A bioreactor landfill operated in Sainte-Sophie, Québec, Canada was instrumented to better understand the waste stabilization process in northern climates. Instrument bundles were placed within the waste to monitor temperature, oxygen, moisture content, settlement, total load, mounding of leachate and electrical conductivity. A finite element model was developed to simulate the heat fluxes to and from the waste, as well as heat generation within the waste from both anaerobic and aerobic processes. The results of the analysis suggest the majority of the aerobic activity occurs in the top portion of the waste lift exposed to ambient air. In addition, the model indicates that frozen waste lifts require a significant amount of heat to thaw the liquid fraction. The model also demonstrates that when a lift of cold waste is placed at the bottom of the landfill, the subsurface acts as a significant source of heat.
AlawadhiEMAmonCH (2003) PCM thermal control unit for portable electronic devices: experimental and numerical studies. Components and Packaging Technologies, IEEE26: 116–125.
2.
AugensteinDYazdaniRMoreRDahlK (1997) Yolo County controlled landfill demonstration project. In: Proceedings of the 20th Annual Solid Waste Association of North America (SWANA), Landfill Gas Symposium, Sacramento, CA, USA, 25 March 1997, P43–87. Monterey, CA: SWANA, Solid Waste Association of North America.
3.
BonanyJVan GeelPGunayHIsgorB (2012) Heat budget for the Sainte-Sophie anaerobic bioreactor landfill in Quebec, Canada. In: Proceedings of the 105th Annual Air & Waste Management Association Conference & Exhibition, San Antonio, CA, USA, 21 March 2012, A-59. Pittsburgh, PA: A&WMA, Air and Waste Management Association.
4.
BonanyJVan GeelPGunayHIsgorB (2013) Heat Budget for a waste lift placed under freezing conditions at a landfill operated in a northern climate. Waste Management. DOI 10.1016/j.wasman.2013.01.020.
5.
ChristensenTHKjeldsenP (1989) Basic biochemical processes in landfills. In: ChristensenTHCossuRStegmannR (eds) Sanitary Landfilling - Process, Technology, and Environmental Impact. San Diego: Academic Press.
6.
DaviesDColbranC (2010) Sustainable landfill biocell: an innovative technology to biostabilize organic fraction of municipal solid waste. In: Proceedings of Remediation Technologies Symposium 2010, Banff, AB, Canada, 17 October 2012. Banff, Alberta: Remediation Technologies.
7.
De HalleuxD (1989) Dynamic model of heat and mass transfer in greenhouses: theoretical and experimental study. PhD Thesis, Gembloux, Belgium.
8.
El-FadelMFindikakisANLeckieJO (1996) Numerical modelling of generation and transport of gas and heat in sanitary landfills: I. Model formulation. Waste Management & Research14: 483–504.
9.
HansonJLYesillerNHowardKALiuW-LCooperSP (2006) Effects of placement conditions on decomposition of municipal solid wastes in cold regions. current practices in cold regions engineering. In: Proceedings of the 13th International Conference on Cold Regions Engineering, Orono, ME, USA, 23 July 2006. Reston, VA: ASCE, American Society for Civil Engineers.
10.
HansonJLLiuW-LYesillerN (2008) Analytical and numerical methodology for modeling temperatures in landfills. In: KhireMVAlshawabkehANReddyKR (eds) Geotechnics of Waste Management and Remediation, ASCE GSP No. 177.Reston, VA: ASCE, pp. 24–31.
11.
HartzKEKlinkREHamRK (1982) Temperature effects: methane generation from landfill samples. Journal of the Environmental Engineering Division108: 629–638.
12.
HouiDPaulECouturierC (1997) Heat and mass transfer in landfills and biogas recovery. In: ChristensenTH. (eds) Proceedings of the 6th International Waste Management and Landfill SymposiumCISA, Italy, 9 March 1997, Vol. I, pp. 101–108. Hamburg, Germany: International Waste Working Group.
13.
HunteCHettiaratchiJHettiarachchiC. (2011) Determination of Waste properties from Settlement Behaviour of a Full Scale Waste Cell operated as a Landfill Bioreactor. In: ASCE GeoFrontiers 2011, HanJAlzamoreDE (eds). Reston, VA: ASCE Publications, pp. 13–16.
14.
LefebvreXLaniniSHouiD (2000) The role of aerobic activity on refuse temperature rise, I. Landfill experiment study. Waste Management & Research18: 444–452.
15.
NeusingerRDrachVEbertHFrickeJ (2005) Computer simulations that illustrate the heat balance of landfills. International Journal of Thermophysics26: 519–530.
16.
PfefferJT (1974) Temperature effects on anaerobic fermentation of domestic wastes. Biotechnology and Bioengineering16: 771–787.
ReesJF (1980) Optimisation of methane production and refuse decomposition in landfills by temperature control. Journal of Chemical Technology & Biotechnology30: 458–465.
19.
ReinhartDRTownsendTG (1998) Landfill Bioreactor Design and Operation. Boca Raton, FL: Lewis Publishers.
20.
ReinhartDRTownsendTMcCreanorPT (2002) Florida bioreactor demonstration project - instrumentation. In: Proceedings of Waste Tech 2002, Coral Springs, FL, USA, 9 March 2002. Vienna, Austria: Waste Technology Section of IAEA.
21.
SilvaAM (1988) A contribution to the study of the greenhouse climate: the analysis of some processes of energy transfer. PhD Thesis, University of Evora, Portugal.
22.
VingerhoedsE (2011) Instrument installation and preliminary data in a full-scale anaerobic bioreactor landfill, Sainte-Sophie, Quebec, Canada. MSc Thesis, Carleton University, Ottawa, Canada.
23.
WarithMA (2003) Solid waste management: new trends in landfill design. Emirates Journal of Engineering Research8: 61–70.
YesillerNHansonJLiuW (2005) Heat generation in municipal solid waste landfills. Journal of Geotechnical and Geoenvironmental Engingeering ASCE131: 1330–1344
26.
YesillerNHansonJYoshidaH (2011) Landfill temperatures under variable decomposition conditions. In: Proceedings of the Geo-Frontiers 2011 Conference, Dallas, TX, USA, 13 March 2011, 1055–1065. Reston, VA: ASCE, American Society for Civil Engineers.
27.
YoshidaHRoweRK (2003) Consideration of landfill liner temperature. In: Christensen TH, et al. (eds) Proceedings of the 9th International Waste Management and Landfill Symposium, CISA, Italy, 6 October 2003. Hamburg, Germany. International Waste Working Group.
28.
ZhaoXMuslehRMaherSKhireMVVoiceTCHashshamSA (2008) Start-up performance of a full-scale bioreactor landfill cell under cold-climate conditions. Waste Management28: 2633–2634.
29.
ZhaoX (2006). Bioreactor Landfill Research and Demonstration Project Northern Oaks Landfill, Harrison, MI. Doctoral Dissertation, Michigan State University.
