Prospects of nano-carbons as emerging catalysts for enzyme-mimetic applications

It is of enormous scientific and practical significance to develop nanozymes, i.e., enzyme-mimicking nanomaterials, to overcome the instability, difficult storage, and high cost of natural enzymes. The field of enzyme mimetics has advanced significantly after the emergence of nano-carbons due to their unique structure and properties. The large specific surface area of nano-carbons maximizes their active sites and accelerates electron transfer in catalytic reactions, helping them serve as direct surrogates to natural enzymes. This review presents insights into the recent advancements and key approaches towards the capability of nano-carbons as a catalyst to trigger advances in enzyme mimetics that have revolutionized the nanozyme sector. The structure-property relationship and unique features of nano-carbons regulating their catalytic behavior are also briefly discussed. Further, the respective mechanisms are summarized and discussed along with the applications of carbon-based nanozymes in different fields from biosensor design and environmental monitoring to therapeutics. The review concludes with the key scientific issues facing nano-carbons as catalysts and future perspectives on maximizing their benefits at the nanozyme nexus and beyond.

Automated summary

Developing nanozymes, enzyme-mimicking nanomaterials, has enormous scientific and practical significance in overcoming issues such as instability, difficult storage, and high cost associated with natural enzymes. The emergence of nano-carbons has significantly advanced the field of enzyme mimetics due to their unique structure and properties. Nano-carbons, with their large specific surface area, maximize active sites and accelerate electron transfer in catalytic reactions, serving as direct substitutes for natural enzymes.