_prime = i225# count_prime += 1226# i += 1227# else:228# i += 1229# print(that_prime)230######################### EULER - 8231# number = """232# 73167176531330624919225119674426574742355349194934233# 96983520312774506326239578318016984801869478851843234# 85861560789112949495459501737958331952853208805511235# 12540698747158523863050715693290963295227443043557236# 66896648950445244523161731856403098711121722383113237# 62229893423380308135336276614282806444486645238749238# 30358907296290491560440772390713810515859307960866239# 70172427121883998797908792274921901699720888093776240# 65727333001053367881220235421809751254540594752243241# 52584907711670556013604839586446706324415722155397242# 53697817977846174064955149290862569321978468622482243# 83972241375657056057490261407972968652414535100474244# 82166370484403199890008895243450658541227588666881245# 16427171479924442928230863465674813919123162824586246# 17866458359124566529476545682848912883142607690042247# 24219022671055626321111109370544217506941658960408248# 07198403850962455444362981230987879927244284909188249# 84580156166097919133875499200524063689912560717606250# 05886116467109405077541002256983155200055935729725251# 71636269561882670428252483600823257530420752963450"""252# numby = list(number)253# for i in numby:254# if i == '\n':255# numby.remove(i)256# else:257# pass258# alpha = ''.join(numby)259# start = 0260# end = 13261# greatest = 1262# prod = 1263# those_digs = 0264# while end != 1000:265# quad = alpha[start:end]266# for digit in quad:267# prod *= int(digit)268# if prod > greatest:269# greatest = prod270# those_digs = quad271# else:272# pass273# prod = 1274# start += 1275# end += 1276# print(f"Greatest Product: {greatest}")277# print(f"Corresponding {end - start} digits: {those_digs}")278######################### EULER - 9279# import math as m280# def pyth_trip():281# a = []282# b = []283# c = []284# triplets = []285# prod = 1286 287# for alpha in range(1, 1001):288# a.append(alpha**2)289# b.append(alpha**2)290# c.append(alpha**2)291# for i in a:292# for j in b:293# if j > i:294# for k in c:295# if k > j:296# if (i + j == k) and (int(m.sqrt(i)) + int(m.sqrt(j)) + int(m.sqrt(k)) == 1000):297# triplets.append([int(m.sqrt(i)), int(m.sqrt(j)), int(m.sqrt(k))])298# else:299# pass300# else:301# pass302# else:303# pass304 305# for z in triplets:306# for y in z:307# prod *= y308 309# print(f"Product of Pytho_Triplet: {prod}")310# print(f"Pytho_Triplet: {triplets}")311 312# pyth_trip()313 314######################### EULER - 10315# def prime_test(a): #a > 1316# if a != 2 and a % 2 == 0:317# return "not prime"318# elif a == 2 or a % 2 != 0:319# i = 2320# count = 0321# if a == i:322# return "prime"323# elif a != i:324# while i < a:325# if a % i != 0:326# count += 1327# i += 1328# elif a % i == 0:329# count = 0330# break331# if count == 0:332# return "not prime"333# elif count > 0:334# return "prime"335# def no_primes(b): # b > 0336# primes= []337# if b == 1:338# return primes339# elif b == 2:340# primes.append(b)341# return primes342# elif b > 2:343# primes.append(2)344# j = 3345# while j <= b:346# alpha = prime_test(j)347# if alpha == 'prime':348# primes.append(j)349# j += 1350# elif alpha == 'not prime':351# j += 1 352# return primes353# main1 = [i for i in range(1, 2000000, 2) if (i % 10 != 5 or i == 5)]354# listy = no_primes(20000) #with 20000 time=54 sec, with 40000, time=1.44 min355# for k in listy:356# main1 = [i for i in main1 if (i % k != 0 or i == k)]357# main1.remove(1)358# main1.insert(0,2)359# # print(main1[0:30])360# print(len(main1))...
factory.py
Source:factory.py
1import random2from tile import *3# number of tiles per factory4F_SIZE = 45def make_bag():6 ls = [t0] * 20 + [t1] * 20 + [t2] * 20 + [t3] * 20 + [t4] * 207 random.shuffle(ls)8 return ls9def necessary_factories(players):10 return 2 * (players - 2) + 511def split_by(ls, n):12 if len(ls) == 0:13 return []14 elif len(ls) < n:15 return [ls]16 else:17 rec = split_by(ls[n:], n)18 rec.insert(0, ls[:n])19 return rec20class FactorySet(object):21 def __init__(self, middle, factories):22 self.middle = middle23 self.factories = factories24 25def restock(bag, n):26 bag_cp = [b for b in bag]27 random.shuffle(bag_cp)28 shuffled_bag = bag_cp29 tiles = shuffled_bag[:F_SIZE * n]30 new_bag = shuffled_bag[F_SIZE * n - 1:]31 factories = split_by(tiles, F_SIZE)32 return new_bag, FactorySet([one_tile], factories)33def partition_by(pred, ls):34 ans = []35 other = []36 for t in ls:37 if pred(t):38 list.append(ans, t)39 else:40 list.append(other, t)41 return ans, other42def partition_factory(tile, f):43 return partition_by(lambda x: x == tile or x == one_tile, f)44def pull_from_factory(i, tile, fact_set):45 if i < 0:46 same, diff = partition_factory(tile, fact_set.middle)47 return same, FactorySet(diff, fact_set.factories) 48 else:49 desired_factory = fact_set.factories[i]50 same, diff = partition_factory(tile, desired_factory)51 return same, FactorySet(diff + fact_set.middle, 52 [[] if j == i else fact_set.factories[j] 53 for j in range(len(fact_set.factories))])54################################55# Printing Utilities #56################################57def fact_to_los(f, i):58 label = "f-" + str(i) + (" " * F_SIZE)59 tiles = ""60 for t in f:61 tiles = tiles + tile_to_str(t)62 return ["|" + label, "| " + (" " * (F_SIZE - len(f))) + tiles + " "]63def mid_to_los(m):64 label = "middle" + (" " * max(0, len(m) - 4))65 tiles = ""66 for t in m:67 tiles = tiles + tile_to_str(t)...
ssgp_eval.py
Source:ssgp_eval.py
1from typing import List, FrozenSet, Tuple2import argparse3from tqdm import tqdm4from .ie_eval import factseq2set5from nltk.stem import WordNetLemmatizer6lemmatizer = WordNetLemmatizer()7def preprocess_ssgp(fact_set: FrozenSet[Tuple[str, str, str]]) -> FrozenSet[Tuple[str, str, str]]:8 kept_facts = []9 for fact in fact_set:10 if not (fact[0].endswith("'") or fact[2].endswith("'")):11 kept_facts.append(fact)12 return frozenset(kept_facts)13def lemmatize_relations(fact_set: FrozenSet[Tuple[str, str, str]])\14 -> FrozenSet[Tuple[str, str, str]]:15 new_facts = []16 for fact in fact_set:17 new_facts.append(18 (fact[0], lemmatizer.lemmatize(fact[1], pos='v'), fact[2])19 )20 return frozenset(new_facts)21def read_graph_list(filename: str, ssgp: bool = False,22 ref: bool = False) -> List[FrozenSet[Tuple[str, str, str]]]:23 res = []24 with open(filename) as f:25 for line in tqdm(f):26 fact_set = factseq2set(line.strip().split())27 if ssgp:28 fact_set = preprocess_ssgp(fact_set)29 if ref:30 fact_set = lemmatize_relations(fact_set)31 res.append(fact_set)32 return res33def main(args: argparse.Namespace):34 hypo = read_graph_list(args.hypo, ssgp=True)35 ref = read_graph_list(args.ref, ref=True)36 correct_retrieved = 037 retrieved = 038 correct = 039 for h, r in tqdm(zip(hypo, ref)):40 correct_retrieved += len(h & r)41 retrieved += len(h)42 correct += len(r)43 precision = float(correct_retrieved) / float(retrieved)44 recall = float(correct_retrieved) / float(correct)45 f1_score = 2. * ((precision * recall) / (precision + recall + 1e-13))46 print('P {:.1f}'.format(precision*100))47 print('R {:.1f}'.format(recall*100))48 print('F1 {:.1f}'.format(f1_score*100))49if __name__ == '__main__':50 p = argparse.ArgumentParser()51 p.add_argument('hypo')52 p.add_argument('ref')53 args = p.parse_args()...
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