def get(self, offset, year, month, day, hour, minute, second): (utc_year, utc_month, utc_day, utc_hour, utc_minute, utc_second) = swe.utc_time_zone(year, month, day, hour, minute, second, float(offset)) julday = swe.utc_to_jd(year=utc_year, month=utc_month, day=utc_day, hour=utc_hour, minutes=utc_minute, seconds=utc_second, flag=swe.GREG_CAL)[0] from jyotisha.panchangam import temporal raashi = temporal.get_solar_rashi(jd=julday) logging.info(raashi) return str(raashi)
def get(self, offset, year, month, day, hour, minute, second, body):
from jyotisha import zodiac
(utc_year, utc_month, utc_day, utc_hour, utc_minute,
utc_second) = swe.utc_time_zone(year=year,
month=month,
day=day,
hour=hour,
minutes=minute,
seconds=second,
offset=float(offset))
julday = swe.utc_to_jd(year=utc_year,
month=utc_month,
day=utc_day,
hour=utc_hour,
minutes=utc_minute,
seconds=utc_second,
flag=swe.GREG_CAL)[0]
body_id = get_body_id(body_name=body)
from jyotisha.panchangam import temporal
transits = temporal.get_planet_next_transit(jd_start=julday,
jd_end=julday + 100,
planet=body_id)
# logging.debug(transits)
transits_utc = [(swe.jdut1_to_utc(ut=transit[0], flag=swe.GREG_CAL),
transit[1], transit[2]) for transit in transits]
transits_local = [(swe.utc_time_zone(year=transit[0][0],
month=transit[0][1],
day=transit[0][2],
hour=transit[0][3],
minutes=transit[0][4],
seconds=int(transit[0][5]),
offset=-float(offset)),
transit[1], transit[2]) for transit in transits_utc]
return str(transits_local)
def utc_to_julian(dtime):
"""Convert UTC time to Julian date"""
if dtime.tzinfo is not None:
utc = local_to_utc(dtime)
else:
utc = dtime
year, month, day = utc.year, utc.month, utc.day
hour, minute, second = utc.hour, utc.minute, utc.second
return swe.utc_to_jd(year, month, day, hour, minute, second, 1)[1]
def get(self, body, offset, year, month, day, hour, minute, second):
from jyotisha import zodiac
(utc_year, utc_month, utc_day, utc_hour, utc_minute, utc_second) = swe.utc_time_zone(year, month, day, hour, minute, second, float(offset))
julday = swe.utc_to_jd(year=utc_year, month=utc_month, day=utc_day, hour=utc_hour, minutes=utc_minute, seconds=utc_second, flag=swe.GREG_CAL)[0]
lahiri_nakshatra_division = zodiac.NakshatraDivision(julday=julday)
body_id = get_body_id(body_name=body)
if body == "moon":
from jyotisha.panchangam import temporal
logging.debug(temporal.get_nakshatram(julday))
nakshatra = lahiri_nakshatra_division.get_nakshatra(body_id=body_id)
logging.info(nakshatra)
return str(nakshatra)
def local_time_to_jdut1(year,
month,
day,
hour=0,
minutes=0,
seconds=0,
timezone=0.0):
"""Converts local time to JD(UT1)"""
y, m, d, h, mnt, s = swe.utc_time_zone(year, month, day, hour, minutes,
seconds, timezone)
# BUG in pyswisseph: replace 0 by s
jd_et, jd_ut1 = swe.utc_to_jd(y, m, d, h, mnt, 0, flag=swe.GREG_CAL)
return jd_ut1
def compute(self, in_date: datetime):
in_date = in_date.astimezone(timezone.utc)
_, in_date_jul = swe.utc_to_jd(in_date.year, in_date.month,
in_date.day, in_date.hour,
in_date.minute, in_date.second,
swe.GREG_CAL)
# print(in_date_jul)
# in_date_jul = swe.julday(in_date.year, in_date.month, in_date.day,
# in_date.hour + in_date.minute / 60 + in_date.second / 3600)
sun_pos, _ = swe.calc(in_date_jul, swe.SUN, swe.FLG_SIDEREAL)
moon_pos, _ = swe.calc(in_date_jul, swe.MOON, swe.FLG_SIDEREAL)
sun_pos = sun_pos[0]
moon_pos = moon_pos[0]
self.tithi, self.pos_deg = self._calc_tithi(sun_pos, moon_pos)
def local_time_to_julian_day(self, year, month, day, hours, minutes,
seconds):
offset_hours = self.get_timezone_offset_hours_from_date(
year=year,
month=month,
day=day,
hour=hours,
minute=minutes,
seconds=seconds)
(year_utc, month_utc, day_utc, hours_utc, minutes_utc,
seconds_utc) = swe.utc_time_zone(year, month, day, hours, minutes,
seconds, offset_hours)
julian_dates = swe.utc_to_jd(year_utc, month_utc, day_utc, hours_utc,
minutes_utc, seconds_utc, 1)
return julian_dates[1]
def loc_of_planet(planet, start, end, freq='1D', scale=1, fit360=False):
"""Calculate the locations of planet within a time span.
parameters:
planet: the planet variable in swisseph
start, end: the time span
freq: the calculation freq
scale: mulitply the planet location
return a pandas Series with planet location
"""
results = []
drange = pd.date_range(start, end, freq=freq, tz='utc')
for date in drange:
year = date.year
month = date.month
day = date.day
hour = date.hour
minute = date.minute
second = date.second
jd = swe.utc_to_jd(year, month, day, hour, minute, second, 1)
ut = jd[1]
loc = swe.calc_ut(ut, planet)
results.append(loc[0]*scale)
res = pd.Series(results, drange, name=swe.get_planet_name(planet))
if scale > 1 and fit360:
return res.apply(_fit360)
return res
def loc_of_planet(planet, start, end, freq='1D', scale=1, fit360=False):
"""Calculate the locations of planet within a time span.
parameters:
planet: the planet variable in swisseph
start, end: the time span
freq: the calculation freq
scale: mulitply the planet location
return a pandas Series with planet location
"""
results = []
drange = pd.date_range(start, end, freq=freq, tz='utc')
for date in drange:
year = date.year
month = date.month
day = date.day
hour = date.hour
minute = date.minute
second = date.second
jd = swe.utc_to_jd(year, month, day, hour, minute, second, 1)
ut = jd[1]
loc = swe.calc_ut(ut, planet)
results.append(loc[0] * scale)
res = pd.Series(results, drange, name=swe.get_planet_name(planet))
if scale > 1 and fit360:
return res.apply(_fit360)
return res
def DateTime(self, year, month, date, hr, min, sec):
return swe.utc_to_jd(year, month, date, hr, min, sec, GREG_CAL)
'3 %(north_pole_ra)f %(north_pole_dec)f %(boundary_ra)f %(boundary_declination)f %(south_pole_ra)f %(south_pole_dec)f 2 N%(sector_id_1)02d N%(sector_id_2)02d' % dict(
north_pole_ra=ecliptic_north_pole_with_ra[0],
north_pole_dec=ecliptic_north_pole_with_ra[1],
boundary_ra=boundary_ra,
boundary_declination=boundary_declination,
south_pole_ra=ecliptic_south_pole_with_ra[0],
south_pole_dec=ecliptic_south_pole_with_ra[1],
sector_id_1=(index % 27 + 1),
sector_id_2=((index + 1) % 27 + 1)
))
if __name__ == '__main__':
# lahiri_nakshatra_division = NakshatraDivision(julday=swe.utc_to_jd(year=2017, month=8, day=19, hour=11, minutes=10, seconds=0, flag=1)[0])
lahiri_nakshatra_division = NakshatraDivision(
julday=swe.utc_to_jd(year=1982, month=2, day=19, hour=11, minutes=10, seconds=0, flag=1)[0])
logging.info(lahiri_nakshatra_division.get_nakshatra(body_id=swe.MOON))
# logging.info(lahiri_nakshatra_division)
# logging.debug(swe.cotrans(lon=20, lat=-90, dist=9999999, obliquity=23.437404))
lahiri_nakshatra_division.get_stellarium_nakshatra_boundaries()
def get_nirayana_sun_lon(jd, offset=0, debug=False):
"""Returns the nirayana longitude of the sun
Args:
float jd: The Julian Day at which the angam is to be computed
Returns:
float longitude
def local_time_to_jdut1(year, month, day, hour = 0, minutes = 0, seconds = 0, timezone = 0.0): """Converts local time to JD(UT1)""" y, m, d, h, mnt, s = swe.utc_time_zone(year, month, day, hour, minutes, seconds, timezone) # BUG in pyswisseph: replace 0 by s jd_et, jd_ut1 = swe.utc_to_jd(y, m, d, h, mnt, 0, flag = swe.GREG_CAL) return jd_ut1
from pprint import pprint
if __name__ == "__main__":
# This is a minimal e[phemeris].
e = {"0": {}, "1": {}, "2": {}, "3": [], "4": []}
# The data files, which may not be in the
# [sin repo](https://github.com/astrolet/sin) /
# [gravity pakage](http://search.npmjs.org/#/gravity).
swe.set_ephe_path(re["data"])
# Is using the Gregorian calendar flag correct?
# If calendar type is conditional, is it easier to determine here (with the help of swe)?
t = swe.utc_to_jd(re["ut"][0], re["ut"][1], re["ut"][2], re["ut"][3], re["ut"][4], re["ut"][5], re["ut"][6])
# <!---
# e["jd-ut1"] = swe.jdut1_to_utc(t[1], 1)
# --->
#
# Ask for what is precious:
#
# 1. majors (the main things / points for astrology)
# 2. minors (other objects - e.g. some "minor planets")
# 3. angles (ascmc) = 8 of 10 doubles (unused 8 & 9)
# 4. houses (cusps) = 12 of 13 doubles (unused zero)
#
for o in [{"what": "1", "offset": 0}, {"what": "2", "offset": 10000}]:
iterate = re["stuff"][int(o["what"])]
if iterate:
) in enumerate(equatorial_boundary_coordinates_with_ra):
print(
'3 %(north_pole_ra)f %(north_pole_dec)f %(boundary_ra)f %(boundary_declination)f %(south_pole_ra)f %(south_pole_dec)f 2 N%(sector_id_1)02d N%(sector_id_2)02d'
% dict(north_pole_ra=ecliptic_north_pole_with_ra[0],
north_pole_dec=ecliptic_north_pole_with_ra[1],
boundary_ra=boundary_ra,
boundary_declination=boundary_declination,
south_pole_ra=ecliptic_south_pole_with_ra[0],
south_pole_dec=ecliptic_south_pole_with_ra[1],
sector_id_1=(index % 27 + 1),
sector_id_2=((index + 1) % 27 + 1)))
if __name__ == '__main__':
# lahiri_nakshatra_division = NakshatraDivision(julday=swe.utc_to_jd(year=2017, month=8, day=19, hour=11, minutes=10, seconds=0, flag=1)[0])
lahiri_nakshatra_division = NakshatraDivision(julday=swe.utc_to_jd(
year=1982, month=2, day=19, hour=11, minutes=10, seconds=0, flag=1)[0])
logging.info(lahiri_nakshatra_division.get_nakshatra(body_id=swe.MOON))
# logging.info(lahiri_nakshatra_division)
# logging.debug(swe.cotrans(lon=20, lat=-90, dist=9999999, obliquity=23.437404))
lahiri_nakshatra_division.get_stellarium_nakshatra_boundaries()
def get_nirayana_sun_lon(jd, offset=0, debug=False):
"""Returns the nirayana longitude of the sun
Args:
float jd: The Julian Day at which the angam is to be computed
Returns:
float longitude
if __name__ == "__main__":
# This is a minimal e[phemeris].
e = {"0": {}, "1": {}, "2": {}, "3": [], "4": []}
# The data files, which may not be in the
# [sin repo](https://github.com/astrolet/sin) /
# [gravity pakage](http://search.npmjs.org/#/gravity).
swe.set_ephe_path(re["data"])
# Is using the Gregorian calendar flag correct?
# If calendar type is conditional, is it easier to determine here (with the help of swe)?
t = swe.utc_to_jd(re["ut"][0],
re["ut"][1],
re["ut"][2],
re["ut"][3],
re["ut"][4],
re["ut"][5],
re["ut"][6])
# <!---
# e["jd-ut1"] = swe.jdut1_to_utc(t[1], 1)
# --->
#
# Ask for what is precious:
#
# 1. majors (the main things / points for astrology)
# 2. minors (other objects - e.g. some "minor planets")
# 3. angles (ascmc) = 8 of 10 doubles (unused 8 & 9)
# 4. houses (cusps) = 12 of 13 doubles (unused zero)
#
minute = minute + second / 60
second = second % 60
if minute >= 60:
hour = hour + minute / 60
minute = minute % 60
if hour >= 24:
day = day + hour / 24
hour = hour % 24
from calendar import monthrange
(_, final_day) = monthrange(year, month)
if day > final_day:
assert day == final_day + 1, "range not supported by this function"
day = 1
month = month + 1
if month >= 13:
year = year + (month - 1) / 12
month = ((month - 1) % 12) + 1
return (year, month, day, hour, minute, second)
# Essential for depickling to work.
common.update_json_class_index(sys.modules[__name__])
# logging.debug(common.json_class_index)
if __name__ == '__main__':
# time = swe.utc_to_jd(year=1982, month=2, day=18, hour=11, minutes=10, seconds=0, flag=1)[0]
time = swe.utc_to_jd(year=2015, month=9, day=17, hour=15, minutes=16, seconds=0, flag=1)[0]
# time = swe.utc_to_jd(year=1986, month=8, day=24, hour=11, minutes=54, seconds=0, flag=1)[0]
logging.info(time)
print_angas_x_ayanamshas(jd=time)
# ---------------------- ALL TESTS ------------------------------
def adhipati_tests():
# nakshatra indexes counted from 0
satabhisha, citta, aslesha = 23, 13, 8
assert (adhipati(satabhisha) == swe.RAHU)
assert (mahadasa[adhipati(satabhisha)] == 18)
assert (adhipati(citta) == swe.MARS)
assert (mahadasa[adhipati(citta)] == 7)
assert (adhipati(aslesha) == swe.MERCURY)
assert (mahadasa[adhipati(aslesha)] == 17)
if __name__ == "__main__":
adhipati_tests()
# YYYY-MM-DD 09:40 IST = 04:10 UTC
jdut1 = swe.utc_to_jd(1985, 6, 9, 4, 10, 0, flag=swe.GREG_CAL)[1]
tz = 5.5
print("jdut1", jdut1)
dashas = vimsottari_mahadasa(jdut1)
for i in dashas:
print(' ---------- ' + get_planet_name(i) + ' Dasa ---------- ')
bhuktis = vimsottari_bhukti(i, dashas[i])
for j in bhuktis:
jd = bhuktis[j]
y, m, d, h = swe.revjul(round(jd + tz))
print('%8s: %04d-%02d-%02d\t%.6lf' %
(get_planet_name(j), y, m, d, jd))
jd = 2456950 # Some random date, ex: current date
i, j, antara = compute_antara_from(jd, dashas)
print("---- JD %d falls in %s dasa/%s bhukti -----" %
# ---------------------- ALL TESTS ------------------------------
def adhipati_tests():
# nakshatra indexes counted from 0
satabhisha, citta, aslesha = 23, 13, 8
assert(adhipati(satabhisha) == swe.RAHU)
assert(mahadasa[adhipati(satabhisha)] == 18)
assert(adhipati(citta) == swe.MARS)
assert(mahadasa[adhipati(citta)] == 7)
assert(adhipati(aslesha) == swe.MERCURY)
assert(mahadasa[adhipati(aslesha)] == 17)
if __name__ == "__main__":
adhipati_tests()
# YYYY-MM-DD 09:40 IST = 04:10 UTC
jdut1 = swe.utc_to_jd(1985, 6, 9, 4, 10, 0, flag = swe.GREG_CAL)[1]
tz = 5.5
print("jdut1", jdut1)
dashas = vimsottari_mahadasa(jdut1)
for i in dashas:
print(' ---------- ' + get_planet_name(i) + ' Dasa ---------- ')
bhuktis = vimsottari_bhukti(i, dashas[i])
for j in bhuktis:
jd = bhuktis[j]
y, m, d, h = swe.revjul(round(jd + tz))
print('%8s: %04d-%02d-%02d\t%.6lf' % (get_planet_name(j), y, m, d, jd))
jd = 2456950 # Some random date, ex: current date
i, j, antara = compute_antara_from(jd, dashas)
print("---- JD %d falls in %s dasa/%s bhukti -----" %
(jd, get_planet_name(i), get_planet_name(j)))
