DocumentCode :
65051
Title :
Scalable Implicit Flow Solver for Realistic Wing Simulations with Flow Control
Author :
Rasquin, Michel ; Smith, Colin ; Chitale, Kedar ; Seol, E. Seegyoung ; Matthews, Benjamin A. ; Martin, J.L. ; Sahni, Onkar ; Loy, Raymond M. ; Shephard, Mark S. ; Jansen, Kenneth E.
Author_Institution :
Argonne Nat. Lab., Argonne, IL, USA
Volume :
16
Issue :
6
fYear :
2014
fDate :
Nov.-Dec. 2014
Firstpage :
13
Lastpage :
21
Abstract :
Massively parallel computation provides an enormous capacity to perform simulations on a timescale that can change the paradigm of how scientists, engineers, and other practitioners use simulations to address discovery and design. This work considers an active flow control application on a realistic and complex wing design that could be leveraged by a scalable, fully implicit, unstructured flow solver and access to high-performance computing resources. The article describes the active flow control application; then summarizes the main features in the implementation of a massively parallel turbulent flow solver, PHASTA; and finally demonstrates the methods strong scalability at extreme scale. Scaling studies performed with unstructured meshes of 11 and 92 billion elements on the Argonne Leadership Computing Facility´s Blue Gene/Q Mira machine with up to 786,432 cores and 3,145,728 MPI processes.
Keywords :
aerospace components; control engineering computing; flow control; flow simulation; parallel processing; physics computing; turbulence; Argonne leadership computing facility Blue Gene/Q Mira machine; MPI processes; PHASTA massively parallel turbulent flow solver; active flow control; high-performance computing resources; massively parallel computation; realistic wing simulations; scalable fully implicit unstructured flow solver; scalable implicit flow solver; Computer performance; Differential equations; Finite element analysis; High performance computing; Mathematical model; Numerical analysis; Parallel processing; Scalability; Scientific computing; Simulation; HPC; finite element methods; high-performance computing; leadership computing; numerical analysis; parallel algorithms; partial differential equations; scientific computing;
fLanguage :
English
Journal_Title :
Computing in Science & Engineering
Publisher :
ieee
ISSN :
1521-9615
Type :
jour
DOI :
10.1109/MCSE.2014.75
Filename :
6970999
Link To Document :
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