def test_thermo_domain():
'''Can we call qsat, etc on a multi-dim climlab state temperature object?'''
state = climlab.column_state(num_lev = 30, num_lat=3)
T = state.Tatm
p = T.domain.lev.points
thermo.clausius_clapeyron(T)
thermo.qsat(T, p)
thermo.pseudoadiabat(T, p)
thermo.blackbody_emission(T)
def test_thermo_domain():
'''Can we call qsat, etc on a multi-dim climlab state temperature object?'''
state = climlab.column_state(num_lev = 30, num_lat=3)
T = state.Tatm
p = T.domain.lev.points
thermo.clausius_clapeyron(T)
thermo.qsat(T, p)
thermo.pseudoadiabat(T, p)
thermo.blackbody_emission(T)
def compute(self):
es = clausius_clapeyron(self.Tatm)
e = self.RH_profile * es
# convert to specific humidity (assume dilute)
qH2O = e / self.lev * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum(self.qStrat, qH2O)
self.q -= self.q
self.q += q
def compute(self):
es = clausius_clapeyron(self.Tatm)
e = self.RH_profile * es
# convert to specific humidity (assume dilute)
qH2O = e / self.lev * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum(self.qStrat, qH2O)
self.q -= self.q
self.q += q
def _compute(self):
es = clausius_clapeyron(self.Tatm)
e = self.RH_profile * es
# convert to specific humidity (assume dilute)
qH2O = e / self.lev * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum(self.qStrat, qH2O)
# Just set this directly here
q_adjustment = q - self.q
self.q += q_adjustment
return {}
def _compute(self):
es = clausius_clapeyron(self.Tatm)
e = self.RH_profile * es
# convert to specific humidity (assume dilute)
qH2O = e/self.lev * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum(self.qStrat, qH2O)
# Just set this directly here
q_adjustment = q - self.q
self.q += q_adjustment
return {}
def compute(self):
p = self.lev
Q = p / const.ps
h = self.relative_humidity * ( (Q - 0.02) / (1-0.02) )
es = clausius_clapeyron( self.Tatm )
e = h * es
# convert to specific humidity (assume dilute)
qH2O = e/p * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum( self.qStrat, qH2O )
self.q -= self.q
self.q += q
def compute(self):
p = self.lev
Q = p / const.ps
h = self.relative_humidity * ((Q - 0.02) / (1 - 0.02))
es = clausius_clapeyron(self.Tatm)
e = h * es
# convert to specific humidity (assume dilute)
qH2O = e / p * const.Rd / const.Rv
# mixing ratio can't be smaller than qStrat
# (need some water in the stratosphere!)
q = np.maximum(self.qStrat, qH2O)
self.q -= self.q
self.q += q
def test_thermo():
'''Basic single value tests for the thermodynamic routines.'''
assert np.isclose(thermo.potential_temperature(250., 500.), 304.783)
assert np.isclose(thermo.theta(250., 500.), 304.783)
assert np.isclose(thermo.temperature_from_potential(300., 500.), 246.076)
assert np.isclose(thermo.T(300., 500.), 246.076)
assert np.isclose(thermo.clausius_clapeyron(300.), 35.345)
assert np.isclose(thermo.qsat(300., 1000.), 0.02227839)
assert np.isclose(thermo.estimated_inversion_strength(300., 290.), 5.3605345)
assert np.isclose(thermo.EIS(300., 290.), 5.3605345)
assert np.isclose(thermo.blackbody_emission(300.), 459.3)
def test_thermo():
'''Basic single value tests for the thermodynamic routines.'''
assert np.isclose(thermo.potential_temperature(250., 500.), 304.783)
assert np.isclose(thermo.theta(250., 500.), 304.783)
assert np.isclose(thermo.temperature_from_potential(300., 500.), 246.076)
assert np.isclose(thermo.T(300., 500.), 246.076)
assert np.isclose(thermo.clausius_clapeyron(300.), 35.345)
assert np.isclose(thermo.qsat(300., 1000.), 0.02227839)
assert np.isclose(thermo.estimated_inversion_strength(300., 290.), 2.58025)
assert np.isclose(thermo.EIS(300., 290.), 2.58025)
assert np.isclose(thermo.blackbody_emission(300.), 459.3)
