rsheldiii

import Image,sys,struct,time,os

BLACK,WHITE = 0,1
def rasterToImg(name,width,height,directions):
    name,ext = os.path.splitext(name)
    arr = [WHITE for j in range(0,width*height)]
    x,y = 0,0
    size = width,height
        
    dic = {"N":(0,-1), "S" : (0,1) , "E" : (1,0), "W" : (-1,0)}

rsheldiii

def encodingDict(scrambledAlphabet):
    adfgvxIndex = ['A','D','F','G','V','X']    
    encodeDict = {}

    for i in range(0,6):
        for j in range(0,6):
            encodeDict[scrambledAlphabet[i*6+j]] = adfgvxIndex[i]+adfgvxIndex[j]
    return encodeDict
        
def DecryptOnSpace(encryptedString,codeWord):

rsheldiii

def normalize(plainString,scrambledAlphabet):
    plainString = plainString.upper().replace("J","I")
    for letter in plainString:
        if letter not in scrambledAlphabet:
            plainString = plainString.replace(letter,'')

    #print(plainString)
    return plainString

rsheldiii

"""CONVENTIONS:
positions are done row-column from the bottom left and are both numbers. This corresponds to the alpha-number system in traditional chess while being computationally useful. they are specified as tuples
"""
import itertools
WHITE = "white"
BLACK = "black"

rsheldiii

from __future__ import division
import sys, pygame, time
import numpy as N
import pygame.surfarray as surfarray

pygame.init()

size = width, height = 1024,768

xlength,xoffset = 3.5, -2.5