Project ID: plumID:21.011
Source: NaCl_at_graphite-cmumd/coordination-profiles.plmd
Originally used with PLUMED version: 2.5.1
Stable: zipped raw stdout - zipped raw stderr - stderr
Master: zipped raw stdout - zipped raw stderr - stderr
# Define atom groups gra: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=1-9152:1 wat: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=9153-43319:3 sod: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=43320-43737:1 chl: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=43738-44155:1 slt: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=43320-44155:1 sln: GROUPDefine a group of atoms so that a particular list of atoms can be referenced with a single label in definitions of CVs or virtual atoms. More details ATOMSthe numerical indexes for the set of atoms in the group=9153-44155:1 # Set a virtual atom at the origin and in the 'bulk' p0: FIXEDATOMAdd a virtual atom in a fixed position. More details ATcoordinates of the virtual atom=2.696525,2.75872,7.403535 p1: FIXEDATOMAdd a virtual atom in a fixed position. More details ATcoordinates of the virtual atom=2.696525,2.75872,11.403535 # Get the coordination number distributions cn0: COORDINATIONNUMBERCalculate the coordination numbers of atoms so that you can then calculate functions of the distribution of More details SPECIESAthe list of atoms for which the symmetry function is being calculated=sod SPECIESBthe list of atoms that can be in the environments of each of the atoms for which the symmetry function is being calculated=chl SWITCHthe switching function that it used in the construction of the contact matrix. Options for this keyword are explained in the documentation for LESS_THAN.={RATIONAL R_0=0.355 NN=32 MM=64} cn1: COORDINATIONNUMBERCalculate the coordination numbers of atoms so that you can then calculate functions of the distribution of More details SPECIESAthe list of atoms for which the symmetry function is being calculated=sod SPECIESBthe list of atoms that can be in the environments of each of the atoms for which the symmetry function is being calculated=wat SWITCHthe switching function that it used in the construction of the contact matrix. Options for this keyword are explained in the documentation for LESS_THAN.={RATIONAL R_0=0.325 NN=32 MM=64} cn2: COORDINATIONNUMBERCalculate the coordination numbers of atoms so that you can then calculate functions of the distribution of More details SPECIESAthe list of atoms for which the symmetry function is being calculated=chl SPECIESBthe list of atoms that can be in the environments of each of the atoms for which the symmetry function is being calculated=wat SWITCHthe switching function that it used in the construction of the contact matrix. Options for this keyword are explained in the documentation for LESS_THAN.={RATIONAL R_0=0.385 NN=32 MM=64} cn3: COORDINATIONNUMBERCalculate the coordination numbers of atoms so that you can then calculate functions of the distribution of More details SPECIESAthe list of atoms for which the symmetry function is being calculated=sod SPECIESBthe list of atoms that can be in the environments of each of the atoms for which the symmetry function is being calculated=gra SWITCHthe switching function that it used in the construction of the contact matrix. Options for this keyword are explained in the documentation for LESS_THAN.={RATIONAL R_0=0.365 NN=32 MM=64} ips: MFILTER_MOREApply one minus a switching function to the input vector. More details DATAthe vector you wish to transform=cn0 SWITCHthe switching function that transform={GAUSSIAN D_0=0.9999 R_0=0.00001}
densnacl: MULTICOLVARDENSEvaluate the average value of a multicolvar on a grid. More details DATAthe multicolvar which you would like to calculate the density profile for=cn0 ORIGINwe will use the position of this atom as the origin=p0 DIRthe direction in which to calculate the density profile=z NBINSthe number of bins to use in each direction (alternative to GRID_NBIN)=1480 KERNEL the kernel function you are using=GAUSSIAN BANDWIDTHthe bandwidths for kernel density esimtation=0.03 NORMALIZATIONset true/false to determine how to the data is normalised=true STRIDE the frequency with which to accumulate the densities=1 densnaow: MULTICOLVARDENSEvaluate the average value of a multicolvar on a grid. More details DATAthe multicolvar which you would like to calculate the density profile for=cn1 ORIGINwe will use the position of this atom as the origin=p0 DIRthe direction in which to calculate the density profile=z NBINSthe number of bins to use in each direction (alternative to GRID_NBIN)=1480 KERNEL the kernel function you are using=GAUSSIAN BANDWIDTHthe bandwidths for kernel density esimtation=0.03 NORMALIZATIONset true/false to determine how to the data is normalised=true STRIDE the frequency with which to accumulate the densities=1 densclow: MULTICOLVARDENSEvaluate the average value of a multicolvar on a grid. More details DATAthe multicolvar which you would like to calculate the density profile for=cn2 ORIGINwe will use the position of this atom as the origin=p0 DIRthe direction in which to calculate the density profile=z NBINSthe number of bins to use in each direction (alternative to GRID_NBIN)=1480 KERNEL the kernel function you are using=GAUSSIAN BANDWIDTHthe bandwidths for kernel density esimtation=0.03 NORMALIZATIONset true/false to determine how to the data is normalised=true STRIDE the frequency with which to accumulate the densities=1 densnagra: MULTICOLVARDENSEvaluate the average value of a multicolvar on a grid. More details DATAthe multicolvar which you would like to calculate the density profile for=cn3 ORIGINwe will use the position of this atom as the origin=p0 DIRthe direction in which to calculate the density profile=z NBINSthe number of bins to use in each direction (alternative to GRID_NBIN)=1480 KERNEL the kernel function you are using=GAUSSIAN BANDWIDTHthe bandwidths for kernel density esimtation=0.03 NORMALIZATIONset true/false to determine how to the data is normalised=true STRIDE the frequency with which to accumulate the densities=1 densips: MULTICOLVARDENSEvaluate the average value of a multicolvar on a grid. More details DATAthe multicolvar which you would like to calculate the density profile for=ips ORIGINwe will use the position of this atom as the origin=p0 DIRthe direction in which to calculate the density profile=z NBINSthe number of bins to use in each direction (alternative to GRID_NBIN)=1480 KERNEL the kernel function you are using=GAUSSIAN BANDWIDTHthe bandwidths for kernel density esimtation=0.03 NORMALIZATIONset true/false to determine how to the data is normalised=true STRIDE the frequency with which to accumulate the densities=1 DUMPGRIDOutput the function on the grid to a file with the PLUMED grid format. More details GRIDthe grid you would like to print (can also use ARG for specifying what is being printed)=densnacl FILE the file on which to write the grid=DENSna-cl.dat DUMPGRIDOutput the function on the grid to a file with the PLUMED grid format. More details GRIDthe grid you would like to print (can also use ARG for specifying what is being printed)=densnaow FILE the file on which to write the grid=DENSna-ow.dat DUMPGRIDOutput the function on the grid to a file with the PLUMED grid format. More details GRIDthe grid you would like to print (can also use ARG for specifying what is being printed)=densclow FILE the file on which to write the grid=DENScl-ow.dat DUMPGRIDOutput the function on the grid to a file with the PLUMED grid format. More details GRIDthe grid you would like to print (can also use ARG for specifying what is being printed)=densnagra FILE the file on which to write the grid=DENSna-gra.dat DUMPGRIDOutput the function on the grid to a file with the PLUMED grid format. More details GRIDthe grid you would like to print (can also use ARG for specifying what is being printed)=densips FILE the file on which to write the grid=DENSips.dat