TY - GEN
T1 - Partitioned fluid–structure–acoustics interaction on distributed data
T2 - International Conference on Software for Exascale Computing, SPPEXA 2015
AU - Blom, David
AU - Ertl, Thomas
AU - Fernandes, Oliver
AU - Frey, Steffen
AU - Klimach, Harald
AU - Krupp, Verena
AU - Mehl, Miriam
AU - Roller, Sabine
AU - Sternel, Dörte C.
AU - Uekermann, Benjamin
AU - Winter, Tilo
AU - van Zuijlen, Alexander
PY - 2016
Y1 - 2016
N2 - We present a coupled simulation approach for fluid–structure–acoustic interactions (FSAI) as an example for strongly surface coupled multi-physics problems. In addition to the multi-physics character, FSAI feature multi-scale properties as a further challenge. In our partitioned approach, the problem is split into spatially separated subdomains interacting via coupling surfaces. Within each subdomain, scalable, single-physics solvers are used to solve the respective equation systems. The surface coupling between them is realized with the scalable open-source coupling tool preCICE described in the “Partitioned Fluid–Structure– Acoustics Interaction on Distributed Data: Coupling via preCICE”. We show how this approach enables the use of existing solvers and present the overall scaling behavior for a three-dimensional test case with a bending tower generating acoustic waves.We run this simulation with different solvers demonstrating the performance of various solvers and the flexibility of the partitioned approach with the coupling tool preCICE. An efficient and scalable in-situ visualization reducing the amount of data in place at the simulation processors before sending them over the network or to a file system completes the simulation environment.
AB - We present a coupled simulation approach for fluid–structure–acoustic interactions (FSAI) as an example for strongly surface coupled multi-physics problems. In addition to the multi-physics character, FSAI feature multi-scale properties as a further challenge. In our partitioned approach, the problem is split into spatially separated subdomains interacting via coupling surfaces. Within each subdomain, scalable, single-physics solvers are used to solve the respective equation systems. The surface coupling between them is realized with the scalable open-source coupling tool preCICE described in the “Partitioned Fluid–Structure– Acoustics Interaction on Distributed Data: Coupling via preCICE”. We show how this approach enables the use of existing solvers and present the overall scaling behavior for a three-dimensional test case with a bending tower generating acoustic waves.We run this simulation with different solvers demonstrating the performance of various solvers and the flexibility of the partitioned approach with the coupling tool preCICE. An efficient and scalable in-situ visualization reducing the amount of data in place at the simulation processors before sending them over the network or to a file system completes the simulation environment.
UR - http://www.scopus.com/inward/record.url?scp=84989830416&partnerID=8YFLogxK
U2 - 10.1007/978-3-319-40528-5_12
DO - 10.1007/978-3-319-40528-5_12
M3 - Conference contribution
AN - SCOPUS:84989830416
SN - 9783319405261
VL - 113
T3 - Lecture Notes in Computational Science and Engineering
SP - 267
EP - 291
BT - Software for Exascale Computing - SPPEXA 2013-2015
A2 - Bungartz, H.J.
A2 - Neumann, P.
A2 - Nagel, W.
PB - Springer
Y2 - 25 January 2016 through 27 January 2016
ER -