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('em.IR.15-30um', 'Infrared between 15 and 30 micron'),
('em.IR.30-60um', 'Infrared between 30 and 60 micron'),
('em.IR.60-100um', 'Infrared between 60 and 100 micron'),
('em.IR.FIR', 'Far-Infrared, 30-100 microns'),
('em.mm', 'Millimetric part of the spectrum'),
('em.mm.1500-3000GHz', 'Millimetric between 1500 and 3000 GHz'),
('em.mm.750-1500GHz', 'Millimetric between 750 and 1500 GHz'),
('em.mm.400-750GHz', 'Millimetric between 400 and 750 GHz'),
('em.mm.200-400GHz', 'Millimetric between 200 and 400 GHz'),
('em.mm.100-200GHz', 'Millimetric between 100 and 200 GHz'),
('em.mm.50-100GHz', 'Millimetric between 50 and 100 GHz'),
('em.mm.30-50GHz', 'Millimetric between 30 and 50 GHz'),
('em.radio', 'Radio part of the spectrum'),
('em.radio.12-30GHz', 'Radio between 12 and 30 GHz'),
('em.radio.6-12GHz', 'Radio between 6 and 12 GHz'),
('em.radio.3-6GHz', 'Radio between 3 and 6 GHz'),
('em.radio.1500-3000MHz','Radio between 1500 and 3000 MHz'),
('em.radio.750-1500MHz','Radio between 750 and 1500 MHz'),
('em.radio.400-750MHz', 'Radio between 400 and 750 MHz'),
('em.radio.200-400MHz', 'Radio between 200 and 400 MHz'),
('em.radio.100-200MHz', 'Radio between 100 and 200 MHz'),
('em.radio.20-100MHz', 'Radio between 20 and 100 MHz'),
)
# TP (2 Apr 2018): pretty sure this class is deprecated - most recent
# production use is T137114 = April 2015.
class EMBBEventLog(AutoIncrementModel):
"""EMBB EventLog: A multi-purpose annotation for EM followup.
A rectangle on the sky, equatorially aligned,
that has or will be imaged that is related to an event"""
class Meta:
ordering = ['-created', '-N']
unique_together = ("event","N")

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return "%s-%s-%d" % (self.event.graceid(), self.group.name, self.N)
# A counter for Eels associated with a given event. This is
# important for addressibility.
N = models.IntegerField(null=False)
# The time at which this Eel was created. Important for event auditing.
created = models.DateTimeField(auto_now_add=True)
# The gracedb event that this Eel relates to
event = models.ForeignKey(Event)
# The responsible author of this communication
submitter = models.ForeignKey(UserModel) # from a table of people
# The MOU group responsible
group = models.ForeignKey(EMGroup) # from a table of facilities
# The instrument used or intended for the imaging implied by this footprint
instrument = models.CharField(max_length=200, blank=True)
# Facility-local identifier for this footprint
footprintID= models.TextField(blank=True)
# Now the global ID is a concatenation: facilityName#footprintID
# the EM waveband used for the imaging as below
waveband = models.CharField(max_length=25, choices=EMSPECTRUM)
# The center of the bounding box of the rectangular footprints, right ascension and declination
# in J2000 in decimal degrees
ra = models.FloatField(null=True)
dec = models.FloatField(null=True)
# The width and height (RA range and Dec range) in decimal degrees of each image
raWidth = models.FloatField(null=True)
decWidth = models.FloatField(null=True)
# The GPS time of the middle of the bounding box of the imaging time
gpstime = models.PositiveIntegerField(null=True)
# The duration of each image in seconds
duration = models.PositiveIntegerField(null=True)
# The lists of RA and Dec of the centers of the images
raList = models.TextField(blank=True)
decList = models.TextField(blank=True)
# The width and height of each individual image
raWidthList = models.TextField(blank=True)
decWidthList = models.TextField(blank=True)
# The list of GPS times of the images
gpstimeList = models.TextField(blank=True)
# The duration of each individual image
durationList = models.TextField(blank=True)
# Event Log status
EEL_STATUS_CHOICES = (('FO','FOOTPRINT'), ('SO','SOURCE'), ('CO','COMMENT'), ('CI','CIRCULAR'))
eel_status = models.CharField(max_length=2, choices=EEL_STATUS_CHOICES)
# Observation status. If OBSERVATION, then there is a good chance of good image
OBS_STATUS_CHOICES = (('NA', 'NOT APPLICABLE'), ('OB','OBSERVATION'), ('TE','TEST'), ('PR','PREDICTION'))
obs_status = models.CharField(max_length=2, choices=OBS_STATUS_CHOICES)
# This field is natural language for human
comment = models.TextField(blank=True)

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# This field is formal struct by a syntax TBD
# for example {"phot.mag.limit": 22.3}
extra_info_dict = models.TextField(blank=True)
# For AutoIncrementModel save
AUTO_FIELD = 'N'
AUTO_CONSTRAINTS = ('event',)

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# Validates the input and builds bounding box in RA/Dec/GPS
def validateMakeRects(self):
# get all the list based position and times and their widths
raRealList = []
rawRealList = []
# add a [ and ] to convert the input csv list to a json parsable text
if self.raList: raRealList = json.loads('['+self.raList+']')
if self.raWidthList: rawRealList = json.loads('['+self.raWidthList+']')
if self.decList: decRealList = json.loads('['+self.decList+']')
if self.decWidthList: decwRealList = json.loads('['+self.decWidthList+']')
if self.gpstimeList: gpstimeRealList = json.loads('['+self.gpstimeList+']')
if self.durationList: durationRealList = json.loads('['+self.durationList+']')
# is there anything in the ra list?
nList = len(raRealList)
if nList > 0:
if decRealList and len(decRealList) != nList:
raise ValueError('RA and Dec lists are different lengths.')
if gpstimeRealList and len(gpstimeRealList) != nList:
raise ValueError('RA and GPS lists are different lengths.')
# is there anything in the raWidth list?
mList = len(rawRealList)
if mList > 0:
if decwRealList and len(decwRealList) != mList:
raise ValueError('RAwidth and Decwidth lists are different lengths.')
if durationRealList and len(durationRealList) != mList:
raise ValueError('RAwidth and Duration lists are different lengths.')
# There can be 1 width for the whole list, or one for each ra/dec/gps
if mList != 1 and mList != nList:
raise ValueError('Width and duration lists must be length 1 or same length as coordinate lists')
else:
mList = 0
ramin = 360.0
ramax = 0.0
decmin = 90.0
decmax = -90.0
gpsmin = 100000000000
gpsmax = 0
for i in range(nList):
try:
ra = float(raRealList[i])
except:
raise ValueError('Cannot read RA list element %d of %s'%(i, self.raList))
try:
dec = float(decRealList[i])
except:
raise ValueError('Cannot read Dec list element %d of %s'%(i, self.decList))
try:
gps = int(gpstimeRealList[i])
except:
raise ValueError('Cannot read GPStime list element %d of %s'%(i, self.gpstimeList))
# the widths list can have 1 member to cover all, or one for each
if mList==1: j=0
else : j=i
try:
w = float(rawRealList[j])/2
except:
raise ValueError('Cannot read raWidth list element %d of %s'%(i, self.raWidthList))
# evaluate bounding box
if ra-w < ramin: ramin = ra-w
if ra+w > ramax: ramax = ra+w
try:
w = float(decwRealList[j])/2
except:
raise ValueError('Cannot read raWidth list element %d of %s'%(i, self.decWidthList))
# evaluate bounding box
if dec-w < decmin: decmin = dec-w
if dec+w > decmax: decmax = dec+w
try:
w = int(durationRealList[j])/2
except:
raise ValueError('Cannot read duration list element %d of %s'%(i, self.durationList))
# evaluate bounding box
if gps-w < gpsmin: gpsmin = gps-w
if gps+w > gpsmax: gpsmax = gps+w
# Make sure the min/max ra and dec are within bounds:
ramin = max(0.0, ramin)
ramax = min(360.0, ramax)
decmin = max(-90.0, decmin)
decmax = min(90.0, decmax)
if nList>0:
self.ra = (ramin + ramax)/2
self.dec = (decmin + decmax)/2
self.gpstime = (gpsmin+gpsmax)/2
if mList>0:
self.raWidth = ramax-ramin
self.decWidth = decmax-decmin
self.duration = gpsmax-gpsmin
return True