Cover Picture: Disorder Engineering in Monolayer Nanosheets Enabling Photothermic Catalysis for Full Solar Spectrum (250–2500 nm) Harvesting (Angew. Chem. Int. Ed. 10/2019)
Graphical Abstract
Maximizing light harvesting while sustaining high photoredox capability is crucial for realizing high photocatalytic solar-to-chemical conversion. In their Communication on page 3077, G. W. Ho and co-workers report an order–disorder D-HNb3O8 monolayer structure to perform two disparate functions of photoexcitation to generate charge carriers and solar heating to thermally boost reaction kinetics. This solar thermal-mediated photocatalyst system fulfills full solar energy utilization from 250 to 2500 nm.
Maximizing light harvesting while sustaining high photoredox capability is crucial for realizing high photocatalytic solar-to-chemical conversion. In their Communication on page 3077, G. W. Ho and co-workers report an order–disorder D-HNb3O8 monolayer structure to perform two disparate functions of photoexcitation to generate charge carriers and solar heating to thermally boost reaction kinetics. This solar thermal-mediated photocatalyst system fulfills full solar energy utilization from 250 to 2500 nm.
Chiral Bisindole Skeletons
Uranium Clusters
Nanotechnology
Hydrogen Storage
