Award-Winning Statistics Graduate Level Tutors
serving St. Louis, MO

Seven years of experimental psychology research means Anna doesn't just teach graduate statistics — she uses it daily, from designing multivariate models to running hierarchical regressions and interpreting interaction effects. Her PhD work at Saint Louis University required mastering advanced techniques like structural equation modeling and mediation analysis, so she teaches these methods with the fluency of someone who actually applies them. Rated 4.9 by students.

Graduate-level statistics demands more than plugging data into software — it requires understanding why a likelihood ratio test applies in one scenario and a Wald test in another. Mayuri's PhD in Physics meant designing experiments and running advanced statistical analyses firsthand, from Bayesian inference to multivariate regression. She breaks down the mathematical derivations behind each method so the theory clicks alongside the application.

Graduate-level statistics demands fluency with concepts like maximum likelihood estimation, Bayesian inference, and multivariate analysis — not just running software but understanding the theory underneath. Michelle brings a quantitative biology perspective to these methods, having applied advanced statistical frameworks to biological data throughout her science training. Rated 4.9 by students.

Graduate-level statistics often means wrestling with multivariate methods, hierarchical models, and software like SPSS, Stata, or R while simultaneously trying to apply them to a thesis or dissertation dataset. Hidefusa's doctoral work in clinical neuropsychology gave him hands-on experience designing studies, running complex analyses, and interpreting output — skills he now breaks down for other graduate students navigating their own research.

Graduate-level statistics demands fluency with topics like maximum likelihood estimation, multivariate distributions, and regression diagnostics that go well beyond introductory coursework. Dana holds a degree in statistics and is pursuing PhD-level economics research involving econometrics, so she's actively working with these methods. She unpacks the mathematical theory behind statistical procedures while keeping the applied interpretation clear.

Graduate-level statistics demands comfort with proofs and derivations that most intro courses skip — maximum likelihood estimation, Bayesian inference, and the mathematical foundations behind common tests. Brian's Caltech background in economics and computer science gave him deep exposure to these methods in both theoretical and applied contexts, and he breaks down dense notation into intuitive steps.

Graduate-level statistics often demands fluency with multivariate analysis, mixed models, and experimental design — topics Dan tackled extensively during his Master's in Plant Biology and Conservation, where statistical modeling was central to his research. He breaks down the logic behind tests like ANOVA, regression diagnostics, and maximum likelihood estimation so the methodology clicks, not just the software output. Rated 5.0 by students.

Graduate-level statistics is where psychology and research methods collide, and Jessi has lived that intersection — her psychology degree from Rice and ongoing bioethics work at UPenn mean she's run regressions, interpreted ANOVA tables, and designed studies with real data. She breaks down concepts like multivariate analysis and hypothesis testing by grounding them in the research contexts where they actually matter.

I am highly praised by my students and supervisors. Even today I still kept the communication with many students.

Graduate-level statistics demands fluency with concepts like maximum likelihood estimation, Bayesian inference, and multivariate distributions that go far beyond introductory coursework. Yuanxin's master's in financial engineering at USC required exactly this depth — she built and analyzed stochastic models where getting the statistics wrong meant getting the entire financial model wrong.

Graduate-level statistics can feel like a different language — survival analysis, multivariate regression, Bayesian inference — especially for students outside traditional math backgrounds. Kimberly runs these methods daily in her Columbia MPH program, where biostatistics is central to public health research. She breaks down the logic behind each technique so students can apply it confidently in their own coursework and thesis work.

Graduate-level statistics demands comfort with proofs and distributions that introductory courses barely mention — maximum likelihood estimation, Bayesian inference, multivariate hypothesis testing. Channing digs into the mathematical machinery behind these methods, connecting measure-theoretic ideas to practical applications so the theory actually sticks. His broad math background, spanning calculus through biostatistics, keeps the explanations rigorous without losing sight of real-world relevance.

Graduate-level statistics demands more than running tests — it requires understanding why you'd choose a mixed-effects model over a fixed-effects one, or when bootstrapping outperforms parametric assumptions. Snipta's computer science and cognitive science training at UT Dallas, plus hands-on research at the National Institutes of Health, means she's applied techniques like Bayesian inference and multivariate regression to real datasets, not just textbook exercises.

Graduate-level statistics demands comfort with concepts like hypothesis testing, regression modeling, and ANOVA that go well beyond intro courses. Dillon's engineering background — including a master's in welding engineering technology — required heavy applied statistics work, from designing experiments to interpreting multivariate data in real research contexts. He teaches the reasoning behind each method so students can choose and defend the right analytical approach.