gmx_MMPBSA_test
gmx_MMPBSA_test
command-line¶
$ gmx_MMPBSA_test -h
usage: gmx_MMPBSA_test [-h] [-v]
[-t [{0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18} [{0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18} ...]]]
[-f FOLDER] [-r] [-ng] [-n NUM_PROCESSORS]
This program is part of gmx_MMPBSA and will allow you to run various gmx_MMPBSA examples easily.
optional arguments:
-h, --help show this help message and exit
-v, --version show program's version number and exit
Test options:
-t [{0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18} [{0,1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16,17,18} ...]]
The level the test is going to be run at. Multiple systems and analysis can be run at the same
time.
Nr. of Sys
* 0 16 All -- Run all examples (Can take a long time!!!)
* 1 13 Minimal -- Does a minimal test with a set of systems and analyzes
that show that gmx_MMPBSA runs correctly. Only exclude 3drism, nmode
protein-ligand MT because take a long time or are redundant
* 2 9 Fast -- Only the calculations that take a short time are run (Default)
[Systems]:
Slow Frames
* 3 . | 10 Protein-Ligand (Single trajectory approximation)
* 4 . | 10 Protein-Protein
* 5 . | 10 Protein-DNA
* 6 x | 4 Protein-Membrane
* 7 . | 10 Protein-Glycan
* 8 x | 4 Metalloprotein-Peptide
* 9 . | 10 Protein-DNA-RNA-IONs-Ligand
* 10 x | 4 Protein-Ligand (CHARMM force field)
* 11 x | 4 Protein-ligand complex in membrane with CHARMMff
[Analysis]:
Slow Frames
* 12 . | 10 Alanine Scanning
* 13 . | 10 Stability calculation
* 14 . | 10 Decomposition Analysis
* 15 . | 16 Interaction Entropy approximation
* 16 . | 10 Protein-Ligand (Multiple trajectory approximation)
* 17 x | 4 Entropy calculation using Normal Mode approximation
* 18 x | 4 Calculations using 3D-RISM approximation
-f FOLDER, --folder FOLDER
Defines the folder to store all data
-r, --reuse Defines the existing test forlder will be reuse
-ng, --nogui No open gmx_MMPBSA_ana after all calculations finished
-n NUM_PROCESSORS, --num_processors NUM_PROCESSORS
Defines the number of processor cores you want to use with MPI per calculation. If the number
of frames is less than the number of cpus defined, the calculation will be performed with
the number of processors = number of frames.
gmx_MMPBSA is an effort to implement the GB/PB and others calculations in GROMACS.
Based on MMPBSA.py (version 16.0) and AmberTools20
Running gmx_MMPBSA_test¶
gmx_MMPBSA_test is designed to run a set of samples (all or minimal) or a specific example efficiently. Additionally, gmx_MMPBSA_test can run in parallel, decreasing the execution time gmx_MMPBSA_test will download the most recent version of the repository in the specified folder and will perform the calculations.
Sets in gmx_MMPBSA_test
gmx_MMPBSA_test -f /home/user/Documents -n 10
Through this command-line, gmxMMPBSA_test will:
- Download gmx_MMPBSA repository content in
/home/user/Documents
- Works with
Fast
set of examples [-t 2 is the default] - Perform the calculation on 9 examples sequentially, using 10 cpus each time
gmx_MMPBSA_test -f /home/user/Documents -n 10 -t 1
Through this command-line, gmxMMPBSA_test will:
- Download gmx_MMPBSA repository content in
/home/user/Documents
- Works with
Minimal
set of examples [-t 1] - Perform the calculation on 13 examples sequentially, using 10 cpus each time
gmx_MMPBSA_test -f /home/user/Documents -t 0 -n 10
Through this command-line, gmxMMPBSA_test will:
- Download gmx_MMPBSA repository content in
/home/user/Documents
- Works with
All
set of examples - Perform the calculation on 16 examples sequentially, using 10 cpus each time
gmx_MMPBSA_test -f /home/user/Documents -t 3 5 7
Through this command-line, gmxMMPBSA_test will:
- Download gmx_MMPBSA repository content in
/home/user/Documents
- Execute
3
[Protein-Ligand (Single Trajectory approach)],5
[Protein-DNA], and7
[Protein-Glycan] examples
gmx_MMPBSA_test -f /home/user/Documents -t 3
Through this command-line, gmxMMPBSA_test will:
- Download gmx_MMPBSA repository content in
/home/user/Documents
- Execute
3
[Protein-Ligand (Single Trajectory approach)] example
Last update: June 6, 2022 23:15:28
Created: January 27, 2022 07:53:46
Created: January 27, 2022 07:53:46