A 60-GHz Millimeter-Wave CMOS Integrated On-Chip Antenna and Bandpass Filter

Chuang, Huey-Ru; Yeh, Lung-Kai; Kuo, Pei-Chun; Tsai, Ko Fan; Yue, Han-Lin

doi:10.1109/ted.2011.2138141

Cited by 54 publications

(23 citation statements)

References 15 publications

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“…Studies on SIW (Substrate Integrated Waveguide) continue to be used in this type IC designs. Antenna elements above 50 GHz are small enough to fit into integrated circuit [44].…”

Section: Rf Design For 5gmentioning

confidence: 99%

Design for Smaller, Lighter and Faster ICT Products: Technical Expertise, Infrastructures and Processes

Aydın¹,

Uçar²

2017

Adv. sci. technol. eng. syst. j.

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“…Studies on SIW (Substrate Integrated Waveguide) continue to be used in this type IC designs. Antenna elements above 50 GHz are small enough to fit into integrated circuit [44].…”

Section: Rf Design For 5gmentioning

confidence: 99%

Design for Smaller, Lighter and Faster ICT Products: Technical Expertise, Infrastructures and Processes

Aydın¹,

Uçar²

2017

Adv. sci. technol. eng. syst. j.

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“…Usually formation procedure utilizes photolithography processes to define pattern of an antenna over a metal layer sputtered above a dielectric layer [1][2][3]. Formation of MEMS structure for vibration energy harvesters is of the same technique [6,7].…”

Section: Formation Technologymentioning

confidence: 99%

“…Moreover, multiple antenna structures with different dimensions may utilize multiple frequencies in a single chip. Common on-chip antennas are of planar design [1][2][3], which suffers from the substrate coupling due to high relative permittivity of silicon (ε r = 12). Substrates effects can be reduced by placing the antenna on a substrate with thickness in the range 0.01λ 0 -0.04λ 0 (where λ 0 is freespace wavelength) or placing onto semi-infinite dielectric substrate.…”

Section: Introductionmentioning

confidence: 99%

3D Antenna for GHz application and vibration energy harvesting

Kholostov

Nenzi

Palma

et al. 2013

2013 IEEE 63rd Electronic Components and Technology Conference

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In this work we present a new design for a three-dimensional vibration energy harvester, which is made by Micro-Electro-Mechanical Systems (MEMS) technology, and which can convert electric energy through transverse mode piezoelectric effect. The presented power generator is based on a long, thick-film, piezoelectric beam configured as a conical helix structure and located between two metal electrodes. The design of the combined antenna/energy harvester (comvester, from communication and energy harvester) device addresses both electromagnetic and mechanical issues as it radiates electromagnetic energy and converts mechanical energy into electric energy. Both functions are translated directly into dimensional constraints of the structure. In this work, we concentrate on millimeter waves communications in the 60 GHz frequency band because of their availability for low-power CMOS radio circuits. In order to realize comvester on a silicon wafer we used Controlled Release Metal Layer (CRML) technology, which is a transfer layer technology that uses porous silicon as sacrificial material. The advantage of CRML technology is high repeatability and resolution and its compatibility with back-end of line processes of the integrated circuit industry. New type of piezoelectric material consisted of the array of separated vertical polyvinylidene fluoride (PVDF) microrods is suggested. Such periodic microrods structure became possible to realize using the template of the structured macroporous silicon. © 2013 IEEE

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“…Recently, the integration of antenna and bandpass filter has drawn increasing attentions. Many efforts have been devoted to the co-design scheme [3] [6], in which the antenna and filter are regarded and co-designed as a subsystem. Since only a single input port of the subsystem needs to be matched to standard 50 Ω, the match circuit is greatly simplified compared to the traditional cascaded design in which both the antenna and filter need to be individually matched.…”

Section: Introductionmentioning

confidence: 99%

A Compact Filtering Dielectric Resonator Antenna With Wide Bandwidth and High Gain

Pan

Zhang

et al. 2016

IEEE Trans. Antennas Propagat.

135

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A rectangular filtering dielectric resonator antenna (FDRA) with low profile, wide bandwidth and high gain is first investigated in this paper. It is fed by a microstrip-coupled slot from bottom, with open stub of the microstrip feed-line elaborately designed to provide two radiation nulls at band-edges for filtering function. A separation is introduced in the slot to provide good suppression level in lower stopband, while two parasitic strips are parallelly added to the microstrip feed-line to offer good suppression in upper stopband, and consequently, a compact FDRA with quasi-elliptic bandpass response is obtained without involving specific filtering circuits. Based on the design, a modified DRA fed by a pair of separated slots is proposed to further enhance the gain by 4 dB. A prototype operating at 5 GHz has been fabricated and measured for demonstration. The reflection coefficient, radiation pattern and antenna gain are studied, and reasonable agreement between measured and simulated results is observed. The prototype has a 10-dB impedance bandwidth of 20.3%, an average gain of 9.05 dBi within passband, and an out-of-band suppression level of more than 25 dB within wide stopband.Index Terms-Filtering antenna, dielectric resonator antenna (DRA), wideband antenna.

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A 60-GHz Millimeter-Wave CMOS Integrated On-Chip Antenna and Bandpass Filter

Cited by 54 publications

References 15 publications

Design for Smaller, Lighter and Faster ICT Products: Technical Expertise, Infrastructures and Processes

Design for Smaller, Lighter and Faster ICT Products: Technical Expertise, Infrastructures and Processes

3D Antenna for GHz application and vibration energy harvesting

A Compact Filtering Dielectric Resonator Antenna With Wide Bandwidth and High Gain

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