Multiphysics Simulation using Implicit Sequential Coupling
&
Fluid Structure Interaction of Gas Turbine Exhaust Ducts
View this webinar (PDF)
- (Members Only
)
View this webinar (audio/video)
*
*To view this webinar, you need to download an .arf player
. Please click on the highlighted link to download this player (webex.com
).
Event Type:Webinar
Location: Online,USA
Date: July 17, 2008
|
(Note: This broadcast is part of the NAFEMS vendor series that
allows various solutions providers the opportunity to deliver
technical information to the NAFEMS community. NAFEMS does not
endorse any vendor, but tries to provide an unbiased view of the
marketplace.)
In an expanding range of applications, engineers must be able to
accurately predict how complex products will behave in real-world
environments where multiple types of coupled physics
interact. Multiphysics simulation is becoming crucial in the
product design process for a rapidly growing number of companies,
and has the potential to influence most engineering simulation
efforts in coming years.
This presentation will focus on implicit sequential coupling, which
couples multiple single physics into one unified multiphysics
simulation. With implicit sequential coupling, multiphysics
problems are solved by solving each physics discipline
sequentially. Results from each individual solution are
passed as loads from one physics discipline to another, with
convergence between the individual disciplines obtained at each
point during the solution. The robust convergence behavior of
implicit sequential coupling ensures accuracy, and improves
solution efficiency.
A wide variety of coupled-physics problems can be solved by
employing implicit sequential coupling. Examples include
thermal-structural coupling, thermal-electromagnetic coupling,
electromagnetic-structural coupling, and fluid structure
interaction (FSI). Many products including;
micro-electromechanical systems (MEMS), electronic devices, and
elastic artery modeling for stent design require a multiphysics
solution and can utilize implicit sequential coupling.
The presentation will highlight a number of real-world examples and
customer applications to demonstrate the industry applications of
this technology. Panelists will be available at the end of
the presentations to address any questions about implicit
sequential coupling, fluid structure interaction, and multiphysics
solution technology.
Fluid Structure Interaction of Gas Turbine Exhaust Ducts
Ødegaard & Danneskiold-Samsøe A/S has performed a
coupled-field analysis to study the effects of flow-induced
vibrations on thin-walled structures such as gas turbine exhaust
ducts. These vibrations have been caused by either external vortex
sheet separation or internal flows with large regions of
separation. The presentation will focus on the methodology to
obtain and transfer these pressure fluctuations from the flow field
solution to the structural simulation.
ØDS is a consulting firm; owned by Lloyd’s Register,
with headquarters in Copenhagen, Denmark. The firm assists
clients with troubleshooting, verification analysis, and
measurements within the key areas of Oil and Gas, Marine, and Noise
and Vibration.
Agenda
Welcome & Introduction
Matthew Ladzinski, NAFEMS North America
Multiphysics Simulation using Implicit Sequential Coupling
Stephen Scampoli and John Stokes, ANSYS
Fluid Structure Interaction of Gas Turbine Exhaust Ducts
Johan Gullman-Strand, Ødegaard & Danneskiold-Samsøe A/S
Q & A Session
Closing
|
forgot password >
Shopping Basket 
| Description |
Qty |
Item Price |
your basket is empty
|
Webinar Presenters
Stephen Scampoli
 Stephen Scampoli, product manager at ANSYS, Inc., joined ANSYS in
1999. He has over fifteen years of experience in the analysis
and simulation industry, and has extensive experience in
Multiphysics modeling.
He holds a bachelor’s and a master’s degree from Tufts
University.
Johan Gullman-Strand, Ph.D.
 Johan Gullman-Strand, consulting engineer at Ødegaard &
Danneskiold-Samsøe A/S, joined ØDS in 2005. He has a
background in research within turbulence modelling and three years
experience of fluid-structure interaction simulations.
He holds a Ph.D. in Fluid Mechanics from the Royal Institute of
Technology in Sweden.
John Stokes
 John Stokes, product manager at ANSYS, Inc., joined the ANSYS CFX
team in 1997. In that time he has accumulated extensive experience
in a broad range of complex CFD applications.
He holds a mechanical engineering bachelor’s degree from
McGill University and master’s degree from the University of
Waterloo.
|
