Protein folding is the hot and focus research field in computational biology and HPC. The major factors affect protein folding are interaction energy function, conformational sampling and computer resource. We will address these three factors in our new approach. By combining accurate interaction energy function, which is called MFCC, and the smart sampling technique, named Replica Exchange MD, with supercomputer, we can simulate the folding process of larger size proteins comparing with previous studies. We will implement the newest sampling technique with our technology to make protein folding more realistic
AbstractSimulating protein folding thermodynamics starting purely from a protein sequence is a grand...
Folding of four fast-folding proteins, including chignolin, Trp-cage, villin headpiece and WW domain...
Advances in computer hardware, software and algorithms have now made it possible to run atomisticall...
Proteins are complex physical systems of great biological and pharmaceutical interest. Computer sim...
Proteins are complex physical systems of great biological and pharmaceutical interest. Computer simu...
The millisecond time scale needed for molecular dynamics simulations to approach the quantitative st...
A computational approach is essential whenever the complexity of the process under study is such tha...
Computer simulations aim to become virtual microscopes that can probe the working of cells on a mole...
Replica exchange simulations have become the method of choice in computational protein science, but ...
Proteins are known to fold into tertiary structures that determine their functionality in living org...
Over the past three decades, a number of powerful simulation algorithms have been introduced to the ...
We compare the efficiency of multicanonical and replica exchange molecular dynamics for the sampling...
A hydrophobic aided replica exchange method (HAREM) is introduced to accelerate the simulation of al...
Computer simulation of conformational transitions in biomolecules, such as protein folding, is cons...
The folding of large proteins can be examined in part through the simulation of smaller proteins or ...
AbstractSimulating protein folding thermodynamics starting purely from a protein sequence is a grand...
Folding of four fast-folding proteins, including chignolin, Trp-cage, villin headpiece and WW domain...
Advances in computer hardware, software and algorithms have now made it possible to run atomisticall...
Proteins are complex physical systems of great biological and pharmaceutical interest. Computer sim...
Proteins are complex physical systems of great biological and pharmaceutical interest. Computer simu...
The millisecond time scale needed for molecular dynamics simulations to approach the quantitative st...
A computational approach is essential whenever the complexity of the process under study is such tha...
Computer simulations aim to become virtual microscopes that can probe the working of cells on a mole...
Replica exchange simulations have become the method of choice in computational protein science, but ...
Proteins are known to fold into tertiary structures that determine their functionality in living org...
Over the past three decades, a number of powerful simulation algorithms have been introduced to the ...
We compare the efficiency of multicanonical and replica exchange molecular dynamics for the sampling...
A hydrophobic aided replica exchange method (HAREM) is introduced to accelerate the simulation of al...
Computer simulation of conformational transitions in biomolecules, such as protein folding, is cons...
The folding of large proteins can be examined in part through the simulation of smaller proteins or ...
AbstractSimulating protein folding thermodynamics starting purely from a protein sequence is a grand...
Folding of four fast-folding proteins, including chignolin, Trp-cage, villin headpiece and WW domain...
Advances in computer hardware, software and algorithms have now made it possible to run atomisticall...