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Pulverized Coal-Fired Boilers and Pollution Control

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Abstract

Fossil fuels, such as coal, natural gas, and fuel oil, are used to generate electric power for industrial, commercial, and residential use. Due to its relatively low cost and abundance throughout the world, coal has historically played a significant role in energy production and approximately 41% of the world power generation was supplied by coal-fired power plants in 2008 [1]. While increased discoveries of natural gas and fuel oil resources, and growth in renewable energy sources, such as wind, solar, and geothermal energy is projected to reduce the use of coal for power generation, energy from coal will continue to be used to satisfy the world’s energy demands.

This chapter was originally published as part of the Encyclopedia of Sustainability Science and Technology edited by Robert A. Meyers. DOI:10.1007/978-1-4419-0851-3

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Abbreviations

Anthracite:

Coal which typically contains 86–97% carbon. Anthracite is considered the highest rank of coal as it has the highest energy content of all coals.

Ash:

Inorganic residues remaining after combustion.

Baghouse:

See fabric filter.

Bituminous coal:

Coal which typically contains 45–86% carbon. Bituminous coal lies between subbituminous coal and anthracite in terms of rank, and is commonly divided into additional subgroups dependent upon the content of volatile material.

Calorific value:

Corresponds to the amount of heat per unit mass when combusted. Can be expressed as gross calorific value, which is the amount of heat liberated during combustion under standardized conditions at constant volume so that all of the water in the products remains in liquid form, or as net calorific value, which is the maximum achievable heat release obtainable in a furnace at constant pressure.

Carbon dioxide (CO2):

A heavy, colorless gas that results from the combustion of fossil fuels and from natural sources.

Carbon monoxide (CO):

A colorless, odorless gas produced by incomplete combustion of fossil fuels.

Coal:

A solid fossil fuel consisting primarily of carbon, hydrogen, nitrogen, oxygen, sulfur, and nitrogen. Coal also contains ash, minerals which do not burn, and moisture. Coal is typically classified or ranked by its volatile matter, fixed carbon content, and calorific value.

Dry FGD:

A process that removes sulfur oxides from the flue gas and results in the formation of a dry product or waste.

Electrostatic precipitator (ESP):

A device for removing particulate from a gas stream based upon using an electric field to charge the particles in the gas and move them to a collecting surface.

Fabric filter:

A device for removing particulate from a gas stream based upon filtering the gas through a filer media.

Flue gas desulfurization (FGD):

Technologies that are used to remove sulfur oxides from the flue gas.

Lignite:

Coal which contains 25–35% carbon and which has a lower calorific value than subbituminous and bituminous coals and typically higher moisture and volatile content. Lignite is the lowest range of coal.

Low-NOX burners (LNB):

Technology for reducing NOX emissions by controlling fuel and air mixing in the flame.

Nitric oxide (NO):

A colorless gas resulting from the combustion of fossil fuels.

Nitrogen dioxide (NO2):

A reddish-brown gas that can be emitted from the combustion of fossil fuels or is formed by atmospheric reaction of nitric oxide (NO) and oxygen (O2).

NOX :

Refers to the total nitric oxide (NO) and nitrogen dioxide NO2 concentration.

Overfire air (OFA):

Technology that reduces NOX emissions based upon air staging.

Reburning:

Technology that reduces NOX emissions based upon staging fuel in a fashion that permits fuel fragments to reduce (or reburn) nitric oxide (NO) in the flue gas.

Selective catalytic reduction (SCR):

Technology that reduces NOX emissions by mixing ammonia into the flue gas and reacting the ammonia with NOX over a catalyst.

Selective noncatalytic reduction (SNCR):

Technology that reduces NOX emissions by mixing an amine-based reagent into the flue gas at a temperature which selectively promotes the reaction of amine (NH2) with nitric oxide to form molecular nitrogen (N2)

Subbituminous coal:

Coal which typically contains 35–45% carbon and which typically has a lower calorific value than bituminous coal and higher moisture and volatile content.

Sulfur dioxide (SO2):

A colorless, irritating gas resulting from the combustion of sulfur contained in fossil fuels, particularly coal.

Sulfur oxides:

Refers to sulfur dioxide (SO2) and sulfur trioxide (SO3).

Volatile matter:

Non-moisture component of coal that is liberated at high temperature in the absence of air.

Wet FGD:

A process that removes sulfur oxides from the flue gas and results in the formation of a product or waste that is a solution or slurry.

Bibliography

  1. International Energy Agency (2010) World energy outlook 2010. International Energy Agency, Paris

    Google Scholar 

  2. World Coal Insitute (2009) The coal resource, a comprehensive overview of coal. World Coal Insitute, London

    Google Scholar 

  3. Freese B (2003) Coal: a human history. Perseus, Cambridge, MA

    Google Scholar 

  4. Stuart R (1824) A descriptive history of the steam engine. John Knight and Henry Lacey, London

    Google Scholar 

  5. Burn RS (1854) The steam engine. H. Ingram, London

    Google Scholar 

  6. Thurston RH (1903) A history of the growth of the steam engine, 4th edn. D. Appelton, New York, Revised

    Google Scholar 

  7. Tagliaferro L (2003) Thomas Edison: inventor of the age of electricity. Lerner, Minneapolis

    Google Scholar 

  8. Woodside M (2007) Thomas A. Edison: the man who lit up the world. Sterling, New York

    Google Scholar 

  9. Babcock & Wilcox Company (1992) Steam: its generation and use, Fortieth edition. Babcock & Wilcox, Barberton

    Google Scholar 

  10. Combustion Engineering, Inc (1981) Combustion: fossil power systems, 3rd edn. Combustion Engineering, Windsor

    Google Scholar 

  11. Heidorn KC (1978) A chronology of important events in the history of air pollution meteorology to 1970. Bulletin of the American Meteorological Society, vol 59, issue 12. American Meteorological Society, Toronto, pp 1589–1597

    Google Scholar 

  12. Thorshiem P (2006) Inventing pollution: coal, smoke, and culture in Britain since 1800. Ohio University Press, Athens

    Google Scholar 

  13. Jacobs C, Kelly WJ (2008) Smogtown: the lung-burning history of pollution in Los Angeles. The Overlook Press, New York

    Google Scholar 

  14. Brimblecombe P (1987) The big smoke: a history of air pollution in London since medieval times. Methuen, London

    Google Scholar 

  15. Greater London Authority (2002) 50 years on: the struggle for air quality in London since the great smog of December 1952. Greater London Authority, London

    Google Scholar 

  16. Davis DL (2002) When smoke ran like water: tales of environmental deception and the battle against pollution. Basic Books, New York

    Google Scholar 

  17. Reitze AW (2005) Stationary source air pollution law. Environmental Law Institute, Washington, DC

    Google Scholar 

  18. Martineau RJ, Novello DP (2004) The clean air act handbook. American Bar Association, Chicago

    Google Scholar 

  19. U.S. Environmental Protection Agency (2005) Review of the National Ambient Air Quality Standards for particulate matter. Policy assessment of scientific and technical information. OAQPS staff paper. EPA-425/R-05-005a. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  20. U.S. Environmental Protection Agency (2009) Integrated science assessment for particulate matter. Office of Research and Development, Research Triangle Park. EPA/600/R-08/139F

    Google Scholar 

  21. U.S. Environmental Protection Agency (2004) Air quality criteria for particulate matter. EPA/600/P-99/002aF. Office of Research and Development, Research Triangle Park

    Google Scholar 

  22. U.S. Environmental Protection Agency (2008) Integrated science assessment for sulfur oxides – health criteria. EPA/600/R-08/047F. Office of Research and Development, Research Triangle Park

    Google Scholar 

  23. U.S. Environmental Protection Agency (2008) Integrated science assessment for oxides of nitrogen – health criteria. EPA/600/R-08/071. Office of Research and Development, Research Triangle Park

    Google Scholar 

  24. Glass NR (1979) Environmental effects of increased coal utilization: ecological effects of gaseous emissions from coal combustion, vol 33. U.S. National Institute of Environmental Health Sciences, Research Triangle Park, pp 249–272

    Google Scholar 

  25. Bennett DA, Goble RL, Linhurst RA (1985) The acidic deposition phenomenon and its effects: critical assessment document. EPA/600/8-85/001. U.S. Environmental Protection Agency, Office of Research and Development, Research Triangle Park

    Google Scholar 

  26. National Acid Precipitation Assessment Program (2005) National Acid Precipitation Assessment Program report to Congress: an integrated assessment. National Acid Precipitation Assessment Program

    Google Scholar 

  27. U.S. Environmental Protection Agency (1997) Nitrogen oxides: impacts on Public Health and the Environment. EPA-452-R-97-002. Office of Air and Radiation, Research Triangle Park

    Google Scholar 

  28. U.S. Environmental Protection Agency (1999) Nitrogen oxides (NOx), why and how they are controlled. EPA-456/F-99-006R. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  29. McConville A (1997) Emissions standards handbook. IEACR/96. IEA Coal Research, London

    Google Scholar 

  30. U.S. Environmental Protection Agency (2000) Air quality criteria for carbon monoxide. EPA 600/P-99/001F. Office of Research and Development, Washington, DC

    Google Scholar 

  31. U.S. Environmental Protection Agency (1998) Study of hazardous air pollutant emissions from Electric Utility Steam Generating Units. Final report to congress, vols 1 and 2. EPA-453/R-98-004a, b. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  32. U.S. Environmental Protection Agency (1997) Mercury study report to congress, vols I–VII. EPA-452/R-97-003, 010. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  33. U.S. Environmental Protection Agency (2000) Regulatory finding on the emissions of hazardous air pollutants from Electric Utility Steam Generating Units, vol 65(245). Federal Register, Research Triangle Park, pp 79825–79831

    Google Scholar 

  34. National Research Council (2000) Toxicological effects of methylmercury. National Academy Press, Washington, DC

    Google Scholar 

  35. European Commission (2001) Ambient air pollution by mercury (Hg). Position paper. Office for Official Publications of the European Communities, Luxembourg

    Google Scholar 

  36. Environment Canada (2010) Risk management strategy for mercury

    Google Scholar 

  37. UNEP Chemicals Branch, DTIE (2010) The global atmospheric mercury assessment: sources, emissions and transport. United Nations Environment Programme, Geneva

    Google Scholar 

  38. US Environmental Protection Agency (2011) National Emission Standards for Hazardous Air Pollutants from Coal and Oil-Fired Electric Utility Steam Generating Units and Standards of Performance for Fossil Fuel-Fired Electric Utility, Industrial-Commercial- Institutional, and Small Industrial-Commercial-Institutional Steam Generating Units, vol 76(85). Federal Register, Research Triangle Park, pp 24976–25147

    Google Scholar 

  39. Mitchell JFB (1989) The “Greenhouse” effect and climate change, vol 27, No 1. American Geophysical Union, Washington, DC, pp 115–139

    Google Scholar 

  40. U.S. Environmental Protection Agency (1995) Compliation of air pollutant emissions factors, 5th edn. AP-42. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  41. Eggleston HS, Buendia L, Miwa K, Ngara T, Tanabe K (eds) (2006) 2006 IPCG guidelines for National Greenhouse Gas Inventories. National Greenhouse Gas Inventories Programme. Intergovernmental Panel on Climate Change, Hayama, Kanagawa

    Google Scholar 

  42. Ciferno JD, Fout TE, Jones AP, Murphy JT (2009) Capture carbon from existing coal-fired power plants, Chemical Engineering Progress. American Instutite of Chemical Engineers, New York, pp 33–41

    Google Scholar 

  43. IRA Greenhouse R&D Programme (2007) CO2 capture ready plants. Report No. 2007/4. International Energy Agency, Cheltenham

    Google Scholar 

  44. Newton GH, Schieber C, Socha RG, Kramlich JC (1990) Mechanisms governing fine particulate emissions from coal flames. DOE/PC/73743-T8. U.S. Department of Energy, Pittsburgh

    Google Scholar 

  45. Gluskoter HJ (1978) An introduction to the occurrence of mineral matter in Coal. [ed.] Richard W. Bryers. Ash deposits and corrosion due to impurities in combustion gases. Hemisphere Publishing Department, Washington, DC, pp 3–19

    Google Scholar 

  46. Chen Y, Shah N, Huggins FE, Huffman GP, Linak WP, Andrew Miller C (2004) Investigation of primary fine particulate matter from coal combustion by computer-controlled scanning electron microscopy, vol 85. Fuel Processing Technology, Elsevier, Amsterdam, pp 743–761

    Google Scholar 

  47. Folsom BA, Heap MP, Pohl JH (1986) State-of-the-art review summary and program plan. Effects of coal quality on power plant performance and costs, vol 1. Report No. CS-4283. Electric Power Research Institute, Palo Alto

    Google Scholar 

  48. Miller CA, Linak WP (2002) Primary particles generated by the combustion of heavy fuel oil and coal. Review of research results from EPA’s National Risk Management Research Laboratory. EPA-600/R-02-093. U.S. Environmental Protection Agency, Office of Research and Development, Research Triangle Park

    Google Scholar 

  49. Flagan RC, Seinfeld JH (1988) Fundamentals of air pollution engineering. Prentice Hall, Englewood Cliffs

    Google Scholar 

  50. Flagan RC (1978) Submicron particles from coal combustion. In: Proceedings of the seventeenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 97–104

    Google Scholar 

  51. Kramlich JC, Chenevert B, Park J, Hoffman DA, Butcher EK (1996) Suppression of fine ash formation in pulverized coal flames. Final Technical Report prepared for DOE Grant No. DE-FG22-92PC92548. U.S. Department of Energy, Pittsburgh Energy Technology Center, Pittsburgh

    Google Scholar 

  52. Acurex Environmental Corporation (1993) Emission factor documentation for AP-42 Section 1.1 bituminous and subbituminous coal combustion. U.S. Environmental Protection Agency, Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  53. Attar A, Dupuis F (1979) Data on the distribution of organic sulfur functional groups in coal. Preprints of the Papers of the Spring National Meeting of the Division of Fuel Chemistry, vol 24(1). American Chemical Society, Honolulu, pp 166–177

    Google Scholar 

  54. Pershing DW, Silcox GD (1988) SOx fundamentals. Combustion of solid fuels – a one week intensive course. International Flame Research Foundation, Noordwijkerhout

    Google Scholar 

  55. Davis K, Dissel A, Valentine J (2001) The evolution of pyritic and organic sulfur from pulverized coal particles during combustion. The 2nd joint meeting of the US Sections of The Combustion Institute. The Combustion Institute, Oakland

    Google Scholar 

  56. Muller III CH, Schofield K, Steinberg M, Broida HP (1978) Sulfur chemistry in flames. In: Proceedings of the seventeenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 867–879

    Google Scholar 

  57. Kramlich JC, Malte PC, Grosshandler WL (1981) The reaction of fuel-sulfur in hydrocarbon combustion. In: Proceedings of the eighteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 151–161

    Google Scholar 

  58. Shao D, Hutchinson EJ, Heidbrink J, Pan W-P, Chou C-L (1994) Behavior of sulfur during coal pyrolysis. J Anal Appl Pyrolysis 30:91–100. Elsevier, Amsterdam

    Google Scholar 

  59. Castaldini C, Angwin M (1977) Boiler design and operating variables affecting uncontrolled sulfur emissions from pulverized-coal-fired steam generators. EPA-450/3-77-047. U.S. Environmental Protection Agency, Research Triangle Park

    Google Scholar 

  60. Folkedahl BC, Zygarlicke CJ (2004) Sulfur retention in North Dakota lignite coal ash. Preprints of the papers of the spring national meeting of the Division of Fuel Chemistry, vol 49(1). American Chemical Society, Anaheim, pp 167–168

    Google Scholar 

  61. Blythe G, Dombrowski K (2004) SO3 mitigation guide update. Report No. 1004168. Electric Power Research Institute, Palo Alto

    Google Scholar 

  62. Srivastava RK, Miller CA, Erickson C, Jambhekar R (2004) Emissions of sulfur trioxide from coal-fired power plants. J Air Waste Manag Assoc 54:750–762. Air and Waste Management Association, Pittsburgh

    Google Scholar 

  63. Glassman I (1987) Combustion, 2nd edn. Academic, Orlando

    Google Scholar 

  64. Fenimore CP (1971) Formation of nitric oxide in premixed hydrocarbon flames. In: Proceedings of the thirteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 373–389

    Google Scholar 

  65. Pershing DW, Wendt JOL (1977) The influence of flame temperature and coal composition on thermal and fuel NOx. In: Proceedings of the sixteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 389–399

    Google Scholar 

  66. Sarofim AF, Beér JM (1990) The fate of fuel nitrogen and ash during combustion of pulverized coal, Chapter 4. In: Lemieux PM, Air and Energy Engineering Research Laboratory (eds) Pulverized coal combustion: pollutant formation and control, 1970–1980. U.S. Environmental Protection Agency, Air and Energy Engineering Research Laboratory, Research Triangle Park

    Google Scholar 

  67. Hayhurst AN, Vince IM (1980) Nitric oxide formation from N2 in flames. Prog Energy Combust Sci 6:35–51. Elsevier, Amsterdam

    Google Scholar 

  68. Kelemen SR, Gorbaty ML, Vaughn SN, Kwiatek PJ (1993) Quantification of nitrogen forms in argonne premium coals. Preprints of the papers of the spring national meeting of the Division of Fuel Chemistry, vol 38(2). American Chemical Society, Denver, pp 384–392

    Google Scholar 

  69. Mitra-Kirtley S,. Mullins OC, Branthaver J, Van Elp J, Cramer SP (1993) Nitrogen XANES studies of fossil fuels. Preprints of the papers of the fall national meeting of the Division of Fuel Chemistry, vol 38(3). American Chemical Society, Chicago, pp 762–768

    Google Scholar 

  70. Solomon PR, Fletcher TH (1994) Impact of coal pyrolysis on combustion. In: Proceedings of the twenty-fifth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 463–474

    Google Scholar 

  71. Pohl JH, Sarofim AF (1977) Devolatilization and oxidization of coal nitrogen. In: Proceedings of the sixteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 491–501

    Google Scholar 

  72. Rees DP, Smoot LD, Hedman PO (1981) Nitrogen oxide formation inside a laboratory pulverized coal combustor. In: Proceedings of the eighteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 1305–1311

    Google Scholar 

  73. Chen JC, Niksa S (1992) Suppressed nitrogen evolution from coal-derived soot and low-volatility coal chars. In: Proceedings of the twenty-fourth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 1269–1276

    Google Scholar 

  74. Zhang H (2001) Nitrogen evolution and soot formation during secondary coal pyrolysis. PhD dissertation, Brigham Young University

    Google Scholar 

  75. Pohl JH, Chen SL, Heap MP, Pershing DW (1983) Correlation of NOx emissions with basic physical and chemical characteristics of coal. In: Proceedings of the 1982 joint symposium on NOx control, vol 2. Electric Power Research Institute, Palo Alto

    Google Scholar 

  76. Pershing DW, Heap MP, Chen SL (1990) Bench-scale experiments on the formation and control of NOx emissions from pulverized coal combustion, Chapter 9. In: Pulverized coal combustion: pollutant formation and control, 1970–1980. U.S. Environmental Protection Agency, Air and Energy Engineering Research Laboratory, Research Triangle Park

    Google Scholar 

  77. Chen SL, Heap MP, Pershing DW, Martin GB (1982) Influence of coal composition on the fate of volatile and char nitrogen during combustion. In: Proceedings of the nineteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 1271–1280

    Google Scholar 

  78. Bartok W, Crawford AR, Piegari GJ (1971) Systematic field study of NOx emission control methods for utility boilers. APTD-1163. U.S. Environmental Protection Agency, Office of Air Programs, Research Triangle Park

    Google Scholar 

  79. Payne R, Heap MP, Pershing DW (1981) NOx formation and control in pulverized-coal flames. In: Proceedings of the low rank coal technology development workshop, 17–18 June 1981. San Antonio

    Google Scholar 

  80. Licht W (1980) Air pollution control engineering, basic calculations for particulate collection. Marcel Dekker, New York

    Google Scholar 

  81. Strauss W (1975) Industrial gas cleaning, 2nd edn. Pergamon Press, New York

    Google Scholar 

  82. Kinsey JS, Schliesser S, Englehart PJ (1985) Control technology for sources of PM10. Draft report prepared for EPA Contract No. 68-02-03891, work assignment 4. U.S. Environmental Protection Agency, Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  83. U.S. Environmental Protection Agency (1982) Control techniques for particulate emissions from stationary sources, vol 1. EPA-450/3-81-005a. Emissions Standards and Engineering Division, Research Triangle Park

    Google Scholar 

  84. White HJ (1977) Electrostatic precipitation of fly ash. J Air Pollut Control Assoc 27(1):15–21. Air Pollution Control Association, Pittsburgh

    Google Scholar 

  85. U.S Environmental Protection Agency (2011) Electrostatic precipitator plan review. APTI Course No. SI:412B. U.S. Environmental Protection Agency, Research Triangle Park

    Google Scholar 

  86. White HJ (1977) Electrostatic precipitation of fly ash. Fly ash and furnace gas characteristics. J Air Pollut Control Assoc 27(2):114–120. Air Pollution Control Association, Pittsburgh

    Google Scholar 

  87. Turner JH, Lawless PA, Yamamoto T, Coy DW, Mckenna JD, Mycock JC, Nunn AB, Greiner GP, Vatavuk WM (2002) Electrostatic precipitators. In: Mussatti DC (ed) EPA Air pollution control cost manual. U.S. Environmental Protection Agency, Office of Air Quality Planning and Standards, Research Triangle Park. Chapter 3 in Section 6, Particulate matter controls

    Google Scholar 

  88. Szabo MF, Shah YM (1979) Inspection manual for evaluation of electrostatic precipitator performance. EPA-340/1-79-007. U.S. Environmental Protection Agency, Division of Stationary Source Enforcement, Washington, DC

    Google Scholar 

  89. White HJ (1977) Electrostatic precipitation of fly ash. Precipitator design. J Air Pollut Control Assoc 27(3):206–217. Air Pollution Control Association, Pittsburgh

    Google Scholar 

  90. National Air Pollution Control Administration (1969) Control techniques for particulate air pollutants. NAPCA Publication No. AP-51. National Air Pollution Control Administration, Washington, DC

    Google Scholar 

  91. Turner JH, Lawless PA, Yamamoto T, Coy DW, Mckenna JD, Mycock JC, Nunn AB, Greiner GP, Vatavuk WM (2002) Baghouses and filters. In: Mussatti DC (ed) EPA air pollution control cost manual. U.S. Environmental Protection Agency, Office of Air Quality Planning and Standards, Research Triangle Park. Chapter 1 in Section 6, Particulate matter controls

    Google Scholar 

  92. Cushing KM, Merritt RL, Chang RL (1990) Operating history and current status of fabric filters in the utility industry. J Air Waste Manage Assoc 40(7):1051–1058. Air and Waste Management Association, Pittsburgh

    Google Scholar 

  93. Belba VH, Theron Grubb W, Chang R (1992) The potential of pulse-jet baghouses for utility boilers. Part 1: a worldwide survey of users. J Air Waste Manage Assoc 42(2):209–217. Air and Waste Management Association, Pittsburgh

    Google Scholar 

  94. Sloat DG, Gaikwad RP, Chang RL (1993) The potential of pulse-jet baghouses for utility boilers. Part 3: comparative economics of pulse-jet baghouse precipitators and reverse-gas baghouses. J Air Waste Manage Assoc 43:120–128. Air and Waste Management Association, Pittsburgh

    Google Scholar 

  95. EC/R Incorporated (1998) Stationary source control techniques document for fine particulate matter. Report prepared for EPA Contract No. 68-D-98-026, Work Assignment No. 0-08. U.S. Environmental Protection Agency, Research Triangle Park

    Google Scholar 

  96. Felix LG, Cushing KM, Grubb WT, Giovanni DV (1988) Fabric filters for the electric utility industry. In: Guildelines for fabrics and bags, vol 3, CS-5161. Electric Power Research Instutute, Palo Alto

    Google Scholar 

  97. Electric Power Research Instutute (2005) Utility boiler baghouse update. Report No. 1010367. Electric Power Research Instutute, Palo Alto

    Google Scholar 

  98. Dennis R (1974) Collection efficiency as a function of particle size, shape and density: theory and experience. J Air Pollut Control Assoc 23(12):1156–1161. Air Pollution Control Association, Pittsburgh

    Google Scholar 

  99. Carr RC, Smith WB (1974) Fabric filter technology for utility coal-fired power plants. J Air Pollut Control Assoc 34(1):79–89. Air Pollution Control Association, Pittsburgh

    Google Scholar 

  100. Carr RC, Cushing KM, Gallaer CA, Smith WB (1992) Fabric filters for the electric utility industry. In: Guidelines for fabric filter design, vol 5, CS-5161. Electric Power Research Institute, Palo Alto

    Google Scholar 

  101. Bustard CJ, Cushing KM, Pontius DH, Smith WB (1988) Fabric filters for the electric utility indistry. In: General concepts, vol 1, CS-5161. Electric Power Research Institute, Palo Alto

    Google Scholar 

  102. Devitt T, Gestle R, Gibbs L, Hartman S, Klier R (1978) Flue gas desulfurization system capabilities for coal-fired steam generators, vol II. Technical report. U.S. Environmental Protection Agency, Office of Research and Development, Washington, DC, EPA-600/7-78-032b

    Google Scholar 

  103. Wojciech J, Singer C, Srivastava RK, Tsirigotis PE (1999) Status of SO2 scrubbing technologies. EPRI-DOE-EPA combined utility air pollution control symposium. TR-113187-V1. Electric Power Research Institute, Palo Alto

    Google Scholar 

  104. Srivastava RK (2000) Controlling SO2 emissions: a review of technologies. EPA/600/R-00/093. U.S. Environmental Protection Agency, Office of Research and Development, Washington, DC

    Google Scholar 

  105. Kohl A, Riesenfeld F (1985) Gas purification, 4th edn. Gulf, Houston

    Google Scholar 

  106. Weiler H, Ellison W (1997) Wet gypsum-yielding FGD experience using quicklime reagent. EPRI-DOE-EPA combined utility air pollutant control symposium. The mega symposium. TR-108683-V2. Electric Power Research Institute, Palo Alto

    Google Scholar 

  107. United Engineers and Constructors, Inc (1991) Economic evaluation of flue gas desulfurization systems. GS-7193, vol 1. Electric Power Research Institute, Palo Alto

    Google Scholar 

  108. United Engineers and Constructors, Inc (1992) Economic evaluation of flue gas desulfurization systems. GS-7193, vol 2. Electric Power Research Institute, Palo Alto

    Google Scholar 

  109. United Engineers and Constructors, Inc (1995) Economic evaluation of flue gas desulfurization systems. GS-7193-V3, vol 3. Electric Power Research Institute, Palo Alto

    Google Scholar 

  110. Fox MR, Hunt TG (1990) Flue gas desulfurization using dry sodium injection. Presented at the EPA/EPRI 1990 SO2 control symposium. s.n., New Orleans

    Google Scholar 

  111. Radojevic M (1991) Scrubbing of flue gases with sea-water. Presented at the AFRC/JFRC international conference on environmental control of combustion processes, 7–10 October 1991. s.n., Honolulu

    Google Scholar 

  112. Zhou W, Maly P, Brooks J, Nareddy S, Swanson L, Moyeda D (2010) Design and test furnace sorbent injection for SO2 removal in a tangentially fired boiler. Environmental Engineering Science, vol 27, Number 4, Mary Ann Liebert, New Rochelle, pp 337–345

    Google Scholar 

  113. Nolan PS (1996) Emission control technologies for coal-fired power plants. Presented at the People’s Republic of China Ministry of Electric Power seminar, 22–25 April 1996, s.n., Beijing

    Google Scholar 

  114. Henzel DS, Laseke BA, Smith EO, Swenson DO (1982) Handbook for flue gas desulfurization scrubbing with limestone. Noyes Data Corporation, Park Ridge

    Google Scholar 

  115. Miller SF, Miller BG, Scaroni AW (1997) Limestone performance in a pilot-scale forced oxidation scrubber. EPRI-DOE-EPA combined utility air pollutant control symposium. The mega symposium. TR-108683-V2, Electric Power Research Institute, Palo Alto

    Google Scholar 

  116. Brogen C, Klingspor JS (1997) Impact of limestone grind size on WFGD performance, August. EPRI-DOE-EPA combined utility air pollutant control symposium. The mega symposium. TR-108683-V2. Electric Power Research Institute, Palo Alto

    Google Scholar 

  117. Blythe G, Horton B, Rhudy R (1999) EPRI FGD operating and maintenance cost survey. EPRI-DOE-EPA combined utility air pollution control symposium. TR-113187-V1, Electric Power Research Institute, Palo Alto

    Google Scholar 

  118. Masters K (1985) Spray drying handbook, 4th edn. Wiley, New York

    Google Scholar 

  119. Burnett TA, Anderson KD (1981) Technical review of dry FGD systems and economic evaluation of spray dryer FGD systems. EPA-600/7-81-014. U.S. Environmental Protection Agency, Office of Research and Development, Washington, DC

    Google Scholar 

  120. Lachapelle DG, Brown JS, Stern RD (1974) Overview of environmental protection agency’s NOx control technology for stationary combustion sources. Presented at the 67th annual meeting American Insitute Of Chemical Engineers

    Google Scholar 

  121. Srivastava RK, Hall RE, Khan S, Culligan K, Lani BW (2005) Nitrogen oxides emission control options for coal-fired electric utility boilers. J Air Waste Manage Assoc 55:1367–1388. Air and Waste Management Association, Pittsburgh

    Google Scholar 

  122. Hjalmarsson A-K (1990) NOx control technologies for coal combustion. IEACR/24. IEA Coal Research, London

    Google Scholar 

  123. U.S. Environmental Protection Agency (1992) Evaluation and costing of NOx controls for existing utility boilers in the NESCAUM region. EPA-453/R-92-010. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  124. U.S. Environmental Protection Agency (1994) Alternative control technologies document: NOx emissions from utility boilers. EPA-453/R-94-023. Office of Air Quality Planning and Standards, Research Triangle Park

    Google Scholar 

  125. Heap MP, Folsom BA (1990) Optimization of burner/combustion chamber design to minimize NOx formation during pulverized coal combustion, Chapter 10. In: Pulverized coal combustion: pollutant formation and control, 1970–1980. U.S. Environmental Protection Agency, Air and Energy Engineering Research Laboratory, Research Triangle Park

    Google Scholar 

  126. Sommer TM, Jensen AD, Melick TA, Orban PC, Christensen MS (1993) Applying European low NOx burner technology to U.S. installations. Presented at the 1993 EPRI/EPA joint symposium on stationary combustion NOx control, 24–27 May 1993. EPRI/EPA, Miami Beach

    Google Scholar 

  127. LaRue AD (1989) The XCL burner – latest developments and operating experience. Presented at the 1989 EPRI/EPA joint symposium on stationary combustion NOx control, 6–9 Mar 1989. EPRI/EPA, San Francisco

    Google Scholar 

  128. Vatsky J, Sweeney TW (1991) Development of an ultra-low NOx pulverizer coal burner. Presented at the 1991 EPRI/EPA joint symposium on stationary combustion NOx control, 25–28 Mar 1991. EPRI/EPA, Washington, DC

    Google Scholar 

  129. U.S. Department of Energy (1996) Reducing emissions of nitrogen oxides via low-NOx burner technologies. Topical report number 5. U.S. Department of Energy, Pittsburgh

    Google Scholar 

  130. Campbell LM, Stone DK, Shareef GS (1991) Sourcebook: NOx control technology data. U.S. Environmental Protection Agency, Research Triangle Park

    Google Scholar 

  131. Wendt JOL, Sternling CV, Matovich MA (1973) Reduction of sulfur trioxide and nitrogen oxides by secondary fuel injection. In: Proceedings of the fourteenth symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 897–904

    Google Scholar 

  132. U.S. Environmental Protection Agency (1996) Control of NOx emissions by reburning. EPA/625/R-96/001. U.S. Environmental Protection Agency, Cincinnati

    Google Scholar 

  133. Chen SL, McCarthy JM, Clark WC, Heap MP, Seeker WR, Pershing DW (1986) Bench and pilot scale process evaluation of reburning for in-furnace NOx reduction. In: Proceedings of the twenty-first symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 1159–1169

    Google Scholar 

  134. Payne R, Moyeda DK (1994) Scale up and modeling of gas reburning. In: Moussa A, Presser C, Rini MJ, Weber R, Woodward G, Gupta AK (eds) Combustion modeling, scaling and air toxins. ASME FACT, vol 18. American Society of Mechanical Engineers, New York, pp 115–122

    Google Scholar 

  135. Lyon RK (1987) Thermal DeNOx, controlling nitrogen oxides emissions by a noncatalytic process. Environ Sci Technol 21(3):231–236. American Chemical Society, Washington, DC

    Google Scholar 

  136. Jødal M, Nielsen C, Hulgaard T, Dam-Johansen K (1990) Pilot-scale experiments with ammonia and urea as reductants in selective non-catalytic reduction of nitric oxide. In: Proceedings of the twenty-third symposium (international) on combustion. The Combustion Institute, Pittsburgh, pp 237–243

    Google Scholar 

  137. Muzio L, Quartucy G (1993) State-of-the-art assessment of SNCR technology. Topical Report No. TR-102414. Electric Power Research Institute, Palto Alto

    Google Scholar 

  138. Berg M, Bering H, Payne R (1993) NOx reduction by urea injection in a coal fired utility boiler. Presented at the 1993 EPRI/EPA joint symposium on stationary combustion NOx control, 24–27 May 1993. EPRI/EPA, Miami Beach

    Google Scholar 

  139. U.S. Department of Energy (2005) Selective catalytic reduction (SCR) technology for the control of nitrogen oxide emissions from coal-fired boilers. Topical Report Number 23. U.S. Department of Energy, Pittsburgh

    Google Scholar 

  140. Pereira CJ, Amiridis MD (1995) NOx control from stationary sources: overview of regulations, technology, and research frontiers, Chapter 1. In: Umit S, Agarwal SK, Marcelin Ozkan G (eds) Reduction of nitrogen oxide emissions. American Chemical Society, Washington, DC, pp 1–13

    Google Scholar 

  141. Nischt W, Woolridge B, Bigalbal J (1999) Recent SCR retrofit experience in coal-fired boilers. Presented at POWER-GEN international, 30 Nov–2 Dec 1999. New Orleans

    Google Scholar 

  142. Tonn DP, Uysal TA (1998) 220 MW SCR installation on new coal-fired project. Presented at the Institute of Clean Air Companies ICAC forum ’98, 18–29 Mar 1998, Durham

    Google Scholar 

  143. Khan S, Shroff G, Tarpara J, Srivastava R (1997) SCR applications: addressing coal chacteristics concerns. EPRI-DOE-EPA combined utility air pollutant control symposium – the mega sumposium. Technical report TR-108683-V1. Electric Power Research Institute, Palo Alto

    Google Scholar 

  144. Foerter D, Jozewicz W (2001) Cost of selective catalytic reduction (SCR) application for nox control on coal-fired boilers. EPA/600/R-01/087. U.S. Environmental Protection Agency, Office of Research and Development, Washington, DC

    Google Scholar 

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Moyeda, D.K. (2013). Pulverized Coal-Fired Boilers and Pollution Control. In: Malhotra, R. (eds) Fossil Energy. Springer, New York, NY. https://doi.org/10.1007/978-1-4614-5722-0_14

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