BioSimSpace.Process.Gromacs#

class BioSimSpace.Process.Gromacs(system, protocol, exe=None, name='gromacs', work_dir=None, seed=None, extra_options={}, extra_lines=[], property_map={}, ignore_warnings=False, show_errors=True, checkpoint_file=None)[source]#

A class for running simulations using GROMACS.

__init__(system, protocol, exe=None, name='gromacs', work_dir=None, seed=None, extra_options={}, extra_lines=[], property_map={}, ignore_warnings=False, show_errors=True, checkpoint_file=None)[source]#

Constructor.

Parameters:
  • system (System) – The molecular system.

  • protocol (Protocol) – The protocol for the GROMACS process.

  • exe (str) – The full path to the GROMACS executable.

  • name (str) – The name of the process.

  • work_dir – The working directory for the process.

  • seed (int) – A random number seed.

  • extra_options (dict) – A dictionary containing extra options. Overrides the defaults generated by the protocol.

  • extra_lines ([str]) – A list of extra lines to put at the end of the configuration file.

  • property_map (dict) – A dictionary that maps system “properties” to their user defined values. This allows the user to refer to properties with their own naming scheme, e.g. { “charge” : “my-charge” }

  • ignore_warnings (bool) – Whether to ignore warnings when generating the binary run file with ‘gmx grompp’. By default, these warnings are elevated to errors and will halt the program.

  • show_errors (bool) – Whether to show warning/error messages when generating the binary run file.

  • checkpoint_file (str) – The path to a checkpoint file from a previous run. This can be used to continue an existing simulation. Currently we only support the use of checkpoint files for Equilibration protocols.

Methods

__init__(system, protocol[, exe, name, ...])

Constructor.

addArgs(args)

Append additional command-line arguments.

addToConfig(config)

Add a string to the configuration list.

clearArgs()

Clear all of the command-line arguments.

command()

Return the command-line string used to run the process.

deleteArg(arg)

Delete an argument from the dictionary.

exe()

Return the executable.

getAngleEnergy([time_series, block])

Get the angle energy.

getArgString()

Get the command-line arguments string.

getArgStringList()

Convert the argument dictionary into a list of strings.

getArgs()

Get the dictionary of command-line arguments.

getBondEnergy([time_series, block])

Get the bond energy.

getConfig()

Get the list of configuration file strings.

getConservedEnergy([time_series, block])

Get the conserved energy.

getConstraintRMSD([time_series, block])

Get the RMSD of the constrained atoms.

getCoulomb14([time_series, block])

Get the Coulomb energy between atoms 1 and 4.

getCoulombReciprocal([time_series, block])

Get the reciprocal space Coulomb energy.

getCoulombSR([time_series, block])

Get the short-range Coulomb energy.

getCurrentAngleEnergy([time_series])

Get the current angle energy.

getCurrentBondEnergy([time_series])

Get the current bond energy.

getCurrentConservedEnergy([time_series])

Get the current conserved energy.

getCurrentConstraintRMSD([time_series])

Get the current RMSD of the constrained atoms.

getCurrentCoulomb14([time_series])

Get the current Coulomb energy between atoms 1 and 4.

getCurrentCoulombReciprocal([time_series])

Get the current reciprocal space Coulomb energy.

getCurrentCoulombSR([time_series])

Get the current short-range Coulomb energy.

getCurrentDihedralEnergy([time_series])

Get the current total dihedral energy (proper + improper).

getCurrentDispersionCorrection([time_series])

Get the current dispersion correction.

getCurrentImproperEnergy([time_series])

Get the current improper energy.

getCurrentKineticEnergy([time_series])

Get the current kinetic energy.

getCurrentLennardJones14([time_series])

Get the current Lennard-Jones energy between atoms 1 and 4.

getCurrentLennardJonesSR([time_series])

Get the current short-range Lennard-Jones energy.

getCurrentPotentialEnergy([time_series])

Get the current potential energy.

getCurrentPressure([time_series])

Get the current pressure.

getCurrentPressureDC([time_series])

Get the current DC pressure.

getCurrentProperEnergy([time_series])

Get the current proper dihedral energy.

getCurrentRecord(record[, time_series, unit])

Get a current record from the stdout dictionary.

getCurrentRecords()

Return the current dictionary of stdout time-series records.

getCurrentRestraintEnergy([time_series])

Get the current position restraint energy.

getCurrentStep([time_series])

Get the current number of integration steps.

getCurrentSystem()

Get the latest molecular system.

getCurrentTemperature([time_series])

Get the current temperature.

getCurrentTime([time_series])

Get the current simulation time.

getCurrentTotalEnergy([time_series])

Get the current total energy.

getCurrentVolume([time_series])

Get the current volume.

getDihedralEnergy([time_series, block])

Get the total dihedral energy (proper + improper).

getDispersionCorrection([time_series, block])

Get the dispersion correction.

getFrame(index)

Return a specific trajectory frame.

getImproperEnergy([time_series, block])

Get the improper energy.

getInput([name, file_link])

Return a link to a zip file containing the input files used by the process.

getKineticEnergy([time_series, block])

Get the kinetic energy.

getLennardJones14([time_series, block])

Get the Lennard-Jones energy between atoms 1 and 4.

getLennardJonesSR([time_series, block])

Get the short-range Lennard-Jones energy.

getName()

Return the process name.

getOutput([name, block, file_link])

Return a link to a zip file of the working directory.

getPackageName()

Return the package name.

getPotentialEnergy([time_series, block])

Get the potential energy.

getPressure([time_series, block])

Get the pressure.

getPressureDC([time_series, block])

Get the DC pressure.

getProperEnergy([time_series, block])

Get the proper dihedral energy.

getRecord(record[, time_series, unit, block])

Get a record from the stdout dictionary.

getRecords([block])

Return the dictionary of stdout time-series records.

getRestraintEnergy([time_series, block])

Get the position restraint energy.

getSeed()

Return the random number seed.

getStderr([block])

Return the entire stderr for the process as a list of strings.

getStdout([block])

Return the entire stdout for the process as a list of strings.

getStep([time_series, block])

Get the number of integration steps.

getSystem([block])

Get the latest molecular system.

getTemperature([time_series, block])

Get the temperature.

getTime([time_series, block])

Get the simulation time.

getTotalEnergy([time_series, block])

Get the total energy.

getTrajectory([backend, block])

Return a trajectory object.

getVolume([time_series, block])

Get the volume.

inputFiles()

Return the list of input files.

insertArg(arg, value, index)

Insert a command-line argument at a specific index.

isError()

Return whether the process exited with an error.

isQueued()

Return whether the process is queued.

isRunning()

Return whether the process is running.

kill()

Kill the running process.

resetArgs()

Reset the command-line arguments.

resetConfig()

Reset the configuration parameters.

run([system, protocol, auto_start, restart])

Create and run a new process.

runTime()

Return the running time for the process (in minutes).

setArg(arg, value)

Set a specific command-line argument.

setArgs(args)

Set the dictionary of command-line arguments.

setConfig(config)

Set the list of configuration file strings.

setName(name)

Set the process name.

setSeed(seed)

Set the random number seed.

start()

Start the GROMACS process.

stderr([n])

Print the last n lines of the stderr buffer.

stdout([n])

Print the last n lines of the stdout buffer.

wait([max_time])

Wait for the process to finish.

workDir()

Return the working directory.

writeConfig(file)

Write the configuration to file.

addArgs(args)#

Append additional command-line arguments.

Parameters:

args (dict, collections.OrderedDict) – A dictionary of command line arguments.

addToConfig(config)[source]#

Add a string to the configuration list.

Parameters:

config (str, [str]) – A configuration string, a list of configuration strings, or a path to a configuration file.

clearArgs()#

Clear all of the command-line arguments.

command()#

Return the command-line string used to run the process.

Returns:

command – The command string.

Return type:

str

deleteArg(arg)#

Delete an argument from the dictionary.

Parameters:

arg (str) – The argument to delete.

exe()#

Return the executable.

Returns:

exe – The path to the executable.

Return type:

str

getAngleEnergy(time_series=False, block='AUTO')[source]#

Get the angle energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The angle energy.

Return type:

Energy

getArgString()#

Get the command-line arguments string.

Returns:

arg_string – The command-line argument string.

Return type:

str

getArgStringList()#

Convert the argument dictionary into a list of strings.

Returns:

arg_string_list – The list of command-line arguments.

Return type:

[str]

getArgs()#

Get the dictionary of command-line arguments.

Returns:

args – The dictionary of command-line arguments.

Return type:

collections.OrderedDict

getBondEnergy(time_series=False, block='AUTO')[source]#

Get the bond energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The bond energy.

Return type:

Energy

getConfig()#

Get the list of configuration file strings.

Returns:

config – The list of configuration strings.

Return type:

[str]

getConservedEnergy(time_series=False, block='AUTO')[source]#

Get the conserved energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The conserved energy.

Return type:

Energy

getConstraintRMSD(time_series=False, block='AUTO')[source]#

Get the RMSD of the constrained atoms.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

length – The constrained RMSD.

Return type:

Length

getCoulomb14(time_series=False, block='AUTO')[source]#

Get the Coulomb energy between atoms 1 and 4.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCoulombReciprocal(time_series=False, block='AUTO')[source]#

Get the reciprocal space Coulomb energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCoulombSR(time_series=False, block='AUTO')[source]#

Get the short-range Coulomb energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCurrentAngleEnergy(time_series=False)[source]#

Get the current angle energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The angle energy.

Return type:

Energy

getCurrentBondEnergy(time_series=False)[source]#

Get the current bond energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The bond energy.

Return type:

Energy

getCurrentConservedEnergy(time_series=False)[source]#

Get the current conserved energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The conserved energy.

Return type:

Energy

getCurrentConstraintRMSD(time_series=False)[source]#

Get the current RMSD of the constrained atoms.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

length – The current constrained RMSD.

Return type:

Length

getCurrentCoulomb14(time_series=False)[source]#

Get the current Coulomb energy between atoms 1 and 4.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCurrentCoulombReciprocal(time_series=False)[source]#

Get the current reciprocal space Coulomb energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCurrentCoulombSR(time_series=False)[source]#

Get the current short-range Coulomb energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The Coulomb energy.

Return type:

Energy

getCurrentDihedralEnergy(time_series=False)[source]#

Get the current total dihedral energy (proper + improper).

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The dihedral energy.

Return type:

Energy

getCurrentDispersionCorrection(time_series=False)[source]#

Get the current dispersion correction.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The dispersion correction.

Return type:

Energy

getCurrentImproperEnergy(time_series=False)[source]#

Get the current improper energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The improper energy.

Return type:

Energy

getCurrentKineticEnergy(time_series=False)[source]#

Get the current kinetic energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The kinetic energy.

Return type:

Energy

getCurrentLennardJones14(time_series=False)[source]#

Get the current Lennard-Jones energy between atoms 1 and 4.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The Lennard-Jones energy.

Return type:

Energy

getCurrentLennardJonesSR(time_series=False)[source]#

Get the current short-range Lennard-Jones energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The Lennard-Jones energy.

Return type:

Energy

getCurrentPotentialEnergy(time_series=False)[source]#

Get the current potential energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The potential energy.

Return type:

Energy

getCurrentPressure(time_series=False)[source]#

Get the current pressure.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

pressure – The current pressure.

Return type:

Pressure

getCurrentPressureDC(time_series=False)[source]#

Get the current DC pressure.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

pressure – The current pressure.

Return type:

Pressure

getCurrentProperEnergy(time_series=False)[source]#

Get the current proper dihedral energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The proper dihedral energy.

Return type:

Energy

getCurrentRecord(record, time_series=False, unit=None)[source]#

Get a current record from the stdout dictionary.

Parameters:
  • record (str) – The record key.

  • time_series (bool) – Whether to return a list of time series records.

  • unit (Unit) – The unit to convert the record to.

Returns:

record – The matching record.

Return type:

Type

getCurrentRecords()[source]#

Return the current dictionary of stdout time-series records.

Parameters:

block (bool) – Whether to block until the process has finished running.

Returns:

records – The dictionary of time-series records.

Return type:

MultiDict

getCurrentRestraintEnergy(time_series=False)[source]#

Get the current position restraint energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The dispersion correction.

Return type:

Energy

getCurrentStep(time_series=False)[source]#

Get the current number of integration steps.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

step – The current number of integration steps.

Return type:

int

getCurrentSystem()[source]#

Get the latest molecular system.

Returns:

system – The latest molecular system.

Return type:

System

getCurrentTemperature(time_series=False)[source]#

Get the current temperature.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

temperature – The current temperature.

Return type:

Temperature

getCurrentTime(time_series=False)[source]#

Get the current simulation time.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

time – The current simulation time in nanoseconds.

Return type:

Time

getCurrentTotalEnergy(time_series=False)[source]#

Get the current total energy.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

energy – The total energy.

Return type:

Energy

getCurrentVolume(time_series=False)[source]#

Get the current volume.

Parameters:

time_series (bool) – Whether to return a list of time series records.

Returns:

volume – The volume.

Return type:

Volume

getDihedralEnergy(time_series=False, block='AUTO')[source]#

Get the total dihedral energy (proper + improper).

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The total dihedral energy.

Return type:

Energy

getDispersionCorrection(time_series=False, block='AUTO')[source]#

Get the dispersion correction.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The dispersion correction.

Return type:

Energy

getFrame(index)[source]#

Return a specific trajectory frame.

Parameters:

index (int) – The index of the frame.

Returns:

frame – The System object of the corresponding frame.

Return type:

System

getImproperEnergy(time_series=False, block='AUTO')[source]#

Get the improper energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The improper energy.

Return type:

Energy

getInput(name=None, file_link=False)#

Return a link to a zip file containing the input files used by the process.

Parameters:
  • name (str) – The name of the zip file.

  • file_link (bool) – Whether to return a FileLink when working in Jupyter.

Returns:

output – A path, or file link, to an archive of the process input.

Return type:

str, IPython.display.FileLink

getKineticEnergy(time_series=False, block='AUTO')[source]#

Get the kinetic energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The kinetic energy.

Return type:

Energy

getLennardJones14(time_series=False, block='AUTO')[source]#

Get the Lennard-Jones energy between atoms 1 and 4.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The Lennard-Jones energy.

Return type:

Energy

getLennardJonesSR(time_series=False, block='AUTO')[source]#

Get the short-range Lennard-Jones energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The short-range Lennard-Jones energy.

Return type:

Energy

getName()#

Return the process name.

Returns:

namestr

The name of the process.

getOutput(name=None, block='AUTO', file_link=False)#

Return a link to a zip file of the working directory.

Parameters:
  • name (str) – The name of the zip file.

  • block (bool) – Whether to block until the process has finished running.

  • file_link (bool) – Whether to return a FileLink when working in Jupyter.

Returns:

output – A path, or file link, to an archive of the process output.

Return type:

str, IPython.display.FileLink

getPackageName()#

Return the package name.

Returns:

name – The name of the package.

Return type:

str

getPotentialEnergy(time_series=False, block='AUTO')[source]#

Get the potential energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The potential energy.

Return type:

Energy

getPressure(time_series=False, block='AUTO')[source]#

Get the pressure.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

pressure – The pressure.

Return type:

Pressure

getPressureDC(time_series=False, block='AUTO')[source]#

Get the DC pressure.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

pressure – The DC pressure.

Return type:

Pressure

getProperEnergy(time_series=False, block='AUTO')[source]#

Get the proper dihedral energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The proper dihedral energy.

Return type:

Energy

getRecord(record, time_series=False, unit=None, block='AUTO')[source]#

Get a record from the stdout dictionary.

Parameters:
  • record (str) – The record key.

  • time_series (bool) – Whether to return a list of time series records.

  • unit (Unit) – The unit to convert the record to.

  • block (bool) – Whether to block until the process has finished running.

Returns:

record – The matching record.

Return type:

Type

getRecords(block='AUTO')[source]#

Return the dictionary of stdout time-series records.

Parameters:

block (bool) – Whether to block until the process has finished running.

Returns:

records – The dictionary of time-series records.

Return type:

MultiDict

getRestraintEnergy(time_series=False, block='AUTO')[source]#

Get the position restraint energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The dispersion correction.

Return type:

Energy

getSeed()#

Return the random number seed.

Returns:

seed – The random number seed.

Return type:

int

getStderr(block='AUTO')#

Return the entire stderr for the process as a list of strings.

Parameters:

block (bool) – Whether to block until the process has finished running.

Returns:

error – The list of stderror strings.

Return type:

[str]

getStdout(block='AUTO')#

Return the entire stdout for the process as a list of strings.

Parameters:

block (bool) – Whether to block until the process has finished running.

Returns:

output – The list of stdout strings.

Return type:

[str]

getStep(time_series=False, block='AUTO')[source]#

Get the number of integration steps.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

step – The current number of integration steps.

Return type:

int

getSystem(block='AUTO')[source]#

Get the latest molecular system.

Parameters:

block (bool) – Whether to block until the process has finished running.

Returns:

system – The latest molecular system.

Return type:

System

getTemperature(time_series=False, block='AUTO')[source]#

Get the temperature.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

temperature – The temperature.

Return type:

Temperature

getTime(time_series=False, block='AUTO')[source]#

Get the simulation time.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

time – The current simulation time in nanoseconds.

Return type:

Time

getTotalEnergy(time_series=False, block='AUTO')[source]#

Get the total energy.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

energy – The total energy.

Return type:

Energy

getTrajectory(backend='AUTO', block='AUTO')[source]#

Return a trajectory object.

Parameters:
  • backend (str) – The backend to use for trajectory parsing. To see supported backends, run BioSimSpace.Trajectory.backends(). Using “AUTO” will try each in sequence.

  • block (bool) – Whether to block until the process has finished running.

Returns:

trajectory – The latest trajectory object.

Return type:

System

getVolume(time_series=False, block='AUTO')[source]#

Get the volume.

Parameters:
  • time_series (bool) – Whether to return a list of time series records.

  • block (bool) – Whether to block until the process has finished running.

Returns:

volume – The volume.

Return type:

Volume

inputFiles()#

Return the list of input files.

Returns:

input_files – The list of autogenerated input files.

Return type:

[str]

insertArg(arg, value, index)#

Insert a command-line argument at a specific index.

Parameters:
  • arg (str) – The argument to set.

  • value – The value of the argument.

  • index (int) – The index in the dictionary.

isError()#

Return whether the process exited with an error.

Returns:

is_error – Whether the process exited with an error.

Return type:

bool

isQueued()#

Return whether the process is queued.

Returns:

is_queued – Whether the process is queued.

Return type:

bool

isRunning()#

Return whether the process is running.

Returns:

is_running – Whether the process is running.

Return type:

bool

kill()#

Kill the running process.

resetArgs()#

Reset the command-line arguments.

resetConfig()[source]#

Reset the configuration parameters.

run(system=None, protocol=None, auto_start=True, restart=False)#

Create and run a new process.

Parameters:
  • system (System) – The molecular system.

  • protocol (Protocol) – The simulation protocol.

  • auto_start (bool) – Whether to start the process automatically.

  • restart (bool) – Whether to restart the simulation, i.e. use the original system.

Returns:

process – The new process object.

Return type:

Procees

runTime()#

Return the running time for the process (in minutes).

Returns:

runtime – The runtime in minutes.

Return type:

Time

setArg(arg, value)#

Set a specific command-line argument.

For command-line flags, i.e. boolean arguments, the key should specify whether the flag is enabled (True) or not (False).

Parameters:
  • arg (str) – The argument to set.

  • value (bool, str) – The value of the argument.

setArgs(args)#

Set the dictionary of command-line arguments.

Parameters:

args (dict, collections.OrderedDict) – A dictionary of command-line arguments.

setConfig(config)[source]#

Set the list of configuration file strings.

Parameters:

config (str, [str]) – The list of configuration strings, or a path to a configuration file.

setName(name)#

Set the process name.

Parameters:

name (str) – The process name.

setSeed(seed)#

Set the random number seed.

Parameters:

seed (int) – The random number seed.

start()[source]#

Start the GROMACS process.

Returns:

process – A handle to the GROMACS process.

Return type:

Process.Gromacs

stderr(n=10)#

Print the last n lines of the stderr buffer.

Parameters:

n (int) – The number of lines to print.

stdout(n=10)[source]#

Print the last n lines of the stdout buffer.

Parameters:

n (int) – The number of lines to print.

wait(max_time=None)#

Wait for the process to finish.

Parameters:

max_time (Time, int, float) – The maximum time to wait (in minutes).

workDir()#

Return the working directory.

Returns:

work_dir – The path of the working directory.

Return type:

str

writeConfig(file)#

Write the configuration to file.

Parameters:

file (str) – The path to a file.