2:15 p.m. Crystalline interface-controlled crystal growth models: Theory and computation. Jean E. Taylor*, Rutgers University, New Brunswick
(863-73-417)
2:45 p.m. Modeling and simulations of crystal growth. Ryo Kobayashi*, Ryukoku University, Japan
(863-68-766)
7:00 a.m. Generalized motion by mean curvature. Lawrence Evans*, University of California, Berkeley
Joel Spruck, University of Massachusetts, Amherst
(863-49-230)
7:30 a.m. Computing the motion of curves and surfaces via the Hamilton-Jacobi level set approach: I. James A. Sethian*, University of California, Berkeley
(863-68-293)
8:00 a.m. Computing the motion of curves and interfaces via the Hamilton-Jacobi level set approach,II. Stanley Osher*, University of California, Los Angeles
(863-65-229)
8:30 a.m. Computation of evolving phase interfaces with Gibbs-Thompson effect. Robert F. Almgren*, New York University-Courant Institute of Mathematical Sciences
(863-49-332)
9:00 a.m. The deformation of crystals modeled by nonconvex variational principles. Mitchell Luskin*, University of Minnesota, Minneapolis
Charles Collins, University of Michigan, Ann Arbor
(863-65-184)
9:30 a.m. Soap films and immiscible fluids. Gary R. Lawlor, Princeton University
Frank Morgan*, Williams College
(863-49-194)
12:00 p.m. The opaque cube problem. Kenneth Brakke*, Susquehanna University
(863-49-129)
12:30 p.m. Three-dimensional fluid interfaces in a cylindrical container. James Tegart*, Martin Marietta Astronautics, Denver, Colorado
(863-76-236)
1:00 p.m. Energy minimizing capillary surfaces for exotic containers. Michael Callahan, Harvard University
Paul Concus*, Lawrence Berkeley Laboratory and University of California, Berkeley
Robert Finn, Stanford University
(863-68-203)
1:30 p.m. Computing minimal surfaces with and without conformal representation. David Hoffman*, University of Massachusetts, Amherst
(863-53-437)
2:00 p.m. New methods for existence of minimal hypersurfaces. Jon T. Pitts*, Texas A\thsp\&\thsp M University, College Station
(863-49-331)
2:30 p.m. Numerical approximation of area-minimizing hypersurfaces. Harold R. Parks*, Oregon State University
(863-68-299)
3:00 p.m. Crystalline approximation: Computing minimum surfaces with maximum flows. John M. Sullivan*, Minneapolis, Minnesota
(863-51-314)
7:00 a.m. Proving area-minimization by slicing. Gary R. Lawlor*, Princeton University
(863-49-762)
7:30 a.m. Computer animation of photosynthesis. Nelson Max*, Lawrence Livermore National Laboratory and University of California, Davis
(863-92-307)
8:00 a.m. Hyperbolic geometry is often optimal. William P. Thurston*, Princeton University
(863-51-435)
8:30 a.m. Geometric aspects of left-ventricular (LV) hemodynamic simulation based on computed tomographic (CT)studies of the beating heart. Hadil G. Sabbagh*, New York University-Courant Institute
Charles S. Peskin, New York University-Courant Institute
(863-51-369)
9:00 a.m. Variational principles arising from Bayesian image understanding. David Mumford*, Harvard University
(863-68-775)
9:30 a.m. Optimal geometries and crystal growth. Frederick J. Almgren*, Princeton University
(863-49-436)