Ph.D. in Statistics · Focus: Machine Learning, Causal Inference, Deep Learning
Interdisciplinary training in statistics, econometrics, and mathematics, with emphasis on machine learning and AI-driven methods.
Experience in causal inference and deep learning, including PyTorch-based generative models. Combines rigorous statistical foundations with practical implementation to build and evaluate machine learning models, with emphasis on robustness, inference, and uncertainty quantification.
Core concepts and methods in statistical machine learning, including regularization, nonparametric methods, ensemble methods, and neural networks, with model evaluation and statistical inference.
Optimization and simulation-based techniques, including Monte Carlo, MCMC, and numerical algorithms.
Developed neural network models, including convolutional and recurrent architectures, attention mechanisms, and generative models, with structured training and evaluation workflows.
Built from-scratch neural network architectures to study implementation, training dynamics and algorithmic behavior.
Development of causal machine learning methods for treatment effect estimation, representation learning, and simulation-based evaluation.
Machine Learning & AI
Supervised and unsupervised learning, deep learning, causal machine
learning, generative models
Statistical Methods
Causal inference, Bayesian inference, nonparametric and semiparametric
methods, Monte Carlo and MCMC
Programming & Frameworks
Python (NumPy, Pandas), R, SQL; PyTorch, TensorFlow, Keras
Assistant Professor, Syracuse University
(2018–Present)
Research and teaching in statistical learning, causal inference, and
computational methods, with focus on modeling, inference, and numerical
algorithms.
Econometrics Intern, SAS Institute (2017)
Developed and validated algorithmic components for Hidden Markov Models
within the SAS Econometrics platform.
Causal machine learning, deep learning, large language models, and reliable and interpretable AI systems.