參考文獻 |
Altwicker, E. R., “Formation of Precursors to Chlorinated Dioxin/furans under
Heterogeneous Conditions”, Combustion Science & Technology, Vol.88,
pp. 349-368 (1993).
Babushok, V. I. and Tsang, W., “Gas-Phase Mechanism for Dioxin
Formation”, Chemosphere, Vol.51, pp 1023-1029 (2003).
Ballschmiter, K., W. Zoller, C. Scholtz and A. Nottrodt, “Destruction of PCDD
and PCDF in Bleached Pulp by Chlorine Dioxide Treatment”,
Chemosphere, Vol. 12, pp. 585-597 (1983).
Beer, J. M. and Martin, G. B., “Application of Advanced Technology for NO
Control: Alternate Fuels and Fluidized Bed Coal Combustion”, AIChE
Symposium Series, Vol. 74, pp. 93-114 (1978).
Bosch H and Janssen F., “De-NOx Catalyst Review”, Catalyst Today, Vol. 2, pp.
369-532 (1988).
Chi, K. H., Chang, S. H. and Chang, M. B., “Characteristics of PCDD/Fs
Distributions in Vapor and Solid Phases and Emissions from the Waelz
Process”, Environmental Science & Technology, Vol.40, pp. 1770–1775
(2006).
Chi, K. H., Chang, S. H. and Chang, M. B., “Reduction of Dioxin-like
Compound Emissions from a Waelz Plant with Adsorbent Injection and a
Dual Baghouse Filter System”, Environmental Science & Technology,
Vol.42, pp. 2111–2117 (2008).
Devahasdin, S., Fan, C., Jr., Li, K., Chen, D. H., “TiO2 Photocatalytic
Oxidation of Nitric Oxide: Transient Behavior and Reaction Kinetics”,
Journal of Photochemistry and Photobiology A: Chemistry, Vol.156, pp. 161
-170 (2003).
Dickson, L. C., Lenoir, D. and Hutzinger, O., “Surface-Catalyzed Formation of
Chlorinated Dibenzodioxins and Dibenzofurans during Incineration”,
Chemosphere, Vol.19, pp. 277-282 (1989).
Dickson, L. C., Lenoir, D., Hutzinger, O., “Quantitative Comparison of de
Novo and Formation of Polychlorinated Dibenzo-p-dioxins under
Simulated Municipal Solid Waste Incinerator Postcombustion Conditions”,
Environmental Science & Technology, Vol.26, pp. 1822-1828 (1992).
Fenimore, C. P. and Moore, J., “Quenched Carbon Monoxide in Fuel-Lean
Flame Gas”, Combustion and Flame, Vol.22, pp. 343-351 (1974).
Froese, K. L. and Hutzinger, O., “Polychlorinated Benzene, Phenol, Dibenzo-
P-dioxin, and Dibenzofuran in Heterogeneous Combustion Reaction of
acetylene”, Environmental Science and Technology, Vol.30, pp. 998-
1008(1996).
Furusawa, T., Honda, T., Takano, J. and Kunii, D., “Abatement of Nitric Oxide
Emission in Fluidized Bed Combustion of Coal”, Chemical Engineering of
Japan, Vol. 11, pp. 377-383 (1978).
Griffin, R.D., “A New Theory of Dioxin Formation in Municipal Solid Waste
Combustion”, Chemosphere, Vol.15, pp. 1987-1990 (1986).
Gullett, B. K., Bruce, K. R., Beach, O.L., “Effect of Sulfur Dioxide on the
Formation Mechanism of Polychlorinated Dibenzodioxin and
Dibenzofuran Municipal Waste Combustors”, Environmental Science &
Technology, Vol.26, pp. 1938-1943 (1992).
Hagenmaier, H., Jraft, M., Brunner, H., Haag, R., “Catalytic Effect of Fly Ash
from Waste Incineration Facilities on the Formation and Decomposition of
Polychlorinated Dibenzo-p-dioxions and Polychlorinated Dibenzofurans”,
Environmental Science & Technology, Vol.21, pp. 1080-1084 (1987).
Harrison, R. M., Rapsomanikis, S., “Environmental analysis using chromatography
interfaced with atomic spectroscopy”, Ellis Horwood Chichester, England,
(1989).
Hong, S. C., Lee, S. M., Park, K. H., MnOx/CeO2-TiO2 Mixed Oxide Catalysts
for the Selective Catalytic Reduction of NO with NH3 at Low
Temperature”, Chemical Engineering Journal, Vol.195, pp. 323-331
(2012).
Houser, T. J., M. E. Mcarville and Gu. Z. Ying, “Nitric-Oxide Formation from
Fuel Nitrogen Model-Compound”, Fuel, Vol.67, pp. 642-650 (1988).
Kamata, H., Ueno, Shun-ichiro, Naito, T., Yamaguchi, A. and Ito, S., “Mercury
Oxidation by Hydrochloric Acid over a VOx/TiO2 Catalyst”, Catalysis
Communications, pp. 2441–2444 (2008).
Kamata, H., Ueno, Shun-ichiro, Sato, N. and Naito, T., “Mercury Oxidation by
Hydrochloric Acid over TiO2 Supported Metal Oxide Catalysts in Coal
Combustion Flue Gas”, Fuel Processing Technology, Vol. 90, pp. 947-951
(2009).
Kapteijn, F., Singoredjo, L , Nico J. J. Dekker, Jacob A. Moulijn, “Kinetics of
the Selective Catalytic Reduction of NO with NH3 over Mn2O3-
WO3/γ-alumina”, Industrial & Engineering Chemistry Research,
Vol. 32, pp. 445-452 (2009).
Kellie, S., Duan, Y., Cao, Y., Chu, P., Mehta, A., Carty, R., Liu, K., Pan, W. P.
and Riley, J. T., “Mercury Emissions from a 100 MW Wall fired Boiler as
Measured by Memicontinuous Mercury Monitor and Ontario Hydro
Method”, Fuel Processing Technology, Vol.85, pp. 487-499 (2004).
Koebel, M., Madia, G., Elsener, M., “Selective Catalytic Reduction of NO and
NO2 at Low Temperature”, Catalysis Today, Vol.73, pp. 239-247 (2002).
Komatsu, T., Nunokawa, M., Moon, I.S., Takahara, T., Namba, S., Yashima, T.,
“Kinetic Studies of Reduction of Nitric Oxide with Ammonia on Cu2+-
Exchanged Zeolites”, Journal of Catalysis, Vol.148, pp. 427-437 (1994).
Lange, N. A., “Handbook of Chemistry”, McGraw–Hill, New York,
pp. 288-290 (1976).
Lim, K. J., “Environmental Assessment of Utility Boiler Combustion
Modification NOx Controls”, Vol.1 Technical Results, EPA-600/7-80-075a
(1980).
Liu, Y., Wang, H. and Wu, Z., “Catalytic Oxidation of Gas-phase Mercury over
Co/TiO2 Catalysts Prepared by Sol-gel Mothed”, Catalysis
Communications, pp. 1291-1294 (2011).
Lutter, R. and Irwin, E., “Mercury in the Environment: A Volatile Problem”,
Environment, Vol.44, pp. 24-40 (2002).
McKay, G., “Dioxin Characterisation Formation and Minimisation during
Municipal Solid Waste (MSW) Incineration: Review”, Chemical
Engineering Journal, Vol.86, pp. 343-368 (2002).
Miller, G. T., Jr., “Living in the Environment. An Introduction to
Environmental Science”, 7th ed., California, Wadsworth, pp. 705 (1992).
Milligan, M. S. and Altwicker, E., “Formation of Dioxins: Competing Rates
between Chemical Similar Precursors and De Novo Reaction”,
Environmental Science & Technology, Vol.27, pp. 1595-1601 (1993).
Ogawa, H., Orita, N., Horaguchi, M., Suzuki, T., Okada, M., Yasuda, S.,
“Dioxin Reduction by Sulfur Component Addition”, Chemosphere, Vol.32,
pp. 151-157 (1996).
Pefia, D.A., Uphade, B.S., Smirniotis, P.G., “TiO2-supported Metal Oxide
Catalysts for Low-temperature Selective Catalytic Reduction of NO with
NH3: I. Evaluation and Characterization of First Row Transition Metals”,
Journal of Catalysis, Vol.221, pp. 421-431 (2004).
Qi, G., Yang, R. T., Chang, R., “MnOx-CeO2 Mixed Oxides Prepared by
Co-precipitation for Selective Catalytic Reduction of NO with NH3 at Low
Temperatures”, Applied Catalysis B: Environmental, Vol.51, pp. 93-106
(2004).
Richardson, R., “NOx Scrubbing Technology Breakthrough”, NASF Surface
Technology White Papers, Vol.76, pp. 1-7 (2014).
Schroeder, W. H. and Munthe, J., “Atmospheric Mercury - An Overview”,
Atmospheric Environment, Vol.32, pp. 809-822 (1998).
Schuster, E., “The Behavior of Mercury in the Soil with Special Emphasis on
Complexation and Adsorption Processes-a Review of the Literature”,
Water, Air and Soil Pollution, Vol.56, pp. 667-680 (1991).
Shaub, W. M. and Tsang, W., “Dioxin Formation in Incinerators”,
Environmental Science & Technology, Vol.17, pp. 721-730 (1983).
Shaw, J. T., “Emissions of Nitrogen Oxides in Fluidized-bed Combustion and
Applications”, Applied Science Publishers, London and New York, Chap.
6, pp.227-260 (1983).
Sjovall, H., Olsson, L., Fridell, E., Blint, R. J., “Selective Catalytic Reduction
of NOx with NH3 over Cu-ZSM-5 - The Effect of Changing the Gas
Composition”, Applied Catalysis B: Environmental, Vol.64, pp. 180-188
(2006).
Stieglitz, L. and Vogg, H., “On Formation Conditions of PCDD PCDF in Fly-
ash from Municipal Waste Incinerators”, Chemosphere, Vol.16, pp. 1917-
1922 (1987).
Sun, R. D., Irie, H., Nishikawa, T., Nakajima, A., Watanabe, T., Hashimoto, K.,
“Suppressing Effect of CaCO3 on the Dioxins Emission from Poly Vinyl
Chloride (PVC) Incineration”, Polymer Degradation and Stability, Vol.79,
pp. 253-256 (2003).
Tae S. P., Soon K. J., Sung H. H., “Selective Catalytic Reduction of Nitrogen
Oxides with NH3 over Natural Manganese Ore at Low Temperature”,
Industrial & Engineering Chemistry Research, Vol. 40, pp. 4491-4495
(2001).
Weber, R., Sakurai, T., and Hagenmaier, H., “Low Temperature Decomposition
of PCDD/PCDF, Chlorobenzenes and PAHs by TiO2-based V2O5-WO3
Catalysts”, Applied Catalysis B: Environmental, Vol.20, pp. 249-256
(1999).
Wu, C. Y., Li, H., Li, Y., Zhang, J., “Superior Activity of MnOx-CeO2/TiO2
Catalytic Oxidation of Elemental Mercury at Low Flue Gas
Temperatures”, Applied Catalysis B: Environmental, Vol.111, pp. 381-388
(2012).
吳榮宗,工業觸媒概論,國興出版社,1989。
王仁澤,環境與工業毒物學,高立圖書有限公司,1993。
孫瑞遠,蜂巢式氧化銅觸媒對氮氧化物還原反應之研究,國立成功大學航太
所碩士,2007。
楊文毅,鈀觸媒氧化焚化廢氣中有機物之研究,國立中興大學環工所碩
士論文,2000。
吳俊欣,都市垃圾焚化爐排氣中含汞污染物之採樣與分析暨廢輪胎熱裂
解製備粉狀活性碳對氯化汞蒸氣之吸附效能測試,國立中山大學環
工所碩士論文,2000。
張君正、張木彬,氮氧化物生成機制與控制技術之探討,工業污染防
治,第50期,1994。
竹內浩士、指宿堯嗣,光觸媒商業最前線,全華科技圖書股份有限公
司, 2005。 |