
Download and install Python and set up PyCharm IDE. Install Anaconda with Jupyter notebooks to support machine learning workflows across Windows, macOS, and Linux.
Master the basics of setting up a machine learning environment with Python for absolute beginners by installing Anaconda, launching Jupyter notebooks, and preparing a ready-to-run workspace.
Explore variables in Python for absolute beginners, using a box analogy to assign values to x and y, perform basic arithmetic, and display outputs from previous operations.
Explore Python basics with variables, string indexing, and concatenation in part two of this beginner session on variables, including zero-based indices and handling index errors.
This lecture introduces variables in Python and explores string operations, including indexing and slicing with examples like the string 'Facebook' and determining string length.
Explore Python lists, variables, and printing in beginner-friendly demonstrations that show how a list can hold multiple items, including strings and integers, unlike Java.
Explore Python lists with numbers and strings, learn to append and insert values at specific positions, and remove elements while practicing zero-based indexing.
Explore Python lists with practical operations: index and pop elements, remove items, and compute min, max, mean, and sum, then sort the list for easy insights.
Master Python conditionals with if, if-else, and elif, exploring boolean types, boolean expressions, indentation, and how to compare values using operators and chain conditions.
Master boolean expressions and Python conditional logic using if, if-else, and elif with true and false outcomes. Learn indentation rules, comparison operators, input handling, and building simple decision flows.
Explore Python boolean operators and relational operators, including and, or, not, evaluating expressions, with emphasis on input validation, boundary testing, and writing clear conditions.
Explore iteration in Python by examining while and for loops, indentation, and flowcharts. Learn to initialize variables, increment counts, and prevent infinite loops.
Learn Python basics through a guess the number program, exploring while loops, if conditions, user input, and decision making to practice selection and control flow.
Learn how to generate a random number in Python using the random module, with import usage and examples, illustrating a value from 1 to 20.
Learn loops and if conditions in Python through a guess the number program that uses a random hidden number, user input, and feedback on too low or too high.
Write a Python program to find the class average by entering school scores until minus nine, then compute the average using total and count to avoid division by zero.
Explore Python functions with a hands-on demonstration, learn how to define functions, pass parameters, and call them to organize code, reduce duplication, and support tasks like calculating averages.
Explore how Python passes parameters by reference, showing how mutating a list inside a function updates the original list outside the function, illustrating pass by reference versus value.
Learn how Python functions use required positional arguments, keyword arguments, and default values. See how argument order, named parameters, and defaults control function calls.
Master Python loop basics by exploring for loops, range usage, and counting sequences; learn how endpoint exclusion and zero-based starts affect iteration, with practical choices between for and while loops.
Learn how to handle files in Python using the open function, choosing read, write, and create modes, with text and binary options, and reading content via the file object.
Join this Python hands-on guided tutorial to master the print statement and operators. Practice with variables, arithmetic, floor division, modulus, exponent, and string concatenation while understanding comments and output behavior.
In the professional certificate in data engineering, this Python hands-on tutorial covers built-in functions like print, type, and input, and shows string and integer handling.
Explore Python if conditions and boolean operators, build random number projects, and implement practical programs like a simple calculator, temperature conversions, and even/odd checks.
Study data with statistics to understand raw data by reading the first 50 records for machine learning. Address issues like misnamed fields such as glucose and insulin.
Learn to check data dimensions by counting rows and columns, assess dataset size, sample data, and review statistics like mean, standard deviation, min, max, and class balance for reliable modeling.
Understand the correlation between attributes using Pearson's correlation coefficient. Review correlation matrices in datasets to see how highly correlated attributes can cause poor performance in linear and logistic regression.
Understand how two variables relate through the correlation coefficient, including positive, negative, and zero correlations, and why high attribute correlation affects linear and logistic regression.
Explore data preprocessing techniques, including data quality, privacy measures, and scaling with a Python demonstration using min-max normalization to prepare robust machine learning data.
Explore normalization, binarization with a threshold, and standardization in Python to prepare data for machine learning, including Gaussian distribution concepts and algorithms like regression and logistic regression.
Master univariate feature selection to identify the most relevant data features for prediction. Learn how statistical testing and feature filtering improve model accuracy and reduce training time.
Explore univariate linear regression by building a one-input model to predict happiness from GDP per capita, using the World Happiness Report data and an 80/20 training–testing split.
Explore univariate linear regression to predict happiness from gdp per capita, and learn how gradient descent, learning rate, and polynomial features shape model accuracy through training and testing.
Explore multivariate linear regression with multiple inputs to predict happiness from GDP per capita and freedom. Learn to load data, perform training-test splits, apply gradient descent, and evaluate the model.
Explore logistic regression as a classification method on an insurance dataset with age, weight, and insurance status, and tune parameters to improve probability estimates.
Learn how support vector machines use hyperplanes to separate two classes with a clear boundary, and apply kernels like polynomial, sigmoid, and rbf with gamma and regularization tuning.
Learn to implement svm on the iris dataset using google colab, loading data with pandas, visualizing distributions, and training a classifier with cross-validation.
Download and set up Analytica, the natural language toolkit, using Python and your preferred IDE; install packages, run scripts, and download models for tokenization.
Explore tokenization in natural language processing with a Python tutorial that demonstrates sentence and word tokenization, using sample text to show how to split and print tokens.
Learn how normalization standardizes words during preprocessing to improve information retrieval, using tokenization, stemming, and morphology concepts such as stems and affixes.
Explore stemming and lemmatization in natural language processing with Analytica and Python, reducing word variants to stems for efficient corpus processing, including walk and walking, illegal and legal.
Explore the introduction to algorithms, covering theory, design, and implementation, and their broad impact across internet services, social networks, science, and programming.
Define algorithms as a predetermined series of instructions executed in finite steps, ensuring correctness and efficiency, documented with flowcharts and pseudocode, using data structures and control structures.
Define algorithms as a predetermined series of instructions that must work for all inputs and be efficient; data structures plus algorithms form programs, documented with flowcharts and pseudocode.
Explore dynamic connectivity by performing union operations to connect objects and using find to verify whether two objects are connected, forming paths between components.
Explore dynamic connectivity, model reflexive, symmetric, and transitive relations, identify connected components in graphs, and use union operations to merge components efficiently.
Demonstrate the quick-find approach to dynamic connectivity, performing union operations to merge components and identify connected components by same id across indexes.
Explore how union and find operations merge connected components, replace IDs, and update representatives to reflect unions, illustrated with a step-by-step disjoint-set example.
Explore algorithms in data engineering to build foundational reasoning skills. Apply core concepts from the course to optimize data workflows and improve system performance.
Explore algorithms in data engineering as part of the professional certificate, offering an introductory overview.
Algorithm analysis measures time and memory resources, explains worst-case running time, and discusses empirical, simulation, and analytical approaches for varying input sizes.
Explore high-level algorithm analysis, learning to express running time as a function of input size using primitive operations and pseudocode, while ignoring constants for asymptotic performance.
Design and analyze algorithm performance using big o notation and asymptotic dominance; handle constants, products, sums, and maximums; apply examples to compare running times and guide control-structure decisions.
Demonstrate the sum of three implementation by counting triplets that sum to zero using three nested loops, with dataset growth and performance observations.
Examine the selection sort algorithm by repeatedly finding the smallest element in the unsorted portion of an integer array and moving it to the front, with a Java implementation example.
Learn how algorithm efficiency scales with input size using big O, big Omega, and big Theta notation to compare performance beyond raw running times.
Explore big o, big omega, and big theta notation, define the upper bound for running time using constants, and compare best, average, and worst-case analyses.
Learn to bound algorithm complexity using big o, big omega, and big theta notations, and identify the tightest upper bound within a given class.
Explore the order of growth with Big O, Big Omega, and Big Theta, using constant, linear, logarithmic, polynomial, and exponential examples, and learn tight upper bounds.
Define Big O, Big Omega, and Big Theta, with upper and lower bounds and the growth rate of algorithms. Explain best, worst, and tight bounds with sorting examples.
Sort a set of numbers using bubble sort by repeatedly traversing the list, swapping adjacent elements to achieve ascending or descending order.
Demonstrates insertion sort by placing each unsorted element into its correct position using a key, with worst-case and best-case complexities, and its suitability for small data sets.
At the end of the Course you will have all the skills to become a Data Engineering Professional. (The most comprehensive Data Engineering course )
1) Python Programming Basics For Data Science - Python programming plays an important role in the field of Data Science
2) Introduction to Machine Learning - [A -Z] Comprehensive Training with Step by step guidance
3) Setting up the Environment for Machine Learning - Step by step guidance
4) Supervised Learning - (Univariate Linear regression, Multivariate Linear Regression, Logistic regression, Naive Bayes Classifier, Trees, Support Vector Machines, Random Forest)
5) Unsupervised Learning
6) Evaluating the Machine Learning Algorithms
7) Data Pre-processing
8) Algorithm Analysis For Data Scientists
9) Deep Convolutional Generative Adversarial Networks (DCGAN)
10) Java Programming For Data Scientists
We can build a much brighter future where humans are relieved of menial work using AI capabilities. - Professor Andrew Ng
Course Learning Outcomes
To provide awareness of Supervised & Unsupervised learning
Describe intelligent problem-solving methods via appropriate usage of Machine Learning techniques.
To build comprehensive neural models from using state-of-the-art python framework.
To build neural models from scratch, following step-by-step instructions. [Step by step guidance with clear explanation]
To build end - to - end comprehensive solutions to resolve real-world problems by using appropriate Machine Learning techniques from a pool of techniques available.
To critically review and select the most appropriate machine learning solutions
To use ML evaluation methodologies to compare and contrast supervised and unsupervised ML algorithms using an established machine learning framework.
Beginners guide for python programming is also inclusive.
Introduction to Machine Learning - Indicative Module Content
Introduction to Machine Learning:- What is Machine Learning ?, Motivations for Machine Learning, Why Machine Learning? Job Opportunities for Machine Learning
Setting up the Environment for Machine Learning:-Downloading & setting-up Anaconda, Introduction to Google Collabs
Supervised Learning Techniques:-Regression techniques, Bayer’s theorem, Naïve Bayer’s, Support Vector Machines (SVM), Decision Trees and Random Forest.
Unsupervised Learning Techniques:- Clustering, K-Means clustering
Artificial Neural networks [Theory and practical sessions - hands-on sessions]
Evaluation and Testing mechanisms :- Precision, Recall, F-Measure, Confusion Matrices,
Data Protection & Ethical Principles
Setting up the Environment for Python Machine Learning
Understanding Data With Statistics & Data Pre-processing (Reading data from file, Checking dimensions of Data, Statistical Summary of Data, Correlation between attributes)
Data Pre-processing - Scaling with a demonstration in python, Normalization , Binarization , Standardization in Python,feature Selection Techniques : Univariate Selection
Data Visualization with Python -charting will be discussed here with step by step guidance, Data preparation and Bar Chart,Histogram , Pie Chart, etc..
Artificial Neural Networks with Python, KERAS
KERAS Tutorial - Developing an Artificial Neural Network in Python -Step by Step
Deep Learning -Handwritten Digits Recognition [Step by Step] [Complete Project ]
Naive Bayes Classifier with Python [Lecture & Demo]
Linear regression
Logistic regression
Introduction to clustering [K - Means Clustering ]
K - Means Clustering
The course will have step by step guidance for machine learning & Data Engineering with Python.
You can enhance your core programming skills to reach the advanced level. By the end of these videos, you will get the understanding of following areas the
Python Programming Basics For Data Science - Indicative Module Content
Python Programming
Setting up the environment
Python For Absolute Beginners : Setting up the Environment : Anaconda
Python For Absolute Beginners : Variables , Lists, Tuples , Dictionary
Boolean operations
Conditions , Loops
(Sequence , Selection, Repetition/Iteration)
Functions
File Handling in Python
Algorithm Analysis For Data Scientists
This section will provide a very basic knowledge about Algorithm Analysis. (Big O, Big Omega, Big Theta)
Java Programming for Data Scientists
Deep Convolutional Generative Adversarial Networks (DCGAN)
Generative Adversarial Networks (GANs) & Deep Convolutional Generative Adversarial Networks (DCGAN) are one of the most interesting and trending ideas in computer science today. Two models are trained simultaneously by an adversarial process. A generator , learns to create images that look real, while a discriminator learns to tell real images apart from fakes.
At the end of this section you will understand the basics of Generative Adversarial Networks (GANs) & Deep Convolutional Generative Adversarial Networks (DCGAN) .
This will have step by step guidance
Import TensorFlow and other libraries
Load and prepare the dataset
Create the models (Generator & Discriminator)
Define the loss and optimizers (Generator loss , Discriminator loss)
Define the training loop
Train the model
Analyze the output
Does the course get updated?
We continually update the course as well.
What if you have questions?
we offer full support, answering any questions you have.
Who this course is for:
Beginners with no previous python programming experience looking to obtain the skills to get their first programming job.
Anyone looking to to build the minimum Python programming skills necessary as a pre-requisites for moving into machine learning, data science, and artificial intelligence.
Who want to improve their career options by learning the Python Data Engineering skills.