SBIR-STTR Award

Leveraging the Uintah Computational Framework for Commercial Simulation of Industrial Flares
Award last edited on: 10/25/2024

Sponsored Program
STTR
Awarding Agency
DOE
Total Award Amount
$2,598,079
Award Phase
2
Solicitation Topic Code
02b
Principal Investigator
Marc A Cremer

Company Information

Reaction Engineering International

189 East Fort Union Boulevard Suite 201
Midvale, UT 84107
   (801) 364-6925
   swensen@reaction-eng.com
   www.reaction-eng.com

Research Institution

University of Utah

Phase I

Contract Number: DE-SC0017039
Start Date: 2/21/2017    Completed: 1/20/2018
Phase I year
2017
Phase I Amount
$228,079
Advanced modeling and simulation software, such as the Uintah Computational Framework, has been developed in the US, in part, through significant funding by the Department of Energy Office of Advanced Scientific Computing. This software, as well as similar advanced simulation software, requires expert users and high performance computing systems to effectively utilize them, which has resulted in underutilization of these heavily funded tools. In this phase I program, the Uintah Computational Framework will be leveraged for commercial simulation of industrial flares on publicly available HPC facilities, making this high fidelity software available to flare operators and designers to improve combustion efficiency, and reduce emissions of greenhouse gases and other toxic emissions. How this problem or situation is being addressed - The small business will collaborate with developers of the components of the Uintah Computational Framework to improve the accuracy of flare simulations. Leveraging the small business’ 26 year experience working with industrial clients to solve combustion related emissions and performance problems using high end simulation tools, the Uintah software will be hardened for efficient and accurate computational fluid dynamic simulations of industrial flares. The small business will make the Uintah Computational Framework available to industrial flare operators through a web based graphical user interface hosted by small business servers accessing commercially available high performance computing facilities in the US. What is to be done in Phase I? - In the phase I effort, the necessary components of the Uintah Computational Framework, including its Large Eddy Simulation based turbulence models, will be identified and ported to a commercial provider of high performance computing facilities in the US. The small business, in collaboration with the research institution, will simulate operation of a full- scale industrial flare, and will make comparisons with available data for the selected flare to demonstrate accuracy of the simulation over a time-frame and cost that is commercially feasible. In addition, the small business will develop and implement a graphical user interface for the Uintah Computational Framework to ease the setup, simulation, and post processing associated with its use. The small business will demonstrate a “software as a service” based approach through a web based specification of flare simulation inputs, high performance computing based simulation, and web based case monitoring and post processing of results. Commercial Applications and Other Benefits - The improved flare simulation capability commercialized in this project will provide more accurate information related to combustion efficiency and emissions from flares. The software as a service model that will be developed in this program for industrial flare simulations will also be used to make high performance computing available for designers and users of other combustion equipment to improve performance and reduce emissions in a more economical fashion than can be achieved through legacy simulation and experimentation alone.

Phase II

Contract Number: DE-SC0017039
Start Date: 5/21/2018    Completed: 5/20/2020
Phase II year
2018
(last award dollars: 2021)
Phase II Amount
$2,370,000

Advanced modeling and simulation software, such as the Uintah Computational Framework (Uintah), has been developed in the US, through significant funding by the Department of Energy Office of Advanced Scientific Computing, but has been underutilized by US industry. We will leverage Uintah for commercial simulation of industrial flares on publicly available HPC facilities, and we will further develop a graphical user interface making this software available to operators and designers to improve combustion efficiency and reduce emissions. How this problem or situation is being addressed - The small business will collaborate with developers of Uintah as well as flare manufacturers, testing companies, and operators to improve the accuracy of flare simulations. The Uintah software will be hardened for efficient simulations of industrial flares. The small business will make the hardened Uintah Computational Framework available to industrial flare operators through a web based graphical user interface hosted by commercial servers accessing commercially available high performance computing facilities in the US. What was done in Phase I? - In phase I, the necessary components of Uintah were installed at a commercial high performance computing provider. The small business, in collaboration with the research institution, simulated operation of two industrial flares, making comparisons with available data and demonstrating accuracy over a time-frame and cost that is commercially feasible. In addition, the small business developed a basic graphical user interface to ease the setup, simulation, and post processing steps. What is planned for Phase II? - In Phase II, the small business will continue work with the research institution, a flare testing services company, an independent software consultant, and an advisory team including an original equipment manufacturer, a petrochemical and energy engineering and construction company, and a petrochemicals producer to expand the use of Uintah to multiple libraries of elevated flares and multipoint ground flares. The libraries will be implemented into the graphical user interface and linked to 2-3 commercial computing facilities. Commercial Applications and Other Benefits - The improved flare simulation capability will provide more accuracy related to combustion efficiency and emissions from flares. The software-as- a-service model for industrial flare simulations will be used to make high performance computing available to designers and users of flares to improve performance and reduce emissions in a more economical fashion than can be achieved through legacy simulation and experimentation alone.