Scholarlink

This paper introduces a novel Multi-Input Multi-Output (MIMO) antenna tailored for high-data wearable applications, emphasizing circular polarization. The antenna design is meticulously crafted with two C-shaped patch components, both featuring a specialized ground structure aimed at enhancing circular polarization efficiency. Each component is equipped with 50Ω SMA connectors and integrates L-shaped stubs within the ground plane. One notable feature of the antenna is its remarkable bandwidth, reaching a maximum of 440 MHz (2.32 GHz–2.76 GHz), which effectively covers unlicensed frequencies from 2.4 GHz to 2.48 GHz. Additionally, the antenna showcases outstanding performance metrics: an envelope correlation coefficient below 0.169 signifies minimal correlation between antenna elements, while a diversity gain exceeding 9.46 dB indicates robust diversity performance. Furthermore, the antenna boasts a multiplexing efficiency surpassing −0.85 dB, suggesting efficient data transmission within the MIMO system. Additionally, the channel capacity loss remains below 0.32 bits/s/Hz, indicating minimal loss in communication capacity. With its elevated gain and robust MIMO characteristics, the proposed antenna emerges as a highly promising solution for high-data wearable biomedical devices, particularly in ISM band applications. Its performance metrics position it favourably for reliable and high-speed wireless communication in challenging wearable environments.

错误：搜索内容不能为空，请输入英文关键词
错误：关键词超出字数限制，请精简
高级检索

Wearable Circularly Polarized MIMO Antenna: Design and Simulation for High-Data Biomedical Sensing Devices

  • 会议论文

  • 发表日期：

    2025年

查看全文
  • Mallavarapu Sandhya,
  • Lokam Anjaneyulu

摘要

This paper introduces a novel Multi-Input Multi-Output (MIMO) antenna tailored for high-data wearable applications, emphasizing circular polarization. The antenna design is meticulously crafted with two C-shaped patch components, both featuring a specialized ground structure aimed at enhancing circular polarization efficiency. Each component is equipped with 50Ω SMA connectors and integrates L-shaped stubs within the ground plane. One notable feature of the antenna is its remarkable bandwidth, reaching a maximum of 440 MHz (2.32 GHz–2.76 GHz), which effectively covers unlicensed frequencies from 2.4 GHz to 2.48 GHz. Additionally, the antenna showcases outstanding performance metrics: an envelope correlation coefficient below 0.169 signifies minimal correlation between antenna elements, while a diversity gain exceeding 9.46 dB indicates robust diversity performance. Furthermore, the antenna boasts a multiplexing efficiency surpassing −0.85 dB, suggesting efficient data transmission within the MIMO system. Additionally, the channel capacity loss remains below 0.32 bits/s/Hz, indicating minimal loss in communication capacity. With its elevated gain and robust MIMO characteristics, the proposed antenna emerges as a highly promising solution for high-data wearable biomedical devices, particularly in ISM band applications. Its performance metrics position it favourably for reliable and high-speed wireless communication in challenging wearable environments.