def read_file(date):
# Use date to find filename
mgnt = CRD(filename)
mgnt.heliographic(mgnt.im_raw.data)
mgnt.magnetic_flux(mgnt.im_raw.data)
mgnt.magnetic_flux(mgnt.im_raw.data, raw_field=True)
def read_file(date): # Use date to find filename mgnt = CRD(filename) mgnt.heliographic(mgnt.im_raw.data) mgnt.magnetic_flux(mgnt.im_raw.data) mgnt.magnetic_flux(mgnt.im_raw.data, raw_field=True)
def CRD_read(date, instr):
try:
filename = search_file(date, instr)
except IOError:
return -1
print(filename)
try:
mgnt = CRD(filename)
except:
return -1
mgnt.heliographic()
mgnt.magnetic_flux()
mgnt.magnetic_flux(raw_field=True)
mgnt.date = mgnt.im_raw.date
mgnt.md = date2md(date, instr)
return mgnt
from zaw_coord import CRD
import kpvt_class
#import sunpy.wcs
import numpy as np
import timeit
start = timeit.default_timer()
#x = CRD('MDI\\fd_M_96m_01d.1222.0005.fits')
#kpvt = CRD('512c_eo000_C1_19771001_2048.fits')
#spmg = CRD('spmg_eo100_C1_19920421_1700.fits')
hmi = CRD('HMI\\hmi.M_720s.20100504_214800_TAI.1.magnetogram.fits')
#Heliographic testing
# lonh, lath = x.heliographic(x.im_raw.data)
# print ( "Array Latitude = %s Longitude = %s " %(lath[52,650], lonh[52,650]) )
# lonh, lath = x.heliographic(52,650)
# print ( "Coordinate Latitude = %s Longitude = %s " %(lath, lonh) )
#x.heliographic(x.im_raw.data)
# print ( "Array Latitude = %s Longitude = %s " %(lath[511,511], lonh[511,511]) )
# lonh, lath = x.heliographic(511, 511)
# print ( "Coordinate Latitude = %s Longitude = %s " %(lath, lonh) )
#print( sunpy.wcs.convert_hpc_hg(0*x.im_raw.scale[0].value, 0*x.im_raw.scale[1].value, b0_deg = x.im_raw.meta['B0'], l0_deg = x.im_raw.meta['L0']) )
#LOS testing
# corr = x.los_corr(x.im_raw.data)
#print( "Raw field = %s " %x.im_raw.data[750,750])
#print( "Corrected field = %s " %corr[750, 750])
from zaw_coord import CRD
import numpy as np
import matplotlib.mlab as mlab
import matplotlib.pyplot as plt
x = CRD('MDI\\fd_M_96m_01d.1222.0005.fits')
area = x.eoa(x.im_raw.data).value.flatten()
area = area[~np.isnan(area)]
loc = np.arange(0, 5e17, 5e17 / 999)
n, bins, patches = plt.hist(area, loc, log=True)
print(n.max())
plt.axis([0, 5e17, 0, 60000])
l = plt.plot(bins, 'r--', linewidth=1)
plt.show()
from zaw_coord import CRD
import numpy as np
import matplotlib.mlab as mlab
import matplotlib.pyplot as plt
x = CRD('MDI\\fd_M_96m_01d.1222.0005.fits')
area = x.eoa(x.im_raw.data).value.flatten()
area = area[~np.isnan(area)]
loc = np.arange(0, 5e17, 5e17/999)
n, bins, patches = plt.hist(area, loc, log=True)
print(n.max())
plt.axis([0,5e17, 0, 60000])
l = plt.plot(bins, 'r--', linewidth=1)
plt.show()
from zaw_coord import CRD
import kpvt_class
#import sunpy.wcs
import numpy as np
import timeit
start = timeit.default_timer()
#x = CRD('MDI\\fd_M_96m_01d.1222.0005.fits')
#kpvt = CRD('512c_eo000_C1_19771001_2048.fits')
#spmg = CRD('spmg_eo100_C1_19920421_1700.fits')
hmi = CRD('HMI\\hmi.M_720s.20100504_214800_TAI.1.magnetogram.fits')
#Heliographic testing
# lonh, lath = x.heliographic(x.im_raw.data)
# print ( "Array Latitude = %s Longitude = %s " %(lath[52,650], lonh[52,650]) )
# lonh, lath = x.heliographic(52,650)
# print ( "Coordinate Latitude = %s Longitude = %s " %(lath, lonh) )
#x.heliographic(x.im_raw.data)
# print ( "Array Latitude = %s Longitude = %s " %(lath[511,511], lonh[511,511]) )
# lonh, lath = x.heliographic(511, 511)
# print ( "Coordinate Latitude = %s Longitude = %s " %(lath, lonh) )
#print( sunpy.wcs.convert_hpc_hg(0*x.im_raw.scale[0].value, 0*x.im_raw.scale[1].value, b0_deg = x.im_raw.meta['B0'], l0_deg = x.im_raw.meta['L0']) )
#LOS testing
# corr = x.los_corr(x.im_raw.data)
