From Design to Device: Challenges and Opportunities in Computational Discovery of p -Type Transparent Conductors

Author:

Woods-Robinson Rachel123ORCID,Morales-Masis Monica4ORCID,Hautier Geoffroy5ORCID,Crovetto Andrea6ORCID

Affiliation:

1. University of Washington

2. Lawrence Berkeley National Laboratory

3. National Renewable Energy Laboratory

4. University of Twente

5. Dartmouth College

6. Technical University of Denmark

Abstract

A high-performance p-type transparent conductor (TC) does not yet exist but could lead to advances in a wide range of optoelectronic applications and enable new architectures for, e.g., next-generation photovoltaic (PV) devices. High-throughput computational material screenings have been a promising approach to filter databases and identify new p-type TC candidates and some of these predictions have been experimentally validated. However, most of these predicted candidates do not have experimentally achieved properties on par with n-type TCs used in solar cells and therefore have not yet been used in commercial devices. Thus, there is still a significant divide between transforming predictions into results that are actually achievable in the laboratory and an even greater lag in scaling predicted materials into functional devices. In this perspective, we outline some of the major disconnects in this materials discovery process—from scaling computational predictions into synthesizable crystals and thin films in the laboratory to scaling laboratory-grown films into real-world solar devices—and share insights to inform future strategies for TC discovery and design. Published by the American Physical Society 2024

Funder

U.S. Department of Energy

Office of Science

National Science Foundation

University of Washington Clean Energy Institute

Basic Energy Sciences

Villum Fonden

European Union

Office of Basic Energy Sciences

Materials Sciences and Engineering Division

University of California, Berkeley Chancellor’s Fellowship

Publisher

American Physical Society (APS)

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