Yussi Perdana Saputera, Moh Khusaini, D. Puspitawati, Arif Harnanto
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The study involved three types of antenna arrays, each consisting of eight antennas: Mode A, unidirectional with opposite poles; Mode A, not unidirectional with opposite poles; and Mode B, unidirectional with opposite poles. Early research made comparisons of polar differences with polar similarities. For the results of a single polar difference antenna Mode A and B, where Mode A produces S11-26.884 dB with Gains 3.825 dB, Mode B produces S11-20.408 dB with Gains 2.364 dB, for research on array antennas, it was carried out in stages, with as many as 8 array antennas, without reflectors and with reflectors. In the final configuration, an antenna with an array of 112 antennas using reflectors to produce S11 for a frequency of 1.03 GHz of-15.53061 dB with Gain 26.52 dB and an Azimuth beam width of 0.9ᵒ and for the frequency 1.09as big-20.73117 dB with Gain 25.6 dB and an Azimuth beam width of 0.8ᵒ. These results indicate the successful achievement of improved antenna performance, including a reduction in reflection coefficient and an increase in gain. These findings contribute to the advancement of antenna design for SSR applications, showcasing the potential for substantial gains in signal strength and directionality.","PeriodicalId":53518,"journal":{"name":"Journal of Communications","volume":"54 5","pages":""},"PeriodicalIF":0.0000,"publicationDate":"2024-04-01","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"0","resultStr":"{\"title\":\"Gain Increase Modification Collinear Dipole Antennas for Secondary Surveillance Radar\",\"authors\":\"Yussi Perdana Saputera, Moh Khusaini, D. Puspitawati, Arif Harnanto\",\"doi\":\"10.12720/jcm.19.4.211-221\",\"DOIUrl\":null,\"url\":null,\"abstract\":\"—In this research, an antenna design was developed using the wire-to-micros trip adaptation technique. 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For the results of a single polar difference antenna Mode A and B, where Mode A produces S11-26.884 dB with Gains 3.825 dB, Mode B produces S11-20.408 dB with Gains 2.364 dB, for research on array antennas, it was carried out in stages, with as many as 8 array antennas, without reflectors and with reflectors. In the final configuration, an antenna with an array of 112 antennas using reflectors to produce S11 for a frequency of 1.03 GHz of-15.53061 dB with Gain 26.52 dB and an Azimuth beam width of 0.9ᵒ and for the frequency 1.09as big-20.73117 dB with Gain 25.6 dB and an Azimuth beam width of 0.8ᵒ. These results indicate the successful achievement of improved antenna performance, including a reduction in reflection coefficient and an increase in gain. 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引用次数: 0
摘要
-在这项研究中,使用线对微米行程适应技术开发了一种天线设计。开发该天线的目的是通过改变天线的位置和形状来获得较大的增益,最小值为 25 dB。这一开发对于二次监视雷达(SSR)的使用至关重要。本研究中使用的天线设计旨在改进传统偶极子天线的性能,使其成为共线阵列。共线阵列天线包括修改偶极子臂以形成阵列,在正负极臂上加入耦合效应,并战略性地将垂直位置旋转 180 度,以最大限度地提高增益。研究涉及三种类型的天线阵列,每种阵列由八根天线组成:模式 A,单向,极点相反;模式 A,非单向,极点相反;模式 B,单向,极点相反。早期的研究对极性差异和极性相似进行了比较。对于单一极差天线模式 A 和 B 的研究结果,模式 A 产生 S11-26.884 dB,增益为 3.825 dB,模式 B 产生 S11-20.408 dB,增益为 2.364 dB。在最终配置中,一个由 112 根天线组成的阵列使用了反射器,在频率为 1.03 GHz 时的 S11 为 15.53061 dB,增益为 26.52 dB,方位波束宽度为 0.9ᵒ;在频率为 1.09 GHz 时的 S11 为 20.73117 dB,增益为 25.6 dB,方位波束宽度为 0.8ᵒ。这些结果表明,成功实现了天线性能的改进,包括降低反射系数和提高增益。这些发现有助于推进 SSR 应用的天线设计,展示了大幅提高信号强度和方向性的潜力。
Gain Increase Modification Collinear Dipole Antennas for Secondary Surveillance Radar
—In this research, an antenna design was developed using the wire-to-micros trip adaptation technique. The aim of developing the antenna is by modifying the change in position and shape of the antenna to get a large gain with a minimum value of 25 dB. This development is crucial for the use of Secondary Surveillance Radar (SSR). The design of the antenna used in this study is to improve the performance of modifying conventional dipole antennas to become collinear arrays. Collinear array antennas involve modifying dipole arms to form an array, incorporating a coupling effect on both the positive and negative arms, and strategically rotating the vertical placement by 180 degrees to maximize the resulting gain. The study involved three types of antenna arrays, each consisting of eight antennas: Mode A, unidirectional with opposite poles; Mode A, not unidirectional with opposite poles; and Mode B, unidirectional with opposite poles. Early research made comparisons of polar differences with polar similarities. For the results of a single polar difference antenna Mode A and B, where Mode A produces S11-26.884 dB with Gains 3.825 dB, Mode B produces S11-20.408 dB with Gains 2.364 dB, for research on array antennas, it was carried out in stages, with as many as 8 array antennas, without reflectors and with reflectors. In the final configuration, an antenna with an array of 112 antennas using reflectors to produce S11 for a frequency of 1.03 GHz of-15.53061 dB with Gain 26.52 dB and an Azimuth beam width of 0.9ᵒ and for the frequency 1.09as big-20.73117 dB with Gain 25.6 dB and an Azimuth beam width of 0.8ᵒ. These results indicate the successful achievement of improved antenna performance, including a reduction in reflection coefficient and an increase in gain. These findings contribute to the advancement of antenna design for SSR applications, showcasing the potential for substantial gains in signal strength and directionality.
期刊介绍:
JCM is a scholarly peer-reviewed international scientific journal published monthly, focusing on theories, systems, methods, algorithms and applications in communications. It provide a high profile, leading edge forum for academic researchers, industrial professionals, engineers, consultants, managers, educators and policy makers working in the field to contribute and disseminate innovative new work on communications. All papers will be blind reviewed and accepted papers will be published monthly which is available online (open access) and in printed version.