Distributed Combusion Simulations

K. Sikorski; Kwan-Liu Ma; Philip J. Smith; Bradley R. Adams

doi:10.1021/ef00042a029

Distributed Combusion Simulations

K. Sikorski, Kwan-Liu Ma, Philip J. Smith, Bradley R. Adams

Research output: Contribution to journal › Article › peer-review

2 Scopus citations

Abstract

This paper reports research in progress. Two types of domain decomposition have been used in distributed computing with networked workstations for the numerical modeling of full-scale utility boilers. The numerical model is a three-dimensional combustion code which couples turbulent computational fluid dynamics with the chemical reaction process and the radiative heat transfer. Two approaches, here called microscale parallelism and macroscale parallelism, are proposed to study the intrinsic parallelism of typical combustion simulations. We describe the implementation of the microscale parallelism as well as its performance on networked workstations.

Original language	English (US)
Pages (from-to)	902-905
Number of pages	4
Journal	Energy and Fuels
Volume	7
Issue number	6
DOIs	https://doi.org/10.1021/ef00042a029
State	Published - Jan 1 1993
Externally published	Yes

ASJC Scopus subject areas

Chemical Engineering(all)
Fuel Technology
Energy Engineering and Power Technology

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AU - Adams, Bradley R.

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N2 - This paper reports research in progress. Two types of domain decomposition have been used in distributed computing with networked workstations for the numerical modeling of full-scale utility boilers. The numerical model is a three-dimensional combustion code which couples turbulent computational fluid dynamics with the chemical reaction process and the radiative heat transfer. Two approaches, here called microscale parallelism and macroscale parallelism, are proposed to study the intrinsic parallelism of typical combustion simulations. We describe the implementation of the microscale parallelism as well as its performance on networked workstations.

AB - This paper reports research in progress. Two types of domain decomposition have been used in distributed computing with networked workstations for the numerical modeling of full-scale utility boilers. The numerical model is a three-dimensional combustion code which couples turbulent computational fluid dynamics with the chemical reaction process and the radiative heat transfer. Two approaches, here called microscale parallelism and macroscale parallelism, are proposed to study the intrinsic parallelism of typical combustion simulations. We describe the implementation of the microscale parallelism as well as its performance on networked workstations.

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Distributed Combusion Simulations

Abstract

ASJC Scopus subject areas

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