AI Article Synopsis
- A new method for removing toluene waste gas using a nickel-iron bimetallic particle electrode in a three-dimensional reaction device is introduced, achieving significant increases in degradation efficiency.
- The electrode’s mass transfer rate was enhanced by 1.29 times, leading to nearly a 40% improvement in overall reactor efficiency, sustaining removal rates over 80% even after 5 cycles.
- The study includes optimization of working parameters and an analysis of the toluene degradation pathway, contributing to the theoretical groundwork for new technologies in the electrocatalytic oxidation of volatile organic compounds (VOCs).
Article Abstract
A new attempt of removing toluene waste gas using a three-dimensional electrode reaction device with nickel-iron bimetallic particle electrode is presented in this paper. The particle electrode was prepared by a simple liquid phase reduction method. Through bimetal modification, the particle electrode mass transfer rate is increased to 1.29 times, and the degradation efficiency of the reactor is increased by nearly 40%, which makes it possible to remove toluene waste gas by other electrochemical methods in addition to plasma method. The removal efficiency of the particle electrode can be stabilized at more than 80% after 5 cycles (50 h). At the same time, the relationship between independent working parameters and dependent variables is analyzed using the central composite design, and the operating parameters are optimized. Based on this study, the removal mechanism and possible degradation pathway of toluene were investigated. This study provides a supplement to the possibility and theoretical basis of new technology application for electrocatalytic oxidation removal of VOCs.
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| http://www.ncbi.nlm.nih.gov/pmc/articles/PMC11065997 | PMC |
| http://dx.doi.org/10.1038/s41598-024-60956-0 | DOI Listing |
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