Mike West, Duke University  

Mike West
Arts & Sciences Professor of Statistical Science
Department of Statistical Science
Duke University

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Some key current areas of focus for statistical theory, methods and computational research include:
  • Statistical modelling with large data sets and high-dimensional covariate spaces in regression and classification models for prediction;
  • Latent structure in scientific modelling, including latent factor models, including applications in high-dimensional statistical models, multi-scale time series, and others;
  • Graphical models, and related statistical and graph theory for graph structuring;
  • Multivariate analysis and high-dimensional random graphs and matrices;
  • Graphical and factor models in multivariate financial time series and portfolio analysis;
  • Statistical models in "systems biology" - specifically, modelling and analysis of non-linear, multivariate processes representing the stochastic dynamics of cellular networks at the single cell level;
  • Bayesian prediction tree models and related approaches to flexible non-linear/semi-parametric regression and prediction;
  • MCMC and other simulation methods for Bayesian computation;
  • Large-scale model search and stochastic methods for evolutionary exploration of complex model spaces;
  • Statistical computation via cluster computers.
Current collaborations include a major focus on genomics and emerging areas of systems biology, including:
  • Molecular profiling in cancer (and other areas), prognostic models for predicting clinical outcomes using molecular profiles, clinical evaluation and testing;
  • Identification of complex, multi-dimensional genomic patterns related to deregulation of oncogenic pathways, and statistical characterisation of biological pathways using factor models and related methods;
  • Parameter estimation and model evaluation using discrete-time dynamic stochastic models of dynamic cellular networks
  • Imaging methodology for single-cell fluorescent imaging
  • Statistical mixture modelling of large-scale spatio-temporal organisation of multiple cell types in immunology