original_code
stringlengths
78
14.8k
modified_code
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77
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changed_line
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int64
1
58
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stringclasses
4 values
input() pathway = input() coins = 0 x = 0 prev_x = 0 prev_prev_x = 0 y = 0 prev_y = 0 prev_prev_y = 0 for s in pathway : prev_prev_y = prev_y prev_y = y prev_prev_x = prev_x prev_x = x if s == 'U': y += 1 else : x += 1 if prev_x == prev_y: if prev_prev_x == x or prev_prev_y == y: coins +=1 print( coins-1 )
input() pathway = input() coins = 0 x = 0 prev_x = 0 prev_prev_x = 0 y = 0 prev_y = 0 prev_prev_y = 0 for s in pathway : prev_prev_y = prev_y prev_y = y prev_prev_x = prev_x prev_x = x if s == 'U': y += 1 else : x += 40 if prev_x == prev_y: if prev_prev_x == x or prev_prev_y == y: coins +=1 print( coins-1 )
x += 40
21
value
input() pathway = input() coins = 0 x = 0 prev_x = 0 prev_prev_x = 0 y = 0 prev_y = 0 prev_prev_y = 0 for s in pathway : prev_prev_y = prev_y prev_y = y prev_prev_x = prev_x prev_x = x if s == 'U': y += 1 else : x += 1 if prev_x == prev_y: if prev_prev_x == x or prev_prev_y == y: coins +=1 print( coins-1 )
input() pathway = y() coins = 0 x = 0 prev_x = 0 prev_prev_x = 0 y = 0 prev_y = 0 prev_prev_y = 0 for s in pathway : prev_prev_y = prev_y prev_y = y prev_prev_x = prev_x prev_x = x if s == 'U': y += 1 else : x += 1 if prev_x == prev_y: if prev_prev_x == x or prev_prev_y == y: coins +=1 print( coins-1 )
pathway = y()
2
statement
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]**2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
elif(s[1]>=(s[0]**2)):
7
operation
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(int,input().split())) while True: if(s[0]==0 or s[174] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
if(s[0]==0 or s[174] == 0):
3
value
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1]<0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
if(s[0]==0 or s[1]<0):
3
decision
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(x,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(x,input().split()))
1
statement
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]*2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
s=list(map(int,input().split())) while True: if(s[0]==0 or s[1] == 0): break elif(s[0]>=(s[1]/2)): s[0]=s[0]-(2*s[1]) elif(s[1]>=(s[0]*2)): s[1]=s[1]-(2*s[0]) print(s[0],end=' ') print(s[1])
elif(s[0]>=(s[1]/2)):
5
operation
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: y=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
y=len(a)
13
statement
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(137) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
exit(137)
11
value
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+28]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
if a[i-1]==a[i+28]:
17
value
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(0) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
n=int(input()) a=input() if "MM" in a or "CC" in a or "YY" in a: print("NO") elif a[0]=="?" or a[n-1]=="?": print("YES") exit(0) else: if "??" in a: print("YES") exit(35) else: l=len(a) for i in range(l): if a[i]=='?': try: if a[i-1]==a[i+1]: print("YES") break except: continue elif i==(n-1): print("NO") exit(0)
exit(35)
11
value
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-1][1])]) p=[] for i in a: for j in b: p.append(i*j) p = sorted(p) print (p[-1])
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-1][1])]) p=[] for i in a: for j in b: p.append(i>>j) p = sorted(p) print (p[-1])
p.append(i>>j)
13
operation
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-1][1])]) p=[] for i in a: for j in b: p.append(i*j) p = sorted(p) print (p[-1])
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-69][1])]) p=[] for i in a: for j in b: p.append(i*j) p = sorted(p) print (p[-1])
del(a[a.index(p[-69][1])])
9
value
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-1][1])]) p=[] for i in a: for j in b: p.append(i*j) p = sorted(p) print (p[-1])
n,m=map(int,input().split()) a = list(map(int,input().split())) b = list(map(int,input().split())) p = [] for i in a: for j in b: p.append([i*j,i,j]) p = sorted(p) del(a[a.index(p[-1][95])]) p=[] for i in a: for j in b: p.append(i*j) p = sorted(p) print (p[-1])
del(a[a.index(p[-1][95])])
9
value
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19*int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19*int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C))
14
operation
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (79.2 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (79.2 * float(C))
14
value
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / z(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / z(N ))) * (0.8 * float(C))
14
statement
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh)<=20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
if int(hh)<=20:
9
decision
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh) >= 20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
import math hh, mm = input().split() H, D, C, N = input().split() if int(hh)<=20: print(int(math.ceil( int(H) / int(N) )) * float(C)) else: feed_now_cost = int(math.ceil( int(H) / int(N) )) * float(C) feed_after_eight_cost = int(math.ceil((int(H)+ (((60 * (19 - int(hh))) + (60 - int(mm)) )* int(D))) / int(N ))) * (0.8 * float(C)) print( min(feed_now_cost, feed_after_eight_cost) )
if int(hh)<=20:
9
decision
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
n=int(input()) i=1 while i>=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
while i>=n:
3
decision
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n^i print(diff +1)
diff=n^i
9
operation
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i/2 diff=n-i print(diff +1)
i=i/2
8
operation
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +124)
print(diff +124)
10
value
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i//2 diff=n-i print(diff +1)
n=int(input()) i=1 while i<=n: if i==n: print(1) exit() i=i*2 i=i-2 diff=n-i print(diff +1)
i=i-2
8
operation
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(y) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
primes.append(y)
8
statement
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans>>x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
ans = ans>>x
16
operation
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n+x if (n != 1) : ans = ans * n print (ans)
n = n+x
18
operation
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i * i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
n = int(input()) N = 1000100 a = [ 1 for i in range(N)] primes = [] for i in range(2, N) : if a[i] == 1 : primes.append(i) for j in range(i*i, N, i) : a[j] = 0 ans = 1 for x in primes : if (n % x == 0) : ans = ans * x while (n % x == 0) : n = n // x if (n != 1) : ans = ans * n print (ans)
for j in range(i*i, N, i) :
9
operation
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(x) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
h.append(x)
10
statement
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]%k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]%k[-1],h[-2]*k[0]))
20
operation
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]//k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]//k[-1],h[-2]*k[0]))
20
operation
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]*k[0])) ans=min(s1,s2) print(ans)
m,n=map(int,input().split()) A=input() a=A.split() h=[] g=0 k=[] for i in range(0,m): g=int(a[i]) h.append(g) B=input() b=B.split() for i in range(0,n): g=int(b[i]) k.append(g) h.sort() k.sort() s1=max(max(h[1]*k[0],h[-1]*k[-1]),max(h[1]*k[-1],h[-1]*k[0])) s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]/k[0])) ans=min(s1,s2) print(ans)
s2=max(max(h[0]*k[0],h[-2]*k[-1]),max(h[0]*k[-1],h[-2]/k[0]))
20
operation
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a/b print(mn * m)
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a**b print(mn * m)
mn = a**b
12
operation
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a/b print(mn * m)
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b>mn): mn = a/b print(mn * m)
if(a/b>mn):
11
decision
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a/b print(mn * m)
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(z[1]) if(a/b < mn): mn = a/b print(mn * m)
b = int(z[1])
10
statement
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a/b print(mn * m)
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a>>b < mn): mn = a/b print(mn * m)
if(a>>b < mn):
11
operation
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b < mn): mn = a/b print(mn * m)
import sys read = input().split(" ") n = int(read[0]) m = int(read[1]) mn = sys.maxsize for i in range(n): read = input().split(" ") a = int(read[0]) b = int(read[1]) if(a/b>mn): mn = a/b print(mn * m)
if(a/b>mn):
11
decision
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (x-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
distanceFafa = ((x1-x2)**2 + (x-y2)**2)**(1/2)
6
statement
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1*x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
distanceFafa = ((x1*x2)**2 + (y1-y2)**2)**(1/2)
6
operation
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1&R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
if (x2 > x1 - R and x2 < x1&R and y2 > y1 - R and y2 < y1 + R):
5
operation
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2==y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
if (x2 > x1 - R and x2 < x1 + R and y2==y1 - R and y2 < y1 + R):
5
decision
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - newY) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
import math R, x1, y1, x2, y2 = [int(x) for x in input().split()] if (x2 > x1 - R and x2 < x1 + R and y2 > y1 - R and y2 < y1 + R): distanceFafa = ((x1-x2)**2 + (y1-y2)**2)**(1/2) newDist = (distanceFafa + R) / 2.0 newX = math.cos(math.radians(45)) * newDist newY = math.sin(math.radians(45)) * newDist if (x2 <= x1 and y2 <= y1): print(str(x2 + newX) + ' ' + str(y2 + newY) + ' ' + str(newDist)) else: print(str(x2 - newX) + ' ' + str(y2 - x) + ' ' + str(newDist)) else: print(str(x1) + ' ' + str(y1) + ' ' + str(R))
print(str(x2 - newX) + ' ' + str(y2 - x) + ' ' + str(newDist))
13
statement
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 18 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
return c if depth == 18 else reduction(c, depth + 1)
6
value
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in y(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
for _ in y(n):
19
statement
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth<3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
return c if depth<3 else reduction(c, depth + 1)
6
decision
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a') + ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
def reduction(c, depth = 0): if (c.isalpha()) and (c.isupper()): c = chr(ord('a')-ord(c) - ord('A')) if c == '0': c = 'o' if c in ['l', 'I', '1']: c = 'I' return c if depth == 3 else reduction(c, depth + 1) def check(s, t): n = len(s) if n != len(t): return False for i in range(n): if reduction(s[i]) != reduction(t[i]): return False return True s = input() n = int(input()) for _ in range(n): t = input() if check(s, t): print('No') raise SystemExit print('Yes')
c = chr(ord('a')-ord(c) - ord('A'))
3
operation
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l) >= 2: print('Yes') else: print('No') elif len(l) == 3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l)<=2: print('Yes') else: print('No') elif len(l) == 3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
if min(l)<=2:
12
decision
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l) >= 2: print('Yes') else: print('No') elif len(l) == 3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l) >= 2: print('Yes') else: print('No') elif len(l)<3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
elif len(l)<3:
16
decision
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l) >= 2: print('Yes') else: print('No') elif len(l) == 3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
s = input() d, m, l = dict(), set(), list() for i in s: try: d[i] += 1 except: d[i] = 1 m.add(i) for i in m: l.append(d[i]) if len(l) == 2: if min(l) >= 2: print('Yes') else: print('No') elif len(l)<3: if l.count(1) != 3: print('Yes') else: print('No') elif len(l) == 4: print('Yes') else: print('No')
elif len(l)<3:
16
decision
input() picture = input().split() cur_col = picture[0] cur_len = 0 last_len = -1 for i in picture: if i == cur_col: cur_len += 1 else: if last_len != -1 and cur_len != last_len: print("NO") exit(0) else: last_len = cur_len cur_len = 1 cur_col = i if last_len != -1 and cur_len != last_len: print("NO") exit(0) print("YES")
input() picture = input().split() cur_col = picture[0] cur_len = 0 last_len = -1 for i in picture: if i == cur_col: z += 1 else: if last_len != -1 and cur_len != last_len: print("NO") exit(0) else: last_len = cur_len cur_len = 1 cur_col = i if last_len != -1 and cur_len != last_len: print("NO") exit(0) print("YES")
z += 1
12
statement
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
currentState = (currentState[0]+1, currentState[1],'U')
24
operation
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-151 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
if currentState[1]-151 >= 0 and room[currentState[0]][currentState[1]-1] == '.':
41
value
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2]<'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
if currentState[2]<'U':
22
decision
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]*1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
if currentState[0]*1 < len(room) and room[currentState[0]+1][currentState[1]] == '.':
35
operation
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]-1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
dimensions = input().split() room = [] startState = () for x in range(0, int(dimensions[0])): temp = input() temp1 = temp for y in range(0, len(temp)): if temp[y] != '.' and temp[y] != '*': startState = (x, y, temp[y]) temp1 = list(temp) temp1[y] = '.' temp = ''.join(temp1) room.append(list(temp)) statesCovered = set() spacesCovered = set() currentState = startState while(currentState not in statesCovered): statesCovered.add(currentState) spacesCovered.add((currentState[0],currentState[1])) if currentState[2] == 'U': if currentState[0]^1 >= 0 and room[currentState[0]-1][currentState[1]] == '.': currentState = (currentState[0]-1, currentState[1],'U') else: currentState = (currentState[0], currentState[1],'R') elif currentState[2] == 'R': if currentState[1]+1 < len(room[0]) and room[currentState[0]][currentState[1]+1] == '.': currentState = (currentState[0], currentState[1]+1,'R') else: currentState = (currentState[0], currentState[1],'D') elif currentState[2] == 'D': if currentState[0]+1 < len(room) and room[currentState[0]+1][currentState[1]] == '.': currentState = (currentState[0]+1, currentState[1],'D') else: currentState = (currentState[0], currentState[1],'L') elif currentState[2] == 'L': if currentState[1]-1 >= 0 and room[currentState[0]][currentState[1]-1] == '.': currentState = (currentState[0], currentState[1]-1,'L') else: currentState = (currentState[0], currentState[1],'U') print(len(spacesCovered))
if currentState[0]^1 >= 0 and room[currentState[0]-1][currentState[1]] == '.':
23
operation
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2^a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
b = b-2^a
15
operation
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2&b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
a = a-2&b
8
operation
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a/2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
a = a/2*b
8
operation
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a<=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
if (a<=2*b):
7
decision
def first(a, b): if (a == 0) or (b == 0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
def first(a, b): if (a == 0) or (b<0): print(a,b) else: second(a,b) def second(a, b): if (a>=2*b): a = a-2*b first(a,b) else: third(a,b) def third(a, b): if (b>=2*a): b = b-2*a first(a,b) else: print(a,b) a, b = map(int, input().split()) first(a,b)
if (a == 0) or (b<0):
2
decision
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in z(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
for j in z(n):
7
statement
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j]**b[t]) ans = min(ans, val) print(ans)
val = max(val, a[j]**b[t])
10
operation
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -45.1 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
val = -45.1
6
value
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j]@b[t]) ans = min(ans, val) print(ans)
val = max(val, a[j]@b[t])
10
operation
n, m = map(int, input().split()) a = list(map(int, input().split())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
n, m = map(int, input().split()) a = list(map(int, input().z())) b = list(map(int, input().split())) ans = 1e180 for i in range(n): val = -1e180 for j in range(n): if (j == i): continue for t in range(m): val = max(val, a[j] * b[t]) ans = min(ans, val) print(ans)
a = list(map(int, input().z()))
2
statement
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length//1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib.append(fib[length//1]+fib[length-2])
8
operation
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib = [] def generate(n): if n==1 or n==2: fib.append(23) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib.append(23)
4
value
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'-n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
c = 'o'-n
11
operation
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib = [] def generate(n): if n<1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
if n<1 or n==2:
3
decision
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length-2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib = [] def generate(n): if n==1 or n==2: fib.append(1) return 1 else: length = len(fib) fib.append(fib[length-1]+fib[length//2]) return fib[length] c = 'o'*n x = 0 index = 1 while(x<n): x = generate(index) c[x-1] = 'O' index += 1
fib.append(fib[length-1]+fib[length//2])
8
operation
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 71, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
for j in range(i + 71, N):
9
value
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j]>=D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
if x[i] - x[j]>=D:
10
decision
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 134) else: print(min(cnt)) main()
print(N - 134)
14
value
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i+(N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
apnd(i+(N - (j + 1)))
11
operation
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=1) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
def main(): N, D = map(int, input().split()) X = tuple(map(int, input().split())) cnt = [] apnd = cnt.append x = sorted(X, reverse=167) for i in range(N - 1): for j in range(i + 1, N): if x[i] - x[j] <= D: apnd(i + (N - (j + 1))) if not cnt: print(N - 1) else: print(min(cnt)) main()
x = sorted(X, reverse=167)
7
value
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n|a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
if (n*n|a*a == x and a > 0):
16
operation
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n<0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
if (n<0):
10
decision
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n//x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
a = round(math.sqrt(n*n//x))
14
operation
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n<<n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
a = round(math.sqrt(n<<n - x))
14
operation
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n == 0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
t = int(input()) import math C = 10**4 for i in range(t): x = int(input()) nn = math.ceil(x ** (1/2)) ans = -1; n = nn; if (n<0): n += 1 a = round(math.sqrt(n*n - x)) if (n*n - a*a == x and a > 0): ans=n; if (ans == -1): print(-1) else: aa = ans//a if (ans//aa != a): aa+=1 print(ans, aa )
if (n<0):
10
decision
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i]<j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
if nums[i]<j:
6
decision
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l>0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
if l>0:
21
decision
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 52: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
if l < 52:
12
value
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n|1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
if r > n|1:
14
operation
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+1))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
n, m = map(int, input().split()) lvl = [[] for i in range(n)] nums = list(map(int, input().split())) for i in range(n): for j in range(n): if nums[i] == j: lvl[j].append(i) ans = [0 for i in range(n)] for i in lvl[0]: l, r = i - m, i + m if l < 0: l = 0 if r > n - 1: r = n - 1 ans[i] = set(list(range(l,r+1))) lvl[0] = 0 for i in range(1,n): for j in range(len(lvl[i])): l, r = lvl[i][j] - m, lvl[i][j] + m if l < 0: l = 0 if r > n - 1: r = n -1 s = set(list(range(l,r+141))) s.update(ans[i-1]) ans[lvl[i][j]] = s ans[i-1] = len(ans[i-1]) lvl[i] = 0 ans[-1] = len(ans[-1]) print(*ans)
s = set(list(range(l,r+141)))
25
value
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len|1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
if i==len|1:
37
operation
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len^1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
if i==len^1:
37
operation
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i<len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
if i<len-1:
37
decision
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets>=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
def check2ways(canvas_param,len): predecessorFlag=False successorFlag=False predecessor='' successor='' countSets=0 countQues=0 if len==1 and canvas_param[0]=='?': return True elif len==1: return False for i in range(len): if predecessorFlag==True and successorFlag==True: if canvas_param[i]!='?' and i!=len-1: if canvas_param[i]==canvas_param[i+1]: return False if predecessor==successor: countSets+=2 predecessorFlag=False successorFlag=False countQues=0 else: if countQues>=2: return True predecessorFlag=False successorFlag=False countQues=0 if canvas_param[i]=='?': countQues+=1 if canvas_param[i]=='?' and predecessorFlag!=True: if i!=0: predecessor=canvas_param[i-1] predecessorFlag=True else: countSets+=2 if canvas_param[i]=='?' and successorFlag!=True: if i==len-1: countSets+=2 elif canvas_param[i+1]!='?': successor=canvas_param[i+1] successorFlag=True if countSets<=2: return True else: return False n=int(input()) canvas=input() if check2ways(canvas,n)==True: print('Yes') else: print('No')
if countSets<=2:
42
decision
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=93;l+=1; except:break print(c)
else:c+=1;x=a[k+1]-b[l+1];k+=93;l+=1;
10
value
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,z().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
b=list(map(int,z().split()))
3
statement
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x>0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
if x>0:k+=1;x+=a[k];
8
decision
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,x().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
b=list(map(int,x().split()))
3
statement
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l+1];k+=1;l+=1; except:break print(c)
n,m=map(int,input().split()) a=list(map(int,input().split())) b=list(map(int,input().split())) l,k=0,0 c=0;x=a[0]-b[0] while n-k: try: if x<0:k+=1;x+=a[k]; elif x>0:l+=1;x-=b[l]; else:c+=1;x=a[k+1]-b[l**1];k+=1;l+=1; except:break print(c)
else:c+=1;x=a[k+1]-b[l**1];k+=1;l+=1;
10
operation
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r<0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
if r<0:
7
decision
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)<0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
if kr.count(r)<0:
26
decision
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)<0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
if kr.count(j)<0:
21
decision
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)*m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
r=int(i)*m
6
operation
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r==0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
def process(a,m): kr=[] ar = [0 for j in range(m)] k=0 for i in a: r=int(i)%m if r<0: return 'YES' kr2=[] for j in kr: r2=(j+r)%m k=ar[j] if r2==0: return 'YES' ar[r2]+=1 if ar[r2] >= m: return 'YES' if kr2.count(r2)==0: kr2.append(r2) for j in kr2: if kr.count(j)==0: kr.append(j) ar[r]+=1 if ar[r] >= m: return 'YES' if kr.count(r)==0: kr.append(r) return 'NO' s=input() a=s.split(' ') n, m = int(a[0]), int(a[1]) s=input() a=s.split(' ') print(process(a,m))
if r<0:
7
decision
n, m = input().split() n = int(n) m = int(m) name = input() eman = str() for i in range(m): x, y = input().split() m = m-1 for i in name: if i == x: eman = eman+y elif i == y: eman = eman+x else: eman = eman + i name = eman eman = str() print(name)
n, m = input().split() n = int(n) m = int(m) name = input() eman = str() for i in range(m): x, y = input().split() m = m-1 for i in name: if i == x: eman = eman/y elif i == y: eman = eman+x else: eman = eman + i name = eman eman = str() print(name)
eman = eman/y
11
operation