Journal of Coating Technology and Innovation

Plasma-Enhanced and Electrodeposition Methods

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Advanced coatings have been made possible by plasma-enhanced deposition techniques, which provide enhanced adhesion, increased hardness, and improved thermal stability. High-temperature coatings in jet engines, gas turbines, and biomedical implants require techniques like plasma-assisted CVD and plasma spraying. Plasma-assisted techniques improve material adhesion, resulting in more resilient and robust coatings that can withstand harsh environmental conditions.

Metallic and composite coatings can be applied through the controlled process of electrodeposition, a significant coating technique. Electrodeposition is widely utilized in corrosion-resistant finishes, decorative coatings, and electrical applications, enabling the precise control of thickness and uniformity. Manufacturers in the automotive, aerospace, and electronics sectors rely on this technique for enhanced wear resistance, electrical conductivity, and visual appeal.

Plasma-enhanced deposition will utilize artificial intelligence-driven process optimisation to guarantee more efficient material utilisation and upgraded coating properties. Innovative low-energy plasma treatments are being developed with the aim of minimizing environmental impact without compromising high-performance capabilities. The incorporation of nanostructured materials and graphene-based coating in electrodeposition is expected to improve both electrical conductivity and mechanical durability, thereby fuelling advancements in flexible electronics, medical devices, and energy storage technologies.