Interfacial Electrochemical Self-Assembly Enables Mechanically Robust Infrared Stealth Coatings on Complex-Shaped Metallic Substrates
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Summary
This summary is machine-generated.A new electrochemical method creates advanced MXene coatings for infrared stealth. These coatings offer superior mechanical strength, electrical conductivity, and dual functionality for deicing and electromagnetic shielding.
Area Of Science
- Materials Science
- Nanotechnology
- Surface Engineering
Background
- Transition metal carbides/carbonitrides (MXene) show potential for infrared stealth coatings due to low emissivity and high visible light absorption.
- Conventional coating methods struggle with complex geometries and specific substrate requirements.
Purpose Of The Study
- To develop a novel fabrication method for MXene-based composite coatings.
- To overcome limitations of conventional coating techniques for geometrically complex surfaces.
- To create a multifunctional stealth coating with enhanced physical and operational properties.
Main Methods
- Electrochemical ion-diffusion-induced gelation approach.
- Fabrication of MXene-based composite coatings (Fe<sup>2+</sup> M/G).
- Characterization of mechanical strength, infrared emissivity, electrical conductivity, electromagnetic shielding, and Joule heating capabilities.
Main Results
- Uniform deposition on arbitrary geometries achieved.
- High mechanical strength (198.31 MPa) and low infrared emissivity (0.19).
- Exceptional electrical conductivity (3571.4 S cm<sup>-1</sup>) enabling electromagnetic shielding (49.35 dB) and rapid Joule heating (84 °C).
Conclusions
- The electrochemical method provides a versatile route for fabricating advanced MXene stealth coatings.
- The developed Fe<sup>2+</sup> M/G composite coating exhibits multifunctional properties for diverse applications.
- This work offers fundamental insights and practical solutions for next-generation stealth materials.

