probe_grid_backend.py Command Help
Command: $SCHRODINGER/run probe_grid_gui_dir/probe_grid_backend.py
usage: $SCHRODINGER/run probe_grid_gui_dir/probe_grid_backend.py
[-h]
[-keywords KEYWORD=VALUE KEYWORD=VALUE [KEYWORD=VALUE KEYWORD=VALUE ...]]
[-probe PROBE] [-probe_charge CHARGE] [-probe_radius ANGSTROMS]
[-charge CHARGE] [-mult MULTIPLICITY] [-intra INTRA-SURFACE_SPACING]
[-surfaces NUMBER] [-inter INTER-SURFACE_SPACING]
[-opt OPTIMIZATION_SET [OPTIMIZATION_SET ...]] [-compile STRUCTURES]
[-TPP THREADS] [-JOBNAME JOBNAME] [-HOST <hostname>]
TARGET_STRUCTURE PATH
This is the driver script to run a grid scan of a probe over a target
molecule. Copyright Schrodinger, LLC. All rights reserved.
positional arguments:
TARGET_STRUCTURE The path to the file holding the target structure to
probe.
PATH The path to the output file. This file will contain
structures with the computed properties.
options:
-h, -help Show this help message and exit.
-keywords KEYWORD=VALUE KEYWORD=VALUE [KEYWORD=VALUE KEYWORD=VALUE ...], -k KEYWORD=VALUE KEYWORD=VALUE [KEYWORD=VALUE KEYWORD=VALUE ...]
Jaguar keywords to include in calculations. Can be
given multiple keywords, ex. -k dftname=b3lyp
basis=midix... If this is the last flag before the
input/output file names, use -- to terminate the list
of keywords. (default: )
-probe PROBE Identity of the probe. Can be the string "point" to
indicate a point charge (default). Alternatively, a
single atom probe can be specified using an atomic
symbol. Finally, the probe structure can be stored in
a file and the path to the file given with this flag.
(default: point)
-probe_charge CHARGE Charge on the probe. Required if the probe is a point
charge, or if CDFT calculations are run. Unused
otherwise. For CDFT calculations, the probe is
constrained to have a charge of this value, while the
target is constrained to have a charge of x - y, where
x is given by -charge and y is give by -probe_charge.
(default: 0)
-probe_radius ANGSTROMS
The first grid surface will be placed at the VdW
surface of the target molecule plus some probe radius.
By default, the probe radius is taken as the VdW
radius of the probe atom. The VdW radius of a point
charge is 0. Use this flag to set the probe radius to
some other floating point value. (default: None)
-charge CHARGE Charge on the entire system. For point charge probes,
do not include the charge of the probe. For all other
probes, include the charge of the probe in the total
charge. Default is 0. (default: 0)
-mult MULTIPLICITY Multiplicity of the entire system. Point charges do
not count towards multiplicity. Default is 1.
(default: 1)
-intra INTRA-SURFACE_SPACING
Distance, in Angstroms, between grid points on the
same surface. Default is 1.0. (default: 1.0)
-surfaces NUMBER Number of grid surfaces. Default is 1. (default: 1)
-inter INTER-SURFACE_SPACING
If using more than one surface, each surface will be
spaced outward by this amount from the previous
surface. Default is 1.0 Angstroms. (default: 1.0)
-opt OPTIMIZATION_SET [OPTIMIZATION_SET ...]
Specify what part of the geometry to optimize. The
default of "none" is not to optimize the geometry.
"all" will optimize the entire probe-target complex,
including the location of the probe. The remaining
options will optimize only the specified atoms, and
more than one option can be given. "target" optimizes
the target geometry. "probe" optimizes the probe
geometry. "probe_distance" optimizes the probe-target
distance but preserves the probe-target vector.
"probe_location" fully optimizes the location of the
probe relative to the target, including distance and
vector. Note that if this is the last flag, it should
be terminated with a "--". Ex. -opt target
probe_distance -- (default: none)
-compile STRUCTURES The set of structures to compile in the output file.
Options are "all", "initial_atom", or "final_atom".
"all" will save all results to the output file.
"initial_atom" will save only the lowest energy
structure for each set of points that start closest to
a given atom. "final_atom" will save only the lowest
energy structure for each set of points where the
probe ends closest to a given atom after geometry
optimization. "initial_atom" and "final_atom" are
identical unless a geometry optimization is performed.
These last two options are useful if only the lowest
energy structure probing a given target atom is of
interest. (default: all)
-TPP THREADS The number of threads to use per Jaguar job (default:
1)
-JOBNAME JOBNAME Set jobname for this calculation. (default: None)
Job Control Options:
-HOST <hostname> Run job remotely on the indicated host entry.
(default: localhost)