On the Pyrolysis of Sewage Sludge: The Influence of Pyrolysis Temperature on Biochar, Liquid and Gas Fractions

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Pyrolytic conversion of sewage sludge to biochar, oil and gas is an environmentally and economically acceptable way comparable to conventional options for sewage sludge disposal. The aim of this paper is to investigate the influence of pyrolysis temperature on production of biochar fraction for agronomic application, oil and gas fractions for energy utilization. Sewage sludge samples collected from an urban sewage treatment plant were pyrolysed in a bench–scale quartz tubular furnace over the temperature range of 300-700°C.The results indicated that the biochar fraction yield decreased, the yields of liquid (oil and water) fraction and gas fraction increased by evaluating the pyrolysis temperature. Concentration of heavy metals and nutrient elements present in biochar varied with pyrolysis temperature, the heating value of oil from liquid fraction fluctuated between 26938.3 and 30757.9kJ/kg, the heating value of gas fraction increased from 4012kJ/Nm3 to 12077 kJ/Nm3 with the increasing pyrolysis temperature.

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Advanced Materials Research (Volumes 518-523)

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3412-3420

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May 2012

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© 2012 Trans Tech Publications Ltd. All Rights Reserved

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[1] Market Report of Sewage Sludge Treatment and Disposal in China [M],(2011)

Google Scholar

[2] Overcash M, Sims R C, Sims J L, Nieman, J K C: Journal of Environmental Quality Vol. 34 (2005), P. 29

Google Scholar

[3] He Y D, Zhai Y B, Li C T, Yang F, Chen L, Fan X P, Peng W F, Fu Z M: Environmental Technology Vol. 31 (2010), P. 567

Google Scholar

[4] Zwieten L Van, Kimber S, Morris S: Plant and Soil Vol. 327 (2010), P. 235

Google Scholar

[5] Kimetu J M, Lehmann J: Australian Journal of Soil Research Vol. 48 (2010), P. 577

Google Scholar

[6] Woolf D, Amonette J E, Street-Perrott, F A: Nature Communications Vol. 56 (2010), P. 1053

Google Scholar

[7] Sumner, M.E: Communications in Soil Science and Plant Analysis, Vol. 31 (2000), P. 1701

Google Scholar

[8] Singh, R.P., Agrawal, M: Waste Management Vol. 28 (2008), P. 347

Google Scholar

[9] Minori Uchimiya, Lynda H. Wartelle, K. Thomas Klasson: Journal of Agricultural and Food Chemistry Vol.59 (2011), P. 2501

Google Scholar

[10] Takuya Yoshida, Michael Jerry Antal, Jr: Energy fuels Vol. 23 (2009), P. 5454

Google Scholar

[11] Lehmann, J., Gaunt, J., Rondon, M: Mitigation and Adaptation Strategies for Global Change Vol. 11 (2006), P. 403

Google Scholar

[12] Mustafa K. Hossain, Vladimir Strezov, K. Yin Chan: Journal of Environmental Management, Vol. 92 (2011), P. 223

Google Scholar

[13] Uchimiya M, Wartelle L H, Klasson K T, Fortier C A, Lima I M: Journal of Agricultural and Food Chemistry Vol. 59 (2011), P. 2501

Google Scholar

[14] Peng X, Ye L L, Wang C H, Zhou H, Sun B: Soil & Tillage Research Vol. 112 (2011), P. 159

Google Scholar

[15] Shinogi, Y. Nutrient leaching from carbon products of sludge. In: ASAE/CSAE Annual International Meeting, Paper No. 044063, Ottawa, Ontario, Canada, (2004)

DOI: 10.13031/2013.16774

Google Scholar

[16] Bagreev, A., Bandosz, T. J. ., Locke, D. C: Carbon Vol. 39 (2001), P. (1971)

Google Scholar

[17] Joao, C., Margarida, A., Olga, R.. Effect of composted sewage sludge amendment on soil nitrogen and phosphorus availability [J]. Communications in Soil Science and Plant Analysis. 1997, 28, 1845-1857

DOI: 10.1080/00103629709369920

Google Scholar

[18] Ischia M , Perazzolli C, Maschio R D: Journal of Thermal Analysis and Calorimetry Vol. 87 (2007), P. 567

Google Scholar

[19] Xiaoge Chen, Jeyaseelan S: Journal of Environmental Engineering Vol. 127 (2001), P. 585

Google Scholar

[20] Shen L., Zhang D.K: Fuel Vol. 82 (2003), P. 465

Google Scholar

[21] Dominguez A., Menendez J.A., Inguanzo M: Bioresource Technology Vol. 97(2006), P. 1185

Google Scholar