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The study aims to develop a scalable method for integrating manganese oxide into graphene for improved supercapacitor applications.

May 3, 20260 citations

Laser-Assisted Explosive Synthesis and In Situ Transfer of Graphene/MnO Nanohybrids with Tunable MnO Content for Supercapacitors.

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NSNikolaos SamartzisKnoxville College KMKostas MinotakisUniversity of Patras LSLabrini SygellouFoundation for Research and Technology Hellas

Key Points

The study aims to develop a scalable method for integrating manganese oxide into graphene for improved supercapacitor applications.
Utilized laser-assisted synthesis techniques for creating graphene/MnO nanohybrids.
Explored various metal precursors to enable tunable composition of MnO.
Conducted in situ transfer of nanohybrids for enhanced electrochemical performance.
Demonstrated that varying MnO content in graphene nanohybrids leads to improved supercapacitor efficiency.
Achieved scalable production of nanohybrids suitable for commercial applications.
Showed optimal electrochemical activity and stability in supercapacitor configurations.

Abstract

. This work demonstrates a scalable and tunable approach for decorating laser-assisted graphene with electrochemically active metal oxides, enabling the extension of this method to various metal precursors.

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Laser-Assisted Explosive Synthesis and In Situ Transfer of Graphene/MnO Nanohybrids with Tunable MnO Content for Supercapacitors.

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Abstract

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