Designing band notch features in ultra-wideband antenna

Mian Muhammad Kamal, Inam Ullah, A. Ashraf, N. Ullah
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引用次数: 5

Abstract

Due to need of high data rate and high speed in wireless communication Ultra-wideband technology comes out as one of the emerging technology that fulfill the requirement of the high speed in wireless communication because of its ultra-wide bandwidth. In order to implement Ultra-wideband technology many challenges comes into account. The first challenge which is most important one is to get an antenna that successfully operate in spectrum of ultra-wideband technology. Second challenge is the electromagnetic interference with the existing narrow band systems. Since UWB technology spectrum ranges from 3 GHz to 11 GHz, in this band also there exist a Wireless Local Area Network bands from 5.15 GHz to 5.35 GHz and 5.725 GHz to 5.825 GHz. So UWB System interfere with WLAN system which needs to eliminate this electromagnetic interference. The band rejection feature are obtained by etching a rectangular slot near the feed line of the antenna for good coupling. The center frequency of the notch frequency depends upon the length and width of the rectangular slot and by using a specific length and width of the rectangular slot a band notch center frequency is obtained at 9 GHz. The bandwidth of notch band depends upon the gap in the rectangular slot. By increasing the gap, bandwidth of the notch increases and vice versa. An optimal gap is used in the rectangular slot to obtain a bandwidth of notch band from 8.5–9.5 GHz.
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超宽带天线带陷波特性设计
由于无线通信对高数据速率和高速的要求,超宽带技术以其超宽带的带宽成为满足无线通信高速要求的新兴技术之一。为了实现超宽带技术,需要考虑许多挑战。第一个挑战也是最重要的一个挑战是获得一个在超宽带技术频谱上成功运行的天线。第二个挑战是现有窄带系统的电磁干扰。由于UWB技术频谱范围为3 GHz至11 GHz,因此在该频段中还存在5.15 GHz至5.35 GHz和5.725 GHz至5.825 GHz的无线局域网频段。因此UWB系统会对WLAN系统产生干扰,需要消除这种电磁干扰。通过在天线馈线附近刻蚀一个矩形槽来获得带抑制特性,从而获得良好的耦合。陷波频率的中心频率取决于矩形槽的长度和宽度,通过使用矩形槽的特定长度和宽度,可以获得9ghz的频带陷波中心频率。陷波带的带宽取决于矩形槽中的间隙。通过增加间隙,陷波的带宽增加,反之亦然。在矩形槽中采用最佳间隙,可获得8.5-9.5 GHz的陷波带带宽。
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