A Survey of Three-Dimensional Modeling Techniques for Quantitative Functional Analysis of Cardiac Images - Advance Image Processing in Magnetic Resonance Imaging - page 325

92. Song, S., Leahy, R., Boyd, D., Brundage, B., and Napel, S. (1994). Determining

cardiac velocity fields and intraventricular pressure distribution from a sequence
of ultrafast CT cardiac images. IEEE Trans. Med. Imaging . 14(2): 386-397.

93. Gorce, J.M., Friboulet, D., and Magnin, I. (1996). Estimation of three-dimensional

cardiac velocity fields: assessment of a differential method and application to
three-dimensional CT data. Med. Image. Anal . 1(3): 245-261.

94. Meyer, F., Constable, R., Sinusas, A., and Duncan, J. (1996). Tracking myocardial

deformation using phase contrast MR velocity fields: a stochastic approach. IEEE
Trans. Med. Imaging . 15(4): 453-465.

95. Amini, A. and Duncan, J. (1992). Bending and stretching models for LV wall

motion analysis from curves and surfaces. Image. Vis. Comp . 10(6): 418-430.

96. Mishra, S., Goldgof, D., Huang, T., and Kambhamettu, C. (1992). Curvature-based

non-rigid motion analysis from 3-D point correspondences. Intl. J. Image Syst.
Te ch . 4: 214-25.

97. Friboulet, D., Magnin, I., Mathieu, C., Pommert, A., and Hoehne, K. (1993).

Assessment and visualization of the curvature of the left ventricle from 3-D
medical images. Comput. Med. Image and Graph . 17(4-5):257-62.

98. Kambhamettu, C. and Goldgof, D. (1994). Curvature-based approach to point

correspondence recovery in conformal non-rigid motion. Comput. Vis. Graph. and
Image Proc . 60(1): 26-43.

99. Benayoun, S. and Ayache, N. (1998). Dense and non-rigid motion estimation in

sequences of medical images using differential constraints. Intl. J. Comput. Vision .
26(1): 25-40.

100. Azhari, H., Sideman, S., Weiss, J., Shapiro, E., Weisfeldt, M., Graves, W., Rogers,

W., and Beyar, R. (1990). Three-dimensional mapping of acute ischemic regions
using MRI: wall thickening vs. motion analysis. Am. J. Physiol . 259(5 Pt 2):
H1492-503.

101. Taratorin, A. and Sideman, S. (1995). 3-D functional mapping of left ventricular

dynamics. Comput. Med. Image and Graph . 19(1): 113-129.

102. Sheehan, F., Bolson, E., Dodge, H., Mathey, D., Schofer, J., and Woo, H. (1986).

Advantages and applications of the centerline method for characterizing regional
ventricular function. Circulation . 74(2): 293-305.

103. Buller, V., van der Geest, R., Kool, M., and Reiber, J. (1994). Accurate three-

dimensional wall thickness measurement from multi-slice short-axis MR imaging.
in IEEE Comput. in Cardiol . 245-248. Maryland, USA: IEEE Computer Society
Press.

104. Bolson, E. and Sheehan, F. (1993). Centersurface model for 3-D analysis of

regional left biventricular function. In IEEE Comput. in Cardiol . 735-738. Lon-
don, U.K.: IEEE Computer Society Press.

105. Bolson, E., Sheehan, F., Legget, M.E., Jin, H., McDonald, J.A., Sampson, P.,

Martin, R., Bashein, G., and Otto, C. (1995). Applying the centersurface model
to 3-D reconstructions of the left ventricle for regional functional analysis. in
IEEE Comput. in. Cardiol . 63-7. Vienna, Austria: IEEE Computer Society Press.

106. Fung, Y. (1990). Biomechanics: Motion, Flow, Stress and Growth . New York:

Springer-Verlag.

107. Yettram, A. and Vinson, C. (1979). Geometric modeling of the human left ven-

tricle. J. Biomech . 101: 221-223.

108. Yettram, A., Vinson, C., and Gibson, D. (1982). Computer modeling of the human

left ventricle. J. Biomech . 104(2): 148-152.