Nanoscale antenna systems: Transforming wireless communications and biomedical applications

IF 1 Q4 ENGINEERING, BIOMEDICAL
Segun Akinola, Leelakrishna Reddy
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引用次数: 0

Abstract

This article provides an overview of nanoscale antenna systems in wireless communications and emerging biomedical applications. The research examines the importance of nanoscale antennas and the significance of nanotechnology in antenna layout. It delves into numerous layout concerns along with challenges of miniaturization, frequency selection and trade-offs between size, bandwidth, performance and radiation properties. The paper also explores the role of nanomaterials in antenna packages, specializing in their properties and overall performance-improving properties. It explores synthetic methods and techniques for incorporating nanomaterials into antenna designs, opening the way for new designs and improved performance. In the field of wireless communication, the article includes miniaturized antennas for wearable devices, Internet of Things (IoT) applications, millimeter wave, terahertz communication systems and it also explores antenna designs for compact wireless devices with constrained form factors overcoming challenges due to size limitations. In the biomedical field, antennas integrated into implantable medical devices and biosensing platforms are explored. The article examines the use and fabrication of biocompatible materials for biomedical antennas by considering their applicability in biomedical environments. Performance analysis and characterization techniques for nanoscale antennas are presented, including calibration methods, radiation sample analysis, gain, efficiency, impedance matching and analysis of performance parameters in various typical application scenarios. It helps to optimize antenna configuration for various cases. The article concludes with a discussion of key findings and contributions to the study. It highlights future directions and potential developments in nanoscale antenna systems, including power efficiency and energy collection, reliability and robustness in active areas and integration with wireless communication systems and networking. Finally, this article presents treasured insights into the design, fabric packages and research of nanoscale antenna systems. It gives a roadmap for future studies and improvement, focusing on the transformative capability of nanoscale antennas in Wi-Fi communications and biomedical applications.

纳米天线系统:改变无线通信和生物医学应用
& lt; abstract>这篇文章概述了纳米天线系统在无线通信和新兴生物医学应用中的应用。研究探讨了纳米天线的重要性和纳米技术在天线布局中的意义。它深入研究了许多布局问题,以及小型化、频率选择和尺寸、带宽、性能和辐射特性之间的权衡的挑战。本文还探讨了纳米材料在天线封装中的作用,专门研究了它们的特性和整体性能改进特性。它探索了将纳米材料纳入天线设计的合成方法和技术,为新设计和提高性能开辟了道路。在无线通信领域,本文包括用于可穿戴设备、物联网(IoT)应用、毫米波、太赫兹通信系统的小型化天线,并探讨了具有受限形状因素的紧凑型无线设备的天线设计,克服了尺寸限制带来的挑战。在生物医学领域,探索将天线集成到植入式医疗设备和生物传感平台中。本文通过考虑生物医学天线在生物医学环境中的适用性,探讨了生物相容性材料在生物医学天线中的应用和制造。介绍了纳米天线的性能分析和表征技术,包括校准方法、辐射样品分析、增益、效率、阻抗匹配以及各种典型应用场景下的性能参数分析。它有助于优化各种情况下的天线配置。文章最后讨论了本研究的主要发现和贡献。它强调了纳米天线系统的未来方向和潜在发展,包括功率效率和能量收集,有源区域的可靠性和鲁棒性以及与无线通信系统和网络的集成。最后,本文对纳米天线系统的设计、结构封装和研究提出了宝贵的见解。它为未来的研究和改进提供了路线图,重点关注纳米级天线在Wi-Fi通信和生物医学应用中的变革能力。& lt; / abstract>
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
AIMS Bioengineering
AIMS Bioengineering ENGINEERING, BIOMEDICAL-
自引率
0.00%
发文量
17
审稿时长
4 weeks
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