def _height(P, check=True):
if check:
assert P.curve() == self._E, "the point P must lie on the curve from which the height function was created"
Q = n * P
cQ = denominator(Q[0])
uQ = self.lift(Q, prec=prec)
si = self.__padic_sigma_square(uQ, prec=prec)
nn = self._q.valuation()
qEu = self._q / p ** nn
return -(log(si*self._Csquare()/cQ) + log(uQ)**2/log(qEu)) / n**2
def _height(P, check=True):
if check:
assert P.curve(
) == self._E, "the point P must lie on the curve from which the height function was created"
Q = n * P
cQ = denominator(Q[0])
q = self.parameter(prec=prec)
nn = q.valuation()
precp = prec + nn + 2
uQ = self.lift(Q, prec=precp)
si = self.__padic_sigma_square(uQ, prec=precp)
q = self.parameter(prec=precp)
nn = q.valuation()
qEu = q / p**nn
res = -(log(si * self._Csquare(prec=precp) / cQ) +
log(uQ)**2 / log(qEu)) / n**2
R = Qp(self._p, prec)
return R(res)
