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个人简介
There is a strong demand for new semiconductors and technologies toward clean energy harvesting and energy efficient devices, as well as high impact opportunities for quantum material discoveries for applications in information science. Discovery and development of new quantum materials will be key to drive future computation, information storage, sensor devices, and other energy related technologies.
The Quan research group aims to new hybrid semiconductor synthesis and processing that can provide another platform to revolutionize the solid-state chemistry to realize materials ideally suited for quantum information science and energy related technology. We are also interested in time-resolved optical study and dynamic control of structural changes in quantum materials as a function of energy, space, and time.
We will focus on 1) preparation and investigation of well-defined, high-quality semiconducting nanomaterials and the synthesis and modification of quantum materials that have effectively controllable crystal symmetry, defects, and heterogeneities at the nanoscale, 2) unraveling time-resolved dynamics in light-induced electronic response of quantum materials at ultrafast time scale. This is an exciting new frontier that combines advanced imaging and dynamics techniques to address fundamental questions regarding structural and excited state dynamics in new emerging materials. These research projects will provide participating students with broad interdisciplinary training across chemistry, materials science and physics.
The Quan research group aims to new hybrid semiconductor synthesis and processing that can provide another platform to revolutionize the solid-state chemistry to realize materials ideally suited for quantum information science and energy related technology. We are also interested in time-resolved optical study and dynamic control of structural changes in quantum materials as a function of energy, space, and time.
We will focus on 1) preparation and investigation of well-defined, high-quality semiconducting nanomaterials and the synthesis and modification of quantum materials that have effectively controllable crystal symmetry, defects, and heterogeneities at the nanoscale, 2) unraveling time-resolved dynamics in light-induced electronic response of quantum materials at ultrafast time scale. This is an exciting new frontier that combines advanced imaging and dynamics techniques to address fundamental questions regarding structural and excited state dynamics in new emerging materials. These research projects will provide participating students with broad interdisciplinary training across chemistry, materials science and physics.
研究兴趣
论文共 70 篇作者统计合作学者相似作者
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Journal of the American Chemical Societyno. 17 (2024): 11835-11844
Qian Wang,Jianbo Jin,Zhongxuan Wang,Shenqiang Ren, Qingyu Ye,Yixuan Dou, Sunhao Liu,Amanda Morris,Carla Slebodnick,Lina Quan
Journal of the American Chemical Societyno. 13 (2024): 8971-8980
Science China Chemistryno. 6 (2024): 1776-1838
Proceedings of the National Academy of Sciences of the United States of Americano. 17 (2024): e2322361121-e2322361121
Shunran Li, Xian Xu,Conrad A. Kocoj,Chenyu Zhou, Yanyan Li,Du Chen,Joseph A. Bennett, Sunhao Liu,Lina Quan,Suchismita Sarker,Mingzhao Liu,Diana Y. Qiu,
Nature Communicationsno. 1 (2024): 1-9
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作者统计
#Papers: 72
#Citation: 18025
H-Index: 40
G-Index: 57
Sociability: 6
Diversity: 3
Activity: 37
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