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Electrospinning high-entropy oxide nanofibers for catalytic oxidation of ethyl acetate: unraveling the synergistic role of metal–oxygen bonds

Authors: Xin Wang; Yidian Lin; Yinye Chen; Jiachang Zuo; Xiuyun Wang; Yongjin Luo

DOI: 10.1007/s40843-025-3295-6Status: Verified Translated Edition
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Key Findings in This Report

• • Achieves 90% ethyl acetate conversion at 266 °C with 100% CO2 selectivity, enabling energy-efficient VOC abatement below typical industrial incineration thresholds (>300 °C). • • Exhibits a turnover frequency of 101.5 ± 0.8 h−1 based on total metal content, outperforming conventional transition metal oxide catalysts by a factor of 2–3, reducing catalyst loading and cost. • • Maintains structural and catalytic stability over five consecutive cycles and under thermal stress, with no significant phase segregation or activity loss, ensuring long-term operational reliability. • • 18O isotope labeling confirms the Mars-van-Krevelen mechanism with high lattice oxygen mobility, providing a design principle for tuning metal–oxygen bond synergy in high-entropy oxides.