👋🏼 I'm Zihan Liang, an Applied Mathematics & Statistics student researcher at Emory, researching machine learning and NLP.
👋🏼 I'm Zihan Liang, an Applied Mathematics & Statistics student researcher at Emory, researching machine learning and NLP.
Zihan Liang 梁梓涵 | zihan.liang@emory.edu | Dept. of Data and Decision Sciences, Emory University
As an Applied Mathematics and Statistics student at Emory University, I am passionate about machine learning, AI, and natural language processing. Through various research projects, I have explored data-driven solutions to real-world challenges in fields like healthcare, autonomous driving, and labor markets. I aim to bridge theoretical research with practical applications, optimizing models to improve data understanding and influence decision-making.
Machine Learning
Developing innovative models that integrate theory with real-world applications across healthcare, NLP.
Data Visualization
Creating clear and interactive tools that transform complex datasets into actionable insights for communities.
AI Community Building
Leading interdisciplinary projects that make AI accessible and foster collaboration among diverse students.
Cultural Leadership
Driving meaningful engagement and cross-cultural exchange through large-scale events and organizational leadership.
My research focuses on Machine Learning (ML), Natural Language Processing (NLP), and Data-Driven Decision Making. I aim to develop robust algorithms and systems that bridge theory and practice, enabling models to handle real-world challenges such as missing data, domain shifts, and multi-modal complexity, with applications spanning healthcare, recommendation systems, and autonomous systems:
Multimodal Learning under Missingness: designing models that adapt to missing-not-at-random (MNAR) data patterns in clinical, recommendation, and multimodal settings.
Domain Adaptation and Robust Transfer: developing domain-adaptive frameworks for cross-dataset generalization in computer vision and medical imaging.
Causal Representation Learning: integrating causal inference with deep learning to build interpretable and generalizable models, especially for healthcare analytics.
Applied NLP: creating transformer-based architectures for sentiment analysis, clinical text understanding, and health event detection under noisy and imbalanced data.
AI for Societal Impact: leveraging ML and game-theoretic modeling to inform policy, sustainability, and human-centered AI applications such as autonomous driving and labor markets.