Characterizing Impacts of High Temperatures and Pressures in Oxy-Coal Combustion Systems

 

100 kW Oxy-Fuel Combustor at the<br/>University of Utah’s Industrial<br/>Combustion and Gasification Research
100 kW Oxy-Fuel Combustor at the
University of Utah’s Industrial
Combustion and Gasification Research
Performer: 
Reaction Engineering International
Website:  Reaction Engineering International
Award Number:  FE0025168
Project Duration:  09/01/2015 – 08/31/2018
Total Award Value:  $1,570,596
DOE Share:  $1,251,541
Performer Share:  $319,055
Technology Area:  Advanced Combustion Systems
Key Technology: 
Location:  Murray, Utah
Salt Lake City, Utah

Project Description

Reaction Engineering International (REI) will team with experts from the University of Utah, Praxair, and Jupiter Oxygen Corporation to perform multi-scale experiments, coupled with mechanism development, and computational fluid dynamics (CFD) modeling to generate modeling tools and mechanisms that are capable of describing high temperature and pressurized oxy-coal combustion. Experimental work will be performed at the University of Utah’s Industrial Combustion and Gasification Research Facility using three different pilot-scale reactors including a 100 kilowatt Oxy-Fuel Combustor (above), 1.5 megawatt multi-fuel furnace, and 300 kilowatt Pressurized (17bar) Entrained Flow Gasifier. The experiments will be tailored to provide a comprehensive data set describing heat release profiles, material temperatures, and mineral matter behavior under high temperature and elevated temperature high-pressure flames generated by oxygen combustion of coal with zero or minimum recycle. Mechanism development and CFD-based combustion modeling will be performed by REI. This work builds on DOE contract NT0005288.

Project Benefits

The experimental data, oxy-firing system principles, and oxy-combustion process mechanisms provided by the REI team can be used by electric utilities, equipment suppliers, design firms, software vendors, and government agencies to assess the use of high-temperature and elevated temperature high-pressure oxy-combustion in current research and to guide development of new oxy-coal boiler designs. The resulting validated mechanisms are expected to enable design of full-scale minimum recycle and high pressure oxy-coal combustion systems.

Contact Information

Federal Project Manager 
Arun Bose: arun.bose@netl.doe.gov
Technology Manager 
John Rockey: john.rockey@netl.doe.gov
Principal Investigator 
Kevin Davis: davis@reaction-eng.com
 

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