Material Fix Radio Wires Involving Two Fold Layer Textures for Wrist Wearable Applications

Seiko Jose^*
*Correspondence: Seiko Jose, Department of Textile Technology, National University, Mohali, Punjab, India, Email:

Introduction

Textile patch antennas using double layer fabrics have emerged as a promising solution for wrist-wearable applications. These antennas combine the benefits of textile materials, such as flexibility, lightweight, and comfort, with the functionality of patch antenna technology, enabling wireless communication in a compact and unobtrusive form factor. By utilizing double layer fabrics, which consist of conductive layers sandwiched between textile substrates, these antennas can achieve improved performance and reliability. The conductive layers serve as the radiating element, while the textile substrates provide mechanical support and flexibility. This design allows the antennas to conform to the curvature of the wrist, ensuring a comfortable fit and unrestricted movement. The integration of textile patch antennas into wrist-wearable devices opens up possibilities for various applications, including fitness tracking, healthcare monitoring, and smart watches. These antennas enable wireless connectivity, allowing the devices to communicate with other devices or networks, such as smartphones or the Internet of Things. They provide the capability for data transmission, location tracking, and remote control functionalities, enhancing the overall user experience.

Description

Textile patch antennas offer advantages over conventional rigid antennas when it comes to wrist-wearable applications. Their flexibility and conformability ensure a better fit on the curved surface of the wrist, minimizing discomfort and maximizing user comfort. The lightweight nature of textile materials eliminates the burden of carrying bulky or heavy components, contributing to a more pleasant and seamless wearing experience. Additionally, textile patch antennas can be seamlessly integrated into the fabric of wristbands, bracelets, or other wearable accessories, maintaining a discreet and stylish appearance. The use of textile materials allows for customization in terms of colour, pattern, or design, enabling personalization and aesthetic appeal. This integration of functionality and fashion enhances user acceptance and adoption of wrist-wearable devices. The development of textile patch antennas for wrist-wearable applications also poses unique challenges. The design must consider factors such as antenna efficiency, bandwidth, and impedance matching while accommodating the limitations of textile materials, such as their inherently higher electrical losses. Researchers are exploring novel materials and fabrication techniques to optimize antenna performance and mitigate signal loss [1,2].

Textile patch antennas using double layer fabrics offer a compelling solution for wrist-wearable applications. Their integration combines the advantages of textile materials with the functionality of patch antenna technology, enabling wireless communication in a comfortable and inconspicuous manner. With ongoing advancements in design, materials, and fabrication techniques, these antennas have the potential to revolutionize the capabilities of wrist-wearable devices, enabling seamless connectivity and enhancing the user experience in various industries, from fitness and healthcare to smart watches and beyond. The use of double layer fabrics in textile patch antennas for wrist-wearable applications allows for additional functionality and versatility. The conductive layers within the fabric can be designed to accommodate multiple frequency bands, enabling compatibility with various wireless communication protocols such as Bluetooth, Wi-Fi, or cellular networks. This multi-band capability ensures seamless connectivity and broader device compatibility, enhancing the overall utility of wrist-wearable devices [3-5].

Conclusion

In summary, textile patch antennas using double layer fabrics offer a compelling solution for wrist-wearable applications, combining the advantages of textile materials with the functionality of patch antenna technology. These antennas provide wireless communication capabilities in a flexible, comfortable, and unobtrusive form factor. With additional functionalities such as multi-band compatibility, integration with other textile-based sensors, durability, and energy harvesting potential, they have the potential to revolutionize wrist-wearable devices across various industries. The ongoing advancements in textile engineering and antenna design will continue to drive innovation in this field, shaping the future of wearable technology.

References

1. Gon, Debiprasad, Kousik Das, Palash Paul and Subhankar Maity. "Jute composites as wood substitute." Int J Text Sci 1 (2012): 84-93.

Google Scholar, Crossref, Indexed at

2. Shahid, Md Abdus, A. K. M. Mahabubuzzaman and  Farid Ahmed, et al. "Investigation of the physical properties of jute blended yarn using a novel approach in spinning process." J text sci fash 2 (2016): 1-6.

Google Scholar, Crossref, Indexed at

3. Ashis Samanta, Ashis Kumar and Adwaita Konar. "Dyeing of textiles with natural dyes." Natural dyes (2011): 30-56.

Google Scholar, Crossref, Indexed at

4. Wei, Baochun, Fujun Xu, Sayed Waqar Azhar and Wei Li, et al. "Fabrication and property of discarded denim fabric/polypropylene composites." J Ind Text 44 (2015): 798-812.

Google Scholar, Crossref, Indexed at

5. Baccouch, Wafa, Adel Ghith, Ipek Yalcin-Enis and Hande Sezgin, et al. "Enhancement of fiber-matrix interface of recycled cotton fibers reinforced epoxy composite for improved mechanical properties." Mater Res Express 7 (2020): 015340.

Google Scholar, Crossref, Indexed at