Quantum Random Access Memory Architecture
Architectures for quantum random access memory, from system-level QRAM design to high-bandwidth shared-memory organizations.
Quantum architecture, fault tolerance, and quantum memory systems
Architectures for large-scale, fault-tolerant quantum computation.
I am a fifth-year Ph.D. student in Applied Physics at Yale University, where I am very fortunate to be advised by Professor Yongshan Ding and Professor Steven M. Girvin. Prior to Yale, I received my Bachelor's degree from Nanjing University.
My research focuses on quantum computer architecture, especially quantum memory systems, fault-tolerant data access, and magic-state preparation. I study how architectural choices, error correction code structure, and quantum subsystem design affect the practicality of large-scale quantum computing.
Overview
Research Summary
Fault-Tolerant Magic-State Preparation
Magic-state injection and distillation under realistic fault-tolerant architectural constraints.
Error-Correction-Aware Architecture
How code choices, routing, and architecture interact in deployable fault-tolerant systems.
Algorithm-Architecture Co-Design
Co-design of quantum algorithms and architectures under fault-tolerant implementation constraints.
Updates
News
Publications
Selected Publications
Teaching
Teaching
Teaching Assistantship
Supported instruction, discussion, and technical guidance in advanced computing and physics courses.
Research Mentoring
Mentor junior students on quantum computing research.