Effect of stress and temperature on the micromechanics of creep in highly irradiated bone and dentin.
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[1] Fang Yuan,et al. Evolution of Phase Strains During Tensile Loading of Bovine Cortical Bone , 2013 .
[2] D. Dunand,et al. Effect of X-ray irradiation on the elastic strain evolution in the mineral phase of bovine bone under creep and load-free conditions. , 2013, Acta biomaterialia.
[3] D. Dunand,et al. Effect of high-energy X-ray doses on bone elastic properties and residual strains. , 2011, Journal of the mechanical behavior of biomedical materials.
[4] D. Dunand,et al. Effect of freeze -thaw cycles on load transfer between the biomineral and collagen phases in bovine dentin , 2011 .
[5] D. Dunand,et al. Creep Mechanisms in Bone and Dentin Via High-Energy X-ray Diffraction , 2011 .
[6] R. Akhtar,et al. Lattice strains and load partitioning in bovine trabecular bone. , 2011, Acta biomaterialia.
[7] S. Stock,et al. High energy X-ray scattering quantification of in situ-loading-related strain gradients spanning the dentinoenamel junction (DEJ) in bovine tooth specimens. , 2010, Journal of biomechanics.
[8] S. Stock,et al. Synchrotron X-ray diffraction study of load partitioning during elastic deformation of bovine dentin. , 2010, Acta biomaterialia.
[9] Katherine T. Faber,et al. Load partitioning in honeycomb-like silicon carbide aluminum alloy composites , 2009 .
[10] Siddhartha Roy,et al. In situ Study of Internal Load Transfer in a Novel Metal/Ceramic Composite Exhibiting Lamellar Microstructure Using Energy Dispersive Synchrotron X‐ray Diffraction , 2009 .
[11] M. L. Young,et al. Load partitioning in Al2O3-Al composites with three-dimensional periodic architecture , 2009 .
[12] R. Akhtar,et al. Elastic strains in antler trabecular bone determined by synchrotron X-ray diffraction. , 2008, Acta biomaterialia.
[13] M A Meyers,et al. Structure and mechanical properties of selected biological materials. , 2008, Journal of the mechanical behavior of biomedical materials.
[14] D. Reid,et al. The Organic−Mineral Interface in Teeth Is Like That in Bone and Dominated by Polysaccharides: Universal Mediators of Normal Calcium Phosphate Biomineralization in Vertebrates? , 2008 .
[15] Elliot P. Douglas,et al. Bone structure and formation: A new perspective , 2007 .
[16] Michael V Swain,et al. Influence of environment on the mechanical behaviour of mature human enamel. , 2007, Biomaterials.
[17] S. Maltsev,et al. The Organic−Mineral Interface in Bone Is Predominantly Polysaccharide , 2007 .
[18] Markus J. Buehler,et al. Molecular nanomechanics of nascent bone: fibrillar toughening by mineralization , 2007 .
[19] David C. Dunand,et al. Load partitioning during compressive loading of a Mg/MgB2 composite , 2007 .
[20] Mark R. Daymond,et al. Load partitioning between ferrite and cementite during elasto-plastic deformation of an ultrahigh-carbon steel , 2007 .
[21] S. Stock,et al. Micromechanical response of mineral and collagen phases in bone. , 2007, Journal of structural biology.
[22] Wolfgang Wagermaier,et al. Cooperative deformation of mineral and collagen in bone at the nanoscale , 2006, Proceedings of the National Academy of Sciences.
[23] Himadri S. Gupta,et al. Fibrillar level fracture in bone beyond the yield point , 2006 .
[24] M. Horton,et al. Atomic force microscopy of collagen structure in bone and dentine revealed by osteoclastic resorption. , 2005, Ultramicroscopy.
[25] S. Stock,et al. Internal strains and stresses measured in cortical bone via high-energy X-ray diffraction. , 2005, Journal of structural biology.
[26] Himadri S. Gupta,et al. Nanoscale deformation mechanisms in bone. , 2005, Nano letters.
[27] Jacqueline A. Cutroni,et al. Sacrificial bonds and hidden length dissipate energy as mineralized fibrils separate during bone fracture , 2005, Nature materials.
[28] R. Aspden,et al. Thermal stability and structure of cancellous bone mineral from the femoral head of patients with osteoarthritis or osteoporosis , 2005, Annals of the rheumatic diseases.
[29] A. Blume,et al. The Influence of X-ray Radiation on the Mineral/Organic Matrix Interaction of Bone Tissue: An FT-IR Microscopic Investigation , 2005, The International journal of artificial organs.
[30] L. Geng,et al. Experimental and numerical studies of the effect of whisker misalignment on the hot compressive deformation behavior of the metal matrix composites , 2004 .
[31] X Edward Guo,et al. The dependence of transversely isotropic elasticity of human femoral cortical bone on porosity. , 2004, Journal of biomechanics.
[32] G W Marshall,et al. Resonant ultrasound spectroscopy measurements of the elastic constants of human dentin. , 2004, Journal of biomechanics.
[33] A. Gómez-Cortés,et al. Thermal analysis study of human bone , 2003 .
[34] R O Ritchie,et al. Crack blunting, crack bridging and resistance-curve fracture mechanics in dentin: effect of hydration. , 2003, Biomaterials.
[35] R. Ritchie,et al. Mechanistic fracture criteria for the failure of human cortical bone , 2003, Nature materials.
[36] Bill Kahler,et al. Fracture-toughening mechanisms responsible for differences in work to fracture of hydrated and dehydrated dentine. , 2003, Journal of biomechanics.
[37] J. Palamara,et al. Time-dependent properties of human root dentin. , 2002, Dental materials : official publication of the Academy of Dental Materials.
[38] P. Withers,et al. A neutron diffraction study of creep and damage occurrence in an A359/SiC composite , 2002 .
[39] J. Currey. Biomaterials: Sacrificial bonds heal bone , 2001, Nature.
[40] P. Withers,et al. An investigation of the isothermal creep response of Al-based composites by neutron diffraction , 2000 .
[41] K. Bridwell,et al. Surgical treatment of idiopathic adolescent scoliosis. , 1999, Spine.
[42] David B. Burr,et al. Skeletal Tissue Mechanics , 1998, Springer New York.
[43] Steve Weiner,et al. THE MATERIAL BONE: Structure-Mechanical Function Relations , 1998 .
[44] P. Antich,et al. Bone Elasticity and Ultrasound Velocity Are Affected by Subtle Changes in the Organic Matrix , 1998, Journal of bone and mineral research : the official journal of the American Society for Bone and Mineral Research.
[45] N. Sasaki,et al. Elongation mechanism of collagen fibrils and force-strain relations of tendon at each level of structural hierarchy. , 1996, Journal of biomechanics.
[46] D B Burr,et al. In vivo measurement of human tibial strains during vigorous activity. , 1996, Bone.
[47] T. Santner,et al. The effect of temperature, stress and microstructure on the creep of compact bovine bone. , 1993, Journal of biomechanics.
[48] Mhj Koch,et al. Quantitative analysis of the molecular sliding mechanisms in native tendon collagen — time-resolved dynamic studies using synchrotron radiation , 1987 .
[49] D. Watts,et al. Fracture Toughness of Human Dentin , 1986, Journal of dental research.
[50] M. Koch,et al. Stress-induced molecular rearrangement in tendon collagen. , 1985, Journal of molecular biology.
[51] S. Rasmussen,et al. Fracture Properties of Human Enamel and Dentin in an Aqueous Environment , 1984, Journal of dental research.
[52] R. A. Hocevar. Understanding, planning, and managing tooth movement: orthodontic force system theory. , 1981, American journal of orthodontics.
[53] A. Heuer,et al. Fracture Properties of Human Enamel and Dentin , 1976, Journal of dental research.
[54] D A Parry,et al. Analysis of the primary structure of collagen for the origins of molecular packing. , 1973, Journal of molecular biology.
[55] E. Bonfils-Roberts. The rib spreader: a chapter in the history of thoracic surgery. , 1972, Chest.
[56] J. Katz,et al. Elastic properties of bovine dentine and enamel. , 1970, Archives of oral biology.
[57] F. A. Peyton,et al. Elastic and Mechanical Properties of Human Dentin , 1958, Journal of dental research.
[58] D B MAHLER,et al. Physical Properties of Dentin , 1952, Journal of dental research.
[59] A. Götte,et al. Metall , 1897 .
[60] D. Dunand,et al. Variability in the elastic properties of bovine dentin at multiple length scales. , 2012, Journal of the mechanical behavior of biomedical materials.
[61] L. Brinson,et al. Evolution of load transfer between hydroxyapatite and collagen during creep deformation of bone. , 2012, Acta biomaterialia.
[62] Junting Liu,et al. Compressive behavior of Csf/AZ91D composites by liquid–solid extrusion directly following vacuum infiltration technique , 2012 .
[63] Carl Eklund,et al. National Institute for Standards and Technology , 2009, Encyclopedia of Biometrics.
[64] A A Friesem,et al. Anisotropic Poisson's ratio and compression modulus of cortical bone determined by speckle interferometry. , 2007, Journal of biomechanics.
[65] J. J. Mecholsky,et al. Effect of temperature on the fracture toughness of compact bone. , 2007, Journal of biomechanics.
[66] Paul Roschger,et al. From brittle to ductile fracture of bone , 2006, Nature materials.
[67] D. Dunand,et al. Tertiary compression creep of long-fiber composites: A model for fiber kinking and buckling , 2001 .
[68] Y. Yeni,et al. Influence of bone composition and apparent density on fracture toughness of the human femur and tibia. , 1998, Bone.
[69] W. Walsh,et al. Compressive properties of cortical bone: mineral-organic interfacial bonding. , 1994, Biomaterials.
[70] A. Burstein,et al. The elastic and ultimate properties of compact bone tissue. , 1975, Journal of biomechanics.