def test_quantity():
v = 1 * pq.m / pq.s
q1 = Quantity(v)
assert q1.dumps() == r"\SI{1.0}{\meter\per\second}"
q2 = Quantity(v, format_cb=lambda x: str(int(x)))
assert q2.dumps() == r"\SI{1}{\meter\per\second}"
def test_quantity():
v = 1 * pq.m / pq.s
q1 = Quantity(v)
assert q1.dumps() == r'\SI{1.0}{\meter\per\second}'
q2 = Quantity(v, format_cb=lambda x: str(int(x)))
assert q2.dumps() == r'\SI{1}{\meter\per\second}'
q3 = Quantity(v, options={'zero-decimal-to-integer': 'true'})
ref = r'\SI[zero-decimal-to-integer=true]{1.0}{\meter\per\second}'
assert q3.dumps() == ref
def test_quantity():
v = 1 * pq.m/pq.s
q1 = Quantity(v)
assert q1.dumps() == r'\SI{1.0}{\meter\per\second}'
q2 = Quantity(v, format_cb=lambda x: str(int(x)))
assert q2.dumps() == r'\SI{1}{\meter\per\second}'
q3 = Quantity(v, options={'zero-decimal-to-integer': 'true'})
ref = r'\SI[zero-decimal-to-integer=true]{1.0}{\meter\per\second}'
assert q3.dumps() == ref
def test_quantity_uncertain():
t = pq.UncertainQuantity(7., pq.second, 1.)
q1 = Quantity(t)
assert q1.dumps() == r'\SI{7.0 +- 1.0}{\second}'
def test_quantity_float():
q1 = Quantity(42.0)
assert q1.dumps() == r'\num{42.0}'
def test_quantity_uncertain():
t = pq.UncertainQuantity(7., pq.second, 1.)
q1 = Quantity(t)
assert q1.dumps() == r'\SI{7.0 +- 1.0}{\second}'
def test_quantity_float():
q1 = Quantity(42.0)
assert q1.dumps() == r'\num{42.0}'
