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Philosophical Magazine A Volume 40, 1979 - Issue 6
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Original Articles

Grain boundary sliding in polycrystalline materials

N. K. Sinha Geotechnical Section, Division of Building Research, National Research Council of Canada, Ottawa, Canada
,
P. Ehrhart Geotechnical Section, Division of Building Research, National Research Council of Canada, Ottawa, Canada
,
H. D. Carstanjen IFF der KFA Jülich, Postfach 1913, D-5170, Jülich, F.R., Germany; Sektion Physik, Universität MÜnchen, D-8000, MÜnchen, F. R., Germany
,
A. M. Fattah Geotechnical Section, Division of Building Research, National Research Council of Canada, Ottawa, Canada
&
J. B. Roberto Geotechnical Section, Division of Building Research, National Research Council of Canada, Ottawa, Canada; Solid State Division, Oak Ridge National Laboratory, Oak Ridge, Tennessee, 37830, U.S.A.
Pages 825-842 | Received 01 Nov 1978, Accepted 11 Jun 1979, Published online: 13 Sep 2006

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DavidM. Cole & GlennD. Durell. (1995) The cyclic loading of saline ice. Philosophical Magazine A 72:1, pages 209-229.
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Guangshuai Sun, Shaocheng Di, Y. T. Feng & Yanzhuo Xue. (2023) Modelling the fracture behaviour of polycrystalline columnar ice using the grain-based discrete element method. Computational Particle Mechanics 10:6, pages 1877-1894.
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Mojtaba Mokhtari, Ekaterina Kim & Jørgen Amdahl. (2023) A non-linear viscoelastic material model with progressive damage based on microstructural evolution and phase transition in polycrystalline ice for design against ice impact. International Journal of Impact Engineering 176, pages 104563.
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Yuan Li. (2022) Critical values of the microstructural parameters at the first critical density of the densification of polar firn. Cold Regions Science and Technology 198, pages 103553.
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Nirmal K. Sinha & Shoma Sinha. 2022. Engineering Physics of High‐Temperature Materials. Engineering Physics of High‐Temperature Materials 303 342 .
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Iman E. Gharamti, John P. Dempsey, Arttu Polojärvi & Jukka Tuhkuri. (2021) Creep and fracture of warm columnar freshwater ice. The Cryosphere 15:5, pages 2401-2413.
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Richard McKenna, Ada Loewen & Greg Crocker. (2021) A finite element model for the deformation of floating ice covers. Cold Regions Science and Technology 182, pages 103213.
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Ryszard StaroszczykRyszard Staroszczyk. 2019. Ice Mechanics for Geophysical and Civil Engineering Applications. Ice Mechanics for Geophysical and Civil Engineering Applications 21 57 .
Igor Gribanov, Rocky Taylor & Robert Sarracino. (2018) Cohesive zone micromechanical model for compressive and tensile failure of polycrystalline ice. Engineering Fracture Mechanics 196, pages 142-156.
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Ekaterina KharikBrian MorseVarvara RoubtsovaMario FafardAlain CôtéGeorge Comfort. (2018) Numerical studies for a better understanding of static ice loads on dams. Canadian Journal of Civil Engineering 45:1, pages 18-29.
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Yo-Lun Yang, Zhusheng Shi, Yong Li, Qi Rong & Rajab Said. (2017) Experimental studies and constitutive modelling of anelastic creep recovery during creep age forming. Procedia Engineering 207, pages 275-280.
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Wenshan Yu & Shengping Shen. (2016) Energetics of point defect interacting with grain boundaries undergone plastic deformations. International Journal of Plasticity 85, pages 93-109.
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Mohammed Shokr & Nirmal Sinha. 2015. Sea Ice. Sea Ice 507 534 .
Nirmal K. Sinha & Shoma Sinha. (2011) High-temperature yield strength and its dependence on primary creep and recovery. Materials Science and Engineering: A 528:16-17, pages 5366-5378.
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G.W. Timco & W.F. Weeks. (2010) A review of the engineering properties of sea ice. Cold Regions Science and Technology 60:2, pages 107-129.
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T. Theile, D. Szabo, A. Luthi, H. Rhyner & M. Schneebeli. (2009) Mechanics of the Ski–Snow Contact. Tribology Letters 36:3, pages 223-231.
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Nirmal K. Sinha. (2009) Stress exponent and primary creep parameters using single specimen and strain relaxation and recovery test. Materials Science and Engineering: A 510-511, pages 450-456.
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P.O. Moslet. (2008) Medium scale ice–structure interaction. Cold Regions Science and Technology 54:2, pages 143-152.
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P.O. Moslet. (2007) Field testing of uniaxial compression strength of columnar sea ice. Cold Regions Science and Technology 48:1, pages 1-14.
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Nirmal K. Sinha. (2006) Constant-load tertiary creep in nickel-base single crystal superalloys. Materials Science and Engineering: A 432:1-2, pages 129-141.
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Nirmal K. Sinha. (2005) Dynamic steady-state tertiary creep in a Nickel-base single crystal superalloy at high temperatures. Journal of Materials Science 41:6, pages 1855-1858.
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Nirmal K. Sinha & Shoma Sinha. (2005) Stress relaxation at high temperatures and the role of delayed elasticity. Materials Science and Engineering: A 393:1-2, pages 179-190.
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Perry Bartelt, Othmar Buser & Sergey A. Sokratov. (2004) A nonequilibrium treatment of heat and mass transfer in alpine snowcovers. Cold Regions Science and Technology 39:2-3, pages 219-242.
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Nirmal K. Sinha. (2003) Limitations of stress relaxation tests for determining stress dependence of strain rate at high temperatures. Scripta Materialia 48:6, pages 731-736.
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Paul D. Barrette & Ian J. Jordaan. (2003) Pressure–temperature effects on the compressive behavior of laboratory-grown and iceberg ice. Cold Regions Science and Technology 36:1-3, pages 25-36.
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Carlo Scapozza & Perry Bartelt. (2017) Triaxial tests on snow at low strain rate. Part II. Constitutive behaviour. Journal of Glaciology 49:164, pages 91-101.
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Devinder S Sodhi. (2001) Crushing failure during ice–structure interaction. Engineering Fracture Mechanics 68:17-18, pages 1889-1921.
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H.J Frost. (2001) Mechanisms of crack nucleation in ice. Engineering Fracture Mechanics 68:17-18, pages 1823-1837.
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I. L. Meglis, P. M. Melanson & I.J. Jordaan. (2017) Microstructural change in ice: II. Creep behavior under triaxial stress conditions. Journal of Glaciology 45:151, pages 438-448.
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Devinder S. Sodhi, Takahiro Takeuchi, Naoki Nakazawa, Satoshi Akagawa & Hiroshi Saeki. (1998) Medium-scale indentation tests on sea ice at various speeds. Cold Regions Science and Technology 28:3, pages 161-182.
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V. Gupta & R. C. Picu. (1998) Nucleation of feather cracks in columnar freshwater ice: Experimental observations. Journal of Geophysical Research: Oceans 103:C10, pages 21767-21774.
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Olivier Plé & Jacques Meyssonnier. (1997) Preparation and Preliminary Study of Structure-Controlled S2 Columnar Ice. The Journal of Physical Chemistry B 101:32, pages 6118-6122.
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E. M. Schulson, S. Qi, J. S. Melton & E.T. Gratz. (2017) Across-column cracks and axial splits in S2 saline ice under compression. Journal of Glaciology 43:145, pages 411-414.
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Lorne W. Gold. (2017) Statistical characteristics for the type and length of deformation-induced cracks in columnar-grain ice. Journal of Glaciology 43:144, pages 311-320.
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Hua‐Tay Lin, Kathleen B. Alexander & Paul F. Becher. (2005) Grain Size Effect on Creep Deformation of Alumina‐Silicon Carbide Composites. Journal of the American Ceramic Society 79:6, pages 1530-1536.
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Nirmal K. Sinha & Baolin Cai. (1996) Elasto-Delayed-Elastic simulation of short-term deflection of fresh-water ice covers. Cold Regions Science and Technology 24:2, pages 221-235.
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L.W. Morland. (1996) Dynamic impact between a viscoelastic ice floe and a rigid structure. Cold Regions Science and Technology 24:1, pages 7-28.
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Brian S. Waddington & Garry K. C. Clarke. (2017) Hydraulic properties of subglacial sediment determined from the mechanical response of water-filled boreholes. Journal of Glaciology 41:137, pages 112-124.
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Hua-Tay Lin & Paul F. Becher. 1995. Plastic Deformation of Ceramics. Plastic Deformation of Ceramics 543 553 .
C. Zhan, E. Evgin & N.K. Sinha. (1994) A three dimensional anisotropic constitutive model for ductile behaviour of columnar grained ice. Cold Regions Science and Technology 22:3, pages 269-284.
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J. Meyssonnier & A. Goubert. (2017) Transient creep of polycrystalline ice under uniaxial compression: an assessment of internal state variable models. Annals of Glaciology 19, pages 55-62.
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Lorne W. Gold. (2017) The elastic modulus of columnar-grain fresh-water ice. Annals of Glaciology 19, pages 13-18.
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S. Shyam Sunder, Alex Elvin & S. Nanthikesan. (1993) Numerical Modeling of Transient Creep in Polycrystalline Ice. Journal of Engineering Mechanics 119:10, pages 2011-2035.
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L. A. Lliboutry. 1991. Glacial Isostasy, Sea-Level and Mantle Rheology. Glacial Isostasy, Sea-Level and Mantle Rheology 321 341 .
Nirmal K. Sinha. 1991. Ice-Structure Interaction. Ice-Structure Interaction 69 87 .
P. Duval, P. Kalifa & J. Meyssonnier. 1991. Ice-Structure Interaction. Ice-Structure Interaction 55 67 .
S. Shyam Sunder & Mao S. Wu. (1990) On the constitutive modeling of transient creep in polycrystalline ice. Cold Regions Science and Technology 18:3, pages 267-294.
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S. Shyam Sunder & Mao S. Wu. (1990) Crack nucleation due to elastic anisotropy in polycrystalline ice. Cold Regions Science and Technology 18:1, pages 29-47.
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N.K. Sinha. (1989) Microcrack-enhanced creep in polycrystalline material at elevated temperature. Acta Metallurgica 37:11, pages 3107-3118.
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Dale G. Karr & Kyungsik Choi. (1989) A three-dimensional constitutive damage model for polycrystalline ice. Mechanics of Materials 8:1, pages 55-66.
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S.Shyam Sunder & Mao S. Wu. (1989) A multiaxial differential model of flow in orthotropic polycrystalline ice. Cold Regions Science and Technology 16:3, pages 223-235.
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Nirmal K. Sinha. (1989) Use of foil strain gauges in ice over a wide loading rate. Cold Regions Science and Technology 16:2, pages 145-158.
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S.Shyam Sunder & Mao S. Wu. (1989) A differential flow model for polycrystalline ice. Cold Regions Science and Technology 16:1, pages 45-62.
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Nirmal K. Sinha. 1989. Mechanics of Creep Brittle Materials 1. Mechanics of Creep Brittle Materials 1 201 212 .
M. R. Mills & S. D. Hallam. 1989. Mechanics of Creep Brittle Materials 1. Mechanics of Creep Brittle Materials 1 152 167 .
Nirmal K. Sinha. (1988) Crack-enhanced creep in polycrystalline material: strain-rate sensitive strength and deformation of ice. Journal of Materials Science 23:12, pages 4415-4428.
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Louis A. LliboutryLouis A. Lliboutry. 1987. Very Slow Flows of Solids. Very Slow Flows of Solids 445 464 .
T.J.O. Sanderson & A.J. Child. (1986) Ice loads on offshore structures: The transition from creep to fracture. Cold Regions Science and Technology 12:2, pages 157-161.
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R.H. Ericksen. (1985) Creep of aromatic polyamide fibres. Polymer 26:5, pages 733-746.
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Nirmal K. Sinha. (1984) Role of transient creep in high temperature tensile failure of ice. Scripta Metallurgica 18:8, pages 777-782.
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Nirmal K. Sinha. (1984) Intercrystalline cracking, grain-boundary sliding, and delayed elasticity at high temperatures. Journal of Materials Science 19:2, pages 359-376.
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N.K. Sinha. 1984. Fracture 84. Fracture 84 2295 2302 .
N.K. Sinha. (1983) Creep model of ice for monotonically increasing stress. Cold Regions Science and Technology 8:1, pages 25-33.
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Robert W. Baker. (1982) A flow equation for anisotropic ice. Cold Regions Science and Technology 6:2, pages 141-148.
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N. K. Sinha. (1982) Constant strain- and stress-rate compressive strength of columnar-grained ice. Journal of Materials Science 17:3, pages 785-802.
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Roger LeB. Hooke. (2010) Flow law for polycrystalline ice in glaciers: Comparison of theoretical predictions, laboratory data, and field measurements. Reviews of Geophysics 19:4, pages 664-672.
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