collaborators

6 papers

cs.CV2026

High-Fidelity 3D Geometric Reconstruction of Pelvic Organs from MRI: A Hybrid Deep Learning and Iterative Optimization Approach

Hui Wang, Xiaowei Li, Chenxin Zhang +7

Patient-specific 3D reconstruction of pelvic organ geometry from MRI is important for pelvic floor modeling and downstream patient-specific analysis. However, while previous studie…

q-bio.QM2026

Evaluating Deep Surrogate Models for Knee Joint Contact Mechanics Under Input-Limited Conditions

Zhengye Pan, Jianwei Zuo, Jiajia Luo

Background and Objective: Accurate surrogate modeling of knee joint contact mechanics is important for reconstructing stress distributions and identifying risk-relevant regions, ye…

q-bio.QM2026

Characterizing Long-Range Dependencies in Knee Joint Contact Mechanics: A Comparison of Topology Diffusion, Global Routing, and Hybrid Graph Neural Networks

Zhengye Pan, Jianwei Zuo, Jiajia Luo

Finite element analysis of knee joint contact mechanics is computationally expensive, which has motivated the development of graph neural network surrogate models. However, effecti…

q-bio.TO2026

Towards Structure-Aware Surrogate Modeling: Explicit Region Interaction Improves Knee Contact Stress Prediction

Zhengye Pan, Jianwei Zuo, Jiajia Luo

Knee contact-stress hotspots are closely linked to meniscal/cartilage injury risk. Still, high-fidelity subject-specific FEA is too computationally expensive for large-cohort, mult…

q-bio.QM2026

Disentangling History and Propagation Dependencies in Cross-Subject Knee Contact Stress Prediction Using a Shared MeshGraphNet Backbone

Zhengye Pan, Jianwei Zuo, Jiajia Luo

Background:Subject-specific finite element analysis accurately characterizes knee joint mechanics but is computationally expensive. Deep surrogate models provide a rapid alternativ…

q-bio.QM2025

GNN-Based Deep Surrogate Modeling of Knee Contact Mechanics: Generalizing Neuromuscular Control Patterns Across Subjects

Zhengye Pan, Jianwei Zuo, Jiajia Luo

Background: Accumulation of abnormal contact stress is a primary biomechanical driver of acute meniscal tears and chronic osteoarthritis. While Finite Element Analysis (FEA) provid…