A 60 GHz transceiver with multi-gigabit data rate capability

Bosco, B.; Franson, S.; Emrick, R.; Rockwell, S.; Holmes, John

doi:10.1109/rawcon.2004.1389091

Cited by 24 publications

(5 citation statements)

References 3 publications

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“…A 15cm thick concrete wall, for example, can introduce about 36dB of attenuation at 60GHz. These characteristics provide isolation from nearby transmitters which can be a distinct advantage for frequency re-use and makes this spectrum potentially very attractive for short range indoor broadband communications [2].…”

Section: Introductionmentioning

confidence: 99%

A V-band radio receiver integrating LTCC SoP module with a fully embedded LPF for wireless applications

Bujang

Jaafar

Amiruddin

et al. 2011

The 17th Asia Pacific Conference on Communications

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This paper describes the design techniques and measurement results of a V-band LTCC SoP module with fully embedded Low Pass Filter (LPF). A compact size was achieved by combining the special features of LTCC technology and a direct conversion ASK receiver architecture. The LTCC technology offer the means to integrate active and passive components on compact modules (multilayer substrates) for mmWave wireless applications. The low loss characteristics of the LTCC dielectric and conductor at the mmWave frequency, allow low loss transmission lines and high quality factor passive devices to be employed. The 5 th Order LPF was designed and fully embedded in this LTCC SoP module. The envelope detector was employed to evade the LO circuit from the system. Thus, the size has significantly reduced. The LTCC SoP module with size of 1.8cm x 6.9cm was successfully fabricated and integrated with other components to produce a complete radio receiver module for gigabit-rate wireless applications. The measured result of the radio receiver module shows the baseband range of 1.25GHz, typical output level of 0.4V P-P , 1.25Gbps data-rate and BER less than 10 -12 for 40dB dynamic range.

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Section: Introductionmentioning

confidence: 99%

A V-band radio receiver integrating LTCC SoP module with a fully embedded LPF for wireless applications

Bujang

Jaafar

Amiruddin

et al. 2011

The 17th Asia Pacific Conference on Communications

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“…Moreover, the specific nature of the 60 GHz wave propagation requires the development of appropriate transmission techniques [1]. Several efforts have been made to build up high rate 60 GHz wireless systems [2,3,4,5], which are based on a Line-Of-Sight (LOS) connection and rely on directive antennas [2,3,5] or beam steering techniques [4]. Unfortunately, in practical indoor scenarios, None-LOS (NLOS) is often the case.…”

Section: Introductionmentioning

confidence: 99%

60 GHz broadband wireless transmission experiments in a NLOS indoor environment

Luo

Kortke

Keusgen

et al. 2008

2008 Asia-Pacific Microwave Conference

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The presented 60 GHz experimental system has achieved data rates of 192 Mbps both in LOS and NLOS scenarios, showing that with appropriate RF front-end design and transmission techniques, the potential of 60 GHz transmission can be exploited for future high data rate indoor communication. This work has been supported in part by the Investitionsbank Berlin (IBB) under grant 10022938 by means of EFRE

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“…One practical advantage at these high frequencies in communication applications is that a relatively high data rate can be achieved over a narrow (in terms of percentage) bandwidth, thus decreasing some of the dispersion concerns. Motorola and other organizations have demonstrated multi-gigabit/s data transmission within the unlicensed spectrum near 60 GHz [8,9].…”

Section: Introductionmentioning

confidence: 99%

Numerical studies of the interaction of time‐modulated multi‐gigabit sequences with metamaterial structures at millimeter‐wave frequencies

Franson

Ziolkowski

2006

Int J Numerical Modelling

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SUMMARYIt is shown with time domain simulations using the finite integration technique (FIT) that a metamaterial that acts as an artificial magnetic conductor (AMC), i.e. a metamaterial which produces an in-phase reflection, exhibits a time delay before its intended response can occur. A millimeter-wave metamaterial AMC is obtained as a generalization of a successfully designed microwave frequency AMC block consisting of an array of capacitively loaded loops (CLLs). It is also shown that while this time delay does distort millimeter-wave frequency signals composed of time-modulated multi-gigabit sequences, it does not have a detrimental impact on the overall system performance when these multi-gigabit/s signals interact with this CLL-based AMC. This time delay behaviour is demonstrated for several different but common communication-based modulation schemes. The presence of peculiar spikes in the output waveforms is tied to the time domain behaviour of the currents on the CLLs in the metamaterial AMC.

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A 60 GHz transceiver with multi-gigabit data rate capability

Cited by 24 publications

References 3 publications

A V-band radio receiver integrating LTCC SoP module with a fully embedded LPF for wireless applications

A V-band radio receiver integrating LTCC SoP module with a fully embedded LPF for wireless applications

60 GHz broadband wireless transmission experiments in a NLOS indoor environment

Numerical studies of the interaction of time‐modulated multi‐gigabit sequences with metamaterial structures at millimeter‐wave frequencies

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