def apply(self, value, locale, currency=None, force_frac=None):
frac_prec = force_frac or self.frac_prec
if not isinstance(value, Decimal):
value = Decimal(str(value))
value = value.scaleb(self.scale)
is_negative = int(value.is_signed())
if self.exp_prec: # Scientific notation
exp = value.adjusted()
value = abs(value)
# Minimum number of integer digits
if self.int_prec[0] == self.int_prec[1]:
exp -= self.int_prec[0] - 1
# Exponent grouping
elif self.int_prec[1]:
exp = int(exp / self.int_prec[1]) * self.int_prec[1]
if exp < 0:
value = value * 10**(-exp)
else:
value = value / 10**exp
exp_sign = ''
if exp < 0:
exp_sign = get_minus_sign_symbol(locale)
elif self.exp_plus:
exp_sign = get_plus_sign_symbol(locale)
exp = abs(exp)
number = u'%s%s%s%s' % \
(self._format_significant(value, frac_prec[0], frac_prec[1]),
get_exponential_symbol(locale), exp_sign,
self._format_int(str(exp), self.exp_prec[0],
self.exp_prec[1], locale))
elif '@' in self.pattern: # Is it a siginificant digits pattern?
text = self._format_significant(abs(value),
self.int_prec[0],
self.int_prec[1])
a, sep, b = text.partition(".")
number = self._format_int(a, 0, 1000, locale)
if sep:
number += get_decimal_symbol(locale) + b
else: # A normal number pattern
precision = Decimal('1.' + '1' * frac_prec[1])
rounded = value.quantize(precision, ROUND_HALF_EVEN)
a, sep, b = str(abs(rounded)).partition(".")
number = (self._format_int(a, self.int_prec[0],
self.int_prec[1], locale) +
self._format_frac(b or '0', locale, force_frac))
retval = u'%s%s%s' % (self.prefix[is_negative], number,
self.suffix[is_negative])
if u'¤' in retval:
retval = retval.replace(u'¤¤¤',
get_currency_name(currency, value, locale))
retval = retval.replace(u'¤¤', currency.upper())
retval = retval.replace(u'¤', get_currency_symbol(currency, locale))
return retval
def apply(self, value, locale, currency=None, force_frac=None):
frac_prec = force_frac or self.frac_prec
if not isinstance(value, Decimal):
value = Decimal(str(value))
value = value.scaleb(self.scale)
is_negative = int(value.is_signed())
if self.exp_prec: # Scientific notation
exp = value.adjusted()
value = abs(value)
# Minimum number of integer digits
if self.int_prec[0] == self.int_prec[1]:
exp -= self.int_prec[0] - 1
# Exponent grouping
elif self.int_prec[1]:
exp = int(exp / self.int_prec[1]) * self.int_prec[1]
if exp < 0:
value = value * 10**(-exp)
else:
value = value / 10**exp
exp_sign = ''
if exp < 0:
exp_sign = get_minus_sign_symbol(locale)
elif self.exp_plus:
exp_sign = get_plus_sign_symbol(locale)
exp = abs(exp)
number = u'%s%s%s%s' % \
(self._format_significant(value, frac_prec[0], frac_prec[1]),
get_exponential_symbol(locale), exp_sign,
self._format_int(str(exp), self.exp_prec[0],
self.exp_prec[1], locale))
elif '@' in self.pattern: # Is it a siginificant digits pattern?
text = self._format_significant(abs(value),
self.int_prec[0],
self.int_prec[1])
a, sep, b = text.partition(".")
number = self._format_int(a, 0, 1000, locale)
if sep:
number += get_decimal_symbol(locale) + b
else: # A normal number pattern
precision = Decimal('1.' + '1' * frac_prec[1])
rounded = value.quantize(precision, ROUND_HALF_EVEN)
a, sep, b = str(abs(rounded)).partition(".")
number = (self._format_int(a, self.int_prec[0],
self.int_prec[1], locale) +
self._format_frac(b or '0', locale, force_frac))
retval = u'%s%s%s' % (self.prefix[is_negative], number,
self.suffix[is_negative])
if u'¤' in retval:
retval = retval.replace(u'¤¤¤',
get_currency_name(currency, value, locale))
retval = retval.replace(u'¤¤', currency.upper())
retval = retval.replace(u'¤', get_currency_symbol(currency, locale))
return retval
