Abstract
Synthetic aperture processing for seabed imaging has seen a renewed interest during recent years in both civilian and military applications (see the special issue of the IEEE Journ. of Ocean. Eng. January 1992). Towards the end of the eighties, several prototype systems were developed.
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References
Adams, A., Lawlor, M., Riyait, V., Hinton, O., and Sharif, B. (1996). A real-time synthetic aperture sonar system. IEE Proceedings on Radar, Sonar and Navigation, 143(3): 169–176. Special issue: Recent Advances in Sonar and Its Applications in the Ocean.
Altes, R. (1976). Sonar for generalized target description and its similarity to animal echolocation systems. J. Acoust. Soc. Am., 59 (1): 97–105.
Altes, R. and Reese, W. (1975). Doppler tolerant classification of distributed targets a bionic sonar. 11(5): 708–722.
Bilge, H., Karaman, M., and O’Donnel, M. (1996). Motion estimation using common spatial frequencies in synthetic aperture imaging. In IEEE Int. Ultrason. Symp, pp. 1551–1554, San Antonio, Texas (USA).
Blacknell, D. and Quegan, S. (1990). Motion compensation of airborne synthetic aperture radar using autofocus. J. Geophys. of Res., 7(3):168–182.
Bouhier, M. and Zakharia, M. (1990). ACID: A MAST project on ACoustical Imaging Development. Oceanology International 90, Brighton (United Kingdom).
Châtillon, J. (1994). Application de la synthèse d’ouverture en sonar actif. PhD thesis, INSA de Lyon (France).
Châtillon, J., Adams, A., Lawlor, M., and Zakharia, M. (1999). SAMI: A low frequency prototype for mapping and imaging of the seabed by means of synthetic aperture. IEEE J. on Ocean. Eng., 24(1): 4–15.
Châtillon, J., Bouhier, M., and Zakharia, M. (1992). Synthetic aperture sonar for seabed imaging: Relative merits of narrow band and wideband approaches. IEEE J. on Ocean. Eng. 1 17(1): 95–105.
Châtillon, J. and Zakharia, M. (1996). Self-focusing of synthetic aperture sonar in case of bottom reverberation. In Papadakis J., Editor, Third European Conference on Underwater Acoustics, pp. 433–438, Heraklio, Crete, Greece. European Commission, Brussels, Belgium.
Châtillon, J. and Zakharia, M. (1996). Validation of bathymetry algorithms using wideband synthetic aperture techniques by means of tank experiments. In Papadakis, J., editor, Third European Conference on Underwater Acoustics, pp. 427–431, Heraklio, Crete, Greece. European Commission, Brussels, Belgium.
Châtillon, J., Zakharia, M., and Bouhier, M. (1991). Quantification of the quality of images obtained by synthetic aperture sonar. Proc. of the IOA, 13(9), pp. 147–152.
Châtillon, J., Zakharia, M., and Bouhier, M. (1991). Synthèse d’ouverture en acoustique sous-marine: influence de l’effet Doppler différentiel. In proc. of Treizième Colloque du Groupe de Recherche et d’Etude de Traitement du Signal-GRETSI-, pp. 601–604, Juan-les-Pins (France).
Châtillon J., Zakharia, M., and Bouhier, M. (1992). Navigation inaccuracies in synthetic aperture sonar: simulations and experiments. In Undersea Defence Technology ’92, pp. 553–557, London (United Kingdom). Microwave Exhibitions and Publishers Ltd.
Châtillon, J., Zakharia, M. and Bouhier, M. (1994). Self-focusing of synthetic aperture sonar: Validation from sea data. In Bjørnø, L., editor, Second European Conference on Underwater Acoustics, pp. 727–731, Lyngby (Denmark). European Commission, Brussels, (Belgium).
Curlander, J. and McDonough, R. (1991). Synthetic Aperture Radar. John Wiley, New-York. 647 p.
Cutrona, L. (1975). Comparison of sonar system performance achievable using synthetic aperture techniques with the performance achievable by more convention al means. J. Acoust. Soc. Am., 58(2): 336–348.
de Heering, P. Simmer, K., Ochieng-Ogolla, E., and Wasiljeff, A. (1994). A deconvolution algorithm for broadband synthetic aperture data processing. IEEE J. on Ocean. Eng., 19(1):73–83.
Gough, P. and Hayes, M. (1989). Tests results using a prototype synthetic aperture sonar. J. Acoust. Soc. Am., 6(6):2328–2333.
Griffiths, J. and Gida, A. (1984). Use of a BBC microcomputer for synthetic aperture measurements. Proc. Of the IOA 6(6):122–128.
Guyonic, S. (1994). Experiments of a sonar with a synthetic aperture array moving on a rail. In Oceans ’94 Conf Record, pp. 571–576, Brest (France). MTS and IEEE publishers.
Huxtable, B. and Geyer, E. (1993). Motion compensation feasibility for high-resolution synthetic aperture sonar. In Oceans 93 Conf Record, pp. 1.125–1.137. MTS and IEEE publishers.
Johnson, K., Hayes, M., and Gough, P. (1995). A method for estimating the sub-wavelength sway of a sonar towfish. IEEE J. on Ocean. Eng., 20(4):258–267.
Kock, W. (1972). Extending the maximum range of synthetic aperture (hologram) systems. Proc. IEEE (Left.), 60(11):1459:1460.
Lawlor, M., Adams, A., Hinton, O., Riyait, V., and Sharif, B. (1994). Methods for increasing the azimuth resolution and mapping rate of a synthetic aperture sonar. In Oceans 94 Conf. Record, pp. 565–570, Brest (France). MTS and IEEE publishers.
Lawlor, M., Hinton, O., Adams, A., and Sharif, B. (1992). Design of a real-time parallel processing system for synthetic aperture sonar processing. In Undersea Defence Technology 92, pp. 275–280, London (United Kingdom). Microwave Exhibitions and Publishers Ltd.
Loggins, C., Christoff, J., and Pipkin, E. (1982). Results from rail synthetic aperture experiments. J. Acoust. Soc. Am., 71:85. suppl. 1.
Mamode, M. (1981). Estimation optimale de la date d’arrivée d’un écho perturbé par l’effet Doppler. Synthèse de signaux large bande tolérants. PhD thesis, INP Grenoble (France).
Raven, R. (1981). Electronic stabilization for displaced phase centres systems. Technical report. U.S. patent 4244036.
Riyait, V., Lawlor, M., Adams, A., Hinton, O., and Sharif, B. (1994). Comparison of the mapping resolution of the acid synthetic aperture sonar with existing sidescan sonar systems. In Oceans ’94 Conf. Record, pp. 559–564, Brest (France). MTS and IEEE publishers.
Riyait, V., Lawlor M., Adams A., Hinton O., and Sharif, B. (1995). Real-time synthetic aperture sonar imaging using a parallel architecture. IEEE Trans. on Imag. Proc., 4(7): 1010–1019.
Rolt, K., Milgram, J., and Schmidt, H. (1994). Broadband undersampled synthetic aperture arrays: targets stay sharp, aliases smear. Cambridge MA (USA). Acoustical Society of America 127th meeting. Abstract number: 2UW 18.
Rolt, K. and Schmidt, H. (1992). Azimuthal ambiguities in synthetic aperture sonar imagery and synthetic aperture radar imagery. IEEE J. on Ocean. Eng., 17(1):73–79.
Sato, T. and Ikeda O. (1977). Sequential synthetic aperture sonar system a prototype of a synthetic aperture system. IEEE Trans. on Son. and Ultrason., SU-24(4):253–259.
Sheriff, R. (1992). Synthetic aperture beamforming with automatic phase compensation for high frequency sonars. In Symposium on Autonomous Underwater Vehicle Technology, pp. 236–245.
Tonard, v. and Brussieux, M. (1997). Towards development of autofocusing schemes for phase compensation of synthetic aperture sonars. In Oceans 91 Conf Record, pp. 803–808, Halifax (Canada). MTS and IEEE publishers.
Tonard, V. and Châtillon, J. (1997). Acoustical imaging of extended targets by means of synthetic aperture sonar. Acustica united with Acta Acustica, 83(6): 992–997.
Zakharia, M. and Châtillon, J. (1994). A low frequency wideband synthetic aperture sonar prototype. Cambridge MA (USA). Acoustical Society of America 127th. meeting. Abstract number: 4aUW17.
Zakharia, M. and Châtillon, J. (1994). Wideband synthetic aperture sonar for bottom imaging. Theoretical aspects and experimental evaluation. Oceanology International 94, Brighton (United Kingdom). vol. 3.
Zakharia, M. and Châtillon, J. (1995). Synthetic Aperture Mapping and Imaging-SAMI. In Second MAST Days and EUROMAR market, pp. 1161–1171, Sorrento (Italy).
Zakharia, M. and Châtillon, J. (1997). SAMI: a low frequency wideband prototype for synthetic aperture mapping and imaging. Penn State PE (USA). Acoustical Society of America 133rd meeting. Abstract number; 4aUW3.
Zakharia, M. and Guigal, A. (1991). Étude et description de signaux tolérants à l’effet Doppler variable. In 13ème Colloque GRETSI, pp. 597–600, Juan les Pins (FR).
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Zakharia, M.E., Châtillon, J. (2002). Synthetic aperture mapping and imaging. In: Istepanian, R.S.H., Stojanovic, M. (eds) Underwater Acoustic Digital Signal Processing and Communication Systems. Springer, Boston, MA. https://doi.org/10.1007/978-1-4757-3617-5_2
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DOI: https://doi.org/10.1007/978-1-4757-3617-5_2
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