Electro kinetic Properties of Textile Fabrics

Alka Singh^*
*Correspondence: Alka Singh, Department of Clothing & Textiles, University of Agriculture & Technology, Pant Nagar, Uttarakhand, India, Email:

Introduction

The electro kinetic properties of textile fabrics refer to their ability to generate and respond to electrical charges and electric fields. These properties play a crucial role in various applications, ranging from wearable technology to filtration and energy harvesting. Textile fabrics possess inherent electro kinetic properties due to the presence of charged groups on their surface. These charged groups can include functional groups from dyeing or finishing processes, residual chemicals, or naturally occurring charges. The surface charge of a textile fabric influences its behaviour in the presence of an electric field. One important electro kinetic property of textile fabrics is their zeta potential, which is a measure of the surface charge. The zeta potential determines the electrostatic interactions between the fabric and surrounding media, such as liquids or particles. Fabrics with a high zeta potential exhibit strong repulsion or attraction towards charged particles, influencing their transport and deposition on the fabric surface. Another electro kinetic property is the fabric's electrical conductivity. Conductive textile fabrics are capable of carrying electrical currents, making them suitable for applications such as wearable sensors, smart textiles, and electronic textiles. The electrical conductivity of a fabric depends on factors such as the fiber type, fabric structure, and any conductive coatings or additives applied to the fabric.

Description

Electro kinetic properties also affect the wettability and moisture management capabilities of textile fabrics. Fabrics with hydrophilic properties, characterized by a low contact angle, have a higher affinity for water and can transport moisture more efficiently. The surface charge of the fabric can influence its wettability, as charged groups can attract or repel water molecules. Understanding and controlling the electro kinetic properties of textile fabrics is essential for optimizing their performance in various applications. For instance, in filtration, the electro kinetic properties of fabrics can affect their ability to capture and remove particles or contaminants from a fluid stream. By modifying the surface charge or introducing specific coatings, the filtration efficiency and selectivity of textile fabrics can be enhanced. In the field of energy harvesting, electro kinetic properties can be harnessed to generate electricity from the movement of fluids or the contact between different materials. By utilizing the electro kinetic properties of textile fabrics, it is possible to develop energy-harvesting devices integrated into wearable textiles or structures [1,2].

Electro kinetic properties also affect the wettability and moisture management capabilities of textile fabrics. Fabrics with hydrophilic properties, characterized by a low contact angle, have a higher affinity for water and can transport moisture more efficiently. The surface charge of the fabric can influence its wettability, as charged groups can attract or repel water molecules. Understanding and controlling the electro kinetic properties of textile fabrics is essential for optimizing their performance in various applications. For instance, in filtration, the electro kinetic properties of fabrics can affect their ability to capture and remove particles or contaminants from a fluid stream. By modifying the surface charge or introducing specific coatings, the filtration efficiency and selectivity of textile fabrics can be enhanced. In the field of energy harvesting, electro kinetic properties can be harnessed to generate electricity from the movement of fluids or the contact between different materials. By utilizing the electro kinetic properties of textile fabrics, it is possible to develop energy-harvesting devices integrated into wearable textiles or structures [3-5].

Conclusion

The study and understanding of the electro kinetic properties of textile fabrics continue to evolve as researchers explore novel materials, fabrication techniques, and applications. Advances in nanotechnology and functional textiles open up new possibilities for tailoring and manipulating these properties. This research can lead to the development of advanced textile fabrics with enhanced functionality, improved performance, and broader application potential. In conclusion, the electro kinetic properties of textile fabrics encompass their ability to generate and respond to electrical charges and electric fields. These properties have significant implications for filtration, energy harvesting, moisture management, wearable technology, and other applications. Through surface modifications, inclusion of conductive materials and advancements in textile engineering, researchers and engineers can optimize these properties to develop functional textiles with enhanced performance and versatility. The ongoing exploration of electro kinetic properties in textile fabrics contributes to the advancement of various industries and the realization of innovative textile-based solutions.

Acknowledgement

None.

Conflict of Interest

None.

References

1. J. Ghosh, Anindya and Prithwiraj Mal. "Testing of fibres, yarns and fabrics and their recent developments." In Fibres to Smart Textiles (2019): 221-256.

Google Scholar, Crossref, Indexed at

2. Chellamani, K. P., D. Chattopadhyay and V. Thanabal. "Influence of wire point density in cards and combers on neps in sliver and yarn quality." (2003).

Google Scholar, Indexed at

3. Gordon, Ian L., Seth Casden, Mark Vangel and Michael R. Hamblin. "Effect of shirts with 42% Celliant™ fiber on TCPO2 levels and grip strength in healthy subjects: A placebo-controlled clinical trial." J Text Eng 9 (2019).

Google Scholar, Crossref, Indexed at

4. McCall, William Vaughn, Alan Letton, Jordan Lundeen and Doug Case, et al. "The effect of far-infrared emitting sheets on sleep." Res J Text Appar (2018). (2018).

Google Scholar, Crossref, Indexed at

5. Altman, Gregory H., Frank Diaz, Caroline Jakuba and Tara Calabro, et al. "Silk-based biomaterials." Biomaterials 24 (2003): 401-416.

Google Scholar, Crossref, Indexed at