Bachu, S., and Bennion, B. (2008). Effects of in-situ conditions on relative permeability characteristics of CO₂-brine systems. Environmental Geology, 54(8): 1707–1722.CrossRefGoogle Scholar

Beaton, A. (2003). Production potential of coalbed methane resources in Alberta. Alberta Energy and Utilities Board, EUB/AGS Earth Sciences Report 2003–03.Google Scholar

Brooks, R. H., and Corey, T. (1964). Hydraulic properties of porous media. Colorado State University, Hydrology Papers, 3, 1–24.Google Scholar

Chadwick, R. A., Zweigel, P., Gregerson, U., Kirby, G.A., Holloway, S., and Johannessen., P. N. (2004). Geological reservoir characterization of a CO₂ storage site: The Utsira Sand, Sleipner, northern North Sea. Energy, 29: 1371–1381.CrossRefGoogle Scholar

Coates, G. R., and Dumanoir, J. L. (1974). A new approach to improved log-derived permeability. Log Analyst, January–February: 17.Google Scholar

Eisinger, C. L., and Jensen, J. L. (2009). Data integration, petrophysics, and geomodelling: Wabamun Area CO₂ Sequestration Project (WASP). Energy and Environmental Systems Group, Institute for Sustainable Energy, Environment and Economy, University of Calgary.Google Scholar

Fenton, M. M., Schreiner, B. T., Nielsen, E., and Pawlowicz, J. G. (1994). Quaternary geology of the Western Plains. In G. D. Mossop and I. Shetsen (comp.), Geological Atlas of the Western Canada Sedimentary Basin. Canadian Society of Petroleum Geologists and Alberta Research Council, Calgary, 413–420.Google Scholar

Gassmann, F. (1951). Über die Elastizität poröser Medien. Viertel. Naturforschenden Gesellschaft Zürich, 96: 1–23.Google Scholar

Gibson-Poole, C. M., Svendsen, L., Underschultz, L., et al. (2008). Site characterization of a basin-scale CO₂ geological storage system: Gippsland Basin, southeast Australia. Environmental Geology, 54: 1583–1606.CrossRefGoogle Scholar

Glombick, P. M. (2010a). Top of the Belly River Gp. in the Alberta Plains: Subsurface stratigraphic picks and modelled surface. Alberta Energy Regulator Alberta Geological Survey, Open File Report 2010–10.Google Scholar

Glombick, P. M. (2010b). Top of the Belly River Gp. in the Alberta Plains: Subsurface stratigraphic picks and modelled surface. Alberta Energy Regulator Alberta Geological Survey Digital InFm. Series DIG 2010–0022.Google Scholar

Glombick, P. M. (2011a). Subsurface stratigraphic picks for the top of the Oldman Fm. (Base of Dinosaur Park Fm.), Alberta Plains. Alberta Energy Regulator Alberta Geological Survey, Open File Report 2011–13.Google Scholar

Glombick, P. M. (2011b). Subsurface stratigraphic picks for the top of the Oldman Fm. (Base of Dinosaur Park Fm.), Alberta Plains. Alberta Energy Regulator Alberta Geological Survey, Digital InFm. Series DIG 2011–0006 (tabular data, tab-delimited format, to accompany Open File Report 2011–13.Google Scholar

Glombick, P. M. (2014a). Subsurface stratigraphic picks for the Belly River Gp./Lea Park Fm. Transition in East-Central Alberta. Alberta Energy Regulator Alberta Geological Survey, Digital InFm. Series DIG 2013–0031.Google Scholar

Glombick, P. M. (2014b). Subsurface stratigraphic picks for the top of the Foremost Fm. (Belly River Gp.), Alberta Plains. Alberta Energy Regulator Alberta Geological Survey, Digital InFm. Series DIG 2013–0030.Google Scholar

Glombick, P. M., and Mumpy, A. J. (2014a). Subsurface stratigraphic picks for the top of the Milk River ‘shoulder’, Alberta Plains. Alberta Energy Regulator Alberta Geological Survey, Digital InFm. Series DIG 2013–0025.Google Scholar

Glombick, P. M., and Mumpy, A. J. (2014b). Subsurface stratigraphic picks for the Milk River ‘shoulder’, Alberta Plains: Including tops for the Milk River Fm. and Alderson Mbr. of the Lea Park Fm: Alberta Energy Regulator Alberta Geological Survey, Open File Report 2013–17.Google Scholar

Hamblin, A. P., and Abrahamson, B. W. (1996) Stratigraphic architecture of “Basal Belly River” cycles, Foremost Formation, Belly River Group, subsurface of southern Alberta and southwestern Saskatchewan. Bulletin of Canadian Petroleum Geology, 44(4): 654–673.Google Scholar

Kim, Ah-Ram, Cho, Gye-Chun, and Kwon, Tae-Hyuk. (2014). Site characterization and geotechnical aspects on geological storage of CO₂ in Korea. Geosciences Journal, 18(2): 167–179.CrossRefGoogle Scholar

Li, K., and Horne, R. N. (2006). Comparison of methods to calculate relative permeability from capillary pressure in consolidated water-wet porous media. American Geophysical Union, Water Resources Research, 42: W06405. DOI:1029/2005WR004482.Google Scholar

Rock, L., Brydie, J., Jones, D., Jones, J.-P., Perkins, E., and Taylor, E. (2015). Methodology to assess groundwater quality during CO₂ injection at the Quest CCS project. Geoconvention 2015, Geoscience New Horizons.Google Scholar

Rostron, B., White, D., Hawkes, C., and Chalaturnyk, R. (2014). Characterization of the Aquistore CO₂ project storage site, Saskatchewan, Canada. Energy Procedia, 63: 2977–2984.CrossRefGoogle Scholar

Smith, T., Sondergeld, C., and Rai, C. (2003). Gassmann fluid substitutions: A tutorial. Geophysics, 68, 430–440.CrossRefGoogle Scholar

Timur, A. (1968). An investigation of permeability, porosity, and residual water saturation relationship for sandstone reservoirs. Log Analyst, 9(4): 8.Google Scholar

Wright, G. N., McMechan, M. E., Potter, D. E. G., and Holter, M. E. (1994). Structure and architecture of the Western Canada Sedimentary Basin. In G. D. Mossop and I. Shetsen (comp), Geological atlas of the Western Canada Sedimentary Basin. Canadian Society of Petroleum Geologists and Alberta Research Council, Calgary, 25–40.Google Scholar