def draw():
colors = ("red", "orange", "yellow", "green", "blue", "purple", "black")
t_names = ["r", "o", "y", "g", "b", "p", "bl"]
turtles = []
usr_quit = False
q_btn = turtle.Turtle()
q_btn.pu()
q_btn.hideturtle()
q_btn.goto(290, -300)
q_btn.showturtle()
q_btn.write("Quit", align="center", font=("Cooper Black", 12, "normal"))
##screen.onclick(usr_turtle.goto)
usr_turtle.ondrag(usr_turtle.goto)
screen.listen()
screen.onclick(p_goto)
screen.onkeypress(usr_turtle.reset, "r")
T_xLoc = -200
for index, i in enumerate(colors):
n = t_names[index]
t = turtle.Turtle(name = n)
turtles.append(t)#, t.name)
t.hideturtle()
t.pu()
t.goto(T_xLoc, -300)
t.showturtle()
t.pencolor(i)
t.fillcolor(i)
t.write(i, "%s Pallete" % i, align="right", font=("Cooper Black", 12, "normal"))
t.onclick(usr_turtle.pencolor, args=i)
print (i)
T_xLoc += 60
##print ("#DEBUG", t.name)
screen.onkeypress(quit, "q")
print (turtles)
def create_turtle():
name = input("Please give your turtle a name: \n")
isRight = "You named your turtle %s, are you sure? \n [y] or [n] \n" % name
valids = ['y', 'n']
ans = good_input(isRight, valids)
if (ans == 'y'):
print ("You created a turtle! \n His/Her name is %s" % name)
usr_turtle = turtle.Turtle(name=name)
return usr_turtle
else:
create_turtle()
if bu == 'green':
player_start()
g.checked = False
elif bu == 'red':
player.stop()
elif bu == 'cyan':
next1()
buttons.off('cyan')
elif bu == 'white':
player.clear()
elif bu == 'turtle':
player.toggle_turtle()
# initialisation
aim = my_turtle.Turtle(.014, 8, (6, 1))
aim_setup()
player = my_turtle.Turtle(.028, 15, (15.5, 1))
player.draw_turtle()
angler = angler.Angler(8, 16.5, 5)
# buttons
x = g.sx(4)
y = g.sy(7.5)
buttons.Button("cyan", (x, y))
x = g.sx(18.6)
y = g.sy(17.8)
dx = (g.sx(27.6) - x) / 3.0
buttons.Button("green", (x, y))
x += dx
buttons.Button("red", (x, y))
x += dx
pairs.append((i, values[index + 1]))
#ODD:
else:
print (len(values), "# of values \n")
"""BREAK:"""
for index, i in enumerate(values):
##print (index, i)
if not(index == (len(values) - 1)):
#if not(last value in values):
if (index % 2 == 0):
pairs.append((i, values[index + 1]))
else:
pairs.append(i)
return pairs, is_even
def srt_pairs(values, is_even, t):
print ("#VALUES: \n %s" % values)
for i
screen = turtle.Screen()
my_turtle = turtle.Turtle(name="main")
test_values = [3, 2, 5, 1, 7, 10, 20, 3, 16, 50, 100, 32, 40, 11, 13, 2, 1, 3, 5, 78, 40]#, 42] #42 == even
#mk_graph(test_values, my_turtle)
pairs, is_even = mk_pairs(test_values)#, my_turtle)
srtd_pairs = srt_pairs(test_values, is_even, my_turtle)
import my_turtle
import math
turtle = my_turtle.Turtle()
turtle.turtle(900, 900, 400, 400)
# ### A my_turtle library in a separate file ###
# ### B Relative vs absolute ###
def star(turtle, n, d):
for i in range(n):
# turtle.canvas.show()
turtle.forward(d)
if n % 2 == 1:
turtle.left(180 - 180 / n)
elif n % 4 == 0:
turtle.left(180 - 360 / n)
else:
turtle.left(180 - 720 / n)
def squares(turtle, n, d, ratio):
for i in range(n):
turtle.polygon(4, d)
turtle.forward(d * (1 - ratio))
turtle.left(math.atan((1 - ratio) / ratio) * 180 / math.pi)
d = math.sqrt(math.pow(d * ratio, 2) + math.pow(d * (1 - ratio), 2))