A Hybrid Integrated High-Gain Antenna With an On-Chip Radiator Backed by Off-Chip Ground for System-on-Chip Applications

Song, Yexi; Kang, Kai; Yin, Tian; Wu, Yunqiu; Li, Zhiqiang; Guo, Ying-Jiang; Ban, Yong‐Ling; Li, Jun; Tang, Xiaohu; Liu, Huihua; Yang, Jie

doi:10.1109/tcpmt.2016.2628388

Cited by 18 publications

(14 citation statements)

References 32 publications

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“…DRA is a suitable candidate for mm‐wave communication when it is compared with the conventional metallic patch antenna . Due to its extensive characteristics, that is, absence of metallic losses with the presence of DR, makes DRA, suitable candidate for mm‐wave applications.…”

Section: A Literature Survey On Millimeter‐wave Drasmentioning

confidence: 99%

“…Keeping it in context, a planar waveguide technology‐based DRA is introduced to achieved high radiation efficiency over the operating frequency. Other methods like corner chamfered patch with DR, square DRA with surrounded metal via to connect in between top and ground plane, hybrid integrated DRA, and DRA in Si‐based integrated passive device (IPD) are reported, to witness various methods for enhancement of gain and radiation efficiency of DRA. A detailed analogy is drawn by visualizing relevant outcomes of numerous gain enhancement techniques at mm‐wave applications in Table .…”

Section: A Literature Survey On Millimeter‐wave Drasmentioning

confidence: 99%

“…This is mainly attributed to the fact that DRAs do not suffer from conduction losses and characterize by high radiation efficiency, when the feed is excited properly. For bringing a new horizon, an overview of basic shapes DRAs and a complete state‐of‐the‐art for mm‐wave DRAs are presented, as a comparative focus. Then, a working methodology in the form of design, simulation, and analysis of basic shaped DRAs at 60 GHz mm‐wave frequency band are reported.…”

Section: Introductionmentioning

confidence: 99%

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Design and its state‐of‐the‐art of different shaped dielectric resonator antennas at millimeter‐wave frequency band

Meher

Behera

Mishra

2020

Int J RF Microw Comput Aided Eng

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This review article provides an extensive literature survey on the research progress of dielectric resonator antenna (DRA) at millimeter‐wave frequency band that includes concepts of DRAs, their empirical formulae and design methodologies for different shaped DRAs at 60 GHz frequency band. The different shaped DRAs such as cylindrical, rectangular, hexagonal, and octagonal at 60 GHz are designed, simulated and analyzed using CST microwave studio solver. The −10 dB impedance bandwidth of cylindrical, rectangular, hexagonal, and octagonal DRAs are 52.7 to 62.8 GHz, 57 to 62.2 GHz, 55.8 to 64.2 GHz, and 54.2 to 63.5 GHz, respectively. The idea behind getting broad impedance bandwidth is due to use of double‐layer substrate with different permittivity (εr1 = 4 and εr2 = 11.9). Empirical formulae are deduced for hexagonal and octagonal DRA, by studying the analogy of dielectric resonator geometry. Consequently, the mode of different shaped DRAs, that is, HEM111 and TE111 are investigated by the electric field and magnetic field distribution. With these analysis, a comprehensive research review over the period of the last two decades is carried for investigating various techniques, targeted to realized gain, circular polarization, and impedance bandwidth. Along with these analysis the state‐of‐the‐art at different shaped DRAs at mm‐wave frequency band are also reported.

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Section: A Literature Survey On Millimeter‐wave Drasmentioning

confidence: 99%

Section: A Literature Survey On Millimeter‐wave Drasmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%

See 1 more Smart Citation

Design and its state‐of‐the‐art of different shaped dielectric resonator antennas at millimeter‐wave frequency band

Meher

Behera

Mishra

2020

Int J RF Microw Comput Aided Eng

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“…By equaling the modulus of (11) and (12), a quadratic equation appears with Y 1 as unknown variable. Its resolution leads to two solutions for the value of Z 1 (13). The one with the minus sign corresponds to an over-coupled filter response ( Fig.…”

Section: ) Passband Matching Controlmentioning

confidence: 99%

Ring filter synthesis and its BiCMOS 60 GHz implementation

Rynkiewicz

Franc

Coccetti³

et al. 2018

Int. J. Microw. Wireless Technol.

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The detailed synthesis of a direct access ring filter topology fully controlled with the following targeted specification (center frequency, low transmission zero frequency, and matching level in the passband) is hereby presented. For this topology, the lowest achievable bandwidth is limited by technological constraints. Thereby a solution consisting in adding capacitive loads is proposed. The associated synthesis is also given and discussed. Both syntheses are illustrated with 60 GHz integrated planar filters implemented in the IHP 130 nm BiCMOS technology. Various 3 dB fractional bandwidths from 18 to 8% are targeted, some of them require the implementation of the capacitive loaded solution. The latter allows us to lower the bandwidth limit of the nominal topology as well as to get a high miniaturization, up to 3.4, depending on the capacitance value. Thanks to good measurement results, this implementation highlights the high efficiency, reliability, and versatility of the synthesis without the need of tuning simulations or post-simulations.

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“…It is seen that the AIAiP has a −10-dB bandwidth of 3.8 GHz, from 33.4 to 37.2 GHz. The antenna radiation patterns are measured based on the setup reported in our previous work [11], as Fig. 6(c) depicted.…”

Section: B Antenna Designmentioning

confidence: 99%

A Compact Ka-Band Active Integrated Antenna With a GaAs Amplifier in a Ceramic Package

Song

Yang

et al. 2017

Antennas Wirel. Propag. Lett.

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This letter presents the design of a Ka-band active integrated antenna in package (AIAiP). A monolithic microwave integrated circuit amplifier based on the GaAs process and a compact patch antenna based on the printed circuit board process are implemented, respectively. Then, the amplifier and antenna are assembled together in a specified package using the wire-bond process. Thus, compared to the traditional solutions, the transmission loss and the size of the proposed AIAiP are significantly reduced. Furthermore, the influence of the bonding wire and the package is taken into account in the design of the amplifier and the antenna, respectively. A good agreement between the simulation and measurement results can be observed. The proposed AIAiP occupies a compact size of 7 × 7 mm 2. Meanwhile, it achieves −10-dB impedance bandwidth from 33.4 to 37.2 GHz and a peak gain of 18.9 dBi at 35 GHz. Additionally, the impact of the package size on the antenna performance has been demonstrated for future AIA designers. Index Terms-Active integrated antenna (AIA), antenna in package, GaAs amplifier. I. INTRODUCTION A CTIVE integrated antenna (AIA) refers to the antenna integrated with one or more active solid-state devices. The AIA has received considerable interest due to its advantages in low loss and compact size, and is much more suitable for the phased-array antenna systems [1], [2]. Several kinds of AIAs

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A Hybrid Integrated High-Gain Antenna With an On-Chip Radiator Backed by Off-Chip Ground for System-on-Chip Applications

Cited by 18 publications

References 32 publications

Design and its state‐of‐the‐art of different shaped dielectric resonator antennas at millimeter‐wave frequency band

Design and its state‐of‐the‐art of different shaped dielectric resonator antennas at millimeter‐wave frequency band

Ring filter synthesis and its BiCMOS 60 GHz implementation

A Compact Ka-Band Active Integrated Antenna With a GaAs Amplifier in a Ceramic Package

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