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Physical layer design, link budget analysis, and digital baseband implementation for 60 GHz short-range applications

Published online by Cambridge University Press:  08 March 2011

Stefan Krone ,
Falko Guderian ,
Gerhard Fettweis ,
Markus Petri ,
Maxim Piz ,
Miroslav Marinkovic ,
Michael Peter ,
Robert Felbecker  and
Wilhelm Keusgen
Stefan Krone*
Affiliation:
TU Dresden, Vodafone Chair Mobile Communications Systems, 01062 Dresden, Germany. Phone: +49 0351 46341061.
Falko Guderian
Affiliation:
TU Dresden, Vodafone Chair Mobile Communications Systems, 01062 Dresden, Germany. Phone: +49 0351 46341061.
Gerhard Fettweis
Affiliation:
TU Dresden, Vodafone Chair Mobile Communications Systems, 01062 Dresden, Germany. Phone: +49 0351 46341061.
Markus Petri
Affiliation:
IHP Microelectronics, 15236 Frankfurt (Oder), Germany.
Maxim Piz
Affiliation:
IHP Microelectronics, 15236 Frankfurt (Oder), Germany.
Miroslav Marinkovic
Affiliation:
IHP Microelectronics, 15236 Frankfurt (Oder), Germany.
Michael Peter
Affiliation:
Fraunhofer Heinrich-Hertz-Institute, 10587 Berlin, Germany.
Robert Felbecker
Affiliation:
Fraunhofer Heinrich-Hertz-Institute, 10587 Berlin, Germany.
Wilhelm Keusgen
Affiliation:
Fraunhofer Heinrich-Hertz-Institute, 10587 Berlin, Germany.
*
Corresponding author: S. Krone Email: stefan.krone@ifn.et.tu-dresden.de
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Abstract

The large bandwidth of the 60 GHz frequency band enables wireless short-range applications with data rates of several Gbit/s. The German project EASY-A has focused on early prototype implementations for selected applications, although no generally accepted 60 GHz standard has been available at the time. The implementations are based on application-oriented physical layer designs and link-budget investigations that account for the scenario-specific channel characteristics and for different integration technologies. This paper discusses the results of these investigations and details the hardware implementation of the digital baseband processing that relies on considerable parallelization. The link-budget results show that SiGe technology allows for 1 Gbit/s at a range of 3.5 m in non-line-of-sight environments, while up to 10 Gbit/s are feasible at more than 1 m in case of strong line of sight.

Keywords

Wireless systems and signal processing60 GHz applicationsprototyingphysical layer designlink budget analysisdigital baseband implementation

Information

Type
Research Article
Information
International Journal of Microwave and Wireless Technologies , Volume 3 , Special Issue 2: 60 GHz Wireless Communication Circuits and Systems , April 2011 , pp. 189 - 200
Copyright
Copyright © Cambridge University Press and the European Microwave Association 2011

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References

REFERENCES

[1]IEEE Std 802.15.3c: Wireless MAC and PHY specifications for high rate WPANs in Amendment 2: Millimeter-wave-based Alternative PHY Extension, 2009.Google Scholar
[2]Standard ECMA-387: High Rate 60 GHz PHY, MAC and HDMI PAL, 1st ed., ECMA International, 2008.Google Scholar
[3]URL: http://www.easy-a.de/Google Scholar
[4]Fettweis, G.; Guderian, F.; Krone, S.: Entering the path towards terabit/s wireless links, in Design, Automation and Test in Europe Conf. (DATE’11), 2011.CrossRefGoogle Scholar
[5]Schulte, B. et al. : 60 GHz WLAN applications and implementation aspects. EuMA Int. J. Microw. Wirel. Technol. (Special Issue on 60 GHz Communication Systems), 2011.CrossRefGoogle Scholar
[6]Scheytt, C. et al. : Fully-integrated 60 GHz transceiver in SiGe BiCMOS, RF modules, and 3.6 Gb/s OFDM data transmissions. EuMA Int. J. Microw. Wirel. Technol. (Special Issue on 60 GHz Communication Systems), 2011.Google Scholar
[7]Lopez-Diaz, D. et al. : 60 GHz MMICs for wireless digital communication in 100 nm mHEMT technology. EuMA Int. J. Microw. Wirel. Technol. (Special Issue on 60 GHz Communication Systems), 2011.CrossRefGoogle Scholar
[8]URL: http://www.wigwam-project.de/Google Scholar
[9]IEEE Std 802.16e: IEEE standard for local and metropolitan area networks, 2005.Google Scholar
[10]Durgin, G.; Rappaport, T.S.; Xu, H.: Measurements and models for radio path loss and penetration loss in and around homes and trees at 5.85 GHz. IEEE Trans. Commun., 46 (11) (1998), 1484–1496.CrossRefGoogle Scholar
[11]Garcia, A.P. et al. : 60 GHz short-range communications: channel measurements, analysis and modeling. EuMA Int. J. Microw. Wirel. Technol. (Special Issue on 60 GHz Communication Systems), 2011.Google Scholar
[12]Peter, M.; Keusgen, W.; Schirrmacher, M.: Measurement and analysis of the 60 GHz in-vehicular broadband radio channel, in IEEE Vehicular Technology Conf. (VTC’07-Fall), 2007.CrossRefGoogle Scholar
[13]Peter, M.; Felbecker, R.; Keusgen, W.; Hillebrand, J.: Measurement-based investigation of 60 GHz broadband transmission for wireless in-car communication, in IEEE Vehicular Technology Conf. (VTC’09-Fall), 2009.CrossRefGoogle Scholar
[14]Scheytt, C. et al. : 60 GHz OFDM transceiver frontend design in SiGe BiCMOS in IEEE Radio & Wireless Symp. (RWS’10), 2010.Google Scholar
[15]Proakis, J.G.: Digital Communications, McGraw-Hill, Inc., 2001.Google Scholar
[16]Marinkovic, M.; Piz, M.; Choi, C.-S.; Panic, G.; Ehrig, M.; Grass, E.: Performance evaluation of channel coding for Gbit/s 60-GHz OFDM-based wireless communications in Annual IEEE Int. Symp. on Personal, Indoor and Mobile Radio Communications (PIMRC’10), 2010.CrossRefGoogle Scholar
[17]Piz, M.; Grass, E.; Marinkovic, M.; Kraemer, R.: Next-generation wireless OFDM system for 60-GHz short-range communication at a data rate of 2.6 Gbit/s, in OFDM Workshop, TU Hamburg, 2009.Google Scholar
[18]URL: http://iaf-bs.de/Google Scholar
[19]Walden, R.H.: Analog-to-digital converter survey and analysis. IEEE J. Sel. Areas Commun., 17 (4), 1999, 539–550.CrossRefGoogle Scholar
[20]Le, B.; Rondeau, T.W.; Reed, J.H.; Bostian, C.W.: Analog-to-digital converters. IEEE Signal Process. Mag., 22 (6), 2005, 69–77.Google Scholar
[21]Murmann, B.: A/D converter trends: power dissipation, scaling and digitally assisted architectures, in IEEE Custom Integrated Circuits Conf. (CICC’08), 2008.CrossRefGoogle Scholar
[22]URL: http://www.national.com/pf/DC/ADC083000.htmlGoogle Scholar
[23]URL: http://www.e2v.com/products-and-services/hi-rel-semiconductor-solutions/broadband-data-converters/datasheets/Google Scholar
[24]Ulusoy, A.C.; Liu, G., Peter, M.; Felbecker, R.; Abdine, H.Y.; Schumacher, H.: A BPSK/QPSK receiver architecture suitable for low-cost ultra-high rate 60 GHz wireless communications in European Microwave Conf. (EuMC’10), 2010.CrossRefGoogle Scholar
[25]URL: http://www.minicircuits.com/Google Scholar
[26]Schenk, T.; Linnartz, J.-P.: RF Imperfections in High-Rate Wireless Systems: Impact and Digital Compensation, Springer-Verlag, 2008.CrossRefGoogle Scholar
[27]Bittner, S.; Krone, S.; Fettweis, G.: Tutorial on discrete time phase noise modeling for phase locked loops. Available at: http://www.vodafone-chair.com/staff/bittner/main_tutorial_phasenoise.pdfGoogle Scholar
[28]Rapp, C.: Effects of HPA-nonlinearities on a 4-DPSK/OFDM-signal for a digital sound broadcasting system, in European Conf. on Satellite Communications (ECSC’91), 1991Google Scholar
[29]URL: http://www.dinigroup.com/Google Scholar
[30]URL: http://www.altera.comGoogle Scholar