Computational micromechanics appears of the utmost importance, especially in the current
context of digital twins in mechanics of materials. The objective here is to develop an …

Abstract Background and Objectives Finite element simulations are widely employed as a
non-invasive and cost-effective approach for predicting outcomes in biomechanical …

The EMI (extracellular-membrane-intracellular) model describes electrical activity in
excitable tissue, where the extracellular and intracellular spaces and cellular membrane are …

Internal interfaces in a domain could exist as a material defect or they can appear due to
propagations of cracks. Discretization of such geometries and solution of the contact …

Astrocytes with their specialised morphology are essential for brain homeostasis as
metabolic mediators between blood vessels and neurons. In neurodegenerative diseases …

Numerical simulations in biomechanics, particularly in bone healing, present a cost-effective
option compared to experiments that demand prolonged observations with human or with …

In this paper, we develop a novel unfitted multiscale framework that combines two separate
scales represented by only one single computational mesh. Our framework relies on a …

In this paper, we propose a robust concurrent multiscale method for continuum-continuum
coupling based on the cut finite element method. The computational domain is defined in a …

Astrocytes with their specialized morphology are essential for brain homeostasis as
metabolic mediators between blood vessels and neurons. In neurodegenerative diseases …

In this paper, we present a robust and efficient unfitted concurrent multiscale method for
continuum-continuum coupling, based on the Cut Finite Element Method (CutFEM). The …