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If you missed SIGGRAPH 2017 watch a selection of recorded Live Streaming Sessions.

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Technical Papers

Fluids II

Immersed

3D Artist

Wednesday, 2 August, 10:45 am - 12:35 pm, Los Angeles Convention Center, Los Angeles Convention Center - Room 152
Session Chair: Tamar Shinar, University of California, Riverside

Variational Stokes: A Unified Pressure-Viscosity Solver for Accurate Viscous Liquids

This novel variational Stokes solver to treat the delicate coupling between pressure and viscosity in grid-based viscous liquid animation yields more accurate surface behavior, allowing it to reproduce liquid rope-coiling effects and provide superior preservation of fine-surface details and momentum.

Egor Larionov
Side Effects Software Inc., University of Waterloo

Christopher Batty
University of Waterloo

Robert Bridson
Autodesk Inc.

Infinite Continuous Adaptivity for Incompressible SPH

A novel adaptive method that allows for unprecedented adaptivity resulting in high surface detail at low computational cost with no restrictions on particle sizes or interactions.

Rene Winchenbach
Siegen Universität

Hendrik Hochstetter
Siegen Universität

Andreas Kolb
Siegen Universität

Water Wave Packets

A new method for simulating water surface waves by propagating Lagrangian packets that carry information about an entire group of waves. The approach is unconditionally stable, simulates high-resolution geometric details, runs in real time, and presents a straightforward interface for artistic control.

Chris Wojtan
Institute of Science and Technology Austria

Stefan Jeschke
Institute of Science and Technology Austria, NVIDIA Research

Multi-Scale Vorticle Fluids

A general multi-scale method for simulating three-dimensional smoke with resolution variation suitable for perspective cameras and regions of importance.

Alexis Angelidis
Pixar Animation Studios

Multi-Species Simulation of Porous Sand and Water Mixtures

This multi-species model for simulation of gravity-driven landslides and debris flows with porous sand and water interactions uses the material point method and mixture theory to describe individual phases coupled through a momentum exchange term.

Andre Pradhana Tampubolon
University of California, Los Angeles

Theodore Gast
University of California, Los Angeles

Gergely Klár
DreamWorks Animation

Chuyuan Fu
University of California, Los Angeles

Joseph Teran
Walt Disney Animation Studios, Disney Research, University of California, Los Angeles

Chenfanfu Jiang
University of California, Los Angeles

Ken Museth
DreamWorks Animation