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kepplot.py
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#!/usr/bin/env python
import kepmsg, kepstat
import numpy, scipy
import scipy.stats
from numpy import *
from matplotlib import pyplot as plt
# -----------------------------------------------------------
# shape the window, enforce absolute scaling, rotate the labels
def location(shape):
# position first axes inside the plotting window
ax = plt.axes(shape)
# force tick labels to be absolute rather than relative
plt.gca().xaxis.set_major_formatter(plt.ScalarFormatter(useOffset=False))
plt.gca().yaxis.set_major_formatter(plt.ScalarFormatter(useOffset=False))
ax.yaxis.set_major_locator(plt.MaxNLocator(5))
# rotate y labels by 90 deg
labels = ax.get_yticklabels()
plt.setp(labels, 'rotation', 90)
return ax
# -----------------------------------------------------------
# plot a 1d distribution
def plot1d(x,y,cadence,lcolor,lwidth,fcolor,falpha,underfill):
# pad first and last points in case a fill is required
x = insert(x,[0],[x[0]])
x = append(x,[x[-1]])
y = insert(y,[0],[-1.0e10])
y = append(y,-1.0e10)
# plot data so that data gaps are not spanned by a line
ltime = array([],dtype='float64')
ldata = array([],dtype='float32')
for i in range(1,len(x)-1):
if (x[i] - x[i-1]) < 2.0 * cadence / 86400:
ltime = append(ltime,x[i])
ldata = append(ldata,y[i])
else:
plt.plot(ltime,ldata,color=lcolor,linestyle='-',linewidth=lwidth)
ltime = array([],dtype='float64')
ldata = array([],dtype='float32')
plt.plot(ltime,ldata,color=lcolor,linestyle='-',linewidth=lwidth)
# plot the fill color below data time series, with no data gaps
if underfill:
plt.fill(x,y,fc=fcolor,linewidth=0.0,alpha=falpha)
return
# -----------------------------------------------------------
# determine data limits
def RangeOfPlot(x,y,pad,origin):
xmin = x.min()
xmax = x.max()
ymin = y.min()
ymax = y.max()
xr = xmax - xmin
yr = ymax - ymin
plt.xlim(xmin - xr * pad, xmax + xr * pad)
plt.ylim(ymin - yr * pad, ymax + yr * pad)
if origin:
if ymin - yr * pad <= 0.0:
plt.ylim(1.0e-10, ymax + yr * pad)
else:
plt.ylim(ymin - yr * pad, ymax + yr * pad)
return
# -----------------------------------------------------------
# clean up x-axis of plot
def cleanx(time,logfile,verbose):
status = 0
try:
time0 = float(int(time[0] / 100) * 100.0)
if time0 < 2.4e6: time0 += 2.4e6
timeout = time - time0
label = 'BJD $-$ %d' % time0
except:
txt = 'ERROR -- KEPPLOT.CLEANX: cannot calculate plot scaling in x dimension'
status = kepmsg.err(logfile,txt,verbose)
label = ''
return timeout, label, status
# -----------------------------------------------------------
# clean up y-axis of plot
def cleany(signal,cadence,logfile,verbose):
status = 0
try:
signal /= cadence
nrm = math.ceil(math.log10(numpy.nanmax(signal))) - 1.0
signal = signal / 10**nrm
if nrm == 0:
label = 'Flux (e$^-$ s$^{-1}$)'
else:
label = 'Flux (10$^{%d}$ e$^-$ s$^{-1}$)' % nrm
except:
txt = 'ERROR -- KEPPLOT.CLEANY: cannot calculate plot scaling in y dimension'
status = kepmsg.err(logfile,txt,verbose)
label = ''
return signal, label, status
# -----------------------------------------------------------
# plot limits
def limits(x,y,logfile,verbose):
status = 0
try:
xmin = x.min()
xmax = x.max()
ymin = y.min()
ymax = y.max()
xr = xmax - xmin
yr = ymax - ymin
x = insert(x,[0],[x[0]])
x = append(x,[x[-1]])
y = insert(y,[0],[0.0])
y = append(y,0.0)
except:
txt = 'ERROR -- KEPPLOT.LIMITS: cannot calculate plot limits'
status = kepmsg.err(logfile,txt,verbose)
return x, y, xmin, xmax, xr, ymin, ymax, yr, status
# -----------------------------------------------------------
# plot labels
def labels(xlab,ylab,labcol,fs):
plt.xlabel(xlab, fontsize=fs, color=labcol)
plt.ylabel(ylab, fontsize=fs, color=labcol)
return
# -----------------------------------------------------------
# intensity scale limits of 1d array
def intScale1D(image,imscale):
seterr(all="ignore")
nstat = 2; work2 = []
work1 = array(sort(image),dtype=float32)
for i in range(len(work1)):
if 'nan' not in str(work1[i]).lower():
work2.append(work1[i])
work2 = array(work2,dtype=float32)
if int(float(len(work2)) / 10 + 0.5) > nstat:
nstat = int(float(len(work2)) / 10 + 0.5)
zmin = median(work2[:nstat])
zmax = median(work2[-nstat:])
if imscale == 'logarithmic':
if zmin < 0.0: zmin = 100.0
image = log10(image)
zmin = log10(zmin)
zmax = log10(zmax)
if (imscale == 'squareroot'):
if zmin < 0.0: zmin = 100.0
image = sqrt(image)
zmin = sqrt(zmin)
zmax = sqrt(zmax)
return image, zmin, zmax
# -----------------------------------------------------------
# intensity scale limits of 2d array
def intScale2D(image,imscale):
seterr(all="ignore")
nstat = 2
work1 = numpy.array([],dtype='float32')
(ysiz,xsiz) = numpy.shape(image)
for i in range(ysiz):
for j in range(xsiz):
if numpy.isfinite(image[i,j]) and image[i,j] > 0.0:
work1 = numpy.append(work1,image[i,j])
work2 = array(sort(work1))
if int(float(len(work2)) / 1000 + 0.5) > nstat:
nstat = int(float(len(work2)) / 1000 + 0.5)
zmin = median(work2[:nstat])
zmax = median(work2[-nstat:])
if imscale == 'logarithmic':
image = log10(image)
zmin = log10(zmin)
zmax = log10(zmax)
if (imscale == 'squareroot'):
image = sqrt(image)
zmin = sqrt(zmin)
zmax = sqrt(zmax)
return image, zmin, zmax
# ------------------------------------------
# plot mask borders in CCD coordinates
def borders(maskimg,xdim,ydim,pixcoord1,pixcoord2,bit,lcolor,lstyle,lwidth):
for i in range(1,ydim):
for j in range(1,xdim):
if kepstat.bitInBitmap(maskimg[i,j],bit) and not kepstat.bitInBitmap(maskimg[i-1,j],bit):
x = array([pixcoord1[j-1,i],pixcoord1[j,i]]) + 0.5
y = array([pixcoord2[j,i],pixcoord2[j,i]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if not kepstat.bitInBitmap(maskimg[i,j],bit) and kepstat.bitInBitmap(maskimg[i-1,j],bit):
x = array([pixcoord1[j-1,i],pixcoord1[j,i]]) + 0.5
y = array([pixcoord2[j,i],pixcoord2[j,i]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[i,j],bit) and not kepstat.bitInBitmap(maskimg[i,j-1],bit):
x = array([pixcoord1[j,i],pixcoord1[j,i]]) - 0.5
y = array([pixcoord2[j,i-1],pixcoord2[j,i]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if not kepstat.bitInBitmap(maskimg[i,j],bit) and kepstat.bitInBitmap(maskimg[i,j-1],bit):
x = array([pixcoord1[j,i],pixcoord1[j,i]]) - 0.5
y = array([pixcoord2[j,i-1],pixcoord2[j,i]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
# corner cases
for j in range(ydim):
try:
if kepstat.bitInBitmap(maskimg[j,0],bit) and not kepstat.bitInBitmap(maskimg[j-1,0],bit):
x = array([pixcoord1[0,j],pixcoord1[1,j]]) - 0.5
y = array([pixcoord2[0,j],pixcoord2[0,j]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
try:
if not kepstat.bitInBitmap(maskimg[j+1,0],bit) and kepstat.bitInBitmap(maskimg[j,0],bit):
x = array([pixcoord1[0,j],pixcoord1[1,j]]) - 0.5
y = array([pixcoord2[0,j],pixcoord2[0,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
if kepstat.bitInBitmap(maskimg[j,0],bit):
x = array([pixcoord1[0,j],pixcoord1[0,j]]) - 0.5
try:
y = array([pixcoord2[0,j],pixcoord2[0,j+1]]) - 0.5
except:
y = array([pixcoord2[0,j-1],pixcoord2[0,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[j,xdim-1],bit):
x = array([pixcoord1[xdim-1,j],pixcoord1[xdim-1,j]]) + 0.5
try:
y = array([pixcoord2[xdim-1,j],pixcoord2[xdim-1,j+1]]) - 0.5
except:
y = array([pixcoord2[xdim-1,j-1],pixcoord2[xdim-1,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
for i in range(xdim):
try:
if kepstat.bitInBitmap(maskimg[0,i],bit) and not kepstat.bitInBitmap(maskimg[0,i-1],bit):
x = array([pixcoord1[i,0],pixcoord1[i,0]]) - 0.5
y = array([pixcoord2[i,0],pixcoord2[i,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
try:
if not kepstat.bitInBitmap(maskimg[0,i+1],bit) and kepstat.bitInBitmap(maskimg[0,i],bit):
x = array([pixcoord1[i,0],pixcoord1[i,0]]) + 0.5
y = array([pixcoord2[i,0],pixcoord2[i,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
if kepstat.bitInBitmap(maskimg[0,i],bit):
try:
x = array([pixcoord1[i,0],pixcoord1[i+1,0]]) - 0.5
except:
x = array([pixcoord1[i-1,0],pixcoord1[i,0]]) + 0.5
y = array([pixcoord2[i,0],pixcoord2[i,0]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[ydim-1,i],bit):
try:
x = array([pixcoord1[i,ydim-1],pixcoord1[i+1,ydim-1]]) - 0.5
except:
x = array([pixcoord1[i-1,ydim-1],pixcoord1[i,ydim-1]]) - 0.5
y = array([pixcoord2[i,ydim-1],pixcoord2[i,ydim-1]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[ydim-1,xdim-1],bit):
x = array([pixcoord1[xdim-2,ydim-1],pixcoord1[xdim-1,ydim-1]]) + 0.5
y = array([pixcoord2[xdim-1,ydim-1],pixcoord2[xdim-1,ydim-1]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[0,xdim-1],bit):
x = array([pixcoord1[xdim-1,0],pixcoord1[xdim-1,0]]) + 0.5
y = array([pixcoord2[xdim-1,0],pixcoord2[xdim-1,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
return
# ------------------------------------------
# plot mask borders in CCD coordinates
def PrfBorders(maskimg,xdim,ydim,pixcoord1,pixcoord2,bit,lcolor,lstyle,lwidth):
for i in range(1,ydim):
for j in range(1,xdim):
if kepstat.bitInBitmap(maskimg[i,j],bit) and not kepstat.bitInBitmap(maskimg[i-1,j],bit):
x = array([pixcoord1[j-1,i],pixcoord1[j,i]]) + 0.5
y = array([pixcoord2[j,i],pixcoord2[j,i]]) - 0.5
plt.plot(x*50,y*50,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if not kepstat.bitInBitmap(maskimg[i,j],bit) and kepstat.bitInBitmap(maskimg[i-1,j],bit):
x = array([pixcoord1[j-1,i],pixcoord1[j,i]]) + 0.5
y = array([pixcoord2[j,i],pixcoord2[j,i]]) - 0.5
plt.plot(x*50,y*50,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[i,j],bit) and not kepstat.bitInBitmap(maskimg[i,j-1],bit):
x = array([pixcoord1[j,i],pixcoord1[j,i]]) - 0.5
y = array([pixcoord2[j,i-1],pixcoord2[j,i]]) + 0.5
plt.plot(x*50,y*50,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if not kepstat.bitInBitmap(maskimg[i,j],bit) and kepstat.bitInBitmap(maskimg[i,j-1],bit):
x = array([pixcoord1[j,i],pixcoord1[j,i]]) - 0.5
y = array([pixcoord2[j,i-1],pixcoord2[j,i]]) + 0.5
plt.plot(x*50,y*50,color=lcolor,linestyle=lstyle,linewidth=lwidth)
# corner cases
for j in range(ydim):
try:
if kepstat.bitInBitmap(maskimg[j,0],bit) and not kepstat.bitInBitmap(maskimg[j-1,0],bit):
x = array([pixcoord1[0,j],pixcoord1[1,j]]) - 0.5
y = array([pixcoord2[0,j],pixcoord2[0,j]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
try:
if not kepstat.bitInBitmap(maskimg[j+1,0],bit) and kepstat.bitInBitmap(maskimg[j,0],bit):
x = array([pixcoord1[0,j],pixcoord1[1,j]]) - 0.5
y = array([pixcoord2[0,j],pixcoord2[0,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
if kepstat.bitInBitmap(maskimg[j,0],bit):
x = array([pixcoord1[0,j],pixcoord1[0,j]]) - 0.5
try:
y = array([pixcoord2[0,j],pixcoord2[0,j+1]]) - 0.5
except:
y = array([pixcoord2[0,j-1],pixcoord2[0,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[j,xdim-1],bit):
x = array([pixcoord1[xdim-1,j],pixcoord1[xdim-1,j]]) + 0.5
try:
y = array([pixcoord2[xdim-1,j],pixcoord2[xdim-1,j+1]]) - 0.5
except:
y = array([pixcoord2[xdim-1,j-1],pixcoord2[xdim-1,j]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
for i in range(xdim):
try:
if kepstat.bitInBitmap(maskimg[0,i],bit) and not kepstat.bitInBitmap(maskimg[0,i-1],bit):
x = array([pixcoord1[i,0],pixcoord1[i,0]]) - 0.5
y = array([pixcoord2[i,0],pixcoord2[i,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
try:
if not kepstat.bitInBitmap(maskimg[0,i+1],bit) and kepstat.bitInBitmap(maskimg[0,i],bit):
x = array([pixcoord1[i,0],pixcoord1[i,0]]) + 0.5
y = array([pixcoord2[i,0],pixcoord2[i,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
except:
pass
if kepstat.bitInBitmap(maskimg[0,i],bit):
try:
x = array([pixcoord1[i,0],pixcoord1[i+1,0]]) - 0.5
except:
x = array([pixcoord1[i-1,0],pixcoord1[i,0]]) + 0.5
y = array([pixcoord2[i,0],pixcoord2[i,0]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[ydim-1,i],bit):
try:
x = array([pixcoord1[i,ydim-1],pixcoord1[i+1,ydim-1]]) - 0.5
except:
x = array([pixcoord1[i-1,ydim-1],pixcoord1[i,ydim-1]]) - 0.5
y = array([pixcoord2[i,ydim-1],pixcoord2[i,ydim-1]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[ydim-1,xdim-1],bit):
x = array([pixcoord1[xdim-2,ydim-1],pixcoord1[xdim-1,ydim-1]]) + 0.5
y = array([pixcoord2[xdim-1,ydim-1],pixcoord2[xdim-1,ydim-1]]) + 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
if kepstat.bitInBitmap(maskimg[0,xdim-1],bit):
x = array([pixcoord1[xdim-1,0],pixcoord1[xdim-1,0]]) + 0.5
y = array([pixcoord2[xdim-1,0],pixcoord2[xdim-1,1]]) - 0.5
plt.plot(x,y,color=lcolor,linestyle=lstyle,linewidth=lwidth)
return