Collaboration Network

Ricky Ang

Ng Teng Fong Chair Professor

Head of Science and Math and Technology

Singapore University of Technology and Design

Singapore

ricky_ang{at}sutd.edu.sg

Profile page [https://epd.sutd.edu.sg/people/faculty/ang-lay-kee-ricky]

Energy, Electron Plasma and Plasmonic (EEPP) Group [http://people.sutd.edu.sg/ricky_ang]

Ricky Ang is the Ng Teng Fong Chair Professor of the SUTD-ZJU IDEA research collaboration center. His research interests are primarily to understand the interactions of energetic beam (electron, laser and electromagnetic pulse) in its surrounding structures and materials, and to explore its novel applications. He mainly work on the theory and simulation, but collaborate closely with experimental groups.


Dawn Tan

Associate Professor

Engineering Product Development

Singapore University of Technology and Design

Singapore

dawn_tan{at}sutd.edu.sg

Profile page [https://epd.sutd.edu.sg/people/faculty/dawn-tan]

Photonic Devices and Systems Group [http://photonics.sutd.edu.sg]

Dawn Tan is the MIT Technology Review Regional Innovator Under 35 for the year 2017. Her group is part of the Engineering Product Development Pillar at SUTD focusing on the study of photonic devices and systems, specifically in the fields of nanophotonics, silicon photonics, nonlinear optics, plasmonics and optical signal processing.


Yee Sin Ang

Assistant Professor

Science, Math and Technology

Singapore University of Technology and Design

Singapore

yeesin_ang{at}sutd.edu.sg

Profile page [https://smt.sutd.edu.sg/people/faculty/ang-yee-sin]

Energy, Electron Plasma and Plasmonic (EEPP) Group [http://people.sutd.edu.sg/ricky_ang]

Yee Sin Ang works on electron transport and emission phenomena of 2D materials and topological solids. He is interested in the mathematical modelling of nanoelectronics, valleytronics, vacuum electronics, Andreev reflections, optical properties of 2D materials, graphene plasmonics and the interfacial carrier transport problems of low-dimensional nanostructures.


Muhammad Zubair

Assistant Professor

Department of Electrical Engineering

Information Technological University

Lahore, Pakistan

muhammad.zubair{at}itu.edu.pk

Profile page [https://itu.edu.pk/faculty-itu/dr-muhammad-zubair]

Applied and Computational Electromagnetics Group [https://sites.google.com/view/mzubair]

Muhammad Zubair current research interests are electromagnetic field theory, computational electromagnetics, bio-electromagnetics, charge transport, electron device modeling, fractal electrodynamics and microwave imaging.


Jin-Luo Cheng

Associate Professor

Changchun Institute of Optics, Fine Mechanics and Physics

Chinese Academy of Sciences

Changchun, China

jlcheng{at}ciomp.ac.cn

Guo China-US Photonics Lab [http://www.guo-lab.org/Member]

Jin-Luo Cheng current research interests focus on theoretical investigation on physical properties of semiconductors, metals, and 2D materials, including band structure, optical nonlinearities, optical injection and coherent control, spin dephasing and transport,  and the first principle calculation;  the 1D photonic crystal and the optics in 2D materials. The research fields covers condensed matter physics and optics and their interdisciplinary subject.


Shi-Jun Liang

Assistant Professor

School of Physics

Nanjing University

Nanjing, China

sjliang{at}nju.edu.cn

Lab of Mesoscopic Physics and Quantum Devices [http://nano.nju.edu.cn/eng_index.html]

Shi-Jun Liang research interests are in Semiconductor devices, Materials Science and Condensed Matter Physics.


Chang-Yu Hsieh

Senior researcher

Tencent Quantum Lab

Shenzhen, Guangdong, China

changyuh{at}mit.edu

https://quantum.tencent.com/en-us/

Chang-Yu Hsieh focuses on the following topics: 1) open quantum dynamics of simple systems embedded in a highly Non-Markovian spin bath, to understand and design control protocol to suppress decoherence of solid state qubits in the low temperature regime where qubit-phonon interactions can be safely ignored. 2) Quantum-classical Mapping, through the framework of Lie algebra and geometry, an attempt to approximate a finite-level quantum system with an effective classical system, allowing efficient calculation of the nonlinear response properties of a finite-level quantum system for an optical experiment.