DocumentCode
2590279
Title
Epicardial motion and deformation estimation from coronary artery bifurcation points
Author
Chen, Chang Wen ; Huang, Thomas S.
Author_Institution
Illinois Univ., Urbana, IL, USA
fYear
1990
fDate
4-7 Dec 1990
Firstpage
456
Lastpage
459
Abstract
A special problem in nonrigid motion analysis, the problem of estimating the motion and deformation of the human heart, is addressed. The research has been conducted on the left ventricle 3-D data of the bifurcation points, obtained within the period of one cardiac cycle. The process of the motion analysis is divided into three phases: global motion estimation, global motion compensation, and local deformation estimation. The global motion of the left ventricle is determined using the estimated principal axes over successive time instants. Upon compensation for the global motion, the local deformation is analyzed utilizing the correspondence of individual bifurcation points over the period of the cardiac cycle via tensor analysis. Finally, in order to better understand the complex nature of the left ventricle movement, several scientific visualization techniques are exploited to view the dynamic deformation of the left ventricle surface
Keywords
biomechanics; cardiology; computer vision; computerised picture processing; computerised tomography; bifurcation points; cardiac cycle; coronary artery bifurcation points; deformation estimation; dynamic deformation; epicardial motion; global motion compensation; global motion estimation; human heart; left ventricle 3-D data; local deformation; local deformation estimation; nonrigid motion analysis; scientific visualization; tensor analysis; Arteries; Bifurcation; Heart; Humans; Motion analysis; Motion compensation; Motion estimation; Phase estimation; Tensile stress; Visualization;
fLanguage
English
Publisher
ieee
Conference_Titel
Computer Vision, 1990. Proceedings, Third International Conference on
Conference_Location
Osaka
Print_ISBN
0-8186-2057-9
Type
conf
DOI
10.1109/ICCV.1990.139570
Filename
139570
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