Developing artificial enzymes based on organic molecules or polymers for reactive oxygen
species (ROS)‐related catalysis has broad applicability. Herein, inspired by porphyrin …

Nature uses Fe porphyrin sites for the oxygen reduction reaction (ORR). Synthetic Fe
porphyrins have been extensively studied as ORR catalysts, but activity improvement is …

Although the active centers of many metalloenzymes have been well-studied, the ability for
chemists to imitate the iron porphyrin heme found in these enzymes remains a challenge …

A nanozyme with neighboring single‐iron sites (Fe2‐SAzyme) was introduced as a
bioinspired catalase mimic, featuring excellent activity under varied conditions, twice as high …

Hydrogen peroxide (H2O2) is a key reactant in the Fenton process. As a byproduct of
enzymatic reaction, H2O2 can be obtained via catalytical oxidation of glucose using glucose …

Cytochromes P450 are powerful biocatalysts that present high catalytic efficiency in the
aerobic oxidation of hydrocarbons under mild conditions. Even though metal–organic …

The chemistry of enzymes presents a key to understanding the catalysis in the world. In the
pursuit of controllable catalytic oxidation, researchers make extensive efforts to discover and …

The oxygen reduction reaction (ORR) is one of the most important reactions in both life
processes and energy conversion systems. The replacement of noble‐metal Pt‐based ORR …

Reactive oxygen species (ROS) regulation for single‐atom nanozymes (SAzymes), eg, Fe−
N− C, is a key scientific issue that determines the activity, selectivity, and stability of aerobic …

Non-heme monoiron dependent oxygenases are emerging as a very diverse and versatile
group of enzymes involved in a number of oxidative transformations, which also hold …