%0 Journal Article
%@ 25740962
%A Mohamed Saheed, M.S.
%A Mohamed, N.M.
%A Mahinder Singh, B.S.
%A Jose, R.
%D 2019
%F scholars:10970
%I American Chemical Society
%J ACS Applied Energy Materials
%K Charge transfer; Efficiency; Electrons; Gold compounds; Gold nanoparticles; II-VI semiconductors; Nanorods; Nanostructured materials; Perovskite; Photocurrents; Plasmonics; Schottky barrier diodes; Temperature; Zinc oxide, Electron collectors; Electron hole recombination rate; Electron-hole recombination; Electron-hole separation; High electron mobility; Hole-transporting materials; Photocurrent density; Schottky barriers, Perovskite solar cells
%N 12
%P 8707-8714
%R 10.1021/acsaem.9b01675
%T Surface Plasmon Assisted Electron-Hole Migration for High Photocurrent Density Generation in a Perovskite Solar Cell
%U https://khub.utp.edu.my/scholars/10970/
%V 2
%X Zinc oxide (ZnO) has been used widely as a selective electron collector owing to its superior characteristics of high electron mobility and low temperature processability, especially in a perovskite solar cell (PSC). However, the obtainment of a large photocurrent density within ZnO based PSC is still a great task due to its high electron-hole recombination. Herein, we demonstrated an enhancement in the efficiency of PSC using high quality gold (Au) decorated ZnO nanorods in the absence of hole transporting material (HTM). The integration of Au nanoparticles into the photoanode increased the efficiency of light harvesting as well as electron-hole separation, reduced the electron-hole recombination rate significantly, and accelerated the carrier charge transfer. This study yields a promising outlook for high photocurrent density generation by the sole virtue of plasmonic integration into fabricated photoanode to significantly improve the conversion efficiency of PSC. Copyright © 2019 American Chemical Society.
%Z cited By 10