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Millimeter wave applications and technology trends

Tendances de la Technologie et des Applications des Ondes Millimétriques

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Abstract

Over the past two decades millimeter wave technology was fostered by military needs and applications, as it offers a number of commonly known advantages, such as narrow beamwidth with relatively small antenna dimensions, high radar resolution and high radar cross section, as well as small size and lightweight equipment. However, wide spread application was hampered due to the lack of suitable power sources and the comparatively high component costs. As corresponding research and development efforts were ongoing worldwide since the early 1970’s, today’s component technology, e.g. planar and quasi-planar technology for hybrid integration, is not only available, but mature and wide spread. Two major market oriented employment areas can be distinguished nowadays, communications and traffic-control systems, the earlier being either point-to-point orlan systems, the later incorporating radar- and beacon-systems. Millimeter wave systems have found an increasing interest for such purposes, due to their specific advantages, as well as the lack of frequencies for new services. While the military market is decreasing, commercial applications of millimeter waves are increasing rapidly.

Résumé

Durant les deux dernières décades, la technologie des ondes millimétriques était stimulée par les besoins et les applications militaires. Elle offre de nombreux avantages tels qu’un faisceau étroit avec des dimensions ďantenne réduites, une résolution radar et une section efficace radar élevées ainsi qu’un équipement léger et de petite dimension. Cependant les applications à spectre large sont handicapées par le manque de sources de puissance adéquates et le coût élevé des composants. Au fur et à mesure des progrès en recherche et développement sont réalisés à ľéchelle mondiale depuis les années 70, la technologie des composants actuelle comme par exemple celle des dispositifs planaires et quasi-planaire pour ľ intégration hybride et non seulement disponible mais môre et très commune. Deux domaines ďutilisation orientés vers le marché peuvent ôtre mis en évidence: les télécommunications et les systèmes de contrôle de circulation routière. Le premier couvrant les systèmes pointà-point ou les réseaux locaux ďentreprise, le second englobant les systèmes radar ou à balises. Les systèmes à ondes millimétriques ont trouvé un intérêt croissant pour ces applications grâce à lews avantages spécifiques et au manque de fréquences disponibles pour les nouveaux services. Tandis que les applications militaires diminuent, les applications commerciales des ondes millimétriques augmentent repidement.

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References

Applications

  1. Van Der Forst (A.). Mm wave atmospheric propagation and system implications.16th EuMC, Dublin (19–30 Sep. 1986).

  2. Meinel (H.). System design, applications and development trends in the millimeter wave range.18th EuMC, Stockholm (1988).

  3. Ron Scjneiderman. Millimeter waves find commercial markets.Microwaves and RF (July 1991), pp. 35–39.

  4. Meinel (H.). Millimeter wave technology advances since 1985 and future trends.IEEE Trans. MTT (May 1991),39, n° 5, pp. 759–767.

    Article  Google Scholar 

Communications

  1. Plattner (A.), Meinel (H.). A 60 GHz hand-held lpi transceiver.12th EuMC, Helsinki (Sep. 1982), pp. 540–594.

  2. Brigginshaw (P.), Restarick (A. S.). 60 GHz covert communication link in binoculars.MM 86 Conference, Brighton (June 1986).

  3. Dawson (T. W. G.) et al. Skynet 4 defense communication satellite project.MM (82), London (Oct. 1982), pp. 94–103.

  4. Leyshon (R.). Millimeter technology gets new lease of life.Microwave Journal (March 1992), pp. 26–35.

  5. Meinel (H.). The current status of mm wave communication systems.Melecon’89 Conf., Lisbon, Portugal (March 1989), pp. 680–686.

  6. Dooi (Y.), Kurematsu (H.), Furuhama (Y.). A 50 GHz band millimeter wave radio system, links for the future, science systems and services for communication.IEEE Publication, CH 2028 (Sep. 1984), pp. 955–958.

  7. Watanabe (S.), Kasuga (O.), Kaneko (K.). General purpose 50 GHz transmitter-receiver, links for the future, science systems and services for communication.IEEE Publication, CH 2028 (Sep. 1984), pp. 951–954.

  8. Barnes (B. C), Bates (R. N.), Clarke (I. M.). IntegratedE-plane millimeter wave 29 GHz transceiver.MSN and CT (Sep. 1988), pp. 99–103.

  9. Barnes (B. C), O’ Sullivan (P. J.), Pote (A.), Pilgrim (M.), Wilson (P. G.). Monolithic circuits for mm wave multichannel TV system.MIOP’90, Stuttgart, Germany (Apr. 24-26, 1990), pp. 426–430.

    Google Scholar 

  10. Ogawa (K.), Ishizaki (T.), Hashimoto (K.), Sakakura (M.), Uwano (T.). A 50 GHz GaAs fet mic transmitter/receiver using hermetic miniature probe transitions.IEEE Trans. MTT (Sep. 1989),397, n° 9, pp. 1434–1441.

    Article  Google Scholar 

  11. Readout: Components for 38 GHz provide missing links, Microwave Engineering Europe, February 1992, 20 and Rafaelli (L.): private communication.

  12. Huish (P. W.), Johnson (I. T), Li (T. A.), Nicholls (M. J.). Mm wavelength microcellular mobile radio systems, a solution to spectrum congestion for high user densities. Int. Conf. on Mobile Radio, Cambridge, UK (Dec. 1985).

  13. Thomas (H. J), Sigueira (G. L.), Cole (R. S.). Millimeter waves show merit for mobile cellular radio.Microwaves and RF (Feb. 1987), pp. 67–70.

  14. Bensebti (M.), Davies (R.), Mcgeehan (J. P.), Beach (M. A.), Rickard (D. C). Short range propagation measurements and modelling at 60 GHz for lans.MIOP’90, Stuttgart, Germany (Apr. 24-26, 1990), pp. 431–437.

    Google Scholar 

Radar

  1. Wilke (K.-H.). Microwave sensors for intelligent ammunitions.Miltech (May 1986), n° 5, pp. 32–42.

  2. Nicholls (M. R.),Rowatt (C A.). Millimeter wave integrated seeker subsystem for guided weapons.MM’86 Conference, Brighton (June 1986), pp. 178–184.

  3. Schmidt (L.-R), Jester (R.), Kadisch (G.). 94 GHz fm-icw monopulse radar sensor.MM’90 Conference, Wembley (July 1990), pp. 161–166.

  4. Greenhalgh (D.). Millimeter wave radar for short range air defense.MM’86, Brighton, UK (July 1986), pp. 205–210.

  5. Plattner (A.). A coherent, frequency agile 94 GHz radar with dual polarization capability.15th EuMC, Paris (1985), pp. 125–130.

  6. Meinel (H.), Wippich (H. G.) et al. LPI-radar for helicopter obstacle warning.AGARD Conf. Proc, Monterey, CA (1984), n° 359, pp. 17–1 — 17–7.

  7. Anthouard (P.). Millimetric wave Romeo for obstacle avoidance (in French).Conference de Radar, Paris (1983), Communication AV-3, pp. 192–196.

  8. Stammler (W), Boheim (M.), Linss (W.). Mm wave sensor for traffic data acquisition systems.Proc. Int. Microwave Symp., Sao Paulo, Brazil (July 1989), pp. 24–27.

    Google Scholar 

  9. Maege (B.), Hofmann (K.-WW), Happe (A.). Determining tdc in fired internal combustion engines.Technisches Messen 53 (Jan. 1986), n° 1, pp. 25–27.

Reconnaissance

  1. Newton (B. H.), Dodds (A. F.), Nugent (D. M.), Body (D. H.). A sensitive K-band receiver for esm applications.MM (86), Brighton (June 1986).

  2. Meier (P. J.), Breuer (K. D.), Cohen (L. D.), Worontzoff (N.), Lepore (J.), Gunther (J.). Channelized receiver covering 26 to 60 GHz with planar integrated circuit components.Corp. AIL Div., Eaton (Print 81 – 17).

Traffic control

  1. Workshop on: Advanced car electronics and future traffic control systems related to microwaves.21st EuMC, Stuttgart, Germany, Workshop Proc. (Sep. 13, 1991), pp. 97–158.

  2. Meinel (H. H.). Applications of microwaves and millimeter waves for vehicle communications and control in Europe.IEEE MTT-S Symposium, Albuquerque, NM, USA (1992), pp. 609–612.

    Chapter  Google Scholar 

  3. Glathe (H.-R). Contribution to a future European traffic structure — progress report.8th Int. Conf. on Automotive Electronics, London, England (Oct. 1991), pp. 112–119.

  4. Zandbergen (A.). Evaluation of different transmission media for use in automotive debeting systems.DACAR Conf., Rome, Italy (May 1991).

  5. Autostrade S.p.A. Telepass, toll-payment without stopping, central department for information. Florence, Italy (1991).

  6. The Cambridgeshire County Council. Congestion Metering in Cambridge City, Information Broschure (1991).

  7. Blythe (P. T). The use of transponder technology in road traffic control.8th Int. Conf. on Automotive Electronics, London (Oct. 1991), pp. 130–134.

  8. Moss (C. R.). The Dacar millimetre wave vehicle communications link.Workshop 21st EuMC, Stuttgart (1991), in [29], pp. 112–121.

  9. Fischer (H.-J.). Digital beacon vehicle communication at 61 GHz for interactive dynamic traffic management.8th Int. Conf. on Automotive Electronics, London (Oct. 1991), pp. 120–124.

  10. Lissel (E.). Geschwindigkeits- und Wegsensor nach dem Mikrowellen-Doppler-Prinzip.VDI Berichte No. 687 (1988), pp. 257–275.

  11. Kehrbeck (J.), Heidrich (E.), Wiesbeck (W). Planar microwave Doppler-sensors for car speed monitoring.Workshop 21st EuMC, Stuttgart (1991), in [29], pp. 129–134.

  12. Lowbridge (P. L), Brigginshaw (P. M.), Kumar (B.). Millimeter wave technology for collision avoidance and cruise control.8th Int. Conf. on Automotive Electronics, London (Oct. 1991), pp. 150–154.

  13. Detlefsen (J.), Troll (T), Rozmann (M.), Zeilinger (W). System aspects and design of an automotive collision warning pn- code radar using wavefront reconstruction.IEEE MTT-S Symposium, Albuquerque, NM, USA (1992), pp. 625–628.

    Chapter  Google Scholar 

  14. Stove (A.). 80 GHz automotive radar.8th Int. Conf. on Automotive Electronics, London (Oct. 1991), pp. 145–149.

  15. Rolland (P. A.), Haese (N.), Benlamlih (M.). Quasi optical technology for mm wave war electronics.Workshop 21st EuMC, Stuttgart (1991), in [29], pp. 141–146.

  16. Raffaelli (L.), Stewart (E.). MmW monolithic components for automotive applications.Microwave Journal (Feb. 1992),35, n° 2, pp. 22–32.

    Google Scholar 

  17. Holpp (W). Millimeter wave radar applications in the commercial arena, Workshop onCommercial Applications of Micro- and Millimeter waves. 22nd EuMC, Helsinki, Finland (Aug. 28, 1992), to be published.

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Meinel, H.H. Millimeter wave applications and technology trends. Ann. Télécommun. 47, 456–468 (1992). https://doi.org/10.1007/BF02998307

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