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About Study Course

Department: Statistics Unit
Credit points / ECTS:2 / 3
Course supervisor:Ziad Taib
Study type:Full time
Course level:Master's
Target audience:Life Science
Language:English, Latvian
Study course descriptionFull description, Full time
Branch of science:Mathematics; Theory of Probability and Mathematical Statistics

Objective

The objective of this course is to give the students an overview of key areas of Bayesian Inference. The software package R will be used for computation and case study applications.

Prerequisites

• Familiarity with most common discrete and continuous distributions as well as basic notions of probability.
• Familiarity with basics of statistical inference and Maximum likelihood estimation (MLE).
• Linear models with different types of dependent variables.
• In lab sessions we will learn how to use R, so basic knowledge in R is also required.

Learning outcomes

Knowledge

• Understand the difference between various interpretations of probability.
• Classify and articulate the key components of Bayesian Inference.
• Distinguish the key aspects, and applications, of prior distribution selection and associated considerations.
• Describe the role of the posterior distribution, the likelihood function and the posterior distribution in Bayesian inference about a parameter.
• Interpret statistical simulation-based computational methods.

Skills

• Formulate Bayesian solutions to real-data problems, including forming hypotheses, collecting and analysing data, and reaching appropriate conclusions.
• Calculate posterior probabilities using Bayes’ theorem.
• Derive posterior distributions for a given data model and use computational techniques to obtain relevant estimates.
• Operate Bayesian models and provide the technical specifications for such models.
• Apply Bayesian computation using Markov chain Monte Carlo methods using R.

Competence

• Assess the Bayesian framework for data analysis and when it can be beneficial, including its flexibility in contrast to the frequentist approach.
• Use independently statistical analyses in practice by using simulation-based computational methods, to present the results and findings orally and in writing.
• Determine the role of the prior distribution in Bayesian inference, and the usage of non-informative priors and conjugate priors.
• Interpret the results of a Bayesian analysis and perform Bayesian model evaluation and assessment.

Study course planning

Planning period:Year 2025, Spring semester
Study programmeStudy semesterProgram levelStudy course categoryLecturersSchedule
Biostatistics, MFBS2Master’sLimited choice