We present several enhancements to model-reduced fluid simulation that allow improved simulation bases and twoway solid-fluid coupling. Specifically, we present a basis enrichment scheme that allows us to combine data driven or artistically derived bases with more general analytic bases derived from Laplacian Eigenfunctions. We handle two-way solid-fluid coupling in a time-splitting fashion— we alternately timestep the fluid and rigid body simulators, while taking into account the effects of the fluid on the rigid bodies and vice versa. We employ the vortex panel method to handle solid-fluid coupling and use dynamic pressure to compute the effect of the fluid on rigid bodies
"The objective of this thesis is to further extend the application range of immersed computational a...
The aim of this work is to present an overview about the combination of the Reduced Basis Method (RB...
We present an efficient and stable method for simulating the two-way coupling of incompressible flui...
We present several enhancements to model-reduced fluid simulation that allow improved simulation bas...
We present several enhancements to model-reduced fluid simulation that allow improved simulation bas...
Figure 1: Left: A solid stirring smoke runs at interactive rates, two orders of magnitude faster tha...
International audienceA simple method is developed to couple accurately the motion of rigid bodies t...
Partitioned approaches, where the fluid and solid solvers are treated as black boxes with limited ex...
Driven by demand for high-fidelity computer-generated imagery, physics-based animation has become an...
Purpose: A fluid-structure coupling partitioned scheme involving rigid bodies supported by spring-da...
International audienceThis paper deals with a new solid-fluid coupling algorithm between a rigid bod...
We introduce the Reduced Immersed Method (RIM) for the real-time simulation of two-way coupled incom...
We present a partitioned Model Order Reduction method for multiphysics problems, that is based on a ...
Thesis (Sc. D.)--Massachusetts Institute of Technology, Dept. of Civil and Environmental Engineering...
We introduce the Reduced Immersed Method (RIM) for the real-time simulation of two-way coupled incom...
"The objective of this thesis is to further extend the application range of immersed computational a...
The aim of this work is to present an overview about the combination of the Reduced Basis Method (RB...
We present an efficient and stable method for simulating the two-way coupling of incompressible flui...
We present several enhancements to model-reduced fluid simulation that allow improved simulation bas...
We present several enhancements to model-reduced fluid simulation that allow improved simulation bas...
Figure 1: Left: A solid stirring smoke runs at interactive rates, two orders of magnitude faster tha...
International audienceA simple method is developed to couple accurately the motion of rigid bodies t...
Partitioned approaches, where the fluid and solid solvers are treated as black boxes with limited ex...
Driven by demand for high-fidelity computer-generated imagery, physics-based animation has become an...
Purpose: A fluid-structure coupling partitioned scheme involving rigid bodies supported by spring-da...
International audienceThis paper deals with a new solid-fluid coupling algorithm between a rigid bod...
We introduce the Reduced Immersed Method (RIM) for the real-time simulation of two-way coupled incom...
We present a partitioned Model Order Reduction method for multiphysics problems, that is based on a ...
Thesis (Sc. D.)--Massachusetts Institute of Technology, Dept. of Civil and Environmental Engineering...
We introduce the Reduced Immersed Method (RIM) for the real-time simulation of two-way coupled incom...
"The objective of this thesis is to further extend the application range of immersed computational a...
The aim of this work is to present an overview about the combination of the Reduced Basis Method (RB...
We present an efficient and stable method for simulating the two-way coupling of incompressible flui...