High efficiency up-converting single phase elastomers for photon managing applications

Jing Qi; Wei Zhang; Rui Cao; Son Hoang; Pu-Xian Gao; Meng Sun; Huijuan Liu; Jiuhui Qu; Jinghong Li; Xiaojie She; Jingjie Wu; Hui Xu; Jun Zhong; Yiou Yan Wang; Yanhua Song; Kaiqi Nie; Yang Yu Liu; Yingchao Yang; Marco Tulio F. Rodrigues; Robert Vajtai; Jun Lou; Daolin Du; Huaming Li; Pulickel M. Ajayan; Pavithra Sriram; Dong Sheng Su; Arun Prakash Periasamy; Arumugam Manikandan; Sheng Wen Songcan Wang; Hsin Yu Huan Tsung Chang; Yu Lun Chueh; Ta Jen Yen; Johan E. ten Elshof; Huiyu Yuan; Pablo Gonzalez Rodriguez; Anthony Vasileff; Yao Zheng; Shi Zhang Qiao; Fei Fan Wang; Qi Li; Dong Sheng Xu; Bo Wang; Cuiping Zeng; Ka Him Chu; Dan Wu; Ho Yin Yip; Liqun Ye; Po Keung Wong; Wei Wenjie Wang; Xiaomin Xu; Yang Yu Liu; Yijun Zhong; Zongping Shao; Yiou Yan Wang; Fabrizio Silveri; Mustafa K. Bayazit; Qiushi Ruan; Yat Yaomin Yong Li; Jijia Xie; C. Richard A. Catlow; Junwang Tang; Mu Xiao; Bin Luo; Miaoqiang Lyu; Sheng Wen Songcan Wang; Luyang Ligang Lianzhou Wang; Yinghui Yuancheng Xue; Qin Zhang; Wei Wenjie Wang; Hui Cao; Quanhong Yang; Lei Fu; Yingchao Yang; Shuwen Niu; Dongdong Han; Tianyu Liu; Gongming Wang; Yat Yaomin Yong Li; Kan Zhang; Luyang Ligang Lianzhou Wang; Xiaowei Sheng; Ming Ma; Myung Sun Jung; Wanjung Kim; Hyoyoung Lee; Jong Hyeok Park; Shasha Zhu; Dunwei Wang; Bingjun Zhu; Ruqiang Zou; Qiang Xu; Tobias Sebastian Dörr; Leonie Deilmann; Greta Haselmann; Alexey Cherevan; Peng Zhang; Peter Blaha; Peter William de Oliveira; Tobias Kraus; Dominik Eder; Zhenhua Li; Xiao Zhang; Hongfei Cheng; Jiawei Liu; Mingfei Shao; Min Wei; David G. Evans; Hua Zhang; Xue Duan; Zhiming Bai; Xiaoqin Yan; Yat Yaomin Yong Li; Zhuo Kang; Shiyao Cao; Yue Yong Zhang; Hao Ming Chen; Chih Kai Chen; Ru-Shi Liu; Ching-Chen Wu; Wen-Sheng Chang; Kuei-Hsien Chen; Ting-Shan Chan; Jyh-Fu Lee; Din Ping Tsai; Liang Che Chen; Chiao Yi Teng; Chun Yu Lin; Hsin Yu Huan Tsung Chang; Shean Jen Chen; Hsisheng Teng; Isabella Concina; Zafar Hussain Ibupoto; Alberto Vomiero; Il-kwon Oh; Hybrid Solar Cells; Xinxi Xiaofeng Li; Jichun Ye; R Graham; Aram Amassian; Zn-air Batteries; Yi Cui; Jaephil Cho; Li-ion Lithium-ion Batteries; Chong S Yoon; Yang-kook Sun; Yuanyuan Zhou; Nitin P Padture; Wei Sun; Li-ion Lithium-ion Batteries; Dongjiang Yang; Shaojun Guo; Fabio Dionigi; Peter Strasser; Rundong Fan; Yuan Huang; Luyang Ligang Lianzhou Wang; Lihua Liang Li; Guanhaojie Zheng; Huanping Zhou; Taewoo Jeon; Sang Ouk Sung Jin Kim; Jisun Yoon; Jinwoo Byun; Hye Rim Hong; Tae Woo Lee; Ji Seon Kim; Byungha Shin; Sang Ouk Sung Jin Kim; Chuancheng Jia; Xinxi Xiaofeng Li; Na Xin; Yao Gong; Jianxin Guan; Linan Meng; Sheng Meng; Xuefeng Guo; Dong Ki Lee; Ji Il Choi; Gyu Heon Lee; Yong-Hoon Kim; Jeung Ku Kang; Zhendong Lei; Yinghui Yuancheng Xue; Wenqian Chen; Wenhui Qiu; Yue Yong Zhang; Satoshi Horike; Liang Tang; Hanfeng Liang; Fangwang Ming; Husam N. Alshareef; Zhaoyong Lin; Jun Xiao; Lihua Liang Li; Pu Liu; Chengxin Wang; Guowei Yang; Xiangye Liu; Guilian Zhu; Xin Wang; Xiaotao Yuan; Tianquan Lin; Fuqiang Huang; Angelo Monguzzi; Francesco Bianchi; Alberto Bianchi; Michele Mauri; Roberto Simonutti; Riccardo Ruffo; Riccardo Tubino; Francesco Meinardi; Jinbo Pang; Alicja Bachmatiuk; Yin Yin; Barbara Trzebicka; Liang Zhao; Lei Fu; Rafael G. Mendes; Thomas Gemming; Zhongfan Liu; Mark H. Rummeli; Sachin Rawalekar; Taleb Mokari

High efficiency up-converting single phase elastomers for photon managing applications

Jing Qi, Wei Zhang, Rui Cao, Son Hoang, Pu-Xian Gao, Meng Sun, Huijuan Liu, Jiuhui Qu, Jinghong Li, Xiaojie She, Jingjie Wu, Hui Xu, Jun Zhong, Yiou Yan Wang, Yanhua Song, Kaiqi Nie, Yang Yu Liu, Yingchao Yang, Marco Tulio F. Rodrigues, Robert VajtaiJun Lou, Daolin Du, Huaming Li, Pulickel M. Ajayan, Pavithra Sriram, Dong Sheng Su, Arun Prakash Periasamy, Arumugam Manikandan, Sheng Wen Songcan Wang, Hsin Yu Huan Tsung Chang, Yu Lun Chueh, Ta Jen Yen, Johan E. ten Elshof, Huiyu Yuan, Pablo Gonzalez Rodriguez, Anthony Vasileff, Yao Zheng, Shi Zhang Qiao, Fei Fan Wang, Qi Li, Dong Sheng Xu, Bo Wang, Cuiping Zeng, Ka Him Chu, Dan Wu, Ho Yin Yip, Liqun Ye, Po Keung Wong, Wei Wenjie Wang, Xiaomin Xu, Yang Yu Liu, Yijun Zhong, Zongping Shao, Yiou Yan Wang, Fabrizio Silveri, Mustafa K. Bayazit, Qiushi Ruan, Yat Yaomin Yong Li, Jijia Xie, C. Richard A. Catlow, Junwang Tang, Mu Xiao, Bin Luo, Miaoqiang Lyu, Sheng Wen Songcan Wang, Luyang Ligang Lianzhou Wang, Yinghui Yuancheng Xue, Qin Zhang, Wei Wenjie Wang, Hui Cao, Quanhong Yang, Lei Fu, Yingchao Yang, Shuwen Niu, Dongdong Han, Tianyu Liu, Gongming Wang, Yat Yaomin Yong Li, Kan Zhang, Luyang Ligang Lianzhou Wang, Xiaowei Sheng, Ming Ma, Myung Sun Jung, Wanjung Kim, Hyoyoung Lee, Jong Hyeok Park, Shasha Zhu, Dunwei Wang, Bingjun Zhu, Ruqiang Zou, Qiang Xu, Tobias Sebastian Dörr, Leonie Deilmann, Greta Haselmann, Alexey Cherevan, Peng Zhang, Peter Blaha, Peter William de Oliveira, Tobias Kraus, Dominik Eder, Zhenhua Li, Xiao Zhang, Hongfei Cheng, Jiawei Liu, Mingfei Shao, Min Wei, David G. Evans, Hua Zhang, Xue Duan, Zhiming Bai, Xiaoqin Yan, Yat Yaomin Yong Li, Zhuo Kang, Shiyao Cao, Yue Yong Zhang, Hao Ming Chen, Chih Kai Chen, Ru-Shi Liu, Ching-Chen Wu, Wen-Sheng Chang, Kuei-Hsien Chen, Ting-Shan Chan, Jyh-Fu Lee, Din Ping Tsai, Liang Che Chen, Chiao Yi Teng, Chun Yu Lin, Hsin Yu Huan Tsung Chang, Shean Jen Chen, Hsisheng Teng, Isabella Concina, Zafar Hussain Ibupoto, Alberto Vomiero, Il-kwon Oh, Hybrid Solar Cells, Xinxi Xiaofeng Li, Jichun Ye, R Graham, Aram Amassian, Zn-air Batteries, Yi Cui, Jaephil Cho, Li-ion Lithium-ion Batteries, Chong S Yoon, Yang-kook Sun, Yuanyuan Zhou, Nitin P Padture, Wei Sun, Li-ion Lithium-ion Batteries, Dongjiang Yang, Shaojun Guo, Fabio Dionigi, Peter Strasser, Rundong Fan, Yuan Huang, Luyang Ligang Lianzhou Wang, Lihua Liang Li, Guanhaojie Zheng, Huanping Zhou, Taewoo Jeon, Sang Ouk Sung Jin Kim, Jisun Yoon, Jinwoo Byun, Hye Rim Hong, Tae Woo Lee, Ji Seon Kim, Byungha Shin, Sang Ouk Sung Jin Kim, Chuancheng Jia, Xinxi Xiaofeng Li, Na Xin, Yao Gong, Jianxin Guan, Linan Meng, Sheng Meng, Xuefeng Guo, Dong Ki Lee, Ji Il Choi, Gyu Heon Lee, Yong-Hoon Kim, Jeung Ku Kang, Zhendong Lei, Yinghui Yuancheng Xue, Wenqian Chen, Wenhui Qiu, Yue Yong Zhang, Satoshi Horike, Liang Tang, Hanfeng Liang, Fangwang Ming, Husam N. Alshareef, Zhaoyong Lin, Jun Xiao, Lihua Liang Li, Pu Liu, Chengxin Wang, Guowei Yang, Xiangye Liu, Guilian Zhu, Xin Wang, Xiaotao Yuan, Tianquan Lin, Fuqiang Huang, Angelo Monguzzi, Francesco Bianchi, Alberto Bianchi, Michele Mauri, Roberto Simonutti, Riccardo Ruffo, Riccardo Tubino, Francesco Meinardi, Jinbo Pang, Alicja Bachmatiuk, Yin Yin, Barbara Trzebicka, Liang Zhao, Lei Fu, Rafael G. Mendes, Thomas Gemming, Zhongfan Liu, Mark H. Rummeli, Sachin Rawalekar, Taleb Mokari

Research output: Chapter in Book/Report/Conference proceeding › Chapter › peer-review

Abstract

© 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Outstanding material properties of organic-inorganic hybrid perovskites have triggered a new insight into the next-generation solar cells. Beyond solar cells, a wide range of controllable properties of hybrid perovskites, particularly depending on crystal growth conditions, enables versatile high-performance optoelectronic devices such as light-emitting diodes, photodetectors, and lasers. This article highlights recent progress in the crystallization strategies of organic–inorganic hybrid perovskites for use as effective light harvesters or light emitters. Fundamental background on perovskite crystalline structures and relevant optoelectronic properties such as optical band-gap, electron-hole behavior, and energy band alignment are given. A detailed overview of the effective crystallization methods for perovskites, including thermal treatment, additives, solvent mediator, laser irradiation, nanostructure, and crystal dimensionalityis reported offering a comprehensive correlation among perovskite processing conditions, crystalline morphology, and relevant device performance. Finally, future research directions to overcome current practical bottlenecks and move towards reliable high performance perovskite optoelectronic applications are proposed.

Original language	English
Title of host publication	Advanced Energy Materials
Pages	1-10
Number of pages	10
State	Published - 2016

Publication series

Name	Advanced Energy Materials
Volume	6

Keywords

2D hybrids
2D materials
3D structures
All-oxide solar cells
CO2 reduction
Earth-abundant oxides
Electrochemical water splitting
Escherichia coli
Hybrid materials
Integrated photocatalyst
Kinetics
Metal oxide nanostructures
Nanostructures
Photocatalysis
Semiconductors
Solar energy
Solar energy conversion
Solar-driven water splitting
Ta3N5
Taguchi design
Thermodynamics
Z-scheme
anodes
bandgap
bilayer MoS 2
black phosphorus
black titania
block copolymers
cadmium sulfide
carbon nanostructures
carrier dynamics
cathodes
characterization
chemocatalysis
copper oxide
crystallization
density functional theory
doping
dye-sensitized solar cells
elastomers
electrocatalysis
electrocatalysts
electrode materials
electronic structures
energy conversion
energy conversion and storage
energy products
energy storage
graphene oxide
high efficiency
hybrid perovskites
hybrid system
hydrogen evolution
hydrogen evolution reaction
hydrogen evolution reactions
hydrogen production
interface engineering
interfaces
interlayer distance
kinetics
layered double hydroxides
light manipulation
light-emitting diodes
lithium ion batteries
metal hydroxides
metal oxides
metal/semiconductor heterostructures
metal–organic frameworks
metal–organic frameworks (MOFs)
modification
nanoantennas
nanodiamonds
nanomaterials
nanoscale structures
nanowires
natural resources
nitrogen functionality
opening
optoelectronics
organic semiconductors
oxygen evolution
oxyhydroxides
perovskite
phosphorene
photoanodes
photocatalysis
photocatalysts
photocatalytic
photoelectrochemical water splitting
photoelectrodes
photon managing
photovoltaics
plasma
plasmonics
polymers
quadrupole gap plasmon
self-assembly
sensitized up-conversion
service safety
single-crystalline materials
soft polymers
solar cells
solar energy
solar light absorption
supercapacitors
synthesis
titanium dioxide
transition metal phosphides
triplet excitons annihilation
two-dimensional materials
ultrathin nanomeshes
water splitting

UN SDGs

This output contributes to the following UN Sustainable Development Goals (SDGs)

Cite this

Qi, J., Zhang, W., Cao, R., Hoang, S., Gao, P-X., Sun, M., Liu, H., Qu, J., Li, J., She, X., Wu, J., Xu, H., Zhong, J., Wang, Y. Y., Song, Y., Nie, K., Liu, Y. Y., Yang, Y., Rodrigues, M. T. F., ... Mokari, T. (2016). High efficiency up-converting single phase elastomers for photon managing applications. In Advanced Energy Materials (pp. 1-10). (Advanced Energy Materials; Vol. 6).

@inbook{303fa45742374f54a431d53757790cd9,

title = "High efficiency up-converting single phase elastomers for photon managing applications",

abstract = "{\textcopyright} 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Outstanding material properties of organic-inorganic hybrid perovskites have triggered a new insight into the next-generation solar cells. Beyond solar cells, a wide range of controllable properties of hybrid perovskites, particularly depending on crystal growth conditions, enables versatile high-performance optoelectronic devices such as light-emitting diodes, photodetectors, and lasers. This article highlights recent progress in the crystallization strategies of organic–inorganic hybrid perovskites for use as effective light harvesters or light emitters. Fundamental background on perovskite crystalline structures and relevant optoelectronic properties such as optical band-gap, electron-hole behavior, and energy band alignment are given. A detailed overview of the effective crystallization methods for perovskites, including thermal treatment, additives, solvent mediator, laser irradiation, nanostructure, and crystal dimensionalityis reported offering a comprehensive correlation among perovskite processing conditions, crystalline morphology, and relevant device performance. Finally, future research directions to overcome current practical bottlenecks and move towards reliable high performance perovskite optoelectronic applications are proposed.",

keywords = "2D hybrids, 2D materials, 3D structures, All-oxide solar cells, CO2 reduction, Earth-abundant oxides, Electrochemical water splitting, Escherichia coli, Hybrid materials, Integrated photocatalyst, Kinetics, Metal oxide nanostructures, Nanostructures, Photocatalysis, Semiconductors, Solar energy, Solar energy conversion, Solar-driven water splitting, Ta3N5, Taguchi design, Thermodynamics, Z-scheme, anodes, bandgap, bilayer MoS 2, black phosphorus, black titania, block copolymers, cadmium sulfide, carbon nanostructures, carrier dynamics, cathodes, characterization, chemocatalysis, copper oxide, crystallization, density functional theory, doping, dye-sensitized solar cells, elastomers, electrocatalysis, electrocatalysts, electrode materials, electronic structures, energy conversion, energy conversion and storage, energy products, energy storage, graphene oxide, high efficiency, hybrid perovskites, hybrid system, hydrogen evolution, hydrogen evolution reaction, hydrogen evolution reactions, hydrogen production, interface engineering, interfaces, interlayer distance, kinetics, layered double hydroxides, light manipulation, light-emitting diodes, lithium ion batteries, metal hydroxides, metal oxides, metal/semiconductor heterostructures, metal–organic frameworks, metal–organic frameworks (MOFs), modification, nanoantennas, nanodiamonds, nanomaterials, nanoscale structures, nanowires, natural resources, nitrogen functionality, opening, optoelectronics, organic semiconductors, oxygen evolution, oxyhydroxides, perovskite, phosphorene, photoanodes, photocatalysis, photocatalysts, photocatalytic, photoelectrochemical water splitting, photoelectrodes, photon managing, photovoltaics, plasma, plasmonics, polymers, quadrupole gap plasmon, self-assembly, sensitized up-conversion, service safety, single-crystalline materials, soft polymers, solar cells, solar energy, solar light absorption, supercapacitors, synthesis, titanium dioxide, transition metal phosphides, triplet excitons annihilation, two-dimensional materials, ultrathin nanomeshes, water splitting",

author = "Jing Qi and Wei Zhang and Rui Cao and Son Hoang and Pu-Xian Gao and Meng Sun and Huijuan Liu and Jiuhui Qu and Jinghong Li and Xiaojie She and Jingjie Wu and Hui Xu and Jun Zhong and Wang, {Yiou Yan} and Yanhua Song and Kaiqi Nie and Liu, {Yang Yu} and Yingchao Yang and Rodrigues, {Marco Tulio F.} and Robert Vajtai and Jun Lou and Daolin Du and Huaming Li and Ajayan, {Pulickel M.} and Pavithra Sriram and Su, {Dong Sheng} and Periasamy, {Arun Prakash} and Arumugam Manikandan and Wang, {Sheng Wen Songcan} and Chang, {Hsin Yu Huan Tsung} and Chueh, {Yu Lun} and Yen, {Ta Jen} and {ten Elshof}, {Johan E.} and Huiyu Yuan and {Gonzalez Rodriguez}, Pablo and Anthony Vasileff and Yao Zheng and Qiao, {Shi Zhang} and Wang, {Fei Fan} and Qi Li and Xu, {Dong Sheng} and Bo Wang and Cuiping Zeng and Chu, {Ka Him} and Dan Wu and Yip, {Ho Yin} and Liqun Ye and Wong, {Po Keung} and Wang, {Wei Wenjie} and Xiaomin Xu and Liu, {Yang Yu} and Yijun Zhong and Zongping Shao and Wang, {Yiou Yan} and Fabrizio Silveri and Bayazit, {Mustafa K.} and Qiushi Ruan and Li, {Yat Yaomin Yong} and Jijia Xie and Catlow, {C. Richard A.} and Junwang Tang and Mu Xiao and Bin Luo and Miaoqiang Lyu and Wang, {Sheng Wen Songcan} and Wang, {Luyang Ligang Lianzhou} and Xue, {Yinghui Yuancheng} and Qin Zhang and Wang, {Wei Wenjie} and Hui Cao and Quanhong Yang and Lei Fu and Yingchao Yang and Shuwen Niu and Dongdong Han and Tianyu Liu and Gongming Wang and Li, {Yat Yaomin Yong} and Kan Zhang and Wang, {Luyang Ligang Lianzhou} and Xiaowei Sheng and Ming Ma and Jung, {Myung Sun} and Wanjung Kim and Hyoyoung Lee and Park, {Jong Hyeok} and Shasha Zhu and Dunwei Wang and Bingjun Zhu and Ruqiang Zou and Qiang Xu and D{\"o}rr, {Tobias Sebastian} and Leonie Deilmann and Greta Haselmann and Alexey Cherevan and Peng Zhang and Peter Blaha and {de Oliveira}, {Peter William} and Tobias Kraus and Dominik Eder and Zhenhua Li and Xiao Zhang and Hongfei Cheng and Jiawei Liu and Mingfei Shao and Min Wei and Evans, {David G.} and Hua Zhang and Xue Duan and Zhiming Bai and Xiaoqin Yan and Li, {Yat Yaomin Yong} and Zhuo Kang and Shiyao Cao and Zhang, {Yue Yong} and Chen, {Hao Ming} and Chen, {Chih Kai} and Ru-Shi Liu and Ching-Chen Wu and Wen-Sheng Chang and Kuei-Hsien Chen and Ting-Shan Chan and Jyh-Fu Lee and Tsai, {Din Ping} and Chen, {Liang Che} and Teng, {Chiao Yi} and Lin, {Chun Yu} and Chang, {Hsin Yu Huan Tsung} and Chen, {Shean Jen} and Hsisheng Teng and Isabella Concina and Ibupoto, {Zafar Hussain} and Alberto Vomiero and Il-kwon Oh and Cells, {Hybrid Solar} and Li, {Xinxi Xiaofeng} and Jichun Ye and R Graham and Aram Amassian and Zn-air Batteries and Yi Cui and Jaephil Cho and Batteries, {Li-ion Lithium-ion} and Yoon, {Chong S} and Yang-kook Sun and Yuanyuan Zhou and Padture, {Nitin P} and Wei Sun and Batteries, {Li-ion Lithium-ion} and Dongjiang Yang and Shaojun Guo and Fabio Dionigi and Peter Strasser and Rundong Fan and Yuan Huang and Wang, {Luyang Ligang Lianzhou} and Li, {Lihua Liang} and Guanhaojie Zheng and Huanping Zhou and Taewoo Jeon and Kim, {Sang Ouk Sung Jin} and Jisun Yoon and Jinwoo Byun and Hong, {Hye Rim} and Lee, {Tae Woo} and Kim, {Ji Seon} and Byungha Shin and Kim, {Sang Ouk Sung Jin} and Chuancheng Jia and Li, {Xinxi Xiaofeng} and Na Xin and Yao Gong and Jianxin Guan and Linan Meng and Sheng Meng and Xuefeng Guo and Lee, {Dong Ki} and Choi, {Ji Il} and Lee, {Gyu Heon} and Yong-Hoon Kim and Kang, {Jeung Ku} and Zhendong Lei and Xue, {Yinghui Yuancheng} and Wenqian Chen and Wenhui Qiu and Zhang, {Yue Yong} and Satoshi Horike and Liang Tang and Hanfeng Liang and Fangwang Ming and Alshareef, {Husam N.} and Zhaoyong Lin and Jun Xiao and Li, {Lihua Liang} and Pu Liu and Chengxin Wang and Guowei Yang and Xiangye Liu and Guilian Zhu and Xin Wang and Xiaotao Yuan and Tianquan Lin and Fuqiang Huang and Angelo Monguzzi and Francesco Bianchi and Alberto Bianchi and Michele Mauri and Roberto Simonutti and Riccardo Ruffo and Riccardo Tubino and Francesco Meinardi and Jinbo Pang and Alicja Bachmatiuk and Yin Yin and Barbara Trzebicka and Liang Zhao and Lei Fu and Mendes, {Rafael G.} and Thomas Gemming and Zhongfan Liu and Rummeli, {Mark H.} and Sachin Rawalekar and Taleb Mokari",

year = "2016",

language = "English",

isbn = "16146832",

series = "Advanced Energy Materials",

pages = "1--10",

booktitle = "Advanced Energy Materials",

}

Qi, J, Zhang, W, Cao, R, Hoang, S, Gao, P-X, Sun, M, Liu, H, Qu, J, Li, J, She, X, Wu, J, Xu, H, Zhong, J, Wang, YY, Song, Y, Nie, K, Liu, YY, Yang, Y, Rodrigues, MTF, Vajtai, R, Lou, J, Du, D, Li, H, Ajayan, PM, Sriram, P, Su, DS, Periasamy, AP, Manikandan, A, Wang, SWS, Chang, HYHT, Chueh, YL, Yen, TJ, ten Elshof, JE, Yuan, H, Gonzalez Rodriguez, P, Vasileff, A, Zheng, Y, Qiao, SZ, Wang, FF, Li, Q, Xu, DS, Wang, B, Zeng, C, Chu, KH, Wu, D, Yip, HY, Ye, L, Wong, PK, Wang, WW, Xu, X, Liu, YY, Zhong, Y, Shao, Z, Wang, YY, Silveri, F, Bayazit, MK, Ruan, Q, Li, YYY, Xie, J, Catlow, CRA, Tang, J, Xiao, M, Luo, B, Lyu, M, Wang, SWS, Wang, LLL, Xue, YY, Zhang, Q, Wang, WW, Cao, H, Yang, Q, Fu, L, Yang, Y, Niu, S, Han, D, Liu, T, Wang, G, Li, YYY, Zhang, K, Wang, LLL, Sheng, X, Ma, M, Jung, MS, Kim, W, Lee, H, Park, JH, Zhu, S, Wang, D, Zhu, B, Zou, R, Xu, Q, Dörr, TS, Deilmann, L, Haselmann, G, Cherevan, A, Zhang, P, Blaha, P, de Oliveira, PW, Kraus, T, Eder, D, Li, Z, Zhang, X, Cheng, H, Liu, J, Shao, M, Wei, M, Evans, DG, Zhang, H, Duan, X, Bai, Z, Yan, X, Li, YYY, Kang, Z, Cao, S, Zhang, YY, Chen, HM, Chen, CK, Liu, R-S, Wu, C-C, Chang, W-S, Chen, K-H, Chan, T-S, Lee, J-F, Tsai, DP, Chen, LC, Teng, CY, Lin, CY, Chang, HYHT, Chen, SJ, Teng, H, Concina, I, Ibupoto, ZH, Vomiero, A, Oh, I, Cells, HS, Li, XX, Ye, J, Graham, R, Amassian, A, Batteries, Z, Cui, Y, Cho, J, Batteries, LL, Yoon, CS, Sun, Y, Zhou, Y, Padture, NP, Sun, W, Batteries, LL, Yang, D, Guo, S, Dionigi, F, Strasser, P, Fan, R, Huang, Y, Wang, LLL, Li, LL, Zheng, G, Zhou, H, Jeon, T, Kim, SOSJ, Yoon, J, Byun, J, Hong, HR, Lee, TW, Kim, JS, Shin, B, Kim, SOSJ, Jia, C, Li, XX, Xin, N, Gong, Y, Guan, J, Meng, L, Meng, S, Guo, X, Lee, DK, Choi, JI, Lee, GH, Kim, Y-H, Kang, JK, Lei, Z, Xue, YY, Chen, W, Qiu, W, Zhang, YY, Horike, S, Tang, L, Liang, H, Ming, F, Alshareef, HN, Lin, Z, Xiao, J, Li, LL, Liu, P, Wang, C, Yang, G, Liu, X, Zhu, G, Wang, X, Yuan, X, Lin, T, Huang, F, Monguzzi, A, Bianchi, F, Bianchi, A, Mauri, M, Simonutti, R, Ruffo, R, Tubino, R, Meinardi, F, Pang, J, Bachmatiuk, A, Yin, Y, Trzebicka, B, Zhao, L, Fu, L, Mendes, RG, Gemming, T, Liu, Z, Rummeli, MH, Rawalekar, S & Mokari, T 2016, High efficiency up-converting single phase elastomers for photon managing applications. in Advanced Energy Materials. Advanced Energy Materials, vol. 6, pp. 1-10.

TY - CHAP

T1 - High efficiency up-converting single phase elastomers for photon managing applications

AU - Qi, Jing

AU - Zhang, Wei

AU - Cao, Rui

AU - Hoang, Son

AU - Gao, Pu-Xian

AU - Sun, Meng

AU - Liu, Huijuan

AU - Qu, Jiuhui

AU - Li, Jinghong

AU - She, Xiaojie

AU - Wu, Jingjie

AU - Xu, Hui

AU - Zhong, Jun

AU - Wang, Yiou Yan

AU - Song, Yanhua

AU - Nie, Kaiqi

AU - Liu, Yang Yu

AU - Yang, Yingchao

AU - Rodrigues, Marco Tulio F.

AU - Vajtai, Robert

AU - Lou, Jun

AU - Du, Daolin

AU - Li, Huaming

AU - Ajayan, Pulickel M.

AU - Sriram, Pavithra

AU - Su, Dong Sheng

AU - Periasamy, Arun Prakash

AU - Manikandan, Arumugam

AU - Wang, Sheng Wen Songcan

AU - Chang, Hsin Yu Huan Tsung

AU - Chueh, Yu Lun

AU - Yen, Ta Jen

AU - ten Elshof, Johan E.

AU - Yuan, Huiyu

AU - Gonzalez Rodriguez, Pablo

AU - Vasileff, Anthony

AU - Zheng, Yao

AU - Qiao, Shi Zhang

AU - Wang, Fei Fan

AU - Li, Qi

AU - Xu, Dong Sheng

AU - Wang, Bo

AU - Zeng, Cuiping

AU - Chu, Ka Him

AU - Wu, Dan

AU - Yip, Ho Yin

AU - Ye, Liqun

AU - Wong, Po Keung

AU - Wang, Wei Wenjie

AU - Xu, Xiaomin

AU - Liu, Yang Yu

AU - Zhong, Yijun

AU - Shao, Zongping

AU - Wang, Yiou Yan

AU - Silveri, Fabrizio

AU - Bayazit, Mustafa K.

AU - Ruan, Qiushi

AU - Li, Yat Yaomin Yong

AU - Xie, Jijia

AU - Catlow, C. Richard A.

AU - Tang, Junwang

AU - Xiao, Mu

AU - Luo, Bin

AU - Lyu, Miaoqiang

AU - Wang, Sheng Wen Songcan

AU - Wang, Luyang Ligang Lianzhou

AU - Xue, Yinghui Yuancheng

AU - Zhang, Qin

AU - Wang, Wei Wenjie

AU - Cao, Hui

AU - Yang, Quanhong

AU - Fu, Lei

AU - Yang, Yingchao

AU - Niu, Shuwen

AU - Han, Dongdong

AU - Liu, Tianyu

AU - Wang, Gongming

AU - Li, Yat Yaomin Yong

AU - Zhang, Kan

AU - Wang, Luyang Ligang Lianzhou

AU - Sheng, Xiaowei

AU - Ma, Ming

AU - Jung, Myung Sun

AU - Kim, Wanjung

AU - Lee, Hyoyoung

AU - Park, Jong Hyeok

AU - Zhu, Shasha

AU - Wang, Dunwei

AU - Zhu, Bingjun

AU - Zou, Ruqiang

AU - Xu, Qiang

AU - Dörr, Tobias Sebastian

AU - Deilmann, Leonie

AU - Haselmann, Greta

AU - Cherevan, Alexey

AU - Zhang, Peng

AU - Blaha, Peter

AU - de Oliveira, Peter William

AU - Kraus, Tobias

AU - Eder, Dominik

AU - Li, Zhenhua

AU - Zhang, Xiao

AU - Cheng, Hongfei

AU - Liu, Jiawei

AU - Shao, Mingfei

AU - Wei, Min

AU - Evans, David G.

AU - Zhang, Hua

AU - Duan, Xue

AU - Bai, Zhiming

AU - Yan, Xiaoqin

AU - Li, Yat Yaomin Yong

AU - Kang, Zhuo

AU - Cao, Shiyao

AU - Zhang, Yue Yong

AU - Chen, Hao Ming

AU - Chen, Chih Kai

AU - Liu, Ru-Shi

AU - Wu, Ching-Chen

AU - Chang, Wen-Sheng

AU - Chen, Kuei-Hsien

AU - Chan, Ting-Shan

AU - Lee, Jyh-Fu

AU - Tsai, Din Ping

AU - Chen, Liang Che

AU - Teng, Chiao Yi

AU - Lin, Chun Yu

AU - Chang, Hsin Yu Huan Tsung

AU - Chen, Shean Jen

AU - Teng, Hsisheng

AU - Concina, Isabella

AU - Ibupoto, Zafar Hussain

AU - Vomiero, Alberto

AU - Oh, Il-kwon

AU - Cells, Hybrid Solar

AU - Li, Xinxi Xiaofeng

AU - Ye, Jichun

AU - Graham, R

AU - Amassian, Aram

AU - Batteries, Zn-air

AU - Cui, Yi

AU - Cho, Jaephil

AU - Batteries, Li-ion Lithium-ion

AU - Yoon, Chong S

AU - Sun, Yang-kook

AU - Zhou, Yuanyuan

AU - Padture, Nitin P

AU - Sun, Wei

AU - Batteries, Li-ion Lithium-ion

AU - Yang, Dongjiang

AU - Guo, Shaojun

AU - Dionigi, Fabio

AU - Strasser, Peter

AU - Fan, Rundong

AU - Huang, Yuan

AU - Wang, Luyang Ligang Lianzhou

AU - Li, Lihua Liang

AU - Zheng, Guanhaojie

AU - Zhou, Huanping

AU - Jeon, Taewoo

AU - Kim, Sang Ouk Sung Jin

AU - Yoon, Jisun

AU - Byun, Jinwoo

AU - Hong, Hye Rim

AU - Lee, Tae Woo

AU - Kim, Ji Seon

AU - Shin, Byungha

AU - Kim, Sang Ouk Sung Jin

AU - Jia, Chuancheng

AU - Li, Xinxi Xiaofeng

AU - Xin, Na

AU - Gong, Yao

AU - Guan, Jianxin

AU - Meng, Linan

AU - Meng, Sheng

AU - Guo, Xuefeng

AU - Lee, Dong Ki

AU - Choi, Ji Il

AU - Lee, Gyu Heon

AU - Kim, Yong-Hoon

AU - Kang, Jeung Ku

AU - Lei, Zhendong

AU - Xue, Yinghui Yuancheng

AU - Chen, Wenqian

AU - Qiu, Wenhui

AU - Zhang, Yue Yong

AU - Horike, Satoshi

AU - Tang, Liang

AU - Liang, Hanfeng

AU - Ming, Fangwang

AU - Alshareef, Husam N.

AU - Lin, Zhaoyong

AU - Xiao, Jun

AU - Li, Lihua Liang

AU - Liu, Pu

AU - Wang, Chengxin

AU - Yang, Guowei

AU - Liu, Xiangye

AU - Zhu, Guilian

AU - Wang, Xin

AU - Yuan, Xiaotao

AU - Lin, Tianquan

AU - Huang, Fuqiang

AU - Monguzzi, Angelo

AU - Bianchi, Francesco

AU - Bianchi, Alberto

AU - Mauri, Michele

AU - Simonutti, Roberto

AU - Ruffo, Riccardo

AU - Tubino, Riccardo

AU - Meinardi, Francesco

AU - Pang, Jinbo

AU - Bachmatiuk, Alicja

AU - Yin, Yin

AU - Trzebicka, Barbara

AU - Zhao, Liang

AU - Fu, Lei

AU - Mendes, Rafael G.

AU - Gemming, Thomas

AU - Liu, Zhongfan

AU - Rummeli, Mark H.

AU - Rawalekar, Sachin

AU - Mokari, Taleb

PY - 2016

Y1 - 2016

N2 - © 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Outstanding material properties of organic-inorganic hybrid perovskites have triggered a new insight into the next-generation solar cells. Beyond solar cells, a wide range of controllable properties of hybrid perovskites, particularly depending on crystal growth conditions, enables versatile high-performance optoelectronic devices such as light-emitting diodes, photodetectors, and lasers. This article highlights recent progress in the crystallization strategies of organic–inorganic hybrid perovskites for use as effective light harvesters or light emitters. Fundamental background on perovskite crystalline structures and relevant optoelectronic properties such as optical band-gap, electron-hole behavior, and energy band alignment are given. A detailed overview of the effective crystallization methods for perovskites, including thermal treatment, additives, solvent mediator, laser irradiation, nanostructure, and crystal dimensionalityis reported offering a comprehensive correlation among perovskite processing conditions, crystalline morphology, and relevant device performance. Finally, future research directions to overcome current practical bottlenecks and move towards reliable high performance perovskite optoelectronic applications are proposed.

AB - © 2017 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim Outstanding material properties of organic-inorganic hybrid perovskites have triggered a new insight into the next-generation solar cells. Beyond solar cells, a wide range of controllable properties of hybrid perovskites, particularly depending on crystal growth conditions, enables versatile high-performance optoelectronic devices such as light-emitting diodes, photodetectors, and lasers. This article highlights recent progress in the crystallization strategies of organic–inorganic hybrid perovskites for use as effective light harvesters or light emitters. Fundamental background on perovskite crystalline structures and relevant optoelectronic properties such as optical band-gap, electron-hole behavior, and energy band alignment are given. A detailed overview of the effective crystallization methods for perovskites, including thermal treatment, additives, solvent mediator, laser irradiation, nanostructure, and crystal dimensionalityis reported offering a comprehensive correlation among perovskite processing conditions, crystalline morphology, and relevant device performance. Finally, future research directions to overcome current practical bottlenecks and move towards reliable high performance perovskite optoelectronic applications are proposed.

KW - 2D hybrids

KW - 2D materials

KW - 3D structures

KW - All-oxide solar cells

KW - CO2 reduction

KW - Earth-abundant oxides

KW - Electrochemical water splitting

KW - Escherichia coli

KW - Hybrid materials

KW - Integrated photocatalyst

KW - Kinetics

KW - Metal oxide nanostructures

KW - Nanostructures

KW - Photocatalysis

KW - Semiconductors

KW - Solar energy

KW - Solar energy conversion

KW - Solar-driven water splitting

KW - Ta3N5

KW - Taguchi design

KW - Thermodynamics

KW - Z-scheme

KW - anodes

KW - bandgap

KW - bilayer MoS 2

KW - black phosphorus

KW - black titania

KW - block copolymers

KW - cadmium sulfide

KW - carbon nanostructures

KW - carrier dynamics

KW - cathodes

KW - characterization

KW - chemocatalysis

KW - copper oxide

KW - crystallization

KW - density functional theory

KW - doping

KW - dye-sensitized solar cells

KW - elastomers

KW - electrocatalysis

KW - electrocatalysts

KW - electrode materials

KW - electronic structures

KW - energy conversion

KW - energy conversion and storage

KW - energy products

KW - energy storage

KW - graphene oxide

KW - high efficiency

KW - hybrid perovskites

KW - hybrid system

KW - hydrogen evolution

KW - hydrogen evolution reaction

KW - hydrogen evolution reactions

KW - hydrogen production

KW - interface engineering

KW - interfaces

KW - interlayer distance

KW - kinetics

KW - layered double hydroxides

KW - light manipulation

KW - light-emitting diodes

KW - lithium ion batteries

KW - metal hydroxides

KW - metal oxides

KW - metal/semiconductor heterostructures

KW - metal–organic frameworks

KW - metal–organic frameworks (MOFs)

KW - modification

KW - nanoantennas

KW - nanodiamonds

KW - nanomaterials

KW - nanoscale structures

KW - nanowires

KW - natural resources

KW - nitrogen functionality

KW - opening

KW - optoelectronics

KW - organic semiconductors

KW - oxygen evolution

KW - oxyhydroxides

KW - perovskite

KW - phosphorene

KW - photoanodes

KW - photocatalysis

KW - photocatalysts

KW - photocatalytic

KW - photoelectrochemical water splitting

KW - photoelectrodes

KW - photon managing

KW - photovoltaics

KW - plasma

KW - plasmonics

KW - polymers

KW - quadrupole gap plasmon

KW - self-assembly

KW - sensitized up-conversion

KW - service safety

KW - single-crystalline materials

KW - soft polymers

KW - solar cells

KW - solar energy

KW - solar light absorption

KW - supercapacitors

KW - synthesis

KW - titanium dioxide

KW - transition metal phosphides

KW - triplet excitons annihilation

KW - two-dimensional materials

KW - ultrathin nanomeshes

KW - water splitting

UR - http://doi.wiley.com/10.1002/aenm.201600683

UR - https://www.mendeley.com/catalogue/0d5ad696-2c25-3b46-a956-8e248f6d5540/

M3 - Chapter

SN - 16146832

T3 - Advanced Energy Materials

SP - 1

EP - 10

BT - Advanced Energy Materials

ER -

High efficiency up-converting single phase elastomers for photon managing applications

Abstract

Publication series

Keywords

UN SDGs

Other files and links

Fingerprint

Cite this