Commercial-printed-circuitry-compatible Self-superhydrophobic Antennas Based on Laser Direct Writing

Xiao-Liang Ge, J. Yang, Hang Ren, Zhi-Jun Qin, Qidai Chen, Dongdong Han, Yong‐Lai Zhang, Su Xu, Hongbo Sun
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引用次数: 7

Abstract

|Antennas are essential devices to build everything connected in the era of information. However, the quality of communications would be degraded with the presence of raindrops on the antenna surface. Additional antiwater radomes may generate radiation loss and dispersive impedance mismatch over a broad frequency range, which is not acceptable for next-generation communication systems integrating multiple bands. Here, we report the (cid:12)rst experimental demonstration of self-hydrophobic antennas that cover the bands of 1.7 GHz, 3.5 GHz, and 8.5 GHz through a laser-direct-writing treatment. Experimental results show that the return loss, radiation pattern, and efficiency of self-superhydrophobic antennas can be maintained in the mimicked rainy weather. Furthermore, writing hydrophobic nanostructures on both dielectrics and metals is compatible with commercial printed circuitry techniques widely used in industries. Our technique will augment the laser fabrication technology for specialized electromagnetic devices and serve as a powerful and generalized solution for all-weather wireless communication systems.
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基于激光直写的商业印刷电路兼容自超疏水天线
在信息时代,天线是构建万物互联的必要设备。但是,由于天线表面有雨点,通信质量会下降。额外的防水天线罩可能会在较宽的频率范围内产生辐射损失和色散阻抗失配,这对于集成多频段的下一代通信系统来说是不可接受的。在这里,我们报告了(cid:12)第一个实验演示,通过激光直接写入处理覆盖1.7 GHz, 3.5 GHz和8.5 GHz频段的自疏水天线。实验结果表明,在模拟阴雨天气条件下,自超疏水天线的回波损耗、辐射方向图和效率可以保持不变。此外,在电介质和金属上编写疏水纳米结构与工业中广泛使用的商业印刷电路技术兼容。我们的技术将增强专用电磁器件的激光制造技术,并为全天候无线通信系统提供强大的通用解决方案。
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