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Noyori-type catalysts feature a metal-bound N–H moiety but can operate without dissociation of this bond. This knowledge is consistent with the activity of catalysts bearing tertiary amines and will help in the design of better catalysts for (de)hydrogenations, transfer (de)hydrogenations and related conversions. See Dub and Gordon
Oxidation states and radii of cations dictate their arrangement in double perovskite oxides and influence the material’s properties. Isovalent cations are known to be disordered in double perovskite oxides, but an unusual ordering of Fe3+ and Al3+ has been found in Bi2FeAlO6.
Martian sediments and meteorites contain a complex mixture of inorganic and organic materials. The identities and localizations of these species point to a mechanism of organic synthesis that begins with the electrochemical reduction of carbon dioxide.
Noyori-type catalysts perform (de)hydrogenation and transfer (de)hydrogenation reactions at a metal centre coordinated to a N–H moiety. Understanding how these metal–ligand bifunctional catalysts operate enables us to design better catalysts for these reactions and for related conversions such as alcohol dehydrogenations, ester or carboxamide hydrogenations and dehydrogenative coupling of primary alcohols with other alcohols or amines.
Engineered biocatalysts are increasingly being used for both the identification and manufacture of active pharmaceutical ingredients. Here, the authors review key developments that are expanding the use of biocatalysis in the pharmaceutical industry.
3D printing is becoming a mainstream technology with considerable increase in access to affordable desktop printers. However, specific design principles and material considerations need to be weighed when printing functional devices that integrate catalytic and/or analytical functionalities, as well as when printing common laboratory hardware.
Energy exchange between an excited photosensitizer and an annihilator can result in the upconversion of low-energy to high-energy light. Limiting the oxygen sensitivity of this process is essential for many biological applications. This Review discusses approaches to suppressing or alleviating such sensitivity.