# [Original] python two-color ball Prediction Based on Big Data reality, python two-color ball

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[Original] python two-color ball Prediction Based on Big Data reality, python two-color ball

Prerequisites: use SQL to filter out the top five most likely occurrences of each ball

Principle: First crawls all historical data, then simulates the lottery player's playing mechanism and carries out a lot of simulation calculations until a certain number in the list appears and stops.

Note: Due to the large amount of data in the computing process, you need to add the memory for release.

Result: At present, the best record for bloggers is 3 red and 1 blue, which is suitable for learning and communication.

`# Coding = utf-8import randomimport timeimport gcimport datetimefrom collections import Countertry: dt = datetime. datetime. now () time. sleep (1) print U' program start time: '+ dt. strftime ('% Y-% m-% d % H: % M: % s') time. sleep (2) print U' program is calculating ...... 'real_red_1 = [1, 2, 3, 4, 5] real_red_2 = [7, 8, 6, 9, 5] real_red_3 = [14, 11, 13, 16, 12] real_red_4 = [20, 17, 22, 23, 18] real_red_5 = [26, 27, 25, 28, 24] real_red_6 = [32, 33, 31, 30, 29] real_blue = [9, 12, 11, 14, 6, 13, 7, 15] def num_red_1 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_1 () bingonum_red_1 = num_red_1 () if bingonum_red_1 not in real_red_1: continue c = Counter (numlist) # print c [bingonum_red_1] if bingonum_red_1 = 1: numberA = c [bingonum_red_1]/float (50000) numberB = 384/float (2004) # print numberA # print numberB # print '%. 2f % '% (numberA/numberB * 100) print u'1's red ball prediction completed' + ''+ U' number: '+ str (bingonum_red_1) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_1 = 2: numberA = c [bingonum_red_1]/float (50000) numberB = 307/float (2004) print u'1's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_1) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_1 = 3: numberA = c [bingonum_red_1]/float (50000) numberB = 255/float (2004) print u'1's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_1) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_1 = 4: numberA = c [bingonum_red_1]/float (50000) numberB = 209/float (2004) print u'1's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_1) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_1]/float (50000) numberB = 175/float (2004) print u'1's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_1) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_red_2 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_2 () bingonum_red_2 = num_red_2 () if bingonum_red_2 not in real_red_2: continue c = Counter (numlist) if bingonum_red_2 = 7: numberA = c [bingonum_red_2]/float (50000) numberB = 181/float (2004) print u'2 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_2) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_2 = 8: numberA = c [bingonum_red_2]/float (50000) numberB = 168/float (2004) print u'2 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_2) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_2 = 6: numberA = c [bingonum_red_2]/float (50000) numberB = 160/float (2004) print u'2 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_2) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_2 = 9: numberA = c [bingonum_red_2]/float (50000) numberB = 140/float (2004) print u'2 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_2) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_2]/float (50000) numberB = 140/float (2004) print u'2 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_2) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_red_3 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_3 () bingonum_red_3 = num_red_3 () if bingonum_red_3 not in real_red_3: continue c = Counter (numlist) if bingonum_red_3 = 14: numberA = c [bingonum_red_3]/float (50000) numberB = 147/float (2004) print u'3's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_3) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_3 = 11: numberA = c [bingonum_red_3]/float (50000) numberB = 136/float (2004) print u'3's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_3) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_3 = 13: numberA = c [bingonum_red_3]/float (50000) numberB = 129/float (2004) print u'3's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_3) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_3 = 16: numberA = c [bingonum_red_3]/float (50000) numberB = 128/float (2004) print u'3's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_3) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_3]/float (50000) numberB = 125/float (2004) print u'3's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_3) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_red_4 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_4 () bingonum_red_4 = num_red_4 () if bingonum_red_4 not in real_red_4: continue c = Counter (numlist) if bingonum_red_4 = 20: numberA = c [bingonum_red_4]/float (50000) numberB = 147/float (2004) print u'4's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_4) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_4 = 17: numberA = c [bingonum_red_4]/float (50000) numberB = 146/float (2004) print u'4's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_4) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_4 = 22: numberA = c [bingonum_red_4]/float (50000) numberB = 144/float (2004) print u'4's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_4) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_4 = 23: numberA = c [bingonum_red_4]/float (50000) numberB = 132/float (2004) print u'4's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_4) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_4]/float (50000) numberB = 129/float (2004) print u'4's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_4) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_red_5 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_5 () bingonum_red_5 = num_red_5 () if shard not in real_red_5: continue c = Counter (numlist) if bingonum_red_5 = 26: numberA = c [bingonum_red_5]/float (50000) numberB = 173/float (2004) print u'fifth red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_5) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_5 = 27: numberA = c [bingonum_red_5]/float (50000) numberB = 167/float (2004) print u'5th red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_5) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_5 = 25: numberA = c [bingonum_red_5]/float (50000) numberB = 164/float (2004) print u'5th red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_5) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_5 = 28: numberA = c [bingonum_red_5]/float (50000) numberB = 160/float (2004) print u'5th red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_5) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_5]/float (50000) numberB = 133/float (2004) print u'fifth red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_5) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_red_6 (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 33) gc. collect () numlist_2.append (random. randint (1, 33) gc. collect () numlist_3.append (random. randint (1, 33) gc. collect () numlist_4.append (random. randint (1, 33) gc. collect () numlist_5.append (random. randint (1, 33) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_red_6 () bingonum_red_6 = num_red_6 () if shard not in real_red_6: continue c = Counter (numlist) if bingonum_red_6 = 32: numberA = c [bingonum_red_6]/float (50000) numberB = 309/float (2004) print u'6 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_6) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_6 = 33: numberA = c [bingonum_red_6]/float (50000) numberB = 307/float (2004) print u'6's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_6) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_6 = 31: numberA = c [bingonum_red_6]/float (50000) numberB = 249/float (2004) print u'6's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_6) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_red_6 = 30: numberA = c [bingonum_red_6]/float (50000) numberB = 221/float (2004) print u'6's red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_6) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_red_6]/float (50000) numberB = 202/float (2004) print u'6 red ball prediction completed '+ ''+ U' number:' + str (bingonum_red_6) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break time. sleep (5) def num_blue (): I = 0 numlist_1 = [] numlist_2 = [] numlist_3 = [] numlist_4 = [] numlist_5 = [] while I <10000: I = I + 1 numlist_1.append (random. randint (1, 16) gc. collect () numlist_2.append (random. randint (1, 16) gc. collect () numlist_3.append (random. randint (1, 16) gc. collect () numlist_4.append (random. randint (1, 16) gc. collect () numlist_5.append (random. randint (1, 16) global numlist = numlist_1 + numlist_2 + numlist_3 + numlist_4 + numlist_5 numpercent = {} for d in set (numlist): numpercent [numlist. count (d)] = d for e in reversed (sorted (numpercent. keys () [-1:]): return numpercent [e] while True: for I in range (10000): num_blue () bingonum_blue = num_blue () if bingonum_blue not in real_blue: continue c = Counter (numlist) if bingonum_blue = 9: numberA = c [bingonum_blue]/float (50000) numberB = 140/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 12: numberA = c [bingonum_blue]/float (50000) numberB = 136/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 11: numberA = c [bingonum_blue]/float (50000) numberB = 135/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 14: numberA = c [bingonum_blue]/float (50000) numberB = 130/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 6: numberA = c [bingonum_blue]/float (50000) numberB = 129/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 13: numberA = c [bingonum_blue]/float (50000) numberB = 129/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) elif bingonum_blue = 7: numberA = c [bingonum_blue]/float (50000) numberB = 128/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) + ''+ U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) else: numberA = c [bingonum_blue]/float (50000) numberB = 128/float (2004) print U' blue ball prediction completed '+ ''+ U' number:' + str (bingonum_blue) +'' + U' winning probability '+ str (' %. 2f % '% (numberB * (1 + numberA) * 100) break breakfinally: raw_input ()`

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