def test_get_cumulative_runoff(self):
data = tuple([
round(l['runoff_area'], 2)
for l in hydraulics.totaled_basin_data(self.node)
])
control = (0.16, 0.96, 1.44, 1.84, 2.72)
self.assertTupleEqual(data, control)
def test_get_cumulative_runoff(self):
data = tuple([
round(l['runoff_area'], 1)
for l in hydraulics.totaled_basin_data(self.node)
])
control = (round(0.276 * 1.58, 1), )
self.assertTupleEqual(data, control)
def test_get_cumulative_runoff(self):
data = tuple([
round(l['runoff_area'], 1)
for l in hydraulics.totaled_basin_data(self.node)
])
control = (0.5, 0.3, 0.5, 0.5, 0.9, 1.4, 0.2, 2.0)
self.assertTupleEqual(data, control)
def test_cumulative_runoff_data(self):
network = networks.Network()
s102 = network.create_node()
s101 = network.create_node()
o1_1 = network.create_node()
rc18 = sections.Circle(diameter=1.5, mannings=0.012)
r1 = s101.create_reach(node_2=s102, inverts=(8.0, 7.0), length=300.0, section=rc18)
r2 = s102.create_reach(node_2=o1_1, inverts=(7.0, 6.0), length=300.0, section=rc18)
b101 = hydrology.Basin(tc=10.0, area=0.1, c=0.95)
b102 = hydrology.Basin(tc=10.0, area=0.2, c=0.95)
s101.add_basin(b101)
s102.add_basin(b102)
basin_data = hydraulics.totaled_basin_data(o1_1)
control_area_1 = b101.area
control_area_2 = control_area_1 + b102.area
control_runoff_1 = b101.runoff_area
control_runoff_2 = control_runoff_1 + b102.runoff_area
result_area_1 = basin_data[r1]['area']
result_area_2 = basin_data[r2]['area']
result_runoff_1 = result_area_1 * basin_data[r1]['c']
result_runoff_2 = result_area_2 * basin_data[r2]['c']
expected = (control_area_1, control_area_2, control_runoff_1, control_runoff_2)
produced = (result_area_1, result_area_2, result_runoff_1, result_runoff_2)
# self.assertEqual(produced, expected)
self.assertTupleEqual(produced, expected)
def test_cumulative_runoff_data(self):
network = networks.Network()
s102 = network.create_node()
s101 = network.create_node()
o1_1 = network.create_node()
rc18 = sections.Circle(diameter=1.5, mannings=0.012)
s101.create_reach(node_2=s102,
invert_1=8.0,
invert_2=7.0,
length=300.0,
section=rc18)
s102.create_reach(node_2=o1_1,
invert_1=7.0,
invert_2=6.0,
length=300.0,
section=rc18)
b101 = hydrology.Basin(tc=10.0, area=0.1, c=0.95)
b102 = hydrology.Basin(tc=10.0, area=0.2, c=0.95)
s101.add_basin(b101)
s102.add_basin(b102)
runoff_data = hydraulics.totaled_basin_data(o1_1)
control_area_1 = b101.area
control_area_2 = control_area_1 + b102.area
control_runoff_1 = b101.runoff_area
control_runoff_2 = control_runoff_1 + b102.runoff_area
result_area_1 = runoff_data[0]['area']
result_area_2 = runoff_data[1]['area']
result_runoff_1 = runoff_data[0]['runoff_area']
result_runoff_2 = runoff_data[1]['runoff_area']
self.assertEqual(
(control_area_1, control_area_2, control_runoff_1,
control_runoff_2),
(result_area_1, result_area_2, result_runoff_1, result_runoff_2))
def test_get_cumulative_runoff(self):
basin_data = hydraulics.totaled_basin_data(self.node)
produced = tuple([
round(r_data['c'] * r_data['area'], 1)
for r, r_data in basin_data.items()
])
expected = (round(0.276 * 1.58, 1), )
self.assertTupleEqual(produced, expected)
def test_get_cumulative_runoff(self):
basin_data = hydraulics.totaled_basin_data(self.node)
produced = tuple([
round(r_data['c'] * r_data['area'], 2)
for r, r_data in basin_data.items()
])
expected = (0.16, 0.96, 1.44, 1.84, 2.72)
self.assertTupleEqual(produced, expected)