Exploration of Electromagnetic Resonance for Advanced CO2 Molecular Cracking: Towards a Revolution in Carbon Emission Management.

Author:

Mnaouer Khaled1,Mghaiouini Redouane2,Mouden Mahmoud El1

Affiliation:

1. National School of Applied S,iences, Chouaib Doukkali University,

2. School of Applied Sciences ,Ibn Tofail University

Abstract

Abstract This study focuses on optimizing the efficiency and selectivity of the CO2 cracking process using the method of experimental design and leveraging electromagnetic resonance. In a context where the utilization of CO2 as a valuable raw material is gaining increasing interest, the CO2 cracking process activated by electromagnetic resonance offers promising prospects. The experimental design method is implemented to deeply analyze the influential factors and their interactions within this process. Through a series of carefully designed experiments, the optimal parameters for achieving maximum CO2 conversion and increased product selectivity are determined. The results highlight the effectiveness of using electromagnetic resonance to facilitate the CO2 cracking process, while also highlighting its potential for the creation of high-value carbon-based products. This research contributes to the development of more efficient and sustainable methods for the utilization of CO2

Publisher

Research Square Platform LLC

Reference28 articles.

1. Electric field effects on CO2 dissociation kinetics: Mechanistic insights from theory and experiment;Smith A;Journal of Physical Chemistry C,2016

2. Electric field effect on CO2 dissociation over transition metal catalysts: A density functional theory study;Wang Y;Journal of Catalysis,2018

3. Enhanced CO2 activation and conversion via electric field-induced modification of catalytic materials;Li X;Applied Catalysis B: Environmental,2017

4. Electric field effects on CO2 splitting over transition metal catalysts;Chen L;Journal of Physical Chemistry C,2019

5. Enhanced CO2 dissociation by electric fields: An experimental study using atmospheric pressure non-thermal plasma;Wu J;Journal of CO2 Utilization,2018

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