canvas = window.Canvas turtle = window.Turtle rand = 50 maxbreite = 400 - 2 * rand maxhoehe = 300 - 2 * rand def minmax(ls): erg = [0, 0] for i in range(len(ls)): if erg[0] > ls[i]: erg[0] = ls[i] if erg[1] < ls[i]: erg[1] = ls[i] return erg def balken(turtle, hoehe, breite): turtle.forward(breite); turtle.left(90) turtle.forward(hoehe); turtle.left(90) turtle.forward(breite); turtle.left(90) turtle.forward(hoehe); turtle.left(90) turtle.forward(breite) def balkendiagramm(turtle, ls): breite = maxbreite / len(ls) extrem = minmax(ls) minwert = extrem[0]; maxwert = extrem[1] turtle.penUp() turtle.right(90) turtle.move(rand, rand + maxwert / (maxwert - minwert) * maxhoehe) turtle.penDown() for i in range(len(ls)): balken(turtle, ls[i] / (maxwert - minwert) * maxhoehe, breite)
from random import randint def zufallsliste(von, bis, anz): ls = [] for i in range(anz): ls.append(randint(von, bis)) return ls def bubblesort(ls): for i in range(len(ls) - 1): for j in range(i, len(ls)): if ls[i] > ls[j]: ls[i], ls[j] = ls[j], ls[i] return ls
c1 = canvas.new(1); c1.clear() t1 = turtle.new(1); t1.hide() ls1 = zufallsliste(1, 100, 50) print(ls1) balkendiagramm(t1, ls1) c2 = canvas.new(2); c2.clear() t2 = turtle.new(2); t2.hide() ls2 = bubblesort(ls1) print(ls2) balkendiagramm(t2, ls2)
ausführen
