Research
Introduction
Facilities
Research Groups
Publications
Prof. W. Yao and Prof. X.D. Cui’s paper titled ‘Valley polarization in MoS2 monolayers by optical pumping’ was highlighted in Ars Technica.
Highlight in <i>Ars Technica</i>
Highlight in Ars Technica

Introduction

Besides commitment to excellence in undergraduate education, the staffs of the Physics Department are engaged in active research in many areas of physics. The department offers both M.Phil. and Ph.D. programs for full-time postgraduate students.

There are eight major areas of researches that are being conducted in Physics Department. They are:
  1. Astronomy and Astrophysics;
  2. Experimental Condensed Matter Physics;
  3. Experimental High Energy Particle Physics;
  4. Experimental Nuclear Physics;
  5. Material Science;
  6. Quantum computing and Information Theory;
  7. Theoretical Atomic Physics and Degenerate Quantum Gases; and
  8. Theoretical Condensed Matter Physics.
 
In condensed matter and related fields, our interests include superconductivity, spintronics, correlated electron systems, quantum transport in nanoscale, solid-state quantum computation, semiconductor and positron physics, and optics. In materials science, our research activities include surface science, functional thin films and heterostructures, nanomaterials and applications. In the field of astrophysics and astronomy, our research covers cosmological models, gamma-ray bursts, interstellar chemistry neutron stars, neutrino physics, planetary nebulae, pulsars, supernovae and their remnants, high-energy astrophysics and related projects associated with our new laboratory for space research (LSR). In nuclear and particle physics, we are the participants in the Daya Bay Reactor Neutrino Experiments. We also engage in radioactive waste management in Hong Kong; mapping of radon potential in Hong Kong and study of ground water discharge in Tolo Harbour, for example. In the field of quantum information and computing, we seek to prove the security of various quantum cryptographic protocols as well as getting a better understanding of how to manipulate quantum information by quantum error-correction codes.