Добавил:
Upload Опубликованный материал нарушает ваши авторские права? Сообщите нам.
Вуз: Предмет: Файл:
Production and Quality Assurance of Solid Recov...docx
Скачиваний:
0
Добавлен:
01.07.2025
Размер:
1.16 Mб
Скачать
  1. Kakaras, E., Grammelis, P., Agraniotis, M., Derichs, W., Shchiffer, H.-P., Maier, J., . . . Becker, U. (2005). Solid recovered fuel as coal substitute in the elec­tricity generation sector. Thermal Science, 9(2), 17-30.

  2. Schultz, W. (2003). Einsatz von Sekundarbrennstoffen in Grosskraftwerken. Sekundarbrennstoffe und erneuerbare Energien [Application of secondary fuels in main power stations. Secondary fuels and renewable en­ergy]. In Bundesgutegemeinschaft Sekundabrennstoffe e.V, Entsorga 2003, Bundesgutegemeinschaft Sekundabrennstoffe [Federal Quality Association- Secondary-Fuels], Clogne.

  3. Beckmann, M., & Thome-Kozmiensky, H. C. K. J. (2005). Das Er- satzbrennstoffproblem [The waste-derived fuel problem]. In S. Neuruppin (Ed.), Ersatzbrennstoffe 5—Herstellung und Verwertung [Waste-derived fuels 5—Production and utilisation]. Berlin, Germany: TK-Verlag.

  4. Fernandez, A., Wendt, J. O. L., Wolski, N., Hein, K. R. G., Wang, S., & Witten, M. L. (2003). Inhalation health effects of fine particles from the co-combustion of coal and refuse derived fuel. Chemosphere, 51(10), 1129-1137.

  5. H

    Downloaded by [State National Research Politechnical University of Perm] at 22:37 01 July 2013

    amel, S., Hasselbach, H., Weil, S., & Krumm, W. (2007). Autothermal two- stage gasification of low-density waste-derived fuels. Energy, 32(2), 95-107.

  6. Kobyashi, N., Itaya, Y., Piao, G., Mori, S., Kondo, M., Hamai, M., & Yamaguchi, M. (2005). The behavior of flue gas from RDF combustion in a fluidized bed. Powder Technology, 151(1-3), 87-95.

  7. Liu, G.-Q., Itaya, Y., Yamazaki, R., Mori, S., Yamaguchi, M., & Kondoh, M. (2001). Fundamental study of the behavior of chlorine during the combustion of single RDF. Waste Management, 21(5), 427-433.

  8. Jand, N., Brandani, V., & Foscolo, P. U. (2006). Thermodynamic limits and actual product yields and compositions in biomass gasification processes. In­dustrial & Engineering Chemistry Research, 45(2), 834-843.

  9. Kilgallon, P., Simms, N. J., & Oakey, J. E. (2002). Fate of trace contaminants from biomass fuels in gasification systems. In J. Lecomte-Beckers, M. Carton, F. Schubert, & P. Ennis (Eds.), Materials for advanced powered engineering 2002 (p. 903). Liege, France: Forschungszentrum Juelin GmbH.

  10. Niederdrank, J., Wirtgen, C., & Heil, J. (2003). Studies of the thermal upgrading of mechanically and biologically treated waste. Aufbereitungs-Technik/Mineral Processing, 44(2).

  11. Kock, O. (2004). Development of a characterization method for the combustion behavior of solid recovered fuels. Chemical Engineering & Technology, 27(7), 743-747.

  12. Kehl, L. P., Scharf, K.-F., Scur, P., & Wirthwein, R. (1998). Die Betriebsergeb- nisse aus den ersten 30 Monaten mit der neuen Ofenlinie 5 im Zementwerk Ridersdorf [Results from the first 30 operating months of new stove line 5 in the cement works at Riidersdorfj. ZKG International, 51(8), 410.

  13. Herhof Environmental. (n.d.). Biological-mechanical waste plant—Dresden, Saxony, Herhof, Germany.

  14. Herhof GmbH. (n.d.). Clean energy from waste, Herhof, Germany.

  15. European Committee for Standardisation. (2005). Solid recovered fuels. Report on relative difference between biodegredable and biogenic fractions of SRF (CEN/TR 14980:2004). Author, London.

  16. Department of Trade and Industry. (2006). Renewables obligation order 2006-—Final decisions. Author, London.

  17. Environmental Resources Management. (2005). Carbon balances and energy impacts of the management of UK waste streams (WR0602). Oxford, UK: Author.

  18. Energy Information Administration. (2007). Methodology for allocation munic­ipal solid waste to biogenic and non-biogenic energy (20585). Washington, DC: Author.

  19. Flamme, S. (2006). Biogener anteil in ersatzbrennstoffen [The biogenic content in substitute fuels]. Aufbereitungs-Technik/Mineral Processing, 47(3), 40.

  20. Cuperus, J. G., van Dijk, E. A., & de Boer, R. C. (2005). Pre-normative re­search on SRF (R001-4271783EDA-rvb-V01-NL). Deventer, The Netherlands: Tauw.

  21. European Committee for Standardisation. (2006). Solid recovered fuelsSpecifications and classes: (DD CEN/TS 15350:2006). Author, London.

  22. E

    Downloaded by [State National Research Politechnical University of Perm] at 22:37 01 July 2013

    uropean Committee for Standardisation. (2006). Solid recovered fuelsMethod for the determination of the biomass content (DD CEN/TS 15350:2006). Author, London.

  23. European Committee for Standardisation. (2007). Solid recovered fuelsDetermination of the biomass content based on the 14C method (PD CEN/TR 15591:2007). Author, London.

  24. Ofgem. (2007). Renewables obligation: Fuel measurement and sampling guid­ance. London, UK: Author.

  25. Fellner, J., Cencic, O., & Rechberger, H. (2007). A new method to determine the ratio of electricity production from fossil and biogenic sources in waste- to-energy plants. Environmental Science & Technology, 41(7), 2579-2586.

  26. Mohn, J., Szidat, S., Fellner, J., Rechberger, H., Quartier, R., Buchmann, B., & Emmenegger, L. (2008). Determination of biogenic and fossil CO2 emitted by waste incineration based on 14CO2 and mass balances. Bioresource Technology, 99(14), 6471-6479.

  27. Staber, W., Flamme, S., & Fellner, J. (2008). Methods for determining the biomass content of waste. Waste Management & Research, 26(1), 78-87.

  28. Scotti, S., & Minetti, G. (2007). Suitability of MBT facilities in treatment of dif­ferent kinds of waste. In M. Kiihle-Weidemeier (Ed.), International symposium MBT2007. Gottingen, Germany: Cuvillier Verlag, 220-231.

  29. Paoli, P., Dell’Andrea, E., Brozzi, B., Teardo, G., & Casarin, F. (2007, October). Vesta Fusina RDF production plant and co-combustion in the ENEL power plant: Experimentation and continued operation results. Paper presented at Sardinia 2007. Eleventh International Waste Management and Landfill Symposium, S. Margherita di Pula, Cagliari, Italy.

  30. European Committee for Standardisation. (2006). Solid recovered fuelsMethods for sampling (DD CEN/TS 15442:2006). Author, London.

  31. Gy, P. (2004). Sampling of discrete materials—A new introduction to the theory of sampling: I. Qualitative approach. Chemometrics and Intelligent Laboratory Systems, 74(1), 7-24.

  32. Gy, P. (2004). Sampling of discrete materials: II. Quantitative approach— Sampling of zero-dimensional objects. Chemometrics and Intelligent Labora­tory Systems, 74(1), 25-38.

  33. Petersen, L., Minkkinen, P., & Esbensen, K. H. (2005). Representative sampling for reliable data analysis: Theory of sampling [Special issue]. Chemometrics and Intelligent Laboratory Systems, 77(1-2), 261-277.

  34. Petersen, L., & Esbensen, K. H. (2005). Representative process sampling for reliable data analysis—A tutorial. Journal of Chemometrics, 19(11-12), 625-647.

  35. Gy, P. (2004). Part IV: 50 Years of sampling theory—A personal history. Chemo­metrics and Intelligent Laboratory Systems, 74(1), 49-60.

  36. StatSoft. (2008). Statistica 8. Data analysis software system (Ver. 8), Tulsa, OK.

  37. European Committee for Standardisation. (2006). Solid recovered fuelsMethod for the determination of the calorific value (DD CEN/TS 15400:2006). Author, London.

  38. European Committee for Standardisation. (2006). Solid biofuels—Calculation of analyses to different bases (DD CEN/TS 15269:2006). Author, London.

  39. S

    Downloaded by [State National Research Politechnical University of Perm] at 22:37 01 July 2013

    chirmer, M., Ma, W., Hoffmann, G., & Rotter, S. (2007, October). Origin and fate of chlorine in RDF production processes. Paper presented at Sardinia 2007. Eleventh International Waste Management and Landfill Symposium, S. Margherita di Pula, Cagliari, Italy.

  40. Faculty of Chemical Technology, University of Split. (2005). Ball mill. Chemistry dictionary and glossary. Retrieved from http://www.ktf-split. hr/glossary/en_index.html

  41. Suryanarayana, C. (2004). Mechanical alloying/milling. Boca Raton, FL: CRC Press.

  42. Jackson, D. V. (1978). The economics of recycling—the national field. In Waste recycling—The next steps for local authorities.

  43. Koch, P., Pickert, B., & Wayman, P. (2004). The role of selective size reduc­tion in facilities for mechanical biological treatment of domestic refuse. In E. K. Papadimitriou & E. I. Stentiford (Eds.), Biodegradable and residual waste management: 1st UK conference and exhibition, Call Recovery Europe Ltd; Harrogate, UK, 37-45.

  44. Mitsubishi Rayon Engineering. (2004). Ballistic sorter. Retrieved from http://www.mrc.co.jp/mre/english/recycle/recycle_05.html

  45. Diaz, L. F., Papadimitriou, E. K., Savage, G. M., Eggerth, L. L., & Stentiford, E. I. (2002). Selective aspects of the treatment of biodegradable waste in the European Union, In C. M. J. Frederick, R. Rynk, & H. A. J. Hoitink (Eds.), Pro­ceedings. 2002 International symposium. Composting and compost utilisation, Colombus, OH, 428-441.

  46. The Composting Association. (2004). A guide to in-vessel composting. Wellingborough, UK: Author.

  47. Flitton, J. T. (1978). Refuse handling and processing by air classification. In Refuse handling and processing. London, UK: Institution of Mechanical Engineers.

  48. Finish Standards Association. (2000). Solid recovered fuel. Quality control sys­tem (24-01-2000). Author, Helsinki, Finland.

  49. German Institute for Quality Assurance and Certification. (2001). Solid recov­ered fuels. Quality assurance (RAL-GZ 724). German Institute for Quality As­surance and Certification, Germany.

  50. Zanotta, C. (2007, October). I.D.E.A. GRANDA: Over 4 years experience of co-firing HQ-SRF in cement kiln. Paper presented at Sardinia 2007. Eleventh International Waste Management and Landfill Symposium, S. Margherita di Pula, Cagliari, Italy.

  51. Environment Agency. (2005). Substitute fuels protocol for use in cement and lime kilns. Author, London.

  52. Heering, B.-M. (2001). Untersuchungen zur herstellung von verwertbaren stof- fen aus restabfall nach mechanisch-biologischer behandlung [Investigations

  53. for the production of usable materials from the residues of mechanical- biological treatment]. PhD thesis, Rheinisch-Westfalische Technische Hochschule, Aachen, Germany.

  54. Zeschmar-Lahl, B., Jager, J., & Ketelsen, K. (Eds.). (2000). Mechanisch- biologische Abfallbehandlung in Europa [Mechanical-biological waste treat­ment in Europe]. Berlin, Germany: Blackwell Wissenschafts-Verlag.

  55. V

    Downloaded by [State National Research Politechnical University of Perm] at 22:37 01 July 2013

    elis, C. A., Longhurst, P. J., Drew, G. H., Smith, R., & Pollard, S. J. T. (2009). Biodrying for Mechanical-biological treatment of wastes: A review of process science and engineering. Bioresource Technology, 100(11), 2747-2761.

  56. Severin, M., Velis, C. A., Longhurst, P. J., & Pollard, S. J. T. (2010). The biogenic content of process streams from mechanical-biological treatment plants pro­ducing solid recovered fuels. Do the manual sorting and selective dissolution determination methods correlate? Waste Management, 30(7), 1171-1182.

Adapted from Juniper5 and Beckmann et al.45

aGlorius et al 40

bIbbetson and Wengenroth174: For calorific values not stated: (1) if gross or net; nor (2) the basis (ar/d/daf). cBreuer88: General SRF production specification (common for both cement kilns and power plants)

‘Van Tubergen et al.183,184: Safety margin exists for all Hg and Cd classes and 100% fuel substitution was assumed in calculations. Actual air emissions л;0 be determined also by raw fuel properties, fuel mix, and transfer coefficients of each specific technology. For hard coal WBB power plant conservative calculations apply, because of limited database. Relevant specific notes:

1Unclear whether it constitutes disposal or recycling by on-land application.

after (posttreatment) the core biological unit. The throughput rate of individ­ual processing lines of MBT plants is in the range of 20-30 tonnes h-1.64 In some instances, mechanical units form part of the core biological step; for example, bucket wheels used for turning at in-vessel composting systems.

The key objectives for mechanical unit operations are to5,13 (1) pre­pare the input waste for the core biological treatment unit (preconditioning);

1 ^Mean values; there is no maximum value for NCV if used in clinker kiln.

  • tci specification depends on the composition of the input; for example, K, Na content.

  • ttThe maximum values vary for different companies. Mean and max. values are close for a specific end-user.

  • tttThe Cl concentration of the total fuel mix should be kept <0.2-0.4% to prevent high-temperature corrosion. The maximum allowable Cl% (depends on the design and materials chosen): The Netherlands (usually) 0.2%; UK 0.4% (plants are designed for coal with a high Cl content).

eEckardt and Albers4^: Data from end-user requirements. Basis for calorific values not stated (ar/d/daf). Relevant specific notes:

  • Readings from graph.

2General category of power plants.

3General category for FBC monocombustion.