End-to-End Quantum Frameworks
Building practical frameworks on utility-level hardware. Utilizing algorithms like VQE on IBM Eagle (127q) and Heron (156q) processors to identify low-energy conformations for stable protein structures.
PhD Student in Computer Science @ Kent State University
I am a PhD student focusing on Quantum Computing. My research bridges the gap between quantum algorithms and real-world drug discovery challenges, utilizing both utility-level quantum processors (IBM Eagle/Heron) and HPC systems.
My work involves Variational Quantum Algorithms (VQA), Quantum-HPC hybrid frameworks, and Quantum-AI integration. I specifically target protein structure prediction, energy surface reconstruction, and molecular docking.
Building practical frameworks on utility-level hardware. Utilizing algorithms like VQE on IBM Eagle (127q) and Heron (156q) processors to identify low-energy conformations for stable protein structures.
Integrating Generative AI and classical optimization to expand system information capacity. This approach allows quantum algorithms to transcend intrinsic QPU limitations and noise constraints.
Designing algorithms that bridge hierarchical levels—from protein folding to ligand docking—across physical and chemical scales to advance the era of quantum-enabled drug design.
Developing high-throughput fusion protocols that integrate massive-scale classical datasets with quantum feature spaces. This approach leverages HPC clusters to process "super-volume" biological data, enhancing the scalability of quantum simulations.
I am deeply grateful to my advisor Dr. Qiang Guan, and mentors Dr. Juan Yao (SZIQA), Dr. Zhaofeng Su (USTC), Dr. Sanjiang Li (UTS), and Dr. Yuan Feng (THU).
Special thanks to the 419 Lab team (Hang Yu, Yiyan Cheng, Rongqi Lu, Zhuoqing Xiao, Yongzhi Li, Yao Xiao) and my friend Haojie Zhang for guiding me into the quantum world.