Wright State University Lake Campus/2019-9/Python dice

###From lesson 4 of Day 1 we have:
#####Lesson 1
##import random
##Nthrow=10 #We need to control how many dice are thrown
##nDecayed=0 #initial count
##nSurvived=0 #initial ocount
##for nThrow in range(Nthrow):
##    if random.randint(1,6)==6:
##        nDecayed+=1 #fancy way to add 1 to nDecayed
##        print("Decayed:",nDecayed)        
##    else:
##        nSurvived+=1 #adds on to number that survived
##        print("Survived:",nSurvived)
##print(nDecayed,'decayed\n', nSurvived,'survived')

### lesson 2 Turn this into a function so we don't need to look at it:
###Google {python simple function return variable}
###https://www.python-course.eu/python3_functions.php
###Warning: Don't use the Docstring in main function (considered a bad habit)
##import random
##def throwSomeDice(Nthrow):
##    print("Inside function throwSomeDice, with", Nthrow,"dice")
##
##    nDecayed=0 #initial count
##    nSurvived=0 #initial ocount
##    for nThrow in range(Nthrow):
##        rolledThis=random.randint(1,6)
##        if rolledThis==6:
##            nDecayed+=1 #fancy way to add 1 to nDecayed
##            print("Rooled",rolledThis,"Decayed:",nDecayed)        
##        else:
##            nSurvived+=1 #adds on to number that survived
##            print("Rooled",rolledThis,"Survived:",nSurvived)
##    print(nDecayed,'decayed\n', nSurvived,'survived')
##    print("Leaving function throwSomeDice")
##    return nSurvived
##print(throwSomeDice(10), 'are left')

##import random
##def throwSomeDice(Nthrow):
##    print("Inside function throwSomeDice, with", Nthrow,"dice")
##
##    nDecayed=0 #initial count
##    nSurvived=0 #initial ocount
##    for nThrow in range(Nthrow):
##        rolledThis=random.randint(1,6)
##        if rolledThis==6:
##            nDecayed+=1 #fancy way to add 1 to nDecayed
##            print("Rooled",rolledThis,"Decayed:",nDecayed)        
##        else:
##            nSurvived+=1 #adds on to number that survived
##            print("Rooled",rolledThis,"Survived:",nSurvived)
##    print(nDecayed,'decayed\n', nSurvived,'survived')
##    print("Leaving function throwSomeDice")
##    return nSurvived
##print(throwSomeDice(10), 'are left')

##def throwSomeDice(Nthrow):
##    print("Inside function throwSomeDice, with", Nthrow,"dice")
##
##    nDecayed=0 #initial count
##    nSurvived=0 #initial ocount
##    for nThrow in range(Nthrow):
##        rolledThis=random.randint(1,6)
##        if rolledThis==6:
##            nDecayed+=1 #fancy way to add 1 to nDecayed
##            print("Rooled",rolledThis,"Decayed:",nDecayed)        
##        else:
##            nSurvived+=1 #adds on to number that survived
##            print("Rooled",rolledThis,"Survived:",nSurvived)
##    print(nDecayed,'decayed\n', nSurvived,'survived')
##    print("Leaving function throwSomeDice")
##    return nSurvived

#program.py
#http://zetcode.com/tkinter/drawing/
from tkinter import Tk, Canvas, Frame, BOTH
from diceFunctions import throwSomeDice

experiment=[22, 21, 21, 16, 10, 11, 6]

theory=[]
for i in range(len(experiment)):
    theory.append( experiment[0] * (5/6)**i  )
baseline=[0,0,0,0,0,0,0]

def simulate(experiment):
    Ndice=experiment[0]
    Nthrows=len(experiment)-1
    output=[Ndice]
    for i in range(Nthrows):
        Ndice=throwSomeDice(Ndice)
        output.append(Ndice)
    return output

def makeProcessed(raw,count):
    output=[]
    for i in range(len(raw)):
        output.append(100+100*i)
        output.append(24*30-30*raw[i]-count)
    return output

class Example(Frame):
    def __init__(self):
        super().__init__()
        self.initUI()

    def initUI(self):
        ###############################
        SHIFT=.15#.25 #vertical shift to delete overlap
        HALF=20#10 #Make 2*HALF graphs       
        #################################
        self.master.title("Lines")
        self.pack(fill=BOTH, expand=1)
        canvas = Canvas(self)
        canvas.create_line(makeProcessed(baseline,0),dash=(4,2))
        shift=0
        for count in range(2*HALF):
            shift+=SHIFT
            simData=simulate(experiment)
            canvas.create_line(makeProcessed(simData,shift))

        canvas.create_line(makeProcessed(experiment,HALF*SHIFT),fill="red")
        canvas.create_line(makeProcessed(theory,HALF*SHIFT),
           fill='blue', dash=(2,1))        
        canvas.pack(fill=BOTH, expand=1)       
def main():
    root = Tk()
    ex = Example()
    root.geometry("3000x800+5+5")
    root.mainloop()

if __name__ == '__main__':
    main()

#diceFunctions.py 
import random
def throwSomeDice(Nthrow):
    '''Throws Nthrow dice and returns the number of sixes'''

    nDecayed=0 #initial count
    nSurvived=0 #initial ocount
    for nThrow in range(Nthrow):
        rolledThis=random.randint(1,6)
        if rolledThis==6:
            nDecayed+=1 #fancy way to add 1 to nDecayed
            #print("Rooled",rolledThis,"Decayed:",nDecayed)        
        else:
            nSurvived+=1 #adds on to number that survived
            #print("Rooled",rolledThis,"Survived:",nSurvived)
    #print(nDecayed,'decayed\n', nSurvived,'survived')
    #print("Leaving function throwSomeDice")
    return nSurvived