Condensed matter theory

  • Chen, Gang: Strongly correlation theory, including atomic molecular optical physics, quantum materials, exotic phases of quantum matter and topological phases of matter;

  • Chen, Yu-An: Quantum simulation of strongly correlated condensed matter systems and topological quantum error-correcting codes;

  • Liu, Xiong-Jun: Condensed matter theory: topological phases of quantum matter, topological superconductor, anomalous Hall effect; Ultra-cold atoms: simulation of topological phases, synthetic spin-orbit coupling and gauge fields, many-body physics;

  • Shi, Junren: Anomalous properties related to spin-orbit coupling, quantum transport in low dimensional systems, topological aspects in condensed matter physics, superconductivity;

  • Shindou, Ryuichi: Topological aspects of condensed matter physics; Berry phase effects in quantum transport, quantum magnetism；

  • Song, Zhi-Da: Classification and physical response of topological states, transport theory in disordered systems, correlation physics in topological materials, and other topics;

  • Sun, Qingfeng: Quantum transport; Spintronics and topological insulator; quantum dot; grapheme; superconductor; Strongly correlated electron systems and Kondo effect; the system with spin-orbit interaction; and the quantum transport in DNA and protein；

  • Tan, Shina: Ultracold atomic and molecular gases: quantum many-body and few-body theories; Condensed matter theory; Quantum field theory;

  • Wang, Fa: Strongly correlated electrons; iron-based high temperature superconductivity; systems with both strong correlation and strong spin-orbit coupling；

  • Wang, Jie: My research is in theoretical condensed matter physics. The primary goal is to understand the fundamental nature of matter and its controllability. The interactions between particles make many-body problems extremely challenging, yet they also give rise to remarkable emergent phenomena. I tackle these problems by combining analytical tools and numerical methods, guided by fundamental principles such as symmetry, anomaly, entanglement, topology and geometry. The overall aim is to understand both the basic fundamental nature of phases of matter and their experimental tunability in conventional and novel platforms；

  • Wu, Biao: Quantum thermalization, quantum chaos, quantum algorithm, ultracold atomic gas, nonlinear dynamics;

  • Xie, Xincheng: Quantum Hall effect; charge and spin transport in low-dimensional quantum systems; correlated electron systems;

  • Zhang, Yi: Quantum many-body algorithms including quantum machine learning, topological phenomena in quantum materials, strongly-correlated quantum systems.