Probing the local electronic structure in metal halide perovskites through cobalt substitution
Small Methods Wiley 7:6 (2023) 2300095
Abstract:
Owing to the unique chemical and electronic properties arising from 3d‐electrons, substitution with transition metal ions is one of the key routes for engineering new functionalities into materials. While this approach has been used extensively in complex metal oxide perovskites, metal halide perovskites have largely resisted facile isovalent substitution. In this work, it is demonstrated that the substitution of Co2+ into the lattice of methylammonium lead triiodide imparts magnetic behavior to the material while maintaining photovoltaic performance at low concentrations. In addition to comprehensively characterizing its magnetic properties, the Co2+ ions themselves are utilized as probes to sense the local electronic environment of Pb in the perovskite, thereby revealing the nature of their incorporation into the material. A comprehensive understanding of the effect of transition metal incorporation is provided, thereby opening the substitution gateway for developing novel functional perovskite materials and devices for future technologies.Fault-tolerant qubit encoding using a spin-7/2 qudit
(2023)
P025: RADAR: An international phase III, PET response‐adapted, randomised trial in progress, comparing ABVD±ISRT with brentuximab vedotin+AVD±ISRT in patients with previously untreated limited‐stage classical Hodgkin lymphoma
HemaSphere Wiley 6:Suppl (2022) 12-13
A national service for delivering CD19 CAR‐Tin large B‐cell lymphoma – The UK real‐world experience
British Journal of Haematology Wiley 198:3 (2022) 492-502
Magnetization of magnetoactive elastomers under the assumption of breakable adhesion at the particle/matrix interface
Soft Matter Royal Society of Chemistry (RSC) 18:25 (2022) 4667-4678