Shih-Chi Chen

Prof. Shih-Chi Chen

Mechanical and Automation Engineering, Chinese University of Hong Kong, Hong Kong
orcid

Research Focus & Metrics

Academic Career Length

23Years (2004-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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30 January 2019 in Advanced Functional Materials
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Journal Article
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YHYan Huang
Yan Huang
XFXiangyu Fan
Xiangyu Fan
SCShih-Chi Chen
Shih-Chi Chen
NZNi Zhao
Ni Zhao

4 October 2019 in Science
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Journal Article
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SSSourabh Saha
Sourabh Saha
DWDien Wang
Dien Wang
VNVu H. Nguyen
Vu H. Nguyen
YCYina Chang
Yina Chang
JOJames S. Oakdale
James S. Oakdale
SCShih-Chi Chen
Shih-Chi Chen
Speeding up submicrometer printing: Using light to build three-dimensional structures with photopolymerization is the basis for two-photon lithography. However, there has been a trade-off between speed and resolution for fabricating structures with this method. Saha et al. optimize a new parallel printing methodology that relies on ultrafast lasers. They show the ability to dramatically increase the speed of printing while maintaining submicrometer resolution. Science , this issue p. 105

17 December 2018 in Nature Biotechnology
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YPYoung-Gyun Park
Young-Gyun Park
CSChang Ho Sohn
Chang Ho Sohn
RCRitchie Chen
Ritchie Chen
MMMargaret McCue
Margaret McCue
DYDae Hee Yun
Dae Hee Yun
KCKwanghun Chung
Kwanghun Chung

17 December 2015 in Advanced Functional Materials
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Journal Article
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NLNingqi Luo
Ningqi Luo
WDWenxuan Dai
Wenxuan Dai
Chenglin LiChenglin Li
Chenglin Li
ZZZhiqiang Zhou
Zhiqiang Zhou
LLLiyuan Lu
Liyuan Lu
NZNi Zhao
Ni Zhao

16 May 2019 in Nature Communications
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Journal Article
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QGQiang Geng
Qiang Geng
DWDien Wang
Dien Wang
PCPengfei Chen
Pengfei Chen
SCShih-Chi Chen
Shih-Chi Chen
Two-photon polymerization (TPP) is the most precise 3-D printing process that has been used to create many complex structures for advanced photonic and nanoscale applications. However, to date the technology still remains a laboratory tool due to its high operation cost and limited fabrication rate, i.e., serial laser scanning process. Here we present a revolutionary laser nanofabrication process based on TPP and an ultrafast random-access digital micromirror device (DMD) scanner. By exploiting binary holography, the DMD scanner can simultaneously generate and individually control one to tens of laser foci for parallel nanofabrication at 22.7 kHz. Complex 3-D trusses and woodpile structures have been fabricated via single or multi-focus processes, showing a resolution of ~500 nm. The nanofabrication system may be used for largescale nano-prototyping or creation of complex structures, e.g., overhanging structures, that cannot be easily fabricated via conventional raster-scanning-based systems, bringing significant impact to the world of nanomanufacturing.

5 September 2017 in Advanced Materials
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Journal Article
Closed access
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NLNingqi Luo
Ningqi Luo
YHYan Huang
Yan Huang
JLJing Liu
Jing Liu
SCShih-Chi Chen
Shih-Chi Chen
CWChing Ping Wong
Ching Ping Wong
NZNi Zhao
Ni Zhao