Mercury Oxidation via Catalytic Barrier Filters Phase II
Author(s) -
Wayne Seames,
Michael D. Mann,
Darrin S. Muggli,
Jason Hrdlicka,
Carol A. Horabik
Publication year - 2007
Language(s) - English
Resource type - Reports
DOI - 10.2172/924875
Subject(s) - flue gas , mercury (programming language) , coal combustion products , waste management , combustion , coal , catalysis , combustor , chemistry , elemental mercury , chemical engineering , environmental science , environmental chemistry , engineering , organic chemistry , computer science , programming language
In 2004, the Department of Energy National Energy Technology Laboratory awarded the University of North Dakota a Phase II University Coal Research grant to explore the feasibility of using barrier filters coated with a catalyst to oxidize elemental mercury in coal combustion flue gas streams. Oxidized mercury is substantially easier to remove than elemental mercury. If successful, this technique has the potential to substantially reduce mercury control costs for those installations that already utilize baghouse barrier filters for particulate removal. Completed in 2004, Phase I of this project successfully met its objectives of screening and assessing the possible feasibility of using catalyst coated barrier filters for the oxidation of vapor phase elemental mercury in coal combustion generated flue gas streams. Completed in September 2007, Phase II of this project successfully met its three objectives. First, an effective coating method for a catalytic barrier filter was found. Second, the effects of a simulated flue gas on the catalysts in a bench-scale reactor were determined. Finally, the performance of the best catalyst was assessed using real flue gas generated by a 19 kW research combustor firing each of three separate coal types
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