def __init__(self, observer, names=None):
vdim = observer.method.dimensions_velocity
if names is None:
names = ["p%s_part" % axis_name(i) for i in range(vdim)]
MultiLogQuantity.__init__(self,
names,
units=["N*s"] * vdim,
descriptions=["Particle Momentum"] * vdim)
self.observer = observer
def __init__(self, maxwell_op, fields, names=None):
self.fields = fields
from hedge.models.nd_calculus import DivergenceOperator
self.div_op = DivergenceOperator(maxwell_op.dimensions, maxwell_op.get_eh_subset()[3:]).bind(self.fields.discr)
if names is None:
names = ["divB", "err_divB_l1"]
MultiLogQuantity.__init__(
self, names=names, units=["T/m", "T/m"], descriptions=["Integral over div B", "Integral over |div B|"]
)
def __init__(self, observer, names=["divD", "err_divD_l1"]):
MultiLogQuantity.__init__(
self,
names,
units=["C", "C"],
descriptions=["Central divergence of D", "L1 Divergence Error"])
self.observer = observer
self.discr = self.observer.discr
from hedge.models.nd_calculus import DivergenceOperator
self.bound_div_op = DivergenceOperator(
self.discr.dimensions,
observer.maxwell_op.get_eh_subset()[:3]).bind(self.discr)
def __init__(self, fields, c0, names=None):
if names is None:
names = ["p%s_field" % axis_name(i) for i in range(3)]
vdim = len(names)
MultiLogQuantity.__init__(self, names, units=["N*s"] * vdim, descriptions=["Field Momentum"] * vdim)
self.fields = fields
self.c0 = c0
e_subset = fields.maxwell_op.get_eh_subset()[0:3]
h_subset = fields.maxwell_op.get_eh_subset()[3:6]
from hedge.tools import SubsettableCrossProduct
self.poynting_cross = SubsettableCrossProduct(op1_subset=e_subset, op2_subset=h_subset)
def __init__(self, gatherer, basename, unit, description):
MultiLogQuantity.__init__(self,
names=[
"%s_mean" % basename,
"%s_stddev" % basename,
"%s_min" % basename,
"%s_max" % basename,
],
units=4 * [unit],
descriptions=[
"Mean of %s" % description,
"Standard deviation of %s" % description,
"Minimum of %s" % description,
"Maximum of %s" % description,
])
self.gatherer = gatherer
