Man page - gmx-sans-legacy(1)
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apt-get install gromacs-data
Manual
GMX-SANS-LEGACY
NAMESYNOPSIS
DESCRIPTION
OPTIONS
SEE ALSO
COPYRIGHT
NAME
gmx-sans-legacy - Compute small angle neutron scattering spectra
SYNOPSIS
gmx sans-legacy
[
-s
[<.tpr>]
] [
-f
[<.xtc/.trr/...>]
] [
-n
[<.ndx>]
]
[
-d
[<.dat>]
] [
-pr
[<.xvg>]
] [
-sq
[<.xvg>]
]
[
-prframe
[<.xvg>]
] [
-sqframe
[<.xvg>]
] [
-b
<time>
]
[
-e
<time>
] [
-dt
<time>
] [
-tu
<enum>
]
[
-xvg
<enum>
]
[
-mode
<enum>
] [
-mcover
<real>
] [
-[no]pbc
]
[
-startq
<real>
] [
-endq
<real>
] [
-qstep
<real>
]
[
-seed
<int>
]
DESCRIPTION
gmx sans-legacy computes SANS spectra using Debye formula. It currently uses topology file (since it need to assign element for each atom).
Parameters:
-pr Computes normalized g(r) function averaged over trajectory
-prframe Computes normalized g(r) function for each frame
-sq Computes SANS intensity curve averaged over trajectory
-sqframe Computes SANS intensity curve for each frame
-startq Starting q value in nm
-endq Ending q value in nm
-qstep Stepping in q space
Note: When using Debye direct method computational cost increases as 1/2 * N * (N - 1) where N is atom number in group of interest.
WARNING: If sq or pr specified this tool can produce large number of files! Up to two times larger than number of frames!
OPTIONS
Options to
specify input files:
-s [<.tpr>] (topol.tpr)
Portable xdr run input file
-f [<.xtc/.trr/...>] (traj.xtc)
Trajectory: xtc trr cpt gro g96 pdb tng
-n [<.ndx>] (index.ndx) (Optional)
Index file
-d [<.dat>] (nsfactor.dat) (Optional)
Generic data file
Options to
specify output files:
-pr [<.xvg>] (pr.xvg)
xvgr/xmgr file
-sq [<.xvg>] (sq.xvg)
xvgr/xmgr file
-prframe [<.xvg>] (prframe.xvg) (Optional)
xvgr/xmgr file
-sqframe [<.xvg>] (sqframe.xvg) (Optional)
xvgr/xmgr file
Other options:
-b <time> (0)
Time of first frame to read from trajectory (default unit ps)
-e <time> (0)
Time of last frame to read from trajectory (default unit ps)
-dt <time> (0)
Only use frame when t MOD dt = first time (default unit ps)
-tu <enum> (ps)
Unit for time values: fs, ps, ns, us, ms, s
-xvg <enum> (xmgrace)
xvg plot formatting: xmgrace, xmgr, none
-mode <enum> (direct)
Mode for sans spectra calculation: direct, mc
-mcover <real> (-1)
Monte-Carlo coverage should be -1(default) or (0,1]
-[no]pbc (yes)
Use periodic boundary conditions for computing distances
-startq <real> (0)
Starting q (1/nm)
-endq <real> (2)
Ending q (1/nm)
-qstep <real> (0.01)
Stepping in q (1/nm)
-seed <int> (0)
Random seed for Monte-Carlo
SEE ALSO
gmx(1)
More information about GROMACS is available at <- http://www.gromacs.org/ >.
COPYRIGHT
2025, GROMACS development team