Hydraulic fracture modeling in support of EGS collab treatment designs

EGS Collab Team

Hydraulic fracture modeling in support of EGS collab treatment designs

EGS Collab Team

School of Physics

Colorado School of Mines
National Renewable Energy Laboratory

Research output: Contribution to conference › Paper › peer-review

Abstract

This paper presents ongoing hydraulic fracturing modeling work in support of the Department of Energy’s EGS Collab project. CFRAC, a hydraulic fracturing research code with discrete fracture modeling capabilities was used in the modeling. The models are run under different geomechanical conditions to predict the hydraulic fracturing treatments to be pumped within EGS Collab’s experiments in Sanford Underground Research Facility (SURF). Effect of the parameters such as a varying stress field and the presence of natural fractures are investigated. The simulations show that when injecting at 0.1 L/s for 180 s with uniform stress field conditions, a penny-shaped fracture with maximum aperture of 0.14 mm at radial extent of about 8 m is created. A disturbance in the stress field, caused by the presence of an offset mine drift, forced the fractures to grow asymmetrically. The presence of an intersecting natural fracture halted growth of the hydraulic fracture. These results agree with other modeling work done within the EGS Collab team.

Original language	English
State	Published - 2018
Event	52nd U.S. Rock Mechanics/Geomechanics Symposium - Seattle, United States Duration: 17 Jun 2018 → 20 Jun 2018

Conference

Conference	52nd U.S. Rock Mechanics/Geomechanics Symposium
Country/Territory	United States
City	Seattle
Period	17/06/18 → 20/06/18

Cite this

@conference{93977be60e5943dab411e343f93f15e0,

title = "Hydraulic fracture modeling in support of EGS collab treatment designs",

abstract = "This paper presents ongoing hydraulic fracturing modeling work in support of the Department of Energy{\textquoteright}s EGS Collab project. CFRAC, a hydraulic fracturing research code with discrete fracture modeling capabilities was used in the modeling. The models are run under different geomechanical conditions to predict the hydraulic fracturing treatments to be pumped within EGS Collab{\textquoteright}s experiments in Sanford Underground Research Facility (SURF). Effect of the parameters such as a varying stress field and the presence of natural fractures are investigated. The simulations show that when injecting at 0.1 L/s for 180 s with uniform stress field conditions, a penny-shaped fracture with maximum aperture of 0.14 mm at radial extent of about 8 m is created. A disturbance in the stress field, caused by the presence of an offset mine drift, forced the fractures to grow asymmetrically. The presence of an intersecting natural fracture halted growth of the hydraulic fracture. These results agree with other modeling work done within the EGS Collab team.",

author = "\{EGS Collab Team\} and K. Kutun and Miskimins, \{J. L.\} and Beckers, \{K. F.\} and J. Ajo-Franklin and Bauer, \{S. J.\} and T. Baumgartner and D. Blankenship and A. Bonneville and L. Boyd and Brown, \{S. T.\} and Burghardt, \{J. A.\} and T. Chen and Y. Chen and K. Condon and Cook, \{P. J.\} and Dobson, \{P. F.\} and T. Doe and Doughty, \{C. A.\} and D. Elsworth and J. Feldman and A. Foris and Frash, \{L. P.\} and Z. Frone and P. Fu and K. Gao and A. Ghassemi and H. Gudmundsdottir and Y. Guglielmi and G. Guthrie and B. Haimson and A. Hawkins and J. Heise and Herrick, \{C. G.\} and M. Horn and Horne, \{R. N.\} and J. Horner and M. Hu and H. Huang and L. Huang and K. Im and M. Ingraham and Johnson, \{T. C.\} and B. Johnston and S. Karra and K. Kim and King, \{D. K.\} and T. Kneafsey and H. Knox and J. Knox and D. Kumar",

note = "Publisher Copyright: Copyright {\textcopyright} 2018 ARMA, American Rock Mechanics Association.; 52nd U.S. Rock Mechanics/Geomechanics Symposium ; Conference date: 17-06-2018 Through 20-06-2018",

year = "2018",

language = "英语",

}

TY - CONF

T1 - Hydraulic fracture modeling in support of EGS collab treatment designs

AU - EGS Collab Team

AU - Kutun, K.

AU - Miskimins, J. L.

AU - Beckers, K. F.

AU - Ajo-Franklin, J.

AU - Bauer, S. J.

AU - Baumgartner, T.

AU - Blankenship, D.

AU - Bonneville, A.

AU - Boyd, L.

AU - Brown, S. T.

AU - Burghardt, J. A.

AU - Chen, T.

AU - Chen, Y.

AU - Condon, K.

AU - Cook, P. J.

AU - Dobson, P. F.

AU - Doe, T.

AU - Doughty, C. A.

AU - Elsworth, D.

AU - Feldman, J.

AU - Foris, A.

AU - Frash, L. P.

AU - Frone, Z.

AU - Fu, P.

AU - Gao, K.

AU - Ghassemi, A.

AU - Gudmundsdottir, H.

AU - Guglielmi, Y.

AU - Guthrie, G.

AU - Haimson, B.

AU - Hawkins, A.

AU - Heise, J.

AU - Herrick, C. G.

AU - Horn, M.

AU - Horne, R. N.

AU - Horner, J.

AU - Hu, M.

AU - Huang, H.

AU - Huang, L.

AU - Im, K.

AU - Ingraham, M.

AU - Johnson, T. C.

AU - Johnston, B.

AU - Karra, S.

AU - Kim, K.

AU - King, D. K.

AU - Kneafsey, T.

AU - Knox, H.

AU - Knox, J.

AU - Kumar, D.

PY - 2018

Y1 - 2018

N2 - This paper presents ongoing hydraulic fracturing modeling work in support of the Department of Energy’s EGS Collab project. CFRAC, a hydraulic fracturing research code with discrete fracture modeling capabilities was used in the modeling. The models are run under different geomechanical conditions to predict the hydraulic fracturing treatments to be pumped within EGS Collab’s experiments in Sanford Underground Research Facility (SURF). Effect of the parameters such as a varying stress field and the presence of natural fractures are investigated. The simulations show that when injecting at 0.1 L/s for 180 s with uniform stress field conditions, a penny-shaped fracture with maximum aperture of 0.14 mm at radial extent of about 8 m is created. A disturbance in the stress field, caused by the presence of an offset mine drift, forced the fractures to grow asymmetrically. The presence of an intersecting natural fracture halted growth of the hydraulic fracture. These results agree with other modeling work done within the EGS Collab team.

AB - This paper presents ongoing hydraulic fracturing modeling work in support of the Department of Energy’s EGS Collab project. CFRAC, a hydraulic fracturing research code with discrete fracture modeling capabilities was used in the modeling. The models are run under different geomechanical conditions to predict the hydraulic fracturing treatments to be pumped within EGS Collab’s experiments in Sanford Underground Research Facility (SURF). Effect of the parameters such as a varying stress field and the presence of natural fractures are investigated. The simulations show that when injecting at 0.1 L/s for 180 s with uniform stress field conditions, a penny-shaped fracture with maximum aperture of 0.14 mm at radial extent of about 8 m is created. A disturbance in the stress field, caused by the presence of an offset mine drift, forced the fractures to grow asymmetrically. The presence of an intersecting natural fracture halted growth of the hydraulic fracture. These results agree with other modeling work done within the EGS Collab team.

UR - https://www.scopus.com/pages/publications/85083946616

M3 - 论文

AN - SCOPUS:85083946616

T2 - 52nd U.S. Rock Mechanics/Geomechanics Symposium

Y2 - 17 June 2018 through 20 June 2018

ER -

Hydraulic fracture modeling in support of EGS collab treatment designs

Abstract

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