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172                                            New Trends in Coal Conversion

         Kosstrin, H.M., 2017. Wet scrubbing and gas filtration of syngas in IGCC systems. Integrated
             Gasification Combined Cycle (IGCC) Technologies 375e383.
         Lim, E.J., Jung, S.Y., Lee, S.C., Kim, J.C., 2017. Enhancing the Effect of CoAl 2 O 4 on
             the Simultaneous Removal of H 2 Sand NH 3 on Co- and Mo- Based Catal-sorbents in
             IGCC.
         Liu, J.H., Yang, L.J., Xiong, G.L., Xin, C.Y., 2011. Experimental investigation on the
             improving removal of fine particles in LIFAC flue gas desulfurization by heterogeneous
             condensation. Journal of Fuel Chemistry and Technology 39 (1), 1e7.
         Lu, J., Ren, X., 2014. Analysis and discussion on formation and control of primary particulate
             matter generated from coal-fired power plants. Journal of Air and Waste Management
             Association 64 (12), 1342e1351.
         Maas, P., Nauels, N., Zhao, L., Markewitz, P., Scherer, V., Modigell, M., Stolten, D., Hake, J.F.,
             2016. Energetic and economic evaluation of membrane-based carbon capture routes for
             power plant processes. International Journal of Greenhouse Gas Control 44, 124e139.
         Mathieu, Y., Tzanis, L., Soulard, M., Patarin, J., Vierling, M., Moli  ere, M., 2013. Adsorption of
             SO x by oxide materials: a review. Fuel Processing Technology 114, 81e100.
         McConville, A., 1997. Emissions Standards Handbook. IEACR/96. IEA Coal Research, Lon-
             don, 201 pp.
         Miller, B.G., 2016. Emissions Control Strategies for Power Plants. In: Clean Coal Engineering
             Technology, second ed. Elsevier.
         Moghtaderi, B., Wall, T., Doroodchi, E., Shah, K., Zhou, C., Song, H., 2015. Chemical Looping
             Oxygen Generation for Oxy-fuel Combustion. Newcastle Institute for Energy & Resources.
             The University of Newcastle, Australia.
         Mollenhauer, K., Tsch€ oke, H., 2010. Handbook of Diesel Engines. Springer, pp. 445e446.
         NETL, 2002. Advanced Fossil Power Systems Comparison Study. National Energy Technology
             Laboratory, Department of Energy, Pittsburgh, PA.
         Nicol, K., 2013. Recent Developments in Particulate Control. IEA Clean Coal Center (218).
         Oki, Y., Hamada, H., Kobayashi, M., Yuri, I., Hara, S., 2017. Development of high-efficiency
             oxy-fuel IGCC system. Energy Procedia 114, 501e504.
         Omidvarborna, H., Kumar, A., Kim, D.S., 2015. NO x emissions from low-temperature com-
             bustion of biodiesel made of various feedstocks and blends. Fuel Processing Technology
             140, 113e118.
         Onda, K., Kasuga, Y., Kato, K., Fujiwara, M., Tanimoto, M., 1997. Electric discharge removal
             of SO 2 and NO x from combustion flue gas by pulsed corona discharge. Energy Conversion
             and Management 38 (10e13), 1377e1387.
         Patent US 2015/0140498 A1, 2015. Low NO x Burner and Method of Operating a Low NO x
             Burner. Inventor: Joseph Colannino (Clearsign Combustion Corporation).
         Patent CN103791495A, 2016. Enriched Low NO x Pulverized Coal Burner and its Application.
             Inventors: 颜碧兰, 汪澜, 齐砚勇, 宋军华, 张坤悦, 朱文尚, 王俊杰.
         Portillo, E., Vega, F., Mori~ na, I., Serra, J.M., 2013. Thermodynamic evaluation of the use of
             ITM for air separation in an anthracite coal oxy-fuel power plant 2013. In: Ceramic
             Membranes for Green Chemical Production and Clean Power Generation, Book of Ab-
             stracts of the Summer School. Valencia (Spain), pp. 134e135. ISBN 978-84-9048-11-0.
         Poullikkas, A., 2015. Review of design, operating and financial considerations in flue gas
             desulphuration systems. Energy Technology and Policy 2, 92e103.
         Rodríguez, J.A., Liu, P., Takahashi, Y., Vines, F., Feria, L., Florez, E., Nakamura, K., Illas, F.,
             2011. Novel AueTiC catalysts for CO oxidation and desulfurization processes. Catalysis
             Today 166, 2e9.
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