def test_average(self):
"""This tests that time offsets can be averaged."""
toff1 = TimeOffset(11, 976)
toff2 = TimeOffset(21, 51)
toff_avg = (toff1 * 49 + toff2) // 50
avg = int((toff1.to_nanosec() * 49 + toff2.to_nanosec()) // 50)
self.assertEqual(avg, toff_avg.to_nanosec())
def test_from_sec_frac(self):
"""This tests that timeoffsets can be instantiated from fractional second values."""
tests_ts = [
(("1.000000001", ), TimeOffset(1, 1)),
(("-1.000000001", ), TimeOffset(1, 1, sign=-1)),
(("1.000001POTATO", ), TimeOffset(1, 1000)),
(("1", ), TimeOffset(1, 0)),
]
for t in tests_ts:
with self.subTest(t=t):
r = TimeOffset.from_sec_frac(*t[0])
self.assertEqual(
r,
t[1],
msg="TimeOffset.from_sec_frac{!r} == {!r}, expected {!r}".
format(t[0], r, t[1]))
bad_params = [
("0.0.1", ),
]
for params in bad_params:
with self.assertRaises(TsValueError):
TimeOffset.from_sec_frac(*params)
def test_convert_sec_frac(self):
"""This tests that the conversion to and from TAI seconds with fractional parts works as expected."""
tests_ts = [("0.0", TimeOffset(0, 0), "0.0"),
("0.1", TimeOffset(0, 1000000000 // 10), "0.1"),
("-0.1", TimeOffset(0, 1000000000 // 10, -1), "-0.1"),
("5", TimeOffset(5, 0), "5.0"),
("5.1", TimeOffset(5, 1000000000 // 10), "5.1"),
("-5.1", TimeOffset(5, 1000000000 // 10, -1), "-5.1"),
("5.10000000", TimeOffset(5, 1000000000 // 10), "5.1"),
("5.123456789", TimeOffset(5, 123456789), "5.123456789"),
("5.000000001", TimeOffset(5, 1), "5.000000001"),
("5.0000000001", TimeOffset(5, 0), "5.0")]
for t in tests_ts:
ts = TimeOffset.from_sec_frac(t[0])
self.assertEqual(ts,
t[1],
msg="Called with {} {} {}".format(
t[0], t[1], t[2]))
ts_str = ts.to_sec_frac()
self.assertEqual(ts_str,
t[2],
msg="Called with {} {} {}".format(
t[0], t[1], t[2]))
def test_str(self):
"""This tests that the str function turns time offsets into second:nanosecond pairs."""
tests_ts = [
(str(TimeOffset(10, 1)), "10:1"),
(str(TimeOffset(10, 1, -1)), "-10:1"),
]
for t in tests_ts:
self.assertEqual(t[0], t[1])
def test_abs(self):
"""This tests that negative time offsets can be converted to positive ones using abs."""
tests_ts = [(TimeOffset(10, 1), TimeOffset(10, 1)),
(TimeOffset(10, 1, -1), TimeOffset(10, 1))]
for t in tests_ts:
r = abs(t[0])
self.assertEqual(r,
t[1],
msg="abs({!r}) == {!r}, expected {!r}".format(
t[0], r, t[1]))
def test_eq(self):
"""Test some equality operations"""
self.assertEqual(TimeOffset(10, 1), TimeOffset(10, 1))
self.assertNotEqual(TimeOffset(10, 1), TimeOffset(-10, 1))
self.assertNotEqual(TimeOffset(0, 1), TimeOffset(0, -1))
self.assertNotEqual(TimeOffset(0, 1), None)
self.assertEqual(TimeOffset(0, 500000000), 0.5)
self.assertNotEqual(TimeOffset(0, 1), "0:1")
def test_from_nanosec(self):
"""This tests that time offsets can be created from nanosecond values."""
tests_ts = [((1, ), TimeOffset(0, 1)),
((1000000000, ), TimeOffset(1, 0)),
((-1, ), TimeOffset(0, 1, -1))]
for t in tests_ts:
r = TimeOffset.from_nanosec(*t[0])
self.assertEqual(
r,
t[1],
msg="TimeOffset.from_nanosec{!r} == {!r}, expected {!r}".
format(t[0], r, t[1]))
def test_compare(self):
"""This tests comparison of timestamps."""
self.assertEqual(Timestamp(1, 2), Timestamp(1, 2))
self.assertNotEqual(Timestamp(1, 2), Timestamp(1, 3))
self.assertLess(Timestamp(1, 0), Timestamp(1, 2))
self.assertLessEqual(Timestamp(1, 2), Timestamp(1, 2))
self.assertGreater(Timestamp(2, 0), Timestamp(1, 0))
self.assertGreaterEqual(Timestamp(2, 0), Timestamp(2, 0))
self.assertNotEqual(Timestamp(2, 0), Timestamp(3, 0))
self.assertEqual(Timestamp(2, 0), 2)
self.assertGreater(Timestamp(2, 0), 1)
self.assertLess(Timestamp(2, 0), 3)
self.assertLess(TimeOffset(2, 0), 3)
self.assertGreaterEqual(TimeOffset(1, 0, 1), TimeOffset(1, 0, -1))
def test_from_count(self):
"""This tests that time offsets can be created from counts at a specified frequency."""
tests_ts = [((1, 50, 1), TimeOffset(0, 20000000)),
((75, 50, 1), TimeOffset(1, 500000000)),
((-75, 50, 1), TimeOffset(1, 500000000, -1))]
for t in tests_ts:
r = TimeOffset.from_count(*t[0])
self.assertEqual(
r,
t[1],
msg="TimeOffset.from_count{!r} == {!r}, expected {!r}".format(
t[0], r, t[1]))
bad_params = [(1, 0, 1), (1, 1, 0)]
for params in bad_params:
with self.assertRaises(TsValueError):
TimeOffset.from_count(*params)
def test_supportsmediatimeoffset(self):
to = TimeOffset()
self.assertIsInstance(to, SupportsMediaTimeOffset)
class _convertable(object):
def __mediatimeoffset__(self) -> TimeOffset:
return TimeOffset()
c = _convertable()
self.assertIsInstance(c, SupportsMediaTimeOffset)
self.assertEqual(to, mediatimeoffset(to))
self.assertEqual(to, mediatimeoffset(c))
def test_from_sec_nsec(self):
"""This tests that time offsets can be created from second:nanosecond pairs."""
tests_ts = [
(("1:1", ), TimeOffset(1, 1)),
(("-1:1", ), TimeOffset(1, 1, sign=-1)),
(("1", ), TimeOffset(1, 0)),
]
for t in tests_ts:
with self.subTest(t=t):
r = TimeOffset.from_sec_nsec(*t[0])
self.assertEqual(
r,
t[1],
msg="TimeOffset.from_sec_nsec{!r} == {!r}, expected {!r}".
format(t[0], r, t[1]))
bad_params = [
("0:0:1", ),
]
for params in bad_params:
with self.assertRaises(TsValueError):
TimeOffset.from_sec_nsec(*params)
def test_interval_frac(self):
"""This tests that TimeOffsets can be converted to interval fractions."""
tests_ts = [((50, 1, 1), TimeOffset(0, 20000000)),
((50, 1, 2), TimeOffset(0, 10000000))]
for t in tests_ts:
with self.subTest(t=t):
r = TimeOffset.get_interval_fraction(*t[0])
self.assertEqual(
r,
t[1],
msg=
("TimeOffset.get_interval_fraction{!r} == {!r}, expected {!r}"
.format(t[0], r, t[1])))
bad_params = [(0, 1, 1), (50, 0, 1), (50, 1, 0)]
for params in bad_params:
with self.assertRaises(
TsValueError,
msg=
("TimeOffset.get_interval_fraction{!r} should have raised TsValueError exception"
.format(params))):
TimeOffset.get_interval_fraction(*params)
def test_from_float(self):
"""This tests that time offsets can be created from a float."""
cases = [((float(1.0)), TimeOffset(1, 0)),
((float(1_000_000_000)), TimeOffset(1_000_000_000, 0)),
((float(2.76)), TimeOffset(2, 760_000_000)),
((float(-3.14)), TimeOffset(3, 140_000_000, -1)),
((float(0.02)), TimeOffset(0, 20_000_000))]
for case in cases:
with self.subTest(case=case):
r = TimeOffset.from_float(case[0])
self.assertEqual(
r,
case[1],
msg="TimeOffset.from_float{!r} == {!r}, expected {!r}".
format(case[0], r, case[1]))
def test_set_value(self):
"""This tests that time offsets cannot have their value set."""
tests_ts = [(TimeOffset(0, 0), TimeOffset(0, 1), (0, 1)),
(TimeOffset(0, 0), TimeOffset(1, 0), (1, 0)),
(TimeOffset(0, 0), TimeOffset(0, 1, -1), (0, 1, -1))]
for t in tests_ts:
ts = deepcopy(t[0])
with self.assertRaises(AttributeError):
ts.set_value(*t[2])
self.assertEqual(ts, t[0])
def test_from_timeoffset(self):
"""This tests that TimeOffsets can be created with a variety of values."""
tests_ts = [
(TimeOffset.from_timeoffset(TimeOffset(0, 0)), TimeOffset(0, 0)),
(TimeOffset.from_timeoffset(TimeOffset(1001,
0)), TimeOffset(1001, 0)),
(TimeOffset.from_timeoffset(TimeOffset(1001, 1001)),
TimeOffset(1001, 1001)),
]
for t in tests_ts:
with self.subTest(t=t):
self.assertEqual(t[0], t[1])
def test_mediatimestamp(self):
to = TimeOffset()
self.assertNotIsInstance(to, SupportsMediaTimestamp)
ts = Timestamp()
self.assertIsInstance(ts, SupportsMediaTimestamp)
self.assertIsInstance(ts, SupportsMediaTimeOffset)
self.assertEqual(ts, mediatimestamp(ts))
self.assertEqual(ts, mediatimeoffset(ts))
class _convertable(object):
def __mediatimestamp__(self) -> Timestamp:
return Timestamp()
c = _convertable()
self.assertIsInstance(c, SupportsMediaTimestamp)
self.assertIsInstance(c, SupportsMediaTimeOffset)
self.assertEqual(ts, mediatimestamp(c))
self.assertEqual(ts, mediatimeoffset(c))
def test_convert_sec_nsec(self):
"""This tests that the conversion to and from TAI second:nanosecond pairs works as expected."""
tests_ts = [("0:0", TimeOffset(0, 0), "0:0"),
("0:1", TimeOffset(0, 1), "0:1"),
("-0:1", TimeOffset(0, 1, -1), "-0:1"),
("5", TimeOffset(5, 0), "5:0"),
("5:1", TimeOffset(5, 1), "5:1"),
("-5:1", TimeOffset(5, 1, -1), "-5:1"),
("5:999999999", TimeOffset(5, 999999999), "5:999999999")]
for t in tests_ts:
ts = TimeOffset.from_sec_nsec(t[0])
self.assertEqual(ts,
t[1],
msg="Called with {} {} {}".format(
t[0], t[1], t[2]))
ts_str = ts.to_sec_nsec()
self.assertEqual(ts_str,
t[2],
msg="Called with {} {} {}".format(
t[0], t[1], t[2]))
self.assertEqual(ts_str, str(ts))
def test_to_microsec(self):
"""This tests that time offsets can be converted to microsecond values."""
tests_ts = [
(TimeOffset(0, 1000), (), 1),
(TimeOffset(1, 1000000), (), 1001000),
(TimeOffset(1, 1000000, -1), (), -1001000),
# below .5 us
(TimeOffset(100, 1499), (), 100 * 1000000 + 1),
# at .5 us
(TimeOffset(100, 1500), (), 100 * 1000000 + 2),
# above .5 us
(TimeOffset(100, 1501), (), 100 * 1000000 + 2),
# below .5 us, round up
(TimeOffset(100,
1499), (TimeOffset.ROUND_UP, ), 100 * 1000000 + 2),
# at .5 us, round up
(TimeOffset(100,
1500), (TimeOffset.ROUND_UP, ), 100 * 1000000 + 2),
# above .5 us, round up
(TimeOffset(100,
1501), (TimeOffset.ROUND_UP, ), 100 * 1000000 + 2),
# below .5 us, round down
(TimeOffset(100,
1499), (TimeOffset.ROUND_DOWN, ), 100 * 1000000 + 1),
# at .5 us, round down
(TimeOffset(100,
1500), (TimeOffset.ROUND_DOWN, ), 100 * 1000000 + 1),
# above .5 us, round down
(TimeOffset(100,
1501), (TimeOffset.ROUND_DOWN, ), 100 * 1000000 + 1),
# below .5 us, round down
(TimeOffset(100, 1499,
-1), (TimeOffset.ROUND_DOWN, ), -100 * 1000000 - 2),
# at .5 us, round down
(TimeOffset(100, 1500,
-1), (TimeOffset.ROUND_DOWN, ), -100 * 1000000 - 2),
# above .5 us, round down
(TimeOffset(100, 1501,
-1), (TimeOffset.ROUND_DOWN, ), -100 * 1000000 - 2),
# below .5 us, round up
(TimeOffset(100, 1499,
-1), (TimeOffset.ROUND_UP, ), -100 * 1000000 - 1),
# at .5 us, round up
(TimeOffset(100, 1500,
-1), (TimeOffset.ROUND_UP, ), -100 * 1000000 - 1),
# above .5 us, round up
(TimeOffset(100, 1501,
-1), (TimeOffset.ROUND_UP, ), -100 * 1000000 - 1),
]
for t in tests_ts:
r = t[0].to_microsec(*t[1])
self.assertEqual(
r,
t[2],
msg="{!r}.to_microsec{!r} == {!r}, expected {!r}".format(
t[0], t[1], r, t[2]))
def test_multdiv(self):
"""This tests multiplication and division on timestamps."""
tests_ts = [
(TimeOffset(10, 10), '*', 0, TimeOffset(0, 0)),
(TimeOffset(10, 10), '*', 10, TimeOffset(100, 100)),
(10, '*', TimeOffset(10, 10), TimeOffset(100, 100)),
(TimeOffset(10, 10), '*', (-10), TimeOffset(100, 100, -1)),
(TimeOffset(10, 10, -1), '*', 10, TimeOffset(100, 100, -1)),
(TimeOffset(100, 100), '//', 10, TimeOffset(10, 10)),
(TimeOffset(100, 100), '//', -10, TimeOffset(10, 10, -1)),
(TimeOffset(100, 100, -1), '//', 10, TimeOffset(10, 10, -1)),
(TimeOffset(281474976710654,
0), '//', 281474976710655, TimeOffset(0, 999999999)),
(Timestamp(100, 100), '//', 10, TimeOffset(10, 10)),
(TimeOffset(100, 100), '/', 10, TimeOffset(10, 10)),
(TimeOffset(100, 100), '/', -10, TimeOffset(10, 10, -1)),
(TimeOffset(100, 100, -1), '/', 10, TimeOffset(10, 10, -1)),
(TimeOffset(281474976710654,
0), '/', 281474976710655, TimeOffset(0, 999999999)),
(Timestamp(100, 100), '/', 10, TimeOffset(10, 10)),
(Timestamp(10, 10), '*', 10, TimeOffset(100, 100)),
(10, '*', Timestamp(10, 10), TimeOffset(100, 100)),
]
for t in tests_ts:
if t[1] == '*':
r = t[0] * t[2]
elif t[1] == '//':
r = t[0] // t[2]
else:
r = t[0] / t[2]
self.assertEqual(r,
t[3],
msg="{!r} {} {!r} == {!r}, expected {!r}".format(
t[0], t[1], t[2], r, t[3]))
self.assertEqual(
type(r),
type(t[3]),
msg=("type({!r} {} {!r}) == {!r}, expected {!r}".format(
t[0], t[1], t[2], type(r), type(t[3]))))
def __mediatimeoffset__(self) -> TimeOffset:
return TimeOffset()
def test_normalise(self):
tests_ts = [
(TimeOffset(0, 0), Fraction(30000, 1001), TimeOffset.ROUND_NEAREST,
TimeOffset(0, 0)),
(TimeOffset(1001, 0), Fraction(30000,
1001), TimeOffset.ROUND_NEAREST,
TimeOffset(1001, 0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000),
Fraction(30000,
1001), TimeOffset.ROUND_NEAREST, TimeOffset(1001, 0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1),
Fraction(30000, 1001), TimeOffset.ROUND_NEAREST,
TimeOffset(1001, 1001.0 / 30000 * 1000000000)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000,
-1), Fraction(30000, 1001), TimeOffset.ROUND_NEAREST,
TimeOffset(1001, 0, -1)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1,
-1), Fraction(30000, 1001), TimeOffset.ROUND_NEAREST,
TimeOffset(1001, 1001.0 / 30000 * 1000000000, -1)),
(TimeOffset(1521731233,
320000000), Fraction(25, 3), TimeOffset.ROUND_NEAREST,
TimeOffset(1521731233, 320000000)),
(TimeOffset(0, 0), Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(0, 0)),
(TimeOffset(1001, 0), Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(1001, 0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000),
Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(1001, 1001.0 / 30000 * 1000000000)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1),
Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(1001, 1001.0 / 30000 * 1000000000)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000,
-1), Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(1001, 0, -1)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1,
-1), Fraction(30000, 1001), TimeOffset.ROUND_UP,
TimeOffset(1001, 0, -1)),
(TimeOffset(1521731233,
320000000), Fraction(25, 3), TimeOffset.ROUND_UP,
TimeOffset(1521731233, 320000000)),
(TimeOffset(0, 0), Fraction(30000, 1001), TimeOffset.ROUND_DOWN,
TimeOffset(0, 0)),
(TimeOffset(1001, 0), Fraction(30000, 1001), TimeOffset.ROUND_DOWN,
TimeOffset(1001, 0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000),
Fraction(30000, 1001), TimeOffset.ROUND_DOWN, TimeOffset(1001,
0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1),
Fraction(30000, 1001), TimeOffset.ROUND_DOWN, TimeOffset(1001,
0)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000,
-1), Fraction(30000, 1001), TimeOffset.ROUND_DOWN,
TimeOffset(1001, 1001.0 / 30000 * 1000000000, -1)),
(TimeOffset(1001, 1001.0 / 30000 / 2 * 1000000000 + 1,
-1), Fraction(30000, 1001), TimeOffset.ROUND_DOWN,
TimeOffset(1001, 1001.0 / 30000 * 1000000000, -1)),
(TimeOffset(1521731233,
320000000), Fraction(25, 3), TimeOffset.ROUND_DOWN,
TimeOffset(1521731233, 320000000)),
]
n = 0
for (input, rate, rounding, expected) in tests_ts:
# Nb. subTest will add a printout of all its kwargs to any error message generated
# by a failure within it. The variable n is being used here to ensure that the index
# of the current test within tests_ts is printed on any failure. (Nb. only works with
# python3 unittest test runner)
with self.subTest(test_data_index=n,
input=input,
rate=rate,
rounding=rounding,
expected=expected):
n += 1
r = input.normalise(rate.numerator,
rate.denominator,
rounding=rounding)
self.assertEqual(
r,
expected,
msg=
("{!r}.normalise({}, {}, rounding={}) == {!r}, expected {!r}"
.format(input, rate.numerator, rate.denominator, rounding,
r, expected)))
def test_to_count(self):
"""This tests that time offsets can be converted to counts at particular frequencies."""
tests_ts = [
(TimeOffset(0, 20000000), (50, 1), 1),
(TimeOffset(1, 500000000), (50, 1), 75),
(TimeOffset(1, 500000000, -1), (50, 1), -75),
# below .5 frame
(TimeOffset(100, 29999999), (50, 1), 100 * 50 + 1),
# at .5 frame
(TimeOffset(100, 30000000), (50, 1), 100 * 50 + 2),
# above .5 frame
(TimeOffset(100, 30000001), (50, 1), 100 * 50 + 2),
# below negative .5 frame
(TimeOffset(100, 9999999), (50, 1), 100 * 50),
# at negative .5 frame
(TimeOffset(100, 10000000), (50, 1), 100 * 50 + 1),
# above negative .5 frame
(TimeOffset(100, 10000001), (50, 1), 100 * 50 + 1),
# below .5 frame, round up
(TimeOffset(100,
29999999), (50, 1, TimeOffset.ROUND_UP), 100 * 50 + 2),
# at .5 frame, round down
(TimeOffset(100, 30000000), (50, 1, TimeOffset.ROUND_DOWN),
100 * 50 + 1),
# above .5 frame, round down
(TimeOffset(100, 30000001), (50, 1, TimeOffset.ROUND_DOWN),
100 * 50 + 1),
# below .5 frame, round up
(TimeOffset(100, 29999999,
-1), (50, 1, TimeOffset.ROUND_DOWN), -100 * 50 - 2),
# at .5 frame, round down
(TimeOffset(100, 30000000,
-1), (50, 1, TimeOffset.ROUND_UP), -100 * 50 - 1),
# above .5 frame, round down
(TimeOffset(100, 30000001,
-1), (50, 1, TimeOffset.ROUND_UP), -100 * 50 - 1),
]
for t in tests_ts:
r = t[0].to_count(*t[1])
self.assertEqual(
r,
t[2],
msg="{!r}.to_count{!r} == {!r}, expected {!r}".format(
t[0], t[1], r, t[2]))
bad_params = [(1, 0), (0, 1)]
for params in bad_params:
with self.assertRaises(TsValueError):
TimeOffset(0, 0).to_count(*params)
def test_iaddsub(self):
"""This tests integer addition and subtraction on timestamps."""
ts = Timestamp(10, 0)
ts += TimeOffset(1, 2)
self.assertEqual(ts, Timestamp(11, 2))
ts -= TimeOffset(1, 2)
self.assertEqual(ts, Timestamp(10, 0))
ts -= TimeOffset(100, 5)
self.assertEqual(ts, Timestamp(90, 5, -1))
ts = Timestamp(281474976710655, 999999999)
ts += TimeOffset(0, 1)
self.assertEqual(ts, Timestamp(281474976710655, 999999999))
toff = TimeOffset(10, 0)
toff -= TimeOffset(100, 0)
self.assertEqual(toff, TimeOffset(90, 0, -1))
toff = TimeOffset(10, 0)
toff -= TimeOffset(0, 1)
self.assertEqual(toff, TimeOffset(9, 999999999))
toff = TimeOffset(10, 500000000)
toff += TimeOffset(0, 500000000)
self.assertEqual(toff, TimeOffset(11, 0))
toff = TimeOffset(10, 500000000, -1)
toff -= TimeOffset(0, 500000000)
self.assertEqual(toff, TimeOffset(11, 0, -1))
toff = TimeOffset(10, 0, -1)
toff += TimeOffset(0, 500000000)
self.assertEqual(toff, TimeOffset(9, 500000000, -1))
def test_cast(self):
"""This tests that addition and subtraction of TimeOffsets and integers or floats works as expected."""
tests_ts = [
(TimeOffset(10, 1), '+', 1, TimeOffset(11, 1)),
(TimeOffset(10, 1), '-', 1, TimeOffset(9, 1)),
(TimeOffset(10, 1), '+', 1.5, TimeOffset(11, 500000001)),
(TimeOffset(10, 1), '-', 1.5, TimeOffset(8, 500000001)),
]
for t in tests_ts:
if t[1] == '+':
r = t[0] + t[2]
else:
r = t[0] - t[2]
self.assertEqual(r,
t[3],
msg="{!r} {} {!r} == {!r}, expected {}".format(
t[0], t[1], t[2], r, t[3]))
self.assertEqual(TimeOffset(8, 500000000), 8.5)
self.assertGreater(TimeOffset(8, 500000000), 8)
self.assertLess(TimeOffset(8, 500000000), 8.6)
self.assertNotEqual(TimeOffset(8, 500000000), 8.6)
def test_subsec(self):
"""This tests that TimeOffsets can be converted to millisec, nanosec, and microsec values."""
tests_ts = [
(TimeOffset(1, 1000000), "to_millisec", (), 1001),
(TimeOffset(1, 1000), "to_microsec", (), 1000001),
(TimeOffset(1, 1), "to_nanosec", (), 1000000001),
(TimeOffset, 'from_millisec', (1001, ), TimeOffset(1, 1000000)),
(TimeOffset, 'from_microsec', (1000001, ), TimeOffset(1, 1000)),
(TimeOffset, 'from_nanosec', (1000000001, ), TimeOffset(1, 1)),
(TimeOffset(1, 500000), 'to_millisec', (TimeOffset.ROUND_DOWN, ),
1000),
(TimeOffset(1, 500000), 'to_millisec',
(TimeOffset.ROUND_NEAREST, ), 1001),
(TimeOffset(1, 499999), 'to_millisec',
(TimeOffset.ROUND_NEAREST, ), 1000),
(TimeOffset(1,
500000), 'to_millisec', (TimeOffset.ROUND_UP, ), 1001),
(TimeOffset(1, 500000,
-1), 'to_millisec', (TimeOffset.ROUND_DOWN, ), -1001),
(TimeOffset(1, 500000, -1), 'to_millisec',
(TimeOffset.ROUND_NEAREST, ), -1001),
(TimeOffset(1, 499999, -1), 'to_millisec',
(TimeOffset.ROUND_NEAREST, ), -1000),
(TimeOffset(1, 500000,
-1), 'to_millisec', (TimeOffset.ROUND_UP, ), -1000)
]
for t in tests_ts:
with self.subTest(t=t):
r = getattr(t[0], t[1])(*t[2])
self.assertEqual(
r,
t[3],
msg="{!r}.{}{!r} == {!r}, expected {!r}".format(
t[0], t[1], t[2], r, t[3]))
def test_addsub(self):
"""This tests addition and subtraction on timestamps."""
tests_ts = [
(Timestamp(10, 0), '+', TimeOffset(1, 2), Timestamp(11, 2)),
(Timestamp(11, 2), '-', TimeOffset(1, 2), Timestamp(10, 0)),
(TimeOffset(11, 2), '-', TimeOffset(1, 2), TimeOffset(10, 0)),
(Timestamp(10, 0), '-', TimeOffset(11, 2), Timestamp(1, 2, -1)),
(TimeOffset(10, 0), '-', TimeOffset(11, 2), TimeOffset(1, 2, -1)),
(TimeOffset(10, 0), '-', Timestamp(11, 2), TimeOffset(1, 2, -1)),
(Timestamp(10, 0), '-', Timestamp(11, 2), TimeOffset(1, 2, -1)),
(Timestamp(11, 2), '-', Timestamp(10, 0), TimeOffset(1, 2, 1)),
]
for t in tests_ts:
if t[1] == '+':
r = t[0] + t[2]
else:
r = t[0] - t[2]
self.assertEqual(r,
t[3],
msg="{!r} {} {!r} = {!r}, expected {!r}".format(
t[0], t[1], t[2], r, t[3]))
self.assertEqual(
type(r),
type(t[3]),
msg=("type({!r} {} {!r}) == {!r}, expected {!r}".format(
t[0], t[1], t[2], type(r), type(t[3]))))
def test_hash(self):
self.assertEqual(hash(TimeOffset(0, 0)), hash(TimeOffset(0, 0)))
self.assertNotEqual(hash(TimeOffset(0, 0)), hash(TimeOffset(0, 1)))