Innovative Molten Salt-Shielded Synthesis of Cu2CCl2 MXene for Efficient Renewable Energy Production
Key Ideas
- Introduction of molten salt-shielded synthesis method for efficient 2D Cu2CCl2 MXene creation with remarkable electrocatalytic properties.
- Cu2CCl2 MXene showcases low overpotential for both hydrogen evolution reaction (HER) and oxygen evolution reaction (OER), highlighting its potential for sustainable energy applications.
- The study reveals Cu2CCl2 MXene as a highly conductive and durable electrocatalyst, positioning it as a promising candidate for renewable energy systems.
- The scalability of the molten salt-assisted synthesis method further enhances the practicality of Cu2CCl2 MXene for large-scale renewable energy production.
The article introduces a novel molten salt-shielded synthesis strategy for the efficient construction of 2D Cu2CCl2 MXene, a promising electrocatalyst for renewable energy applications. The study successfully synthesizes Cu2CCl2 MXene nanomaterials using a Lewis-acid salt as an etchant and a low-melting-point eutectic salt mixture to prevent oxidation of the MXene structure. Cu2CCl2 exhibits excellent electrochemical performance for both HER and OER in acidic media, showcasing low overpotential and high activity. The findings highlight the potential of Cu2CCl2 MXene as a durable and active electrocatalyst for sustainable hydrogen and oxygen production. The scalability of the molten salt-assisted synthesis method further positions Cu2CCl2 as a practical solution for renewable energy systems, offering a promising avenue for enhancing energy sustainability.