William J. Morris
University of Utah
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Journal of The Air & Waste Management Association | 2013
Constance L. Senior; William J. Morris; Thomas A. Lewandowski
Oxyfuel combustion is a promising technology that may greatly facilitate carbon capture and sequestration by increasing the relative CO2 content of the combustion emission stream. However, the potential effect of enhanced oxygen combustion conditions on emissions of criteria and hazardous air pollutants (e.g., acid gases, particulates, metals and organics) is not well studied. It is possible that combustion under oxyfuel conditions could produce emissions posing different risks than those currently being managed by the power industry (e.g., by changing the valence state of metals). The data available for addressing these concerns are quite limited and are typically derived from laboratory-scale or pilot-scale tests. A review of the available data does suggest that oxyfuel combustion may decrease the air emissions of some pollutants (e.g., SO2, NOx, particulates) whereas data for other pollutants are too limited to draw any conclusions. The oxy-combustion systems that have been proposed to date do not have a conventional “stack” and combustion flue gas is treated in such a way that solid or liquid waste streams are the major outputs. Use of this technology will therefore shift emissions from air to solid or liquid waste streams, but the risk management implications of this potential change have yet to be assessed. Truly useful studies of the potential effects of oxyfuel combustion on power plant emissions will require construction of integrated systems containing a combustion system coupled to a CO2 processing unit. Sampling and analysis to assess potential emission effects should be an essential part of integrated system tests. Implications: Oxyfuel combustion may facilitate carbon capture and sequestration by increasing the relative CO2 content of the combustion emission stream. However, the potential effect of enhanced oxygen combustion conditions on emissions of criteria and hazardous air pollutants has not been well studied. Combustion under oxyfuel conditions could produce emissions posing different risks than those currently being managed by the power industry. Therefore, before moving further with oxyfuel combustion as a new technology, it is appropriate to summarize the current understanding of potential emissions risk and to identify data gaps as priorities for future research.
International Journal of Greenhouse Gas Control | 2011
Dunxi Yu; William J. Morris; Raphael Erickson; Jost O.L. Wendt; Andrew Fry; Constance L. Senior
Proceedings of the Combustion Institute | 2011
William J. Morris; Dunxi Yu; Jost O.L. Wendt
Proceedings of the Combustion Institute | 2013
William J. Morris; Dunxi Yu; Jost O.L. Wendt
Archive | 2013
William J. Morris; Kenneth E. Baldrey; Constance L. Senior; Ramon E. Bisque
Archive | 2012
Constance L. Senior; Gregory M. Filippelli; Cynthia Jean Bustard; Michael D. Durham; William J. Morris; Sharon Sjostrom
Archive | 2013
Holly Krutka; William J. Morris; Sharon Sjostrom; Travis Starns
Archive | 2013
Holly Krutka; Sharon Sjostrom; William J. Morris
2010 AIChE Annual Meeting, 10AIChE | 2010
William J. Morris; Dunxi Yu; Jost O.L. Wendt
2010 AIChE Annual Meeting, 10AIChE | 2010
William J. Morris; Dunxi Yu; Jost O.L. Wendt