Technical Papers
Fluid Grids & Meshes
Tuesday, 23 July 10:45 AM - 12:15 PM
Session Chair: Chris Wojtan, Institute of Science and Technology Austria
Tuesday, 23 July 10:45 AM - 12:15 PM
Session Chair: Chris Wojtan, Institute of Science and Technology Austria
An efficient new subspace method of re-simulating an existing fluid simulation with different parameters. The technique analyzes the results of an existing simulation to find an efficient, compact representation that allows perturbed versions to be computed very efficiently.
Theodore Kim
University of California, Santa Barbara
John Delaney
University of California, Santa Barbara
This paper proposes automated techniques for synthesizing Fourier-based ocean waves that match a pre-visualization input, allowing artists to enhance wave animations with higher-frequency detail that moves consistently with the coarse waves, tweak wave shapes to flatten troughs and sharpen peaks, and compute a velocity field of the water analytically.
Michael Nielsen
Aarhus Universitet
Andreas Söderström
Weta Digital
Robert Bridson
The University of British Columbia
An efficient grid structure that extends a uniform grid to create a significantly larger far-field grid and allows simulation of significantly larger domains than a uniform grid, thus supporting capture of far-field boundary conditions while maintaining the same resolution in regions of interest.
Bo Zhu
Stanford University
Wenlong Lu
Stanford Univeristy
Matthew Cong
Stanford University
Byungmoon Kim
Adobe Systems Incorporated
Ronald Fedkiw
Stanford University
This Lagrangian finite-element method simulates liquids and solids in a unified framework. Local mesh improvement operations maintain a high‐quality tetrahedral discretization as the mesh is advected by fluid flow.
Pascal Clausen
University of California, Berkeley
Martin Wicke
University of California, Berkeley
Jonathan R. Shewchuk
University of California, Berkeley
James F. O'Brien
University of California, Berkeley