def flushPrint (tMin, tMax, poldata):
print 'Start/end times:', util.jdToFull (tMin), ';', util.jdToFull (tMax)
print 'Duration:', (tMax - tMin) * 24 * 60, 'min'
pols = sorted (poldata.iterkeys (), key=lambda p: abs (p))
for pol in pols:
pname = util.polarizationName (pol)
mreal, mimag, amp, uamp, phdeg, uphdeg, count = poldata[pol]
print '%s: real %f, imag %f, amp %f (+- %f), ph %f deg (+- %f) (%d items)' % \
(pname, mreal, mimag, amp, uamp, phdeg, uphdeg, count)
def flushPrint(tMin, tMax, poldata):
print 'Start/end times:', util.jdToFull(tMin), ';', util.jdToFull(tMax)
print 'Duration:', (tMax - tMin) * 24 * 60, 'min'
pols = sorted(poldata.iterkeys(), key=lambda p: abs(p))
for pol in pols:
pname = util.polarizationName(pol)
mreal, mimag, amp, uamp, phdeg, uphdeg, count = poldata[pol]
print '%s: real %f, imag %f, amp %f (+- %f), ph %f deg (+- %f) (%d items)' % \
(pname, mreal, mimag, amp, uamp, phdeg, uphdeg, count)
def toText(self, stream):
print >> stream, 'interval %.18e' % self.interval
print >> stream, 'nfeeds', self.nfeeds
print >> stream, 'nants', self.nants
print >> stream, 'havetau', int(self.havetau)
q = self.nfeeds + int(self.havetau)
for i, time in enumerate(self.times):
print >> stream, 'solution', util.jdToFull(time)
d = self.data[i]
for ant in xrange(self.nants):
ofs = ant * q
for k in xrange(self.nfeeds):
g = d[ofs + k]
if abs(g) > 0:
print >>stream, '%2d g%d %+.18e %+.18e' % \
(ant + 1, k + 1, g.real, g.imag)
if self.havetau:
print >>stream, '%2d tau %+.18e %+.18e' % \
(ant + 1, d[ofs+self.nfeeds].real, d[ofs+self.nfeeds].imag)
return self
def toText (self, stream):
print >>stream, 'interval %.18e' % self.interval
print >>stream, 'nfeeds', self.nfeeds
print >>stream, 'nants', self.nants
print >>stream, 'havetau', int (self.havetau)
q = self.nfeeds + int (self.havetau)
for i, time in enumerate (self.times):
print >>stream, 'solution', util.jdToFull (time)
d = self.data[i]
for ant in xrange (self.nants):
ofs = ant * q
for k in xrange (self.nfeeds):
g = d[ofs + k]
if abs (g) > 0:
print >>stream, '%2d g%d %+.18e %+.18e' % \
(ant + 1, k + 1, g.real, g.imag)
if self.havetau:
print >>stream, '%2d tau %+.18e %+.18e' % \
(ant + 1, d[ofs+self.nfeeds].real, d[ofs+self.nfeeds].imag)
return self
def plot (self):
import omega as om
p = om.RectPlot ()
dt = (np.asarray (self.times) - self.times[0]) * 24.
print 'Base time is', util.jdToFull (self.times[0])
for pol, amps in self.amps.iteritems ():
us = self.ampus[pol]
p.addXYErr (dt, amps, us, util.polarizationName (pol), lines=False)
#p.setBounds (ymin=0)
p.setLabels ('Relative Time (hr)', 'Flux Density (Jy)')
return p
def plot(self):
import omega as om
p = om.RectPlot()
dt = (np.asarray(self.times) - self.times[0]) * 24.
print 'Base time is', util.jdToFull(self.times[0])
for pol, amps in self.amps.iteritems():
us = self.ampus[pol]
p.addXYErr(dt, amps, us, util.polarizationName(pol), lines=False)
#p.setBounds (ymin=0)
p.setLabels('Relative Time (hr)', 'Flux Density (Jy)')
return p
