Matrix Algebra and Random Vectors

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Presentation transcript:

Matrix Algebra and Random Vectors Shyh-Kang Jeng Department of Electrical Engineering/ Graduate Institute of Communication/ Graduate Institute of Networking and Multimedia

General Statistical Distance

General Statistical Distance

Quadratic Form

Statistical Distance under Rotated Coordinate System

Rotated Coordinate System q

Coordinate Transformation

Quadratic Form in Transformed Coordinate Systems

Diagonalized Quadratic Form

Orthogonal Matrix

Diagonalization

Concept of Mapping x

Eigenvalues

Eigenvectors

Spectral Decomposition

Positive Definite Matrix Matrix A is non-negative definite if for all x’=[x1, x2, …, xk] Matrix A is positive definite if for all non-zero x

Positive Definite Matrix

Inverse and Square-Root Matrix

Random Vectors and Random Matrices Vector whose elements are random variables Random matrix Matrix whose elements are random variables

Expected Value of a Random Matrix

Population Mean Vectors

Covariance

Statistically Independent

Population Variance-Covariance Matrices

Population Correlation Coefficients

Standard Deviation Matrix

Correlation Matrix from Covariance Matrix

Partitioning Covariance Matrix

Partitioning Covariance Matrix

Linear Combinations of Random Variables

Example of Linear Combinations of Random Variables

Linear Combinations of Random Variables

Sample Mean Vector and Covariance Matrix

Partitioning Sample Mean Vector

Partitioning Sample Covariance Matrix

Cauchy-Schwarz Inequality

Extended Cauchy-Schwarz Inequality

Maximization Lemma

Maximization of Quadratic Forms for Points on the Unit Sphere

Maximization of Quadratic Forms for Points on the Unit Sphere

Maximization of Quadratic Forms for Points on the Unit Sphere

Maximization of Quadratic Forms for Points on the Unit Sphere