We have developed a dual-topology/dual-coordinate free-energy simulation method for use with a QM/MM force field. By combining two parallel processes into one alchemical process, we are able to compute the double free-energy difference (delta deltaF) within a single simulation, which eliminates half of the expensive quantum-mechanical simulation in general. The method has been tested in computing the solvation free-energy differences of several molecular pairs and shows close agreement with experimental results.link_to_subscribed_fulltex
We report the development of a quantum mechanics/molecular mechanics free energy perturbation (QM/MM...
The computation of free energy is pivotal to understanding the fundamental nature of chemical phenom...
We present an accurate adaptive multiscale molecular dynamics method that will enable the detailed s...
The dual Hamiltonian free energy perturbation (DH-FEP) method is designed for accurate and efficient...
Construction of free energy landscapes at Quantum mechanics (QM) level is computationally demanding....
Calculating free energy differences is a topic of substantial interest and has many applications inc...
Carrying out free energy simulations (FES) using quantum mechanical (QM) Hamiltonians remains an att...
In the context of advanced hit-to-lead drug design based on atomistic Molecular Dynamics simulations...
Molecular dynamics simulations enable access to free energy differences governing the driving force ...
We present reaction free energy calculations using the adaptive buffered force mixing quantum mechan...
In this thesis, we present novel computational methods and frameworks to address the challenges asso...
We present a molecular simulation protocol to compute free energies of binding, which combines a QM/...
The use of the most accurate (i.e., QM or QM/MM) levels of theory for free energy simulations (FES) ...
We have devised a new efficient approach to compute combined quantum mechanical (QM) and molecular m...
For exploration of chemical and biological systems, the combined quantum mechanics and molecular mec...
We report the development of a quantum mechanics/molecular mechanics free energy perturbation (QM/MM...
The computation of free energy is pivotal to understanding the fundamental nature of chemical phenom...
We present an accurate adaptive multiscale molecular dynamics method that will enable the detailed s...
The dual Hamiltonian free energy perturbation (DH-FEP) method is designed for accurate and efficient...
Construction of free energy landscapes at Quantum mechanics (QM) level is computationally demanding....
Calculating free energy differences is a topic of substantial interest and has many applications inc...
Carrying out free energy simulations (FES) using quantum mechanical (QM) Hamiltonians remains an att...
In the context of advanced hit-to-lead drug design based on atomistic Molecular Dynamics simulations...
Molecular dynamics simulations enable access to free energy differences governing the driving force ...
We present reaction free energy calculations using the adaptive buffered force mixing quantum mechan...
In this thesis, we present novel computational methods and frameworks to address the challenges asso...
We present a molecular simulation protocol to compute free energies of binding, which combines a QM/...
The use of the most accurate (i.e., QM or QM/MM) levels of theory for free energy simulations (FES) ...
We have devised a new efficient approach to compute combined quantum mechanical (QM) and molecular m...
For exploration of chemical and biological systems, the combined quantum mechanics and molecular mec...
We report the development of a quantum mechanics/molecular mechanics free energy perturbation (QM/MM...
The computation of free energy is pivotal to understanding the fundamental nature of chemical phenom...
We present an accurate adaptive multiscale molecular dynamics method that will enable the detailed s...