def Jupiter():
Jupiter = ((ephem.Io(), 'i'), (ephem.Europa(), 'e'),
(ephem.Ganymede(), 'g'), (ephem.Callisto(), 'c'))
try:
t = Twitter(auth=OAuth(
jupitertwitter['AccessToken'], jupitertwitter['AccessTokenSecret'],
jupitertwitter['ConsumerKey'], jupitertwitter['ConsumerSecret']))
except:
t = None
return asciimoonpos(Jupiter, 'J', duration=.1), t, 'jupitermoonpos'
def get_objects(additional_catalogs_list: List[str]) -> dict:
"""Return a dictionary of all objects."""
object_dict = {}
#Solar System
object_dict['sun'] = (ephem.Sun(), 'solar_system')
object_dict['mercury'] = (ephem.Mercury(), 'solar_system')
object_dict['venus'] = (ephem.Venus(), 'solar_system')
object_dict['moon'] = (ephem.Moon(), 'solar_system')
object_dict['mars'] = (ephem.Mars(), 'solar_system')
object_dict['phobos'] = (ephem.Phobos(), 'planetary_moon')
object_dict['deimos'] = (ephem.Deimos(), 'planetary_moon')
object_dict['jupiter'] = (ephem.Jupiter(), 'solar_system')
object_dict['ganymede'] = (ephem.Ganymede(), 'planetary_moon')
object_dict['callisto'] = (ephem.Callisto(), 'planetary_moon')
object_dict['io'] = (ephem.Io(), 'planetary_moon')
object_dict['europa'] = (ephem.Europa(), 'planetary_moon')
object_dict['saturn'] = (ephem.Saturn(), 'solar_system')
object_dict['titan'] = (ephem.Titan(), 'planetary_moon')
object_dict['iapetus'] = (ephem.Iapetus(), 'planetary_moon')
object_dict['rhea'] = (ephem.Rhea(), 'planetary_moon')
object_dict['tethys'] = (ephem.Tethys(), 'planetary_moon')
object_dict['dione'] = (ephem.Dione(), 'planetary_moon')
object_dict['enceladus'] = (ephem.Enceladus(), 'planetary_moon')
object_dict['mimas'] = (ephem.Mimas(), 'planetary_moon')
object_dict['uranus'] = (ephem.Uranus(), 'solar_system')
object_dict['titania'] = (ephem.Titania(), 'planetary_moon')
object_dict['oberon'] = (ephem.Oberon(), 'planetary_moon')
object_dict['hyperion'] = (ephem.Hyperion(), 'planetary_moon')
object_dict['ariel'] = (ephem.Ariel(), 'planetary_moon')
object_dict['umbriel'] = (ephem.Umbriel(), 'planetary_moon')
object_dict['miranda'] = (ephem.Miranda(), 'planetary_moon')
object_dict['neptune'] = (ephem.Neptune(), 'solar_system')
object_dict['pluto'] = (ephem.Pluto(), 'solar_system')
for file,object_type in additional_catalogs_list:
object_dict.update(read_file(file, object_type))
return object_dict
def findmoons():
moons = ((ephem.Io(), 'i'),
(ephem.Europa(), 'e'),
(ephem.Ganymede(), 'g'),
(ephem.Callisto(), 'c'))
# How to place discrete characters on a line that actually represents
# the real numbers -maxradii to +maxradii.
linelen = 72
maxradii = 36
def put(line, character, radii):
if abs(radii) > maxradii:
return
offset = radii / maxradii * (linelen - 1) / 2
i = int(linelen / 2 + offset)
line[i] = character
interval = ephem.hour * 3 #hours between datapoints
now = ephem.now() #right now
now -= now % interval
strip.begin() # Initialize pins for output
strip.setBrightness(8) # Limit brightness to ~1/4 duty cycle
#turn all leds to black (off)
offspot = 1
offcolor = 0x000000
nump = 73
while offspot < nump:
strip.setPixelColor(offspot, offcolor)
offspot += 1
strip.show()
#PYEPHEM PART--GET MOON SPOTS
moons = ((ephem.Io(), 'i'),
(ephem.Europa(), 'e'),
(ephem.Ganymede(), 'g'),
(ephem.Callisto(), 'c'))
linelen = 72
maxradii = 36
def put(line, character, radii):
if abs(radii) > maxradii:
return
offset = radii / maxradii * (linelen - 1) / 2
i = int(linelen / 2 + offset)
line[i] = character
def strandtest():
#!/usr/bin/env python2.7
import ephem
import time
moons = ((ephem.Io(), 'i'), (ephem.Europa(), 'e'), (ephem.Ganymede(), 'g'),
(ephem.Callisto(), 'c'))
# How to place discrete characters on a line that actually represents
# the real numbers -maxradii to +maxradii.
linelen = 72
maxradii = 36
def put(line, character, radii):
if abs(radii) > maxradii:
return
offset = radii / maxradii * (linelen - 1) / 2
i = int(linelen / 2 + offset)
line[i] = character
interval = ephem.hour * 3 #hours between datapoints
now = ephem.now() #right now
now -= now % interval
"""#prints characters relative to jupiter
while True:
t = now - 3
print '------------------------'
while t < now + 3:
def findmoons():
moons = ((ephem.Io(), 'i'), (ephem.Europa(), 'e'), (ephem.Ganymede(), 'g'),
(ephem.Callisto(), 'c'))
# How to place discrete characters on a line that actually represents
# the real numbers -maxradii to +maxradii.
linelen = 72
maxradii = 36
def put(line, character, radii):
if abs(radii) > maxradii:
return
offset = radii / maxradii * (linelen - 1) / 2
i = int(linelen / 2 + offset)
line[i] = character
interval = ephem.hour * 3 #hours between datapoints
now = ephem.now() #right now
now -= now % interval
"""#prints characters relative to jupiter
while True:
t = now - 3
print '------------------------'
while t < now + 3:
line = [' '] * linelen
put(line, 'J', 0)
for moon, character in moons:
moon.compute(t)
put(line, character, moon.x)
#print str(ephem.date(t))[5:16], ''.join(line).rstrip()
t += interval
time.sleep(.1)
print 'East is to the right;'
print ', '.join([ '%s = %s' % (c, m.name) for m, c in moons ])
"""
#Shows offsets for every interval t
while True:
now = ephem.now() #right now
now -= now % interval
t = now - 1
print '------------------------'
while t < now + 1:
line = [' '] * linelen
put(line, 'J', 0)
for moon, character in moons:
moon.compute(t)
put(line, character, moon.x)
readout = character, int(moon.x)
#print str(ephem.date(t))[5:16], readout
#for each character at a given time, light the appropriate color LED at 36 + int(moon.x). Brightness += brightness until .75. If t == now, brightness == 1.0, time.sleep(3)
for char in character:
#print "At date ", str(ephem.date(t)), "", character, " was at position ", int(moon.x)
#print str(ephem.date(t))
if 'i' in character:
iopos = int(moon.x) #Io offset from Jupiter at time t
print iopos #<--convert these to strip.setPixelColor(spot, color)
elif 'e' in character:
eurpos = int(moon.x) #Europa offset
print eurpos
elif 'g' in character:
ganpos = int(moon.x) #Ganymede offset
print ganpos
elif 'c' in character: #Calypso offset
calpos = int(moon.x)
print calpos
if t == now:
print "\nCURRENT\n" #<--convert to a superbrightness variable
elif t != now:
print str(ephem.date(t))[5:16]
t += interval
print '\n**************\n'
time.sleep(2)
def convertCelestialToHorizonNow(job, location):
bodyName = job['body']
dt = datetime.datetime.now()
dt = str(dt.year) + '/' + str(dt.month) + '/' + str(
dt.day) + ' ' + str(dt.hour - 1) + ':' + str(dt.minute)
gatech = ephem.Observer()
gatech.epoch = dt
if bodyName == "Sun":
body = ephem.Sun()
elif bodyName == "Moon":
body = ephem.Moon()
elif bodyName == "Mercury":
body = ephem.Mercury()
elif bodyName == "Venus":
body = ephem.Venus()
elif bodyName == "Mars":
body = ephem.Mars()
elif bodyName == "Phobos":
body = ephem.Phobos()
elif bodyName == "Deimos":
body = ephem.Deimos()
elif bodyName == "Jupiter":
body = ephem.Jupiter()
elif bodyName == "Io":
body = ephem.Io()
elif bodyName == "Europa":
body = ephem.Europa()
elif bodyName == "Ganymede":
body = ephem.Ganymede()
elif bodyName == "Callisto":
body = ephem.Callisto()
elif bodyName == "Saturn":
body = ephem.Saturn()
elif bodyName == "Mimas":
body = ephem.Mimas()
elif bodyName == "Enceladus":
body = ephem.Enceladus()
elif bodyName == "Tethys":
body = ephem.Tethys()
elif bodyName == "Dione":
body = ephem.Dione()
elif bodyName == "Rhea":
body = ephem.Rhea()
elif bodyName == "Titan":
body = ephem.Titan()
elif bodyName == "Iapetus":
body = ephem.Iapetus()
elif bodyName == "Hyperion":
body = ephem.Hyperion()
elif bodyName == "Uranus":
body = ephem.Uranus()
elif bodyName == "Miranda":
body = ephem.Miranda()
elif bodyName == "Ariel":
body = ephem.Ariel()
elif bodyName == "Umbriel":
body = ephem.Umbriel()
elif bodyName == "Titania":
body = ephem.Titania()
elif bodyName == "Oberon":
body = ephem.Oberon()
elif bodyName == "Neptune":
body = ephem.Neptune()
elif bodyName == "Pluto":
body = ephem.Pluto()
else:
body = ephem.star(bodyName)
geolocator = Nominatim()
location = geolocator.geocode(location)
gatech.lon, gatech.lat = str(location.longitude), str(location.latitude)
gatech.date = dt
body.compute(gatech)
return body
# Generate a list of ephemerides using pyephem.
# The output of this script is used in the test in src/swe.c
import ephem
from math import *
R2D = 180. / pi
def compute(target, o=None):
if o is None:
o = ephem.city('Atlanta')
o.date = '2009/09/06 17:00'
if isinstance(target, str):
target = ephem.star(target)
target.compute(o)
# Pyephem use Dublin JD, ephemeride uses Modified JD!
mjd = o.date + 15020 - 0.5
print(' {"%s", %.8f, %.8f, %.8f,\n'
' %.8f, %.8f, %.8f, %.8f, %.8f, %.8f},') % (
target.name, mjd, o.lon * R2D, o.lat * R2D, target.a_ra * R2D,
target.a_dec * R2D, target.ra * R2D, target.dec * R2D,
target.alt * R2D, target.az * R2D)
compute(ephem.Sun())
compute(ephem.Moon())
compute('Polaris')
compute(ephem.Jupiter())
compute(ephem.Io())
#!/usr/bin/env python3 # -*- coding: utf-8 -*- """ Created on Sun Dec 23 22:06:24 2018 @author: ahmed help arabe lang: https://stackoverflow.com/questions/15421746/matplotlib-writing-right-to-left-text-hebrew-arabic-etc """ # IMPORTATION from pylab import * import ephem as ep # ARABE import arabic_reshaper from bidi.algorithm import get_display # NOUS CRÉONS UN OBJET Io = ep.Io() Eu = ep.Europa() Ga = ep.Ganymede() Ca = ep.Callisto() # Créons des tableaux vide pour # SAUVEGARDER LES COORDONNEES y = [] xIo = [] xEu = [] xGa = [] xCa = [] # pas de temps - heure dt = ep.hour # temps initial ts = ep.now() # heure actuelle