Dual-oxidation-induced lattice disordering in a Prussian blue analog for ultrastable oxygen evolution reaction performance.

TL;DR: Researchers developed ultrathin MnO2 with strong lattice disorder, enhancing low-temperature reduction and reactive oxygen species, leading to excellent VOC oxidation activities, particularly for toluene and acetone, with a proposed synergistic mechanism for mixed VOCs.

TL;DR: Researchers developed a tandem surface engineering strategy for NiFe Prussian blue analogue, incorporating fluorine doping and graphene quantum dot decoration, to enhance its electrocatalytic oxygen evolution reaction performance in alkaline medium with improved efficiency and durability.

TL;DR: This review explores electronic structure engineering of electrocatalysts for efficient urea oxidation reaction, highlighting its potential to improve catalytic efficacies, interface-driven electron transfer, and reaction pathway optimization, with a focus on interface, doping, defect, phase, and strain engineering.

TL;DR: Researchers investigate Prussian blue nanozymes' catalytic mechanisms, revealing a dual-path electron transfer mechanism that enables self-increasing catalytic activity, contrary to previously reported nanozymes, with a long service life as peroxidase and catalase mimetics.

TL;DR: This review acquaints some materials for performing OER activity, in which the metal oxide materials build the basis of OER mechanism while non-oxide materials exhibit greatly promising performance toward overall water-splitting.

TL;DR: This article summarized the recent progress in understanding OER mechanisms, which include the conventional adsorbate evolution mechanism (AEM) and lattice-oxygen-mediated mechanism (LOM) from both theoretical and experimental aspects, and introduced strategies to reduce overpotential.

TL;DR: A wide range of applications based on these materials for ORR, OER, HER and multifunctional electrocatalysis are discussed, with an emphasis on the required features of MOF-derived carbon-based materials for the Electrocatalysis of corresponding reactions.