def test4(self):
s = QGCM(**default_options)
print s.ocean_P_grid
print s.ocean_P_grid_forcings
print s.ocean_T_grid_forcings
print s.atmosphere_T_grid
s.evolve_model(1. | units.hour)
print s.ocean_P_grid.pressure[10, 10, 0]
def test1(self):
s = QGCM(**default_options)
s.evolve_model(1. | units.hour)
pref = s.ocean_P_grid.pressure
s1 = QGCM(**default_options)
s1.evolve_model(0.5 | units.hour)
s1.evolve_model(1. | units.hour)
p = s1.ocean_P_grid.pressure
self.assertEquals(p, pref)
def test3(self):
s = QGCM(**default_options)
s.evolve_model(12. | units.hour)
s.evolve_model(24. | units.hour)
s.stop()
def test2(self):
s = QGCM(**default_options)
dto = s.parameters.atmosphere_timestep * s.parameters.timestep_ratio
#~ self.assertEquals(dto,540. | units.s)
s.evolve_model(dto)
self.assertEquals(s.model_time, dto)
s1 = QGCM(**default_options)
s1.parameters.begin_time = s.model_time
self.assertEqual(s1.get_name_of_current_state(), 'UNINITIALIZED')
ch1 = s.ocean_P_grid.new_channel_to(s1.ocean_P_grid)
self.assertEqual(s1.get_name_of_current_state(), 'EDIT')
ch1.copy_attributes(["pressure", "dpressure_dt"])
ch2 = s.ocean_P_grid_forcings.new_channel_to(s1.ocean_P_grid_forcings)
ch2.copy_attributes(["tau_x", "tau_y"])
ch3 = s.ocean_T_grid_forcings.new_channel_to(s1.ocean_T_grid_forcings)
ch3.copy_attributes(["surface_heat_flux"])
# mixed_layer_depth
ch4 = s.ocean_T_grid.new_channel_to(s1.ocean_T_grid)
ch4.copy_attributes(
["surface_temperature_anomaly", "dsurface_temperature_anomaly_dt"])
self.assertEquals(s.ocean_P_grid[100, 100].pressure,
s1.ocean_P_grid[100, 100].pressure)
self.assertEquals(
s.ocean_T_grid[100, 100].surface_temperature_anomaly,
s1.ocean_T_grid[100, 100].surface_temperature_anomaly)
self.assertEquals(
s.ocean_T_grid[100, 100].dsurface_temperature_anomaly_dt,
s1.ocean_T_grid[100, 100].dsurface_temperature_anomaly_dt)
self.assertEquals(s.ocean_P_grid[100, 100].dpressure_dt,
s1.ocean_P_grid[100, 100].dpressure_dt)
self.assertEquals(s.ocean_P_grid_forcings[100, 100].tau_x,
s1.ocean_P_grid_forcings[100, 100].tau_x)
self.assertEquals(s.ocean_P_grid_forcings[100, 100].tau_y,
s1.ocean_P_grid_forcings[100, 100].tau_y)
self.assertEquals(s.ocean_T_grid_forcings[100, 100].surface_heat_flux,
s1.ocean_T_grid_forcings[100, 100].surface_heat_flux)
self.assertEquals(s.atmosphere_T_grid[100, 50].mixed_layer_depth,
s1.atmosphere_T_grid[100, 50].mixed_layer_depth)
self.assertEquals(s.atmosphere_T_grid[100, 50].dmixed_layer_depth_dt,
s1.atmosphere_T_grid[100, 50].dmixed_layer_depth_dt)
s1.evolve_model(2 * dto)
s.evolve_model(2 * dto)
self.assertEquals(s.model_time, s1.model_time)
# diff should be max ~ 5.e-18, however due to error in dpo_dt ~ 1.e-16
d = s.ocean_P_grid.pressure - s1.ocean_P_grid.pressure
print "abs diff in pressure:", abs(d).max()
self.assertTrue(abs(d).max().number < 2.e-16)
def test2(self):
s = QGCM(**default_options)
s.evolve_model(1. | units.day)
s.stop()
def test1(self):
s = QGCM(**default_options)
s.stop()
def test3(self):
s = QGCM(**default_options)
dto = 0.5 | units.day
s.evolve_model(dto)
self.assertEquals(s.model_time, dto)
s1 = QGCM(**default_options)
s1.parameters.begin_time = s.model_time
self.assertEqual(s1.get_name_of_current_state(), 'UNINITIALIZED')
ch1 = s.ocean_P_grid.new_channel_to(s1.ocean_P_grid)
self.assertEqual(s1.get_name_of_current_state(), 'EDIT')
ch1.copy_attributes(["pressure", "dpressure_dt"])
ch2 = s.ocean_P_grid_forcings.new_channel_to(s1.ocean_P_grid_forcings)
ch2.copy_attributes(["tau_x", "tau_y"])
ch3 = s.ocean_T_grid_forcings.new_channel_to(s1.ocean_T_grid_forcings)
ch3.copy_attributes(["surface_heat_flux"])
# mixed_layer_depth
ch4 = s.ocean_T_grid.new_channel_to(s1.ocean_T_grid)
ch4.copy_attributes(
["surface_temperature_anomaly", "dsurface_temperature_anomaly_dt"])
self.assertEquals(s.ocean_P_grid[100, 100].pressure,
s1.ocean_P_grid[100, 100].pressure)
self.assertEquals(
s.ocean_T_grid[100, 100].surface_temperature_anomaly,
s1.ocean_T_grid[100, 100].surface_temperature_anomaly)
self.assertEquals(
s.ocean_T_grid[100, 100].dsurface_temperature_anomaly_dt,
s1.ocean_T_grid[100, 100].dsurface_temperature_anomaly_dt)
self.assertEquals(s.ocean_P_grid[100, 100].dpressure_dt,
s1.ocean_P_grid[100, 100].dpressure_dt)
self.assertEquals(s.ocean_P_grid_forcings[100, 100].tau_x,
s1.ocean_P_grid_forcings[100, 100].tau_x)
self.assertEquals(s.ocean_P_grid_forcings[100, 100].tau_y,
s1.ocean_P_grid_forcings[100, 100].tau_y)
self.assertEquals(s.ocean_T_grid_forcings[100, 100].surface_heat_flux,
s1.ocean_T_grid_forcings[100, 100].surface_heat_flux)
self.assertEquals(s.atmosphere_T_grid[100, 50].mixed_layer_depth,
s1.atmosphere_T_grid[100, 50].mixed_layer_depth)
self.assertEquals(s.atmosphere_T_grid[100, 50].dmixed_layer_depth_dt,
s1.atmosphere_T_grid[100, 50].dmixed_layer_depth_dt)
s1.evolve_model(2 * dto)
s.evolve_model(2 * dto)
self.assertEquals(s.model_time, s1.model_time)
d = s.ocean_P_grid.pressure - s1.ocean_P_grid.pressure
print "abs diff in pressure:", abs(d).max()
self.assertAlmostRelativeEquals(
abs(d).max().number, 1.19865228854e-12, 11)