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Mathematical Statistics I


Course Description

This course provides a rigorous foundation in probability. Topics include sample space, events, probability rules, discrete and continuous distributions, expectation, variance, moment-generating functions, multivariate distributions, and transformations of random variables. Emphasis is placed on foundational concepts essential for advanced statistical inference.


Athena Title

Math Statistics I


Prerequisite

MATH 2270 or MATH 2270H or MATH 2500 or MATH 2500E


Semester Course Offered

Offered fall and spring


Grading System

A - F (Traditional)


Student Learning Outcomes

  • Students will define and explain fundamental concepts of probability, including sample spaces, events, conditional probability, and independence.
  • Students will apply probability rules, including Bayes’ theorem, to solve problems involving conditional probabilities in real-world contexts.
  • Students will analyze discrete and continuous probability distributions, including their expectations, variances, and moment-generating functions, to model different types of data.
  • Students will compute and interpret probabilities and expectations for well-known distributions such as Binomial, Poisson, Normal, and Gamma, and justify their use in different scenarios.
  • Students will evaluate and compare multivariate probability distributions, including marginal and conditional distributions, independence, and covariance between random variables.
  • Students will derive and use probability distributions of functions of random variables using the method of transformations and Jacobians.
  • Students will interpret and apply Tchebyscheff’s theorem to assess the dispersion of probability distributions and its implications in statistical inference.

Topical Outline

  • Introduction • Introduction to probability and statistical inference
  • Probability • Review of set notations • Sample space, events, and probability of an event • Conditional probability and Independence • Bayes’ rule and applications
  • Discrete Random Variable and Their Probability Distributions • Expectation and Variance • Well-known discrete distributions (e.g., Binomial, Geometric, Negative Binomial, Poisson, Hypergeometric) and their applications • Moment generating functions
  • Continuous Random Variables and Their Probability Distributions • Expectation and Variance • Well-known continuous distributions (e.g., Uniform, Normal, Gamma, Beta) and their applications • Moment generating functions • Tchebyscheff’s Theorem
  • Multivariate Probability Distributions • Bivariate and multivariate probability distributions • Marginal and conditional probability distributions • Independent random variables • Expected value of a function of random variables • Covariance of two random variables
  • Functions of Random Variables • Probability distribution of a function random variables • Method of transformations using Jacobians