openmmtools.testsystems.WCAFluid¶
- class openmmtools.testsystems.WCAFluid(nparticles=216, density=0.96, mass=39.9 Da, epsilon=997.7355141783887 J/mol, sigma=3.4 A, **kwargs)[source]¶
- Attributes:
analytical_propertiesA list of available analytical properties, accessible via ‘get_propertyname(thermodynamic_state)’ calls.
mdtraj_topologyThe mdtraj.Topology object corresponding to the test system (read-only).
nameThe name of the test system.
positionsThe openmm.unit.Quantity object containing the particle positions, with units compatible with openmm.unit.nanometers.
systemThe openmm.System object corresponding to the test system.
topologyThe openmm.app.Topology object corresponding to the test system.
Methods
reduced_potential_expectation(...)Calculate the expected potential energy in state_sampled_from, divided by kB * T in state_evaluated_in.
serialize()Return the System and positions in serialized XML form.
- __init__(nparticles=216, density=0.96, mass=39.9 Da, epsilon=997.7355141783887 J/mol, sigma=3.4 A, **kwargs)[source]¶
Create a Weeks-Chandler-Andersen system.
Methods
__init__([nparticles, density, mass, ...])Create a Weeks-Chandler-Andersen system.
reduced_potential_expectation(...)Calculate the expected potential energy in state_sampled_from, divided by kB * T in state_evaluated_in.
serialize()Return the System and positions in serialized XML form.
Attributes
analytical_propertiesA list of available analytical properties, accessible via 'get_propertyname(thermodynamic_state)' calls.
mdtraj_topologyThe mdtraj.Topology object corresponding to the test system (read-only).
nameThe name of the test system.
positionsThe openmm.unit.Quantity object containing the particle positions, with units compatible with openmm.unit.nanometers.
systemThe openmm.System object corresponding to the test system.
topologyThe openmm.app.Topology object corresponding to the test system.