Bone is a complex and very important multi-constituent bio-composite. In this work, we focus on the arrangement of bone constituents from the nanoscopic to the microscopic scale, and investigate the influence of their arrangements on the fracture mechanisms of the whole composite. We find that bone, on the nanoscopic scale, consists of mineralized collagen fibrils held together by a non-fibrillar organic matrix, which results in a primary failure mode of delamination between mineralized fibrils. In turn, these mineralized fibrils form one of three types of filaments that span microcracks in fractured bone samples, possibly resisting the propagation of these cracks
International audienceThe organization of the elementary components within the ultrastructure of min...
Bone's hierarchical arrangement of collagen and mineral generates a confluence of toughening mechani...
Here, we investigate the ultrastructural origins of the strength of bone, which is critical for prop...
Natural hard composites like human bone possess a combination of strength and toughness that exceeds...
Here we focus on recent advances in understanding the deformation and fracture behavior of collagen,...
Biomineralization templated by organic molecules to produce inorganic-organic nanocomposites is a fa...
Bone is an intriguingly complex material. It combines high strength, toughness and lightweight via a...
Properties of the organic matrix of bone(1) as well as its function in the microstructure(2) could b...
Bone can achieve high strength and toughness simultaneously through its composite structure and mult...
Properties of the organic matrix of bone 1 as well as its function in the microstructure2 could be t...
Structural materials engineering often aims to realize materials that are simultaneously strong, tou...
AbstractBone is a multiscale heterogeneous materiel of which principal function is to support the bo...
In the nanocomposite bone, inorganic material is combined with several types of organic molecules, a...
Bone, as a mineralized composite of inorganic (mostly carbonated hydroxyapatite) and organic (mainly...
Sacrificial bonds and hidden length (SBHL) in structural molecules provide a mechanism for energy di...
International audienceThe organization of the elementary components within the ultrastructure of min...
Bone's hierarchical arrangement of collagen and mineral generates a confluence of toughening mechani...
Here, we investigate the ultrastructural origins of the strength of bone, which is critical for prop...
Natural hard composites like human bone possess a combination of strength and toughness that exceeds...
Here we focus on recent advances in understanding the deformation and fracture behavior of collagen,...
Biomineralization templated by organic molecules to produce inorganic-organic nanocomposites is a fa...
Bone is an intriguingly complex material. It combines high strength, toughness and lightweight via a...
Properties of the organic matrix of bone(1) as well as its function in the microstructure(2) could b...
Bone can achieve high strength and toughness simultaneously through its composite structure and mult...
Properties of the organic matrix of bone 1 as well as its function in the microstructure2 could be t...
Structural materials engineering often aims to realize materials that are simultaneously strong, tou...
AbstractBone is a multiscale heterogeneous materiel of which principal function is to support the bo...
In the nanocomposite bone, inorganic material is combined with several types of organic molecules, a...
Bone, as a mineralized composite of inorganic (mostly carbonated hydroxyapatite) and organic (mainly...
Sacrificial bonds and hidden length (SBHL) in structural molecules provide a mechanism for energy di...
International audienceThe organization of the elementary components within the ultrastructure of min...
Bone's hierarchical arrangement of collagen and mineral generates a confluence of toughening mechani...
Here, we investigate the ultrastructural origins of the strength of bone, which is critical for prop...