📊 The Matrix

Linear Algebra

Matrices power machine learning, computer graphics, and quantum computing. Learn to transform, solve, and decompose linear systems.

🚀 Practical Applications

🤖 Machine Learning

Neural networks are matrix multiplications at scale.

🎮 3D Graphics

Rotation, scaling, and projection transformations.

🔬 Data Science

PCA, SVD, and dimensionality reduction.

🗺️ Course Roadmap

Module 1: Matrix Algebra & Special Types

What: Matrix operations, Diagonal, Triangular, Symmetric, Hermitian forms.

Why: Understand the basic objects and their algebraic properties.

1-4: Matrix Multiplier, Special Types, SymmetryComing Soon

Module 2: Determinants & Inverses

What: Minors, Cofactors, Cramer's Rule, Adjoint, Inverse.

Why: The determinant defines a matrix's "scale"; inverses reverse operations.

5-8: Determinants, Cramer's Rule, Inverse TheoryComing Soon

Module 3: Rank & Systems of Equations

What: Linear Independence, Gaussian Elimination, Rank, Homogeneous Systems, LU Decomposition.

Why: Solve the fundamental equation Ax = B.

9-14: Independence, Echelon Form, Systems, LUComing Soon

Module 4: Eigenvalues & Practice

What: Eigenvalues, Eigenvectors, Cayley-Hamilton Theorem.

Why: Find directions where transformations only scale without rotating.

15: Eigenvalues & Cayley-HamiltonComing Soon
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