An Investigation into Proppant Dynamics in Hydraulic Fracturing
- Baidurja Ray (Halliburton) | Chris Lewis (Halliburton) | Vladimir Martysevich (Halliburton) | Dinesh A. Shetty (Halliburton) | Harold G. Walters (Halliburton) | Jie Bai (Halliburton) | Jianfu Ma (Halliburton)
- Document ID
- Society of Petroleum Engineers
- SPE Hydraulic Fracturing Technology Conference and Exhibition, 24–26 January, The Woodlands, Texas, USA
- Publication Date
- Document Type
- Conference Paper
- 2017. Society of Petroleum Engineers
- 2.5.2 Fracturing Materials (Fluids, Proppant), 4.1.2 Separation and Treating, 2 Well completion, 2.4 Hydraulic Fracturing, 3 Production and Well Operations, 4.1 Processing Systems and Design, 4 Facilities Design, Construction and Operation
- channel, proppant, experiment, model, bridging
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Effective proppant placement during hydraulic fracturing is essential to obtain maximum stimulation effectiveness. Understanding proppant placement requires the understanding of the time and space dependent dynamics of proppant motion in fluids, which include the phenomena of proppant transport, bridging, settling, and resuspension. This paper proposes a laboratory test method that can be used to investigate any aspect of proppant dynamics in a variety of channel configurations and fracturing fluids. 3D printing technology is used to rapidly manufacture channel flow devices of various dimensions. After a 3D printer is available, such manufacturing is extremely inexpensive with rapid turn-around times. These channels, in conjunction with laboratory scale pumps and blenders, are used to investigate proppant transport and bridging, settling, and resuspension in various fracturing fluids. Several different channel configurations, ranging from uniform width to uniform tapered, are used to investigate the dynamics of small and large diameter proppants with fluids ranging from water to linear gels. The results from these experiments are compared with numerical models for validation, and in some cases, calibration of model inputs, that can ultimately lead to improved fracturing treatment design and understanding. In addition, the paper provides a comparison to existing data (Patankar et al. 2002) to validate settling and resuspension models.
|File Size||1 MB||Number of Pages||12|
Barree, R.D. and Conway, M.W. 1994. Experimental and Numerical Modeling of Convective Proppant Transport. Presented at the SPE Annual Technical Conference and Exhibition, New Orleans, Louisiana, USA, 25-28 September. SPE-28564-MS. doi:10.2118/28564-MS.
Barree, R.D. and Conway, M.W. 2001. Proppant Holdup, Bridging, and Screenout Behavior in Naturally Fractured Reservoirs. Presented at the SPE Production and Operations Symposium, Oklahoma City, Oklahoma, USA, 24-27 March. SPE-67298-MS. doi:10.2118/67298-MS.
Blyton, C.A., Gala, D.P., and Sharma, M.M. 2015. A Comprehensive Study of Proppant Transport in a Hydraulic Fracture. Presented at the APE Annual Technical Conference and Exhibition, Houston, Texas, USA, 28-30 September. SPE-174973-MS. doi:10.2118/174973-MS.
Clark, P.E. and Quadir, J.A. 1981. Prop Transport In Hydraulic Fractures: A Critical Review Of Particle Settling Velocity Equations. Presented at the SPE/DOE Low Permeability Gas Reservoirs Symposium, Denver Colorado, USA, 27-29 May. SPE-9866-MS. doi:10.2118/9866-MS.
Daneshy, A.A. 1978. Numerical Solution of Sand Transport in Hydraulic Fracturing. JPT 30 (01): 132-140. SPE-5636-PA. doi:10.2118/5636-PA.
Dunand, A. and Soucemarianadin, A. 1985. Concentration Effects on the Settling Velocities of Proppant Slurries. Presented at the SPE Annual Technical Conference and Exhibition, Las Vegas, Nevada, USA, 22-26 September. SPE-14259-MS. doi:10.2118/14259-MS.
Gadde, P.B., Liu, Y., Norman, J., Bonnecaze, R. . 2004. Modeling Proppant Settling in Water-Fracs. Presented at the SPE Annual Technical Conference and Exhibition, Houston, Texas, USA, 26-29 September. SPE-89875-MS. doi:10.2118/89875-MS.
Gruesbeck, C. and Collins, R.E. 1982. Particle Transport Through Perforations. SPE J 22 (06): 857-865. SPE-7006-PA. doi:10.2118/7006-PA.
Kern, L.R., Perkins, T.K., and Wyant, R.E. 1959. The Mechanics of Sand Movement in Fracturing. JPT 11 (07): 55-57. SPE-1108-G. doi:10.2118/1108-G.
Malhotra, S. and Sharma, M.M. 2011. A General Correlation for Proppant Settling in VES Fluids. Presented at the SPE Hydraulic Fracturing Technology Conference, The Woodlands, Texas, USA, 24-26 January. SPE-139581-MS. doi:10.2118/139581-MS.
Roy, S., Du Frane W. L., Kanarska, Y. . 2016. Numerical and Experimental Studies of Particle Settling in Real Fracture Geometries. Rock Mechanics and Rock Engineering:1-13. http://dx.doi.org/10.1007/s00603-016-1100-3.
Sahai, R., Miskimins, J.L., and Olson, K.E. 2014. Laboratory Results of Proppant Transport in Complex Fracture Systems. Presented at the SPE Hydraulic Fracturing Technology Conference, The Woodlands, Texas, USA, 4-6 February. SPE-168579-MS. doi:10.2118/168579-MS.
Woodworth, T.R. and Miskimins, J.L. 2007. Extrapolation of Laboratory Proppant Placement Behavior to the Field in Slickwater Fracturing Applications. Presented at the SPE Hydraulic Fracturing Technology Conference, College Station, Texas, USA, 29-31 January. SPE-106089-MS. doi:10.2118/106089-MS.
Wu, H., Madasu, S., and Lin, A. 2014. A Computational Model for Simulating Proppant Transport in Wellbore and Fractures for Unconventional Treatments. Presented at the Abu Dhabi International Petroleum Exhibition and Conference, Abu Dhabi, UAE, 10-13 November. SPE-171739-MS. doi:10.2118/171739-MS.