Antenna solution for future communication devices in mm-wave range

Nešić, A.; Nešić, Dušan; Brankovic, V.; Sasaki, Kensuke; Kawasaki, Kohei

doi:10.1109/telsks.2001.954873

Cited by 15 publications

(10 citation statements)

References 6 publications

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“…18 shows the measured and simulated S11, and measured gain with simulated directivity. It is found that the maximum gain measured is 19.7 dBi with an efficiency of 51% (simulated directivity = 22.6 dBi) which is far better than a classical 6 x 6 array antenna of gain 17.5 dBi with an efficiency of 40% at 59 GHz (Lafond et al 2001), and an 8 x 8 array antenna (size = 6.5 0 x 6.5 0 ) of gain 19.7 dBi with an efficiency of ~ 40% as explained in (Nesic et al, 2001). The S11 bandwidth measured for the 4 x 4 superstrate antenna array is 57.9 GHz to 61.3 GHz (5.7%).…”

Section: Wwwintechopencommentioning

confidence: 74%

Superstrate Antennas for Wide Bandwidth and High Efficiency for 60 GHz Indoor Communications

Vettikalladi¹,

Lafond²,

Himdi³

2012

Wireless Communications and Networks - Recent Advances

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Section: Wwwintechopencommentioning

confidence: 74%

Superstrate Antennas for Wide Bandwidth and High Efficiency for 60 GHz Indoor Communications

Vettikalladi¹,

Lafond²,

Himdi³

2012

Wireless Communications and Networks - Recent Advances

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“…A new era, of future commercial communication devices in mm-wave range based on the 60 GHz unlicensed frequency band offers worldwide wideband operation (Nesic et al, 2001). …”

Section: Communications Antennas For Mm-wavesmentioning

confidence: 99%

Integrated Silicon Microwave and Millimeterwave Passive Components and Functions

Benech¹,

Duchamp²,

Ferrari³

et al. 2010

Microwave and Millimeter Wave Technologies From Photonic Bandgap Devices to Antenna and Applications

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“…To calculate the proper interdevice isolation levels of the lineof-sight (LOS) cases in residential (CM1), office (CM3), and library (CM5) scenarios, there have assumed that the maximum communication range is 5 m, the center frequency is 60.5 GHz, and the Tx and Rx antenna gain are 19 dBi [10]. In the case of OFDM systems, the calculated X interdevice s and Rx sensitivities with various LOS scenarios, required SNRs, and Tx powers at BER ϭ 10 Ϫ4 are shown in Table 1.…”

Section: Analysis Of Near-field Emimentioning

confidence: 99%

Interdevice isolation characteristics for design and fabrication of 60‐GHz WPAN SoCs

Kim

Lee

Yun

et al. 2008

Micro & Optical Tech Letters

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them can still be observed, which can be attributed to the unexpected tolerance of fabrication. CONCLUSIONA novel dual-frequency unequal Wilkinson power divider is presented in this article, which fulfills an arbitrary unequal power split and all the other features of a conventional Wilkinson unequal power divider simultaneously at two arbitrary frequencies. The structure of this power divider and the formulas to determine its parameters have been given and a good agreement between the simulation and measurement has been achieved. This simple topology and design procedure make the proposed circuit suitable for dual-frequency applications, which are more demanding at near future. REFERENCES 1. ABSTRACT: The high interdevice isolation levels is one of the key technologies in the design and fabrication of 60-GHz WPAN SoC. To obtain proper interdevice isolation levels, we have analyzed and measured substrate coupling effects with various isolation techniques like a trench and implant structure.From the analyzed and measured results, the feasibility of the implant has confirmed to be applicable to the mm-wave SoC, and also derived an equivalent circuit form these results, which can be helpful to the design and fabrication of the 60-GHz WPAN SoC. ABSTRACT:We propose a simple configuration of a traveling wave tunable semiconductor fiber ring laser. The proposed laser can be tuned over 93 nm with an output power of 1.3 dBm using a thin film fiber Fabry Pérot filter. Figure 4The measured results and equivalent circuit results of (a) the magnitude and (b) phase of the interdevice isolation levels 1702

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Antenna solution for future communication devices in mm-wave range

Cited by 15 publications

References 6 publications

Superstrate Antennas for Wide Bandwidth and High Efficiency for 60 GHz Indoor Communications

Superstrate Antennas for Wide Bandwidth and High Efficiency for 60 GHz Indoor Communications

Integrated Silicon Microwave and Millimeterwave Passive Components and Functions

Interdevice isolation characteristics for design and fabrication of 60‐GHz WPAN SoCs

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