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This Review details the structural and chemical features of state-of-the-art metal–organic frameworks for their application in the carbon cycle of capturing, purifying and transforming CO2 into valuable products.
See Christopher A. Trickett et al. 2, 17045 (2017).
Image credit: Kyle E. Cordova, Christopher A. Trickett & Omar M. Yaghi
Two-dimensional transition metal dichalcogenides (TMDCs) exhibit attractive electronic and mechanical properties. In this Review, the charge density wave, superconductive and topological phases of TMCDs are discussed, along with their synthesis and applications in devices with enhanced mobility and with the use of strain engineering to improve their properties.
The discovery of nanoporous materials is now being propelled by the analysis of big data combined with traditional computational thermodynamics calculations. In this Review, we analyse the current state of the art, with a focus on the generation of computational databases and results from large-scale screening for gas separations.
Low-bandgap (<1.6 eV) polymers enable polymer solar cells to form effective tandem structures for harvesting near-infrared solar energy as well as reducing thermal loss. This Review summarizes recent progress and provides a perspective on various low-bandgap polymer-containing tandem solar cells; namely, pure polymer–polymer tandem, hybrid polymer–amorphous silicon tandem and unconventional perovskite–polymer tandem solar cells.
This Review details the structural and chemical features of state-of-the-art metal–organic frameworks for their application in the entire carbon cycle of capturing, purifying and transforming CO2 into valuable products.