def __new__(cls, *args, **kwargs):
if len(args) == 1 and not kwargs and isinstance(args[0], timedelta):
td = args[0]
self = timedelta.__new__(cls, td.days, td.seconds, td.microseconds)
else:
self = timedelta.__new__(cls, *args, **kwargs)
return self
def __new__(cls, *a, **kw):
format_args = kw.pop('format_args', {})
if len(a) == 1 and not kw and isinstance(a[0], timedelta):
r = timedelta.__new__(cls, a[0].days, a[0].seconds, a[0].microseconds)
else:
r = timedelta.__new__(cls, *a, **kw)
r.format_args = format_args
return r
def __new__(cls,
days=0,
seconds=0,
microseconds=0,
milliseconds=0,
minutes=0,
hours=0,
weeks=0):
self = timedelta.__new__(cls, days, seconds, microseconds,
milliseconds, minutes, hours, weeks)
# We need to compute the total_seconds() value
# on a native timedelta object
delta = timedelta(days, seconds, microseconds, milliseconds, minutes,
hours, weeks)
# Intuitive normalization
self._total = delta.total_seconds()
total = abs(self._total)
self._microseconds = round(total % 1 * 1e6)
self._seconds = int(total) % SECONDS_PER_DAY
self._days = int(total) // SECONDS_PER_DAY
return self
def __new__(cls, days=0, seconds=0, microseconds=0,
milliseconds=0, minutes=0, hours=0, weeks=0, years=0, months=0):
if not isinstance(years, int) or not isinstance(months, int):
raise ValueError('Float year and months are not supported')
self = timedelta.__new__(
cls, days, seconds, microseconds,
milliseconds, minutes, hours, weeks
)
# Intuitive normalization
total = self.total_seconds()
m = 1
if total < 0:
m = -1
self._microseconds = round(total % m * 1e6)
self._seconds = abs(int(total)) % SECONDS_PER_DAY * m
_days = abs(int(total)) // SECONDS_PER_DAY * m
self._days = _days + (years * 365 + months * 30)
self._remaining_days = abs(_days) % 7 * m
self._weeks = abs(_days) // 7 * m
self._months = months
self._years = years
return self
def __new__(cls, desc):
"""Since we derive from timedelta which is special, we must use
__new__.
"""
if isinstance(desc, timedelta):
kwargs = {
'days': desc.days
, 'seconds': desc.seconds
, 'microseconds': desc.microseconds
}
elif desc == 'now':
kwargs = {}
else:
parts = desc.split(' ')
ago = False
if parts[-1] == 'ago':
parts = parts[:-1]
ago = True
kwargs = {}
for i in range(0, len(parts), 2):
qty = float(parts[i])
if ago:
qty = -qty
unit = parts[i + 1]
if unit[-1] == 's':
unit = unit[:-1]
unit = unit + "s"
kwargs[unit] = qty
instance = timedelta.__new__(TimeInterval, **kwargs)
return instance
def __new__(cls, days=0, seconds=0, microseconds=0,
milliseconds=0, minutes=0, hours=0,
weeks=0, years=0, months=0):
if not isinstance(years, int) or not isinstance(months, int):
raise ValueError('Float year and months are not supported')
self = timedelta.__new__(
cls, days, seconds, microseconds,
milliseconds, minutes, hours, weeks
)
# We need to compute the total_seconds() value
# on a native timedelta object
delta = timedelta(
days, seconds, microseconds,
milliseconds, minutes, hours, weeks
)
# Intuitive normalization
self._total = delta.total_seconds()
total = abs(self._total)
self._microseconds = round(total % 1 * 1e6)
self._seconds = int(total) % SECONDS_PER_DAY
days = int(total) // SECONDS_PER_DAY
self._days = abs(days + years * 365 + months * 30)
self._remaining_days = days % 7
self._weeks = days // 7
self._months = abs(months)
self._years = abs(years)
return self
def __new__(cls, tm):
if isinstance(tm, timedelta):
return timedelta.__new__(
cls,
days=tm.days,
seconds=tm.seconds,
microseconds=tm.microseconds
)
def new_object(totaled_days):
td_cls = cls
if td_cls is None:
td_cls = timedelta
return timedelta.__new__(td_cls,
days=totaled_days,
seconds=seconds,
microseconds=microseconds,
milliseconds=milliseconds,
minutes=minutes,
hours=hours,
weeks=weeks)
def __new__(cls, *args, **kwargs):
""" A convenience wrapper for datetime.timedelta that handles months and years.
"""
# Time.years
# Time.months
# Time.days
# Time.seconds
# Time.microseconds
y = kwargs.pop("years", 0)
m = kwargs.pop("months", 0)
t = timedelta.__new__(cls, *args, **kwargs)
setattr(t, "years", y)
setattr(t, "months", m)
return t
def __new__(cls,
days=0,
seconds=0,
microseconds=0,
milliseconds=0,
minutes=0,
hours=0,
weeks=0):
self = timedelta.__new__(cls, days, seconds, microseconds,
milliseconds, minutes, hours, weeks)
# Intuitive normalization
total = abs(self.total_seconds())
self._microseconds = round(total % 1 * 1e6)
self._seconds = int(total) % SECONDS_PER_DAY
self._days = int(total) // SECONDS_PER_DAY
return self
def __new__(cls, days=0, seconds=0, microseconds=0,
milliseconds=0, minutes=0, hours=0, weeks=0):
self = timedelta.__new__(
cls, days, seconds, microseconds,
milliseconds, minutes, hours, weeks
)
# Intuitive normalization
total = self.total_seconds()
m = 1
if total < 0:
m = -1
self._microseconds = abs(round(total % 1 * 1e6)) * m
self._seconds = abs(int(total)) % SECONDS_PER_DAY * m
self._days = abs(int(total)) // SECONDS_PER_DAY * m
return self
def __new__(
cls,
days=0,
seconds=0,
microseconds=0,
milliseconds=0,
minutes=0,
hours=0,
weeks=0,
years=0,
months=0,
):
if not isinstance(years, int) or not isinstance(months, int):
raise ValueError("Float year and months are not supported")
self = timedelta.__new__(
cls, days, seconds, microseconds, milliseconds, minutes, hours, weeks
)
# We need to compute the total_seconds() value
# on a native timedelta object
delta = timedelta(
days, seconds, microseconds, milliseconds, minutes, hours, weeks
)
# Intuitive normalization
self._total = delta.total_seconds()
total = abs(self._total)
self._microseconds = round(total % 1 * 1e6)
self._seconds = int(total) % SECONDS_PER_DAY
days = int(total) // SECONDS_PER_DAY
self._days = abs(days + years * 365 + months * 30)
self._remaining_days = days % 7
self._weeks = days // 7
self._months = abs(months)
self._years = abs(years)
return self
def __new__(
cls,
days=0,
seconds=0,
microseconds=0,
milliseconds=0,
minutes=0,
hours=0,
weeks=0,
years=0,
months=0,
):
if not isinstance(years, int) or not isinstance(months, int):
raise ValueError("Float year and months are not supported")
self = timedelta.__new__(
cls, days, seconds, microseconds, milliseconds, minutes, hours, weeks
)
# Intuitive normalization
total = self.total_seconds()
m = 1
if total < 0:
m = -1
self._microseconds = round(total % m * 1e6)
self._seconds = abs(int(total)) % SECONDS_PER_DAY * m
_days = abs(int(total)) // SECONDS_PER_DAY * m
self._days = _days + (years * 365 + months * 30)
self._remaining_days = abs(_days) % 7 * m
self._weeks = abs(_days) // 7 * m
self._months = months
self._years = years
return self
def __new__(*args, **kwargs): # pylint: disable=no-method-argument
if len(args) == 2 and isinstance(args[1], (timedelta, np.timedelta64)):
return timedelta.__new__(args[0], args[1].days, args[1].seconds,
args[1].microseconds)
else:
return timedelta.__new__(*args, **kwargs)
def __new__(cls, tm):
if isinstance(tm, timedelta):
return timedelta.__new__(cls,
days=tm.days,
seconds=tm.seconds,
microseconds=tm.microseconds)
def __new__(cls, *a, **kw):
if len(a) == 1 and not kw and isinstance(a[0], timedelta):
return timedelta.__new__(cls, a[0].days, a[0].seconds,
a[0].microseconds)
return timedelta.__new__(cls, *a, **kw)
def __new__(cls, *a, **kw):
if len(a) == 1 and not kw and isinstance(a[0], timedelta):
return timedelta.__new__(cls, a[0].days, a[0].seconds, a[0].microseconds)
return timedelta.__new__(cls, *a, **kw)
def __new__(cls, hours, minutes):
return timedelta.__new__(cls, hours=hours, minutes=minutes)
def __new__(*args, **kwargs): # pylint: disable=no-method-argument
if len(args) == 2 and isinstance(args[1], (timedelta, np.timedelta64)):
return timedelta.__new__(args[0], args[1].days, args[1].seconds,
args[1].microseconds)
else:
return timedelta.__new__(*args, **kwargs)
def __new__(cls, time_delta: timedelta, *_, **__):
if time_delta:
return timedelta.__new__(cls,
days=time_delta.days,
seconds=time_delta.seconds)
return timedelta.__new__(cls)
def __new__(cls, minutes=0, seconds=0):
seconds = minutes * 60 + seconds
seconds = min(90 * 60, seconds)
seconds = max(0, seconds)
self = timedelta.__new__(cls, seconds=seconds)
return self