• Copy of deck

  • Copy of CS6015: Lecture 21

    Lecture 21: Principal Component Analysis (the math)

  • CS6910: Lecture 6

    Sigmoid Neuron to Feedforward Neural Networks

  • CS6910: Lecture 4

    Sigmoid Neuron to Feedforward Neural Networks

  • CS6910: Lecture 3

    Sigmoid Neuron to Feedforward Neural Networks

  • CS6910: Lecture 2

    A (brief/partial) History of Deep Learning

  • CS6910 Feedback

  • ASP Interview - IIT Madras

  • CS6910: Lecture 1

    A (brief/partial) History of Deep Learning

  • CS6910: Lecture 0

    Logistics, Syllabus

  • CS6015: Lecture 42

    Lecture 42: Information Theory, Entropy, Cross Entropy, KL Divergence

  • CS6015: Lecture 41

    Lecture 41: Central Limit Theorem

  • CS6015: Lecture 40

    Lecture 40: Markov inequality, Chebychev inequality, Weak law of large numbers

  • CS6015: Lecture 39

    Lecture 39: Moments and moment generating functions: What are they and why do we care?

  • CS6015: Lecture 38

    Lecture 38: Multiple continuous random variables, Bayes' theorem for continuous random variables

  • CS6015: Lecture 37

    Lecture 37: The exponential family of distributions

  • CS6015: Lecture 36

    Lecture 36: Uniform distribution, normal distribution

  • CS6015: Lecture 35

    Lecture 35: Continuous random variables, probability mass function v/s probability density function, cumulative distribution function

  • CS6015: Lecture 34

    Lecture 34: Joint distribution, conditional distribution and marginal distribution of multiple random variables

  • CS6015: Lecture 33

    Lecture 33: Expectation, Variance and their properties, Computing expectation and variance of some known distributions

  • CS6015: Lecture 32

    Lecture 32: Geometric distribution, Negative Binomial distribution, Hypergeometric distribution, Poisson distribution, Uniform distribution

  • CS6015: Lecture 31

    Lecture 31: Describing distributions compactly, Bernoulli distribution, Binomial distribution

  • CS6015: Lecture 30

    Lecture 30:Random Variables, Types of Random Variables (discrete and continuous), Probability Mass Function (PMF), Properties of PMF

  • CS6015: Lecture 29

    Lecture 29: Conditional probabilities, multiplication rule, total probability theorem, Bayes' theorem, independent events

  • CS6015: Lecture 28

    Lecture 28: Probability Space, Axioms of Probability, Designing Probability Functions

  • CS6015: Lecture 27

    Lecture 27: Sets, Experiments, Outcomes and Events

  • CS6015: Lecture 26

    Lecture 26: More fun with counting

  • CS6015: Lecture 25

    Lecture 25: Counting collections

  • CS6015: Lecture 24

    Lecture 24: Counting sequences, Subtraction principle

  • CS6015: Lecture 23

    Lecture 23: Counting Principles - Very Simple Counting, Multiplication Principle

  • CS6015: Lecture 22

    Lecture 22: Singular Value Decomposition (SVD)

  • CS6015: Lecture 21

    Lecture 21: Principal Component Analysis (the math)

  • CS6015: Lecture 20

    Lecture 20: Principal Component Analysis (the wishlist)

  • CS6015: Lecture 19

    Lecture 19: Algebraic and Geometric Multiplicity, Schur's theorem, Spectral theorem for Symmetric matrices, Trace of a matrix

  • CS6015: Lecture 18

    Lecture 18: Diagonalisation (eigenvalue decomposition) of a matrix, computing powers of A

  • CS6015: Lecture 17

    Lecture 17: Change of basis

  • CS6015: Lecture 16

    Lecture 16: The Eigenstory begins, computing eigenvalues and eigenvectors

  • CS6015: Lecture 15

    Lecture 15: Formula for determinant, co-factors, Finding the inverse of A, Cramer's rule for solving Ax=b, Determinant=Volume

  • CS6015: Lecture 14

    Lecture 14: Properties of determinants

  • CS6015: Lecture 13

    Lecture 13: Orthonormal vectors, orthonormal basis, Gram-Schmidt orthogonalization

  • CS6015: Lecture 12

    Lecture 12: Projecting a vector onto another vector, Projecting a vector on to a subspace, Solving Ax=b when no solution exists

  • CS6015: Lecture 11

    Lecture 11: A tiny bit of ML, vector norms, orthogonal vectors, orthogonal subspaces

  • CS6015: Lecture 10

    Lecture 10: The four fundamental subspaces

  • CS6015: Lecture 9

    Lecture 9: Solving Ax=b, Rank Nullity Theorem, Some unsolved mysteries

  • CS6015: Lecture 8

    Lecture 8: Solving Ax=0

  • CS6015: Lecture 7

    Lecture 7: column space of a matrix, null space of a matrix

  • CS6015: Lecture 6

    Lecture 6: Vector spaces, subspaces, independence, span, basis, dimensions

  • CS6015: Lecture 5

    PA = LU, cost of Gaussian Elimination, the practical utility of LU factorisation, computing inverse using Gauss Jordan method

  • CS6015: Lecture 4

    Gauss Elimination, LU factorisation

  • CS6015: Lecture 3

    Lines, planes, solving a system of linear equations (intuition), number of solutions to a system of linear equations