DocumentCode
1805652
Title
Three-dimensional velocity field estimation of moving cardiac walls
Author
Gorce, J.M. ; Friboulet, D. ; Clarysse, P. ; Magnin, I.E.
Author_Institution
CREATIS, CNRS, Villeurbanne, France
fYear
1994
fDate
25-28 Sept. 1994
Firstpage
489
Lastpage
492
Abstract
The quantification of the heart local motion from medical image sequences can be a very useful diagnostic tool in assessing noninvasively the heart function. Several authors have proposed to tackle this problem in two-dimensions (2D) by applying optical flow technique to cardiac image sequences. The application of this method to 2D images has nevertheless severe limitations, since it can in essence only lead to the estimation of the projected fraction of the heart motion. The authors propose in this study to assess the generalization of such a method, based on the continuum theory framework and allowing the estimation of a three-dimensional (3D) motion. In order to illustrate the potential interest of this method toward the quantification of the heart motion, the authors then describe its application to 3D data obtained in vivo on a high speed and high resolution CT scanner. The experimental results are presented and discussed.<>
Keywords
biomechanics; biomedical measurement; cardiology; computerised tomography; medical image processing; velocity measurement; 3D motion estimation; 3D velocity field estimation; cardiac image sequences; continuum theory framework; diagnostic tool; heart local motion; heart motion quantification; high speed high resolution CT scanner; medical diagnostic images; medical image sequences; method generalization; moving cardiac walls; optical flow technique; Biomedical imaging; Biomedical optical imaging; Computed tomography; Heart; High speed optical techniques; Image motion analysis; Image sequences; In vivo; Medical diagnostic imaging; Motion estimation;
fLanguage
English
Publisher
ieee
Conference_Titel
Computers in Cardiology 1994
Conference_Location
Bethesda, MD, USA
Print_ISBN
0-8186-6570-X
Type
conf
DOI
10.1109/CIC.1994.470182
Filename
470182
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