[Main] section¶
job: The type of job to execute.
default:
akmc
options:
md
: Molecular dynamics.
parallel_replica
: Calculate the rare-event dynamics of the system by combining transitions observed from multiple trajectories run in parallel.
saddle_search
: Do a saddle point search using a minimum mode method.
displacement_sampling
: Job to sample different displacement methods and parameters to see which are the most efficient.
process_search
: Combined saddle search, minimizations, and prefactor calculations. Used by the aKMC method.
basin_hopping
: Search for global minimum using basin hopping method.
minimization
: Find the minimum from an initial configuration.
akmc
: Run an adaptive kinetic monte carlo simulation.
hessian
: Calculate the Hessian matrix for the specified configuration in a process.
prefactor
: Calculate the eigenfrequencies for a given configuration.
potential: the type of potential to execute
default:
lj
options:
qsc
: Quantum Sutton-Chen potential, for FCC metals.
lenosky_Si
: Lenosky potential, for silicon.
lammps
: The LAMMPS potentials.
sw_si
: Stillinger-Weber potential, for silicon.
edip
: Environment-Dependent Interatomic Potential, for carbon.
lj
: Lennard-Jones potential in reduced units.
morse_pt
: Morse potential for platinum.
zpice
: Water on platinum.
mpi
: Communicate with a mpi process to calculate energy and forces.
bopfox
: Bond order potential, for metals.
emt
: Effective medium theory, for metals.
eam_al
: Embedded atom method parameterized for aluminum.
vasp
: Vienna Ab-Initio Simulation Program (VASP) interface.
tersoff_si
: Tersoff pair potential with angular terms, for silicon.
tip4p
: Point charge model for water.
random_seed: Takes an integer number for the random seed. If this number is less than zero the current time is used as the random seed.
default:
-1
temperature: The temperature that the job will run at.
default:
300.0
finite_difference: The finite difference distance to use for dimer, hessian, lanczos, and optimization methods.
default:
0.01
quiet:
default:
False