In numerical methods, one source of error occurs when we use an approximation for a mathematical expression that would otherwise be too costly to compute in terms of run-time or memory resources. One routine example is the approximation of infinite series by a finite series that mostly captures the important behavior of the infinite series. In this problem you will implement an approximation to the exp(2) as represented by the following infinite series, Your approximation will be a truncated finite series with N +1 terms, Part 1 For the first part of this problem, you are given a random real number and will investigate how well a finite series expansion for exp(2) approximates the infinite series. • Compute exp(2) using a finite series approximation with N = [0,9] CN (i.e. N is an integer). • Save the 10 floating point values from your approximation in a numpy array named exp_approx. exp_approx should be of shape (10.) and should be ordered with increasing N (i.e. the first entry of exp_approx should correspond to exp(, N) when I = 0 and the last entry when N = 9). X Part 2 For the second part of this problem, you are asked to find an integer value Noutoff € [0,9] such that the finite series is guaranteed to have a relative error less than some desired amount. The relative error is with respect to the true exp(x) value that would result from an infinite series. Noutoff should be the smallest integer that satisfies the desired relative error constraint. Input/Output The setup code provides the following variables: Name desired_rel_error First, save the absolute and relative errors for each value of N in abs_error and rel_error. • Given a desired decimal relative error, desired_rel_error, find the smallest N that guarantees the relative error is below desired_rel_error. Assign this N to a variable N_cutoff. • Plot the relative error vs. N (error on the y-axis and N on the x-axis). Make the y-axis log scale. You should have 10 values. Provide appropriate formatting (e.g. labels, title, markers, et cetera). Name exp(*) exp_approx abs_error = rel_error +0 N_cutoff n! Your code snippet should define the following variables: Description array giving your estimates for exp(x) array giving the absolute error for using the taylor approximation array giving the relative error for using the taylor approximation the smallest N that satisfies the desired relative error constraint semilogy plot of the relative error vs. N plot N 2" exp(x, N) => n! 7-0 Type 1-D Numpy Array 1-D Numpy Array 1-D Numpy Array int subplot Type Description float random real number where the function will be evaluated float the error limit in computing the value of N Your code snippet mote also generate the following plot • Plot of relative error vs. N. log-scale on the y-axis (plt.semilogy). Provide appropriate axes labels and a title. Save your plot to a variable plot.

Given an integer representing a 10-digit phone number, output the area code, prefix, and line number using the format (800) 555-1212. Ex: If the input is: 8005551212 the output is: (800) 555-1212 Hint: Use % to get the desired rightmost digits. Ex: The rightmost 2 digits of 572 is gotten by 572 % 100, which is 72. Hint: Use // to shift right by the desired amount. Ex: Shifting 572 right by 2 digits is done by 572 // 100, which yields 5. (Recall integer division discards the fraction). For simplicity, assume any part starts with a non-zero digit. So 0119998888 is not allowed.

Java - Given list: ( 4, 7, 18, 48, 49, 56, 66, 68, 79 )

Why my code given me error’s # Python code to draw snowflakes fractal. import turtle import random # setup the window with a background color wn = turtle.Screen() wn.bgcolor("cyan") # assign a name to your turtle elsa = turtle.Turtle() elsa.speed(15) # create a list of colours scolor = ["white", "blue", "purple", "grey", "magenta"] # create a function to create different size snowflakes def snowflake(size): # move the pen into starting position elsa.penup() elsa.forward(10*size) elsa.left(45) elsa.pendown() elsa.color(random.choice(sfcolor)) # draw branch 8 times to make a snowflake for i in range(8): branch(size) elsa.left(45) # create one branch of the snowflake def branch(size): for i in range(3): for i in range (3): elsa.forward(10.0*size/3) # draw branch 8 times to make a snowflake for i in range(8): branch(slice) elsa.left(45) # create one branch of the snowflake def branch (size): for…

FIX THIS CODE Using python Application CODE: import csv playersList = [] with open('Players.csv') as f: rows = csv.DictReader(f) for r in rows: playersList.append(r) teamsList = [] with open('Teams.csv') as f: rows = csv.DictReader(f) for r in rows: teamsList.append(r) plays=len(playersList) for i in range(plays): if playersList[i]['team']=='Argentina' and int(playerlist[i]['minutes played'])<200 and int(playersList[i] ['shots'])>20: print(playersList[i]['last name']) c0=0 c1=0 c2=0 for i in range(len(teamsList)): if int(teamsList[i]['redCards'])==0: c0=c0+1 if int(teamsList[i]['redCards'])==1: c1=c1+1 if int(teamsList[i]['redCards'])==2: c2=c2+1 print("Number of teams with zero redcards:",c0) print("Number of teams with zero redcards:",c1) print("Number of teams with zero redcards:",c2) ratio=0 for i in range(len(teamsList)): if int(teamsList[i]['games']>3) and if int(teamsList[i]['goalsFor'])/int(teamsList[i]['goalsAgainst'])<ratio:…

main.py Load default template... 1 from random import randint 3 class RandomNumbers: # Type your code here. 4 5 main ": 6 if low = int(input()) high = int(input()) name 7 8 9 numbers = RandomNumbers() numbers. set_random_values(low, high) numbers.get_random_values() 10 11 12

import numpy as np%matplotlib inlinefrom matplotlib import pyplot as pltimport mathfrom math import exp np.random.seed(9999)def is_good_peak(mu, min_dist=0.8):    if mu is None:        return False    smu = np.sort(mu)    if smu[0] < 0.5:        return False    if smu[-1] > 2.5:        return False    for p, n in zip(smu, smu[1:]):        #print(abs(p-n))        if abs(p-n) < min_dist:            return False    return True maxx = 3ndata = 500nset = 10l = []answers = []for iset in range(1, nset):        npeak = np.random.randint(2,4)    xs = np.linspace(0,maxx,ndata)    ys = np.zeros(ndata)    mu = None        while not is_good_peak(mu):        mu = np.random.random(npeak)*maxx    for ipeak in range(npeak):        m = mu[ipeak]        sigma = np.random.random()*0.3 + 0.2        height = np.random.random()*0.5 + 1        ys += height*np.exp(-(xs-m)**2/sigma**2)        ys += np.random.randn(ndata)*0.07    l.append(ys)    answers.append(mu) p6_ys = lp6_xs =…

import numpy as np # Given current stock pricecurrent_price = 163.02 # Simulate future stock pricesnum_samples = 1000  # You can adjust this number based on your needsgrowth_rate_samples = np.random.lognormal(mean=-0.8404, sigma=2.5, size=num_samples)future_prices = current_price * np.exp(growth_rate_samples) # Print or visualize the simulated future pricesprint(future_prices)   i cant get an answer , im keeping errors

When I run this code it says there is an error. Can anyone help point out why I am getting an error for this code? from Artist import *from Artwork import *if __name__ == "__main__":mylist = input().split(" ")user_artist_name = str(mylist[0]+" "+mylist[1])user_birth_year = int(mylist[2])user_death_year = int(mylist[3])#mylist1 = mylist(4:-1)user_title = ""for i in mylist[4:-1]:user_title+=i+" "#user_title = str(mylist[4:-1])user_year_created = int(mylist[-1])user_artist = Artist(user_artist_name,user_birth_year,user_death_year)new_artwork = Artwork(user_title, user_year_created, user_artist)new_artwork.print_info()   Here is the error message: Traceback (most recent call last): File "main.py", line 7, in <module> user_birth_year = int(mylist[2]) IndexError: list index out of range

gcd(5x+7y,2x+3y) = ?