monitored...

#monitored #monitors #within #recursion #crt

there is no try...

#yoda #recursion #starwars #animatedgif

#JustForFun i created these Sierpinski triangles using #Python's #turtle module | #maths #math #programming #fractals #recursion

import logging
import turtle
import time

SPEED_INT = 5  # 1-10 where 0 is as fast as possible
logging.basicConfig(level=logging.DEBUG)

DISPLAY_WIDTH = 1620
# Turtle setup
screen = turtle.getscreen()
t = turtle.getturtle()
turtle.title("Sierpinski Triangle (using turtle)")
t.shape("turtle")
t.speed(SPEED_INT)
turtle.setheading(0)
# ..set start position
t.penup()
turtle.setx(-DISPLAY_WIDTH // 2)
turtle.sety(-450)
t.pendown()
start_pos = t.pos()

time.sleep(1)


def draw_recursive(i_level: int, i_direction: int):
    """Level 1 is the starting i_starting_level (0 doesn't exist)"""
    logging.debug(f"{i_level * '-'} draw_recursive called with level {i_level}")
    if i_level == 1:
        t.forward(distance)
        return
    draw_recursive(i_level - 1, -i_direction)
    t.left(i_direction * 60)
    draw_recursive(i_level - 1, i_direction)
    t.left(i_direction * 60)
    draw_recursive(i_level - 1, -i_direction)


distance = 0


def draw_(i_starting_level: int, i_pen_color_channel: float = 0.0):
    logging.debug(f"==== draw_ called with starting level {i_starting_level} ====")
    t.penup()
    t.setpos(start_pos)
    t.setheading(0)
    t.pendown()

    global distance
    distance = 1024 / (2 ** (i_starting_level - 1))
    distance = min(100, distance)

    pen_size = distance // 2
    if pen_size < 1:
        raise Exception("Pen size is smaller than one")
    t.pensize(distance // 2)

    t.pencolor((i_pen_color_channel,) * 3)

    if i_starting_level % 2 == 0:
        direction = 1
    else:
        direction = -1
    draw_recursive(i_starting_level, direction)


# draw_(9)

pen_color_channel = 0.8
for i_starting_level in range(5, 8):
    if pen_color_channel < 0:
        raise Exception("Pen color channel smaller than zero")
    draw_(i_starting_level, pen_color_channel)
    pen_color_channel -= 0.2

t.hideturtle()
turtle.done()

#JustForFun i created these #KochSnowflake/s using #Python's #turtle module | #maths #math #programming #fractals #recursion

import logging
import turtle
import time

SPEED_INT = 4  # 1-10 where 0 is as fast as possible
logging.basicConfig(level=logging.DEBUG)

DISPLAY_WIDTH = 1620
# Turtle setup
screen = turtle.getscreen()
t = turtle.getturtle()
turtle.title("Koch Snowflake")
t.shape("turtle")
t.speed(SPEED_INT)
turtle.setheading(0)
# ..set start position
t.penup()
turtle.setx(-DISPLAY_WIDTH // 2)
turtle.sety(-400)
t.pendown()
start_pos = t.pos()

time.sleep(1)


def draw_recursive(i_level: int):
    """Level 1 is the starting level (0 doesn't exist)
    , i_unit_distance: int
    """
    if i_level == 1:
        t.forward(distance)
        return
    draw_recursive(i_level - 1)
    t.left(60)
    draw_recursive(i_level - 1)
    t.right(120)
    draw_recursive(i_level - 1)
    t.left(60)
    draw_recursive(i_level - 1)


def get_distance(i_levels_to_draw):
    distance_ = DISPLAY_WIDTH / (3 ** (i_levels_to_draw - 1))
    return distance_


pen_color_channel = 0.9
pen_size = 16

for i in range(2, 7):
    t.penup()
    t.setpos(start_pos)
    t.pendown()

    levels_to_draw = i
    distance = get_distance(levels_to_draw)
    if pen_size < 1:
        raise Exception("Pen size smaller than one")
    t.pensize(pen_size)
    pen_size = pen_size // 2
    if pen_color_channel < 0:
        raise Exception("Pen color channel smaller than zero")
    t.pencolor((pen_color_channel,) * 3)
    pen_color_channel -= 0.2

    draw_recursive(levels_to_draw)

t.hideturtle()
turtle.done()

tentacle scaling...

#tentacle #scaling #recursion #animatedgif

#c #recursion