HP-JEPA: Hierarchical Partitioning for Multi-Resolution Graph Joint-Embedding Predictive Learning
Multi-resolution latent prediction learns transferable graph representations across local and global structural scales.
My work spans trustworthy learning over structured data, efficient and aligned multimodal foundation models, and machine learning for scientific discovery.
Multi-resolution latent prediction learns transferable graph representations across local and global structural scales.
Hard structural perturbations and mixup produce faithful GNN explanations while reducing distribution shift.
A theoretical and empirical treatment of structural distribution shift in GNN explanations, using proxy graphs to preserve explanatory information while remaining in distribution.
Confidence-calibrated framework for reliable GNN explanations, especially under OOD settings.
Graph-enhanced RAG pipeline for evidence-grounded LLM responses.
A 3D GNN explainer that localizes explanations through node-wise radius of influence.
An explanation framework for graph regression models with improved reliability under distribution shift.
Uses LLM-guided Bayesian inference to mitigate learning bias in graph explanation.
Generates in-distribution proxy graphs to improve faithfulness of GNN explanations.
A data-augmentation-based framework to improve OOD robustness of GNN explanations.
Neural recovery of variable names and type inference from minified code.
Commit-level vulnerability detection and CVSS assessment via context-aware graph learning.
A review of multimodal alignment spanning evidence use, human intent, training methods, and evaluation.
InfoShot is a training-free, shot-aware sampler that preserves both representative context and brief decision-critical events in long videos.
A two-stage self-improvement framework that uses model-generated rationales to adapt vision-language models to domain-specific video classification without additional annotations.
Single-pass recovery of complete PDE fields from sparse measurements through latent prediction and physical reconstruction.
A benchmark for evaluating physical-field reconstruction and forecasting as observation density and spatial layout change.