Description
In this course, you will learn:
- Probabilistic models' essential structure and elements.
- The distributions, means, and variances of random variables.
- Calculations based on probabilities.
- Methods of inference
- Large-number laws and their applications
- Processes that happen at random
Syllabus:
1. Probability models and axioms
- Probability models and axioms
- Mathematical background: Sets; sequences, limits, and series; (un)countable sets.
2. Conditioning and independence
- Conditioning and Bayes' rule
- Independence
3. Counting
- Counting
4. Discrete random variables
- Probability mass functions and expectations
- Variance; Conditioning on an event; Multiple random variables
- Conditioning on a random variable; Independence of random variables
5. Continuous random variables
- Probability density functions
- Conditioning on an event; Multiple random variables
- Conditioning on a random variable; Independence; Bayes' rule
6. Further topics on random variables
- Derived distributions
- Sums of independent random variables; Covariance and correlation
- Conditional expectation and variance revisited; Sum of a random number of independent random variables
7. Bayesian inference
- Introduction to Bayesian inference
- Linear models with normal noise
- Least mean squares (LMS) estimation
- Linear least mean squares (LLMS) estimation
8. Limit theorems and classical statistics
- Inequalities, convergence, and the Weak Law of Large Numbers
- The Central Limit Theorem (CLT)
- An introduction to classical statistics
9. Bernoulli and Poisson processes
- The Bernoulli process
- The Poisson process
- More on the Poisson process
10. Markov chains
- Finite-state Markov chains
- Steady-state behavior of Markov chains
- Absorption probabilities and expected time to absorption