def sun_moon(self):
lat, longit, elev = '34.7443', '-111.4223', 2361
loc = EarthLocation.from_geodetic(longit, lat, elev)
dct = Observer(loc, timezone='US/Mountain')
now = Time.now()
altaz = AltAz(location=loc, obstime=now)
sun = get_sun(now)
moon = get_moon(now, loc)
lst = dct.local_sidereal_time(now)
lst = lst.hms
lsth, lstm, lsts = str(lst[0]).split('.')[0], str(
lst[1]).split('.')[0], str(lst[2]).split('.')[0]
lstss = str(lst[2]).split('.')[1]
self.lststr = '%02d' % int(lsth) + ':' + '%02d' % int(
lstm) + ':' + '%02d' % int(lsts) + '.' + lstss[0:2]
moonfz = dct.moon_illumination(now)
self.moonillum = f'{moonfz * 100:04.1f}'
moonget = moon.transform_to(altaz).alt.deg
self.moonalt = '{:2.4f}'.format(moonget)
sunget = sun.transform_to(altaz).alt.deg
self.sunalt = '{:2.4f}'.format(sunget)
return self.lststr, self.sunalt, self.moonalt, self.moonillum
time = Time('2019-12-26') #UTC
midnight = Time(lokasi.midnight(time).iso)
delta_md = np.linspace(-5, 5, 22) * u.hour
win_time = midnight + delta_md
night = win_time
# day = (midnight + 12*u.hour) + delta_md
day = (midnight + 12 * u.hour) + np.linspace(0, 3, 30) * u.hour # GMS
op = pd.read_csv('op.csv', index_col='nama')
ra = op.ra
dec = op.dec
sunset = lokasi.sun_set_time(time)
sunrise = lokasi.sun_rise_time(time)
moonrise = lokasi.moon_rise_time(time)
moonset = lokasi.moon_set_time(time)
moon_ill = lokasi.moon_illumination(time)
moonaltaz = lokasi.moon_altaz(time)
moonaltaz.name = 'moon'
sunaltaz = lokasi.sun_altaz(time)
sunaltaz.name = 'sun'
def objek(nama, ra, dec):
op = SkyCoord(ra, dec, frame='icrs', unit='deg')
op_name = FixedTarget(coord=op, name=nama)
# betelgeus = SkyCoord.from_name('betelgeuse')
# altaz_frame = lokasi.altaz(time) # ubah lokasi pengamat ke altaz frame
# betelgeus_altaz = betelgeus.transform_to(altaz_frame) # ubah target ke altaz
altaz = lokasi.altaz(win_time, op)
terbit = lokasi.target_rise_time(win_time, op)
transit = lokasi.target_meridian_transit_time(win_time, op)
# evening (civil) twilight obs.twilight_evening_civil(time_obs) # morning (nautical) twilight obs.twilight_morning_nautical(time_obs) # morning (civil) twilight obs.twilight_morning_civil(time_obs) # morning (astronomical) twilight obs.twilight_morning_astronomical(time_obs) # what is the moon illumination? # returns a float, which is percentage of the moon illuminated obs.moon_illumination(time_obs) # what is the moon altitude and azimuth? obs.moon_altaz(time_obs) # Other sun-related convenience functions: obs.noon(time_obs, which='nearest') obs.midnight(time_obs, which='nearest') # ============== # Target objects # ============== ''' A target object defines a single observation target, with coordinates and an optional name. '''
# evening (civil) twilight obs.evening_civil(date=time_obs) # morning (nautical) twilight obs.morning_nautical(date=time_obs) # morning (civil) twilight obs.morning_civil(date=time_obs) # morning (astronomical) twilight obs.morning_astronomical(date=time_obs) # what is the moon illumination? # returns a float, which is percentage of the moon illuminated obs.moon_illumination(date=time_obs) # what is the moon altitude and azimuth? obs.moon_altaz(date=time_obs) # Other sun-related convenience functions: obs.noon(date=time_obs, which='nearest') obs.midnight(date=time_obs, which='nearest') # ============== # Target objects # ============== ''' A target object defines a single observation target, with coordinates and an optional name. '''