Biological membranes separate living cells from their surroundings, and, in case of
eukaryotes, partition the cell into its constituent organelles. These bilayer structures, which …

Molecular dynamics (MD) simulations have become the predominant computational
analysis method in membrane biophysics, as this technique is uniquely suited for …

When studying biological membranes, Molecular Dynamics (MD) simulations reveal to be
quite complementary to experimental techniques. Because the simulated systems keep …

Cellular membranes are formed from different lipids in various amounts and proportions
depending on the subcellular localization. The lipid composition of membranes is sensitive …

Molecular dynamics (MD) simulations have become a highly important technique to
consider lipid membrane systems, and quite often they provide considerable added value to …

Computer simulations are giving way to more complex and accurate studies of biological
membranes by molecular dynamics (MD) simulations. The analysis of MD trajectories …

There are essentially five classes of molecules that are the corner stones of life. DNA in
terms of nucleic acids contains the information of building proteins that are the nanoscale …

Cell membranes contain a large variety of lipid types and are crowded with proteins,
endowing them with the plasticity needed to fulfill their key roles in cell functioning. The …

Molecular dynamics (MD) simulations of cell membranes allow for a better understanding of
complex processes such as changing membrane dynamics, lipid rafts and the …

Biological membranes are complex environments consisting of different types of lipids and
membrane proteins. The structure of a lipid bilayer is typically difficult to study because the …