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This is a Experimental Study study.

Harnessing Fe–Mo Atomic Interfaces for Boosted Electron Transfer and ROS Generation in Sustainable Pollutant Degradation

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Catalytic system demonstrates over 90% pollutant degradation, suggesting enhanced electron transfer and ROS generation.

The FeMo0.5-OCN catalyst achieves over 90% phenol degradation within 1 minute, demonstrating remarkable efficiency.
Chemical oxygen demand removal shows up to 91% efficiency for phenolic wastewaters, outperforming conventional systems.
Density functional theory identifies that molybdenum single atoms enhance adsorption and iron clusters drive PMS activation.
Life cycle assessment indicates the system's superior sustainability and cost-effectiveness compared to traditional Fenton processes.

Liang et al. (2025) studied this question.

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View Full Paper

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Authors

Catalytic system demonstrates over 90% pollutant degradation, suggesting enhanced electron transfer and ROS generation.

The FeMo0.5-OCN catalyst achieves over 90% phenol degradation within 1 minute, demonstrating remarkable efficiency.
Chemical oxygen demand removal shows up to 91% efficiency for phenolic wastewaters, outperforming conventional systems.
Density functional theory identifies that molybdenum single atoms enhance adsorption and iron clusters drive PMS activation.
Life cycle assessment indicates the system's superior sustainability and cost-effectiveness compared to traditional Fenton processes.

Liang et al. (2025) studied this question.

View Full Paper

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Bookmark