电荷传输层和热退火对钙钛矿薄膜电学性能的影响

Abstract
Figure/Table
References
Related Citation (15)

Download:

Full Text ( PDF ) (6033KB)
Export: BibTeX | EndNote (RIS)

Abstract Organic-inorganic hybrid perovskite (PVK) solar cells have become a promising candidate in the photovoltaic field due to their high extinction coefficient, high carrier mobility, low exciton binding energy and tunable band gap, etc. Perovskite solar cell devices have the advantages of simple structure, efficient fabrication process and low material cost, which are expected to replace traditional silicon cells in the future. The charge transport layer is a key part of perovskite solar cells. In this work, the effects of different underlying charge transport layers on the surface potential, carrier recombination and photovoltaic performance of perovskite films were investigated in detail. Scanning Kelvin probe microscopy (SKPM) results show that the conductivity type of the underlying charge transport materials an obviously change the surface potential of the perovskite films. This result confirms that perovskite film is a weak doped semiconductor films. When deposited on electron transport layer coated substrate, the perovskite film display a high surface potential and small work function, and exhibits n-type conductivity. On the contrary, when deposited on hole transport layer coated substrate, the film has a low surface potential and large work function. Based on the analysis of the properties of perovskite films on different charge transfer layers, an obvious relationship between surface photovoltage and the performance of charge transport layer can be ascertained. Moreover, we researched the correlation between the thermal stability of the perovskite film and their surface photovol-tage, and concluded that the change of surface photovoltage could partly reflect the thermal stability of thin film. It is concluded that bromide ion (Br^-), methylammonium chloride (MACl) and cesium ions (Cs⁺) could improve thermal stability for perovskite films.

Key words： charge transport layer perovskite surface photovoltage thermal stability

Published: 01 July 2020

CLC number:

O469

Fund:This work was financially supported by the National Natural Science Foundation of China (11704425).

About author:: Wentao Zuo is a postgraduate student of the China Academy of Engineering Physics. The main research direction is perovskite films and devices. From September 2013 to June 2017, he received his bachelor's degree in physics from Lanzhou University (LZU). From September 2017, he studied condensed matter physics at China Academy of Engineering Physics ; Jiang Liu received his Ph.D. degree in engineering from Tsinghua University (THU). Now he is an asso-ciate researcher at the China Academy of Engineering Physics. He has engaged in thin film photovoltaic research for ten years. During his doctoral period, he mainly researched the industrial application technology research of CIGS thin films. In recent years, he mainly researched the manufacture and photovoltaic application of perovskite thin films and new photoelectric devices and physics, etc. He has published more than 20 journal papers of SCI

	Service
	E-mail this article
	Add to my bookshelf
	Add to citation manager
	E-mail Alert
	RSS
	Articles by authors
	ZUO Wentao
	FAN Zhengfang
	LIU Guoqiang
	LIU Jiang
	LIAO Cheng

Cite this article:

ZUO Wentao,FAN Zhengfang,LIU Guoqiang, et al. Effects of the Charge Transport Layers and Thermal Annealing on the ElectricalProperties of Perovskite Films[J]. Materials Reports, 2020, 34(Z1): 13-18.

URL:

http://www.mater-rep.com/EN/ OR http://www.mater-rep.com/EN/Y2020/V34/IZ1/13

1 Mahshid Ahmadi, Ting Wu, Bin Hu. Advanced Materials,2017,29,1605242.
2 Brandon R Sutherland, Edward H Sargent. Nature Photonics,2016,10,295.
3 Akihiro Kojima, Kenjiro Teshima, Yasuo Shirai, et al. Journal of the American Chemical Society,2009,131,6050.
4 Michael M Lee, Joël Teuscher, Tsutomu Miyasaka, et al. Science,2012,338,643.
5 Jeong Hyeok Im, Chang Ryul Lee, Jin Wook Lee, et al. Nanoscale,2011,3,4088.
6 Tadas Malinauskas, Michael Saliba, Taisuke Matsui, et al. Energy & Environmental Science,2016,9,1681.
7 Hefei Liu, Ziru Huang, Shiyuan Wei, et al. Nanoscale,2016,8,6209.
8 Nam Joong Jeon, Jun Hong Noh, Young Chan Kim, et al. Nature mate-rials,2014,13,897.
9 Dongmei Li, Jiangjian Shi, Yuzhuan Xu, et al. National Science Review,2018,5,559.
10 Edri Eran, Kirmayer Saar, Mukhopadhyay Sabyasachi, et al. Nature Communications,2014,5,3461.
11 Michael Saliba, Taisuke Matsui, Konrad Domanski, et al. Science,2016,354,206.
12 Jin Hyuck Heo, Sang Hyuk Im, Jun Hong Noh, et al. Nature photonics,2013,7,486.
13 Julian Burschka, Norman Pellet, Soo Jin Moon, et al. Nature,2013,499,316.
14 Michael Saliba, Simonetta Orlandi, Taisuke Matsui, et al. Nature Energy,2016,1,1.
15 Yang D, Yang R, Wang K, et al. Nature Communications,2018,9,3239.
16 Guo Y, Li X, Kang L L, et al. RSC Advances,2016,6,62522.
17 Muhammad Aamir, Tham Adhikari, Muhammad Sher, et al. New Journal of Chemistry,2018,42,14104.
18 Kangrong Yan, Jiehuan Chen, Huanxin Ju, et al. Journal of Materials Chemistry A,2018,6,15495.
19 Jingbi You, Lei Meng, Tze Bin Song, et al. Nature Nanotechnology,2016,11,75.
20 Jong Hoon Park, Jangwon Seo, Sangman Park, et al. Advanced Mate-rials,2015,27,4013.
21 Cheng Bi, Qi Wang, Yuchuan Shao, et al. Nature Communications,2015,6,1.
22 Norman Pellet, Peng Gao, Giuliano Gregori, et al. Angewandte Chemie International Edition,2014,53,3151.
23 Jingbi You, Yang Yang, Ziruo Hong, et al. Applied Physics Letters,2014,105,183902.
24 Michel Havaux, Geneviève Guedeney, He Qingfang, et al. Biochimica et Biophysica Acta (BBA)-Bioenergetics,2003,1557,21.
25 Lichen Zhao, Deying Luo, Jiang Wu, et al. Advanced Functional Mate-rials,2016,26,3508.
26 Peng Qin, Soichiro Tanaka, Seigo Ito, et al. Nature Communications,2014,5,1.
27 Jeffrey A C, Raymond C M F, Prashant V K. Journal of the American Chemical Society,2014,136,758.
28 Lin Fan, Yuelong Li, Xin Yao, et al. ACS Applied Energy Materials,2018,1,1575.
29 Ouyang Dan, Xiao Junyan, Ye Fei, et al. Advanced Energy Materials,2018,8,1702722.
30 Hairen Tan, Ankit Jain, Oleksandr Voznyy, et al. Science,2017,355,722.
31 Ouyang Dan, Huang Zhanfeng, Wallace C H C. Advanced Functional Materials,2019,29,1804660.
32 Sawanta S Mali, Jyoti V Patil, Hyungjin Kim, et al. Nanoscale,2018,10,8275.
33 Xiao C, Wang C, Ke W, et al. ACS Applied Materials & Interfaces,2017,9,38373.
34 Wang Yao, Duan Chenghao, Li Jiangsheng, et al. ACS Applied Materials & Interfaces,2018,10,20128.
35 Guang Yang, Cong Chen, Fang Yao, et al. Advanced Materials,2018,30,1706023.
36 Chun Huang, Peng Lin, Nianqing Fu, et al. Journal of Materials Chemistry A,2018,6,22086.
37 Su Tongyu, Zheng Yuanhui, Ma Zongwei, et al. Chemistry Select,2018,3,363.
38 Chen Hao, Liu Detao, Wang Yafei, et al. Nanoscale Research Letters,2017,12,1.
39 Gong X, Sun Q, Liu S, et al. Nano Letters,2018,18,3969.
40 Li Fumin, Xu Mengqi, Ma Xingping, et al. Nanoscale Research Letters,2018,13,216.
41 Liu Zhiyong, Sun Bo, Liu Xingyue, et al. Journal of Materials Chemistry A,2018,6,7409.
42 Nitu Kumari, Jignasa V G, Sanjaykumar R P. Materials Science in Semiconductor Processing,2018,75,149.
43 Yang Dong, Yang Ruixia, Wang Kai, et al. Nature Communications,2018,9,1.
44 Molang Cai, Nobuyuki Ishida, Xing Li, et al. Joule,2018,2,296.
45 Xiao Chuanxiao, Jiang Chunsheng, Ke Weijun, et al. Nanometer-scale electrical potential profiling across perovskite solar cells, 2016 IEEE 43rd Photovoltaic Specialists Conference (PVSC), IEEE,2016,pp.1197.
46 Jiang Chunsheng, Yang Mengjin, Zhou Yuanyuan, et al. Nature Communications,2015,6,1.
47 Yun J S, Baillie A H, Huang S J, et al. The Journal of Physical Chemistry Letters,2015,6,875.
48 Li Jiangjun, Ma Jingyuan, Ge Qianqing, et al. ACS Applied Materials & Interfaces,2015,7,28518.
49 Gordon A MacDonald, Mengjin Yang, Samuel Berweger, et al. Energy & Environmental Science,2016,9,3642.
50 Shao Yuchuan, Fang Yanjun, Li Tao, et al. Energy & Environmental Science,2016,9,1752.
51 Jarvist M F, Aron W. Accounts of Chemical Research,2016,49,528.
52 Michael L A, Sun Y Y, Zeng H, et al. Journal of the American Chemical Society,2014,136,14570.
53 Yu Hui, Lu Haipeng, Xie Fangyan, et al. Advanced Functional Mate-rials,2016,26,1411.
54 Christian Muller, Tobias Glaser, Marcel Plogmeyer, et al. Chemistry of Materials,2015,27,7835.
55 Huang J B, Tan S Q, Peter D. Lund, et al. Energy & Environmental Science,2017,10,2284.
56 Song Zhaoning, Antonio Abate, Suneth C Watthage, et al. Advanced Energy Materials,2016,6,1600846.
57 Ravi K M, Sigalit A, Li B L, et al. The Journal of Physical Chemistry Letters,2015,6,326.
58 Bertrand Philippe, Byung Wook Park, Rebecka Lindblad, et al. Chemistry of Materials,2015,27,1720.
59 Nicholas Aristidou, Christopher Eames, Irene Sanchez-Molina, et al. Nature Communications,2017,8,1.
60 Natalia Yantara, Fang Yanan, Chen Shi, et al. Chemistry of Materials,2015,27,2309.
61 Wei Lin Leong, ZiEn Ooi, Dharani Sabba, et al. Advanced Materials,2016,28,2439.
62 Nakita K N, Antonio A, Samuel D S, et al. ACS Nano,2014,8,9815.