def my_write_viz(step,
t,
dt,
state,
ts_field=None,
dv=None,
production_rates=None,
cfl=None):
if dv is None:
dv = eos.dependent_vars(state)
if production_rates is None:
production_rates = eos.get_production_rates(state)
if ts_field is None:
ts_field, cfl, dt = my_get_timestep(t=t, dt=dt, state=state)
viz_fields = [("cv", state), ("dv", dv),
("production_rates", production_rates),
("dt" if constant_cfl else "cfl", ts_field)]
write_visfile(discr,
viz_fields,
visualizer,
vizname=casename,
step=step,
t=t,
overwrite=True,
vis_timer=vis_timer)
def my_write_viz(step, t, state, dv=None):
if dv is None:
dv = eos.dependent_vars(state)
viz_fields = [("cv", state),
("dv", dv)]
from mirgecom.simutil import write_visfile
write_visfile(discr, viz_fields, visualizer, vizname=casename,
step=step, t=t, overwrite=True, vis_timer=vis_timer)
def my_write_viz(step, t, state, dv, exact=None, resid=None):
if exact is None:
exact = initializer(x_vec=nodes, eos=eos, time=t)
if resid is None:
resid = state - exact
viz_fields = [("cv", state), ("dv", dv)]
from mirgecom.simutil import write_visfile
write_visfile(discr, viz_fields, visualizer, vizname=casename,
step=step, t=t, overwrite=True, vis_timer=vis_timer)
def my_write_viz(step, t, dt, state, ts_field, dv, production_rates, cfl):
viz_fields = [("cv", state), ("dv", dv),
("production_rates", production_rates),
("dt" if constant_cfl else "cfl", ts_field)]
write_visfile(discr,
viz_fields,
visualizer,
vizname=casename,
step=step,
t=t,
overwrite=True,
vis_timer=vis_timer)
def my_write_viz(step, t, state, dv=None, exact=None, resid=None):
viz_fields = [("cv", state)]
if dv is None:
dv = eos.dependent_vars(state)
if exact is None:
exact = initializer(x_vec=nodes, eos=eos, time=t)
if resid is None:
resid = state - exact
viz_fields = [("cv", state),
("dv", dv),
("exact_soln", exact),
("residual", resid)]
from mirgecom.simutil import write_visfile
write_visfile(discr, viz_fields, visualizer, vizname=casename,
step=step, t=t, overwrite=True, vis_timer=vis_timer)
def my_checkpoint(step, t, dt, state, force=False):
do_health = force or check_step(step, nhealth) and step > 0
do_viz = force or check_step(step, nviz)
do_restart = force or check_step(step, nrestart)
do_status = force or check_step(step, nstatus)
if do_viz or do_health:
dv = eos.dependent_vars(state)
errors = False
if do_health:
health_message = ""
if check_naninf_local(discr, "vol", dv.pressure):
errors = True
health_message += "Invalid pressure data found.\n"
elif check_range_local(discr,
"vol",
dv.pressure,
min_value=1,
max_value=2.e6):
errors = True
health_message += "Pressure data failed health check.\n"
errors = comm.allreduce(errors, MPI.LOR)
if errors:
if rank == 0:
logger.info("Fluid solution failed health check.")
if health_message:
logger.info(f"{rank=}: {health_message}")
#if check_step(step, nrestart) and step != restart_step and not errors:
if do_restart or errors:
filename = restart_path + snapshot_pattern.format(
step=step, rank=rank, casename=casename)
restart_dictionary = {
"local_mesh": local_mesh,
"order": order,
"state": state,
"t": t,
"step": step,
"global_nelements": global_nelements,
"num_parts": nparts
}
write_restart_file(actx, restart_dictionary, filename, comm)
if do_status or do_viz or errors:
local_cfl = get_inviscid_cfl(discr, eos=eos, dt=dt, cv=state)
max_cfl = nodal_max(discr, "vol", local_cfl)
log_cfl.set_quantity(max_cfl)
#if ((check_step(step, nviz) and step != restart_step) or errors):
if do_viz or errors:
def loc_fn(t):
return flame_start_loc + flame_speed * t
#exact_soln = PlanarDiscontinuity(dim=dim, disc_location=loc_fn,
#sigma=0.0000001, nspecies=nspecies,
#temperature_left=temp_ignition, temperature_right=temp_unburned,
#pressure_left=pres_burned, pressure_right=pres_unburned,
#velocity_left=vel_burned, velocity_right=vel_unburned,
#species_mass_left=y_burned, species_mass_right=y_unburned)
reaction_rates = eos.get_production_rates(cv=state)
# conserved quantities
viz_fields = [
#("cv", state),
("CV_rho", state.mass),
("CV_rhoU", state.momentum[0]),
("CV_rhoV", state.momentum[1]),
("CV_rhoE", state.energy)
]
# species mass fractions
viz_fields.extend(
("Y_" + species_names[i], state.species_mass[i] / state.mass)
for i in range(nspecies))
# dependent variables
viz_fields.extend([
("DV", eos.dependent_vars(state)),
#("exact_soln", exact_soln),
("reaction_rates", reaction_rates),
("cfl", local_cfl)
])
write_visfile(discr,
viz_fields,
visualizer,
vizname=viz_path + casename,
step=step,
t=t,
overwrite=True,
vis_timer=vis_timer)
if errors:
raise RuntimeError("Error detected by user checkpoint, exiting.")
