Baker, I and Gaydosh, DJ (1987) Dynamic recrystallization and grain boundary migration in B2 FeAl. Metallography 20, 347–357.
Barnes, P, Tabor, D and Walker, JCF (1971) The friction and creep of polycrystalline ice. Proceedings of the Royal Society of London A 324, 127–155.
Budd, WF and Jacka, TH (1989) A review of ice rheology for ice sheet modelling. Cold Regions Science and Technology 16(2), 107–144.
Castillo-Rodríguez, M, Nó, M, Jiménez, JA, Ruano, OA and San Juan, J (2016) High temperature internal friction in a Ti–46Al–1Mo–0.2Si intermetallic, comparison with creep behavior. Acta Materialia 103, 46–56.
Chauve, T and 7 others (2017) Non-basal dislocations should be accounted for in simulating ice mass flow. Earth and Planetary Science Letters 473, 247–255.
Colbeck, SC and Evans, R (1973) A flow law for temperate glacier ice. Journal of Glaciology 12(64), 71–86.
Cole, DM (1995) A model for the cyclic loading of saline ice subjected to cyclic loading. Philosophical Magazine A 72(1), 231–248.
Cole, DM (1998) Modeling the cyclic loading response of sea ice. The International Journal of Solids and Structure 35(31–32), 4067–4075.
Cole, DM (2001) The microstructure of ice and its influence on mechanical properties. Engineering Fracture Mechanics 68, 1797–1822.
Cole, DM (2003) A dislocation-based analysis of the creep of granular ice: preliminary experiments and modeling. Annals of Glaciology 37, 18–22.
Cole, DM (2004) A dislocation-based model for creep recovery in ice. Philosophical Magazine 84(30), 3217–3234.
Cole, DM and Durell, GD (1995) The cyclic loading of saline ice. Philosophical Magazine A 72(1), 209–230.
Cole, DM and Durell, GD (1999) Strain history effects on the anelastic and viscous straining of saline ice. Intl. Assoc. Hyd. Res., 14th Intl. Ice Symp., II, pp. 989–994.
Cole, DM and Durell, GD (2001) A dislocation-based analysis of strain history effects in ice. Philosophical Magazine A 81(7), 1849–1872.
Cole, DM, Gould, LD and Burch, WB (1985) A system for mounting end caps on ice specimens. Journal of Glaciology 31(109), 362–365.
Cole, DM, Johnson, RA and Durell, GD (1998) The cyclic loading and creep response of aligned first-year sea ice. Journal of Geophysical Research 103(C10), 21,751–21,758.
Duval, P and 5 others (2010) Creep and plasticity of glacier ice: a material science perspective. Journal of Glaciology 56(200), 1059–1068.
Faria, SH and Kipfstuhl, S (2004) Preferred slip-band orientations and bending observed in the Dome Concordia (East Antarctica) ice core. Annals of Glaciology 39(1), 386–390.
Farla, RJM, Jackson, I, Fitz Gerald, JD, Faul, U and Zimmerman, ME (2012) Dislocation damping and anisotropic seismic wave attenuation in Earth's upper mantle. Science (New York, N.Y.) 336(6079), 332–335. doi: 10.1126/science.1218318.
Gadaud, P, Woirgard, J, Mazot, P, Demenet, J and De Fouquet, J (1987) Internal friction study of the high temperature dislocation mobility in Si single crystals. Journal de Physique Colloques 48 (C8), C8-101–C8-106.
Glen, JW (1955) The creep of polycrystalline ice. Proceedings of the Royal Society of London A 228(1175), 519–538.
Gremaud, G and Bujard, M (1985) Recent progress in dislocation studies using bias stress experiments. Journal de Physique Colloques, 46 (C10), C10–315–C10–320.
Heijkoop, A-N (2017) Sea Ice Subjected to Cyclic Compression: Laboratory Experiments and a Dislocation based Model (MSci thesis). Delft University of Technology, 110p.
Heijkoop, A-N, Nord, TS and Høyland, KV (2018) Sea ice subjected to cyclic compression. Proc. 24th Intl. Assoc. Hydraulic Res. Intl. Symp. on Ice, Vladivostok, 118–127.
Hiki (1985) The solid-liquid transition and crystal dislocations. In Suzuki, H, Ninomiya, T, Sumino, K and Takeuchi, S eds. Dislocations in Solids. Tokyo: University of Tokyo Press, pp. 607–612.
Hiki, Y and Tamura, J (1983) Internal friction in ice crystals. The Journal of Physical Chemistry A 87(21), 4054–4059.
Hooke, R and 12 others (1980) Mechanical properties of polycrystalline ice: an assessment of current knowledge and priorities and research. Cold Regions Science and Technology, 3, 263–275.
Jacka, TH and Maccagnan, M (1984) Ice crystallographic and strain rate changes with strain in compression and extension. Cold Regions Science and Technology 8, 269–286.
Jones, SJ and Brunet, JG (1978) Deformation of ice single crystals close to the melting point. Journal of Glaciology 21(85), 445–455.
Jones, SJ and Chew, HAM (1983) Creep of ice as a function of hydrostatic pressure. J. Phys. Chem. 89(21), 4064–4066.
Lakki, A and Schaller, R (1996) High temperature microplasticity of fine-grained ceramics. Journal de Physique IV, Colloque C8, Supplement au Journal de Physique III 6, C8-331–C8-340.
Marshall, SJ (2005) Recent advances in understanding ice sheet dynamics. Earth and Planetary Science Letters 240, 191–204.
Mellor, M and Cole, DM (1982) Deformation and failure of ice under constant stress or constant strain rate. Cold Regions Science and Technology 5, 201–219.
Mellor, M and Testa, R (1969) Effect of temperature on the creep of ice. Journal of Glaciology, 8(52), 131–145.
Morgan, VI (1991) High-temperature ice creep tests. Cold Regions Science and Technology 19, 295–300.
Nowick, AS and Berry, BS (1972) Anelastic Relaxation in Crystalline Solids. New York: Academic Press, 677p.
Patterson, EA and 5 others (2016) Temperature-dependent deformation and dislocation density in SrTiO3 (001) single crystals. Journal of the American Ceramic Society 99(10), 3411–3420. doi: org/10.1111/jace.14352
Pettit, EC and 6 others (2011) The crossover stress, anisotropy and the ice flow law at Siple Dome, West Antarctica. Journal of Glaciology 57(201), 39–52.
Pettit, EC and Waddington, ED (2003) Ice flow at low deviatoric stress. Journal of Glaciology 49(166), 359–369.
Pezzotti, G and Ota, K (1997) Mechanical damping arising from dislocation motion in sapphire and ruby crystals. Journal of the American Ceramic Society 80(9), 2205–2212.
Ramseier, RO (1972) Growth and Mechanical Properties of River and Lake Ice (PhD thesis) Laval University, Quebec.
Russell-Head, DS and Budd, WF (1979) Ice-sheet flow properties derived from bore-hole shear measurements combined with ice-core studies. Journal of Glaciology 24(90), 117–130.
Ryu, S, Kang, K and Cai, W (2011) Entropic effect on the rate of dislocation nucleation. Proceedings of the National Academy of Sciences of the United States of America 108(13), 5174–5178.
Schoeck, G, Bisogni, E and Shyne, J (1964) The activation energy of high temperature internal friction. Acta Metallurgica 12, 1466–1468.
Song, M, Baker, I and Cole, DM (2008) The effect of particles on creep rate and microstructures of granular ice. Journal of Glaciology 54(186), 533–537.
Song, M, Cole, DM and Baker, I (2006a) Investigation of Newtonian creep in polycrystalline ice. Philosophical Magazine Latters 86(12), 763–771.
Song, M, Cole, DM and Baker, I (2006b) An investigation of the effects of particles on creep of polycrystalline ice. Scripta Materialia 55, 91–94.
Steinemann, S (1954) Flow and recrystallization of ice. International Association of Hydrological Sciences, Proceedings, 4, Rome, pp. 449–464.
Steinemann, S (1958) Experimentelle Untersuchungen zur Plastizitat von Eis. Beiträge zur Geologie der Schweiz: Hydrologie 10, 254–265.
Treverrow, A, Budd, WF, Jacka, TH and Warner, RC (2012) The tertiary creep of polycrystalline ice: experimental evidence for stress-dependent levels of strain-rate enhancement. Journal of Glaciology 58(208), 301–314.
Vincent, A, Djeroud, S and Fougeres, R (1987) Ultrasonic attenuation measurements during room temperature creep with stress decrements in 5N aluminum. Journal de Physique 48(C8), C8-203–C8-208.
Weertman, J (1963) The Eshelby-Schoeck viscous dislocation damping mechanism applied to the steady state creep of ice. In Ice and Snow – Properties processes and applications. Conf. Proc. held at MIT, Feb. 12–16, 1962, pp. 28–33.
Weertman, J (1973) Creep of ice. Physics and chemistry of ice. In Whalley, E, Jones, SJ and Gold, LW (eds), Royal Soc. of Canada. Ottawa, Canada, pp. 320–337.
Weertman, J (1983) Creep deformation of ice. Annual Review of Earth and Planetary Sciences 11, 215–240.