def __decompose(self):
cs = self.data.split(self.separator1)
deco = []
for c in cs:
comp = c.split(self.separator2)
N = len(comp)
delta = 1
ccy = None
und = None
undcode = None
if N == 3:
delta = self._safe_delta(comp[0])
if delta == None:
self.errors.append(c)
continue
ccy, undcode = self.get_ccy_und(comp[1:])
elif N == 2:
delta = self._safe_delta(comp[0])
if delta == None:
delta = 1
else:
comp = comp[1:]
ccy, undcode = self.get_ccy_und(comp)
elif N == 1:
undcode = comp[0]
else:
raise ValueError('could not understand decomposition %s' %
self.data)
try:
und = self.underlying(undcode)
except:
deco.append(badAtom(delta, ccy, ccy, undcode))
else:
undccy = countryccy(und.country)
if ccy == None:
ccy = undccy
if ccy == None:
deco.append(badAtom(delta, ccy, ccy, undcode))
else:
deco.append(linearAtom(delta, ccy, undccy, und))
return deco
def __decompose(self):
cs = self.data.split(self.separator1)
deco = []
for c in cs:
comp = c.split(self.separator2)
N = len(comp)
delta = 1
ccy = None
und = None
undcode = None
if N == 3:
delta = self._safe_delta(comp[0])
if delta == None:
self.errors.append(c)
continue
ccy, undcode = self.get_ccy_und(comp[1:])
elif N == 2:
delta = self._safe_delta(comp[0])
if delta == None:
delta = 1
else:
comp = comp[1:]
ccy, undcode = self.get_ccy_und(comp)
elif N == 1:
undcode = comp[0]
else:
raise ValueError('could not understand decomposition %s' % self.data)
try:
und = self.underlying(undcode)
except:
deco.append(badAtom(delta,ccy,ccy,undcode))
else:
undccy = countryccy(und.country)
if ccy == None:
ccy = undccy
if ccy == None:
deco.append(badAtom(delta,ccy,ccy,undcode))
else:
deco.append(linearAtom(delta,ccy,undccy,und))
return deco
def defaultccy(self):
return geo.countryccy(self.country)
def defaultccy(self):
return geo.countryccy(self.country)
