I completed my Ph.D. in the Department of Statistics at the University of Manitoba, under the supervision of Dr. Liqun Wang and Dr. Saman Muthukumarana. My academic path has been shaped by a strong foundation in statistical theory, computational methods, and machine learning, built upon an M.Sc. in Mathematical Statistics from the University of Tehran and a B.Sc. in Statistics from Allameh Tabataba'i University in Iran.
My research focuses on developing robust and interpretable statistical methods for intractable models, particularly in the context of Bayesian inference, Stein discrepancies, and kernel-based model evaluation. With over eight years of combined academic and professional experience, I have led the development and implementation of statistical and machine learning solutions across diverse domains, including neuroscience, genomics, biomedical research, time-series forecasting, and archeology.
Statistical Machine Learning • Kernel & Stein Methods • Bayesian Inference • Gradient-Free Diagnostics • High-Dimensional & Multimodal Data • Computational Statistics • Robust & Interpretable Modelling • Applied Data Science
My work sits at the intersection of theoretical statistics and modern machine learning. I design kernel-based techniques and Bayesian frameworks that remain reliable in high-dimensional, multimodal, and noisy data settings. Current projects focus on (i) developing weighting and regularization schemes that safeguard type-I error and recover latent structure, (ii) crafting fast, gradient-free diagnostics for complex models, and (iii) building open-source Python toolkits that make these methods easy to deploy. I translate rigorous methodology into decision-ready insights for health analytics, financial risk, and environmental monitoring. By uniting rigorous mathematics with modern computing, I deliver reliable, interpretable solutions for complex, real-world data.
Afzali E., Muthukumarana S., Wang L. (2024). “Navigating interpretability and alpha control in GF-KCSD testing with measurement error: A Kernel approach.” Machine Learning with Applications.
Afzali E. & Muthukumarana S. (2023). “Gradient-Free Kernel Conditional Stein Discrepancy goodness of fit testing." Machine Learning with Applications.
Afzali E., Adegoke A., Jin Z., Qiu W., Wang L,. (2021). “Hybrid VAR-LSTM Networks Modeling and Forecasting COVID-19 Data in Canada." Statistical Society of Canada, Case Study.
Afzali E., Muthukumarana S., Wang L. (2025). “Correcting Mode Proportion Bias in Generalized Bayesian Inference via a Weighted Kernel Stein Discrepancy".
Thesis: Advanced Kernel-Based Approaches for Robust Inference in Intractable Models.
Thesis: EBSeq-HMM: A Bayesian Approach for Identifying Gene-expression Changes in Ordered RNA-Seq Experiments.
Dissertation: Medical Image Processing for Early Detection of Alzheimer’s Disease Using Structural MRI.
Fall 2021
Winter 2021
Fall 2020
Winter 2022
Winter 2022
Winter 2020
Winter 2020
Contributed original research at the intersection of statistical theory and machine learning, producing peer-reviewed publications and practical tools for model evaluation in complex, high-dimensional data settings.
Joint Statistical Meetings 2024 (JSM2024), Portland, USA.
Joint Statistical Meetings 2023 (JSM2023), Toronto, Canada.
Joint Statistical Meetings 2023 (JSM2023), Toronto, Canada.
Statistical Society of Canada Annual Meeting — Case Studies 2021 (online).