top of page

About NETT

We focus on understanding the unique mesoscopic transport properties of atomically thin 2D materials and related heterostructure systems. By understanding the transport dynamics arising from interactions between electrons, phonons, and photons, as well as the complex interplay of new physical phenomena in 2D materials over a wide range of temperatures, we can effectively manipulate the electrical, thermal, thermoelectric and excitonic transport in these quantum systems at the atomic scale. This in turn can be transformed and developed into scalable novel technological applications in high-performance electronics, energy harvesting, sensing, and computing devices.

Research Interest

  • HEAT & THERMOELECTRIC TRANSPORT
    IN LOW-DIMENSIONAL SYSTEMS

  • ELECTRONIC TRANSPORT IN 2D MATERIALS 

  • OPTOELECTRONICS OF
    2D MATERIALS & HETEROSTRUCTURES

Latest NEWs

08/2023

Congratulations to Ng Hong Kuan for winning the best oral presentation award at the International Conference on Energy, Materials and Phononics (EMP 2023).

01/2023

Dr. WU Jing is named one of the "Nanoscale Emerging Investigators 2023" by the journal, Nanoscale, Royal Society of Chemistry.

12/2022

Our collaborative work "Real-space nanoimaging of hyperbolic shear polaritons in a monoclinic crystal" has been published in Nature Nanotechnology

12/2022

Farewell YANG Fang! 

We wish you all the best.

06/2022

Our work on the role of rippled lattice in suppressing electron-phonon scattering has been published in Nature Electronics. Congratulations to Hong Kuan!

05/2022

Our paper "Modulation of Spin Dynamics in 2D Transition‐Metal Dichalcogenide via Strain‐Driven Symmetry Breaking" has been published in Advanced Science and featured on the Front Cover!

bottom of page