Incorporation of Alternative Fuels and Raw Materials (AFR) to Produce a Sustainable Cement

  • Authors

    • Ali Benlamoudi
    • Aeslina Abdul Kadir
    • Mohamed Khodja
    2018-11-30
    https://doi.org/10.14419/ijet.v7i4.30.22079
  • AFR, Alternative Fuel, Calorific Value Cement, Raw Materials
  • Abstract

    Throughout the last two decades, tremendous researches have been carried out to investigate the possibility to reduce the cement plants’ costs in terms of raw materials and fuel consumption. Different types of alternative fuels and raw materials (AFR) have been used and proved their efficiencies such as sewage sludge, used tires, crushed aggregates, refuse derived fuel (RDF), red mud, ash and others. Generally, it has been deduced that the possibility to incorporate AFR to produce an acceptable quality of cement is related mainly to its calorific value and its chemical composition. As results, it was reported that incorporation of AFR has reached up to 100% for raw materials substitution and more than 30% for fossil fuel replacement. Nevertheless, the AFR may contain toxic components such as volatile content and heavy metals that need careful attention in its decisive use since it may pose serious problems to the environment and the living things. More parameters may affect the cement production cost including the moisture content of AFR, the burning temperature, the residential time, the accessibility to the AFR, the easy handling and others. The high moisture content of the AFR may increase the total cost of cement production because of the need of a high thermal energy to dry it prior to be incorporated into cement plant. Same thing goes with temperature needed by the AFR to be burned within the kiln. This overview summarizes the studies throughout the last two decades related to cement manufacturing by using AFR based on the main parameters studied by the researchers, the main advantages and the main disadvantages.

  • References

    1. [1] Kara M, Günay E, Tabak Y, Yıldız Ş & Enç V (2008), The usage of refuse derived fuel from urban solid waste in cement industry as an alternative fuel, Proceeding of The 6th IASME/WSEAS International Conference on Innovation Heat Transfer, Thermal Engineering and Environment (HTE’08), pp, 20-22.

      [2] Rodríguez NH., Martínez-Ramírez S, Blanco-Varela MT, Donatello S, Guillem M, Puig J, Fos C, Larrotcha M & Flores J (2013), The effect of using thermally dried sewage sludge as an alternative fuel on Portland cement clinker production. Journal of Cleaner Production 52, 94-102.

      [3] Xu W, Xu J, Liu J, Li H, Cao B, Huang X & Li G (2014), The utilization of lime-dried sludge as resource for producing cement. Journal of Cleaner Production 83, 286-293.

      [4] Chen H, Ma X & Dai H (2010), Reuse of water purification sludge as raw material in cement production. Cement and Concrete Composites 32, 436-439.

      [5] Pan JR, Huang C, Kuo JJ & Lin SH (2008), Recycling MSWI bottom and fly ash as raw materials for Portland cement. Waste Management 28(7), 1113-1118.

      [6] Tay JH, Show KY (1995), Use of ash derived from oil-palm waste incineration as a cement replacement material. Resources, Conservation and Recycling 13(1), 27-36.

      [7] Pipilikaki P, Katsioti M, Papageorgiou D, Fragoulis D & Chaniotakis E (2005) Use of tire derived fuel in clinker burning. Cement and Concrete Composites 27(7–8), 843-847.

      [8] Guidelines for the Selection and Use of Fuels and Raw Materials in the Cement Manufacturing Process, World Business Council for Sustainable Development, (July 2014).

      [9] Guidance Manual on the Use of Alternative Fuel and Raw Materials in Cement Kiln Co-processing, Department of science and technology, Industrial technology development institute in incorporation with CeMAP. Environmental management bureau, (2008).

      [10] de Queiroz Lamas W, Palau JC & de Camargo JR (2013), Waste materials co-processing in cement industry: Ecological efficiency of waste reuse. Renewable and Sustainable Energy Reviews 19, 200-207.

      [11] Popovics S (1993), Portland cement-fly ash-silica fume systems in concrete. Advanced Cement Based Materials 1(2), 83-91.

      [12] Carpio RC, Sousa Júnior FD, Coelho LD & Silva RJ (2008), Alternative fuels mixture in cement industry kilns employing particle swarm optimization algorithm. Journal of the Brazilian Society of Mechanical Sciences and Engineering 30(4), 335-340.

      [13] Trezza MA & Scian AN (2000), Burning wastes as an industrial resource: Their effect on Portland cement clinker. Cement and Concrete Research 30(1), 137-144.

      [14] Fang P, Tang ZJ, Huang JH, Cen CP, Tang ZX & Chen XB (2015), Using sewage sludge as a denitration agent and secondary fuel in a cement plant: A case study. Fuel Processing Technology 137, 1-7.

      [15] Galbenis CT & Tsimas S (2006), Use of construction and demolition wastes as raw materials in cement clinker production. China Particuology 4(02), 83-85.

      [16] Kara M (2012) Environmental and economic advantages associated with the use of RDF in cement kilns. Resources, Conservation and Recycling 68, 21-28.

      [17] Rovira J, Mari M, Nadal M, Schuhmacher M & Domingo JL (2010), Partial replacement of fossil fuel in a cement plant: Risk assessment for the population living in the neighborhood. Science of the Total Environment 408(22), 5372-5380.

      [18] Tsakiridis PE, Agatzini-Leonardou S & Oustadakis P (2004), Red mud addition in the raw meal for the production of Portland cement clinker. Journal of Hazardous Materials 116(1–2), 103-110.

      [19] Lin KL & Lin CY (2005), Hydration characteristics of waste sludge ash utilized as raw cement material. Cement and Concrete Research 35(10), 1999-2007.

      [20] Lechtenberg D (2010) Waste management and cement industries in Arab Countries. Cement and building materials review, 27-34

      [21] Singh, M, Upadhayay S & Prasad P (1996), Preparation of special cements from red mud. Waste Management 16(8). 665-670.

      [22] Guidelines for Cement Sustainability Initiative (CSI) Co-Processing Fuels and Raw Materials in Cement Manufacturing, World Business Council for Sustainable Development (WBCSD). Version 2.0 (2014).

      [23] Sewage Sludge: Operational and Environmental Issues, Foundation for Water Research.: FR/R001: Marlow: the U. K., (2011) (third edition).

      [24] Giannopoulos D, Kolaitis DI, Togkalidou A, Skevis G & Founti MA (2007), Quantification of emissions from the co-incineration of cutting oil emulsions in cement plants–Part I: NO x, CO and VOC. Fuel 86(7), 1144-1152.

      [25] Rahman A, Rasul M, Khan MM & Sharma S, Industrial waste as alternative fuel in cement industry: its impact on environment. Recent researches in environmental and geological sciences, proceedings of the 7th WSEAS International Conference on Energy & Environment (EE'12), WSEAS Press, (2012).

      [26] Mokrzycki E, Uliasz-Bocheńczyk A & Sarna M (2003), Use of alternative fuels in the Polish cement industry. Applied Energy.74(1), 101-111.

      [27] Best Available Techniques (BAT) Reference Document for the Production of Cement, Lime and Magnesium Oxide, European Integrated Pollution Prevention Control Bureau (EIPPCB). Publications Office of the European Union: Luxembourg, (2015).

      [28] Chinyama MP, Alternative fuels in cement manufacturing. INTECH Open Access Publisher, (2011).

      [29] Ruiz Garcia M, Preparation of waste derived fuels and their evaluation in the cement industry, proceedings of the 1st National Conference for Small and Medium Enterprises and the Environment (COPYMA) Estella, Navarra, Spain, (2009) (in Spanish).

      [30] Lin Y, Zhou S, Li F & Lin Y (2012), Utilization of municipal sewage sludge as additives for the production of eco-cement. Journal of Hazardous Materials 213–214, 457-465.

      [31] Yen CL, Tseng DH & Lin. TT (2011), Characterization of eco-cement paste produced from waste sludges. Chemosphere 84(2), 220-226.

      [32] Conesa JA, Rey L, Egea S & Rey MD (2011) Pollutant formation and emissions from cement kiln stack using a solid recovered fuel from municipal solid waste. Environmental science & technology 45(13), 5878-5884.

      [33] Vangelatos I, Angelopoulos GN & Boufounos D (2009) Utilization of ferroalumina as raw material in the production of Ordinary Portland Cement. Journal of Hazardous Materials 168(1), 473-478.

      [34] Chen G, Lee H, Young KL, Yue PL, Wong A, Tao T & Choi KK (2002), Glass recycling in cement production—an innovative approach. Waste Management 22(7), 747-753.

      [35] Alp İ, Deveci H, Yazıcı EY, Türk T & Süngün YH (2009), Potential use of pyrite cinders as raw material in cement production: Results of industrial scale trial operations. Journal of Hazardous Materials 166(1), 144-149.

      [36] Alp İ, Deveci H & Süngün H (2008), Utilization of flotation wastes of copper slag as raw material in cement production. Journal of Hazardous Materials. 159(2–3), 390-395.

      [37] Caponero J & Tenório JAS (2000), Laboratory testing of the use of phosphate-coating sludge in cement clinker. Resources, Conservation and Recycling 29(3), 169-179.

      [38] Lairaksa NA, Moon R & Makul N (2013), Utilization of cathode ray tube waste: Encapsulation of PbO-containing funnel glass in Portland cement clinker. Journal of Environmental Management 117, 180-186.

      [39] Tsakiridis PE, Agatzini-Leonardou S, Oustadakis P, Katsioti M & Mauridou E (2005), Examination of the jarosite–alunite precipitates addition in the raw meal for the production of portland cement clinker. Cement and Concrete Research 35(11), 2066-2073.

      [40] Gazquez MJ, Bolivar JP, Vaca F, García-Tenorio R & Caparros A (2013), Evaluation of the use of TiO2 industry red gypsum waste in cement production. Cement and Concrete Composites 37, 76-81.

      [41] Prakash V,Saxena S, Sharma A, Singh S & Singh SK (2015), Treatment of Oil Sludge Contamination by Composting. Journal of Bioremediation & Biodegradation 6(3), 1.

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  • How to Cite

    Benlamoudi, A., Kadir, A. A., & Khodja, M. (2018). Incorporation of Alternative Fuels and Raw Materials (AFR) to Produce a Sustainable Cement. International Journal of Engineering & Technology, 7(4.30), 136-140. https://doi.org/10.14419/ijet.v7i4.30.22079

    Received date: 2018-11-28

    Accepted date: 2018-11-28

    Published date: 2018-11-30