Applied Statistics for AI and Clinical Decision-Making

Modified

June 8, 2026

Applied Statistics for AI and Clinical Decision-Making

This series is a broad foundation in applied statistics for readers working at the intersection of AI, machine learning, clinical decision-making, and real-world analytic practice.

The goal is to connect core statistical ideas to the kinds of questions that arise in modern data work: uncertainty, prediction, inference, model evaluation, dimensionality, optimization, and the interpretation of evidence in applied settings.

Rather than treating statistics and AI as separate domains, this series approaches them as deeply connected. Many of the concepts that power machine learning are statistical at their core, and many of the most important practical questions in AI are really questions about assumptions, uncertainty, generalization, and decision-making.

Topics in This Series

This series includes:

  • Probability fundamentals for machine learning
  • Random variables and expectation
  • Common probability distributions
  • Central Limit Theorem
  • Law of Large Numbers
  • Sampling methods for Biostats and ML
  • Hypothesis testing in the age of AI
  • Confidence intervals
  • Maximum likelihood estimation
  • Bayesian inference
  • Linear regression
  • Logistic regression
  • Generalized linear models
  • Analysis of variance
  • Principal component analysis
  • Cluster analysis
  • Time series analysis
  • Survival analysis
  • Non-parametric methods
  • Bias-variance tradeoff
  • Regularization
  • Cross-validation
  • Information theory
  • Optimization techniques
  • Linear algebra basics
  • Calculus for ML
  • Monte Carlo methods
  • Dimensionality curse and reduction techniques
  • Model evaluation metrics
  • Ensemble methods

What This Series Is For

This series is intended for readers who want a practical and conceptually grounded path through the statistical ideas that support modern AI and analytic work.

It is especially well suited for:

  • analysts building stronger statistical foundations
  • clinicians and applied researchers who want to better understand AI/ML methods
  • data scientists who want stronger intuition for inference and model behavior
  • readers preparing for more advanced topics in causal inference, missing data, and real-world evidence

How to Read This Series

There are several natural paths through this material.

One approach is to move from foundational probability and sampling ideas into inference and estimation, then into regression and generalized modeling, and then into more modern machine learning topics such as regularization, cross-validation, dimensionality reduction, optimization, and ensemble methods.

Another approach is to read by theme:

Foundations of uncertainty and probability

  • Probability fundamentals for machine learning
  • Random variables and expectation
  • Common probability distributions
  • Central Limit Theorem
  • Law of Large Numbers
  • Monte Carlo methods

Inference and estimation

  • Sampling methods for Biostats and ML
  • Hypothesis testing in the age of AI
  • Confidence intervals
  • Maximum likelihood estimation
  • Bayesian inference
  • Non-parametric methods

Classical modeling

  • Linear regression
  • Logistic regression
  • Generalized linear models
  • Analysis of variance
  • Survival analysis
  • Time series analysis

Structure, dimension, and learning

  • Principal component analysis
  • Cluster analysis
  • Dimensionality curse and reduction techniques
  • Bias-variance tradeoff
  • Regularization
  • Cross-validation
  • Ensemble methods

Mathematical foundations for machine learning

  • Information theory
  • Optimization techniques
  • Linear algebra basics
  • Calculus for ML
  • Model evaluation metrics

Why This Series Matters

Modern AI systems often look new at the surface while depending on older statistical principles underneath.

Questions such as:

  • How uncertain is this prediction?
  • What assumptions is this model making?
  • How should performance be evaluated?
  • What happens when data are sparse, noisy, or biased?
  • When does a flexible model generalize, and when does it fail?

are fundamentally statistical questions.

This series is designed to make those connections explicit.

Where to Go Next

After this series, readers may want to continue with:

Return to the Series Hub.

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