Roadmap on inorganic perovskites for energy applications

Irvine, John and Rupp, Jennifer L. M. and Liu, Gang and Xu, Xiaoxiang and Haile, Sossina and Qian, Xin and Snyder, Alem and Freer, Robert and Ekren, Dursun and Skinner, Stephen and Celikbilek, Ozden and Chen, Shigang and Tao, Shanwen and Shin, Tae Ho and O'Hayre, Ryan and Huang, Jake and Duan, Chuancheng and Papac, Meagan and Li, Shuangbin and Celorrio, Veronica and Russell, Andrea and Hayden, Brian and Nolan, Hugo and Huang, Xiubing and Wang, Ge and Metcalfe, Ian and Neagu, Dragos and Martín, Susana Garcia (2021) Roadmap on inorganic perovskites for energy applications. Journal of Physics: Energy, 3 (3). 031502. ISSN 2515-7655 (https://doi.org/10.1088/2515-7655/abff18)

[thumbnail of Irvine-etal-JPE-2021-Roadmap-on-inorganic-perovskites-for-energy-applications]
Preview
 Text. Filename: Irvine_etal_JPE_2021_Roadmap_on_inorganic_perovskites_for_energy_applications.pdf
Final Published Version
License: Creative Commons Attribution 4.0 logo
Download (6MB)| Preview

Abstract

Inorganic perovskites exhibit many important physical properties such as ferroelectricity, magnetoresistance and superconductivity as well their importance as energy materials. Many of the most important energy materials are inorganic perovskites and find application in batteries, fuel cells, photocatalysts, catalysis, thermoelectrics and solar thermal. In all these applications, perovskite oxides, or their derivatives offer highly competitive performance, often state of the art and so tend to dominate research into energy material. In the following sections, we review these functionalities in turn seeking to facilitate the interchange of ideas between domains. The potential for improvement is explored and we highlight the importance of both detailed modelling and in situ and operando studies in taking these materials forward.

CORE (COnnecting REpositories)