The development of highly active biomimetic catalysts with peroxidase (POD)-like activity
and realization of vivid mimicking of the active sites of natural enzymes still remains a huge …

Fe–N–C single‐atom catalysts (SACs) exhibit excellent peroxidase (POD)‐like catalytic
activity, owing to their well‐defined isolated iron active sites on the carbon substrate, which …

Despite the breakthroughs of transition-metal catalysts in enzyme mimicking, fundamental
investigation on the design of efficient nanozymes at the atomic scale is still required for …

Recently, single-atom catalysts (SACs) have been used to construct biosensors for the
determination of organophosphorus pesticides (OPs). However, most nanozymes including …

The catalytic activity and selectivity of single‐atom sites catalysts is strongly dependent on
the supports structure and central metal coordination environment. However, the further …

Due to robustness, easy large-scale preparation and low cost, nanomaterials with enzyme-
like characteristics (defined as 'nanozymes') are attracting increasing interest for various …

In nature, enzymatic reactions occur in well-functioning catalytic pockets, where substrates
bind and react by properly arranging the catalytic sites and amino acids in a three …

Developing artificial enzymes with the excellent catalytic performance of natural enzymes
has been a long-standing goal for chemists. Single-atom catalysts with well-defined atomic …

Revealing the relationship between composition and enzyme-like activities is essential for
the rational designs of nanozymes and related assays with improved performances. Here, a …

Pursuing effective and generalized strategies for modulating the electronic structures of
atomically dispersed nanozymes with remarkable catalytic performance is exceptionally …