Applied Python Programming Laboratory EEE Syllabus for B.Tech 1st Year 2nd Sem R22 Regulation JNTUH

Applied Python Programming Laboratory detailed syllabus for Electrical and Electronics Engineering (EEE), 1st Year 2nd Sem R22 regulation has been taken from the JNTUH official website and presented for the B.Tech students affiliated to JNTUH course structure. For Course Code, Subject Names, Theory Lectures, Tutorial, Practical/Drawing, Credits, and other information do visit full semester subjects post given below. We make sure the result links and syllabus uploaded here is latest and up to date, also the syllabus PDF files can also be downloaded from the universities official website.

For Electrical and Electronics Engineering (EEE) 1st Year 2nd Sem R22 Regulation Scheme, do visit EEE 1st Year 2nd Sem R22 Scheme. The detailed syllabus for applied python programming laboratory is as follows.

Applied Python Programming Laboratory Subject Syllabus for EEE 1st Year 2nd Sem R22 Regulation

Course Outcomes:

For the complete Syllabus, results, class timetable, and many other features kindly download the iStudy App
It is a lightweight, easy to use, no images, and no pdf platform to make students’s lives easier.
.

LIST OF EXPERIMENTS:

1. Downloading and Installing Python and Modules
1. Python 3 on Linux

Follow the instructions given in the URL https://docs.python-
guide.org/starting/install3/linux/

2. Python 3 on Windows

Follow the instructions given in the URL https://docs.python.org/3/using/windows.html (Please remember that Windows installation of Python is harder!)

3. pip3 on Windows and Linux

Install the Python package installer by following the instructions given in the URL

How to install and use Pip3

4. Installing numpy and scipy

You can install any python3 package using the command pip3 install

5. Installing jupyterlab

Install from pip using the command pip install jupyterlab

2. Introduction to Python3
1. Printing your biodata on the screen
2. Printing all the primes less than a given number
3. Finding all the factors of a number and show whether it is a perfect number, i.e., the sum of all its factors (excluding the number itself) is equal to the number itself
3. Defining and Using Functions
1. Write a function to read data from a file and display it on the screen
2. Define a boolean function is palindrome(input)
3. Write a function collatz(x) which does the following: if x is odd, x = 3x + 1; if x is even, then x = x/2. Return the number of steps it takes for x = 1
4. Write a function N(m,
5. = exp(-(x-m)2/(2s2))/sqrt(2n)s that computes the Normal distribution
4. The package numpy
1. Creating a matrix of given order m x n containing random numbers in the range 1 to 99999
2. Write a program that adds, subtracts and multiplies two matrices. Provide an interface such that, based on the prompt, the function (addition, subtraction, multiplication) should be performed
3. Write a program to solve a system of n linear equations in n variables using matrix inverse
5. The package scipy and pyplot
1. Finding if two sets of data have the same mean value
2. Plotting data read from a file
3. Fitting a function through a set a data points using polyfit function
4. Plotting a histogram of a given data set
6. The strings package
1. Read text from a file and print the number of lines, words and characters
2. Read text from a file and return a list of all n letter words beginning with a vowel
3. Finding a secret message hidden in a paragraph of text
4. Plot a histogram of words according to their length from text read from a file
7. Installing OS on Raspberry Pi
1. Installation using PiImager
2. Installation using image file

— Downloading an Image
— Writing the image to an SD card
— using Linux
— using Windows
— Booting up
Follow the instructions given in the URL
https://www.raspberrypi.com/documentation/computers/getting-started.html

8. Accessing GPIO pins using Python
1. Installing GPIO Zero library.

First, update your repositories list:
sudo apt update
Then install the package for Python 3:
sudo apt install python3-gpiozero

2. Blinking an LED connected to one of the GPIO pin
3. Adjusting the brightness of an LED

Adjust the brightness of an LED (0 to 100, where 100 means maximum brightness) using the in-built PWM wavelength.

9. Collecting Sensor Data
1. DHT Sensor interface

— Connect the terminals of DHT GPIO pins of Raspberry Pi.
— Import the DHT library using import Adafruit_DHT
— Read sensor data and display it on screen.