class Anisotropy(QuantityContainer):
"""The anisotropy base class."""
anisotropy_id = 0
def __init__(self, allowed_quantities=None):
# Every anisotropy needs to have an unique name, so that we can assign
# a unique name to its parameters within the same model.
# Example: if we define two uniaxial anisotropies, then we have two
# sets of constants (K1, K2). We then name them as ("u1_K1", "u1_K2")
# for the first anisotropy and ("u2_K1", "u2_K2") for the second one.
self.name = "a%d" % Anisotropy.anisotropy_id
Anisotropy.anisotropy_id += 1
QuantityContainer.__init__(self, allowed_quantities)
self.quantities = Quantities()
self.quantities_defined = False
def _create_quantity(self, q_type, q_name, *args, **named_args):
q_absname = "%s_%s" % (self.name, q_name)
q = QuantityContainer._create_quantity(self, q_type, q_name, q_absname, *args, **named_args)
# We add the object to the group without the prefix which is
# identifying the anisotropy
self.quantities.add(q)
return q
def _define_quantities(self):
self.quantities_defined = True
def get_E_equation(self):
raise NotImplementedError("get_E_equation not implemented, yet.")
def get_H_equation(self):
raise NotImplementedError("get_H_equation not implemented, yet.")
class Anisotropy(QuantityContainer):
"""The anisotropy base class."""
anisotropy_id = 0
def __init__(self, allowed_quantities=None):
# Every anisotropy needs to have an unique name, so that we can assign
# a unique name to its parameters within the same model.
# Example: if we define two uniaxial anisotropies, then we have two
# sets of constants (K1, K2). We then name them as ("u1_K1", "u1_K2")
# for the first anisotropy and ("u2_K1", "u2_K2") for the second one.
self.name = "a%d" % Anisotropy.anisotropy_id
Anisotropy.anisotropy_id += 1
QuantityContainer.__init__(self, allowed_quantities)
self.quantities = Quantities()
self.quantities_defined = False
def _create_quantity(self, q_type, q_name, *args, **named_args):
q_absname = "%s_%s" % (self.name, q_name)
q = QuantityContainer._create_quantity(self, q_type, q_name, q_absname,
*args, **named_args)
# We add the object to the group without the prefix which is
# identifying the anisotropy
self.quantities.add(q)
return q
def _define_quantities(self):
self.quantities_defined = True
def get_E_equation(self):
raise NotImplementedError("get_E_equation not implemented, yet.")
def get_H_equation(self):
raise NotImplementedError("get_H_equation not implemented, yet.")
def __init__(self, allowed_quantities=None):
# Every anisotropy needs to have an unique name, so that we can assign
# a unique name to its parameters within the same model.
# Example: if we define two uniaxial anisotropies, then we have two
# sets of constants (K1, K2). We then name them as ("u1_K1", "u1_K2")
# for the first anisotropy and ("u2_K1", "u2_K2") for the second one.
self.name = "a%d" % Anisotropy.anisotropy_id
Anisotropy.anisotropy_id += 1
QuantityContainer.__init__(self, allowed_quantities)
self.quantities = Quantities()
self.quantities_defined = False
def __init__(self, allowed_quantities=None):
# Every anisotropy needs to have an unique name, so that we can assign
# a unique name to its parameters within the same model.
# Example: if we define two uniaxial anisotropies, then we have two
# sets of constants (K1, K2). We then name them as ("u1_K1", "u1_K2")
# for the first anisotropy and ("u2_K1", "u2_K2") for the second one.
self.name = "a%d" % Anisotropy.anisotropy_id
Anisotropy.anisotropy_id += 1
QuantityContainer.__init__(self, allowed_quantities)
self.quantities = Quantities()
self.quantities_defined = False
