Javascript must be enabled to continue!
Mesoscale simulation of biomembranes with FreeDTS
View through CrossRef
Abstract
We present FreeDTS software for performing computational research on biomembranes at the mesoscale. In this software, a membrane is represented by a dynamically triangulated surface equipped with vertex-based inclusions to integrate the effects of integral and peripheral membrane proteins. Several algorithms are included in the software to simulate complex membranes at different conditions such as framed membranes with constant tension, vesicles and high-genus membranes with various fixed volumes or constant pressure differences and applying external forces to membrane regions. Furthermore, the software allows the user to turn off the shape evolution of the membrane and focus solely on the organization of proteins. As a result, we can take realistic membrane shapes obtained from, for example, cryo-electron tomography and backmap them into a finer simulation model. In addition to many biomembrane applications, this software brings us a step closer to simulating realistic biomembranes with molecular resolution. Here we provide several interesting showcases of the power of the software but leave a wide range of potential applications for interested users.
Title: Mesoscale simulation of biomembranes with FreeDTS
Description:
Abstract
We present FreeDTS software for performing computational research on biomembranes at the mesoscale.
In this software, a membrane is represented by a dynamically triangulated surface equipped with vertex-based inclusions to integrate the effects of integral and peripheral membrane proteins.
Several algorithms are included in the software to simulate complex membranes at different conditions such as framed membranes with constant tension, vesicles and high-genus membranes with various fixed volumes or constant pressure differences and applying external forces to membrane regions.
Furthermore, the software allows the user to turn off the shape evolution of the membrane and focus solely on the organization of proteins.
As a result, we can take realistic membrane shapes obtained from, for example, cryo-electron tomography and backmap them into a finer simulation model.
In addition to many biomembrane applications, this software brings us a step closer to simulating realistic biomembranes with molecular resolution.
Here we provide several interesting showcases of the power of the software but leave a wide range of potential applications for interested users.
Related Results
Spontaneous near-inertial wave generation from mesoscale eddy: Energy transformation
Spontaneous near-inertial wave generation from mesoscale eddy: Energy transformation
The energy transformation between inertial oscillations (IOs), near-inertial waves (NIWs), and mesoscale eddies during spontaneous NIW generation is analyzed by the kinetic energy ...
An mesoscale eddy intelligent detection model with physical constraints
An mesoscale eddy intelligent detection model with physical constraints
Abstract
Marine mesoscale eddies are a common marine ocean phenomenon and they can affect the heat, salinity and water currents in the ocean. Identifying mesoscale e...
Variation of stream temperature among mesoscale habitats within stream reaches: southern Appalachians
Variation of stream temperature among mesoscale habitats within stream reaches: southern Appalachians
AbstractStream mesoscale habitats have systematic topographic relationships to hyporheic flow patterns, which may create predictable temperature variation between mesoscale habitat...
Eulerian and Lagrangian Perspectives on Mesoscale Air-Sea Interactions
Eulerian and Lagrangian Perspectives on Mesoscale Air-Sea Interactions
Mesoscale ocean eddies can be likened to weather events of the sea, influencing a multitude of coupled air-sea processes that help in regulating heat and carbon uptake and conseque...
Types of Crosslinkers and Their Applications in Biomaterials and Biomembranes
Types of Crosslinkers and Their Applications in Biomaterials and Biomembranes
Biomaterials and biomembranes play a crucial role in a variety of applications, particularly in the medical field due to their ability to mimic natural biological structures and fu...
When do the mesoscales matter for trade cumulus clouds? A EUREC4A Perspective
When do the mesoscales matter for trade cumulus clouds? A EUREC4A Perspective
Shallow cumulus clouds in trades present a unique challenge because they are both difficult to observe and describe. Recent studies have shown that mesoscale dynamics and synoptic ...
Complexity at the Mesoscale: a Framework for Reflecting on Freedom and Vulnerability
Complexity at the Mesoscale: a Framework for Reflecting on Freedom and Vulnerability
Condensed matter nanoscience and nanotechnology have profoundly–transformed modern life, from advanced computing to biomedical applications.–In condensed matter, the mesoscale, her...
Capturing mesoscale structures in multiphase CFD simulations
Capturing mesoscale structures in multiphase CFD simulations
Multiphase reactors’ performance depends on the mesoscale structures
formed due to multiphase hydrodynamics. Examples of mesoscale structures
include gas bubbles in a fluidized bed...

