def test_elevation(self):
# TODO add asserts
# print("Elevation(m) Pressure(Pa) Temperature(K)")
h = 0
for saved in self.saved_p_t:
P = get_pressure_with_elevation(h)
T = get_temperature_with_elevation(h)
self.assertEqual(saved[1], int(P))
self.assertEqual(saved[2], int(T))
# print("%i %i %i" % (h, P, T))
h += 1000
def __init__(self,
latitude,
longitude,
low: float = WAVELENGTH_MICRONS[0],
high: float = WAVELENGTH_MICRONS[-1],
n_wvls: int = 200,
wavelengths=[],
elevation=0.0,
pressure=None):
if low > high:
low, high = high, low
if low < WAVELENGTH_MICRONS[0]:
print("Low wavelength is under data, unpredictable results ahead")
if high > WAVELENGTH_MICRONS[-1]:
print("high wl is over source data, unpredictable results ahead")
self.low, self.high = low, high
if not len(wavelengths):
self.wavelengths = np.linspace(WAVELENGTH_MICRONS[0],
WAVELENGTH_MICRONS[-1], n_wvls)
else:
self.wavelengths = sorted(wavelengths)
self.n_wvls = len(wavelengths)
# default values
self.aspect = 180.0
self.elevation = elevation
if pressure is None:
pressure = elevation.get_pressure_with_elevation(self.elevation)
self.pressure = pressure
# default to 1998 because numbers.
self.longitude = longitude
self.latitude = latitude
# Input reflectivities
self.spcrfl = [0.2] * 6
# Input reflectivity wavelengths
self.spcwvr = [0.3, 0.7, 0.8, 1.3, 2.5, 4.0]
# Power on Angstrom turbidity
self.alpha = 1.14
# Aerosol assymetry factor (rural assumed)
self.assym = 0.65
# Aerosol optical depth at 0.5 microns, base e
# self.tau500 = None # 0 < tau500 <= 1.0 >0
# Precipitable water vapor (cm)
self.watvap = None # > 0
def setUp(self): self.d = datetime.datetime(2003, 10, 17, 19, 30, 30, tzinfo = datetime.timezone.utc) print(self.d) self.d += datetime.timedelta(seconds = time.get_delta_t(self.d) - time.tt_offset - time.get_leap_seconds(self.d)) print(self.d) # Reda & Andreas say that this time is in "Local Standard Time", which they # define as 7 hours behind UT (not UTC). Hence the adjustment to convert UT # to UTC. self.longitude = -105.1786 self.latitude = 39.742476 self.pressure = 82000.0 # pascals self.elevation = 1830.14 # meters self.temperature = 11.0 + constants.celsius_offset # kelvin self.slope = 30.0 # degrees self.slope_orientation = -10.0 # degrees east from south self.jd = time.get_julian_solar_day(self.d) self.jc = time.get_julian_century(self.jd) self.jde = time.get_julian_ephemeris_day(self.d) self.jce = time.get_julian_ephemeris_century(self.jde) self.jme = time.get_julian_ephemeris_millennium(self.jce) self.geocentric_longitude = solar.get_geocentric_longitude(self.jme) self.geocentric_latitude = solar.get_geocentric_latitude(self.jme) self.nutation = solar.get_nutation(self.jce) self.sun_earth_distance = solar.get_sun_earth_distance(self.jme) self.true_ecliptic_obliquity = solar.get_true_ecliptic_obliquity(self.jme, self.nutation) self.aberration_correction = solar.get_aberration_correction(self.sun_earth_distance) self.apparent_sun_longitude = solar.get_apparent_sun_longitude(self.geocentric_longitude, self.nutation, self.aberration_correction) self.apparent_sidereal_time = solar.get_apparent_sidereal_time(self.jd, self.jme, self.nutation) self.geocentric_sun_right_ascension = solar.get_geocentric_sun_right_ascension(self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.geocentric_sun_declination = solar.get_geocentric_sun_declination(self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.local_hour_angle = solar.get_local_hour_angle(318.5119, self.longitude, self.geocentric_sun_right_ascension) #self.apparent_sidereal_time only correct to 5 sig figs, so override self.equatorial_horizontal_parallax = solar.get_equatorial_horizontal_parallax(self.sun_earth_distance) self.projected_radial_distance = solar.get_projected_radial_distance(self.elevation, self.latitude) self.projected_axial_distance = solar.get_projected_axial_distance(self.elevation, self.latitude) self.topocentric_sun_right_ascension = solar.get_topocentric_sun_right_ascension(self.projected_radial_distance, self.equatorial_horizontal_parallax, self.local_hour_angle, self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.parallax_sun_right_ascension = solar.get_parallax_sun_right_ascension(self.projected_radial_distance, self.equatorial_horizontal_parallax, self.local_hour_angle, self.geocentric_sun_declination) self.topocentric_sun_declination = solar.get_topocentric_sun_declination(self.geocentric_sun_declination, self.projected_axial_distance, self.equatorial_horizontal_parallax, self.parallax_sun_right_ascension, self.local_hour_angle) self.topocentric_local_hour_angle = solar.get_topocentric_local_hour_angle(self.local_hour_angle, self.parallax_sun_right_ascension) self.topocentric_zenith_angle = solar.get_topocentric_zenith_angle(self.latitude, self.topocentric_sun_declination, self.topocentric_local_hour_angle, self.pressure, self.temperature) self.topocentric_azimuth_angle = solar.get_topocentric_azimuth_angle(self.topocentric_local_hour_angle, self.latitude, self.topocentric_sun_declination) self.incidence_angle = solar.get_incidence_angle(self.topocentric_zenith_angle, self.slope, self.slope_orientation, self.topocentric_azimuth_angle) self.pressure_with_elevation = elevation.get_pressure_with_elevation(1567.7) self.temperature_with_elevation = elevation.get_temperature_with_elevation(1567.7)
def setUp(self): self.d = datetime.datetime(2003, 10, 17, 19, 30, 30, tzinfo = datetime.timezone.utc) self.d += datetime.timedelta(seconds = time.get_delta_t(self.d) - time.tt_offset - time.get_leap_seconds(self.d)) # Reda & Andreas say that this time is in "Local Standard Time", which they # define as 7 hours behind UT (not UTC). Hence the adjustment to convert UT # to UTC. self.longitude = -105.1786 self.latitude = 39.742476 self.pressure = 82000.0 # pascals self.elevation = 1830.14 # meters self.temperature = 11.0 + constants.celsius_offset # kelvin self.slope = 30.0 # degrees self.slope_orientation = -10.0 # degrees east from south self.jd = time.get_julian_solar_day(self.d) self.jc = time.get_julian_century(self.jd) self.jde = time.get_julian_ephemeris_day(self.d) self.jce = time.get_julian_ephemeris_century(self.jde) self.jme = time.get_julian_ephemeris_millennium(self.jce) self.geocentric_longitude = solar.get_geocentric_longitude(self.jme) self.geocentric_latitude = solar.get_geocentric_latitude(self.jme) self.nutation = solar.get_nutation(self.jce) self.sun_earth_distance = solar.get_sun_earth_distance(self.jme) self.true_ecliptic_obliquity = solar.get_true_ecliptic_obliquity(self.jme, self.nutation) self.aberration_correction = solar.get_aberration_correction(self.sun_earth_distance) self.apparent_sun_longitude = solar.get_apparent_sun_longitude(self.geocentric_longitude, self.nutation, self.aberration_correction) self.apparent_sidereal_time = solar.get_apparent_sidereal_time(self.jd, self.jme, self.nutation) self.geocentric_sun_right_ascension = solar.get_geocentric_sun_right_ascension(self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.geocentric_sun_declination = solar.get_geocentric_sun_declination(self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.local_hour_angle = solar.get_local_hour_angle(318.5119, self.longitude, self.geocentric_sun_right_ascension) #self.apparent_sidereal_time only correct to 5 sig figs, so override self.equatorial_horizontal_parallax = solar.get_equatorial_horizontal_parallax(self.sun_earth_distance) self.projected_radial_distance = solar.get_projected_radial_distance(self.elevation, self.latitude) self.projected_axial_distance = solar.get_projected_axial_distance(self.elevation, self.latitude) self.topocentric_sun_right_ascension = solar.get_topocentric_sun_right_ascension(self.projected_radial_distance, self.equatorial_horizontal_parallax, self.local_hour_angle, self.apparent_sun_longitude, self.true_ecliptic_obliquity, self.geocentric_latitude) self.parallax_sun_right_ascension = solar.get_parallax_sun_right_ascension(self.projected_radial_distance, self.equatorial_horizontal_parallax, self.local_hour_angle, self.geocentric_sun_declination) self.topocentric_sun_declination = solar.get_topocentric_sun_declination(self.geocentric_sun_declination, self.projected_axial_distance, self.equatorial_horizontal_parallax, self.parallax_sun_right_ascension, self.local_hour_angle) self.topocentric_local_hour_angle = solar.get_topocentric_local_hour_angle(self.local_hour_angle, self.parallax_sun_right_ascension) self.topocentric_zenith_angle = solar.get_topocentric_zenith_angle(self.latitude, self.topocentric_sun_declination, self.topocentric_local_hour_angle, self.pressure, self.temperature) self.topocentric_azimuth_angle = solar.get_topocentric_azimuth_angle(self.topocentric_local_hour_angle, self.latitude, self.topocentric_sun_declination) self.incidence_angle = solar.get_incidence_angle(self.topocentric_zenith_angle, self.slope, self.slope_orientation, self.topocentric_azimuth_angle) self.pressure_with_elevation = elevation.get_pressure_with_elevation(1567.7) self.temperature_with_elevation = elevation.get_temperature_with_elevation(1567.7)
