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  5. Binder-free highly conductive graphene laminate for low cost printed radio frequency applications

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Article
English
2015

Binder-free highly conductive graphene laminate for low cost printed radio frequency applications

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English
2015
Applied Physics Letters
Vol 106 (20)
DOI: 10.1063/1.4919935

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Konstantin ‘kostya’  Novoselov
Konstantin ‘kostya’ Novoselov

The University of Manchester

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Xianjun Huang
Ting Leng
Xiao Zhang
+5 more

Abstract

In this paper, we demonstrate realization of printable radio frequency identification (RFID) antenna by low temperature processing of graphene ink. The required ultra-low resistance is achieved by rolling compression of binder-free graphene laminate. With compression, the conductivity of graphene laminate is increased by more than 50 times compared to that of as-deposited one. Graphene laminate with conductivity of 4.3 × 104 S/m and sheet resistance of 3.8 Ω/sq (with thickness of 6 μm) is presented. Moreover, the formation of graphene laminate from graphene ink reported here is simple and can be carried out in low temperature (100 °C), significantly reducing the fabrication costs. A dipole antenna based on the highly conductive graphene laminate is further patterned and printed on a normal paper to investigate its RF properties. The performance of the graphene laminate antenna is experimentally measured. The measurement results reveal that graphene laminate antenna can provide practically acceptable return loss, gain, bandwidth, and radiation patterns, making it ideal for low cost printed RF applications, such as RFID tags and wearable wireless sensor networks.

How to cite this publication

Xianjun Huang, Ting Leng, Xiao Zhang, Jia Cing Chen, Kuo Hsin Chang, A. K. Geǐm, Konstantin ‘kostya’ Novoselov, Zhirun Hu (2015). Binder-free highly conductive graphene laminate for low cost printed radio frequency applications. Applied Physics Letters, 106(20), DOI: 10.1063/1.4919935.

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Publication Details

Type

Article

Year

2015

Authors

8

Datasets

0

Total Files

0

Language

English

Journal

Applied Physics Letters

DOI

10.1063/1.4919935

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