Development of Self-Cleaning Fabrics Using Nanotechnology: Implications for Healthcare and Laboratory Application

Abstract

Conventional fabrics are often affected by repeated chemical and mechanical washing processes, leading to wear, reduced durability, and a shorter lifespan. This study discusses a novel approach to textile manufacturing based on nanotechnology, in which fabrics are engineered with surface properties that help repel dust particles through electrostatic interactions. The concept is based on the principle that like charges repel each other, while opposite charges attract. By imparting specific surface charges to textile materials, the adhesion of dust particles can be minimized.
The proposed idea is inspired by the laws of static electricity. For example, materials can acquire negative or positive charges through friction with suitable substances, such as ebonite or glass. Furthermore, the incorporation of nanoparticles onto fabric surfaces reduces dust adhesion, enhances self-cleaning properties, and improves resistance to contamination. The nanoscale structure of these materials provides a large surface area and small intermolecular spacing, contributing to improved fabric performance and longevity. Such self-cleaning fabrics may have significant applications in healthcare and laboratory environments, where cleanliness and contamination control are essential.