Abstract
The essential features of several rigorous and approximate methods for solving a large class of inverse acoustic wave scattering problems are presented herein. The rigorous (and near-rigorous) methods, which are very computer-intensive, involve solving linear (for the field) and non linear (for the boundary and composition parameters) boundary integral (BIE) and domain integral equations (DIE). The only way to reduce the computational volume, in order to obtain near real-time inversions, is by employing approximate models of the wave-medium interaction. Approximations appealing to complete family of functions representations, perturbation theory, heuristic arguments or asymptotic analysis, are described which often enable a closed-form expression for the scattered field to be obtained. This field ansatz is explicit in terms of the boundary and composition parameters. The latter are then determined from a set of equations that are usually non linear. When, however, the equations are linear, the inversion can be carried out by some sort of inverse (e.g., Fourier) transform. The multiplicity of solutions is demonstrated and the repercussions of model error (leading, for instance, to complex solutions for real parameters) are brought into evidence.
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References
J.D. Achenbach (ed.), EVALUATION OF MATERIALS AND STRUCTURES BY QUANTITATIVE ULTRASONICS, Springer, Vienna, 1993.
K. Aki and P. Richards, QUANTITATIVE SEISMOLOGY, THEORY AND METHODS I, Freeman, San Francisco, 1980.
T.S. Angell and R.E. Kleinman, Polarizability tensors in low frequency inverse scattering, Radio Sci., 22, 1120–1126, 1987.
T.S. Angell, R.E. Kleinman, B. Kok and G.F. Roach, A constructive method for identification of an impenetrable scatterer, Wave Motion, 11, 185–200, 1989.
T.S. Angell, R.E. Kleinman, B. Kok and G.F. Roach, Target reconstruction from scattered far field data, Ann.Télécomm., 44, 456–463, 1989.
M. Bagieu et D. Maystre, Waterman and Rayleigh methods for diffraction problems: extension of the convergence domain, J.Opt.Soc. Am. A, 15, 1566–1576, 1998.
G.A. Baker and P. Graves-Morris, PADE APPROXIMANTS, Cambridge Univ. Press, 1996.
H. Begher and R.P. Gilbert, TRANSFORMATIONS, TRANSMUTATIONS, AND KERNEL FUNCTIONS, vol. 2, Pitman, London, 1994, pp. 97–107.
A.J. Berkhout, SEISMIC MIGRATION. IMAGING OF ACOUSTIC ENERGY’ BY WAVE FIELD EXTRAPOLATION. A: THEORETICAL ASPECTS, Elsevier, New York, 1985.
Y. Body and A. Wirgin, Etude théorique et numérique de problèmes de diffraction à trois dimensions, Ann.Télécomm., 32, 337–345, 1977.
J.C. Bolomey and A. Wirgin, Numerical comparison of the Green’s function and the Waterman and Rayleigh theories of scattering from a cylinder with arbitrary cross-section, Proc.IEE, 121, 794–804, 1974.
S. Bonnard, P. Vincent and M. Saillard, Cross-borehole inverse scattering using a boundary finite-element method, Inverse Probs., 14, 521–534, 1998.
M. Bonnet, BIE and material differentiation applied to the formulation of obstacle inverse problems, Engrg.Anal.Bound.Elem., 15, 121–136, 1995.
M.. Born and E. Wolf, PRINCIPLES OF OPTICS, Pergamon, London, 1959.
E. Boschi and G. Ekstrom (eds.), SEISMIC MODELLING OF THE EARTH’S STRUCTURE, Ed. Compositori, Bologna, 1996.
D. Brill, G.C. Gaunaurd and H. Überall, Mechanical eigenfrequencies of axisymmetric fluid objects: Acoustic spectroscopy, Acustica, 53, 11–18, 1983.
O. Bruno and F. Reitich, Numerical solution of diffraction problems: a method of variation of boundaries. II. Finitely conducting gratings, Paoli approximants, and singularities, J.Opt.Soc. Am. A, 10, 2307–2316, 1993.
A. Charalambopoulos and G. Dassios, Inverse scattering via low frequency moments, J.Math.Phys., 33, 4206–4216, 1992.
G. Chavent and P.C. Sabatier, INVERSE PROBLEMS OF WAVE PROPAGATION AND DIFFRACTION, Springer, Berlin, 1997.
J.M. Chesneaux and A. Wirgin, Reflection from a corrugated surface revisited, J.Acoust.Soc.Am., 96, 1116–1129, 1994.
W.C. Chew, WAVES AND FIELDS IN INHOMOGENEOUS MEDIA, IEEE Press, New York, 1995.
W.C. Chew, G.P. Otto, W.H. Weedon, J.H. Lin, C.C. Lu, Y.M. Wang and M. Moghaddam, Nonlinear diffraction tomography: the use of inverse scattering for imaging, IntI.J.Imag.Syst.Technol., 7, 16–24, 1996.
P. Chylek, V. Ramaswamy, A. Ashkin and J.M. Dziedzic, Simultaneous determination of refractive index and size of spherical dielectric particles from light scattering data, Appl.Opt., 22, 2302–2307, 1983.
R. Collins, W.D. Dover, J.R. Bowler and K. Miya. (eds.), NONDESTRUCTIVE TESTING OF MATERIALS, IOS, Oxford, 1995.
D. Colton and R. Kress, INVERSE ACOUSTIC AND ELECTROMAGNETIC SCATTERING THEORY, Springer applied mathematical sciences N° 93, Berlin, 1992.
G. Dassios, The inverse scattering problem for the soft ellipsoid, J.Math.Phys., 28, 2858–2862, 1987.
G. Dassios and R.J.Lucas, Inverse scattering for the penetrable ellipsoid and ellipsoidal boss, J.Acoust.Soc.Am. 99, 1877–1882, 1996.
A.K. Datta et S.C. Som, On the inverse scattering problem for dielectric cylindrical scatterers, IEEE Trans.Anten.Prop., 29, 392–397, 1981.
J.E. Dennis and R.B. Schnabel, NUMERICAL METHODS FOR UNCONSTRAINED OPTIMIZATION AND NONLINEAR EQUATIONS, Prentice-Hall, Englewood Cliffs, 1983.
B. Duchêne and W. Tabbara, Characterization of a buried cylindrical object from its scattered field, IEEE Trans.Sonics Ultrason. 31, 658–663, 1984.
H.W. Eng1, M. Hanke and A. Neubauer, REGULARIZATION OF INVERSE PROBLEMS, Kluwer, Dordrecht, 1996.
O.R. Gericke, Determination of the geometry of hidden defects by Ultrasonic pulse analysis testing, J.Acoust.Soc.Am., 35, 364–368, 1963.
R.P. Gilbert, T. Scotti, A. Wirgin and Y.S. Xu, The unidentified object problem in a shallow ocean, J.Acoust.Soc.Am., 103, 1320–1327, 1998.
G.H. Golub and C.F. van Loan, MATRIX COMPUTATIONS, Johns Hopkins Univ.Press, Baltimore, 1989.
O.S. Haddadin and E.S. Ebbini, Multiple frequency distorted Born iterative method for tomographic imaging, in ACOUSTICAL IMAGING, VOL.23, S. Lees and L.A. Ferrari, eds., Plenum, New York, 1997.
R.F. Harrington, FIELD COMPUTATION BY MOMENT METHODS, Mac Milian, New York, 1968.
J.P. Hugonin, N. Joachimowicz et C. Pichot, Quantitative reconstruction of complex permittivity distributions by means of microwave tomography, dans INVERSE METHODS IN ACTION, P.C. Sabatier (ed.), Springer, Berlin, 1990, pp. 302–310.
W.A. Imbriale and R. Mittra, The two-dimensional inverse scattering problem, IEEE Trans.Anten.Prop., AP-18, 633–642, 1970.
H.M. Iyer and K. Hirahara (eds.), SEISMIC TOMOGRAPHY, Prentice-Hall, London, 1993.
H. Kawabe, The two dimensional inverse acoustic scattering for shape identification, in INVERSE PROBLEMS IN ENGINEERING MECHANICS, H.D. Bui and H. Tanaka (eds.), Balkema, Rotterdam, 1994, pp. 33–39.
R.E. Kleinman and P.M. van den Berg, Two-dimensional location and shape reconstruction, Radio Sci., 29, 1157–1169, 1994.
M. Lambert, R. de Oliveira Bohbot and D. Lesselier, Born-type schemes for the acoustic probing of 1-D fluid media from time-harmonic planar reflection coefficients at two incidences, J.Acoust.Soc.Am., 99, 243–253, 1996.
K.J. Langenberg, P. Fellinger, R. Marklein, P. Zanger, K. Mayer and T. Kreutter, Inverse methods and imaging, in, EVALUATION OF MATERIALS AND STRUCTURES BY QUANTITATIVE ULTRASONICS, J.D. Achenbach (ed.), Springer, Vienna, 1993.
D. Lesselier et B. Duchêne, Wave field inversion of objects in stratified environments: from back-propagation schemes to full solutions, in REVIEW OF RADIO SCIENCE 1993–1996, W. Ross Stone, ed., URSI, Oxford Univ.Press, Oxford, 1996, pp. 235–268.
D. Lesselier et W. Tabbara, Probing one-dimensional inhomogeneous media: how can it be done ?, in ELECTROMAGNETIC AND ACOUSTIC SCA 1 [BRING: DETECTION AND INVERSE PROBLEMS, C. Bourrely, P. Chiappetta et B. Toressani (eds.), World Scientific, Singapore, 1989, pp. 303–316.
S. Mensah and J.-P. Lefebvre, Enhanced compressibility tomography, IEEE Trans. Ultrason. Ferroelec. Freq.Control, 44, 1245–1252, 1997.
R.F. Millar, The Rayleigh hypothesis and a related least-squares solution to scattering problems for periodic surfaces and other scatterers, Radio Sci., 8, 785–796, 1973.
J.J. Moré, B.S. Garbow and K.E. Hillstrom, User Guide for Minpack-1, Argonne Natl.Lab. Rept. ANL-80–74, 1980.
P.M. Morse and H. Feshbach, METHODS OF THEORETICAL PHYSICS, McGraw-Hill, New York, 1953.
R.K. Mueller, M. Kaveh and G. Wade, Reconstructive tomography and applications to ultrasonics, Proc.IEEE, 67, 567–587, 1979.
L. Päivärinta and E. Somersalo, eds., INVERSE PROBLEMS IN MATHEMATICAL PHYSICS, Springer, Berlin„ 1993.
A.G. Ramm, MULTIDIMENSIONAL INVERSE SCATTERING PROBLEMS, Longman, Harlow, 1992.
J.H. Richmond, Scattering by a dielectric cylinder of arbitrary cross section shape, IEEE Trans.Anten.Prop., 13, 334–341, 1965.
J. Ripoche, G. Maze, J.L. Izbicki, New research in nondestructive testing: Acoustic Resonance Spectroscopy, in PROC. 15TH ULTRASONICS INTL. CONF., London, 1985, pp. 364–370.
B.A. Roberts and A.C. Kak, Reflection mode diffraction tomography, Ultrason.Imaging, 7, 300–320, 1985.
E.A. Robinson, Image reconstruction in exploration geophysics, IEEE Trans.Sonics Ultrason., 31, 259–270, 1984.
D.N.G. Roy, L. Couchman and J. Warner, Scattering and inverse scattering of sound-hard obstacles via shape deformation, Inverse Probs. 13, 585–606, 1997.
P.C. Sabatier, ed., SOME TOPICS ON INVERSE PROBLEMS, World Scientific, Singapore, 1988. P.C. Sabatier, INVERSE METHODS IN ACTION, Springer, Berlin, 1990.
T. Scotti, Localisation et reconstruction des caractéristiques géométriques et physiques d’un objet à l’aide du champ acoustique diffusé, Doctoral thesis, Université de la Méditerranée, Marseille, 1997.
W. Sachse, Ultrasonic spectroscopy of a fluid-filled cavity in an elastic solid, J.Acoust.Soc.Am., 56, 891–896, 1974.
T. Scotti and A. Wirgin, Shape reconstruction using diffracted waves and canonical solutions, Inverse Probs. 11, 1097–1111, 1995.
T. Scotti and A. Wirgin, Shape reconstruction of an impenetrable scattering body via the Rayleigh hypothesis, Inverse Probs. 12, 1027–1055, 1996.
T. Scotti and A. Wirgin, Localisation and shape reconstruction of a hidden object contained within another object from measurements of the scattered acoustic field, in ACTES DU 4ÈME CONGRÈS FRANÇAIS D’ACOUSTIQUE, SFAITEKNEA, Toulouse, 1997, pp. 813–816.
R. Snieder, The role of nonlinearity in inverse problems, Inverse Probs., 14, 387–404, 1998.
A. Tarantola, INVERSE PROBLEM THEORY: METHODS FOR DATA FITTING AND MODEL PARAMETER ESTIMATION, Elsevier, Amsterdam, 1987.
A.N. Tikhonov and V.Y. Arsenin, SOLUTIONS OF ILL-POSED PROBLEMS, Wiley, New York, 1977.
W. Tobocman, Comparison of the T-matrix and Helmholtz integral equation methods for wave scattering calculations, J.Acoust.Soc.Am., 77, 369–374, 1985.
W. Tobocman, Inverse acoustic wave scattering in two dimensions from impenetrable targets, Inverse Probs., 5, 1131–1144, 1989.
S. Twomey, INTRODUCTION TO THE MATHEMATICS OF INVERSION IN REMOTE SENSING AND INDIRECT MEASUREMENTS, Elsevier, Amsterdam, 1977.
P.M. van den Berg, M.G. Coté and R.E. Kleinman, Determination of the shape of an unknown perfectly conducting object from experimental scattered field data, Rept. 94–10 of the Center for the Mathematics of Waves, University of Delaware, 1994.
P.M. van den Berg and J.T. Fokkema, The Rayleigh hypothesis in the theory of diffraction by a cylindrical obstacle, IEEE Trans.Anten.Prop., 27, 577–583, 1979.
A. Wirgin, Application de la méthode des ondes planes à l’étude des problèmes direct et inverse de diffraction d’ondes sur des surfaces molles comportant un relief non périodique, C.R.Acad.Sci.Paris II 294, 17–19, 1982.
A. Wirgin, Determination of the profile of a hard or soft grating from the scattered field, in IEEE ULTRASONICS SYMPOSIUM PROCEEDINGS, M. Levy (ed.), IEEE/UFFC, New York, 1994, pp. 1189–1193.
A. Wirgin and T. Scotti, Wide-band approximation of the sound field scattered by an impenetrable body of arbitrary shape, J.Sound Vibr., 194, 537–572, 1996.
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Wirgin, A. (1999). Some Quasi-Analytic and Numerical Methods for Acoustical Imaging of Complex Media. In: Wirgin, A. (eds) Wavefield Inversion. International Centre for Mechanical Sciences, vol 398. Springer, Vienna. https://doi.org/10.1007/978-3-7091-2486-4_5
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DOI: https://doi.org/10.1007/978-3-7091-2486-4_5
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