def gregorian_to_ut_mjd(date):
'''Convert Gregorian calendar date to UTC MJD.'''
# Do the date part
caldj_error = {
0: 'OK',
1: 'bad year (MJD not computed)',
2: 'bad month (MJD not computed)',
3: 'bad day (MJD not computed)',
}
caldj_status = 0
mjd, caldj_status = sla.sla_caldj(date.year, date.month, date.day)
if caldj_status != 0:
raise InvalidDateTimeError('Error:' + caldj_error[caldj_status])
# Do the time part
dtf2d_error = {
0: 'OK',
1: 'IHOUR outside range 0-23',
2: 'IMIN outside range 0-59',
3: 'SEC outside range 0-59.999 ',
}
dtf2d_status = 0
days, dtf2d_status = sla.sla_dtf2d(date.hour, date.minute,
date.second + (date.microsecond / 1e6))
if dtf2d_status != 0:
raise InvalidDateTimeError('Error:' + dtf2d_error[dtf2d_status])
mjd += days
return mjd
def import_from_catalogs(db, det_tabname, exp_tabname, catalog_files, create=False, all=False):
""" Import a PTF catalog from a collection of SExtractor catalog files.
Note: Assumes underlying shared storage for all output table
cells (i.e., any worker is able to write to any cell).
"""
with locking.lock(db.path[0] + "/.__smf-import-lock.lock"):
if not db.table_exists(det_tabname) and create:
# Set up commit hooks
exp_table_def["commit_hooks"] = [("Updating neighbors", 1, "lsd.smf", "make_image_cache", [det_tabname])]
# Create new tables
det_table = db.create_table(det_tabname, det_table_def)
exp_table = db.create_table(exp_tabname, exp_table_def)
# Set up a one-to-X join relationship between the two tables (join det_table:exp_id->exp_table:exp_id)
db.define_default_join(
det_tabname, exp_tabname, type="indirect", m1=(det_tabname, "det_id"), m2=(det_tabname, "exp_id")
)
else:
det_table = db.table(det_tabname)
exp_table = db.table(exp_tabname)
# MJD of import
now = datetime.datetime.now()
(djm, j) = sla_caldj(now.year, now.month, now.day)
djm -= 55682
t0 = time.time()
at = 0
ntot = 0
pool = pool2.Pool()
explist_file = open("explist.txt", "w")
for (file, nloaded, error_type, expID) in pool.imap_unordered(
catalog_files, import_from_catalogs_aux, (det_table, exp_table, djm, all), progress_callback=pool2.progress_pass
):
at = at + 1
ntot = ntot + nloaded
t1 = time.time()
time_pass = (t1 - t0) / 60
time_tot = time_pass / at * len(catalog_files)
# sfile = (file)[-65:] if len(file) > 70 else file
sfile = file
if error_type == 0:
print (
" ===> Imported %s [%d/%d, %5.2f%%] +%-6d %9d (%.0f/%.0f min.)"
% (
sfile,
at,
len(catalog_files),
100 * float(at) / len(catalog_files),
nloaded,
ntot,
time_pass,
time_tot,
)
)
explist_file.write("%s\n" % str(expID))
elif error_type == 1:
print ("%s is missing!" % (sfile))
elif error_type == 2:
print ("%s has bad data type in exposure database!" % (sfile))
elif error_type == 3:
print ("%s has bad data type in detection database!" % (sfile))
elif error_type == 4:
print ("%s has bad WCS transform parameters!" % (sfile))
else:
print "Nothing"
# show the dirt every 100 ingests
# if at % 100. == 0:
# gc.collect()
# n_collected = gc.collect()
# if n_collected > 0:
# dump_garbage()
del pool
explist_file.close()
def calc_jd_utc(self):
h = time.gmtime()
ret = slalib.sla_caldj(h.tm_year, h.tm_mon, h.tm_mday) # ret[0] = MJD
jd_utc = ret[
0] + 2400000.5 + h.tm_hour / 24.0 + h.tm_min / 1440.0 + h.tm_sec / 86400.0
return jd_utc
# )
# ra.append(math.degrees(r1))
# dec.append(math.degrees(d1))
#
#with open("slalib_hip_map.txt", "w") as f:
# f.write("# Apparent RA DEC for J2000.0 in degrees.\n")
# for r, d in zip(ra, dec):
# s = "%14.9f %14.9f\n"
# f.write(s % (r, d))
# sla_aop
# Convert apparent to observed place.
tab['pma'] = np.radians(tab['pma'] / 3600.0) / 100.0
tab['pmd'] = np.radians(tab['pmd'] / 3600.0) / 100.0
utc = slalib.sla_caldj(2010, 1, 1)[0]
tt = slalib.sla_dtt(utc) / 86400.0 + utc
dut = 1.4823561643834426 # from TPM.
aob = np.zeros((len(tab['raj2']), ), dtype=np.float64)
zob = aob.copy()
hob = aob.copy()
dob = aob.copy()
rob = aob.copy()
lon = np.radians(-111.598333)
lat = np.radians(31.956389)
for j, i in enumerate(tab):
r1, d1 = slalib.sla_map(i['raj2'], i['decj2'], i['pma'], i['pmd'], i['px'],
0.0, 2000.0, tt)
aob[j], zob[j], hob[j], dob[j], rob[j] = \
def calc_jd_utc(self):
h = time.gmtime()
ret = slalib.sla_caldj(h.tm_year, h.tm_mon, h.tm_mday) # ret[0] = MJD
jd_utc = ret[0]+2400000.5+h.tm_hour/24.0+h.tm_min/1440.0+h.tm_sec/86400.0
return jd_utc