[Online] Bayesian Statistics

The binding allocation of places takes place approx. 6 weeks before the date of the event.

This course outline ensures a logical progression from foundational concepts to advanced Bayesian modeling techniques, with a consistent emphasis on practical implementation in R.

Basic knowledge of statistics and R is required for participation.

Content

Day 1: Fundamentals of Probability and Bayesian Concepts with Applications in R

arrow right iconR recap: Probability calculations, statistical modeling, and visualization
arrow right iconOverview of key R packages (e.g., Stan for Bayesian modeling)
arrow right iconIntroduction to probabilistic concepts: outcomes, events, probabilities
arrow right iconRandom variables, probability distributions, expectations, and variance
arrow right iconCommon distributions: Normal, Binomial, Poisson, and their applications
arrow right iconThe transition from probability theory to statistical modeling
arrow right iconKey concepts: likelihood, prior, and posterior distributions
arrow right iconBayes’ Theorem and its role in hypothesis testing and prediction
arrow right iconPractical examples demonstrating Bayesian concepts
arrow right iconPractical + Code Exercises

arrow right iconHands-on with R: writing scripts, using packages, and creating visualizations
arrow right iconImplementation of probability concepts and distributions in R
arrow right iconCoding likelihood, prior, and posterior distributions in R
arrow right iconApplying Bayes’ theorem to simple problems

 

Day 2: Applied Bayesian Modeling and Inference

arrow right iconIntroduction to a simple prediction problem
arrow right iconLinear regression as a framework: Frequentist vs Bayesian approaches (point estimates vs Bayesian inference).
arrow right iconAnalytical solutions for Bayesian linear regression with conjugate priors.
arrow right iconIntroduction to (Bayesian) Generalized Linear Models (GLMs), with special emphasis on logistic regression.
arrow right iconChallenges in obtaining posterior distributions analytically and the need for approximation methods.
arrow right iconApproximations: Maximum a posteriori (MAP) estimation and Laplace approximation.
arrow right iconBenefits of uncertainty quantification through Bayesian approaches.
arrow right iconIntroduction to Markov Chain Monte Carlo (MCMC) methods and importance sampling for posterior approximations.
arrow right iconPractical + Code Exercises

arrow right iconFrequentist and Bayesian linear regression in R (using basic priors).
arrow right iconApplying MAP and Laplace approximations to the prediction problem in R.
arrow right iconImplementing MCMC and importance sampling techniques in R.
arrow right iconComparing results from MAP, Laplace approximation, and MCMC to evaluate inference methods

Date and duration

Thursday, July 17, 2025, 9:00 am – 3:00 pm
Friday, July 18, 2025, 9:00 am – 3:00 pm

Audience

PhD Students and Postdocs

arrow right iconFurther information & registration

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