I am currently a final-year PhD student at The Hong Kong University of Science and Technology (HKUST), working under the supervision of Prof. Xiaomeng Li. Additionally, I work closely with Prof. Lijie Hu at MBZUAI and Prof. Sichao Li (Incoming Lecturer at USYD).
Prior to my PhD, I earned my Bachelor's degree (with Honours) from The Australian National University, where I was advised by Senior Prof. Amanda Barnard and supervised by Dr. Amanda Parker.
My research journey has been enriched by experiences at the MIT Computational Connectomics Group led by Prof. Nir Shavit, where I collaborated with Prof. Hao Wang and Prof. Lu Mi. I also gained valuable experience as a Research Assistant at the National University of Singapore, supervised by Dr. Gang Guo.
I am actively looking for collaborators in XAI and Healthcare. If you are interested, please reach out via e-mail.
My research interest is to apply Interpretable Machine Learning to interdisciplinary fields.
In particular, I am interested in:
(* indicates equal contribution, _ indicates equal advising)
We introduce STaDS to evaluate LLM understanding beyond accuracy, revealing that models often lack faithful reliance on relevant decision factors despite their predictive success.
ECBM is a unified framework for concept-based prediction, concept correction, and fine-grained interpretations based on conditional probabilities.
We introduce ECDMs, a unified energy-based framework that integrates concept-based generation, interpretation, debugging, and intervention.
We utilize machine learning to correlate molecular composition with biological reactivity in reservoirs, leveraging model tuning to enhance both predictive power and interpretability.
We apply machine learning to integrate irradiation experiments, providing novel insights into the photochemical transformation processes of estuarine dissolved organic matter.
We propose GNNS, a graph neural network-based framework for efficient subgraph sampling and frequency distribution estimation in large networks.
This work develops an enhanced, faster version of Iterative Label Spreading Clustering specifically optimized for materials science applications with reduced hyperparameters.
We present our award-winning solution (Ranked 2nd) for the ICASSP 2021 Network Anomaly Detection Challenge.
We evaluate various classification models for SARS detection on diverse datasets, generating explanatory rules to ensure model interpretability.