In situ characterization of temperature and gas production using membrane interface probe (MIP) and hydraulic profiling tool (HPT) in an operating municipal solid waste landfill

M. Sina Mousavi; Yuan Feng; Mostafa Afzalian; Josh McCann; Jongwan Eun

doi:10.1051/e3sconf/202020509009

All issues

Volume 205 (2020)

E3S Web Conf., 205 (2020) 09009

References

Open Access

Issue		E3S Web Conf. Volume 205, 2020 2^nd International Conference on Energy Geotechnics (ICEGT 2020)


Article Number		09009
Number of page(s)		6
Section		Minisymposium: Engineered Geomaterials for Energy and Environmental Sustainability (organized by Alessandro Rotta Loria)
DOI		https://doi.org/10.1051/e3sconf/202020509009
Published online		18 November 2020

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http://geoprobe.com/mip-membrane-interface-probe [Google Scholar]
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T. M. Christy., A permeable membrane sensor for the detection of volatile compounds in soil, S A G E E P 65-72 (1998) [Google Scholar]
W. McCall, T. M. Christy, D. Pipp, M. Terkelsen, A. Christensen, K. Weber & P. Engelsen., The Hydraulic Profiling Tool (HPT) for Hydrogeologic Investigation of Unconsolidated Formations, G M & R, 34(2), 85-95. (2014) [Google Scholar]
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[1] M. A. Barlaz, Forest products decomposition in municipal solid waste landfills, W M, 26(4), 321-333. (2006) [Google Scholar]

[2] https://www.epa.gov/sites/production/files/2019-02/documents/us-ghg-inventory-2019-main-text.pdf [Google Scholar]

[3] N. Yeşiller, J. L. Hanson, K. B. Kopp, & E. H, Yee., Heat generation in municipal solid waste landfills, W M, 56, 246-254. (2016) [Google Scholar]

[4] J. T. Powell, T. G. Townsend, & J. B. Zimmerman., Estimates of solid waste disposal rates and reduction targets for landfill gas emissions, N C C, 6(2), 162. (2016) [Google Scholar]

[5] C. J. Coccia, R. Gupta, J. Morris, & J. S McCartney., Municipal solid waste landfills as geothermal heat sources, R & S E R, 19, 463-474. (2013) [Google Scholar]

[6] R. J. Grillo., Energy recycling–landfill waste heat generation and recovery, C S/R E R, 1(4), 150-156. (2014) [Google Scholar]

[7] S. T. S. Yuen, T. A. McMahon & J. R. Styles., Monitoring in situ moisture content of municipal solid waste landfills, J E E, 126(12), 1088-1095. (2000) [Google Scholar]

[8] R. S. Li & C. Zeiss., In situ moisture content measurement in MSW landfills with TDR, E E S, 18(1), 53-66. (2001) [Google Scholar]

[9] T. Plocoste, S. Jacoby-Koaly, R. H. Petit, J. Molinié & A. Roussas., In situ quantification and tracking of volatile organic compounds with a portable mass spectrometer in tropical waste and urban sites, E T, 38(18), 2280-2294. (2017) [Google Scholar]

[10] K. R. Reddy, H. Hettiarachchi, J. Gangathulasi, & J. E. Bogner., Geotechnical properties of municipal solid waste at different phases of biodegradation, W M, 31(11), 2275-2286. (2011) [Google Scholar]

[11] D. Zekkos, Jr. E. Kavazanjian, J. D. Bray, N. Matasovic, & M. F. Riemer., Physical characterization of municipal solid waste for geotechnical purposes, J G G E, 136(9), 1231-1241. (2010) [Google Scholar]

[12] http://geoprobe.com/mip-membrane-interface-probe [Google Scholar]

[13] J. L. Hanson, N. Yeşiller, & N. K. Oettle, Spatial and temporal temperature distributions in municipal solid waste landfills. J E E, 136(8), 804-814. (2010). [Google Scholar]

[14] P. J. Van Geel, & K. E. Murray, Simulating settlement during waste placement at a landfill with waste lifts placed under frozen conditions. W M, 46, 352-361. (2015) [Google Scholar]

[15] T. M. Christy., A permeable membrane sensor for the detection of volatile compounds in soil, S A G E E P 65-72 (1998) [Google Scholar]

[16] W. McCall, T. M. Christy, D. Pipp, M. Terkelsen, A. Christensen, K. Weber & P. Engelsen., The Hydraulic Profiling Tool (HPT) for Hydrogeologic Investigation of Unconsolidated Formations, G M & R, 34(2), 85-95. (2014) [Google Scholar]

[17] S. Grellier, H. Robain, G. Bellier, & N. Skhiri., Influence of temperature on the electrical conductivity of leachate from municipal solid waste, J H M, 137(1), 612-617. (2006) [CrossRef] [Google Scholar]