Wafer‐Scale Gold Nanomesh via Nanotransfer Printing toward a Cost‐Efficient Multiplex Sensing Platform

Author:

Gao Min12,Zhao Yi‐Bo12,Zhao Zhi‐Jun3,Qiu Guangyu4,Tao Yile1,Bao Guochen5,Du Ying5,Spillmann Martin1,Tang Jiukai12,Hwang Soonhyoung6,Jeong Jun‐Ho6,Wang Jing12ORCID

Affiliation:

1. Institute of Environmental Engineering ETH Zürich Zürich 8093 Switzerland

2. Laboratory for Advanced Analytical Technologies Empa Swiss Federal Laboratories for Materials Science and Technology Dübendorf 8600 Switzerland

3. Institute of Smart City and Intelligent Transportation Southwest Jiaotong University Chengdu 611756 China

4. Institute of Medical Robotics School of Biomedical Engineering Shanghai Jiao Tong University Shanghai 200240 China

5. College of Science Zhejiang University of Technology Hangzhou 310023 China

6. Nano‐Convergence Mechanical Systems Research Division Korea Institute of Machinery and Materials Daejeon 34103 South Korea

Abstract

AbstractMultiplex sensing platforms via large‐scale and cost‐efficient fabrication processes for detecting biological and chemical substance are essential for many applications such as intelligent diagnosis, environmental monitoring, etc. For the past decades, the performance of those sensors has been significantly improved by the rapid development of nanofabrication technologies. However, facile processes with cost‐effectiveness and large‐scale throughput still present challenges. Nano‐transfer printing together with the imprinting process shows potential for the efficient fabrication of 100 nm structures. Herein, a wafer‐scale gold nanomesh (AuNM) structure on glass substrates with 100 nm scale features via nano‐imprinting and secondary transfer printing technology is reported. Furthermore, potential sensing applications are demonstrated towards biochemical substance detection by using AuNM structures as highly responsive substrates for achieving the surface enhanced Raman spectroscopy (SERS), and as working electrodes of electrochemical analysisfor the detection of metallic ions. In the SERS detection mode, different nucleotides can be detected down to 1 nm level and distinguished via theirunique fingerprint patterns. As for electrochemical analysis mode, Pb2+ ions can be detected out of other interfering components with concentration down to 30 nm. These multimodal sensing mechanisms provide complementary informationand pave the way for low‐cost and high‐performance sensing platforms.

Funder

China Scholarship Council

Publisher

Wiley

Subject

Industrial and Manufacturing Engineering,Mechanics of Materials,General Materials Science

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