We investigate the influence of the material inhomogeneities that are generated by anisotropic growth on the source of mass acting within a growing living tissue. In order to do that, we need to study the interaction between these material inhomogeneities and the chemical agents dissolved within the tissue. For this pur-pose, we use some ideas and methods from Condensed Matter Physics (e.g., the Path Integral technique employed in modelling Brownian processes) and apply them to the Continuum Mechanics description of volumetric Growth. We believe that this approach may provide new physical insight into the interactions between the macroscopic dynamics of living systems and the evolution of the subsystems which activate biological processes. ...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
What are the biomechanical implications in the dynamics and evolution of a growing solid tumor? Alth...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
We investigate the influence of the material in homogeneities that are generated by an isotropic gro...
We investigate the influence of the material in homogeneities that are generated by an isotropic gro...
Growth in biological tissue depends upon cascades of complex biochemical reactions in-volving severa...
We reformulate a model of avascular tumour growth in which the tumour tissue is studied as a biphasi...
In this paper we study tumor growth within the framework of Continuum Mechanics, considering a tumo...
Within the medical community, there has been increasing interest in understanding material growth in...
This monograph presents a general mechanical theory for biological growth. It provides both a concep...
We reformulate a model of avascular tumour growth in which the tumour tissue is studied as a biphasi...
International audienceA multiscale analysis integrating biomechanics and mechanobiology is today req...
A multiscale analysis integrating biomechanics and mechanobiology is today required for deciphering ...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
What are the biomechanical implications in the dynamics and evolution of a growing solid tumor? Alth...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
We investigate the influence of the material in homogeneities that are generated by an isotropic gro...
We investigate the influence of the material in homogeneities that are generated by an isotropic gro...
Growth in biological tissue depends upon cascades of complex biochemical reactions in-volving severa...
We reformulate a model of avascular tumour growth in which the tumour tissue is studied as a biphasi...
In this paper we study tumor growth within the framework of Continuum Mechanics, considering a tumo...
Within the medical community, there has been increasing interest in understanding material growth in...
This monograph presents a general mechanical theory for biological growth. It provides both a concep...
We reformulate a model of avascular tumour growth in which the tumour tissue is studied as a biphasi...
International audienceA multiscale analysis integrating biomechanics and mechanobiology is today req...
A multiscale analysis integrating biomechanics and mechanobiology is today required for deciphering ...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...
What are the biomechanical implications in the dynamics and evolution of a growing solid tumor? Alth...
In this paper, a novel physically-motivated anisotropic model for growth driven by nutrient diffusio...