My tags: topic: data analysis#
With this tag
- The three steps of Bayesian data analysis
- General Notation for Statistical Inference
- Bayesian Inference
- Discrete Bayesian Examples – Genetics and Spell Checking (with θ)
- Probability as a Measure of Uncertainty
- Example — Probabilities from Football Point Spreads
- Example — Calibration for Record Linkage
- Some Useful Results from Probability Theory
- Computation and Software
- Bayesian Inference in Applied Statistics
- Estimating a Probability from Binomial Data
- Posterior as a Compromise Between Data and Prior Information
- Summarizing Posterior Inference
- Informative Prior Distributions
- Normal Distribution with Known Variance
- Other Standard Single-Parameter Models
- Informative Prior Distribution for Cancer Rates
- Noninformative Prior Distributions
- Weakly Informative Prior Distributions
- Averaging Over Nuisance Parameters
- Normal Data with a Noninformative Prior Distribution
- Normal Data with a Conjugate Prior Distribution
- Multinomial Model for Categorical Data
- Multivariate Normal Model with Known Variance
- Multivariate Normal with Unknown Mean and Variance
- Example: Bayesian analysis of a bioassay experiment (logistic, nonconjugate)
- Summary of Elementary Modeling and Computation
- Normal Approximations to the Posterior Distribution
- Large-Sample Theory
- Counterexamples to large-sample (asymptotic) Bayesian theorems
- Frequency Evaluations of Bayesian Inferences
- Bayesian interpretations of other statistical methods
- Constructing a Parameterized Prior Distribution
- Exchangeability and hierarchical models
- Bayesian analysis of conjugate hierarchical models
- Normal model with exchangeable parameters
- Example: parallel experiments in eight schools
- Hierarchical modeling applied to a meta-analysis
- Weakly Informative Priors for Variance Parameters
- The Place of Model Checking in Applied Bayesian Statistics
- Do the Inferences from the Model Make Sense?
- Posterior predictive checking
- Graphical posterior predictive checks
- Model checking for the educational testing example
- Measures of predictive accuracy
- Model comparison based on predictive performance
- Model comparison using Bayes factors
- Continuous model expansion
- Implicit assumptions and model expansion: an example
- Bayesian inference requires a model for data collection
- Data-collection models and ignorability
- Sample surveys
- Designed experiments
- Sensitivity and the role of randomization
- Observational studies
- Censoring and truncation
- Bayesian decision theory in different contexts
- Using regression predictions: survey incentives
- Multistage decision making: medical screening
- Hierarchical decision analysis for home radon
- Personal vs. institutional decision analysis
- Numerical integration
- Distributional approximations
- Direct simulation and rejection sampling
- Importance sampling
- How many simulation draws are needed?
- Computing environments
- Debugging Bayesian computing
- Gibbs sampler
- Metropolis and Metropolis-Hastings algorithms
- Using Gibbs and Metropolis as building blocks
- Inference and assessing convergence
- Effective number of simulation draws
- Example: hierarchical normal model
- Efficient Gibbs samplers
- Efficient Metropolis jumping rules
- Further extensions to Gibbs and Metropolis
- Hamiltonian Monte Carlo
- Hamiltonian Monte Carlo for a hierarchical model
- Stan: developing a computing environment
- Finding posterior modes
- Boundary-avoiding priors for modal summaries
- Normal and related mixture approximations
- Finding marginal posterior modes using EM
- Conditional and marginal posterior approximations
- Example: hierarchical normal model (continued)
- Variational inference
- Expectation propagation
- Other approximations
- Unknown normalizing factors
- Conditional modeling
- Bayesian analysis of classical regression
- Regression for causal inference: incumbency and voting
- Goals of regression analysis
- Assembling the matrix of explanatory variables
- Regularization and dimension reduction
- Unequal variances and correlations
- Including numerical prior information
- Regression coefficients exchangeable in batches
- Example: forecasting U.S. presidential elections
- Interpreting a normal prior distribution as extra data
- Varying intercepts and slopes
- Computation: batching and transformation
- Analysis of variance and the batching of coefficients
- Hierarchical models for batches of variance components
- Standard generalized linear model likelihoods
- Working with generalized linear models
- Weakly informative priors for logistic regression
- Overdispersed Poisson regression for police stops
- State-level opinons from national polls
- Models for multivariate and multinomial responses
- Loglinear models for multivariate discrete data
- Aspects of robustness
- Overdispersed versions of standard models
- Posterior inference and computation
- Robust inference for the eight schools
- Robust regression using t-distributed errors
- Notation
- Multiple imputation
- Missing data in the multivariate normal and t models
- Example: multiple imputation for a series of polls
- Missing values with counted data
- Example: an opinion poll in Slovenia
- Example: serial dilution assay
- Example: population toxicokinetics
- Splines and weighted sums of basis functions
- Basis selection and shrinkage of coefficients
- Non-normal models and regression surfaces
- Gaussian process regression
- Example: birthdays and birthdates
- Latent Gaussian process models
- Functional data analysis
- Density estimation and regression
- Setting up and interpreting mixture models
- Example: reaction times and schizophrenia
- Label switching and posterior computation
- Unspecified number of mixture components
- Mixture models for classification and regression
- Bayesian histograms
- Dirichlet process prior distributions
- Dirichlet process mixtures
- Beyond density estimation
- Hierarchical dependence
- Density regression
- Bayesian Data Analysis
- Why Do We Analyze Data?
- The Process of Data Analysis
- CRISP-DM for Data Science
- Big Data: Definition, Characteristics, Evolution, and Business Impact
- The First Step in Knowing Your Data
- IEEE 754 Floating-Point Standard
- Discovering Associations Through Data: From Everyday Patterns to Chicago Taxi Trips (September 2022)
- Taxi Trips – 2022 dataset from the City of Chicago open data portal
- Objective Selection of the Bin Width for a Time Histogram
- Measuring Associations in Data
- Measuring Associations Between Two Continuous Variables
- Correlation Coefficients in Python (Pearson, Spearman, Kendall)
- Karl Pearson
- Harald Cramér
- What Are Statistical Tests?
- Eta Squared (η²): Effect Size in ANOVA
- Understanding Market Baskets and Ideal Customers
- What Can Association Rules Tell Us?
- How Association Rules Are Discovered: Concepts, Scale, Measures, and the Apriori Approach
- Apriori: Frequent Itemsets via the Apriori Algorithm
- association_rules: Generating Association Rules from Frequent Itemsets (mlxtend)
- Cross-Selling
- Stratified Random Sampling
- Linear Congruential Random Number Generator (LCG)
- Partitioning Observations to Train Objective Models
- Putting Similar Observations into Clusters
- Clustering
- Recency, Frequency, and Monetary Value (RFM)
- RFM Analysis
- Creating Segments of Observations for Business Reasons (RFM)
- Least Squares Regression
- Multiple Linear Regression
- Feature Importance in Linear Regression
- Forward Selection: Definition and Core Idea
- Forward Selection and Model Interpretation in Linear Regression
- Understanding Forward and Backward Stepwise Regression
- How Shapley Values Work
- Logistic Regression: Modeling Binary Outcomes via Odds and Log-Odds
- Maximum Likelihood (MLE): Fitting a Distribution to Observed Data
- Assessing Model Fit in Logistic Regression
- Complete and Quasi-Complete Separation in Logistic Regression
- Forward Selection with Nested Models and Deviance Tests
- Interpreting and Assessing a Forward-Selection Logistic Regression Model for College Student Retention
- Motivation of Decision Trees: An Incremental Model of Decision-Making
- The CART Algorithm
- Decision Trees as Piecewise Models and Their Predictive Structure
- How CART Decision Trees Model Interactions
- Cluster Profiling Using Decision Trees
- Using Decision Trees to Explain Clustering Results
- Assessing the Quality of Prediction Models
- Binary Classification Models – Conceptual Framework and Evaluation Metrics
- Nominal Classification Models: Model State and Evaluation Metrics
- Binary Classification Model Evaluation and Threshold Optimization
- Identifying Outliers Using Residuals and Studentized Residuals
- AUC–ROC Curve: Evaluating Classification Model Performance
- Lift Analysis for Direct Mail Campaigns: Concept, Process, and Business Value
- Data Preparation & Analysis