: One of the defining properties of biological structural materials is that of self-healing, i.e. the ability to undergo long-term reparation after instantaneous damaging events, but also after microdamage due to repeated load cycling. To correctly model the fatigue life of such materials, self-healing must be included in fracture and fatigue laws and related codes. Here, we adopt a numerical modelization of fatigue cycling of self-healing biological materials based on the Hierarchical Fibre Bundle Model and propose modifications in Griffith’s and Paris’ laws to account for the presence of self-healing. Simulations allow to numerically verify these modified expressions and highlight the effect of the self-healing rate, in particular for col...
Purpose: Tendon injuries vary from acute rupture to chronic tendinopathy. For an optimal treatment o...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
Self-healing materials are the next-generation materials for high-performance structures. To reduce ...
Abstract: Self-healing materials are a class of solids that have the capability to repair damage aut...
ABSTRACT: We present a theoretical and numerical analysis of the mechanical behavior of self-healing...
We present a theoretical and numerical analysis of the mechanical behavior of self-healing materials...
Inspired by natural healing processes, a variety of synthetic self-healing materials have been devel...
Molecular dynamics simulations are performed to investigate a spontaneous self-healing process in fr...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
A numerical model to study the fatigue crack retardation in a self-healing material (White et al., 2...
Tendon and ligament have specialized dynamic microenvironment characterized by a complex hierarchica...
A cohesive zone-based constitutive model, originally developed to model fracture, is extended to inc...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
Tendon attaches to bone through a hierarchical and spatial graded structure called the enthesis. Ent...
Bioinspired materials that act like living tissues and can repair internal damage by themselves, i.e...
Purpose: Tendon injuries vary from acute rupture to chronic tendinopathy. For an optimal treatment o...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
Self-healing materials are the next-generation materials for high-performance structures. To reduce ...
Abstract: Self-healing materials are a class of solids that have the capability to repair damage aut...
ABSTRACT: We present a theoretical and numerical analysis of the mechanical behavior of self-healing...
We present a theoretical and numerical analysis of the mechanical behavior of self-healing materials...
Inspired by natural healing processes, a variety of synthetic self-healing materials have been devel...
Molecular dynamics simulations are performed to investigate a spontaneous self-healing process in fr...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
A numerical model to study the fatigue crack retardation in a self-healing material (White et al., 2...
Tendon and ligament have specialized dynamic microenvironment characterized by a complex hierarchica...
A cohesive zone-based constitutive model, originally developed to model fracture, is extended to inc...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
Tendon attaches to bone through a hierarchical and spatial graded structure called the enthesis. Ent...
Bioinspired materials that act like living tissues and can repair internal damage by themselves, i.e...
Purpose: Tendon injuries vary from acute rupture to chronic tendinopathy. For an optimal treatment o...
The healing process of ruptured tendons is problematic due to scar tissue formation and deteriorated...
Self-healing materials are the next-generation materials for high-performance structures. To reduce ...