We describe a step-by-step protocol for the computation of relative dissociation free energies with GROMACS, based on a novel bidirectional nonequilibrium alchemical approach. The proposed methodology does not require any intervention in the code. It allows computing with good accuracy the RBFE between small molecules with arbitrary differences in volume, charge, and chemical topology. The procedure is illustrated for the challenging SAMPL9 batch on the tutorial https://procacci.github.io/vdssb_gromacs/NE-RDFE
Carrying out free energy simulations (FES) using quantum mechanical (QM) Hamiltonians remains an att...
Binding free energy calculations predict the potency of compounds to protein binding sites in a phys...
A method is given for the calculation of gas-phase bond dissociation energies (BDEs) for relatively ...
We describe a step-by-step protocol for the computation of relative dissociation free energy with GR...
In the context of advanced hit-to-lead drug design based on atomistic Molecular Dynamics simulations...
We present an approach to performing alchemical binding free energies which we term coupled topologi...
Orientational restraints can improve the efficiency of alchemical free energy calculations, but they...
Free energy calculations based on molecular dynamics (MD) simulations have seen a tremendous growth ...
We have developed a dual-topology/dual-coordinate free-energy simulation method for use with a QM/MM...
The calculation of relative binding free energies (RBFE) involves the choice of the end-state/system...
Free-energy calculations play an important role in the application of computational chemistry to a r...
Molecular dynamics simulations enable access to free energy differences governing the driving force ...
A methodology for the calculation of the free energy difference between a pair of molecules of arbit...
Binding free energy calculations serve as a physically rigorous approach to predict the potency of c...
We present a molecular simulation protocol to compute free energies of binding, which combines a QM/...
Carrying out free energy simulations (FES) using quantum mechanical (QM) Hamiltonians remains an att...
Binding free energy calculations predict the potency of compounds to protein binding sites in a phys...
A method is given for the calculation of gas-phase bond dissociation energies (BDEs) for relatively ...
We describe a step-by-step protocol for the computation of relative dissociation free energy with GR...
In the context of advanced hit-to-lead drug design based on atomistic Molecular Dynamics simulations...
We present an approach to performing alchemical binding free energies which we term coupled topologi...
Orientational restraints can improve the efficiency of alchemical free energy calculations, but they...
Free energy calculations based on molecular dynamics (MD) simulations have seen a tremendous growth ...
We have developed a dual-topology/dual-coordinate free-energy simulation method for use with a QM/MM...
The calculation of relative binding free energies (RBFE) involves the choice of the end-state/system...
Free-energy calculations play an important role in the application of computational chemistry to a r...
Molecular dynamics simulations enable access to free energy differences governing the driving force ...
A methodology for the calculation of the free energy difference between a pair of molecules of arbit...
Binding free energy calculations serve as a physically rigorous approach to predict the potency of c...
We present a molecular simulation protocol to compute free energies of binding, which combines a QM/...
Carrying out free energy simulations (FES) using quantum mechanical (QM) Hamiltonians remains an att...
Binding free energy calculations predict the potency of compounds to protein binding sites in a phys...
A method is given for the calculation of gas-phase bond dissociation energies (BDEs) for relatively ...