面向物联网海量连接的多模激励多波段偶极子天线

Bing Xiao, H. Wong
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摘要

物联网(IoT)在当前和可预见的未来发展迅速。无线连接的设备数量正在迅速增加。这种连接是由在不同频率下工作的不同无线技术提供的。因此,未来的无线智能设备应该具有大规模物联网连接的能力,其天线需要覆盖多个频段。本文介绍了两种用于小型无线智能设备(如条形或条形AR/VR智能眼镜、智能手环、智能手表、智能铅笔)的线性多波段偶极子天线的新方法。该分析基于特征模态理论。首先,我们知道一个经典的偶极天线只在奇数模式下谐振,限制了多频段的设计。因此,引入了一种新的馈电结构来同时激发偶极子天线的奇偶模。还介绍了一种灵活的方法来挑选和调整其中的特定模式。其次,我们介绍了一种算法来计算多臂线性偶极子天线所需的最小臂。通过这两种新技术,天线设计者可以更容易地在狭窄的表面上实现多波段天线。
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Multi-band Dipole Antenna by Multi-mode Excitation for Massive Connections of IoT
The Internet of Things (IoT) develops rapidly at present and in the foreseeable future. A fast-increasing number of devices are being connected wirelessly. This connectivity is provided by different wireless technologies operating at different frequencies. Thus, future wireless smart devices should have the ability of massive IoT connections, and their antennas need to cover multiple frequency bands. This paper introduces two novel methods for linear-shaped multi-band dipole antennas for small wireless smart devices, such as strip- or bar-shaped AR/VR smart glasses, smart wristbands, smartwatches, smart pencils. The analysis is based on the theory of characteristic modes. First, we know a classic dipole antenna resonates only at odd modes, limiting the design of multiple frequency bands. Thus, a novel feeding structure is introduced to excite both odd and even modes of a dipole antenna simultaneously. A flexible method is also introduced to pick out and tune specific mode(s) among them. Second, we introduce an algorithm to calculate the fewest arms required by a multi-arm linear dipole antenna. By these two novel techniques, antenna designers could realize multi-band antenna more easily on narrow surfaces.
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