Award-Winning Statistics Graduate Level Tutors
serving Austin, TX

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 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 more than plugging data into software — it requires understanding why you'd choose a Cox regression over a logistic model, or when maximum likelihood estimation breaks down. Naushaba's Master's in Epidemiology means she learned these methods by applying them to real research questions, from survival analysis to multivariate modeling. She teaches the reasoning behind each technique so students can defend their statistical choices in dissertations and publications.

Hi! I'm Alexandre, I am a Machine Learning Engineer, so I write code to make AI do all sorts of stuff everyday. I have degrees in Applied Mathematics and Computer Science so if curious about how an area of math is useful in the real world I'd be happy to give a list of examples!

Having earned a PhD in Statistics, Sam teaches graduate-level topics like maximum likelihood estimation, Bayesian inference, and multivariate analysis with the depth that comes from years of research-level work. He's particularly strong at bridging the gap between statistical theory and practical application — connecting proofs to the computational tools students actually use in their programs.

Graduate-level statistics demands comfort with mathematical proofs and distributional theory that go far beyond introductory courses — maximum likelihood estimation, Bayesian inference, and multivariate analysis all require real mathematical maturity. Yasaman's Ph.D. research in Electrical and Computer Engineering at McMaster has her working with advanced statistical methods regularly, so she can unpack both the theory and the computational implementation behind each technique.

I am also interested in tutoring college students preparing for the GRE general test. For test preparation, I assign a decent amount of homework each week and I spend the majority of my sessions going over the questions my students answer incorrectly.

Graduate-level statistics throws curveballs that intro courses never prepare you for — survival analysis, mixed-effects models, high-dimensional inference. Nina earned her master's in biostatistics at Columbia and is currently pursuing her doctorate at NYU, so she's actively immersed in the theory and application behind these methods. She also served as a teaching assistant at Columbia, giving her a sharp sense of where grad students typically get stuck.

Graduate-level statistics throws students into multivariate analysis, hierarchical modeling, and software-driven data work that textbooks alone rarely make clear. Tashina uses MATLAB and Python in her own doctoral research in Psychological and Brain Sciences, so she can walk through both the mathematical theory and the practical implementation side by side. Rated 4.7 by students.

Duncan's master's degree in statistics makes him a natural fit for graduate-level coursework in regression analysis, hypothesis testing, ANOVA, and Bayesian methods. He approaches each topic by connecting the mathematical theory to the practical decisions students need to make — choosing the right model, interpreting output, and defending assumptions. His 5.0 client rating speaks to how clearly he breaks down even the most notation-heavy material.

Graduate-level statistics becomes far more intuitive when the examples come from real research — and Nicholas has applied multivariate analysis, mixed models, and hypothesis testing frameworks extensively throughout his genetics PhD work. He breaks down concepts like maximum likelihood estimation and ANOVA designs by tying them to the kinds of messy, real-world datasets students actually encounter in their own programs. Rated 4.8 by students.

Graduate-level statistics demands fluency with concepts like maximum likelihood estimation, hypothesis testing frameworks, and regression diagnostics — all of which Shoaib uses regularly in his economics research at Rutgers. His master's coursework involved heavy econometric modeling, so he can unpack the intuition behind proofs and derivations that textbooks often gloss over.

Graduate-level statistics trips up many students at the transition from descriptive methods to inferential reasoning — hypothesis testing, regression analysis, ANOVA, and the assumptions underlying each technique. Jason teaches these concepts at a technical college in Pittsburgh, which means he's constantly translating statistical theory into applied, real-world problem solving. His math and education background lets him break down dense material into steps that actually make sense.

Graduate-level statistics throws students into the deep end — maximum likelihood estimation, mixed-effects models, Bayesian inference — and expects fluency, not just familiarity. Elliot's PhD in Neuroscience required designing and analyzing complex experimental datasets, so he teaches these methods as tools for answering real research questions. 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.