The objective of this study was to more fully understand the mechanical behavior of bone tissue that is important to find an alternative material to be used as an implant and to develop an accurate model to predict the fracture of the bone. Predicting and preventing bone failure is an important area in orthopaedics. In this paper, the macrodamage accumulation models in the bone tissue have been investigated. Phenomenological models for bone damage have been discussed in detail. In addition, 3D finite element model of the femur prepared from imaging data with both cortical and trabecular structures is delineated using MIMICS and ANSYS® and simulated as a composite structure. The damage accumulation occurring during cyclic loading was analyze...
Bone is a composite material consisting of hydroxyapatite crystals deposited in an oriented manner o...
Introduction Clinical fracture risk assessment in metastatic bone disease is extremely difficult, bu...
Bone as most of living tissues is able, during its entire lifetime, to adapt its internal microstruc...
The objective of this study was to more fully understand the mechanical behavior of bone tissue that...
The fatigue of bone, in particular the associated modulus degradation and accumulation of permanent ...
Relatively small amounts of microdamage have been suggested to have a major effect on the mechanical...
Fatigue failure of bone has been implicated in a number of clinical failure scenarios. At the materi...
The present paper addresses femur failure mechanics, by numerically investigating the influence of b...
There are obvious advantages to investigating the mechanical behavior of trabecular bone using micro...
Fatigue failure of bone has been implicated in a number of clinical failure scenarios. At the materi...
Studies evaluating the mechanical behavior of the trabecular microstructure play an important role i...
Bone is a complex material which exhibits several hierarchical levels of structural organization. At...
Computed tomography-based finite element (FE) models were widely used to assess the femur strength. ...
Taylor (1999) presented a model describing fatigue life, modulus degradation, and permanent strain g...
To manage osteoporotic hip fracture risk, it is necessary to understand failure mechanisms of bone a...
Bone is a composite material consisting of hydroxyapatite crystals deposited in an oriented manner o...
Introduction Clinical fracture risk assessment in metastatic bone disease is extremely difficult, bu...
Bone as most of living tissues is able, during its entire lifetime, to adapt its internal microstruc...
The objective of this study was to more fully understand the mechanical behavior of bone tissue that...
The fatigue of bone, in particular the associated modulus degradation and accumulation of permanent ...
Relatively small amounts of microdamage have been suggested to have a major effect on the mechanical...
Fatigue failure of bone has been implicated in a number of clinical failure scenarios. At the materi...
The present paper addresses femur failure mechanics, by numerically investigating the influence of b...
There are obvious advantages to investigating the mechanical behavior of trabecular bone using micro...
Fatigue failure of bone has been implicated in a number of clinical failure scenarios. At the materi...
Studies evaluating the mechanical behavior of the trabecular microstructure play an important role i...
Bone is a complex material which exhibits several hierarchical levels of structural organization. At...
Computed tomography-based finite element (FE) models were widely used to assess the femur strength. ...
Taylor (1999) presented a model describing fatigue life, modulus degradation, and permanent strain g...
To manage osteoporotic hip fracture risk, it is necessary to understand failure mechanisms of bone a...
Bone is a composite material consisting of hydroxyapatite crystals deposited in an oriented manner o...
Introduction Clinical fracture risk assessment in metastatic bone disease is extremely difficult, bu...
Bone as most of living tissues is able, during its entire lifetime, to adapt its internal microstruc...