
Set up your machine learning environment with an Anaconda installation, launching Jupyter Notebook. Follow a step-by-step beginner's guide to download, install, and run examples.
Master python conditions with if, if-else, and elif, learn boolean types, comparison operators, indentation rules, and how to design conditional blocks using pseudocode and flowcharts.
Explore Python boolean expressions and conditional operators, learn to write if, elif, and else blocks with proper indentation, handle input and integer conversion, and reason about comparison logic.
Explore relational operators and boolean operators in Python, and learn how and, or, not evaluate conditions, build boolean expressions, and validate programs with boundary testing.
Explore Python loops and if conditions through a guess-the-number game, using a random hidden number, a while loop, and feedback on too low or too high.
Explore Python function arguments, including required positional arguments, keyword arguments, and default values, with examples illustrating by value and by reference, order flexibility, and error handling.
Master Python file handling with the open function, exploring read and write operations, file creation when it does not exist, and binary versus text modes to manage content.
Demonstrate the bubble sort algorithm through adjacent comparisons and swaps to arrange numbers in descending order, then switch to ascending order across multiple traversals.
Explore Python built-in functions and strings through hands-on exercises, using print, type, and input; learn type conversions, concatenation of strings and numbers, and translating pseudocode into runnable programs.
Explore using while loops to implement a number guessing game with a random 1–20, including input parsing, too high/low feedback, five attempts, and a boolean-controlled loop, plus averages.
Understand how motivation guides selecting the right machine learning approach to boost speed and accuracy in tasks like disease testing, fraud detection, and spam filtering, while enabling continuous operation.
https://github.com/trekhleb/homemade-machine-learning/tree/master/homemade
code : https://github.com/trekhleb/homemade-machine-learning/tree/master/homemade
https://github.com/trekhleb/homemade-machine-learning/tree/master/homemade
https://github.com/trekhleb/homemade-machine-learning/tree/master/homemade
Execute a hands-on svm workflow in Google Colab, loading the iris dataset with pandas, preparing data frames, visualizing distributions with matplotlib, and evaluating models with train-test split and kernel options.
Learn how random forest ensembles multiple decision trees to produce a consolidated output. See practical implementation in Google Collabs using the digits dataset, training/testing split, and a confusion-heatmap evaluation.
Explore how random forests combine multiple decision trees to solve real-world problems. Train a 20-tree forest on the digits dataset in Google Collabs, and assess accuracy with a confusion matrix.
Explore the theory, design, and implementation of algorithms and why studying them matters. See their broad impact across internet, web search, bioscience, security, and social networks.
Explore algorithms with quickfind part 1 within the professional certificate in data science 2024. Learn foundational ideas and practical steps for applying quickfind to data science challenges.
Learn how to analyze algorithms by evaluating running time and resources across input sizes, focusing on worst-case bounds, and comparing empirical, simulation, and analytical approaches.
Learn theoretical analysis using a high-level description of algorithms to evaluate running time with big O notation. Inspect pseudocode and count primitive operations to determine worst-case complexity.
Explore big O, big Omega, and big Theta notation in asymptotic analysis to bound an algorithm’s running time across best, average, and worst cases with constants C and n0.
Analyze growth rates with Big O, Big Omega, and Big Theta, identifying constant, linear, logarithmic, polynomial, and exponential growth, plus upper-bound and average-case concepts.
At the end of the Course you will have all the skills to become a Data Science Professional. (The most comprehensive Data Science 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
Course Learning Outcomes
To provide awareness of the two most integral branches (Supervised & Unsupervised learning) coming under Machine Learning
Describe intelligent problem-solving methods via appropriate usage of Machine Learning techniques.
To build appropriate neural models from using state-of-the-art python framework.
To build neural models from scratch, following step-by-step instructions.
To build end - to - end 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 Science 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.