The Martini model, a coarse‐grained force field for molecular dynamics simulations, has
been around for nearly two decades. Originally developed for lipid‐based systems by the …

Membrane fusion is an essential process for the survival of eukaryotes and the entry of
enveloped viruses into host cells. A proper understanding of the mechanism of membrane …

In the last decade, molecular dynamics (MD) simulations have become an essential tool to
investigate the molecular properties of membrane trafficking processes, often in conjunction …

Membrane fusion processes play key roles in biological transformations, such as
endocytosis/exocytosis, signal transduction, neurotransmission, or viral infections, and …

Transient electric fields across cell bilayer membranes can lead to electroporation and cell
fusion, effects crucial to cell viability whose biological implications have been extensively …

Viral infections, fertilization, neurotransmission, and many other fundamental biological
processes rely on membrane fusion. Straightforward calculations based on the celebrated …

Topological transitions of fluid lipid membranes are fundamental processes for cell life. For
example, they are required for endo-and exocytosis or to enable neurotransmitters to cross …

Electric fields across lipid membranes play important roles in physiology, medicine, and
biotechnology, rationalizing the wide interest in modeling transmembrane potentials in …

Fusion of biological membranes is fundamental in various physiological events. The fusion
process involves several intermediate stages with energy barriers that are tightly dependent …

Membrane fusion is a ubiquitous phenomenon linked to many biological processes, and
represents a crucial step in liposome-based drug delivery strategies. The ability to control …