Paper
1 January 1986 Ultrasound Inverse Scattering Solutions From Transmission And/Or Reflection Data
M. J. Berggren, S. A. Johnson, B. L. Carruth, W. W. Kim, F. Stenger, P. K. Kuhn
Author Affiliations +
Abstract
Although historically the Born or Rytov linear approximations have received a great deal of attention, it is now more apparent that only a full nonlinear formulation of the inverse scattering problem, such as those we have developed, provide the accuracy for quantitative clinical ultrasound imaging. Our inverse scattering solutions have been developed to reconstruct quantitative images of speed of sound, density, and absorption using the exact Helmholtz wave equation without perturbation approximations. We have developed fast algorithms which are based upon Galerkin or moment discretizations and use various iterative solution techniques such as back propagation and descent methods. In order to reconstruct images with reflection-only scanner geometries we have extended our algorithms to include multiple frequency data. We have demonstrated a procedure for imaging inhomogeneous density distributions. We also discuss the significance and potential applications of these new methods.
© (1986) COPYRIGHT Society of Photo-Optical Instrumentation Engineers (SPIE). Downloading of the abstract is permitted for personal use only.
M. J. Berggren, S. A. Johnson, B. L. Carruth, W. W. Kim, F. Stenger, and P. K. Kuhn "Ultrasound Inverse Scattering Solutions From Transmission And/Or Reflection Data", Proc. SPIE 0671, Physics and Engineering of Computerized Multidimensional Imaging and Processing, (1 January 1986); https://doi.org/10.1117/12.966686
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CITATIONS
Cited by 17 scholarly publications.
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KEYWORDS
Absorption

Spatial resolution

Scattering

Ultrasonography

Image processing

Tissues

Physics

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