from string import * from PIL import Image from numpy import * from pylab import * from math import * arc = array([[270,332,31,61,194],[62,59,30,133,76]]) cl = array([[128,252,0],[230,230,250],[248,255,128],[128,183,255],[153,217,234]]) a = array([4,9,2,4,5]) def todegree(x,y): an = y/math.sqrt(x*x+y*y) ag = math.degrees(math.asin(an)) if x>0 and y>0: return [ag] if x<0 and y>0: return [180-ag] if x<0 and y<0: return [180-ag] if x > 0 and y < 0: return [360+ag] if x==0 and y>0: return [90] if x==0 and y<0: return [270] if x>0 and y==0: return [0] if x<0 and y==0: return [180] def ACOLOR(n): xa = int(A[n].split(",")[0]) ya = int(A[n].split(",")[1]) for li in lists: x = int(li.split(",")[0]) y = int(li.split(",")[1]) if (x-xa)*(x-xa)+(y-ya)*(y-ya) <= 6: map.append(str(x)+","+str(y)+","+str(cl[0])) lists.remove(str(x)+","+str(y)) A.append(str(x)+","+str(y)) def BCOLOR(n): xa = int(B[n].split(",")[0]) ya = int(B[n].split(",")[1]) for li in lists: 

x = int(li.split(",")[0]) y = int(li.split(",")[1]) if (x-xa)*(x-xa)+(y-ya)*(y-ya) <= 9: map.append(str(x)+","+str(y)+","+str(cl[0])) lists.remove(str(x)+","+str(y)) B.append(str(x)+","+str(y)) def CCOLOR(n): xa = int(C[n].split(",")[0]) ya = int(C[n].split(",")[1]) for li in lists: x = int(li.split(",")[0]) y = int(li.split(",")[1]) if (x-xa)*(x-xa)+(y-ya)*(y-ya) <= 9: map.append(str(x)+","+str(y)+","+str(cl[0])) lists.remove(str(x)+","+str(y)) C.append(str(x)+","+str(y)) def DCOLOR(n): xa = int(D[n].split(",")[0]) ya = int(D[n].split(",")[1]) for li in lists: x = int(li.split(",")[0]) y = int(li.split(",")[1]) if (x-xa)*(x-xa)+(y-ya)*(y-ya) <= 9: map.append(str(x)+","+str(y)+","+str(cl[0])) lists.remove(str(x)+","+str(y)) D.append(str(x)+","+str(y)) def ECOLOR(n): xa = int(E[n].split(",")[0]) ya = int(E[n].split(",")[1]) for li in lists: x = int(li.split(",")[0]) y = int(li.split(",")[1]) if (x-xa)*(x-xa)+(y-ya)*(y-ya) <= 9: map.append(str(x)+","+str(y)+","+str(cl[0])) lists.remove(str(x)+","+str(y)) E.append(str(x)+","+str(y)) arr = array(Image.open("D:\\JAVA\\JAVA 项目 1\\8-1.bmp")) A = [] B = [] C = [] D = [] E = [] lists = [] 

map = [] black = [] m,n = arr.shape[0:2] for x in range(m): for y in range(n): if all(arr[x][y] == [0,0,0]): black.append(str(x)+","+str(y)) elif all(arr[x][y] == [204,204,204]): lists.append(str(x)+","+str(y)) else: map.append(str(x)+","+str(y)+","+str(arr[x][y])) for b in black: x = int(b.split(",")[0]) y = int(b.split(",")[1]) ag = todegree(x - 502,399 - y) if arc[0][0]+arc[1][0] < 360 and ag >= arc[0][0] and ag <= arc[1][0]+arc[0][0]: A.append(str(x)+","+str(y)) for b in black: x = int(b.split(",")[0]) y = int(b.split(",")[1]) ag = todegree(x - 499,352 - y) if arc[0][1]+arc[1][1] > 360 and (ag >= arc[0][1] or ag <= arc[1][1]+arc[0][1]-360): B.append(str(x)+","+str(y)) for b in black: x = int(b.split(",")[0]) y = int(b.split(",")[1]) ag = todegree(x - 499,352 - y) if arc[0][2]+arc[1][2] < 360 and ag >= arc[0][2] and ag <= arc[1][2]+arc[0][2]: C.append(str(x)+","+str(y)) if arc[0][2]+arc[1][2] > 360 and (ag >= arc[0][2] or ag <= arc[1][2]+arc[0][2]-360): C.append(str(x)+","+str(y)) for b in black: x = int(b.split(",")[0]) y = int(b.split(",")[1]) ag = todegree(x - 499,352 - y) if arc[0][3]+arc[1][3] < 360 and ag >= arc[0][3] and ag <= arc[1][3]+arc[0][3]: D.append(str(x)+","+str(y)) if arc[0][3]+arc[1][3] > 360 and (ag >= arc[0][3] or ag <= arc[1][3]+arc[0][3]-360): 

D.append(str(x)+","+str(y)) for b in black: x = int(b.split(",")[0]) y = int(b.split(",")[1]) ag = todegree(x - 499,352 - y) if arc[0][4]+arc[1][4] < 360 and ag >= arc[0][4] and ag <= arc[1][4]+arc[0][4]: E.append(str(x)+","+str(y)) if arc[0][4]+arc[1][4] > 360 and (ag >= arc[0][4] or ag <= arc[1][4]+arc[0][4]-360): E.append(str(x)+","+str(y)) counta = len(A); countb = len(B); countc = len(C); countd = len(D); counte = len(E); count = [] n = 0 for i in range(5): count.append(len(lists) * a[i] / 24 + 50) while 1 > 0 : print(len(lists)) if len(lists) > 10: for i in range(a[0]): if len(A) - counta < count[0]: ACOLOR((n*a[0]+i)%len(A)); for i in range(a[1]): if len(B) - countb < count[1]: BCOLOR((n*a[1]+i)%len(B)); for i in range(a[2]): if len(C) - countc < count[2]: CCOLOR((n*a[2]+i)%len(C)); for i in range(a[3]): if len(D) - countd < count[3]: DCOLOR((n*a[3]+i)%len(D)); for i in range(a[4]): if len(E) - counte < count[4]: ECOLOR((n*a[4]+i)%len(E)); else: n = n+1 break print(map) print(len(map))