def Q_as_array(self):
"""
Fuente calculada al instante t como array de numpy
"""
return AddableDict(self._Q).as_array()
]
Nu_FluxM = [
NuFisL[group] * FluxL[group] * Vmesh
for group in range(Flux.shape[-1])
]
Bet_k = BetaM[state][nx][ny][nz]
Lamb_k = LambdaM[state][nx][ny][nz]
Nu_Flux = sum(Nu_FluxM)
C0[state][nx][ny][nz] = [
Bet_k[prec] * Nu_Flux /
Lamb_k[prec] if Lamb_k[prec] != 0 else 0.0
for prec in range(NPRC)
]
alfi = AddableDict(C0).as_array()
p = re.compile(r'POWER\(WATTS\)\s+([0-9]\.[0-9]{5}E\+[0-9]{2})')
Q = {}
EQUILIBRIUM = True
chi_g = [1.0]
tfinal = 3.0
DATABASE = ROOTFILE + 'S.cdb'
Times = []
powers = []
precursors = []
source = []
dt = tfinal / N
FAILED_COMPLETE_TEST = False
def C0(self):
"""
Precursores de Equilibrio (reactor estático)
"""
return AddableDict(self._C0)
def Ct(self):
"""
Precursores calculados hasta ahora.
"""
return AddableDict(self._Ct)
def Q(self):
return AddableDict(self._Q).as_array()
def Ct(self):
return AddableDict(self._Ct).as_array()
def C0(self):
return AddableDict(self._C0).as_array()