Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware

Stefan Lemvig Glimberg; Kenny Erleben; Jens C Bennetsen

doi:10.2312/PE/vriphys/vriphys09/011-020

Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware

Stefan Lemvig Glimberg
, Kenny Erleben
, Jens C Bennetsen

Ramboll Foundation
University of Copenhagen

Research output: Chapter in Book/Report/Conference proceeding › Article in proceedings › Research › peer-review

Abstract

We present a fluid solver for the real-time interactive simulation of inviscid, ideal fluid flow. The simulation is based on the evolution of discrete vortex filaments, which allow a dramatic increase of detail and performance compared to traditional methods used in Computer Graphics. As a fully lagrangian method the simulation is not restricted to a fixed domain and does not suffer from numerical dissipation. Vortex filaments arise naturally in real flows and thus provide an excellent building block for modelling realistic smoke. We present a GPU-based implementation which allows the interactive experimentation with 3D fluid flow on desktop computers and also in distributed immersive virtual environments.
Keyword: Smoke simulation, Fire engineering, GPU, Multigrid solver

Original language	English
Title of host publication	Workshop in Virtual Reality Interaction and Physical Simulation : VRIPHYS 09
Publication date	2009
Pages	11-20
DOIs	https://doi.org/10.2312/PE/vriphys/vriphys09/011-020
Publication status	Published - 2009
Externally published	Yes
Event	6th Workshop on Virtual Reality Interactions and Physical Simulations - Karlsruhe, Germany Duration: 5 Nov 2009 → 6 Nov 2009 Conference number: 6

Workshop

Workshop	6th Workshop on Virtual Reality Interactions and Physical Simulations
Number	6
Country/Territory	Germany
City	Karlsruhe
Period	05/11/2009 → 06/11/2009

Access to Document

10.2312/PE/vriphys/vriphys09/011-020

https://diglib.eg.org/EG/DL/PE/vriphys/vriphys09/011-020.pdf.abstract.pdf;internal&action=action.digitallibrary.ShowPaperAbstract

OpenUrl availability

Check availability in DTU Findit

Cite this

@inproceedings{4984563ca62a40689fdc0506ca1c7bdd,

title = "Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware",

abstract = "We present a fluid solver for the real-time interactive simulation of inviscid, ideal fluid flow. The simulation is based on the evolution of discrete vortex filaments, which allow a dramatic increase of detail and performance compared to traditional methods used in Computer Graphics. As a fully lagrangian method the simulation is not restricted to a fixed domain and does not suffer from numerical dissipation. Vortex filaments arise naturally in real flows and thus provide an excellent building block for modelling realistic smoke. We present a GPU-based implementation which allows the interactive experimentation with 3D fluid flow on desktop computers and also in distributed immersive virtual environments. Keyword: Smoke simulation, Fire engineering, GPU, Multigrid solver",

author = "Glimberg, \{Stefan Lemvig\} and Kenny Erleben and Bennetsen, \{Jens C\}",

year = "2009",

doi = "10.2312/PE/vriphys/vriphys09/011-020",

language = "English",

pages = "11--20",

booktitle = "Workshop in Virtual Reality Interaction and Physical Simulation",

note = "6th Workshop on Virtual Reality Interactions and Physical Simulations, VRIPHYS 09 ; Conference date: 05-11-2009 Through 06-11-2009",

}

Glimberg, SL, Erleben, K & Bennetsen, JC 2009, Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware. in Workshop in Virtual Reality Interaction and Physical Simulation: VRIPHYS 09. pp. 11-20, 6th Workshop on Virtual Reality Interactions and Physical Simulations, Karlsruhe, Baden-Württemberg, Germany, 05/11/2009. https://doi.org/10.2312/PE/vriphys/vriphys09/011-020

TY - GEN

T1 - Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware

AU - Glimberg, Stefan Lemvig

AU - Erleben, Kenny

AU - Bennetsen, Jens C

N1 - Conference code: 6

PY - 2009

Y1 - 2009

N2 - We present a fluid solver for the real-time interactive simulation of inviscid, ideal fluid flow. The simulation is based on the evolution of discrete vortex filaments, which allow a dramatic increase of detail and performance compared to traditional methods used in Computer Graphics. As a fully lagrangian method the simulation is not restricted to a fixed domain and does not suffer from numerical dissipation. Vortex filaments arise naturally in real flows and thus provide an excellent building block for modelling realistic smoke. We present a GPU-based implementation which allows the interactive experimentation with 3D fluid flow on desktop computers and also in distributed immersive virtual environments. Keyword: Smoke simulation, Fire engineering, GPU, Multigrid solver

AB - We present a fluid solver for the real-time interactive simulation of inviscid, ideal fluid flow. The simulation is based on the evolution of discrete vortex filaments, which allow a dramatic increase of detail and performance compared to traditional methods used in Computer Graphics. As a fully lagrangian method the simulation is not restricted to a fixed domain and does not suffer from numerical dissipation. Vortex filaments arise naturally in real flows and thus provide an excellent building block for modelling realistic smoke. We present a GPU-based implementation which allows the interactive experimentation with 3D fluid flow on desktop computers and also in distributed immersive virtual environments. Keyword: Smoke simulation, Fire engineering, GPU, Multigrid solver

U2 - 10.2312/PE/vriphys/vriphys09/011-020

DO - 10.2312/PE/vriphys/vriphys09/011-020

M3 - Article in proceedings

SP - 11

EP - 20

BT - Workshop in Virtual Reality Interaction and Physical Simulation

T2 - 6th Workshop on Virtual Reality Interactions and Physical Simulations

Y2 - 5 November 2009 through 6 November 2009

ER -

Smoke Simulation for Fire Engineering using a Multigrid Method on Graphics Hardware

Abstract

Workshop

Access to Document

OpenUrl availability

Fingerprint

Cite this