A learning repository for demonstrating 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.
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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
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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
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Practical Linear Algebra for DS and ML.pdf - Reference material for linear algebra concepts
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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
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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: 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