i am trying to invoke GPU for my final mdrun step using the command
mdrun -v -deffnm md -gup_id
Got the following : GPU ID string set, but mdrun was compiled without
GPU support.
I have also included cutoff-scheme = Verlet in the md.mdp file. Kindly help
me to troubleshoot this
Dear Justin,
thank you for your prompt answer.
I will contact you off-list.
Best
Ivan
On 2017-03-05 17:14, Justin Lemkul wrote:
On 3/5/17 6:56 AM, Ivan Gladich wrote:
Dear all,
I would like to simulate an alpha-quartz (100)
hydroxylated/hydrogenated
interface using GROAMCS.
Force
Thanks Alex for the suggestion!!
On 5 March 2017 at 01:49, Alex wrote:
> I looked at that paper and there are no attempts to simulate liquid-gas
> equilibrium at normal atmospheric pressure. That aside, what the authors
> did instead is actually pretty mind-boggling: they
On 3/5/17 6:56 AM, Ivan Gladich wrote:
Dear all,
I would like to simulate an alpha-quartz (100) hydroxylated/hydrogenated
interface using GROAMCS.
Force field parameters and structure are available in CHARMM
(http://mackerell.umaryland.edu/charmm_ff.shtml) and reported in the
supplemental
On 3/5/17 1:44 AM, Negar Parvizi wrote:
Dear all users,
I am new in membrane proteins simulation. I want to simulate a membrane protein
that it is a part of a large protein and has a big extracellular part.Here is
my question: is it ok, I just simulate the membrane part even it is a part
On 3/4/17 9:24 AM, Subashini .K wrote:
Hi gromacs users,
I want to calculate delta G for protein ligand binding.
Had run the umbrella pulling simulation for 100 ps (protein ligand solvated
in water), applying restraint in the protein (using the code in gromacs
tutorial website,
Dear all,
I would like to simulate an alpha-quartz (100) hydroxylated/hydrogenated
interface using GROAMCS.
Force field parameters and structure are available in CHARMM
(http://mackerell.umaryland.edu/charmm_ff.shtml) and reported in the
supplemental material of Lopes, P.E.M., Murashov,
I looked at that paper and there are no attempts to simulate liquid-gas
equilibrium at normal atmospheric pressure. That aside, what the authors
did instead is actually pretty mind-boggling: they replaced the droplet
with a cylinder by making the system periodic in the out-of-plane
direction.