def test_timezone_aware_utc(self):
timezoned_date = to_timezone(self.date, UTC)
self.assertEqual(timezoned_date.tzinfo, UTC)
self.assertEqual(timezoned_date.hour, 0)
self.assertEqual(timezoned_date.minute, 17)
self.assertEqual(timezoned_date.second, 15)
self.assertEqual(timezoned_date.day, 4)
self.assertEqual(timezoned_date.month, 9)
self.assertEqual(timezoned_date.year, 2004)
def test_timezone_aware_utc(self):
timezoned_date = to_timezone(self.date, UTC)
self.assertEqual(timezoned_date.tzinfo, UTC)
self.assertEqual(timezoned_date.hour, 0)
self.assertEqual(timezoned_date.minute, 17)
self.assertEqual(timezoned_date.second, 15)
self.assertEqual(timezoned_date.day, 4)
self.assertEqual(timezoned_date.month, 9)
self.assertEqual(timezoned_date.year, 2004)
def test_timezone_aware_cet(self):
cet = CET()
timezoned_date = to_timezone(self.date, cet)
self.assertEqual(timezoned_date.tzinfo, cet)
self.assertEqual(timezoned_date.hour, 1)
self.assertEqual(timezoned_date.minute, 17)
self.assertEqual(timezoned_date.second, 15)
self.assertEqual(timezoned_date.day, 4)
self.assertEqual(timezoned_date.month, 9)
self.assertEqual(timezoned_date.year, 2004)
def test_timezone_aware_cet(self):
cet = CET()
timezoned_date = to_timezone(self.date, cet)
self.assertEqual(timezoned_date.tzinfo, cet)
self.assertEqual(timezoned_date.hour, 1)
self.assertEqual(timezoned_date.minute, 17)
self.assertEqual(timezoned_date.second, 15)
self.assertEqual(timezoned_date.day, 4)
self.assertEqual(timezoned_date.month, 9)
self.assertEqual(timezoned_date.year, 2004)
def step_draw(self):
"""Calculate and draw the next position of each planet.
"""
# If we don't call step_draw at all, we'll never get further key events
# that could restart the animation. So just step at a much slower pace.
if not self.stepping:
self.canvas.after(500, self.step_draw)
return
# Adding a float to ephem.Date turns it into a float.
# You can get back an ephem.Date with: ephem.Date(self.time).
self.time += self.time_increment
for p in (earth, mars):
p["obj"].compute(self.time)
# ephem treats Earth specially, what a hassle!
# There is no ephem.Earth body; ephem.Sun gives the Earth's
# hlon as hlon, but I guess we need to use earth_distance.
oppy = False
if p["name"] == "Earth":
hlon = p["obj"].hlon
sundist = p["obj"].earth_distance
earthdist = 0
size = 0
else:
hlon = p["obj"].hlon
sundist = p["obj"].sun_distance
earthdist = p["obj"].earth_distance
size = p["obj"].size
if abs(self.time - self.opp_date) <= .5:
oppy = True
if self.opp_date < self.closest_date:
print(table_format % (self.opp_date, earthdist, size),
"Opposition")
print(
table_format %
(self.closest_date, earthdist, size),
"Closest approach")
else:
print(
table_format %
(self.closest_date, earthdist, size),
"Closest approach")
print(table_format % (self.opp_date, earthdist, size),
"Opposition")
xn, yn = self.planet_x_y(hlon, sundist)
radius = 10
if oppy:
# Create outline circles for Mars and Earth at opposition.
# xn, yn should be Mars since Earth was done first.
self.canvas.create_oval(xn - radius,
yn - radius,
xn + radius,
yn + radius,
outline=p["color"],
width=3)
earthx = earth["xypath"][-2]
earthy = earth["xypath"][-1]
self.canvas.create_oval(earthx - radius,
earthy - radius,
earthx + radius,
earthy + radius,
outline=earth["color"],
width=3)
localtz = datetime.now().astimezone().tzinfo
oppdate = ephem.to_timezone(self.opp_date, localtz)
opp_str = oppdate.strftime("%Y-%m-%d") + \
'\n%.3f AU\n%.1f"' % (earthdist, size)
if xn < self.width / 2:
if yn < self.height / 2:
anchor = "se"
else:
anchor = "ne"
xtxt = xn - radius
else:
if yn < self.height / 2:
anchor = "sw"
else:
anchor = "nw"
xtxt = xn + radius
ytxt = yn
txtobj = self.canvas.create_text(xtxt,
ytxt,
fill="white",
justify=LEFT,
font=('sans', 14, 'bold'),
anchor=anchor,
text=opp_str)
# Make sure it's not offscreen
xt1, yt1, xt2, yt2 = self.canvas.bbox(txtobj)
if xt1 < 0:
xtxt -= xt1
elif xt2 > self.width:
xtxt -= (xt2 - self.width)
if yt1 < 0:
ytxt -= yt1
elif yt2 > self.height:
ytxt -= yt2 - self.height
self.canvas.coords(txtobj, xtxt, ytxt)
# Done with this opposition: find the next one.
self.opp_date, self.closest_date \
= find_next_opposition(self.time + 500)
p["xypath"].append(int(xn))
p["xypath"].append(int(yn))
if p["line"]:
self.canvas.coords(p["line"], p["xypath"])
self.canvas.coords(p["disk"], xn - radius, yn - radius,
xn + radius, yn + radius)
else:
p["line"] = self.canvas.create_line(xn,
yn,
xn,
yn,
width=self.linewidth,
fill=p["color"])
p["disk"] = self.canvas.create_oval(xn - radius,
yn - radius,
xn + radius,
yn + radius,
fill=p["color"])
p["path"].append((hlon, sundist, earthdist, size))
if self.stepping:
self.canvas.after(self.timestep, self.step_draw)
https://rhodesmill.org/pyephem/quick.html#dates
@author: PC
"""
import ephem
d = ephem.Date('1997/3/9 5:13')
print(d)
print(d.triple())
print(d.tuple())
print(d + ephem.hour)
print(ephem.date(d + ephem.hour))
print(ephem.date(d + 1))
ephem.Date(35497.7197916667)
ephem.Date('1997/3/10.2197916667')
ephem.Date('1997/3/10 05.275')
ephem.Date('1997/3/10 05:16.5')
ephem.Date('1997/3/10 05:16:30')
ephem.Date('1997/3/10 05:16:30.0')
ephem.Date((1997, 3, 10.2197916667))
ephem.Date((1997, 3, 10, 5, 16, 30.0))
d = ephem.Date('1997/3/9 5:13')
ephem.localtime(d)
print(ephem.localtime(d))
d = ephem.Date('1997/3/9 5:13')
ephem.to_timezone(d, ephem.UTC)
print(ephem.to_timezone(d, ephem.UTC))
weather = observation.weather temp = weather.temperature() wind_dict_in_meters_per_sec = observation.weather.wind() pressure_dict = observation.weather.pressure # Observer settings for PyEphem Viewpoint = ephem.Observer() Viewpoint.pressure = pressure_dict['press'] Viewpoint.horizon = '-0:34' Viewpoint.temp = temp["temp"] Viewpoint.elevation = 10 Viewpoint.lat = str(lat_lng[0]) Viewpoint.lon = str(lat_lng[1]) #Sunrise and sunset ViewpointSunrise = ephem.to_timezone(Viewpoint.next_rising(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) ViewpointSet = ephem.to_timezone(Viewpoint.next_setting(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) #Computing twilight Viewpoint.horizon = '-0:0' # HorizonTwilightRising = ephem.to_timezone(Viewpoint.next_rising(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) HorizonTwilightSetting = ephem.to_timezone(Viewpoint.next_setting(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) Viewpoint.horizon = '-6' # Civil Twilightn. CivilTwilightRising = ephem.to_timezone(Viewpoint.next_rising(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) CivilTwilightSetting = ephem.to_timezone(Viewpoint.next_setting(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) Viewpoint.horizon = '-12' # Nautical twilight. NauticalTwilightRising = ephem.to_timezone(Viewpoint.next_rising(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone)) NauticalTwilightSetting = ephem.to_timezone(Viewpoint.next_setting(ephem.Sun()), ephem.UTC).replace(tzinfo=utc).astimezone(pytz.timezone(LocationTimezone))