SinoGreenTech Academic Portal
Official PDF TranslationSCIENCE CHINA Materials

Electrocatalytic Ammonia Oxidation Reaction: From Active Site Regulation to Industrial Device Systems

Authors: ZHANG Xinyuan; YAN Xiao; LIANG Ji

DOI: 10.1007/s40843-026-4240-7Status: Verified Translated Edition
Sponsored AdvertisementAd Placement Area
reCAPTCHA Bot Shield Active

Preparing Secure Academic Download

Verifying human reader & generating high-resolution document...

Verifying Document Integrity15s remaining
← Back to Article
Protected by Google reCAPTCHA v3.PrivacyTerms
Sponsored ContentAdSense In-Feed Ad Slot

Key Findings in This Report

• • Active-site tuning remains central: noble-metal catalysts require optimized NHx adsorption/dehydrogenation and poisoning suppression; Ni-based catalysts demand regulation of NiOOH-like reconstructed phases to balance activity and selectivity. • • Interfacial engineering controls selectivity and stability: heterointerfaces, defects, and doped coordination environments alter AOR vs. OER competition and product branching toward N2 or oxygenated species. • • Device-oriented development is essential: practical DAFCs, ammonia electrolyzers, and SOFCs are limited by membrane compatibility, mass transport, ammonia crossover, thermal management, and durability, not just intrinsic activity. • • Future progress requires coordinated optimization from active materials to electrode architectures and full-device systems to bridge lab-scale catalysts and industrial ammonia energy technologies.