# Python Program to Implement Turtle Library Assignment Solution.

## Instructions

Objective
We understand that starting with a new programming concept can be challenging, but don't worry, we're here to provide you assistance with python assignment you need. With our step-by-step guidance and examples, you'll be able to write a program that implements the Turtle library in Python in no time. Whether you're a beginner or just looking to expand your coding skills, we've got you covered. So, let's dive in and create some exciting graphical wonders with Python.

## Requirements and Specifications

Source Code

```import turtle as turtle from math import pi, cos, sin import random # DEFINE HERE THE FLOWER COLORS PETALS_COLOR = 'orange' STIGMA_COLOR = 'brown' SEEDS_COLOR = 'yellow' STEM_COLOR = 'green' def stem(pen):     """     This function draws the flower stem     :param pen: Turtle pen     :return:     """     pen.penup()     pen.goto(0,0)     pen.color(STEM_COLOR)     pen.fillcolor(STEM_COLOR)     pen.begin_fill()     # Now draw     pen.penup()     pen.goto(-15,0)     pen.right(90)     pen.pendown()     pen.begin_fill()     pen.forward(400)     pen.left(90)     pen.forward(30)     pen.left(90)     pen.forward(400)     pen.left(90)     pen.forward(30)     pen.end_fill()     pen.penup() # Define the flower equation def flower(n_petals: int, pen) -> None:     """     This function draws a flower using a Polar equation.     According to [1], the flowers can be draw using a Mathematical Formula     in polar coordinates     [1] https://www.youtube.com/watch?v=Kq9nR_vZNJk     :param n_petals: Number of petals     :param pen: Turtle pen     :return:     """     # Create angle theta     theta = []     theta0 = 0     for i in range(201):         theta.append(theta0)         theta0 += 2*pi/200.0     # Now, draw     pen.begin_fill()     pen.fillcolor(PETALS_COLOR)     pen.pencolor(PETALS_COLOR)     pen.pendown()     for th in theta:         r = 250*cos(n_petals//2 *th)         x = r*cos(th)         y = r*sin(th)         pen.setpos(x,y)     pen.end_fill()     pen.penup() def stigma(pen):     """     This function draws the flower's stigma at its center     :param pen: Turtle pen     :return:     """     pen.penup()     pen.setpos(0,0)     pen.pencolor(STIGMA_COLOR)     pen.pendown()     # Radius of stigma     R = 50     theta = []     theta0 = 0     for i in range(201):         theta.append(theta0)         theta0 += 2 * pi / 200.0     pen.begin_fill()     pen.fillcolor(STIGMA_COLOR)     for th in theta:         x = R*cos(th)         y = R*sin(th)         pen.goto(x,y)     pen.end_fill() def seeds(pen, n_seeds: int):     """     This function draw the flower seeds     :param pen: Turtle pen     :param n_seeds: Number of seeds     :return:     """     pen.pencolor(SEEDS_COLOR)     R = 50 # the radius of the stigma     theta = []     theta0 = 0     for i in range(201):         theta.append(theta0)         theta0 += 2 * pi / 200.0     # Now, select random positions inside the stigma     for _ in range(n_seeds):         # Pick a random size for the seed between 5 and 10         r = random.uniform(3,10)         #r = np.random.uniform(3, 10)         # Pick a random position inside the stigma         x = random.uniform(-R+r,R-r)         y = random.uniform(-R+r,R-r)         pen.penup()         pen.goto(x,y)         pen.pendown()         # Now, draw seed         pen.begin_fill()         pen.fillcolor(SEEDS_COLOR)         for th in theta:             xx = x+r*cos(th)             yy = y+r*sin(th)             pen.goto(xx,yy)         pen.end_fill()         pen.penup() if __name__ == '__main__':     # Create turtle object     wn = turtle.Screen()     wn.screensize(500,500)     wn.bgcolor("white")     wn.title("Flower")     pen = turtle.Turtle()     pen.speed('fastest')     # Put pen at center of screen     pen.penup()     pen.setpos(0,0)     pen.pendown()     # Draw     stem(pen)     flower(8, pen)     stigma(pen)     seeds(pen, 4)     wn.exitonclick()```