Gigahertz Flexible Graphene Transistors for Microwave Integrated Circuits
Flexible integrated circuits with complex functionalities are the missing link for the active development of wearable electronic devices. Here, we report a scalable approach to fabricate self-aligned graphene microwave transistors for the implementation of flexible low-noise amplifiers and frequency...
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Veröffentlicht in: | ACS nano 2014-08, Vol.8 (8), p.7663-7670 |
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creator | Yeh, Chao-Hui Lain, Yi-Wei Chiu, Yu-Chiao Liao, Chen-Hung Moyano, David Ricardo Hsu, Shawn S. H Chiu, Po-Wen |
description | Flexible integrated circuits with complex functionalities are the missing link for the active development of wearable electronic devices. Here, we report a scalable approach to fabricate self-aligned graphene microwave transistors for the implementation of flexible low-noise amplifiers and frequency mixers, two fundamental building blocks of a wireless communication receiver. A devised AlO x T-gate structure is used to achieve an appreciable increase of device transconductance and a commensurate reduction of the associated parasitic resistance, thus yielding a remarkable extrinsic cutoff frequency of 32 GHz and a maximum oscillation frequency of 20 GHz; in both cases the operation frequency is an order of magnitude higher than previously reported. The two frequencies work at 22 and 13 GHz even when subjected to a strain of 2.5%. The gigahertz microwave integrated circuits demonstrated here pave the way for applications which require high flexibility and radio frequency operations. |
doi_str_mv | 10.1021/nn5036087 |
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title | Gigahertz Flexible Graphene Transistors for Microwave Integrated Circuits |
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