Effect of Photonic Band Gap structure on Planar Antenna configuration

Singh, Navdeep; Singh, Sarabjeet; Sarin, R. K.

doi:10.1109/mmw.2010.5605140

Cited by 11 publications

(4 citation statements)

References 9 publications

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“…en, according to Snell's law, all outgoing radiations from the substrate will be perpendicular to the plane, and all refracted radiations will be directed in the same direction, providing a high gain and directivity. e high gain can be found by using metamaterial as unit cells of PBG [53,76] around the radiating patch. Metamaterial substrates [51,67] embedded in the conventional patch antenna help in getting better gain of antenna.…”

Section: Discussionmentioning

confidence: 99%

“…Multiple notches have been achieved by embedding split-ring slots on radiator and SRR structure near feed line. Singh et al [53] (2010) premeditated the coplanar waveguide (CPW) fed antenna loaded with uniplanar compact PBG structure. e bandwidth is enhanced in addition to a gain of 6.45 dBi which is attained by using the designed structure in MPA.…”

Section: Literature Surveymentioning

confidence: 99%

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Performance Analysis of Metamaterial-Inspired Structure Loaded Antennas for Narrow Range Wireless Communication

Jairath

Singh

Shabaz

et al. 2022

Scientific Programming

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Nowadays, the demand for low-cost, compact, and interference rejected antennas with ultrawideband capability has been increased. Metamaterial-inspired loaded structures have capability of providing exceptional solutions for narrow range wireless communication and low consuming power while transmitting and receiving the signal. It is a difficult task to construct ideal metamaterial-inspired antennas with a variety of features such as extremely large bandwidth, notching out undesirable bands, and frequency. Metamaterial-inspired structures such as SRR and CSRR, and triangle-shaped TCSRR are most commonly used structures to achieve optimized characteristics in ultrawideband antennas. In this paper, an extensive literature survey is accomplished to get conception about metamaterial-inspired patch antennas. This review paper elucidates variants of metamaterial-inspired structures/resonators utilized in order to acquire sundry applications such as WiMAX, WLAN, satellite communication, and radar. Various researchers have used different methodology to design, stimulate, and analyze the metamaterial-inspired structure loaded antennas. Also, the results of different metamaterial-inspired antennas such as bandwidth, gain, return loss, and resonant frequency have been also represented in this paper. This manuscript also gives brief introduction about the metamaterial, its types, and then its application in microstrip patch antenna over the last decade. This manuscript throws light over the various studies conducted in the field of metamaterial-inspired antenna in the past. It has been seen that with the inclusion of metamaterial in conventional antenna, various characteristics such as impedance bandwidth, reflection coefficient, gain, and directivity have been improved. Also, frequency rejection of narrow bands which exits in ultrawideband frequency range can be done by embedding metamaterial-inspired structures such as SRR and CSRR.

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Section: Discussionmentioning

confidence: 99%

Section: Literature Surveymentioning

confidence: 99%

Performance Analysis of Metamaterial-Inspired Structure Loaded Antennas for Narrow Range Wireless Communication

Jairath

Singh

Shabaz

et al. 2022

Scientific Programming

Self Cite

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“…Surface wave are TM and TE modes of the substrate. These two modes are characterized by waves attenuating in the transverse direction and having a real propagation constant above the cut-off frequency [12]. The phase velocity of the surface waves is strongly dependent on the substrate parameters h and єr.…”

Section: Introductionmentioning

confidence: 99%

Novel design of triple-bands EBG

et al. 2019

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This paper presents a novel design for a triple band electromagnetic band gap (EBG) structures that provides three band gaps, with operating frequency of below 10 GHz, while the ordinary mushroom like EBG structure gives only one band gap. Complexity reduction (reduce the number of unit cells and Vias) was achieved by replacing each four cells of the Mushroom like EBG by the one of double slotted type EBG (DSTEBG) or triple side slotted EBG (TSSEBG). The Mushroom like EBG was further modified by increasing its size and inserting the slots to gain more capacitance and inductance which resulted into triple band stop.The new designs wer compared with bandwidths expressed by other EBGs and -20 dB cut-off frequencies. The size of EBG element and the gap between EBG elements, and slot width were investigated to analyse their effect on the transmission response. The structures were designed from 2.54 mm Rogers RT/Duroid 6010 substrate with relative permittivity of 10.2 and loss tangent of 0.0023. Among the investigated EBGs, the single band mushroom like EBG and the triple band of the TSSEBG demonstrated better bandwidth and lower resonance frequency performance, whereas the DSTEBG showed larger bandwidth for the first and third band. The proposed EBGs could be useful in the antenna design and other microwave circuits.

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“…This manufacturing method allows the full development of metamaterials left hand which several researchers have proposed many interesting structures. Most popular structures are the band interdict electromagnetic (BIE) , the band interdict photonic (BIP) and the split ring resonators where artificial magnetic conductors . These prototypes sometimes referred to by the structures at double negative which is manifested by the production of one hand a negative effective permittivity and secondly by generating a negative effective permeability.…”

Section: Introductionmentioning

confidence: 99%

Metamaterials microstrip patch antenna for wireless communication RFID technology

Naoui¹,

Latrach²,

Gharsallah³

2015

Micro & Optical Tech Letters

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This article is specialized to highlight the method of miniaturization and improvement the patch antenna using the complementary metamaterial. This method is presented by two different techniques. The first technique is composed a structure of patch antenna integrated in its surface a cell of complementary split ring resonator. This resonator is placed at the middle of the radiating patch in parallel with the transmission line and with a variable angle of orientation. The objective is to find the ultimate angle where the best results are obtained on improving the characteristics of the considered antenna. This motif widespread at the traceability applications by wireless communication for RFID technology at the operation frequency 2.45 GHz. In the second technique, were integrated at the surface of antenna a homogeneous and periodic array of complementary split ring resonators using the same position and the supreme orientation found in early studies. The advantage of the latter technique is to indicate the effect of increasing the number of resonators on the performance patch antenna and show the specifications and characterization of each technique proportionally at the two interesting factors miniaturization and improvement. Our contribution is based on studies and empirical and theoretical tests often presented in this article. All simulation results were made by the CST Microwave Studio. © 2015 Wiley Periodicals, Inc. Microwave Opt Technol Lett 57:1060–1066, 2015

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Effect of Photonic Band Gap structure on Planar Antenna configuration

Cited by 11 publications

References 9 publications

Performance Analysis of Metamaterial-Inspired Structure Loaded Antennas for Narrow Range Wireless Communication

Performance Analysis of Metamaterial-Inspired Structure Loaded Antennas for Narrow Range Wireless Communication

Novel design of triple-bands EBG

Metamaterials microstrip patch antenna for wireless communication RFID technology

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