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Mechanically Recoverable and Highly Efficient Perovskite Solar Cells: Investigation of Intrinsic Flexibility of Organic-Inorganic Perovskite

Authors
Park, M.Kim, H.J.Jeong, I.Lee, J.Lee, H.Son, H.J.Kim, D.-E.Ko, M.J.
Issue Date
Nov-2015
Publisher
Wiley-VCH Verlag
Citation
Advanced Energy Materials, v.5, no.22, pp 1 - 11
Pages
11
Journal Title
Advanced Energy Materials
Volume
5
Number
22
Start Page
1
End Page
11
URI
https://scholarworks.sookmyung.ac.kr/handle/2020.sw.sookmyung/147101
DOI
10.1002/aenm.201501406
ISSN
1614-6832
1614-6840
Abstract
Highly efficient solar cells with sustainable performance under severe mechanical deformations are in great demand for future wearable power supply devices. In this regard, numerous studies have progressed to implement flexible architecture to high-performance devices such as perovskite solar cells. However, the absence of suitable flexible and stretchable materials has been a great obstacle in the replacement of largely utilized transparent conducting oxides that are limited in flexibility. Here, a shape recoverable polymer, Noland Optical Adhesive 63, is utilized as a substrate of perovskite solar cell to enable complete shape recovery of the device upon sub-millimeter bending radii. The employment of stretchable electrodes prevents mechanical damage of the perovskite layer. Before and after bending at a radius of 1 mm, power conversion efficiency (PCE) is measured to be 10.75% and 10.4%, respectively. Additionally, the shape recoverable device demonstrates a PCE of 6.07% after crumpling. The mechanical properties of all the layers are characterized by nanoindentation. Finite element analysis reveals that the outstanding flexibility of the perovskite layer enables small plastic strain distribution on the deformed device. These results clearly demonstrated that this device has great potential to be utilized in
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공과대학 (화공생명공학부)
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