AI Article Synopsis
- Hydrogen peroxide (HO) is an eco-friendly and versatile compound essential for various sectors like industry, home care, and healthcare, contributing to environmental sustainability and human health.
- Traditional production methods using anthraquinone oxidation are being replaced by electrocatalytic synthesis, which leverages renewable energy, oxygen, and water, aligning with modern environmental and energy goals.
- Recent advancements in two-electron water oxidation electrocatalysts explore design principles, experimental techniques, and the role of chemical microenvironments, enhancing catalyst performance for scalable commercial applications through improved device design and interface engineering.
Article Abstract
Hydrogen peroxide (HO) is a versatile and zero-emission material that is widely used in the industrial, domestic, and healthcare sectors. It is clear that it plays a critical role in advancing environmental sustainability, acting as a green energy source, and protecting human health. Conventional production techniques focused on anthraquinone oxidation, however, electrocatalytic synthesis has arisen as a means of utilizing renewable energy sources in conjunction with available resources like oxygen and water. These strides represent a substantial change toward more environmentally and energy-friendly HO manufacturing techniques that are in line with current environmental and energy goals. This work reviews recent advances in two-electron water oxidation reaction (2e-WOR) electrocatalysts, including design principles and reaction mechanisms, examines catalyst design alternatives and experimental characterization techniques, proposes standardized assessment criteria, investigates the impact of the interfacial milieu on the reaction, and discusses the value of in situ characterization and molecular dynamics simulations as a supplement to traditional experimental techniques and theoretical simulations, as shown in Figure 1. The review also emphasizes the importance of device design, interface, and surface engineering in improving the production of HO. Through adjustments to the chemical microenvironment, catalysts can demonstrate improved performance, opening the door for commercial applications that are scalable through tandem cell development.
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| http://dx.doi.org/10.1002/cssc.202401100 | DOI Listing |
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