I have designed this learning repository to demonstrate fundamental mathematical concepts essential for data science and machine learning. This repository uses computational simulations and visualizations to make abstract mathematical theory intuitive and practical.
-
Translating Mathematical Formulas to Code (
Translating_Mathematical_Formulas_to_Code.ipynb)- Tutorial on implementing mathematical formulas in Python
- Bridges theory and practical implementation
- Essential skills for machine learning practitioners
-
Linear Algebra (
LinearAlgebra.ipynb)- Practical linear algebra for data science and machine learning
- Companion to "Practical Linear Algebra for DS and ML.pdf"
- Core concepts for ML algorithms and data transformations
-
Practical Linear Algebra for DS and ML.pdf - Reference material for linear algebra concepts
-
Probability Theory for DS and ML.pdf - Reference material for probability theory concepts
-
Central Limit Theorem (
central_limit_theorem.ipynb)- Computational simulation demonstrating the Central Limit Theorem
- Shows how the sum of random variables approaches a normal distribution
- Includes visualizations comparing theoretical and simulated distributions
-
Law of Large Numbers (
law_large_number.ipynb)- Monte Carlo simulation illustrating the convergence of sample means
- Demonstrates how sample statistics approach population parameters as n increases
- Visual representation of stochastic convergence
The project uses the following Python packages:
- numpy - Numerical computing and array operations
- matplotlib - Data visualization and plotting
- seaborn - Statistical data visualization
- pandas - Data manipulation and analysis
- scipy - Scientific computing and statistics
- sympy - symbolic computation
This repository helps you:
- Understand fundamental statistical and mathematical concepts through simulation
- Visualize abstract mathematical theory
- Learn how to implement mathematical formulas in Python
- Build intuition for concepts crucial to machine learning
- Connect theory with practical computational implementation
- Probability & Statistics: Probability theory, Central Limit Theorem, Law of Large Numbers
- Linear Algebra: Vectors, matrices, and transformations
- Computational Methods: Monte Carlo simulations, numerical analysis
- Mathematical Coding: Translating formulas into Python code
- These notebooks focus on understanding and visualization
- Simulated data with known properties is used to demonstrate mathematical principles
- Examples are designed for educational purposes