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Jia, Chao; Li, Tian; Chen, Chaoji; Dai, Jiaqi; Kierzewski, Iain Michael; Song, Jianwei; Li, Yiju; Yang, Chunpeng; Wang, Chengwei; Hu, Liangbing, E-mail: binghu@umd.edu2017
AbstractAbstract
[en] Highlights: • A simple yet efficient “top-down” method for fabricating anisotropic transparent paper directly from wood was developed. • The wood-derived paper has anisotropic microstructures and light scattering due to the well-aligned cellulose fibers. • The anisotropic paper possesses both high transparency and high haze, enabling its utilization in GaAs solar cells. • The “top-down” approach for preparing anisotropic transparent paper is facile, scalable, cost-effective and “green”. The growing demand for flexible electronics and solar energy conversion devices has fueled a search for high-quality paper-based materials with excellent mechanical flexibility and optical properties such as high transparency and haze. Despite the tremendous efforts have been dedicated to developing paper-based materials with high transparency or high haze, challenges still remain in achieving both due to the general exclusivity between them. Here, for the first time, we develop a novel anisotropic paper material possessing high mechanical flexibility and fantastic optical properties with both high transmittance (~90%) and high haze (~90%) simultaneously via a simple yet effective “top-down” approach by directly shear pressing the delignified wood material. The anisotropic transparent paper demonstrates a high efficiency as a light management coating layer for GaAs solar cell with a significant efficiency enhancement of 14% due to its excellent light management capability with both high transparency and high haze. The presented “top-down” approach is facile, scalable, cost-effective and “green”, representing a promising direction for developing flexible electronics, solar energy conversion devices and beyond.
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Source
S2211285517302707; Available from http://dx.doi.org/10.1016/j.nanoen.2017.04.059; Copyright (c) 2017 Elsevier Ltd. All rights reserved.; Country of input: International Atomic Energy Agency (IAEA)
Record Type
Journal Article
Journal
Nano Energy (Print); ISSN 2211-2855;
; v. 36; p. 366-373

Country of publication
ARSENIC COMPOUNDS, ARSENIDES, CONVERSION, DIRECT ENERGY CONVERTERS, ELECTROMAGNETIC RADIATION, ENERGY CONVERSION, EQUIPMENT, GALLIUM COMPOUNDS, MECHANICAL PROPERTIES, OPTICAL PROPERTIES, PHOTOELECTRIC CELLS, PHOTOVOLTAIC CELLS, PHYSICAL PROPERTIES, PNICTIDES, RADIATIONS, SOLAR EQUIPMENT, TENSILE PROPERTIES
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