Author
Listed:
- Zhi Chen
(Kunming University of Science and Technology)
- Lijing Zhong
(Ningbo University)
- Xiangyu Sun
(Zhejiang University)
- Yihui Fu
(Huazhong University of Science and Technology)
- Huilin He
(Peng Cheng Laboratory)
- Huijiao Ji
(Southwest Medical University)
- Yuying Wang
(Zhejiang University)
- Xiaofeng Liu
(Zhejiang University)
- Beibei Xu
(Zhejiang University)
- Zhemin Wu
(Zhejiang University)
- Chen Zou
(Zhejiang University)
- Zhijun Ma
(Zhejiang Lab)
- Jingyu Zhang
(Huazhong University of Science and Technology)
- Guoping Dong
(South China University of Technology)
- Giuseppe Barillaro
(Università di Pisa)
- Cheng-Wei Qiu
(National University of Singapore)
- Jianbei Qiu
(Kunming University of Science and Technology)
- Jianrong Qiu
(Zhejiang University)
Abstract
One of the major challenges in the rapidly advancing field of nanophotonics is creating high-aspect-ratio nanostructures over large-area with consistent precision. Traditional techniques like photolithography and etching fall short, being limited to fabricating structures with a typical feature size of 100 nm and a maximum aspect ratio of 30:1. To break through these barriers, herein we introduce a strategy, called wet-chemical etching assisted aberration-enhanced single-pulsed femtosecond laser-supplemented nanolithography (WEALTH), for manufacturing large-area deep holey nanostructures. This strategy enables fabrication of nanostructures with diameters as small as 25 nm (exceeding 1/30 of Abbe’s diffraction limit), aspect ratios greater than 104:1, and large-area holey lattices spanning 10 mm2 with potential scalability up to several cm2. We have successfully harnessed this technique to develop cutting-edge applications, including immunoassay biosensing chips, large-area nanophotonic crystals, nanophotonic crystal microcavities, and chiral nanophotonic devices. Moreover, it is adaptable to a wide range of materials, including crystals, glasses, and silicon-based semiconductors. Our approach offers high flexibility in customizing large-area holey nanophotonic structures, paving the way for breakthrough advancements in 3D integrated optics.
Suggested Citation
Zhi Chen & Lijing Zhong & Xiangyu Sun & Yihui Fu & Huilin He & Huijiao Ji & Yuying Wang & Xiaofeng Liu & Beibei Xu & Zhemin Wu & Chen Zou & Zhijun Ma & Jingyu Zhang & Guoping Dong & Giuseppe Barillaro, 2025.
"25 nm-Feature, 104-aspect-ratio, 10 mm2-area single-pulsed laser nanolithography,"
Nature Communications, Nature, vol. 16(1), pages 1-12, December.
Handle:
RePEc:nat:natcom:v:16:y:2025:i:1:d:10.1038_s41467-025-62426-1
DOI: 10.1038/s41467-025-62426-1
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