Environmental Engineering Reference
In-Depth Information
[17] U.S. Environmental Protection Agency. U.S. EPA Clean Air Mercury Rule.
Washington, DC, 2005. Available at http://www.epa.gov.
[18] He S., et al . Mercury oxidation over a vanadian-based selective catalytic
reduction catalyst. Energy & Fuels , 23: 253-259, 2009.
[19] Zhou J.S., et al . Investigation on mercury emission during coal combustion
process. Combustion Science and Technology , 8(2): 103-108, 2002.
[20] Wu X.J. Research on Mercury Control with Semi-Dry Adsorption During Coal
Combustion. College of Mechanial and Energy Engineering, Zhejiang University,
Hangzhou, 4-5, 2004.
[21] Hall B., et al . Mercury chemistry in simulated flue gases related to waste
incineration conditions. Environmental Science and Technology , 24(1): 108-111,
1990.
[22] FrandsenF., et al . Trace element partitioning during coal gasification. Fuel , 20(3):
115-138, 1996.
[23] Bob H. Chemical reactions of mercury in combustion flue gases. Water, Air and
Soil Pollution , 56(4): 3-14, 1991.
[24] Qiao Y., et al . The oxidation kinetics of mercury in Hg/O/H/Cl systems.
Proceedings of the CSEE , 22(12): 138-141, 2002.
[25] Wang Q.H., et al . Investigation on mercury emission during coal combustion
process. Thermal Power Engineering , 17(6): 547-550, 2002.
[26] HallB., et al . The gas phase oxidation of elemental mercury by ozone. Water, Air
and Soil Pollution , (80): 301-315, 1995.
[27] MusmarraA.L.D., et al . Adsorption of mercuric chloride vapors from incinerator
flue gases on calcium hydroxide particle. Combustion Science Technology , 93(4):
277-289, 1993.
[28] Sliger R.N., et al . Kinetic Investigation of the High-Temperature Oxidation of
Mercury by Chlorine Species. Fall Meeting, Western State Section/The
Combustion Institute, Seattle, 1998.
[29] FransdenF., et al . Rasmussen. Progress Energy Combustion Science, 1994.
[30] Zhao Y., et al . Research reviews of mercury control technology in the coal-fired
power plants. Electric Power Technology and Environmental Protection , 26(2):
31-33, 2001.
[31] Jones C. Consensus on air toxics eludes industry to date. Power , 138: 51-59, 1994.
[32] Chow W., Miller M.J., Torrens I.M. Pathways of trace elements in power plants:
interim research results and implications. Fuel Processing Technology , 39: 5-20,
1994.
[33] Hou W.H., et al . Numerical simulation of homogeneous mercury oxidation by
chemical kinetic coupled with computation fluid dynamics. Proceedings of the
CSEE , 30(5): 23-27, 2010.
[34] Sliger R.N., Kramlicha J.C., Marinov N.M. Towards the development of a
chemical kinetic model for the homogeneous oxidation of mercury by chlorine
species. Fuel Processing Technology , (65-66): 423-438, 2000.
[35] Roesler J.F., et al . Kinetic interactions of CO, NO x , and HCl emissions in post
combustion gases. Combustion and Flame, February , 100(3): 495-504, 1995.
[36] Edwards J.R., et al . A study of gas-phase mercury speciation using detailed
chemical kinetics. Air & Waste Management Association , 51: 869-877, 2001.
[37] Xu M.H., et al . Modeling of homogeneous mercury speciation using detailed
chemical kinetics. Combustion and Flame , 132: 208-218, 2003.
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