Strongly-confined colloidal lead-halide perovskite quantum dots: from synthesis to applications
University of Oxford · Universidade de Vigo · +3 more institutions
Abstract
Colloidal semiconductor nanocrystals enable the realization and exploitation of quantum phenomena in a controlled manner, and can be scaled up for commercial uses. These materials have become important for a wide range of applications, from ultrahigh definition displays, to solar cells, quantum computing, bioimaging, optical communications, and many more. Over the last decade, lead-halide perovskite nanocrystals have rapidly gained prominence as efficient semiconductors. Although the majority of studies have focused on large nanocrystals in the weak- to intermediate-confinement regime, quantum dots (QDs) in the strongly-confined regime (with sizes smaller than the Bohr diameter, which ranges from 4-12 nm for…
Citation impact
- FWCI
- 25.72
- Percentile
- 100%
- References
- 173
Authors
9Topics & keywords
- Halide
- Perovskite (structure)
- Quantum dot
- Nanocrystal
- Nanotechnology
- Lead (geology)
- Colloid
- Curse of dimensionality
Funding
- UDU.S. Department of EnergyAwards: 2019-2020, DE-SC0024441
- MIMassachusetts Institute of Technology
- URUK Research and InnovationAward: EP/X022900/1
- RARoyal Academy of Engineering
- NNNational Natural Science Foundation of ChinaAward: 52173234
- MDMinisterio de Ciencia e InnovaciónAward: RYC2018-026103-I
- XDXunta de GaliciaAwards: ED481A, ED481A 2022, ED431F2021/05
- OOOffice of Science
- MCMagdalene College, University of Cambridge
- AEAgencia Estatal de InvestigaciónAwards: TED2021-131628A-I00, PID2020-117371RA-I00
- BEBasic Energy SciencesAward: DE-SC0024441