Syllabus of taught modules (back to Teaching πŸ”—)

Bayesian statistics III/IV/V (MATH3341/MATH4031/MATH43220)
Michaelmas
Syllabus:Β 
Multivariate. distributions and calculus ● Exchangeable model ● Specification of priors (conjugate, Jeffreys, Max. entropy, etc...) ● elements of decision theory (Bayes risk, admissibility, etc...) ● point estimators ● credible sets ● hypothesis tests ● model comparison ● model averaging ● Lindley's paradox ● Bayesian hierarchical modeling ● empirical Bayes ● asymptotic behavior of the posterior ● intro to JAGS ● examples in Bayesian linear regression ● logistic regression and Normal mixture model
Variational Bayesian inference (as self study material)

Bayesian statistics III/IV/V (MATH3341/MATH4031/MATH43220)
Epiphany
Syllabus:
    • Graphical models: Graph theory ● Conditional independence ● Bayesian networks
    • Stochastic simulation: Inverse sampling method ● Rejection sampler ● Importance sampling ● Markov chain Monte Carlo (Gibbs alg, Metropolis-Hastings alg, central limit theorem, law of large numbers, convergence, implementation, diagnostics, and output use)
    • Laplace approximation

Topics in Statistics III/IV (MATH3361/MATH4071)
Michaelmas
Syllabus:
    • Contingency tables: graphical investigation ● 3 way tables ● multi-way tables ● models of conditional independencies ● Goodness-of-fit tests ● residuals/diagnostics ● odds ratios ● Mantel-Haenszel test ● Simpson's paradox ● estimation ● log-linear models ● model comparison (profile likelihood ; AIC/BIC ; forward selection ; backward elimination ; stepwise selection) ● parameter estimation (Newton algorithm ; iterative proportions fitting)
    • Likelihood methods: modes of convergence of sequences of random variables ● Taylor expansion with remainder (multivariate) ● characteristic functions ● consistency ● laws of large numbers ● central limit theorems ● Mann-Wald notation (big/little Oh pee) ● Cramer's theorem and Delta method ● Asymptotic efficiency ● variance stabilization ● MLE (and properties) ● method of moments (and properties) ● one-step-estimators (and properties) ● symptotic confidence regions and hypothesis tests (with: ML ; Wald ; Score statistics) ● inference with nuisance parameters (profile likelihood ; Wald ; Score statistic) ● Expectation-Maximization
    • Bootstrap methods as self study material

Spatio-Temporal Statistics IV (MATH4341)
Michaelmas

Syllabus:
  • Introduction to regionalized statistical concepts: variables, stationarity, random functions, variogramsΒ 

  • Point referenced data analysis: Gaussian process regression models, kriging, co-krigingΒ Β 

  • Areal data analysis: spatial models on lattices, Gibbs-Markov random fields on networks, spatial autoregressive modelsΒ Β 

  • Point pattern data analysis: Poisson, Cox, Gibbs and Markov point processes

  • Computations: integrated Nested Laplace Approximation methods (if time allows)Β 


Machine learning and neural networks III (MATH3431)
Epiphany

Syllabus:
  • Foundations: Convex learning problems and related theory
  • Stochastic learning: stochastic gradient decent, stochastic gradient Langevin dynamics, and variations
  • Support vector machines: geometry, hard SVM, soft SVM,
  • Kernel methods: projections in feature spaces, the kernel trick, kernelised SVM, Gaussian process regression
  • Neural networks: single/multi-layer perception, error back-propagation, Bayesian/classical framework, relation to other models
  • Optional (if time allows): Latent variable models, mixture models, expectation maximization alg. variational inference
  • Software implementation of the above

Statistical methods III (MATH3051)
Epiphany

Syllabus:Β 
Linear regression ● Regression diagnostics (assumptions ; influential points ; outliers) ● model selection (profile likelihood ; AIC/BIC ; forward selection ; backward elimination ; stepwise selection) ● ANOVA ● principal component analysis ● dimension reduction ● mixture models of distributions ● Expectation Maximisation

Statistics (MATH1541)
Epiphany

Syllabus:
Introduction to: Random variables ● distributions ● expectations ● Central Limit Theorem ● Law of Large Numbers ● parametric tests for 1 and 2 populations (mean, variance, proportions) ● non parametric tests for 1 and 2 populations (median) ● 1 way ANOVA