Teaching

Office hours: Tuesdays. 14:00-15:00 Location: C.121b

Current (Fall 2024)

Advanced statistical analysis and model-based learning (formerly ‘Advanced Statistics for Data Science’)

Past

Reichman CS 3798: An Introduction to Information Theory (Fall 2023)

Reichman CS 3676: Advanced statistics for data science (Spring 2023)

Reichman CS 3141: Introduction to Machine Learning (Spring 2024, Spring 2023)

Reichman CS 3890: Information-theoretical analysis of neural language models

Reichman CS 3676: Advanced statistics for data science (Spring 2022)

Lecture 1 course overview, introduction to the linear model, examples
Lecture 2 linear model and algebraic properties of least squares fit
Probability Review random vectors, conditional distributions, multivariate normal
Lecture 3 distributional properties of least squares fit
Lecture 4 t-test, F-test, Gauss-Markov thm., intro. to statistical inference
Lecture 5 one-sample testing, significance, confidence interval, power
Lecture 6 two-sample testing, ANOVA I
Lecture 7 computing least squares with SVD, ANOVA II, multiple comparisons
Lecture 8 multiple comparisons and false-discovery rate, simple regression I
Lecture 9 simple regression II, confidence bands, interplay between variables
Lecture 10 variable selection I: stepwise methods and cross-validation
Lecture 11 variable selection II: regularization, violations of assumptions
Lecture 12 violations of assumptions, course summary, followups

Stanford STATS 285: Massive computational experiments, painlessly (Spring 2020-2021)

  • with David Donoho and Masha Lofti

Stanford STATS 207: Introduction to time-series analysis (Fall 2020-2021)

Lecture 1 course outline, examples of time series data, models for time series data
Lecture 2 sample autocorrelation and basic theoretical constructs
Lecture 3 time series regression
Lecture 4 trend models and Data Wrangling
Lecture 5-6 ARMA/ARIMA Modeling I
Lecture 7 ARMA/ARIMA Modeling II
Lecture 8 ARIMA/SARIMA
Lecture 9 regression with autocorrelated errors and lagged regression
Lecture 10 efficient markets hypothesis and GARCH (guest lecture by David Donoho)
Lecture 11 spectral Analysis I
Lecture 12 spectral Analysis II
Lecture 13 spectral regression and principal components
Lecture 14 state-space modeling and the Kalman Filter
Lecture 15 estimation of state-space models
Lecture 16 dynamic linear models with switching
Lecture 17 stochastic volatility, Bayesian analysis of state-space models
Lecture 18 bootstrap reality check and technical trading rules (guest lecture by David Donoho)
Lecture 19 prophet (guest lecture by Sean Taylor)
Lecture 20 high-dimensional data, DeepAR, VEST