<i>Operando</i> Elucidation of Filamentous Carbon Gasification Kinetics and Mechanisms on a Spent Ni/CeO<sub>2</sub> Catalyst

Coking is the leading cause of catalyst deactivation in many important hydrocarbon conversion technologies. Understanding regeneration mechanisms is critical for developing effective carbon removal strategies that improve catalyst longevity and reduce operational costs. Here, we present a spatially...

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Bibliographic Details
Main Author:	Monia R. Nielsen (22366000) (author)
Other Authors:	Tianyu Li (479460) (author), Rajat Sainju (12408173) (author), Seth March (18954612) (author), Chunxiang Zhu (1721311) (author), Pu-Xian Gao (2038339) (author), Steven L. Suib (1290195) (author), Yuanyuan Zhu (418127) (author)
Published:	2025
Subjects:	Biophysics Medicine Biological Sciences not elsewhere classified reduce operational costs industrially relevant air filamentous carbon removal axial filament consumption induced catalyst sintering improve catalyst longevity maximum gasification rates carbon contact disruption ni (− c fast catalytic gasification catalyst regeneration strategies carbon gasification processes highlighting critical pathways understanding regeneration mechanisms 2 </ sub carbon contact gasification pathways catalytic gasification filament breakage adverse processes x </ operando </ catalyst deactivation catalyst coking cooperative gasification sub >< spent ni spatially resolved semantic segmentation potential pitfalls pivotal role like conditions leading cause either ni characterization uncovered also identified
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<i>Operando</i> Elucidation of Filamentous Carbon Gasification Kinetics and Mechanisms on a Spent Ni/CeO<sub>2</sub> Catalyst

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