def __init__(self,
type="NONE",
spec=0,
isot=0,
qns1=QuantumNumbers(),
qns2=QuantumNumbers()):
if isinstance(type, c.c_void_p):
self.__delete__ = False
self.__data__ = type
else:
self.__delete__ = True
self.__data__ = c.c_void_p(lib.createQuantumIdentifier())
self.type = type
self.spec = spec
self.isot = isot
self.upperqn = qns1
self.lowerqn = qns2
def localquantumnumbers(self, val):
if isinstance(val, Sized):
self.sizelocalquantumnumbers = len(val)
x = self.localquantumnumbers
n = self.sizelocalquantumnumbers
for i in range(n):
x[i].set(QuantumNumbers.to_index(val[i]))
else:
raise TypeError("Only accepts array-like input")
def lowerqn(self):
""" Lower state quantum numbers of the identifier (QuantumNumbers) """
return QuantumNumbers(
c.c_void_p(
lib.getLowerQuantumNumbersQuantumIdentifier(self.__data__)))
def levelqn(self):
return QuantumNumbers(
c.c_void_p(
lib.getEnergyLevelQuantumNumbersQuantumIdentifier(
self.__data__)))
def low(self):
if self.type != "Transition":
raise RuntimeError(f"Bad state, {self.type} should be Transition")
return QuantumNumbers(c.c_void_p(lib.getlowQuantumIdentifier(self.__data__)))
def lvl(self):
if self.type != "EnergyLevel":
raise RuntimeError(f"Bad state, {self.type} should be EnergyLevel")
return QuantumNumbers(c.c_void_p(lib.getuppQuantumIdentifier(self.__data__)))
def low(self):
return QuantumNumbers(c.c_void_p(lib.getlowQuantumIdentifier(self.__data__)))