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Edit File : forest.py \| Size : 2.90 KB
#! /usr/bin/python3.8 """ turtlegraphics-example-suite: tdemo_forest.py Displays a 'forest' of 3 breadth-first-trees similar to the one in tree. For further remarks see tree.py This example is a 'breadth-first'-rewrite of a Logo program written by Erich Neuwirth. See http://homepage.univie.ac.at/erich.neuwirth/ """ from turtle import Turtle, colormode, tracer, mainloop from random import randrange from time import perf_counter as clock def symRandom(n): return randrange(-n,n+1) def randomize( branchlist, angledist, sizedist ): return [ (angle+symRandom(angledist), sizefactor1.01symRandom(sizedist)) for angle, sizefactor in branchlist ] def randomfd( t, distance, parts, angledist ): for i in range(parts): t.left(symRandom(angledist)) t.forward( (1.0 distance)/parts ) def tree(tlist, size, level, widthfactor, branchlists, angledist=10, sizedist=5): # benutzt Liste von turtles und Liste von Zweiglisten, # fuer jede turtle eine! if level > 0: lst = [] brs = [] for t, branchlist in list(zip(tlist,branchlists)): t.pensize( size * widthfactor ) t.pencolor( 255 - (180 - 11 * level + symRandom(15)), 180 - 11 * level + symRandom(15), 0 ) t.pendown() randomfd(t, size, level, angledist ) yield 1 for angle, sizefactor in branchlist: t.left(angle) lst.append(t.clone()) brs.append(randomize(branchlist, angledist, sizedist)) t.right(angle) for x in tree(lst, size*sizefactor, level-1, widthfactor, brs, angledist, sizedist): yield None def start(t,x,y): colormode(255) t.reset() t.speed(0) t.hideturtle() t.left(90) t.penup() t.setpos(x,y) t.pendown() def doit1(level, pen): pen.hideturtle() start(pen, 20, -208) t = tree( [pen], 80, level, 0.1, [[ (45,0.69), (0,0.65), (-45,0.71) ]] ) return t def doit2(level, pen): pen.hideturtle() start(pen, -135, -130) t = tree( [pen], 120, level, 0.1, [[ (45,0.69), (-45,0.71) ]] ) return t def doit3(level, pen): pen.hideturtle() start(pen, 190, -90) t = tree( [pen], 100, level, 0.1, [[ (45,0.7), (0,0.72), (-45,0.65) ]] ) return t # Hier 3 Baumgeneratoren: def main(): p = Turtle() p.ht() tracer(75,0) u = doit1(6, Turtle(undobuffersize=1)) s = doit2(7, Turtle(undobuffersize=1)) t = doit3(5, Turtle(undobuffersize=1)) a = clock() while True: done = 0 for b in u,s,t: try: b.__next__() except: done += 1 if done == 3: break tracer(1,10) b = clock() return "runtime: %.2f sec." % (b-a) if __name__ == '__main__': main() mainloop() Back

Edit File : forest.py | Size : 2.90 KB

#! /usr/bin/python3.8
"""     turtlegraphics-example-suite:

tdemo_forest.py

Displays a 'forest' of 3 breadth-first-trees
similar to the one in tree.
For further remarks see tree.py

This example is a 'breadth-first'-rewrite of
a Logo program written by Erich Neuwirth. See
http://homepage.univie.ac.at/erich.neuwirth/
"""
from turtle import Turtle, colormode, tracer, mainloop
from random import randrange
from time import perf_counter as clock

def symRandom(n):
    return randrange(-n,n+1)

def randomize( branchlist, angledist, sizedist ):
    return [ (angle+symRandom(angledist),
              sizefactor*1.01**symRandom(sizedist))
                     for angle, sizefactor in branchlist ]

def randomfd( t, distance, parts, angledist ):
    for i in range(parts):
        t.left(symRandom(angledist))
        t.forward( (1.0 * distance)/parts )

def tree(tlist, size, level, widthfactor, branchlists, angledist=10, sizedist=5):
    # benutzt Liste von turtles und Liste von Zweiglisten,
    # fuer jede turtle eine!
    if level > 0:
        lst = []
        brs = []
        for t, branchlist in list(zip(tlist,branchlists)):
            t.pensize( size * widthfactor )
            t.pencolor( 255 - (180 - 11 * level + symRandom(15)),
                        180 - 11 * level + symRandom(15),
                        0 )
            t.pendown()
            randomfd(t, size, level, angledist )
            yield 1
            for angle, sizefactor in branchlist:
                t.left(angle)
                lst.append(t.clone())
                brs.append(randomize(branchlist, angledist, sizedist))
                t.right(angle)
        for x in tree(lst, size*sizefactor, level-1, widthfactor, brs,
                      angledist, sizedist):
            yield None

def start(t,x,y):
    colormode(255)
    t.reset()
    t.speed(0)
    t.hideturtle()
    t.left(90)
    t.penup()
    t.setpos(x,y)
    t.pendown()

def doit1(level, pen):
    pen.hideturtle()
    start(pen, 20, -208)
    t = tree( [pen], 80, level, 0.1, [[ (45,0.69), (0,0.65), (-45,0.71) ]] )
    return t

def doit2(level, pen):
    pen.hideturtle()
    start(pen, -135, -130)
    t = tree( [pen], 120, level, 0.1, [[ (45,0.69), (-45,0.71) ]] )
    return t

def doit3(level, pen):
    pen.hideturtle()
    start(pen, 190, -90)
    t = tree( [pen], 100, level, 0.1, [[ (45,0.7), (0,0.72), (-45,0.65) ]] )
    return t

# Hier 3 Baumgeneratoren:
def main():
    p = Turtle()
    p.ht()
    tracer(75,0)
    u = doit1(6, Turtle(undobuffersize=1))
    s = doit2(7, Turtle(undobuffersize=1))
    t = doit3(5, Turtle(undobuffersize=1))
    a = clock()
    while True:
        done = 0
        for b in u,s,t:
            try:
                b.__next__()
            except:
                done += 1
        if done == 3:
            break

tracer(1,10)
    b = clock()
    return "runtime: %.2f sec." % (b-a)

if __name__ == '__main__':
    main()
    mainloop()

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