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.
July 1982,
176 p.
Identifying Number(s): NBS-BSS-138
Keywords: Pore pressure; Earthquake engineering; Sands; Earthquakes; Liquefaction (Soils); Shear strain; Cyclic loads; Seismic loads; Shear modulus; Stress strain diagrams; Liquefaction
Castro, G.; Shields, D. R.; France, J. W.
Field Index Test for Estimating Liquefaction Potential.
National Science Foundation, Washington, DC. Div. of Industrial Science and Technological Innovation.,
March 31, 1982,
64 p.
Keywords: Soil liquefaction; Sands; Earthquakes; Deformations; Soil dynamics; Feasibility; Pressure; Shear stress; Liquefaction
Yegian, M. K.; Vitelli, B. M.
Probabilistic Analysis for Liquefaction.
National Science Foundation, Washington, DC.,
March 1981,
109 p.
Keywords: Saturated soils; Earthquake engineering; Sands; Risk analysis; Earthquakes; Sand boils; Probability theory; Soil dynamics; Soil properties; Liquefaction (Soils); Seismic risk
Saada, A. S.; Fries, G.; Ker, C. C.
An Evaluation of Laboratory Testing Techniques in Soil Dynamics.
National Science Foundation, Washington, DC.,
March 1982,
71 p.
Keywords: Shear tests; Test equipment; Ground motion; Earthquake engineering; Sands; Earthquakes; Triaxial tests; Soil tests; Soil dynamics; Landslides; Clays; Cyclic loads
Castro, G.; Enos, J. L.; France, J. W.; Poulos, S. J.
Liquefaction Induced by Cyclic Loading.
National Science Foundation, Washington, DC.,
March 1982,
358 p.
Keywords: Earthquake engineering; Sands; Earthquakes; Triaxial tests; Soil dynamics; Liquefaction (Soils); Cyclic loads; Shear stress; Grain size
Carter, D. P.; Seed, H. B.
Liquefaction Potential of Sand Deposits under Low Levels of Excitation.
National Science Foundation, Washington, DC.,
August 1988,
335 p.
Identifying Number(s): UCB/EERC-88/11
Keywords: ; Blasting; Sands; Frequencies; Earthquakes; Vibration; Soil pressure; Soil compacting; Soil mechanics; Shear stress; Liquefaction; Seismic waves
Nicholson, P. G.; Seed, R. B.; Anwar, H.
Measurement and Elimination of Membrane Compliance Effects in Undrained Triaxial Testing.
National Science Foundation, Washington, DC.,
December 1989,
300 p.
Identifying Number(s): UCB/EERC-89/10
Keywords: Gravel; Membranes; Earthquake engineering; Sands; Membrane compliance effects; Porous materials; Soil tests; Soil properties; Strains; Soil mechanics; Liquefaction; Modulus of elasticity
Vinson, T. S.; Czajkowski, R. L.; Li, J. C.
Dynamic Properties of Frozen Cohesionless Soils Under Cyclic Triaxial Loading Conditions. Volume II.
National Science Foundation, Washington, D.C.,
January 1977,
303 p.
Identifying Number(s): MSU/CE-77/1
Keywords: Noncohesive soils; Frozen soils; Earthquake engineering; Sands; Permafrost; Earthquakes; Triaxial tests; Silts; Alaska; Cyclic loads; Dynamic properties
Liou, C. P.
A Numerical Model for Liquefaction in Sand Deposits.
National Science Foundation, Washington, DC. Engineering and Applied Science.,
April 1976,
221 p.
Identifying Number(s): UMEE-76R3
Keywords: Pore pressure; Earthquake engineering; Sands; Earthquakes; Shear stresses; Soil dynamics; Secondary waves; Earth movements; Liquefaction (Soils); Stress strain diagrams; Liquefaction; Seismic waves
Seed, H. B.; Pyke, R.; Martin, G. R.
Effect of Multi-Directional Shaking on Liquefaction of Sands.
National Science Foundation, Washington, D.C.,
December 1975,
47 p.
Identifying Number(s): EERC-75-41
Keywords: Earthquake engineering; Sands; Earthquakes; Shear stresses; Triaxial tests; Shaking; Liquefaction (Soils); Cyclic loads; Liquefaction