基于侵入式杂草优化的紧凑型杂化分形天线设计,用于射频能量采集和多功能无线应用

IF 3 3区 计算机科学 Q2 ENGINEERING, ELECTRICAL & ELECTRONIC Aeu-International Journal of Electronics and Communications Pub Date : 2024-07-06 DOI:10.1016/j.aeue.2024.155428
Manpreet Kaur , Ram Krishan , Navneet Kaur , Jagtar Singh Sivia
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引用次数: 0

摘要

本文介绍了利用入侵杂草优化(HFAIWO)对紧凑型多频带混合分形天线进行优化设计和分析。所配置的结构包括闵科夫斯基(Minkowski)、西尔平斯基地毯(Sierpinski carpet)和朱塞佩-皮亚诺(Giuseppe Peano)的连贯融合。通过考虑 FR4 环氧树脂材料(介电常数 εr = 4.4,质量密度 = 1,900 kg/m3),物理实现了双迭代聚合分形天线。制造原型的体积尺寸为 36 x 36 x 1.6 mm3。在设计过程中,馈线宽度 "WF "和地平面尺寸 "LG "这两个几何描述符采用入侵杂草优化(IWO)和和谐搜索算法(HSA)策略进行了专门优化。在一组实际约束条件下,通过改变描述符值来寻找最佳解决方案。使用 IWO 和 HSA 算法得出的 "WF "和 "LG "值分别为 3 毫米和 31 毫米,以及 2.6 毫米和 28.7 毫米。比较结果表明,IWO 的求解质量和收敛性均优于 HSA。随后,对投影 HFAIWO 进行了实验,以证明所推荐的分形混合方法的正确性。测量结果表明,在驻波比≤ 2 的情况下,制造的结构会产生九个谐振点(1.84、3.99、5.15、5.55、6.30、6.58、8.00、9.29 和 12.01 GHz),并具有可观的增益值。在各谐振点,-10 dB 阻抗带宽分别为 3.9 %、3.1 %、2.1 %、2.2 %、1.4 %、1.2 %、6.9 %、1.2 % 和 12.23 %。所提供的辐射模式是任意双向/非单向的。采用上述方法后,辐射器尺寸缩小了 54%。重要的是,所构建的结构覆盖了与能量采集应用相关的两个重要频段,即 1.84 GHz(GSM 1800 频段,下行链路)和 5.55 GHz(WLAN(下行)5.150-5.725 GHz)。实际结果表明,所推出的原型是能量采集系统、下行链路卫星通信、远距离跟踪、战场监视、数字广播卫星服务、气象雷达和海上导航雷达的理想候选产品。
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Invasive weed optimization based compact hybridized fractal antenna design for RF energy harvesting and multifunctional wireless applications

This paper describes the optimal design and analysis of compact multiband Hybrid Fractal Antenna using Invasive Weed Optimization (HFAIWO). The configured structure involves the fusion of Minkowski, Sierpinski carpet and Giuseppe Peano in a coherent manner. The two-iterative conglomerated fractal antenna is realized physically by considering FR4 epoxy material (dielectric constant, εr = 4.4 and mass density = 1,900 kg/m3). The volumetric dimensions of the fabricated prototype are 36 x 36 x 1.6 mm3. In the designing process, the geometrical descriptors, namely, feedline width ‘WF’ and ground plane dimension ‘LG’ are optimized specifically using Invasive Weed Optimization (IWO) and Harmony Search Algorithm (HSA) strategies. The optimal solution is searched by changing the descriptor values under a set of practical constraints. The examined values of ‘WF’ and ‘LG’ using IWO and HSA are 3 and 31 mm, and 2.6 and 28.7 mm, respectively. Comparative results reveal that IWO offers superior solution quality and convergence than HSA. Afterwards, experimentation of the Projected HFAIWO is done to justify the recommended fractal hybridization approach. Measurements reveal that for VSWR ≤ 2, the fabricated structure produces nine resonance points (1.84, 3.99, 5.15, 5.55, 6.30, 6.58, 8.00, 9.29, and 12.01 GHz) with appreciable gain values. At the respective resonance points, the −10 dB impedance bandwidth is 3.9 %, 3.1 %, 2.1 %, 2.2 %, 1.4 %, 1.2 %, 6.9 %, 1.2 %, and 12.23 %. The provided radiation patterns are arbitrary bidirectional/omnidirectional. By applying the above-said approaches, the radiator size is reduced by 54 %. Importantly, the constructed structure covers two important bands i.e. 1.84 GHz (GSM 1800 band, downlink) and 5.55 GHz (WLAN (Lower) 5.150–5.725 GHz) associated with energy harvesting applications. The practical outcomes suggest that the introduced prototype is a proficient candidate for energy harvesting systems, Satellite communication for downlink, Long range tracking, Battlefield surveillance, Digital broadcast satellite service, Weather Radar, and Maritime navigation radar.

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期刊介绍: AEÜ is an international scientific journal which publishes both original works and invited tutorials. The journal''s scope covers all aspects of theory and design of circuits, systems and devices for electronics, signal processing, and communication, including: signal and system theory, digital signal processing network theory and circuit design information theory, communication theory and techniques, modulation, source and channel coding switching theory and techniques, communication protocols optical communications microwave theory and techniques, radar, sonar antennas, wave propagation AEÜ publishes full papers and letters with very short turn around time but a high standard review process. Review cycles are typically finished within twelve weeks by application of modern electronic communication facilities.
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