def test_fmt_angle():
assert fmt_angle(1.9999, pre=3, trunc=True) == '+01 59 59.639'
assert fmt_angle(1.9999, pre=0, trunc=True) == '+01 59 59'
assert fmt_angle(12.348978659, pre=4, trunc=True) == '+12 20 56.3231'
assert fmt_angle(12.348978659, pre=5) == '+12 20 56.32317'
assert fmt_angle(12.348978659, s1='HH ', s2='MM ', s3='SS', pre=5) == '+12HH 20MM 56.32317SS'
x = 23+59/60.0+59.99999/3600.0
assert fmt_angle(x) == '+24 00 00.000'
assert fmt_angle(x, lower=0, upper=24, upper_trim=True) == '+00 00 00.000'
assert fmt_angle(x, pre=5) == '+23 59 59.99999'
assert fmt_angle(-x, lower=0, upper=24, upper_trim=True) == '+00 00 00.000'
assert fmt_angle(-x) == '-24 00 00.000'
def test_fmt_angle():
assert fmt_angle(1.9999, pre=3, trunc=True) == '+01 59 59.639'
assert fmt_angle(1.9999, pre=0, trunc=True) == '+01 59 59'
assert fmt_angle(12.348978659, pre=4, trunc=True) == '+12 20 56.3231'
assert fmt_angle(12.348978659, pre=5) == '+12 20 56.32317'
assert fmt_angle(12.348978659, s1='HH ', s2='MM ', s3='SS',
pre=5) == '+12HH 20MM 56.32317SS'
x = 23 + 59 / 60.0 + 59.99999 / 3600.0
assert fmt_angle(x) == '+24 00 00.000'
assert fmt_angle(x, lower=0, upper=24, upper_trim=True) == '+00 00 00.000'
assert fmt_angle(x, pre=5) == '+23 59 59.99999'
assert fmt_angle(-x, lower=0, upper=24, upper_trim=True) == '+00 00 00.000'
assert fmt_angle(-x) == '-24 00 00.000'
def write_ascii_file(self, dirname, outname):
"""
Write ascii file containing astronomy data
"""
# need the current time to update coordiantes
now = self.utc
if self.writecount > 0:
print("File %4d: %s (%d)" % (self.writecount, outname, self.count))
fullname = dirname + outname
outfile = open(fullname, 'w')
outfile.write('# File: ' + outname + '\n')
self.noteA = self.noteA.replace('\n', '')
self.noteA = self.noteA.strip()
outline = '# NOTEA = ' + self.noteA + '\n'
outfile.write(outline)
self.noteB = self.noteB.replace('\n', '')
self.noteB = self.noteB.strip()
outline = '# NOTEB = ' + self.noteB + '\n'
outfile.write(outline)
self.observer = self.observer.replace('\n', '')
self.observer = self.observer.strip()
outline = '# OBSERVER = ' + self.observer + '\n'
outfile.write(outline)
self.device = self.device.replace('\n', '')
self.device = self.device.strip()
outline = '# DEVICE = ' + self.device + '\n'
outfile.write(outline)
self.datadir = self.datadir.replace('\n', '')
self.datadir = self.datadir.strip()
outline = '# DATADIR = ' + self.datadir + '\n'
outfile.write(outline)
self.site = self.site.replace('\n', '')
self.site = self.site.strip()
outline = '# SITE = ' + self.site + '\n'
outfile.write(outline)
self.city = self.city.replace('\n', '')
self.city = self.city.strip()
outline = '# CITY = ' + self.city + '\n'
outfile.write(outline)
self.region = self.region.replace('\n', '')
self.region = self.region.strip()
outline = '# REGION = ' + self.region + '\n'
outfile.write(outline)
self.country = self.country.replace('\n', '')
self.country = self.country.strip()
outline = '# COUNTRY = ' + self.country + '\n'
outfile.write(outline)
self.telType = self.telType.replace('\n', '')
self.telType = self.telType.strip()
outline = '# TELTYPE = ' + self.telType + '\n'
outfile.write(outline)
self.frame = self.frame.replace('\n', '')
self.frame = self.frame.strip()
outline = '# FRAME = ' + self.frame + '\n'
outfile.write(outline)
ngains = len(self.gains)
if ngains > 0:
outline = '# GAIN1 = ' + str(self.gains[0]) + '\n'
outfile.write(outline)
if ngains > 1:
outline = '# GAIN2 = ' + str(self.gains[1]) + '\n'
outfile.write(outline)
if ngains > 2:
outline = '# GAIN3 = ' + str(self.gains[2]) + '\n'
outfile.write(outline)
if ngains > 3:
outline = '# GAIN4 = ' + str(self.gains[3]) + '\n'
outfile.write(outline)
outline = '# Count = ' + str(self.count) + '\n'
outfile.write(outline)
outline = '# CenterFreq= ' + str(self.centerFreqHz) + '\n'
outfile.write(outline)
outline = '# Bandwidth = ' + str(self.bandwidthHz) + '\n'
outfile.write(outline)
outline = '# Duration = ' + str(self.durationSec) + '\n'
outfile.write(outline)
outline = '# DeltaX = ' + str(self.deltaFreq) + '\n'
outfile.write(outline)
outline = '# TSYS = ' + str(self.tSys) + '\n'
outfile.write(outline)
outline = '# TRX = ' + str(self.tRx) + '\n'
outfile.write(outline)
outline = '# TRMS = ' + str(self.tRms) + '\n'
outfile.write(outline)
outline = '# TINT = ' + str(self.tint) + '\n'
outfile.write(outline)
outline = '# KPERC = ' + str(self.KperC) + '\n'
outfile.write(outline)
outline = '# GAINFACT = ' + str(self.gainFactor) + '\n'
outfile.write(outline)
outline = '# BUNIT = ' + str(self.bunit).strip() + '\n'
outfile.write(outline)
outline = '# NCHAN = ' + str(self.nChan) + '\n'
outfile.write(outline)
outline = '# NSPEC = ' + str(self.nSpec) + '\n'
outfile.write(outline)
outline = '# NTIME = ' + str(self.nTime) + '\n'
outfile.write(outline)
outline = '# NSAMPLES = ' + str(self.nSamples) + '\n'
outfile.write(outline)
outline = '# EPEAK = ' + str(self.epeak) + '\n'
outfile.write(outline)
outline = '# ERMS = ' + str(self.erms) + '\n'
outfile.write(outline)
outline = '# EMJD = %18.12f \n' % (self.emjd)
outfile.write(outline)
outline = '# REFCHAN = ' + str(self.refChan) + '\n'
outfile.write(outline)
outline = '# REFSAMPL = ' + str(self.refSample) + '\n'
outfile.write(outline)
nave = self.nave
outline = '# NAVE = ' + str(nave) + '\n'
outfile.write(outline)
nmedian = self.nmedian
outline = '# NMEDIAN = ' + str(nmedian) + '\n'
outfile.write(outline)
outline = '# Fft_rate = ' + str(self.fft_rate) + '\n'
outfile.write(outline)
strnow = now.isoformat()
dates = strnow.split('T')
datestr = dates[0] + ' ' + dates[1]
outline = '# UTC = ' + datestr + '\n'
outfile.write(outline)
outline = '# SECONDS = %18.10f \n' % (self.seconds)
outfile.write(outline)
lststr = angles.fmt_angle(self.lst / 15., s1=":", s2=":",
pre=3) # convert to hours
outline = '# LST = ' + lststr[1:] + '\n'
outfile.write(outline)
outline = '# AZ = ' + str(self.telaz) + '\n'
outfile.write(outline)
outline = '# EL = ' + str(self.telel) + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellon), s1=":", s2=":")
outline = '# TELLON = ' + anglestr + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellat), s1=":", s2=":")
outline = '# TELLAT = ' + anglestr + '\n'
outfile.write(outline)
rastr = angles.fmt_angle(self.ra / 15., s1=":", s2=":",
pre=3) # convert to hours
outline = '# RA = ' + rastr[1:] + '\n'
outfile.write(outline)
decstr = angles.fmt_angle(self.dec, s1=":", s2=":")
outline = '# DEC = ' + decstr + '\n'
outfile.write(outline)
lonstr = angles.fmt_angle(self.gallon, s1=":", s2=":", pre=2)
outline = '# GALLON = ' + lonstr[1:] + '\n'
outfile.write(outline)
latstr = angles.fmt_angle(self.gallat, s1=":", s2=":", pre=2)
outline = '# GALLAT = ' + latstr + '\n'
outfile.write(outline)
altstr = angles.fmt_angle(self.altsun, s1=":", s2=":", pre=1)
outline = '# ALT_SUN = ' + altstr + '\n'
outfile.write(outline)
az_str = angles.fmt_angle(self.az_sun, s1=":", s2=":", pre=1)
outline = '# AZ_SUN = ' + az_str + '\n'
outfile.write(outline)
outline = '# ETAA = ' + str(self.etaA) + '\n'
outfile.write(outline)
outline = '# ETAB = ' + str(self.etaB) + '\n'
outfile.write(outline)
outline = '# POLANGLE = ' + str(self.polAngle) + '\n'
outfile.write(outline)
outline = '# TELSIZEAM = ' + str(self.telSizeAm) + '\n'
outfile.write(outline)
outline = '# TELSIZEBM = ' + str(self.telSizeBm) + '\n'
outfile.write(outline)
outline = '# AST_VERS = ' + str("05.01") + '\n'
outfile.write(outline)
if self.nTime > 0: # if an event
self.nSpec = 0 # then not a spectrum
# if a spectrum in this data stream
if self.nSpec > 0:
dx = self.bandwidthHz / float(self.nChan)
x = self.centerFreqHz - (self.bandwidthHz / 2.) + (dx / 2.)
leny = len(self.ydataA)
if self.nSpec > 1:
pformat = "%04d %s %.4f %.4f\n"
for i in range(min(self.nChan, leny)):
outline = pformat % (i, str(
int(x)), self.ydataA[i], self.ydataB[i])
outfile.write(outline)
x = x + dx
else:
pformat = "%04d %s %.4f\n"
for i in range(min(self.nChan, leny)):
# outline = str(i).zfill(4) + ' ' + str(long(x)) + ' ' + str(self.ydataA[i]) + '\n'
outline = pformat % (i, str(int(x)), self.ydataA[i])
outline = outline.replace(' ', ' ')
outfile.write(outline)
x = x + dx
del outline
if self.nTime > 0:
dt = 1. / self.bandwidthHz # sample rate is inverse bandwidth
t = -dt * self.refSample # time tag relative to event sample
leny = len(self.ydataA)
self.nChan = 0 # cannot be both samples and spectra
if leny > self.nSamples:
self.nSamples = leny
print("Y array length and N Sample miss match:", leny,
self.nSamples)
if TIMEPARTS == 2: # if not writing time
outline = "# I Q\n"
outfile.write(outline)
pformat = "%.5f %.5f\n"
if self.nSamples < 2:
print("Very small number of samples: ", self.nSamples)
print("N Chan: %5d; N x: %5d " %
(self.nChan, len(self.xdata)))
print("N y1 : %5d; N y2: %5d " %
(len(self.ydataA), len(self.ydataB)))
for i in range(self.nSamples):
outline = pformat % (self.ydataA[i], self.ydataB[i])
outline = outline.replace(' 0.', ' .')
outline = outline.replace('-0.', '-.')
outfile.write(outline)
else: # else writing sample #, time, I and Q
outline = "# dt I Q\n"
outfile.write(outline)
pformat = "%04d %11.9f %7.5f %7.5f\n"
for i in range(self.nSamples):
outline = pformat % (i, t, self.ydataA[i], self.ydataB[i])
outline = outline.replace(' 0.', ' .')
outline = outline.replace('-0.', '-.')
outfile.write(outline)
t = t + dt
del outline
outfile.close()
def write_ascii_file(self, dirname, outname):
"""
Write ascii file containing astronomy data
"""
# need the current time to update coordiantes
now = self.utc
print "File %4d: %s (%d)" % (self.writecount, outname, self.count)
fullname = dirname + outname
outfile = open(fullname, 'w')
outfile.write('# File: ' + outname + '\n')
gainstr = ''
ngains = len(self.gains)
for iii in range(ngains-1):
gainstr = gainstr + str(self.gains[iii]) + '; '
gainstr = gainstr + str(self.gains[ngains-1])
self.noteA = self.noteA.replace('\n', '')
self.noteA = self.noteA.strip()
outline = '# NOTEA = ' + self.noteA + '\n'
outfile.write(outline)
self.noteB = self.noteB.replace('\n', '')
self.noteB = self.noteB.strip()
outline = '# NOTEB = ' + self.noteB + '\n'
outfile.write(outline)
self.observer = self.observer.replace('\n', '')
self.observer = self.observer.strip()
outline = '# OBSERVER = ' + self.observer + '\n'
outfile.write(outline)
self.device = self.device.replace('\n', '')
self.device = self.device.strip()
outline = '# DEVICE = ' + self.device + '\n'
outfile.write(outline)
self.datadir = self.datadir.replace('\n', '')
self.datadir = self.datadir.strip()
outline = '# DATADIR = ' + self.datadir + '\n'
outfile.write(outline)
self.site = self.site.replace('\n', '')
self.site = self.site.strip()
outline = '# SITE = ' + self.site + '\n'
outfile.write(outline)
self.city = self.city.replace('\n', '')
self.city = self.city.strip()
outline = '# CITY = ' + self.city + '\n'
outfile.write(outline)
self.region = self.region.replace('\n', '')
self.region = self.region.strip()
outline = '# REGION = ' + self.region + '\n'
outfile.write(outline)
self.country = self.country.replace('\n', '')
self.country = self.country.strip()
outline = '# COUNTRY = ' + self.country + '\n'
outfile.write(outline)
self.telType = self.telType.replace('\n', '')
self.telType = self.telType.strip()
outline = '# TELTYPE = ' + self.telType + '\n'
outfile.write(outline)
self.frame = self.frame.replace('\n', '')
self.frame = self.frame.strip()
outline = '# FRAME = ' + self.frame + '\n'
outfile.write(outline)
outline = '# GAINS = ' + gainstr + '\n'
outfile.write(outline)
ngains = len(self.gains)
if ngains > 0:
outline = '# GAIN1 = ' + str(self.gains[0]) + '\n'
outfile.write(outline)
if ngains > 1:
outline = '# GAIN2 = ' + str(self.gains[1]) + '\n'
outfile.write(outline)
if ngains > 2:
outline = '# GAIN3 = ' + str(self.gains[2]) + '\n'
outfile.write(outline)
if ngains > 3:
outline = '# GAIN4 = ' + str(self.gains[3]) + '\n'
outfile.write(outline)
outline = '# Count = ' + str(self.count) + '\n'
outfile.write(outline)
outline = '# CenterFreq= ' + str(self.centerFreqHz) + '\n'
outfile.write(outline)
outline = '# Bandwidth = ' + str(self.bandwidthHz) + '\n'
outfile.write(outline)
outline = '# Duration = ' + str(self.durationSec) + '\n'
outfile.write(outline)
outline = '# DeltaX = ' + str(self.deltaFreq) + '\n'
outfile.write(outline)
outline = '# BUNIT = ' + str(self.bunit).strip() + '\n'
outfile.write(outline)
nChan = len(self.ydataA)
outline = '# NCHAN = ' + str(nChan) + '\n'
outfile.write(outline)
nSpec = self.nSpec
outline = '# NSPEC = ' + str(nSpec) + '\n'
outfile.write(outline)
nTime = self.nTime
outline = '# NTIME = ' + str(nTime) + '\n'
outfile.write(outline)
nSamples = self.nSamples
outline = '# NSAMPLES = ' + str(nSamples) + '\n'
outfile.write(outline)
outline = '# EPEAK = ' + str(self.epeak) + '\n'
outfile.write(outline)
outline = '# ERMS = ' + str(self.erms) + '\n'
outfile.write(outline)
outline = '# REFCHAN = ' + str(self.refChan) + '\n'
outfile.write(outline)
outline = '# REFSAMPL = ' + str(self.refSample) + '\n'
outfile.write(outline)
nave = self.nave
outline = '# NAVE = ' + str(nave) + '\n'
outfile.write(outline)
nmedian = self.nmedian
outline = '# NMEDIAN = ' + str(nmedian) + '\n'
outfile.write(outline)
outline = '# Fft_rate = ' + str(self.fft_rate) + '\n'
outfile.write(outline)
strnow = now.isoformat()
dates = strnow.split('T')
datestr = dates[0] + ' ' + dates[1]
outline = '# UTC = ' + datestr + '\n'
outfile.write(outline)
lststr = angles.fmt_angle(self.lst/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# LST = ' + lststr[1:] + '\n'
outfile.write(outline)
outline = '# AZ = ' + str(self.telaz) + '\n'
outfile.write(outline)
outline = '# EL = ' + str(self.telel) + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellon), s1=":", s2=":")
outline = '# TELLON = ' + anglestr + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellat), s1=":", s2=":")
outline = '# TELLAT = ' + anglestr + '\n'
outfile.write(outline)
rastr = angles.fmt_angle(self.ra/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# RA = ' + rastr[1:] + '\n'
outfile.write(outline)
decstr = angles.fmt_angle(self.dec, s1=":", s2=":")
outline = '# DEC = ' + decstr + '\n'
outfile.write(outline)
lonstr = angles.fmt_angle(self.gallon, s1=":", s2=":", pre=2)
outline = '# GALLON = ' + lonstr[1:] + '\n'
outfile.write(outline)
latstr = angles.fmt_angle(self.gallat, s1=":", s2=":", pre=2)
outline = '# GALLAT = ' + latstr + '\n'
outfile.write(outline)
altstr = angles.fmt_angle(self.altsun, s1=":", s2=":", pre=1)
outline = '# ALT_SUN = ' + altstr + '\n'
outfile.write(outline)
az_str = angles.fmt_angle(self.az_sun, s1=":", s2=":", pre=1)
outline = '# AZ_SUN = ' + az_str + '\n'
outfile.write(outline)
outline = '# ETAA = ' + str(self.etaA) + '\n'
outfile.write(outline)
outline = '# ETAB = ' + str(self.etaB) + '\n'
outfile.write(outline)
outline = '# POLANGLE = ' + str(self.polAngle) + '\n'
outfile.write(outline)
outline = '# TELSIZEAM = ' + str(self.telSizeAm) + '\n'
outfile.write(outline)
outline = '# TELSIZEBM = ' + str(self.telSizeBm) + '\n'
outfile.write(outline)
outline = '# AST_VERS = ' + str("05.01") + '\n'
outfile.write(outline)
if self.nTime > 0: # if an event
self.nSpec = 0 # then not a spectrum
# if a spectrum in this data stream
if self.nSpec > 0:
dx = self.bandwidthHz/float(self.nChan)
x = self.centerFreqHz - (self.bandwidthHz/2.) + (dx/2.)
yv = self.ydataA
leny = len(yv)
for i in range(min(self.nChan, leny)):
outline = str(i).zfill(4) + ' ' + str(long(x)) + ' ' + str(yv[i]) + '\n'
outfile.write(outline)
x = x + dx
del outline
if self.nTime > 0:
dt = 1./self.bandwidthHz # sample rate is inverse bandwidth
t = -dt * self.refSample # time tag relative to event sample
yvI = self.ydataA # time samples are I/Q (complex) values
yvQ = self.ydataB # time samples are I/Q (complex) values
leny = len(yvI)
if TIMEPARTS == 2: # if not writing time
outline = "# I Q\n"
outfile.write(outline)
pformat = "%.5f %.5f\n"
for i in range(min(self.nSamples, leny)):
outline = pformat % (yvI[i], yvQ[i])
outline = outline.replace(' 0.', ' .')
outline = outline.replace('-0.', '-.')
outfile.write(outline)
else: # else writing sample #, time, I and Q
outline = "# dt I Q\n"
outfile.write(outline)
pformat = "%04d %11.9f %7.5f %7.5f\n"
for i in range(min(self.nSamples, leny)):
outline = pformat % (i, t, yvI[i], yvQ[i])
outline = outline.replace(' 0.', ' .')
outline = outline.replace('-0.', '-.')
outfile.write(outline)
t = t + dt
del outline
outfile.close()
def copy_leda_orig_into_leda(db):
cursor = db.cursor()
# add the column definition for kleda to kcolumns
cursor.execute('delete from kcolumns where dbtable like "%kleda";')
db.commit()
cursor.execute('delete from ktables where dbtable like "%kleda";')
db.commit()
define_leda_columns(db)
# retrive the list of columns just added using a query
cursor.execute(
'select tabcolumn from kcolumns where dbtable like "%kleda";')
results = cursor.fetchall()
# turn into array
columns = [x[0].lstrip().rstrip() for x in results]
# turn into a string separated by comma
columns = ",".join(columns)
print "Creating a new kleda from kleda_orig using columns: " + columns
cursor.execute("drop table if exists kleda;")
db.commit()
cursor.execute("Create table kleda select " + columns +
" from kleda_orig;")
db.commit()
# add primary key
cursor.execute("alter table kleda add primary key (pgc);")
db.commit()
# make sure we don't display kleda_orig
cursor.execute('delete from kcolumns where dbtable like "%kleda_orig%";')
db.commit()
cursor.execute('delete from ktables where dbtable like "%kleda_orig%";')
db.commit()
# make sure we display kleda
cursor.execute('INSERT into ktables values\
("kleda","Redshift Catalogs","NULL","LEDA","LEDA","LEDA database","NULL","NULL");'
)
db.commit()
# calculate RA and DEC from al2000 de2000
print "reading ra and dec..."
cursor.execute("Select al2000,de2000 from kleda;")
results = cursor.fetchall()
cursor.close()
cursor = db.cursor()
print "transforming into new format..."
ra = [
"" if x[0] is None else str(
angles.fmt_angle(float(x[0]), lower=0, upper=24, pre=1)).replace(
"+", "").replace(" ", "") for x in results
]
dec = [
"" if x[1] is None else str(
angles.fmt_angle(float(x[1]), lower=-90, upper=90, pre=1)).replace(
" ", "") for x in results
]
#dec = ["" if x is "" else x[:7] for x in dec]
print "reading kleda ..."
cursor.execute("select * from kleda;")
results = cursor.fetchall()
results = [list(x) for x in results]
# add the RA2000 and DEC2000 columns
cursor.execute("ALTER TABLE kleda ADD COLUMN RA2000 varchar(20);")
db.commit()
cursor.execute("ALTER TABLE kleda ADD COLUMN DEC2000 varchar(20);")
db.commit()
cursor.execute(
"INSERT INTO kcolumns(dbtable,tabcolumn,units,description,ucd,justification,format) VALUES ('kleda','RA2000','h','Right Ascension (J2000)','','r','%12s');"
)
db.commit()
cursor.execute(
"INSERT INTO kcolumns(dbtable,tabcolumn,units,description,ucd,justification,format) VALUES ('kleda','DEC2000','deg','Declination (J2000)','','r','%12s');"
)
db.commit()
print "adding RA and DEC..."
for k in range(len(results)):
results[k].append(ra[k])
results[k].append(dec[k])
cursor.execute("Delete from kleda;")
db.commit()
cursor.close()
cursor = db.cursor()
format = "%s," * len(results[0])
format = format[:-1]
print "lines to add to leda: " + str(len(results))
print "now inserting into kleda with new coordinates..."
print results[0]
for data in results:
try:
cursor.execute("Insert into kleda values(" + format + ");", data)
except:
print "Error: cannot add the data:"
print data
db.commit()
cursor.close()
def copy_leda_orig_into_leda(db):
cursor=db.cursor()
# add the column definition for kleda to kcolumns
cursor.execute('delete from kcolumns where dbtable like "%kleda";')
db.commit()
cursor.execute('delete from ktables where dbtable like "%kleda";')
db.commit()
define_leda_columns(db)
# retrive the list of columns just added using a query
cursor.execute('select tabcolumn from kcolumns where dbtable like "%kleda";')
results=cursor.fetchall()
# turn into array
columns=[x[0].lstrip().rstrip() for x in results]
# turn into a string separated by comma
columns=",".join(columns)
print "Creating a new kleda from kleda_orig using columns: "+columns
cursor.execute("drop table if exists kleda;")
db.commit()
cursor.execute("Create table kleda select "+columns+" from kleda_orig;")
db.commit()
# add primary key
cursor.execute("alter table kleda add primary key (pgc);")
db.commit()
# make sure we don't display kleda_orig
cursor.execute('delete from kcolumns where dbtable like "%kleda_orig%";')
db.commit()
cursor.execute('delete from ktables where dbtable like "%kleda_orig%";')
db.commit()
# make sure we display kleda
cursor.execute('INSERT into ktables values\
("kleda","Redshift Catalogs","NULL","LEDA","LEDA","LEDA database","NULL","NULL");')
db.commit()
# calculate RA and DEC from al2000 de2000
print "reading ra and dec..."
cursor.execute("Select al2000,de2000 from kleda;")
results=cursor.fetchall()
cursor.close()
cursor=db.cursor()
print "transforming into new format..."
ra = ["" if x[0] is None else str(angles.fmt_angle(float(x[0]),lower=0,upper=24,pre=1)).replace("+","").replace(" ","") for x in results]
dec = ["" if x[1] is None else str(angles.fmt_angle(float(x[1]),lower=-90,upper=90,pre=1)).replace(" ","") for x in results]
#dec = ["" if x is "" else x[:7] for x in dec]
print "reading kleda ..."
cursor.execute("select * from kleda;")
results=cursor.fetchall()
results=[list(x) for x in results]
# add the RA2000 and DEC2000 columns
cursor.execute("ALTER TABLE kleda ADD COLUMN RA2000 varchar(20);")
db.commit()
cursor.execute("ALTER TABLE kleda ADD COLUMN DEC2000 varchar(20);")
db.commit()
cursor.execute("INSERT INTO kcolumns(dbtable,tabcolumn,units,description,ucd,justification,format) VALUES ('kleda','RA2000','h','Right Ascension (J2000)','','r','%12s');")
db.commit()
cursor.execute("INSERT INTO kcolumns(dbtable,tabcolumn,units,description,ucd,justification,format) VALUES ('kleda','DEC2000','deg','Declination (J2000)','','r','%12s');")
db.commit()
print "adding RA and DEC..."
for k in range(len(results)):
results[k].append(ra[k])
results[k].append(dec[k])
cursor.execute("Delete from kleda;")
db.commit()
cursor.close()
cursor=db.cursor()
format = "%s,"*len(results[0])
format = format[:-1]
print "lines to add to leda: "+str(len(results))
print "now inserting into kleda with new coordinates..."
print results[0]
for data in results:
try:
cursor.execute("Insert into kleda values("+format+");",data)
except:
print "Error: cannot add the data:"
print data
db.commit()
cursor.close()
def dec_str(self):
return angles.fmt_angle(self.dec_deg, ":", ":")
def ra_str(self):
return angles.fmt_angle(self.ra_hrs, ":", ":").lstrip('+-')
def dec_str(self):
return angles.fmt_angle(self.dec_deg, ":", ":")
def ra_str(self):
return angles.fmt_angle(self.ra_hrs, ":", ":").lstrip('+-')
def format_hours(value):
string_value = angles.fmt_angle(value, 'h', 'm', 's')
if string_value[0] == '+':
string_value = string_value[1:]
return string_value
def format_degrees(value):
string_value = angles.fmt_angle(value, ':', ':', '')
if string_value[0] == '+':
string_value = string_value[1:]
return string_value
def write_ascii_file(self, dirname, outname):
"""
Write ascii file containing astronomy data
"""
# need the current time to update coordiantes
now = self.utc
print "File %4d: %s (%d)" % (self.writecount, outname, self.count)
fullname = dirname + outname
outfile = open(fullname, 'w')
outfile.write('# File: ' + outname + '\n')
gainstr = ''
ngains = len(self.gains)
for iii in range(ngains-1):
gainstr = gainstr + str(self.gains[iii]) + '; '
gainstr = gainstr + str(self.gains[ngains-1])
self.noteA = self.noteA.replace('\n', '')
self.noteA = self.noteA.strip()
outline = '# NOTEA = ' + self.noteA + '\n'
outfile.write(outline)
self.noteB = self.noteB.replace('\n', '')
self.noteB = self.noteB.strip()
outline = '# NOTEB = ' + self.noteB + '\n'
outfile.write(outline)
self.observer = self.observer.replace('\n', '')
self.observer = self.observer.strip()
outline = '# OBSERVER = ' + self.observer + '\n'
outfile.write(outline)
self.device = self.device.replace('\n', '')
self.device = self.device.strip()
outline = '# DEVICE = ' + self.device + '\n'
outfile.write(outline)
self.datadir = self.datadir.replace('\n', '')
self.datadir = self.datadir.strip()
outline = '# DATADIR = ' + self.datadir + '\n'
outfile.write(outline)
self.site = self.site.replace('\n', '')
self.site = self.site.strip()
outline = '# SITE = ' + self.site + '\n'
outfile.write(outline)
self.city = self.city.replace('\n', '')
self.city = self.city.strip()
outline = '# CITY = ' + self.city + '\n'
outfile.write(outline)
self.region = self.region.replace('\n', '')
self.region = self.region.strip()
outline = '# REGION = ' + self.region + '\n'
outfile.write(outline)
self.country = self.country.replace('\n', '')
self.country = self.country.strip()
outline = '# COUNTRY = ' + self.country + '\n'
outfile.write(outline)
self.telType = self.telType.replace('\n', '')
self.telType = self.telType.strip()
outline = '# TELTYPE = ' + self.telType + '\n'
outfile.write(outline)
self.frame = self.frame.replace('\n', '')
self.frame = self.frame.strip()
outline = '# FRAME = ' + self.frame + '\n'
outfile.write(outline)
outline = '# GAINS = ' + gainstr + '\n'
outfile.write(outline)
ngains = len(self.gains)
if ngains > 0:
outline = '# GAIN1 = ' + str(self.gains[0]) + '\n'
outfile.write(outline)
if ngains > 1:
outline = '# GAIN2 = ' + str(self.gains[1]) + '\n'
outfile.write(outline)
if ngains > 2:
outline = '# GAIN3 = ' + str(self.gains[2]) + '\n'
outfile.write(outline)
if ngains > 3:
outline = '# GAIN4 = ' + str(self.gains[3]) + '\n'
outfile.write(outline)
outline = '# Count = ' + str(self.count) + '\n'
outfile.write(outline)
outline = '# CenterFreq= ' + str(self.centerFreqHz) + '\n'
outfile.write(outline)
outline = '# Bandwidth = ' + str(self.bandwidthHz) + '\n'
outfile.write(outline)
outline = '# Duration = ' + str(self.durationSec) + '\n'
outfile.write(outline)
outline = '# DeltaX = ' + str(self.deltaFreq) + '\n'
outfile.write(outline)
outline = '# BUNIT = ' + str(self.bunit).strip() + '\n'
outfile.write(outline)
nChan = len(self.ydataA)
outline = '# NCHAN = ' + str(nChan) + '\n'
outfile.write(outline)
nSpec = self.nSpec
outline = '# NSPEC = ' + str(nSpec) + '\n'
outfile.write(outline)
nave = self.nave
outline = '# NAVE = ' + str(nave) + '\n'
outfile.write(outline)
nmedian = self.nmedian
outline = '# NMEDIAN = ' + str(nmedian) + '\n'
outfile.write(outline)
outline = '# Fft_rate = ' + str(self.fft_rate) + '\n'
outfile.write(outline)
strnow = now.isoformat()
dates = strnow.split('T')
datestr = dates[0] + ' ' + dates[1]
outline = '# UTC = ' + datestr + '\n'
outfile.write(outline)
lststr = angles.fmt_angle(self.lst/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# LST = ' + lststr[1:] + '\n'
outfile.write(outline)
outline = '# AZ = ' + str(self.telaz) + '\n'
outfile.write(outline)
outline = '# EL = ' + str(self.telel) + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellon), s1=":", s2=":")
outline = '# TELLON = ' + anglestr + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellat), s1=":", s2=":")
outline = '# TELLAT = ' + anglestr + '\n'
outfile.write(outline)
rastr = angles.fmt_angle(self.ra/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# RA = ' + rastr[1:] + '\n'
outfile.write(outline)
decstr = angles.fmt_angle(self.dec, s1=":", s2=":")
outline = '# DEC = ' + decstr + '\n'
outfile.write(outline)
lonstr = angles.fmt_angle(self.gallon, s1=":", s2=":", pre=2)
outline = '# GALLON = ' + lonstr[1:] + '\n'
outfile.write(outline)
latstr = angles.fmt_angle(self.gallat, s1=":", s2=":", pre=2)
outline = '# GALLAT = ' + latstr + '\n'
outfile.write(outline)
altstr = angles.fmt_angle(self.altsun, s1=":", s2=":", pre=1)
outline = '# ALT_SUN = ' + altstr + '\n'
outfile.write(outline)
az_str = angles.fmt_angle(self.az_sun, s1=":", s2=":", pre=1)
outline = '# AZ_SUN = ' + az_str + '\n'
outfile.write(outline)
outline = '# ETAA = ' + str(self.etaA) + '\n'
outfile.write(outline)
outline = '# ETAB = ' + str(self.etaB) + '\n'
outfile.write(outline)
outline = '# POLANGLE = ' + str(self.polAngle) + '\n'
outfile.write(outline)
outline = '# TELSIZEAM = ' + str(self.telSizeAm) + '\n'
outfile.write(outline)
outline = '# TELSIZEBM = ' + str(self.telSizeBm) + '\n'
outfile.write(outline)
outline = '# AST_VERS = ' + str("04.02") + '\n'
outfile.write(outline)
dx = self.bandwidthHz/float(self.nChan)
x = self.centerFreqHz - (self.bandwidthHz/2.) + (dx/2.)
yv = self.ydataA
leny = len(yv)
for i in range(min(self.nChan,leny)):
outline = str(i).zfill(4) + ' ' + str(long(x)) + ' ' + str(yv[i]) + '\n'
outfile.write(outline)
x = x + dx
del outline
outfile.close()
def _write_fil(self, ibeam):
"""
Write calibrated data to .fil files.
Method produces a separate .fil file for each beam index in `beams`.
Resulting files contain header and observations data of shape
(`self.nsamples`, `self.nbands`)
Parameters
----------
ibeam : int
Beam index
"""
header = {
'az_start':
self.az,
'data_type':
1,
'fch1':
self.fbands[-1],
'foff':
-self.wbands[-1],
'ibeam':
ibeam,
'machine_id':
10000,
'nbeams':
self.data.shape[1],
'nbits':
32,
'nchans':
self.data.shape[2] - 1, # Excluding sum of channels
'nifs':
1,
'nsamples':
self.data.shape[0],
'rawdatafile':
self.filename,
# Declination for central frequency channel
'src_dej':
fmt_angle(DeltaAngle(r=np.median(self.dej[ibeam])).d,
s1='',
s2='',
s3='',
pre=2),
# RA at the beginning of the observation, central freq channel
'src_raj':
fmt_angle(AlphaAngle(r=np.median(self.ra[0, ibeam])).h,
s1='',
s2='',
s3='',
pre=2),
'za_start':
np.median(self.za[ibeam]),
'telescope_id':
10000,
'tsamp':
self.resolution,
'tstart':
self.mjd[0]
}
path = self.PATH_OUTPUT \
+ f"{self.filename.split('.')[0]}beam{ibeam}.fil"
beam = self.data[:, ibeam, :-1]
logger.info(f'Writing {beam.shape[1]} frequency bands '
f'of {beam.shape[0]} samples to {path}')
sigproc_write(path, header, np.flip(beam, 1))
def write_ascii_file(self, dirname, outname):
"""
Write ascii file containing astronomy data
"""
# need the current time to update coordiantes
now = self.utc
print "File %4d: %s (%d)" % (self.writecount, outname, self.count)
fullname = dirname + outname
outfile = open(fullname, 'w')
outfile.write('# File: ' + outname + '\n')
if len(str(self.noteA)) > 1:
outfile.write('# ' + str(self.noteA) + '\n')
if len(str(self.noteB)) > 1:
outfile.write('# ' + str(self.noteB) + '\n')
gainstr = ''
ngains = len(self.gains)
for iii in range(ngains-1):
gainstr = gainstr + str(self.gains[iii]) + '; '
gainstr = gainstr + str(self.gains[ngains-1])
outline = '# GAINS = ' + gainstr + '\n'
outfile.write(outline)
outline = '# Count = ' + str(self.count) + '\n'
outfile.write(outline)
outline = '# CenterFreq= ' + str(self.centerFreqHz) + '\n'
outfile.write(outline)
outline = '# Bandwidth = ' + str(self.bandwidthHz) + '\n'
outfile.write(outline)
outline = '# Duration = ' + str(self.durationSec) + '\n'
outfile.write(outline)
outline = '# DeltaX = ' + str(self.deltaFreq) + '\n'
outfile.write(outline)
nChan = len(self.ydataA)
outline = '# NCHAN = ' + str(nChan) + '\n'
outfile.write(outline)
strnow = now.isoformat()
dates = strnow.split('T')
datestr = dates[0] + ' ' + dates[1]
outline = '# UTC = ' + datestr + '\n'
outfile.write(outline)
lststr = angles.fmt_angle(self.lst/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# LST = ' + lststr[1:] + '\n'
outfile.write(outline)
outline = '# AZ = ' + str(self.telaz) + '\n'
outfile.write(outline)
outline = '# EL = ' + str(self.telel) + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellon), s1=":", s2=":")
outline = '# TELLON = ' + anglestr + '\n'
outfile.write(outline)
anglestr = angles.fmt_angle(float(self.tellat), s1=":", s2=":")
outline = '# TELLAT = ' + anglestr + '\n'
outfile.write(outline)
rastr = angles.fmt_angle(self.ra/15., s1=":", s2=":", pre=3) # convert to hours
outline = '# RA = ' + rastr[1:] + '\n'
outfile.write(outline)
decstr = angles.fmt_angle(self.dec, s1=":", s2=":")
outline = '# DEC = ' + decstr + '\n'
outfile.write(outline)
lonstr = angles.fmt_angle(self.gallon, s1=":", s2=":", pre=2)
outline = '# GALLON = ' + lonstr[1:] + '\n'
outfile.write(outline)
latstr = angles.fmt_angle(self.gallat, s1=":", s2=":", pre=2)
outline = '# GALLAT = ' + latstr + '\n'
outfile.write(outline)
altstr = angles.fmt_angle(self.altsun, s1=":", s2=":", pre=1)
outline = '# ALT_SUN = ' + altstr + '\n'
outfile.write(outline)
az_str = angles.fmt_angle(self.az_sun, s1=":", s2=":", pre=1)
outline = '# AZ_SUN = ' + az_str + '\n'
outfile.write(outline)
outline = '# AST_VERS = ' + str("02.01") + '\n'
outfile.write(outline)
dx = self.bandwidthHz/float(self.nChan)
x = self.centerFreqHz - (self.bandwidthHz/2.) + (dx/2.)
yv = self.ydataA
leny = len(yv)
for i in range(min(self.nChan,leny)):
outline = str(i).zfill(4) + ' ' + str(long(x)) + ' ' + str(yv[i]) + '\n'
outfile.write(outline)
x = x + dx
del outline
outfile.close()