AUTHOR INDEX
Abbireddy C. O. R. see Clayton C. R. I. et al., 493–501
Abbireddy C. O. R., Clayton C. R. I. & Huvenne V. A. I.
A method of estimating the form of fine particulates, 503–511
Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M.
Technical note. Thermomechanical model for saturated clays, 273–278
Acosta-Martinez H. E. see Gourvenec S. et al.
Adam D. & Markiewicz R.
Energy from earth-coupled structures, foundations, tunnels and sewers, 229–236
Ahmad K. see Shukla S. K. et al.
Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A.
Bentonite THM behaviour at high temperatures: experimental and numerical analysis, 307–318
Alonso E. E. see Muñoz J. J. et al.
See also Gens A. et al.
Amatya B. see Bourne-Webb P. J. et al.
Amis T. see Bourne-Webb P. J. et al.
Andrade J. E.
A predictive framework for liquefaction instability, 673–682
Aoyama S. see Fujisawa K. et al.
Augarde C. E. see Jaquin P. A. et al.
Basu D., Salgado R. & Prezzi M.
A continuum-based model for analysis of laterally loaded piles in layered soils, 127–140
Baziar M. H., Salemi Sh. & Merrifield C. M.
Dynamic centrifuge model tests on asphalt-concrete core dams, 763–771
Bergado D. T. see Abuel-Naga H. M. et al.
Bezuijen A., Sanders M. P. M. & Den Hamer D.
Technical note. Parameters that influence the pressure filtration characteristics of bentonite grouts, 717–721
Black J. A. see Sivakumar V. et al., 813–823
Blight G.
Solar heating of the soil and evaporation from a soil surface, 355–363
Bouazza A. see Abuel-Naga H. M. et al.
Bouazza A., Gates W. P. & Ranjith P. G.
Technical note. Hydraulic conductivity of biopolymer-treated silty sand, 71–72
Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P.
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles, 237–248
Bransby M. F. & Yun G.-J.
The undrained capacity of skirted strip foundations under combined loading, 115–125
Brown J. L., Sivakumar V., McKinley J. D., Harmon N. & McDonald K.
Technical note. The miniature wireless data-logger for pressure measurements in geotechnical applications, 141–146
Budhu M. see Mahajan S. P. & Budhu M.
Bui M. see Clayton C. R. I. et al., 429–437
Buik N. see Dickinson J. S. et al.
Burland J. B.
Discussion. The founders of Géotechnique, 785–788
Cairns P. see Sivakumar V. et al., 813–823
Casagrande M. D. T. see Consoli N. C. et al.
Chai J.-C., Matsunaga K., Sakai A. & Hayashi S.
Technical note. Comparison of vacuum consolidation with surcharge load induced consolidation of a two-layer system, 637–641
Chandler H. W. & Sands C. M.
A graphical method for producing yield surfaces for soils, 683–690
Cheung R. W. M. see Yin J.-H. et al.
Chow Y. K. see Zhou X. X. et al.
Clarke B. G.
Editorial, 157
Editorial, 291
Clarke B. G., Hughes D. B. & Hashemi S.
Discussion. Physical characteristics of subglacial tills, 153–155
Clayton C. R. I.
Editorial: Géotechnique—moving on, 1
See also Abbireddy C. O. R. et al.
Clayton C. R. I., Abbireddy C. O. R. & Schiebel R.
A method of estimating the form of coarse particulates, 493–501
Clayton C. R. I., Priest J. A., Bui M., Zervos A. & Kim S. G.
The Stokoe resonant column apparatus: effects of stiffness, mass and specimen fixity, 429–437
Cleall P. see Thomas H. R. et al., 173–184
Cleall P. J. see Thomas H. R. et al., 401–413
Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M.
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand, 471–476
Coop M. see Jotisankasa A. et al.
Coop M. R. see Ventouras K. & Coop M. R.
Cui Y.-J. see Tang A.-M. & Cui Y.-J.
Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L.
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading, 319–329
Dalla Rosa F. see Consoli N. C. et al.
Darve F. see Lignon S. et al.
Davidson C. see Bourne-Webb P. J. et al.
De Col E. see Tarantino A. & De Col E.
Delage P. see Cui Y.-J. et al.
Den Hamer D. see Bezuijen A. et al.
Di Benedetto H. see Ezaoui A. & Di Benedetto H.
Dickinson J. S., Buik N., Matthews M. C. & Snijders A.
Aquifer thermal energy storage: theoretical and operational analysis, 249–260
Dixon D. see Thomas H. R. et al., 401–413
Donohue S., O'Sullivan C. & Long M.
Technical note. Particle breakage during cyclic triaxial loading of a carbonate sand, 477–482
Drescher A. see Michalowski R. L. & Drescher A.
Ezaoui A. & Di Benedetto H.
Experimental measurements of the global anisotropic elastic behaviour of dry Hostun sand during triaxial tests, and effect of sample preparation, 621–635
Fahey M. see Consoli N. C. et al.
François B. see Hueckel T. et al.
Fenton C. H. see Nishimura S. et al., 213–227
Fujisawa K., Kobayashi A. & Aoyama S.
Theoretical description of embankment erosion owing to overflow, 661–671
Galavi V. see Schweiger H. F. et al.
Gallagher G. see Sivakumar V. et al., 825–838
Gallipoli D. see Jaquin P. A. et al.
Gandhi M. see Shukla S. K. et al.
Garcia X., Latham J.-P., Xiang J. & Harrison J. P.
Technical note. A clustered overlapping sphere algorithm to represent real particles in discrete element modeling, 779–784
Gareau L. F. see Rohe A. et al.
Gatabin C. see Åkesson M. et al.
Gates W. P. see Bouazza A. et al.
Gaudin C. see Lehane B. M. et al.
Gavin K. & Xue J.
Technical note. Use of a genetic algorithm to perform reliability analysis of unsaturated soil slopes, 545–549
Gens A. see Nishimura S. et al. , 159–171
Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F.
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation, 377–399
Glynn D. see Sivakumar V. et al., 813–823
Gourvenec S., Acosta-Martinez H. E. & Randolph M. F.
Experimental study of uplift resistance of shallow skirted foundations in clay under transient and sustained concentric loading, 525–537
Gudehus G. & Mašín D.
Technical note. Graphical representation of constitutive equations, 147–151
Guimarães L. Do N. see Gens A. et al.
Haldar S. & Sivakumar Babu G. L.
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach, 593–607
Harmon N. see Brown J. L. et al.
Harris C. see Thomas H. R. et al., 173–184
Harrison J. P. see Garcia X. et al.
Hashemi S. see Clarke B. G. et al.
Hayashi S. see Chai J.-C. et al.
Hou W. see Yao Y.-P. et al.
Hueckel T., François B. & Laloui L.
Explaining thermal failure in saturated clays, 197–212
Huertas F. see Gens A. et al.
Hughes D. see Sivakumar V. et al., 825–838
Hughes D. B. see Clarke B. G. et al.
Huvenne V. A. I. see Abbireddy C. O. R. et al.
Indraratna B. see Walker R. & Indraratna B.
Indraratna B., Vinod J. S. & Lackenby J.
Technical note. Influence of particle breakage on the resilient modulus of railway ballast, 643–646
Ishihara K. see Tsukamoto Y. et al.
Jacinto A. C. see Åkesson M. et al.
Jaquin P. A., Augarde C. E., Gallipoli D. & Toll D. G.
Technical note. The strength of unstabilised rammed earth materials, 487–490
Jardine R. J. see Nishimura S. et al., 159–171, 213–227
Jotisankasa A., Coop M. & Ridley A.
The mechanical behaviour of an unsaturated compacted silty clay, 415–428
Kamata T. see Tsukamoto Y. et al.
Kern-Leutschg M. see Thomas H. R. et al., 173–184
Khalili N. see Uchaipichat A. & Khalili N.
Khoa H. D. V. see Lignon S. et al.
Kikkawa N. see Pender M. J et al.
Kim S. G. see Clayton C. R. I. et al., 429–437
Knappett J. A. & Madabhushi S. P. G.
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling, 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling, 583–592
Kobayashi A. see Fujisawa K. et al.
Lackenby J. see Indraratna B. et al.
Laloui L. see Hueckel T. et al.
Lancellota R. & Pappin J. W.
Discussion. Contributions to Géotechnique 1948–2008: Dynamics, 789–791
Laouafa F. see Lignon S. et al.
Latham J.-P. see Garcia X. et al.
Le T. T. see Cui Y.-J. et al.
Ledesma A. see Åkesson M. et al.
Lee H. F. see Zhang X. Y. et al.
Lehane B. M., O'Loughlin C. D., Gaudin C. & Randolph M. F.
Rate effects on penetrometer resistance in kaolin, 41–52
Leong W. H. see Tarnawski V. R. et al.
Leung C. F. see Zhang X. Y. et al.
See also Zhou X. X. et al.
Li X. L. see Cui Y.-J. et al.
Li Y.-C. see Thomas H. R. et al., 173–184
Lignon S., Laouafa F., Prunier F., Khoa H. D. V. & Darve F.
Hydro-mechanical modelling of landslides with a material instability criterion, 513–524
Liu H. see Wood C. J. et al.
Liu P. see Pender M. J et al.
Lloret A. see Muñoz J. J. et al.
See also Gens A. et al.
Long M. see Donohue S. et al.
Madabhushi S. P. G. see Knappett J. A. & Madabhushi S. P. G.
Mahajan S. P. & Budhu M.
Technical note. Shear viscosity of clays using the fall cone test, 539–543
Markiewicz R. see Adam D. & Markiewicz R.
Martin C. J. see Nishimura S. et al., 213–227
Martin C. M.
Technical note. Undrained collapse of a shallow plane-strain trapdoor, 855–863
Mašín D. see Gudehus G. & Mašín D.
Massinas S. A. & Sakellariou M. G.
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion, 691–701
Matsunaga K. see Chai J.-C. et al.
Matthews M. C. see Dickinson J. S. et al.
McDonald K. see Brown J. L. et al.
McKinley J. D. see Brown J. L. et al.
McKinley J. D. & Sivakumar V.
Technical note. Coefficient of consolidation by plotting velocity against displacement, 553–557
Merrifield C. M. see Baziar M. H. et al.
Michalowski R. L. & Drescher A.
Three-dimensional stability of slopes and excavations, 839–849
Misra A. & Roberts L. A.
Service limit state resistance factors for drilled shafts, 53–61
Mitchell H. P. see Thomas H. R. et al., 401–413
Molenkamp F. see Rohe A. et al.
Momose T. see Tarnawski V. R. et al.
Mooney M. A. see Rinehart R. V. & Mooney M. A.
Muñoz J. J., Alonso E. E. & Lloret A.
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests, 293–306
Nader J. J.
Technical note. Darcy's law and the differential equation of motion, 551–552
Nakamura K. see Toyota H. et al.
Navaneethan T. see Sivakumar V. et al., 825–838
Nishimura S., Gens A., Olivella S. & Jardine R. J.
THM-coupled finite element analysis of frozen soil: formulation and application, 159–171
Nishimura S., Martin C. J., Jardine R. J. & Fenton C. H.
A new approach for assessing geothermal response to climate change in permafrost regions, 213–227
O'Loughlin C. D. see Lehane B. M. et al.
Olivella S. see Nishimura S. et al., 159–171
See also Gens A. et al.
O'Sullivan C. see Donohue S. et al.
Pappin J. W. see Lancellota R. & Pappin J. W.
Payne P. see Bourne-Webb P. J. et al.
Pender M. see Abuel-Naga H. M. et al.
Pender M. J, Kikkawa N. & Liu P.
Technical note. Macro-void structure and permeability of Auckland residual clay, 773–778
Powrie W. see Preene M. & Powrie W.
Preene M. & Powrie W.
Ground energy systems: from analysis to geotechnical design, 261–271
Prezzi M. see Basu D. et al.
Priest J. A. see Clayton C. R. I. et al., 429–437
Prunier F. see Lignon S. et al.
Randolph M. F. see Gourvenec S. et al.
See also Lehane B. M. et al.
See also Tran M. N. & Randolph M. F.
See also Zhou H. & Randolph M. F., 79–86, 801–812
Ranjith P. G. see Bouazza A. et al.
Ravishankar B. V. see Sitharam T. G. et al.
Rees S. W. see Thomas H. R. & Rees S. W.
Ridley A. see Jotisankasa A. et al.
Riffat S. B. see Wood C. J. et al.
Rinehart R. V. & Mooney M. A.
Measurement depth of vibratory roller-measured soil stiffness, 609–619
Roberts L. A. see Misra A. & Roberts L. A.
Rohe A., Gareau L. F. & Molenkamp F.
Lateral oedometer testing of anisotropic clay as affected by surface roughness, 703–715
Sakai A. see Chai J.-C. et al.
Sakai N. see Toyota H. et al.
Sakellariou M. G. see Massinas S. A. & Sakellariou M. G.
Salemi Sh. see Baziar M. H. et al.
Salgado R. see Basu D. et al.
Sanchez M. see Åkesson M. et al.
Sánchez M. see Gens A. et al.
Sands C. M. see Chandler H. W. & Sands C. M.
Sanders M. P. M. see Bezuijen A. et al.
Scharinger F. see Schweiger H. F. et al.
Schiebel R. see Clayton C. R. I. et al., 493–501
Schweiger H. F., Wiltafsky C., Scharinger F. & Galavi V.
A multilaminate framework for modelling induced and inherent anisotropy of soils, 87–101
Seetharam S. C. see Thomas H. R. et al., 279–282
Shiu Y.–K. see Yin J.-H. et al.
Shukla S. K., Sivakugan N., Gandhi M. & M. Ahmad K.
Technical note. Improved expressions for field values of compaction test parameters, 851–853
Siddiqua S. see Thomas H. R. et al., 279–282
Simpson B. & Tatsuoka F.
Discussion. Geotechnics: The next 60 years, 723–724
Sitharam T. G., Vinod J. S. & Ravishankar B. V.
Post-liquefaction undrained monotonic behaviour of sands: experiments and DEM simulations, 739–749
Sivakugan N. see Shukla S. K. et al.
Sivakumar V. see Brown J. L. et al.
See also McKinley J. D. & Sivakumar V.
Sivakumar V., Glynn D., Cairns P. & Black J. A.
A new method of measuring plastic limit of fine materials, 813–823
Sivakumar V., Navaneethan T., Hughes D. & Gallagher G.
An assessment of earth pressure coefficient in overconsolidated clays, 825–838
Sivakumar Babu G. L. see Haldar S. & Sivakumar Babu G. L.
Snijders A. see Dickinson J. S. et al.
Soga K. see Bourne-Webb P. J. et al.
Su L.-J. see Yin J.-H. et al.
Sugimoto M. see Toyota H. et al.
Tang A. M. see Cui Y.-J. et al.
Tang A.-M. & Cui Y.-J.
Modelling the thermomechanical volume change behaviour of compacted expansive clays, 185–195
Tang C. see Yin J.-H. et al.
Tarantino A.
A water retention model for deformable soils, 751–762
Tarantino A. & De Col E.
Discussion. Compaction behaviour of clay, 75–77
Tarnawski V. R., Momose T. & Leong W. H.
Assessing the impact of quartz content on the prediction of soil thermal conductivity, 331–338
Tatsuoka F. see Simpson B. & Tatsuoka F.
Thomas H. R. & Rees S. W.
Measured and simulated heat transfer to foundation soils, 365–375
Thomas H. R., Cleall P., Li Y.-C., Harris C. & Kern-Luetschg M.
Modelling of cryogenic processes in permafrost and seasonally frozen soils, 173–184
Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P.
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment, 401–413
Thomas H. R., Siddiqua S. & Seetharam S. C.
Technical note. Inclusion of higher-temperature effects in a soil behaviour model, 279–282
Thomé A. see Consoli N. C. et al.
Toll D. G. see Jaquin P. A. et al.
Toyota H., Nakamura K., Sugimoto M. & Sakai N.
Ring shear tests to evaluate strength parameters in various remoulded soils, 649–659
Tran M. N. & Randolph M. F.
Discussion. Variation of suction pressure during caisson installation in sand, 73–74
Tsukamoto Y., Ishihara K. & Kamata T.
Technical note. Undrained shear strength of soils under flow deformation, 483–486
Uchaipichat A. & Khalili N.
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt, 339–353
Vallejo L. E.
Technical note. Fractal analysis of temperature-induced cracking in clays and rocks, 283–286
Ventouras K. & Coop M. R.
On the behaviour of Thanet Sand: an example of an uncemented natural sand, 727–738
Villar M. V. see Gens A. et al.
Vinod J. S. see Indraratna B. et al.
See also Sitharam T. G. et al.
Walker R. & Indraratna B.
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method, 439–449
Wang H. see Zhang L. M. & Wang H.
Wiltafsky C. see Schweiger H. F. et al.
Wood C. J., Liu H. & Riffat S. B.
Technical note. Use of energy piles in a residential building, and effects on ground temperature and heat pump efficiency, 287–190
Xiang J. see Garcia X. et al.
Xue J. see Gavin K. & Xue J.
Yao Y.-P., Hou W. & Zhou A.-N.
UH model: three-dimensional unified hardening model for overconsolidated clays, 451–469
Yin J.-H., Su L.-J., Cheung R. W. M., Shiu Y.-K. & Tang C.
The influence of grouting pressure on the pullout resistance of soil nails in compacted completely decomposed granite fill, 103–113
Yun G.-J. see Bransby M. F. & Yun G.-J.
Zhang L. M. & Wang H.
Technical note. Field study of construction effects in jacked and driven steel H-piles, 63–69
Zhang X. Y., Lee F. H. & Leung C. F.
Response of caisson breakwater subjected to repeated impulsive loading, 3–16
Tilt displacement of caisson breakwater due to wave loading, 17–27
Zervos A. see Clayton C. R. I. et al., 429–437
Zhou A.-N. see Yao Y.-P. et al.
Zhou H. & Randolph M. F.
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay, 79–86
Numerical investigations into cycling of full-flow penetrometers in soft clay, 801–812
Zhou X. X., Chow Y. K. & Leung C. F.
Numerical modelling of extraction of spudcans, 29–39
SUBJECT INDEX
Anchors
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Anisotropy
A multilaminate framework for modelling induced and inherent anisotropy of soils. Schweiger H. F., Wiltafsky C., Scharinger F. & Galavi V., 87–101
Experimental measurements of the global anisotropic elastic behaviour of dry Hostun sand during triaxial tests, and effect of sample preparation. Ezaoui A. & Di Benedetto H., 621–635
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
On the behaviour of Thanet Sand: an example of an uncemented natural sand. Ventouras K. & Coop M. R., 727–738
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Bearing capacity
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles. Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P., 237–248
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand. Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M., 471–476
Experimental study of uplift resistance of shallow skirted foundations in clay under transient and sustained concentric loading. Gourvenec S., Acosta-Martinez H. E. & Randolph M. F., 525–537
Buried structures
Numerical modelling of extraction of spudcans. Zhou X. X., Chow Y. K. & Leung C. F., 29–39
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Calcareous soils
Technical note. Particle breakage during cyclic triaxial loading of a carbonate sand. Donohue S., O'Sullivan C. & Long M., 477–482
Centrifuge modelling
Response of caisson breakwater subjected to repeated impulsive loading. Zhang X. Y., Lee F. H. & Leung C. F., 3–16
Tilt displacement of caisson breakwater due to wave loading. Zhang X. Y., Lee F. H. & Leung C. F., 17–27
Technical note. The miniature wireless data-logger for pressure measurements in geotechnical applications. Brown J. L., Sivakumar V., McKinley J. D., Harmon N. & McDonald K., 141–146
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Dynamic centrifuge model tests on asphalt-concrete core dams. Baziar M. H., Salemi Sh. & Merrifield C. M., 763–771
Clays
Numerical modelling of extraction of spudcans. Zhou X. X., Chow Y. K. & Leung C. F., 29–39
Rate effects on penetrometer resistance in kaolin. Lehane B. M., O'Loughlin C. D., Gaudin C. & Randolph M. F., 41–52
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay. Zhou H. & Randolph M. F., 79–86
Explaining thermal failure in saturated clays. Hueckel T., François B. & Laloui L., 197–212
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
Technical note. Fractal analysis of temperature-induced cracking in clays and rocks. Vallejo L. E., 283–286
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading. Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L., 319–329
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method. Walker R. & Indraratna B., 439–449
UH model: three-dimensional unified hardening model for overconsolidated clays. Yao Y.-P., Hou W. & Zhou A.-N., 451–469
Technical note. Shear viscosity of clays using the fall cone test. Mahajan S. P. & Budhu M., 539–543
Technical note. Coefficient of consolidation by plotting velocity against displacement. McKinley J. D. & Sivakumar V., 553–557
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach. Haldar S. & Sivakumar Babu G. L., 593–607
Ring shear tests to evaluate strength parameters in various remoulded soils. Toyota H., Nakamura K., Sugimoto M. & Sakai N., 649–659
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
Numerical investigations into cycling of full-flow penetrometers in soft clay. Zhou H. & Randolph M. F., 801–812
A new method of measuring plastic limit of fine materials. Sivakumar V., Glynn D., Cairns P. & Black J. A., 813–823
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Collapsed settlement
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
Compaction
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
Technical note. The strength of unstabilised rammed earth materials. Jaquin P. A., Augarde C. E., Gallipoli D. & Toll D. G., 487–490
Measurement depth of vibratory roller-measured soil stiffness. Rinehart R. V. & Mooney M. A., 609–619
Technical note. Improved expressions for field values of compaction test parameters. Shukla S. K., Sivakugan N., Gandhi M. & M. Ahmad K., 851–853
Compressibility
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
Consolidation
Rate effects on penetrometer resistance in kaolin. Lehane B. M., O'Loughlin C. D., Gaudin C. & Randolph M. F., 41–52
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method. Walker R. & Indraratna B., 439–449
Technical note. Coefficient of consolidation by plotting velocity against displacement. McKinley J. D. & Sivakumar V., 553–557
Technical note. Comparison of vacuum consolidation with surcharge load induced consolidation of a two-layer system. Chai J.-C., Matsunaga K., Sakai A. & Hayashi S., 637–641
Technical note. Macro-void structure and permeability of Auckland residual clay. Pender M. J, Kikkawa N. & Liu P., 773–778
Constitutive relations
A multilaminate framework for modelling induced and inherent anisotropy of soils. Schweiger H. F., Wiltafsky C., Scharinger F. & Galavi V., 87–101
Technical note. Graphical representation of constitutive equations. Gudehus G. & Mašín D., 147–151
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
UH model: three-dimensional unified hardening model for overconsolidated clays. Yao Y.-P., Hou W. & Zhou A.-N., 451–469
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
A water retention model for deformable soils. Tarantino A., 751–762
Dams
Dynamic centrifuge model tests on asphalt-concrete core dams. Baziar M. H., Salemi Sh. & Merrifield C. M., 763–771
Deformation
Modelling of cryogenic processes in permafrost and seasonally frozen soils. Thomas H. R., Cleall P., Li Y.-C., Harris C. & Kern-Luetschg M., 173–184
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
UH model: three-dimensional unified hardening model for overconsolidated clays. Yao Y.-P., Hou W. & Zhou A.-N., 451–469
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
Technical note. Influence of particle breakage on the resilient modulus of railway ballast. Indraratna B., Vinod J. S. & Lackenby J., 643–646
Design
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach. Haldar S. & Sivakumar Babu G. L., 593–607
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
Dewatering
Technical note. Parameters that influence the pressure filtration characteristics of bentonite grouts. Bezuijen A., Sanders M. P. M. & Den Hamer D., 717–721
Drainage
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method. Walker R. & Indraratna B., 439–449
Dynamics
The Stokoe resonant column apparatus: effects of stiffness, mass and specimen fixity. Clayton C. R. I., Priest J. A., Bui M., Zervos A. & Kim S. G., 429–437
Dynamic centrifuge model tests on asphalt-concrete core dams. Baziar M. H., Salemi Sh. & Merrifield C. M., 763–771
Earth pressure
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Earthquakes
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
Elasticity
Tilt displacement of caisson breakwater due to wave loading. Zhang X. Y., Lee F. H. & Leung C. F., 17–27
A continuum-based model for analysis of laterally loaded piles in layered soils. Basu D., Salgado R. & Prezzi M., 127–140
Technical note. Graphical representation of constitutive equations. Gudehus G. & Mašín D., 147–151
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
Experimental measurements of the global anisotropic elastic behaviour of dry Hostun sand during triaxial tests, and effect of sample preparation. Ezaoui A. & Di Benedetto H., 621–635
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
Embankments
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
Environmental engineering
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Erosion
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
Excavation
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
Three-dimensional stability of slopes and excavations. Michalowski R. L. & Drescher A., 839–849
Expansive soils
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation. Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F., 377–399
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
Fabric/structure of soils
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
Failure
Explaining thermal failure in saturated clays. Hueckel T., François B. & Laloui L., 197–212
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand. Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M., 471–476
Hydro-mechanical modelling of landslides with a material instability criterion. Lignon S., Laouafa F., Prunier F., Khoa H. D. V. & Darve F., 513–524
Technical note. Use of a genetic algorithm to perform reliability analysis of unsaturated soil slopes. Gavin K. & Xue J., 545–549
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
A predictive framework for liquefaction instability. Andrade J. E., 673–682
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
Three-dimensional stability of slopes and excavations. Michalowski R. L. & Drescher A., 839–849
Field instrumentation
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles. Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P., 237–248
Measurement depth of vibratory roller-measured soil stiffness. Rinehart R. V. & Mooney M. A., 609–619
Footings/foundations
Technical note. Field study of construction effects in jacked and driven steel H-piles. Zhang L. M. & Wang H., 63–69
The undrained capacity of skirted strip foundations under combined loading. Bransby M. F. & Yun G.-J., 115–125
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles. Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P., 237–248
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand. Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M., 471–476
Experimental study of uplift resistance of shallow skirted foundations in clay under transient and sustained concentric loading. Gourvenec S., Acosta-Martinez H. E. & Randolph M. F., 525–537
Fractals
Technical note. Fractal analysis of temperature-induced cracking in clays and rocks. Vallejo L. E., 283–286
Friction
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
Full-scale tests
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles. Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P., 237–248
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation. Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F., 377–399
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
Geology
A new approach for assessing geothermal response to climate change in permafrost regions. Nishimura S., Martin C. J., Jardine R. J. & Fenton C. H. , 213–227
Geophysics
Technical note. Use of energy piles in a residential building, and effects on ground temperature and heat pump efficiency. Wood C. J., Liu H. & Riffat S. B., 287–190
Geotextiles
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Glacial soils
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
Gravels
A method of estimating the form of coarse particulates. Clayton C. R. I., Abbireddy C. O. R. & Schiebel R., 493–501
Technical note. Influence of particle breakage on the resilient modulus of railway ballast. Indraratna B., Vinod J. S. & Lackenby J., 643–646
Ground freezing
THM-coupled finite element analysis of frozen soil: formulation and application. Nishimura S., Gens A., Olivella S. & Jardine R. J., 159–171
Modelling of cryogenic processes in permafrost and seasonally frozen soils. Thomas H. R., Cleall P., Li Y.-C., Harris C. & Kern-Luetschg M., 173–184
A new approach for assessing geothermal response to climate change in permafrost regions. Nishimura S., Martin C. J., Jardine R. J. & Fenton C. H. , 213–227
Ground improvement
Technical note. Parameters that influence the pressure filtration characteristics of bentonite grouts. Bezuijen A., Sanders M. P. M. & Den Hamer D., 717–721
Groundwater
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Ground energy systems: from analysis to geotechnical design. Preene M. & Powrie W., 261–271
Grouting
The influence of grouting pressure on the pullout resistance of soil nails in compacted completely decomposed granite fill. Yin J.-H., Su L.-J., Cheung R. W. M., Shiu Y.-K. & Tang C., 103–113
Technical note. Parameters that influence the pressure filtration characteristics of bentonite grouts. Bezuijen A., Sanders M. P. M. & Den Hamer D., 717–721
In situ testing
Rate effects on penetrometer resistance in kaolin. Lehane B. M., O'Loughlin C. D., Gaudin C. & Randolph M. F., 41–52
Technical note. Field study of construction effects in jacked and driven steel H-piles. Zhang L. M. & Wang H., 63–69
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay. Zhou H. & Randolph M. F., 79–86
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach. Haldar S. & Sivakumar Babu G. L., 593–607
Measurement depth of vibratory roller-measured soil stiffness. Rinehart R. V. & Mooney M. A., 609–619
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Laboratory equipment
Technical note. The miniature wireless data-logger for pressure measurements in geotechnical applications. Brown J. L., Sivakumar V., McKinley J. D., Harmon N. & McDonald K., 141–146
The Stokoe resonant column apparatus: effects of stiffness, mass and specimen fixity. Clayton C. R. I., Priest J. A., Bui M., Zervos A. & Kim S. G., 429–437
Laboratory tests
Technical note. Hydraulic conductivity of biopolymer-treated silty sand. Bouazza A., Gates W. P. & Ranjith P. G., 71–72
Technical note. The miniature wireless data-logger for pressure measurements in geotechnical applications. Brown J. L., Sivakumar V., McKinley J. D., Harmon N. & McDonald K., 141–146
Technical note. Fractal analysis of temperature-induced cracking in clays and rocks. Vallejo L. E., 283–286
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading. Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L., 319–329
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
The Stokoe resonant column apparatus: effects of stiffness, mass and specimen fixity. Clayton C. R. I., Priest J. A., Bui M., Zervos A. & Kim S. G., 429–437
Technical note. Particle breakage during cyclic triaxial loading of a carbonate sand. Donohue S., O'Sullivan C. & Long M., 477–482
Technical note. Undrained shear strength of soils under flow deformation. Tsukamoto Y., Ishihara K. & Kamata T., 483–486
Technical note. The strength of unstabilised rammed earth materials. Jaquin P. A., Augarde C. E., Gallipoli D. & Toll D. G., 487–490
A method of estimating the form of coarse particulates. Clayton C. R. I., Abbireddy C. O. R. & Schiebel R., 493–501
A method of estimating the form of fine particulates. Abbireddy C. O. R., Clayton C. R. I. & Huvenne V. A. I., 503–511
Technical note. Shear viscosity of clays using the fall cone test. Mahajan S. P. & Budhu M., 539–543
Technical note. Coefficient of consolidation by plotting velocity against displacement. McKinley J. D. & Sivakumar V., 553–557
Technical note. Comparison of vacuum consolidation with surcharge load induced consolidation of a two-layer system. Chai J.-C., Matsunaga K., Sakai A. & Hayashi S., 637–641
Technical note. Influence of particle breakage on the resilient modulus of railway ballast. Indraratna B., Vinod J. S. & Lackenby J., 643–646
Ring shear tests to evaluate strength parameters in various remoulded soils. Toyota H., Nakamura K., Sugimoto M. & Sakai N., 649–659
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
Technical note. Parameters that influence the pressure filtration characteristics of bentonite grouts. Bezuijen A., Sanders M. P. M. & Den Hamer D., 717–721
Post-liquefaction undrained monotonic behaviour of sands: experiments and DEM simulations. Sitharam T. G., Vinod J. S. & Ravishankar B. V., 739–749
A water retention model for deformable soils. Tarantino A., 751–762
A new method of measuring plastic limit of fine materials. Sivakumar V., Glynn D., Cairns P. & Black J. A., 813–823
Technical note. Improved expressions for field values of compaction test parameters. Shukla S. K., Sivakugan N., Gandhi M. & M. Ahmad K., 851–853
Landslides
Hydro-mechanical modelling of landslides with a material instability criterion. Lignon S., Laouafa F., Prunier F., Khoa H. D. V. & Darve F., 513–524
Three-dimensional stability of slopes and excavations. Michalowski R. L. & Drescher A., 839–849
Limit state design/analysis
Service limit state resistance factors for drilled shafts. Misra A. & Roberts L. A., 53–61
Three-dimensional stability of slopes and excavations. Michalowski R. L. & Drescher A., 839–849
Liquefaction
Response of caisson breakwater subjected to repeated impulsive loading. Zhang X. Y., Lee F. H. & Leung C. F., 3–16
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
A predictive framework for liquefaction instability. Andrade J. E., 673–682
Mineralogy
A new method of measuring plastic limit of fine materials. Sivakumar V., Glynn D., Cairns P. & Black J. A., 813–823
Model tests
Technical note. Inclusion of higher-temperature effects in a soil behaviour model. Thomas H. R., Siddiqua S. & Seetharam S. C., 279–282
Experimental study of uplift resistance of shallow skirted foundations in clay under transient and sustained concentric loading. Gourvenec S., Acosta-Martinez H. E. & Randolph M. F., 525–537
Monitoring
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Measured and simulated heat transfer to foundation soils. Thomas H. R. & Rees S. W., 365–375
Numerical modelling
Numerical modelling of extraction of spudcans. Zhou X. X., Chow Y. K. & Leung C. F., 29–39
Service limit state resistance factors for drilled shafts. Misra A. & Roberts L. A., 53–61
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay. Zhou H. & Randolph M. F., 79–86
The undrained capacity of skirted strip foundations under combined loading. Bransby M. F. & Yun G.-J., 115–125
THM-coupled finite element analysis of frozen soil: formulation and application. Nishimura S., Gens A., Olivella S. & Jardine R. J., 159–171
Modelling of cryogenic processes in permafrost and seasonally frozen soils. Thomas H. R., Cleall P., Li Y.-C., Harris C. & Kern-Luetschg M., 173–184
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
A new approach for assessing geothermal response to climate change in permafrost regions. Nishimura S., Martin C. J., Jardine R. J. & Fenton C. H. , 213–227
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
Measured and simulated heat transfer to foundation soils. Thomas H. R. & Rees S. W., 365–375
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation. Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F., 377–399
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
Hydro-mechanical modelling of landslides with a material instability criterion. Lignon S., Laouafa F., Prunier F., Khoa H. D. V. & Darve F., 513–524
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
A predictive framework for liquefaction instability. Andrade J. E., 673–682
Post-liquefaction undrained monotonic behaviour of sands: experiments and DEM simulations. Sitharam T. G., Vinod J. S. & Ravishankar B. V., 739–749
Dynamic centrifuge model tests on asphalt-concrete core dams. Baziar M. H., Salemi Sh. & Merrifield C. M., 763–771
Technical note. A clustered overlapping sphere algorithm to represent real particles in discrete element modeling. Garcia X., Latham J.-P., Xiang J. & Harrison J. P., 779–784
Numerical investigations into cycling of full-flow penetrometers in soft clay. Zhou H. & Randolph M. F., 801–812
Offshore engineering
Numerical modelling of extraction of spudcans. Zhou X. X., Chow Y. K. & Leung C. F., 29–39
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay. Zhou H. & Randolph M. F., 79–86
The undrained capacity of skirted strip foundations under combined loading. Bransby M. F. & Yun G.-J., 115–125
Experimental study of uplift resistance of shallow skirted foundations in clay under transient and sustained concentric loading. Gourvenec S., Acosta-Martinez H. E. & Randolph M. F., 525–537
Partial saturation
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation. Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F., 377–399
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
Technical note. The strength of unstabilised rammed earth materials. Jaquin P. A., Augarde C. E., Gallipoli D. & Toll D. G., 487–490
Technical note. Use of a genetic algorithm to perform reliability analysis of unsaturated soil slopes. Gavin K. & Xue J., 545–549
A water retention model for deformable soils. Tarantino A., 751–762
Particle crushing/crushability
Technical note. Influence of particle breakage on the resilient modulus of railway ballast. Indraratna B., Vinod J. S. & Lackenby J., 643–646
Permeability
Technical note. Hydraulic conductivity of biopolymer-treated silty sand. Bouazza A., Gates W. P. & Ranjith P. G., 71–72
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Technical note. Macro-void structure and permeability of Auckland residual clay. Pender M. J, Kikkawa N. & Liu P., 773–778
Pore pressures
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading. Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L., 319–329
Piles
Service limit state resistance factors for drilled shafts. Misra A. & Roberts L. A., 53–61
Technical note. Field study of construction effects in jacked and driven steel H-piles. Zhang L. M. & Wang H., 63–69
A continuum-based model for analysis of laterally loaded piles in layered soils. Basu D., Salgado R. & Prezzi M., 127–140
Technical note. Use of energy piles in a residential building, and effects on ground temperature and heat pump efficiency. Wood C. J., Liu H. & Riffat S. B., 287–190
Influence of axial load on lateral pile response in liquefiable soils. Part I: physical modeling. Knappett J. A. & Madabhushi S. P. G., 571–581
Influence of axial load on lateral pile response in liquefiable soils. Part II: numerical modeling. Knappett J. A. & Madabhushi S. P. G., 583–592
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach. Haldar S. & Sivakumar Babu G. L., 593–607
Plasticity
Tilt displacement of caisson breakwater due to wave loading. Zhang X. Y., Lee F. H. & Leung C. F., 17–27
A multilaminate framework for modelling induced and inherent anisotropy of soils. Schweiger H. F., Wiltafsky C., Scharinger F. & Galavi V., 87–101
The undrained capacity of skirted strip foundations under combined loading. Bransby M. F. & Yun G.-J., 115–125
Technical note. Graphical representation of constitutive equations. Gudehus G. & Mašín D., 147–151
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
UH model: three-dimensional unified hardening model for overconsolidated clays. Yao Y.-P., Hou W. & Zhou A.-N., 451–469
Ring shear tests to evaluate strength parameters in various remoulded soils. Toyota H., Nakamura K., Sugimoto M. & Sakai N., 649–659
A predictive framework for liquefaction instability. Andrade J. E., 673–682
A graphical method for producing yield surfaces for soils. Chandler H. W. & Sands C. M., 683–690
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Radioactive waste disposal
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
Reinforced soils
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand. Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M., 471–476
Repeated loading
Technical note. Influence of particle breakage on the resilient modulus of railway ballast. Indraratna B., Vinod J. S. & Lackenby J., 643–646
Residual soils
Technical note. Macro-void structure and permeability of Auckland residual clay. Pender M. J, Kikkawa N. & Liu P., 773–778
Rocks/rock mechanics
Technical note. Fractal analysis of temperature-induced cracking in clays and rocks. Vallejo L. E., 283–286
Sampling
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Sands
Tilt displacement of caisson breakwater due to wave loading. Zhang X. Y., Lee F. H. & Leung C. F., 17–27
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Technical note. Effect of relative density on plate loading tests on fibre-reinforced sand. Consoli N. C., Casagrande M. D. T., Thomé A., Dalla Rosa F. & Fahey M., 471–476
Technical note. Particle breakage during cyclic triaxial loading of a carbonate sand. Donohue S., O'Sullivan C. & Long M., 477–482
Technical note. Undrained shear strength of soils under flow deformation. Tsukamoto Y., Ishihara K. & Kamata T., 483–486
A method of estimating the form of coarse particulates. Clayton C. R. I., Abbireddy C. O. R. & Schiebel R., 493–501
Experimental measurements of the global anisotropic elastic behaviour of dry Hostun sand during triaxial tests, and effect of sample preparation. Ezaoui A. & Di Benedetto H., 621–635
A predictive framework for liquefaction instability. Andrade J. E., 673–682
On the behaviour of Thanet Sand: an example of an uncemented natural sand. Ventouras K. & Coop M. R., 727–738
Post-liquefaction undrained monotonic behaviour of sands: experiments and DEM simulations. Sitharam T. G., Vinod J. S. & Ravishankar B. V., 739–749
Seepage
Technical note. Darcy's law and the differential equation of motion. Nader J. J., 551–552
Settlement
Service limit state resistance factors for drilled shafts. Misra A. & Roberts L. A., 53–61
Technical note. Comparison of vacuum consolidation with surcharge load induced consolidation of a two-layer system. Chai J.-C., Matsunaga K., Sakai A. & Hayashi S., 637–641
Shear strength
Rate effects on penetrometer resistance in kaolin. Lehane B. M., O'Loughlin C. D., Gaudin C. & Randolph M. F., 41–52
Resistance of full-flow penetrometers in rate-dependent and strain-softening clay. Zhou H. & Randolph M. F., 79–86
Technical note. Graphical representation of constitutive equations. Gudehus G. & Mašín D., 147–151
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
Technical note. Undrained shear strength of soils under flow deformation. Tsukamoto Y., Ishihara K. & Kamata T., 483–486
Technical note. Shear viscosity of clays using the fall cone test. Mahajan S. P. & Budhu M., 539–543
Ring shear tests to evaluate strength parameters in various remoulded soils. Toyota H., Nakamura K., Sugimoto M. & Sakai N., 649–659
Post-liquefaction undrained monotonic behaviour of sands: experiments and DEM simulations. Sitharam T. G., Vinod J. S. & Ravishankar B. V., 739–749
Slopes
A multilaminate framework for modelling induced and inherent anisotropy of soils. Schweiger H. F., Wiltafsky C., Scharinger F. & Galavi V., 87–101
The influence of grouting pressure on the pullout resistance of soil nails in compacted completely decomposed granite fill. Yin J.-H., Su L.-J., Cheung R. W. M., Shiu Y.-K. & Tang C., 103–113
Technical note. Use of a genetic algorithm to perform reliability analysis of unsaturated soil slopes. Gavin K. & Xue J., 545–549
Three-dimensional stability of slopes and excavations. Michalowski R. L. & Drescher A., 839–849
Soft rocks
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
Soil classification
A method of estimating the form of coarse particulates. Clayton C. R. I., Abbireddy C. O. R. & Schiebel R., 493–501
A new method of measuring plastic limit of fine materials. Sivakumar V., Glynn D., Cairns P. & Black J. A., 813–823
Soil nailing
The influence of grouting pressure on the pullout resistance of soil nails in compacted completely decomposed granite fill. Yin J.-H., Su L.-J., Cheung R. W. M., Shiu Y.-K. & Tang C., 103–113
Soil stabilisation
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method. Walker R. & Indraratna B., 439–449
Soil/structure interaction
Numerical modelling of extraction of spudcans. Zhou X. X., Chow Y. K. & Leung C. F., 29–39
Service limit state resistance factors for drilled shafts. Misra A. & Roberts L. A., 53–61
Measurement depth of vibratory roller-measured soil stiffness. Rinehart R. V. & Mooney M. A., 609–619
Standards
Technical note. Improved expressions for field values of compaction test parameters. Shukla S. K., Sivakugan N., Gandhi M. & M. Ahmad K., 851–853
Statistical analysis
Design of laterally loaded piles in clays based on cone penetration test data: a reliability-based approach. Haldar S. & Sivakumar Babu G. L., 593–607
Stiffness
Technical note. Graphical representation of constitutive equations. Gudehus G. & Mašín D., 147–151
The Stokoe resonant column apparatus: effects of stiffness, mass and specimen fixity. Clayton C. R. I., Priest J. A., Bui M., Zervos A. & Kim S. G., 429–437
Measurement depth of vibratory roller-measured soil stiffness. Rinehart R. V. & Mooney M. A., 609–619
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Stress analysis
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
On the behaviour of Thanet Sand: an example of an uncemented natural sand. Ventouras K. & Coop M. R., 727–738
Stress path
UH model: three-dimensional unified hardening model for overconsolidated clays. Yao Y.-P., Hou W. & Zhou A.-N., 451–469
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Suction
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
The mechanical behaviour of an unsaturated compacted silty clay. Jotisankasa A., Coop M. & Ridley A., 415–428
Technical note. The strength of unstabilised rammed earth materials. Jaquin P. A., Augarde C. E., Gallipoli D. & Toll D. G., 487–490
Technical note. Use of a genetic algorithm to perform reliability analysis of unsaturated soil slopes. Gavin K. & Xue J., 545–549
A water retention model for deformable soils. Tarantino A., 751–762
An assessment of earth pressure coefficient in overconsolidated clays. Sivakumar V., Navaneethan T., Hughes D. & Gallagher G., 825–838
Temperature effects
THM-coupled finite element analysis of frozen soil: formulation and application. Nishimura S., Gens A., Olivella S. & Jardine R. J., 159–171
Modelling of cryogenic processes in permafrost and seasonally frozen soils. Thomas H. R., Cleall P., Li Y.-C., Harris C. & Kern-Luetschg M., 173–184
Modelling the thermomechanical volume change behaviour of compacted expansive clays. Tang A.-M. & Cui Y.-J., 185–195
Explaining thermal failure in saturated clays. Hueckel T., François B. & Laloui L., 197–212
A new approach for assessing geothermal response to climate change in permafrost regions. Nishimura S., Martin C. J., Jardine R. J. & Fenton C. H. , 213–227
Energy pile test at Lambeth College, London: geotechnical and thermodynamic aspects of pile response to heat cycles. Bourne-Webb P. J., Amatya B., Soga K., Amis T., Davidson C. & Payne P., 237–248
Aquifer thermal energy storage: theoretical and operational analysis. Dickinson J. S., Buik N., Matthews M. C. & Snijders A., 249–260
Technical note. Thermomechanical model for saturated clays. Abuel-Naga H. M., Bergado D. T., Bouazza A. & Pender M., 273–278
Technical note. Inclusion of higher-temperature effects in a soil behaviour model. Thomas H. R., Siddiqua S. & Seetharam S. C., 279–282
Technical note. Use of energy piles in a residential building, and effects on ground temperature and heat pump efficiency. Wood C. J., Liu H. & Riffat S. B., 287–190
Thermo-hydraulic characterisation of soft rock by means of heating pulse tests. Muñoz J. J., Alonso E. E. & Lloret A., 293–306
Bentonite THM behaviour at high temperatures: experimental and numerical analysis. Åkesson M., Jacinto A. C., Gatabin C., Sanchez M. & Ledesma A., 307–318
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading. Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L., 319–329
Experimental investigation of thermo-hydro-mechanical behaviour of an unsaturated silt. Uchaipichat A. & Khalili N., 339–353
Measured and simulated heat transfer to foundation soils. Thomas H. R. & Rees S. W., 365–375
A full-scale in situ heating test for high-level nuclear waste disposal: observations, analysis and interpretation. Gens A., Sánchez M., Guimarães L. Do N., Alonso E. E., Lloret A., Olivella S., Villar M. V. & Huertas F., 377–399
The coupled thermal-hydraulic-mechanical behaviour of a large-scale in situ heating experiment. Thomas H. R., Cleall P. J., Dixon D. & Mitchell H. P., 401–413
Theoretical analysis
A continuum-based model for analysis of laterally loaded piles in layered soils. Basu D., Salgado R. & Prezzi M., 127–140
Consolidation analysis of a stratified soil with vertical and horizontal drainage using the spectral method. Walker R. & Indraratna B., 439–449
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
A predictive framework for liquefaction instability. Andrade J. E., 673–682
Lateral oedometer testing of anisotropic clay as affected by surface roughness. Rohe A., Gareau L. F. & Molenkamp F., 703–715
Technical note. Undrained collapse of a shallow plane-strain trapdoor. Martin C. M., 855–863
Time dependence
Investigating the time-dependent behaviour of Boom clay under thermomechanical loading. Cui Y.-J., Le T. T., Tang A. M., Delage P. & Li X. L., 319–329
Tunnels
Energy from earth-coupled structures, foundations, tunnels and sewers. Adam D. & Markiewicz R., 229–236
Closed-form solution for plastic zone formation around a circular tunnel in half-space obeying Mohr–Coulomb criterion. Massinas S. A. & Sakellariou M. G., 691–701
Water flow
THM-coupled finite element analysis of frozen soil: formulation and application. Nishimura S., Gens A., Olivella S. & Jardine R. J., 159–171
Technical note. Darcy's law and the differential equation of motion. Nader J. J., 551–552
Theoretical description of embankment erosion owing to overflow. Fujisawa K., Kobayashi A. & Aoyama S., 661–671
