Time Series, Health & Evidence Synthesis · Biostatistics & Clinical Trials

Computational Biostatistics: Bayesian Inference in Biomedicine

Public introduction · full guide in Eikos

Introduction

What this guide covers

Theoretical foundations, conjugate exact models, Markov Chain Computing (MCMC), multivariate hierarchical models, survival analysis and adaptive designs.

Overview

Topics covered

  • Introduction
  • Bayesian Inference in Biomedicine
  • Paradigm and General Theory of Bayesian Modeling
  • Likelihood in Biomedicine
  • Taxonomy of Priori Distributions
  • Exact Analytic Conjugation in Exponential Families

Related concepts

Main connections

  • Bayes' theorem & priors
  • Markov chain Monte Carlo (MCMC)
  • Maximum likelihood estimation
  • Mean & expected value
  • Survival analysis & Kaplan-Meier
  • Variance & standard deviation

Compatible notation

Mathematical sample in LaTeX

The expression is rendered accessibly, with its LaTeX source preserved below.

p(𝛉∣𝐲)=f(𝐲∣𝛉)p(𝛉)∫Θf(𝐲∣𝛉)p(𝛉)d𝛉=L(𝛉∣𝐲)p(𝛉)p(𝐲)
View LaTeX sourcep(\boldsymbol{\theta} \mid \boldsymbol{y}) = \frac{f(\boldsymbol{y} \mid \boldsymbol{\theta}) p(\boldsymbol{\theta})}{\int_{\Theta} f(\boldsymbol{y} \mid \boldsymbol{\theta}) p(\boldsymbol{\theta}) d\boldsymbol{\theta}} = \frac{L(\boldsymbol{\theta} \mid \boldsymbol{y}) p(\boldsymbol{\theta})}{p(\boldsymbol{y})}