The incorporation of a synthetic, catalytically competent metallocofactor into a protein
scaffold to generate an artificial metalloenzyme (ArM) has been explored since the late …

The design of artificial catalysts able to compete with the catalytic proficiency of enzymes is
an intense subject of research. Non-covalent interactions are thought to be involved in …

Many bioinspired transition‐metal catalysts have been developed over the recent years. In
this review the progress in the design and application of ligand systems based on peptides …

Sunlight-driven CO2 reduction is increasingly considered as a promising approach to
contribute toward a carbon-neutral fuel cycle, but most photocatalyst systems are currently …

There are 20 proteinogenic amino acids and a limited number of cofactors naturally
available to build enzymes. Genetic codon expansion enables us to incorporate more than …

Artificial (transfer) hydrogenases have been developed for organic synthesis, but they rely
on precious metals. Native hydrogenases use Earth‐abundant metals, but these cannot be …

Inspired by natural heme‐proteins, scientists have attempted for decades to design efficient
and selective metalloporphyrin‐based oxidation catalysts. Starting from the pioneering work …

Artificial metalloenzymes, with their high selectivity and specificity combined with a wide
scope of reactivity and substrates, constitute an original approach for catalyst development …

The design of artificial hemoproteins that could catalyze selective oxidations using clean
oxidants such as O2 or H2O2 under ecocompatible conditions constitutes a real challenge …

An artificial metalloenzyme (BSA–CoL) based on the incorporation of a cobalt (II) Schiff base
complex {CoL, H2L= 2, 2′-[(1, 2-ethanediyl) bis (nitrilopropylidyne)] bisphenol} with bovine …