This thesis is a comprehensive study of deformation and failure mechanisms in bone at nano- and micro-scale levels. It explores the mechanical behaviour of osteopontin-hydroxyapatite interfaces and mineralized collagen fibril arrays, through atomistic molecular dynamics and finite element simulations. This thesis shows some main factors contributing to the excellent material properties of bone and provides some guidelines for development of new artificial biological materials and medical implants
Fracture mechanisms of an enamel-like hydroxyapatite-collagen composite model are elaborated by mean...
Many biological composite materials such as bone have demonstrated unique mechanical performance, i....
none3noHard tissues (e.g., bone, enamel, dentin) in vertebrates perform various and different functi...
Bone, a hard biological material, possesses a combination of high stiffness and toughness, even thou...
Biological composite materials, such as bone, tooth and nacre, are comprised of a mixture of nano-si...
A fundamental study of the mechanics at the molecular scale and bridging it to the continuum level t...
Bone is a highly hierarchical complex structure that consists of organic and mineral components repr...
Biomaterials such as bone and marine exoskeletons have primarily an organic phase (e.g. tropocollage...
Objective To study the effects of mineral-collagen interfacial behavior on the microdamage progressi...
Hard biomaterials such as bone, dentin, and nacre show remarkable mechanical performance and serve a...
Mineralized type-I collagen fibrils are made up of mineral hydroxyapatite and type-I collagen and ar...
AbstractBone is a multiscale heterogeneous materiel of which principal function is to support the bo...
In many biological materials, the interfacial behaviour between constituents such as protein and min...
Bone is a hierarchical biological composite made of a mineral component (hydroxyapatite crystals) an...
Bone at the nanoscale consists of type I collagen and hydroxyapatite (HAP). Type I collagen and HAP ...
Fracture mechanisms of an enamel-like hydroxyapatite-collagen composite model are elaborated by mean...
Many biological composite materials such as bone have demonstrated unique mechanical performance, i....
none3noHard tissues (e.g., bone, enamel, dentin) in vertebrates perform various and different functi...
Bone, a hard biological material, possesses a combination of high stiffness and toughness, even thou...
Biological composite materials, such as bone, tooth and nacre, are comprised of a mixture of nano-si...
A fundamental study of the mechanics at the molecular scale and bridging it to the continuum level t...
Bone is a highly hierarchical complex structure that consists of organic and mineral components repr...
Biomaterials such as bone and marine exoskeletons have primarily an organic phase (e.g. tropocollage...
Objective To study the effects of mineral-collagen interfacial behavior on the microdamage progressi...
Hard biomaterials such as bone, dentin, and nacre show remarkable mechanical performance and serve a...
Mineralized type-I collagen fibrils are made up of mineral hydroxyapatite and type-I collagen and ar...
AbstractBone is a multiscale heterogeneous materiel of which principal function is to support the bo...
In many biological materials, the interfacial behaviour between constituents such as protein and min...
Bone is a hierarchical biological composite made of a mineral component (hydroxyapatite crystals) an...
Bone at the nanoscale consists of type I collagen and hydroxyapatite (HAP). Type I collagen and HAP ...
Fracture mechanisms of an enamel-like hydroxyapatite-collagen composite model are elaborated by mean...
Many biological composite materials such as bone have demonstrated unique mechanical performance, i....
none3noHard tissues (e.g., bone, enamel, dentin) in vertebrates perform various and different functi...