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Functionalized magnetic nanomaterials (FMNs)Functionalized Magnetic Nanomaterials (FMNs), with several uses in energy conversion and storage, present an interesting new tool for electrocatalysisElectrocatalysis. FMNsFunctionalized Magnetic Nanomaterials (FMNs)’ high surface area, magnetic responsiveness, and adjustable electronic properties help to increase catalytic efficiency, stability, and recyclabilityRecyclability. For important electrocatalytic reactions including the reduction of carbon dioxide (CO2RR), the evolution of oxygen (OER), oxygen reduction reaction (ORR), the evolution of hydrogenHydrogen Evolution Reaction (HER) (HER), and their remarkable properties make them quite appealing. The function, structure, and compositional changes that FMNsFunctionalized Magnetic Nanomaterials (FMNs) can bring to these reactions are discussed in this chapter. Improved reaction kinetics and selectivity are possible with FMNsFunctionalized Magnetic Nanomaterials (FMNs) because of their heteroatom incorporation, material hybridization, and surface chemistry optimizationSurface chemistry optimization. They are perfect for use in renewable energy technologiesRenewable energy technologies in the long run because they resist degradationDegradation and allow for efficient charge transfer. Fuel cells, hydrogen productionHydrogen production through water splittingWater splitting, and metal–air batteries are just a few areas where FMNsFunctionalized Magnetic Nanomaterials (FMNs) are causing innovations beyond basic reactions. They solve environmental and economic problems at the same time, its significant magnetic propertiesMagnetic properties, which make recovery and recyclingRecycling easier. Researchers are making strides toward cleaner, more affordable energy solutions by including FMNsFunctionalized Magnetic Nanomaterials (FMNs) in energy conversion systems. There is tremendous potential for FMNsFunctionalized Magnetic Nanomaterials (FMNs) to hasten the transition to a future powered by renewable sources. This chapter summarizes current findings, delves into the difficulties of making FMNsFunctionalized Magnetic Nanomaterials (FMNs) practical at scale, and suggests avenues for further study. Engineers and scientists can help create a greener energy future by making use of FMNsFunctionalized Magnetic Nanomaterials (FMNs)’ special characteristics.

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Applications of Functionalized Magnetic Nanomaterials (FMNs) for Electrocatalysis in Renewable Energy Technologies

  • 章节

  • 发表日期：

    2025年

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  • Mehak Yadav,
  • Vikrant Singh Rao,
  • Vivek Rawat,
  • Pallavi Saini

摘要

Functionalized magnetic nanomaterials (FMNs)Functionalized Magnetic Nanomaterials (FMNs), with several uses in energy conversion and storage, present an interesting new tool for electrocatalysisElectrocatalysis. FMNsFunctionalized Magnetic Nanomaterials (FMNs)’ high surface area, magnetic responsiveness, and adjustable electronic properties help to increase catalytic efficiency, stability, and recyclabilityRecyclability. For important electrocatalytic reactions including the reduction of carbon dioxide (CO2RR), the evolution of oxygen (OER), oxygen reduction reaction (ORR), the evolution of hydrogenHydrogen Evolution Reaction (HER) (HER), and their remarkable properties make them quite appealing. The function, structure, and compositional changes that FMNsFunctionalized Magnetic Nanomaterials (FMNs) can bring to these reactions are discussed in this chapter. Improved reaction kinetics and selectivity are possible with FMNsFunctionalized Magnetic Nanomaterials (FMNs) because of their heteroatom incorporation, material hybridization, and surface chemistry optimizationSurface chemistry optimization. They are perfect for use in renewable energy technologiesRenewable energy technologies in the long run because they resist degradationDegradation and allow for efficient charge transfer. Fuel cells, hydrogen productionHydrogen production through water splittingWater splitting, and metal–air batteries are just a few areas where FMNsFunctionalized Magnetic Nanomaterials (FMNs) are causing innovations beyond basic reactions. They solve environmental and economic problems at the same time, its significant magnetic propertiesMagnetic properties, which make recovery and recyclingRecycling easier. Researchers are making strides toward cleaner, more affordable energy solutions by including FMNsFunctionalized Magnetic Nanomaterials (FMNs) in energy conversion systems. There is tremendous potential for FMNsFunctionalized Magnetic Nanomaterials (FMNs) to hasten the transition to a future powered by renewable sources. This chapter summarizes current findings, delves into the difficulties of making FMNsFunctionalized Magnetic Nanomaterials (FMNs) practical at scale, and suggests avenues for further study. Engineers and scientists can help create a greener energy future by making use of FMNsFunctionalized Magnetic Nanomaterials (FMNs)’ special characteristics.