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Giant Plasmene Nanosheets, Nanoribbons, and Origami

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Si, Kae Jye
Sikdar, Debabrata
Cheng, Yi-Bing
Eftekhari, Fatimah
Xu, Zaiquan
Tang, Yue
Xiong, Wei
Guo, Pengzhen
Zhang, Shuang
Lu, Yuerui

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American Chemical Society

Abstract

We introduce Plasmene - in analogy to graphene - as freestanding, one-particle-thick, superlattice sheets of nanoparticles ("meta-atoms") from the "plasmonic periodic table", which has implications in many important research disciplines. Here, we report on a general bottom-up self-assembly approach to fabricate giant plasmene nanosheets (i.e., plasmene with nanoscale thickness but with macroscopic lateral dimensions) as thin as ∼40 nm and as wide as ∼3 mm, corresponding to an aspect ratio of ∼75 000. In conjunction with top-down lithography, such robust giant nanosheets could be milled into one-dimensional nanoribbons and folded into three-dimensional origami. Both experimental and theoretical studies reveal that our giant plasmene nanosheets are analogues of graphene from the plasmonic nanoparticle family, simultaneously possessing unique structural features and plasmon propagation functionalities. (Figure Presented).

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ACS Nano

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Restricted until

2037-12-31