averageBuriedVolume.py#

usage: averageBuriedVolume.py [-h] [-if {log,out,dat}] [-o output destination]
                              [-l TARGETS] [-e EXCLUDE_ATOMS] [-c CENTER]
                              [-r RADIUS] [-vdw {bondi,umn}] [-s SCALE]
                              [-t TEMPERATURE] [-f] [-w0 W0] [-v]
                              [-m {MC,Lebedev}] [-rp {20,32,64,75,99,127}]
                              [-ap {110,194,302,590,974,1454,2030,2702,5810}]
                              [-i ITERATIONS]
                              input files [input files ...]

calculate Boltzmann-weighted percent buried volume parameters

positional arguments:
  input files           file containing coordinates and energy

optional arguments:
  -h, --help            show this help message and exit
  -if {log,out,dat}, --input-format {log,out,dat}
                        file format of input
  -o output destination, --output output destination
                        output destination
                        Default: stdout
  -l TARGETS, --ligand-atoms TARGETS
                        atoms to consider in calculation
                        Default: use all atoms except the center
  -e EXCLUDE_ATOMS, --exclude-atoms EXCLUDE_ATOMS
                        atoms to exclude from the calculation
                        Default: exclude no ligand atoms
  -c CENTER, --center CENTER
                        atom the sphere is centered on
                        Default: detect metal center (centroid of all metals if multiple are present)
  -r RADIUS, --radius RADIUS
                        radius around center
                        Default: 3.5 Ångström
  -vdw {bondi,umn}, --vdw-radii {bondi,umn}
                        VDW radii to use in calculation
                        umn: main group vdw radii from J. Phys. Chem. A 2009, 113, 19, 5806–5812
                            (DOI: 10.1021/jp8111556)
                            transition metals are crystal radii from Batsanov, S.S. Van der Waals
                            Radii of Elements. Inorganic Materials 37, 871–885 (2001).
                            (DOI: 10.1023/A:1011625728803)
                        bondi: radii from J. Phys. Chem. 1964, 68, 3, 441–451 (DOI: 10.1021/j100785a001)
                        Default: bondi
  -s SCALE, --scale SCALE
                        scale VDW radii by this amount
                        Default: 1.17
  -t TEMPERATURE, --temperature TEMPERATURE
                        temperature in K
                        Default: 298.15
  -f, --frequency       input files are frequency job output files
                        additional average values will be calculated for ZPE, H, G, etc.
  -w0 W0, --frequency-cutoff W0
                        cutoff frequency for quasi free energy corrections (1/cm)
                        Default: 100 cm^-1
  -v, --verbose         also print population
  -m {MC,Lebedev}, --method {MC,Lebedev}
                        integration method - Monte-Carlo (MC) or Lebedev quadrature (Lebedev)
                        Default: Lebedev

Lebedev integration options:
  -rp {20,32,64,75,99,127}, --radial-points {20,32,64,75,99,127}
                        number of radial shells for Gauss-Legendre integration
                        of the radial component
                        lower values are faster, but at the cost of accuracy
                        Default: 20
  -ap {110,194,302,590,974,1454,2030,2702,5810}, --angular-points {110,194,302,590,974,1454,2030,2702,5810}
                        number of angular points for Lebedev integration
                        lower values are faster, but at the cost of accuracy
                        Default: 1454

Monte-Carlo integration options:
  -i ITERATIONS, --minimum-iterations ITERATIONS
                        minimum iterations - each is a batch of 3000 points
                        MC will continue after this until convergence criteria are met
                        Default: 25