We present optimisations applied to a bespoke biophysical molecular dynamics simulation designed to investigate chromosome condensation. Our primary focus is on domain specific algorithmic improvements to determining short-range interaction forces between particles, as certain qualities of the simulation render traditional methods less effective. We implement tuned versions of the code for both traditional CPU architectures and the modern many-core architecture found in the Intel Xeon Phi coprocessor and compare their effectiveness. We achieve speed-ups starting at a factor of 10 over the original code, facilitating more detailed and larger-scale experiments
We present parmbsc1, a force field for DNA atomistic simulation, which has been parameterized from h...
For the purpose of molecular dynamics simulations of large biopolymers we have developed a new metho...
Within every human cell, approximately two meters of DNA must be compacted into a nucleus with a di...
We present projection sorting, an algorithmic approach to determining pairwise short-range forces be...
We present projection sorting, an algorithmic approach to determining pairwise short-range forces be...
Copyright: © 2015 Materials Research SocietyThis article discusses novel algorithms for molecular-dy...
Current research in the field of computational biology often involves simulations on high-performanc...
For the purpose of molecular dynamics simulations of large biopolymers we have built a parallel comp...
ChromoShake is a three-dimensional simulator designed to explore the range of configurational states...
Molecular dynamics (MD) simulation allows one to predict the time evolution of a system of interacti...
DNA has been used in vitro as a computational substrate due to programmable base-pairing interaction...
<p>(<i>A</i>) Asphericity as a function of the strength <i>F</i><sub>cond</sub> and the threshold di...
Polymer models have long been used to study the properties and behaviour of DNA, however the princip...
The development of novel experimental technologies able to map genome-wide chromatin contacts, as Hi...
<p>(<i>A</i>) Segregation speed as a function of the strength <i>F</i><sub>cond</sub> and threshold ...
We present parmbsc1, a force field for DNA atomistic simulation, which has been parameterized from h...
For the purpose of molecular dynamics simulations of large biopolymers we have developed a new metho...
Within every human cell, approximately two meters of DNA must be compacted into a nucleus with a di...
We present projection sorting, an algorithmic approach to determining pairwise short-range forces be...
We present projection sorting, an algorithmic approach to determining pairwise short-range forces be...
Copyright: © 2015 Materials Research SocietyThis article discusses novel algorithms for molecular-dy...
Current research in the field of computational biology often involves simulations on high-performanc...
For the purpose of molecular dynamics simulations of large biopolymers we have built a parallel comp...
ChromoShake is a three-dimensional simulator designed to explore the range of configurational states...
Molecular dynamics (MD) simulation allows one to predict the time evolution of a system of interacti...
DNA has been used in vitro as a computational substrate due to programmable base-pairing interaction...
<p>(<i>A</i>) Asphericity as a function of the strength <i>F</i><sub>cond</sub> and the threshold di...
Polymer models have long been used to study the properties and behaviour of DNA, however the princip...
The development of novel experimental technologies able to map genome-wide chromatin contacts, as Hi...
<p>(<i>A</i>) Segregation speed as a function of the strength <i>F</i><sub>cond</sub> and threshold ...
We present parmbsc1, a force field for DNA atomistic simulation, which has been parameterized from h...
For the purpose of molecular dynamics simulations of large biopolymers we have developed a new metho...
Within every human cell, approximately two meters of DNA must be compacted into a nucleus with a di...