Current situation of lixiviates production from the provincial wastes land fields in Havana City. Environmental impacts and waste water plants
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Abstract
The leachate generated in landfills are highly polluting. High levels of toxic substances and their composition varies with age. As a result, pose a serious environmental danger of contamination of surface water and groundwater, if not treated properly. Numerous combinations have been used for leachate treatment, with varying degrees of success. Taking into account the peculiarities typical of provincial landfills Havana, a study was conducted to characterize the physical and chemical composition of leachate generated in them and made several proposals for leachate treatment combinations, with systems aerobic and anaerobic. These recommendations will, with specific studies for each site, develop a strategy for treatment of landfill leachate for both existing and the new that will open in the future.
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References
Bueno J. L., Sastre H., Lavin A. G., Fernández S. y Cuervo M. (1995). Contaminación e ingeniería ambiental: Tomo IV. Degradación del suelo y tratamiento de residuos. F. I. C. Y. T. Madrid, España.
Christensen T. H. y Kjeldsen P. (1989). Basic biochemical processes in landfills. Chapter 2.1 in Sanitary landfilling: Process, technology and Environmental Impact, Christensen T. H., Cossu R. and Stegmann R., Eds. Academic Press, London, 29.
Christensen T. H., Kjendsen P., Bjerg P. L., Jensen D. L., Christensen J. B., Baun A., Albrecht en H. J. and Heron G. (2001). Biogeochemistry of landfill leachate plumes. Appl. Geochem. 27:261-271.
Cossu R., Stegman R., Andeottola G. y Cannas P. (1995). Sanitary Lanfilling Process. Technology and Environmental Impact. Academic Press. Reino Unido.
Dominguez M. B. (2000). Vertederos controlados de residuos sólidos urbanos: una perspectiva internacional. Módulo Gestión de Lixiviados. Aula de Medioambiete de Suances. Universidad de Cantabria.
Ehrig, H. J. (1989). Leachate quality in Sanitary Landfilling: Process, Technology, and Environmental Impact. Eds: T.H. Christensen, R. Cossu, and R. Stegman, Academic Press, New York, p. 213-229.
Fang H. H. P. and Zhou G. M. (1999). Interactions of metanogens and denirifiers in degradtion of phenols. Journal of Environmental Engineering. 125(1): 57-63.
Gómez M. A. y Antiguedad T. (1997). Control de lixiviados en los vertederos de residuos sólidos urbanos de Guipúzcoa. Revista Técnica Residuos. No. 39:36-46.
González Urdela J. Lorenzo (1982). “Monitoreo Ambiental en Rellenamientos”, Cuba, 40p.
Guilles P. (1990). Industrial scale of fixes biomass on the Mediteranean seaboard. Design, operatin results. Water Science Technology, Vol. 22:281-292.
Horan N. J., Gohar H. and Hill B. (1997). Application of a granular activated carbon-biological fluidised bed for treatment of landfill leachate containing high concentrations of ammonia. Water Science Technology, Vol. 36:369-375.
ISO 5667-10. Water quality. Sampling. Part 10: Guidance on sampling of waste waters.
JICA (2004). Estudio del Plan Maestro sobre el manejo integral de los Residuos Sólidos Urbanos (RSU) en Ciudad de la Habana, Cuba. Informe Final, Vol. II, capítulo 8. Nippon Koei Co., LTD. Pacific Consultants International.
Kjeldsen, P. and Christophersen, M. (2001). Composition of leachate from old landfills in Denmark. Waste Management & Research. Vol. 19, Is. 3: 249-256.
Kruse (1994). Leachate treatment; principles and options. In Heyer, K-U, Stegmann, R., and Ehrig, H-J (1998). International Training Seminar, Management and treatment of MSW land fill leachate, Cagliari, Italy. Eds. Cossy, Lavagnolo, Burla and Raga. CISA, Italy. 2-4.
Mikae N., Cosovic B., Ahel M., Andreis S. and Toncic Z. (1998). Assessment of groundwater contamination in the vicinity of a municipal solid waste landfill (Zagreb, Croatia). Water Science technology, Vol. 37, No 8:37-44.
NC 27:99: Vertimiento de Aguas Residuales a las Aguas Terrestres y al Alcantarillado. Especificaciones. La Habana, Cuba, 14p.
Nkhalambayausi-Chirwa E. M. and Wang T. T. (2001). Simultaneous Chromium (VI) and phenol degradation in a fixed-film culture biorreactor: reactor performance. Water Research, 35(8): 1921-1932.
Park E. J., Seo J. K., Kim M.R.,Jug H. Kim J. Y. and Kin S. K. (2001). Salinity acclimation of immobilized freshwater denitrifier. Aquacultural Engineering. 24: 169-180.
Parra P. (1999). Depuración de lixiviados con oxígeno en vertederos de RSU. Revista Técnica Residuos. No 48:38-40.
Pohland F. G. and Kim J. C. (1999). In situ anaerobic treatment of leachate in landfill bioreactors. Water Science Technology, Vol. 40, No. 8:203-210.
Problemas ambientales causados por los vertederos. ASERMA (www.confermadera.es/aserma)
Qasim R. and Chiang W. (1994). Sanitary landfil leachate: Generation, Control and Treatment. Technomic Publishing Co. E.U.
Rastas, L, (2002). Typical Leachate – Does It Exist?. Department of Environmental Engineering Division of Waste Science & Technology, USA.
Steensen M. (1997). Chemical oxidation for the treatment of leachate-process comparison and results from full-scale plants. Water Science Technology, Vol. 35:249-257.
Tchobanoglous, G. Thiesen, and Vigil, S.A. (1993). Integrated Solid Waste Management . Mc Graw-Hill International Editions. London.
Urase T., Salequzzaman M., Kobayashi S., Matsuo T., Yamamoto K. and Suzuki N. (1997). Effect of high concentrations of organic and inorganic matters in landfill leachate on the treatment of heavy metals in very low concentration level. Water Science Technology, Vol. 36, No. 12:349-356.
USEPA, (2002). “Guidance on Monitoring of Landfill Leachate, Groundwater and Surface Water”. A Practical Guide (Edition 2, June 2002)