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Cyclic Loading Effects on the Creep and Dilation of Salt Rock

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Abstract

The Solution Mining Research Institute (SMRI) has embarked on inquiries into the effect cyclic loading might have on salt. This interest stems from the concept of using salt caverns as a storage medium for renewable energy projects such as compressed air energy storage where daily pressure cycles in the cavern are conceivable as opposed to the seasonal cycles that are typical for natural gas storage projects. RESPEC and the Institut für Aufbereitung und Deponietechnik at Clausthal University of Technology jointly executed a rock mechanics laboratory study using both facilities for performing triaxial cyclic loading creep tests on rock salt recovered from the Avery Island Mine in Louisiana, USA. The cyclic triaxial creep tests were performed under various load paths including compression, extension, and compression/extension. The tests were performed under both dilative and nondilative stress regimes. The cyclic compression creep data were compared to static creep tests performed under similar conditions to assess the effect of cycling of the applied stress. Furthermore, the cyclic compression tests were compared to a numerically simulated static creep test at the same stress and temperature conditions to determine if the creep behavior was similar under cyclic loading.

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References

  • American Society for Testing and Materials (ASTM) (2011) Standard practice for preparing rock core specimens and determining dimensional shape tolerances. In: Annual book of American Society for Testing and Materials standards D4543-85, vol 4.08. American Society of Testing and Materials

  • Arnold RD, DeVries KL, Nieland JD, Tiruneh H (2011) Cyclic fatigue effects on the mechanical properties of salt. Solution Mining Research Institute Spring Meeting, Galveston

  • Bauer S, Broome S, Bronowski D, Rinehart A, Ingraham M (2011) Experimental deformation of salt in cyclic loading: insights from acoustic emission measurements. Solution Mining Research Institute Spring Meeting, Galveston

  • Carter NL, Hansen FD (1980) Mechanical behavior of Avery Island halite: a preliminary analysis. ONWI-100, prepared by RE/SPEC Inc., Rapid City, SD, for the Office of Nuclear Waste Isolation, Battelle Memorial Institute, Columbus

  • DeVries KL (1988) Viscoplastic laws for Avery Island salt. RSI-0333, prepared by RE/SPEC Inc., Rapid City, SD, for Stone & Webster Engineering Corporation, Boston

  • Hansen FD, Mellegard KD (1980) Creep of 50-mm diameter specimens of dome salt from Avery Island, Louisiana. ONWI-104, prepared by RE/SPEC Inc., Rapid City, SD, for the Office of Nuclear Waste Isolation, Battelle Memorial Institute, Columbus

  • Mellegard KD, Pfeifle TW (1998) Laboratory evaluation of mechanical properties of rock using an automated triaxial compression test with a constant mean stress criterion. In: Marr WA, Fairhurst CE (eds) Nondestructive and automated testing for soil and rock properties, ASTM STP 1350. American Society for Testing and Materials

  • Mellegard KD, Senseny PE, Hansen FD (1983) Quasi-static strength and creep characteristics of 100-mm diameter specimens of salt from Avery Island, Louisiana. ONWI-250, prepared by RE/SPEC Inc., Rapid City, SD, for the Office of Nuclear Waste Isolation, Battelle Memorial Institute, Columbus

  • Mellegard KD, DeVries KL, Callahan GD (2007) Lode angle effects on the creep of salt. In: Wallner M, Lux KH, Minkley W, Hardy HR Jr (eds) Proceedings of the 6th conference on the mechanical behavior of salt, Hannover. Taylor & Francis Group, London, pp 9–16

    Google Scholar 

  • Munson DE (1998) Analysis of multistage and other creep data for domal salts. SAND98-2276, Sandia National Laboratories, Albuquerque

  • Munson DE, Fossum AF, Senseny PE (1989) Advances in resolution of discrepancies between predicted and measured in situ WIPP room closures. SAND88-2948, Sandia National Laboratories, Albuquerque

  • Senseny PE (1981) Specimen size and history effects on creep of salt. First conference on the mechanical behavior of salt. The Pennsylvania State University, Trans Tech Publications, Clausthal-Zellerfeld

  • Van Sambeek LL, Ratigan JL, Hansen FD (1993) Dilatancy of rock salt in laboratory tests. In: Haimson BC (ed) Proceedings of 34th U.S. symposium on rock mechanics, University of Wisconsin-Madison, Madison. International Journal of Rock Mechanics and Mining Sciences and Geomechanics Abstracts, vol 30, no 7, Pergamon Press, pp 735–738

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Correspondence to Lance A. Roberts.

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Roberts, L.A., Buchholz, S.A., Mellegard, K.D. et al. Cyclic Loading Effects on the Creep and Dilation of Salt Rock. Rock Mech Rock Eng 48, 2581–2590 (2015). https://doi.org/10.1007/s00603-015-0845-4

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  • DOI: https://doi.org/10.1007/s00603-015-0845-4

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