Abstract
Observations of the dynamic loading and liquefaction response of a deep medium dense sand deposit to controlled blasting have allowed quantification of its large-volume dynamic behavior from the linear-elastic to nonlinear-inelastic regimes under in-situ conditions unaffected by the influence of sample disturbance or imposed laboratory boundary conditions. The dynamic response of the sand was shown to be governed by the S-waves resulting from blast-induced ground motions, the frequencies of which lie within the range of earthquake ground motions. The experimentally derived dataset allowed ready interpretation of the in-situ γ-ue responses under the cyclic strain approach. However, practitioners have more commonly interpreted cyclic behavior using the cyclic stress-based approach; thus this paper also presents the methodology implemented to interpret the equivalent number of stress cycles, Neq, and deduce the cyclic stress ratios, CSRs, generated during blast-induced shearing to provide a comprehensive comparison of the cyclic resistance of the in-situ and constant-volume, stress- and strain-controlled cyclic direct simple shear (DSS) behavior of reconstituted sand specimens consolidated to the in-situ vertical effective stress, relative density, and Vs. The multi-directional cyclic resistance of the in-situ deposit was observed to be larger than that derived from the results of the cyclic strain and stress interpretations of the uniaxial DSS test data, indicating the substantial contributions of natural soil fabric and partial drainage to liquefaction resistance during shaking. The cyclic resistance ratios, CRRs, computed using case history-based liquefaction triggering procedures based on the SPT, CPT, and Vs are compared to that determined from in-situ CRR-Neq relationships considering justified, assumed slopes of the CRR-N curve, indicating variable degrees of accuracy relative to the in-situ CRR, all of which were smaller than that associated with the in-situ cyclic resistance.
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References
Adamidis, O., Madabhushi, S.P.G.: Experimental investigation of drainage during earthquake-induced liquefaction. Geotechnique 68(8), 655–665 (2018)
Adamidis, O., Sinan, U., Anastasopoulos, I.: Effects of partial drainage on the response of Hostun sand: an experimental investigation at element level. Earthq. Geotechn. Eng. Protect. Develop. Environ. Constr. 4, 993–1000 (2019)
Andrus, R.D., Stokoe, K.H., II.: Liquefaction resistance of soils from shear-wave velocity. J. Geotech. Geoenv. Eng. 126(11), 1015–1025 (2000)
Bong, T., Stuedlein, A.W.: Effect of cone penetration conditioning on random field model parameters and impact of spatial variability on liquefaction-induced differential settlements. J. Geot. Geoenv. Eng. 144(5), 04018018 (2018)
Boulanger, R.W., Idriss, I.M.: CPT and SPT based liquefaction triggering procedures. In: Report No. UCD/CGM-14/01, p. 138. UC Davis, California (2014)
Boulanger, R.W., Idriss, I.M.: Evaluating the potential for liquefaction or cyclic failure of silts and clays. In: Report No. UCD/CGM-04/01, p. 131. UC Davis, California (2004)
Boulanger, R.W., Idriss, I.M.: Magnitude scaling factors in liquefaction triggering procedures. Soil Dyn. Earthq. Eng. 79, 296–303 (2015)
Cappa, R., Brandenberg, S.J., Lemnitzer, A.: Strains and pore pressures generated during cyclic loading of embankments on organic soil. J. Geot. Geoenv. Eng. 143(9), 04017069 (2017)
Cox, B.R., Stokoe, K.H., II., Rathje, E.M.: An in -situ test method for evaluating the coupled pore pressure generation and nonlinear shear modulus behavior of liquefiable soils. Geotech. Test. J. 32(1), 11–21 (2009)
Cubrinovski, M., Ishihara, K.: Empirical correlation between SPT N-value and relative density for sandy soils. Soils Found. 39(5), 61–71 (1999)
Cubrinovski, M., Rhodes, A., Ntritsos, N., Van Ballegooy, S.: System response of liquefiable deposits. Soil Dyn. Earthq. Eng. 124, 212–229 (2019)
Darendeli, M.B.: Development of a new family of normalized modulus reduction and material dam** curves. PhD Thesis. Univ. of Texas at Austin, Austin, Texas (2001)
Dobry, R., Abdoun, T.: Cyclic shear strain needed for liquefaction triggering and assessment of overburden pressure factor Kσ. J. Geot. Geoenv. Eng. 141(11), 04015047 (2015)
Dobry, R., Ladd, R.S., Yokel, F.Y., Chung, R.M., Powell, D.: Prediction of pore water pressure buildup and liquefaction of sands during earthquakes by the cyclic strain method. National Bureau of Standards Report 138. Gaithersburg, MD (1982)
Donaldson, A.M.: Characterization of the Small-Strain Stiffness of Soils at an In-situ Liquefaction Test Site. MS Thesis, p. 287. Oregon State University (2019)
Idriss, I.M., Boulanger, R.W.: Soil liquefaction during earthquakes. In: EERI Monograph No. 12, Earthquake Engineering Research Institute, p. 237 (2008)
Ishihara, K.: Propagation of compressional waves in a saturated soil. In: Proc. Int. Symp. Wave Prop. Dyn. Prop. Earth Mat, pp. 195–206. Univ. of New Mexico Press, Albuquerque, NM (1967)
Jana, A., Stuedlein, A.W.: Dynamic, In-situ, Nonlinear-Inelastic Response of a Deep, Medium Dense Sand Deposit. J. Geot. Geoenv. Eng. 147(6), 04021039 (2021a)
Jana, A., Stuedlein, A.W.: Dynamic, In-situ, Nonlinear-Inelastic Response and Post-Cyclic Strength of a Plastic Silt Deposit. Can. Geot. J. 59(1), 111–128 (2021b)
Jana, A., Donaldson, A. M., Stuedlein, A.W., Evans, T.M.: Deep, In Situ Nonlinear Dynamic Testing of Soil with Controlled Blasting: Instrumentation, Calibration, and Application to a Plastic Silt Deposit. Geotechnical Testing Journal 44(5) (2021)
Joyner, W.B., Chen, A.T.: Calculation of nonlinear ground response in earthquakes. Bull. Seis. Soc. Am. 65(5), 1315–1336 (1975)
Kayen, R., et al.: Shear-wave velocity–based probabilistic and deterministic assessment of seismic soil liquefaction potential. J. Geot. Geoenv. Eng. 139(3), 407–419 (2013)
Kramer, S.L., Sideras, S.S., Greenfield, M.W.: The timing of liquefaction and its utility in liquefaction hazard evaluation. Soil Dyn. Earthq. Eng. 91, 133–146 (2016)
Martin, G.R., Finn, W.D.L., Seed, H.B.: Fundamentals of liquefaction under cyclic loading. J. Geot. Eng. Div. 101(5), 423–438 (1975)
Mayne, P.W.: Cone penetration testing: A synthesis of highway practice. NCHRP Report, No. 368. Transportation Research Board, Washington, D.C. (2007)
Menq, F.Y.: Dynamic properties of sandy and gravelly soils. PhD Thesis. University of Texas, Austin (2003)
Mortezaie, A.R., Vucetic, M.: Effect of frequency and vertical stress on cyclic degradation and pore water pressure in clay in the NGI simple shear device. J. Geotech. Geoenv. Eng. 139(10), 1727–1737 (2013)
Ni, M., Abdoun, T., Dobry, R., El-Sekelly, W.: Effect of field drainage on seismic pore pressure buildup and kσ under high overburden pressure. J. Geot. Geoenv. Eng. 147(9), 04021088 (2021)
Rathje, E.M., Phillips, R., Chang, W.J., Stokoe, K.H. II: Evaluating Nonlinear Response In Situ, In: Proceedings of 4th Int. Conf. on Recent Adv. Geot. Earthq. Eng. Soil Dyn. San Diego, CA (2001)
Roberts, J.N., et al.: Field measurements of the variability in shear strain and pore pressure generation in Christchurch soils. In: Proc. 5th Int. Conf. on Geot. Geophys. Site Char. (2016)
Sanchez-Salinero, I., Roesset, J.M., Stokoe, K.H. II: Analytical studies of wave propagation and attenuation. In: Report, Air Force Office of Scientific Research, p. 296. Bolling AFB, Washington, D.C. (1986)
Stuedlein, A.W., Bong, T., Montgomery, J., Ching, J., Phoon, K.K.: Effect of densification on the random field model parameters of liquefiable soil and their use in estimating spatially-distributed liquefaction-induced settlement. Int. J. Geoengineering Case Histories (2021). In Press
Van Ballegooy, S., Roberts, J. N., Stokoe, K. H., Cox, B. R., Wentz, F. J., Hwang, S.: Large-scale testing of shallow ground improvements using controlled staged-loading with T-Rex. In: Proceedings of the 6th International Conference on Earthquake Geotechnical Engineering, pp. 1–4. Christchurch, New Zealand (2015)
Verma, P., Seidalinova, A., Wijewickreme, D.: Equivalent number of uniform cycles versus earthquake magnitude relationships for fine-grained soils. Can. Geot. J. 56(11), 1596–1608 (2019)
**ao, P., Liu, H., **ao, Y., Stuedlein, A.W., Evans, T.M., Jiang, X.: Liquefaction resistance of bio-cemented calcareous sand. Soil Dyn. Earthq. Eng. 107, 9–19 (2018)
Yoshimi, Y., Tokimatsu, K., Kaneko, O., Makihara, Y.: Undrained cyclic shear strength of a dense Niigata sand. Soils Found. 24(4), 131–145 (1984)
Youd, T.L., Idriss, I.M.: Liquefaction resistance of soils: summary report from the 1996 NCEER and 1998 NCEER/NSF workshops on evaluation of liquefaction resistance of soils. J. Geot. Geoenv. Eng. 127(4), 297–313 (2001)
Zamani, A., Montoya, B.M.: Undrained cyclic response of silty sands improved by microbial induced calcium carbonate precipitation. Soil Dyn. Earthq. Eng. 120, 436–448 (2019)
Acknowledgements
The authors gratefully acknowledge the sponsorship of this work by the Cascadia Lifelines Program (CLiP) and its members, with special thanks to sponsoring member agency Port of Portland and Tom Wharton, P.E. The authors were supported by the National Science Foundation (Grant CMMI 1663654) on this and similar work during the course of these experiments. The authors gratefully acknowledge the numerous individuals aiding in discussions and collaborative parallel work over the course of this study. The views presented herein represent solely those of the authors.
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Stuedlein, A.W., Jana, A. (2022). In-Situ Liquefaction Testing of a Medium Dense Sand Deposit and Comparison to Case History- and Laboratory-Based Cyclic Stress and Strain Evaluations. In: Wang, L., Zhang, JM., Wang, R. (eds) Proceedings of the 4th International Conference on Performance Based Design in Earthquake Geotechnical Engineering (Bei**g 2022). PBD-IV 2022. Geotechnical, Geological and Earthquake Engineering, vol 52. Springer, Cham. https://doi.org/10.1007/978-3-031-11898-2_32
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