Statistical Computing for Data Science II
Advanced Monte Carlo statistical methods for Bayesian data analysis and data science.
Objectives and Overview
This course introduces advanced Monte Carlo statistical methods that have been a part of standard computational techniques used in Bayesian data analysis and data science. We will cover implementations using C/C++/R/Python/Julia.
Textbooks & References
- Faming Liang, Chuanhai Liu, Raymond Carroll (2010). Advanced Markov Chain Monte Carlo Methods: Learning from Past Samples. Wiley.
- Christian Robert, George Casella (2005). Monte Carlo Statistical Methods. Springer.
- Steve Brooks, Andrew Gelman, Galin Jones, Xiao-Li Meng (2011). Handbook of Markov Chain Monte Carlo. Chapman and Hall/CRC.
Topics
- Review: Markov Chain Monte Carlo
- Advanced Markov Chain Monte Carlo I: Data Augmentation, Hit-and-Run Algorithm, Multiple-Try Metropolis
- Advanced Markov Chain Monte Carlo II: Reversible Jump MCMC, MCMC with Adaptive Proposal, Simulated Annealing
- Auxiliary Variable MCMC I: Simulated Tempering, Slice Sampler, Swendsen-Wang Algorithm
- Auxiliary Variable MCMC II: Exchange Sampler, Double MH Sampler, Monte Carlo MH Sampler
- Approximate Bayesian Computation: ABC with Regression Approach, ABC with MCMC and SMC, ABC with Model Selection
- Hamiltonian Monte Carlo I: Hamiltonian Monte Carlo, Metropolis-Adjusted Langevin Algorithm (MALA), Riemann Manifold HMC
- Hamiltonian Monte Carlo II: No U-Turn Sampler (NUTS), Stochastic Gradient MCMC, Stochastic Gradient HMC
- Population-Based MCMC I: Adaptive Direction Sampling, Conjugate Gradient Monte Carlo, Parallel Tempering
- Population-Based MCMC II: Sequential Parallel Tempering, Evolutionary Monte Carlo, Equi-Energy Sampler
- Stochastic Approximation Monte Carlo I: SAMC, Population SAMC, Varying Truncation SAMC
- Stochastic Approximation Monte Carlo II: Adaptive Exchange Algorithm, Simulated Stochastic Approximation Annealing, Resampling-based SAMC
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Computing CDF by trapezoidal rule
A numerical integration approach to calculating the Cumulative Distribution Function directly from the Probability Density Function.