I am a Ph.D. student in Cyber Science and Engineering at Sichuan University. My research focuses on federated learning, image generation, and AI for healthcare.
I am especially interested in representation learning for distributed, privacy-sensitive, and clinically complex settings: how models can learn from heterogeneous clients, preserve useful local knowledge, and still build robust global representations. My recent work spans federated visual learning, reliable multi-label medical image diagnosis, and LLM-orchestrated CT reconstruction, while my earlier work studied deep learning methods for MRI reconstruction, CT reconstruction and denoising, CT metal artifact reduction, and OCT speckle reduction.
Before starting my doctoral study, I worked as a Software Engineer at Huawei Cloud Computing Technology Co., Ltd., where I gained practical experience in cloud computing, large-scale distributed systems, and data analysis.
For collaboration, feel free to reach me at yqhuang2912@gmail.com.
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Accepted to IJCAI 2026. The work explores an LLM-orchestrated diagnose-plan-treat framework for mixed-degradation CT reconstruction.
Accepted as an ICML 2026 regular paper. The work studies reliable multi-label medical image diagnosis through fuzzy alignment with comorbidity topology.
Studies federated visual primitive sharing with text-guided adaptation, aiming to improve visual learning beyond fixed class boundaries in distributed settings.
Rethinks how information is represented and exchanged in federated learning, aiming to improve collaborative training under distributed data settings.
Proposes a noise-powered disentangled representation method for unsupervised speckle reduction in optical coherence tomography images.
Uses a generative adversarial network to perform simultaneous denoising and super-resolution for optical coherence tomography images.