Technical Papers
Rods & Shells
Monday, 22 July 3:45 PM - 5:35 PM
Session Chair: Doug James, Cornell University
Monday, 22 July 3:45 PM - 5:35 PM
Session Chair: Doug James, Cornell University
A new 3D, discrete rod primitive based on spatial clothoidal elements that accurately and compactly captures the complex shape and motion of winding strands such as vine tendrils, hair ringlets, or curled ribbons.
Romain Casati
INRIA Rhone-Alpes
Florence Bertails-Descoubes
INRIA Rhone-Alpes
A Eulerian approach for simulating thin hyperelastic skin. Previous methods are difficult to use for simulating thin skin due to the need to deal with non-conforming meshes, collision detection, and contact response. This method avoids these problems by working directly on the surface of the skin itself.
Duo Li
The University of British Columbia
Shinjiro Sueda
The University of British Columbia
Debanga Neog
The University of British Columbia
Dinesh Pai
The University Of British Columbia
A new technique for simulating high-resolution surface wrinkling deformations of composite objects consisting of a soft interior and a harder skin.
Paul Kry
McGill University
Olivier Rémillard
McGill University
A technique for simulating plastic deformation in sheets of thin materials such as crumpled paper, dented metal, and wrinkled cloth. The simulation uses adaptive mesh refinement to dynamically align mesh edges with folds and creases, allowing efficient modeling of sharp features and avoiding bend-locking artifacts.
Rahul Narain
University of California, Berkeley
Tobias Pfaff
University of California, Berkeley
James O'Brien
University of California, Berkeley
This paper develops adaptive fracture-simulation techniques to efficiently and realistically simulate multi-layered thin-plate fracture effects, including those caused by tearing motions and in-plane stretching motions.
Oleksiy Busaryev
The Ohio State University
Tamal Dey
The Ohio State University
Huamin Wang
The Ohio State University