def OnSimulate1(self, event): # for arbitrary structure
reload(SimpleParratt)
# --- Retrive values from panel --------------
# self.Text1
text=self.Text1.GetValue()
eV0=float(text)
eV0_min=500
if eV0<=eV0_min: eV0=eV0_min+10.
# self.Text2
film_mat=self.Text2.GetValue()
# self.Text3
text=self.Text3.GetValue()
film_thick=float(text)
# self.Text4
text=self.Text4.GetValue()
film_den=float(text)
# self.Text5
text=self.Text5.GetValue()
film_roughness=float(text)
# self.Text6
subs_mat=self.Text6.GetValue()
# self.Text7
text=self.Text7.GetValue()
subs_den=float(text)
# self.cb2
text=self.cb2.GetValue()
use_Cr=0
if text=='Yes': use_Cr=1
# self.cb1
text=self.cb1.GetValue()
xUnit='m rad'
xUnit=text
# self.cb0
text=self.cb0.GetValue()
use_Log=False
if text=='Yes': use_Log=True
if use_Cr==1:
NumLayers=2
else:
NumLayers=1
LayerStructure0=self.Text8.GetValue()
import read_FilmName
film1=read_FilmName.Film(LayerStructure0)
film1.get_structure()
film1.reverse_structure() # reverse the layer order so that the top is vaccum
layer_mat=[]; layer_thick=[]; layer_den=[]; layer_rough=[]; layer_tag=[]
layer_thc=[]; layer_la=[]
print 'energy(eV) \t layer \t th_c(Deg.) \t th_c(m rad) \t absorption_length(micron) \t density (g/cc)\n'
for (ii, layer1) in enumerate(film1.LayerList):
layer_mat.append(str(layer1.composition))
inputfile='NominalDensity.txt'
f=open(inputfile)
lines=f.readlines()
out=1.0
for line in lines:
if not line.startswith('#'):
words=line.split(',')
if layer1.composition==words[0]:
temp=words[1].split()
out=temp[0]
layer1.density=float(out)
f.close()
layer_den.append(float(layer1.density))
layer_thick.append(float(layer1.thickness))
layer_rough.append(float(layer1.rms))
layer_tag.append(str(layer1.tag))
out=readf1f2a.get_delta(layer1.composition, layer1.density, eV0)
la_layer=out[2]*10000.0 # absorption length in cm, convert to microns
delta_layer=out[0]
thc_layer=(2.*delta_layer)**(0.5)*180./math.pi # critical angle in deg
if ii==1:
thc_toplayer=thc_layer
print '%4.1f \t %s \t %4.4f \t %4.4f \t %4.1f \t %s\n' % \
(eV0, layer1.composition+'-'+layer1.tag, thc_layer, thc_layer*math.pi/180.*1000., la_layer, layer1.density)
th_step=0.001
th_range=numpy.arange(0.000, thc_toplayer*12.0, th_step) # angular range
depths=[0.0] # calculate efield intensity at air/film interface
#print layer_mat
#print layer_thick
#print layer_den
#print layer_rough
#layer_mat=['He', 'Cr', 'Si']; layer_thick=[0, 10., 10000]; layer_den=[1,1,1]; layer_rough=[1,1,1]
# --- call reflectivity in SimpleParratt.py ------------------
SimpleParratt.reflectivity(eV0, th_range, layer_mat, layer_thick, layer_den,\
layer_rough, layer_tag, depths)
# --- Plot ----------------------------------------------------
if self.plot_on==1:
print self.plot_on
self.plot.Destroy()
#self.frm.Destroy()
frm = wx.Frame(self, 1, 'SimpleParratt.txt', size=(600,450))
self.data=[]; self.data0=[]
th0=0; refl_half=1e6
inputfile='SimpleParratt.txt'
f=open(inputfile)
lines=f.readlines()
self.xMin=1e6; self.xMax=-1e6; self.yMin=1e6; self.yMax=-1e6
for line in lines:
if line.startswith('#'): continue
words=line.split()
if xUnit=='m rad':
xx=float(words[0])*math.pi/180.0*1000. # convert deg to m rad
if xUnit=='Deg':
xx=float(words[0])
if xUnit=='qz':
ang=float(words[0])
qz=4*math.pi*(eV0/1000.0/12.39842)*math.sin(ang*math.pi/180.0)
xx=qz
if self.xMin>xx: self.xMin=xx
if self.xMax<=xx: self.xMax=xx
yy=float(words[1])
if self.yMin>yy: self.yMin=yy
if self.yMax<=yy: self.yMax=yy
self.data.append((xx, yy))
self.data0.append((xx, 0.5))
temp=abs(yy-0.5)
if temp<=refl_half:
refl_half=temp
th0=xx
self.yMax=1.0
f.close()
sample=''
for (ii,item) in enumerate(layer_mat):
if ii==0:
sample='vacuum'
else:
sample=sample+'/'+item
#title=str(eV0)+'eV, '+sample+', Refl.=0.5 at '+str(th0)+' m rad.'
text0=' m rad.'
text1='Incident angle (m rad)'
if xUnit=='Deg':
text0=' Deg'
text1='Incident angle (Deg)'
if xUnit=='qz':
text0=' qz (1/Angstrom)'
text1='qz (1/Agnstrom)'
title='%4.1f, %s, %s %s %3.3f %s' % (eV0, 'eV', sample, 'Refl.=0.5 at', th0, text0)
#------------------------------------------------
client = plot.PlotCanvas(frm)
# 9/1/2010: enable zooming function, double click for default size
client.SetEnableZoom(True)
line = plot.PolyLine(self.data, legend='', colour='red', width=1)
line0 = plot.PolyLine(self.data0, legend='', colour='black', width=0.5)
gc = plot.PlotGraphics([line, line0], title, text1, 'Reflectivity')
client.setLogScale((False,False))
if use_Log==True: client.setLogScale((False,True))
client.Draw(gc, xAxis= (self.xMin,self.xMax), yAxis= (self.yMin,self.yMax))
frm.Show(True)
self.plot_on = 1
self.plot=frm
def OnSimulate(self, event):
reload(SimpleParratt)
# --- Retrive values from panel --------------
# self.Text1
text=self.Text1.GetValue()
eV0=float(text)
eV0_min=500
if eV0<=eV0_min: eV0=eV0_min+10.
# self.Text2
film_mat=self.Text2.GetValue()
# self.Text3
text=self.Text3.GetValue()
film_thick=float(text)
# self.Text4
text=self.Text4.GetValue()
film_den=float(text)
# self.Text5
text=self.Text5.GetValue()
film_roughness=float(text)
# self.Text6
subs_mat=self.Text6.GetValue()
# self.Text7
text=self.Text7.GetValue()
subs_den=float(text)
# self.cb2
text=self.cb2.GetValue()
use_Cr=0
if text=='Yes': use_Cr=1
# self.cb1
text=self.cb1.GetValue()
xUnit='m rad'
xUnit=text
# self.cb0
text=self.cb0.GetValue()
use_Log=False
if text=='Yes': use_Log=True
if use_Cr==1:
NumLayers=2
else:
NumLayers=1
# --- make lists as reflectivity calculation input ----------
out=readf1f2a.get_delta(film_mat, film_den, eV0) # used to be fluo.
delta_film=out[0]
la_film=out[2]*10000. # absorption length in cm, convert to microns
thc_film=(2.*delta_film)**(0.5)*180./math.pi
print '%s %3.4f Degrees (%3.4f m radians)' % ('critical angle for film:', thc_film, thc_film*math.pi/180.*1000.)
th_step=0.001
th_range=numpy.arange(0.000, thc_film*3.0, th_step) # angular range
depths=[0.0] # calculate efield intensity at air/film interface
layer_mat=[]; layer_thick=[]; layer_den=[]; layer_rough=[]; layer_tag=[]
# air
layer_mat.append('He')
layer_thick.append(0.0) # in Angstroms
#layer_den.append(0.0013) # in g/cm^2, this will make
layer_den.append(1e-10) # force this to be zero for vacuum
layer_rough.append(film_roughness) # in Angstroms
layer_tag.append('air') # layer name
# film
layer_mat.append(film_mat)
layer_thick.append(film_thick) # in Angstroms
layer_den.append(film_den) # in g/cm^2
layer_rough.append(film_roughness) # in Angstroms
layer_tag.append(film_mat+'_layer')
# Cr underlayer if use_Cr=1
if (NumLayers==2):
layer_mat.append('Cr')
layer_thick.append(50.0)
layer_den.append(7.19)
layer_rough.append(film_roughness)
layer_tag.append('Cr_layer')
# Substrate
layer_mat.append(subs_mat)
layer_thick.append(100000.) # not necessary
layer_den.append(subs_den)
layer_rough.append(film_roughness) # not necessary
layer_tag.append(subs_mat+'_substrate')
# print critical angle and absorption length for film and substrate
print 'energy(eV) \t layer \t critical_angle(Deg.) \t absorption_length(micron) \n'
print '%4.1f \t %s \t %4.4f \t %4.4f\n' % (eV0, film_mat, thc_film, la_film)
out=readf1f2a.get_delta(subs_mat, subs_den, eV0)
delta_subs=out[0]
la_subs=out[2]*10000. # absorption length in cm, convert it to microns
thc_subs=(2.*delta_subs)**(0.5)*180./math.pi
print '%4.1f \t %s \t %4.4f \t %4.4f\n' % (eV0, subs_mat, thc_subs, la_subs)
# --- call reflectivity in SimpleParratt.py ------------------
SimpleParratt.reflectivity(eV0, th_range, layer_mat, layer_thick, layer_den,\
layer_rough, layer_tag, depths)
# --- Plot ----------------------------------------------------
if self.plot_on==1:
print self.plot_on
self.plot.Destroy()
#self.frm.Destroy()
frm = wx.Frame(self, 1, 'SimpleParratt.txt', size=(600,450))
self.data=[]; self.data0=[]
th0=0; refl_half=1e6
inputfile='SimpleParratt.txt'
f=open(inputfile)
lines=f.readlines()
self.xMin=1e6; self.xMax=-1e6; self.yMin=1e6; self.yMax=-1e6
for line in lines:
if line.startswith('#'): continue
words=line.split()
if xUnit=='m rad':
xx=float(words[0])*math.pi/180.0*1000. # convert deg to m rad
if xUnit=='Deg':
xx=float(words[0])
if xUnit=='qz':
ang=float(words[0])
qz=4*math.pi*(eV0/1000.0/12.39842)*math.sin(ang*math.pi/180.0)
xx=qz
if self.xMin>xx: self.xMin=xx
if self.xMax<=xx: self.xMax=xx
yy=float(words[1])
if self.yMin>yy: self.yMin=yy
if self.yMax<=yy: self.yMax=yy
self.data.append((xx, yy))
self.data0.append((xx, 0.5))
temp=abs(yy-0.5)
if temp<=refl_half:
refl_half=temp
th0=xx
self.yMax=1.0
f.close()
sample=''
for (ii,item) in enumerate(layer_mat):
if ii==0:
sample='vacuum'
else:
sample=sample+'/'+item
#title=str(eV0)+'eV, '+sample+', Refl.=0.5 at '+str(th0)+' m rad.'
text0=' m rad.'
text1='Incident angle (m rad)'
if xUnit=='Deg':
text0=' Deg'
text1='Incident angle (Deg)'
if xUnit=='qz':
text0=' qz (1/Angstrom)'
text1='qz (1/Agnstrom)'
title='%4.1f, %s, %s %s %3.3f %s' % (eV0, 'eV', sample, 'Refl.=0.5 at', th0, text0)
#------------------------------------------------
client = plot.PlotCanvas(frm)
# 9/1/2010: enable zooming function, double click for default size
client.SetEnableZoom(True)
line = plot.PolyLine(self.data, legend='', colour='red', width=1)
line0 = plot.PolyLine(self.data0, legend='', colour='black', width=0.5)
gc = plot.PlotGraphics([line, line0], title, text1, 'Reflectivity')
client.setLogScale((False,False))
if use_Log==True: client.setLogScale((False,True))
client.Draw(gc, xAxis= (self.xMin,self.xMax), yAxis= (self.yMin,self.yMax))
frm.Show(True)
self.plot_on = 1
self.plot=frm
class Plot(wx.Dialog):
def __init__(self, parent, id, title):
wx.Dialog.__init__(self, parent, id, 'SimRefl: mirror reflectivity simulation', size=(450, 420))
self.plot_on = 0
LogList=['Yes', 'No']
xUnitList=['m rad', 'Deg', 'qz']
xcol2=180
btnSim = wx.Button(self, 1, 'Simulate!', (30,20))
wx.StaticText(self, -1, 'y-axis in log?', (xcol2, 5))
self.cb0 = wx.ComboBox(self, 0, 'No', (xcol2, 25), (95, 25), LogList, wx.CB_DROPDOWN)
wx.StaticText(self, -1, 'x-axis unit?', (xcol2, 50))
self.cb1 = wx.ComboBox(self, 0, 'm rad', (xcol2, 70), (95, 25), xUnitList, wx.CB_DROPDOWN)
wx.StaticText(self, -1, "incident x-ray energy (eV)", (5, 50))
self.Text1 = wx.TextCtrl(self, 2, '7000.0', (10, 70))
wx.StaticText(self, -1, "film material", (5, 100))
self.Text2 = wx.TextCtrl(self, 3, 'Pt', (10, 120))
wx.StaticText(self, -1, "film thickness (Angstrom)", (5, 150))
self.Text3 = wx.TextCtrl(self, 4, '400.0', (10, 170))
wx.StaticText(self, -1, "film density (g/cm^3)", (5, 200))
self.Text4 = wx.TextCtrl(self, 5, '21.45', (10, 220))
wx.StaticText(self, -1, "rms roughness for all interfaces (Angstrom)", (5, 250))
self.Text5 = wx.TextCtrl(self, 6, '1.0', (10, 270))
wx.StaticText(self, -1, "substrate material", (xcol2-5, 100))
self.Text6 = wx.TextCtrl(self, 7, 'Si', (xcol2, 120))
wx.StaticText(self, -1, "substrate density (g/cm^3)", (xcol2-5, 150))
self.Text7 = wx.TextCtrl(self, 8, '2.33', (xcol2, 170))
wx.StaticText(self, -1, "Include 50 Angstrom Cr underlayer?", (xcol2-5, 200))
CrList=['Yes', 'No']
self.cb2 = wx.ComboBox(self, 10, 'Yes', (xcol2, 220), (95, 25), CrList, wx.CB_DROPDOWN)
wx.StaticText(self, -1, "define arbitrary layer structure", (5, 310))
self.Text8 = wx.TextCtrl(self, 12, 'GaAs/GaAs(250)/Fe(40)/Au(20)', (10, 330), (300, 25))
btnSim = wx.Button(self, 11, 'Simulate arbitrary structure.', (10,360))
wx.EVT_BUTTON(self, 1, self.OnSimulate)
wx.EVT_TEXT(self, 3, self.OnText2)
wx.EVT_TEXT(self, 7, self.OnText6)
wx.EVT_CLOSE(self, self.OnQuit)
wx.EVT_BUTTON(self, 11, self.OnSimulate1)
def OnText2(self, event):
text=self.Text2.GetValue()
#out=fluo.nominal_density(text) # will be 1.0 if not in dictionary
inputfile='NominalDensity.txt'
f=open(inputfile)
lines=f.readlines()
out=1.0
for line in lines:
if not line.startswith('#'):
words=line.split(',')
if text==words[0]:
temp=words[1].split()
out=temp[0]
f.close()
self.Text4.SetValue(str(out))
def OnText6(self, event):
text=self.Text6.GetValue()
#out=fluo.nominal_density(text) # will be 1.0 if not in dictionary
inputfile='NominalDensity.txt'
f=open(inputfile)
lines=f.readlines()
out=1.0
for line in lines:
if not line.startswith('#'):
words=line.split(',')
if text==words[0]:
temp=words[1].split()
out=temp[0]
f.close()
self.Text7.SetValue(str(out))
def OnSimulate(self, event):
reload(SimpleParratt)
# --- Retrive values from panel --------------
# self.Text1
text=self.Text1.GetValue()
eV0=float(text)
eV0_min=500
if eV0<=eV0_min: eV0=eV0_min+10.
# self.Text2
film_mat=self.Text2.GetValue()
# self.Text3
text=self.Text3.GetValue()
film_thick=float(text)
# self.Text4
text=self.Text4.GetValue()
film_den=float(text)
# self.Text5
text=self.Text5.GetValue()
film_roughness=float(text)
# self.Text6
subs_mat=self.Text6.GetValue()
# self.Text7
text=self.Text7.GetValue()
subs_den=float(text)
# self.cb2
text=self.cb2.GetValue()
use_Cr=0
if text=='Yes': use_Cr=1
# self.cb1
text=self.cb1.GetValue()
xUnit='m rad'
xUnit=text
# self.cb0
text=self.cb0.GetValue()
use_Log=False
if text=='Yes': use_Log=True
if use_Cr==1:
NumLayers=2
else:
NumLayers=1
# --- make lists as reflectivity calculation input ----------
out=readf1f2a.get_delta(film_mat, film_den, eV0) # used to be fluo.
delta_film=out[0]
la_film=out[2]*10000. # absorption length in cm, convert to microns
thc_film=(2.*delta_film)**(0.5)*180./math.pi
print('%s %3.4f Degrees (%3.4f m radians)' % ('critical angle for film:', thc_film, thc_film*math.pi/180.*1000.))
th_step=0.001
th_range=numpy.arange(0.000, thc_film*3.0, th_step) # angular range
depths=[0.0] # calculate efield intensity at air/film interface
layer_mat=[]; layer_thick=[]; layer_den=[]; layer_rough=[]; layer_tag=[]
# air
layer_mat.append('He')
layer_thick.append(0.0) # in Angstroms
#layer_den.append(0.0013) # in g/cm^2, this will make
layer_den.append(1e-10) # force this to be zero for vacuum
layer_rough.append(film_roughness) # in Angstroms
layer_tag.append('air') # layer name
# film
layer_mat.append(film_mat)
layer_thick.append(film_thick) # in Angstroms
layer_den.append(film_den) # in g/cm^2
layer_rough.append(film_roughness) # in Angstroms
layer_tag.append(film_mat+'_layer')
# Cr underlayer if use_Cr=1
if (NumLayers==2):
layer_mat.append('Cr')
layer_thick.append(50.0)
layer_den.append(7.19)
layer_rough.append(film_roughness)
layer_tag.append('Cr_layer')
# Substrate
layer_mat.append(subs_mat)
layer_thick.append(100000.) # not necessary
layer_den.append(subs_den)
layer_rough.append(film_roughness) # not necessary
layer_tag.append(subs_mat+'_substrate')
# print(critical angle and absorption length for film and substrate)
print('energy(eV) \t layer \t critical_angle(Deg.) \t absorption_length(micron) \n')
print('%4.1f \t %s \t %4.4f \t %4.4f\n' % (eV0, film_mat, thc_film, la_film))
out=readf1f2a.get_delta(subs_mat, subs_den, eV0)
delta_subs=out[0]
la_subs=out[2]*10000. # absorption length in cm, convert it to microns
thc_subs=(2.*delta_subs)**(0.5)*180./math.pi
print('%4.1f \t %s \t %4.4f \t %4.4f\n' % (eV0, subs_mat, thc_subs, la_subs))
# --- call reflectivity in SimpleParratt.py ------------------
SimpleParratt.reflectivity(eV0, th_range, layer_mat, layer_thick, layer_den,\
layer_rough, layer_tag, depths)
# --- Plot ----------------------------------------------------
if self.plot_on==1:
print(self.plot_on)
self.plot.Destroy()
#self.frm.Destroy()
frm = wx.Frame(self, 1, 'SimpleParratt.txt', size=(600,450))
self.data=[]; self.data0=[]
th0=0; refl_half=1e6
inputfile='SimpleParratt.txt'
f=open(inputfile)
lines=f.readlines()
self.xMin=1e6; self.xMax=-1e6; self.yMin=1e6; self.yMax=-1e6
for line in lines:
if line.startswith('#'): continue
words=line.split()
if xUnit=='m rad':
xx=float(words[0])*math.pi/180.0*1000. # convert deg to m rad
if xUnit=='Deg':
xx=float(words[0])
if xUnit=='qz':
ang=float(words[0])
qz=4*math.pi*(eV0/1000.0/12.39842)*math.sin(ang*math.pi/180.0)
xx=qz
if self.xMin>xx: self.xMin=xx
if self.xMax<=xx: self.xMax=xx
yy=float(words[1])
if self.yMin>yy: self.yMin=yy
if self.yMax<=yy: self.yMax=yy
self.data.append((xx, yy))
self.data0.append((xx, 0.5))
temp=abs(yy-0.5)
if temp<=refl_half:
refl_half=temp
th0=xx
self.yMax=1.0
f.close()
sample=''
for (ii,item) in enumerate(layer_mat):
if ii==0:
sample='vacuum'
else:
sample=sample+'/'+item
#title=str(eV0)+'eV, '+sample+', Refl.=0.5 at '+str(th0)+' m rad.'
text0=' m rad.'
text1='Incident angle (m rad)'
if xUnit=='Deg':
text0=' Deg'
text1='Incident angle (Deg)'
if xUnit=='qz':
text0=' qz (1/Angstrom)'
text1='qz (1/Agnstrom)'
title='%4.1f, %s, %s %s %3.3f %s' % (eV0, 'eV', sample, 'Refl.=0.5 at', th0, text0)
#------------------------------------------------
client = plot.PlotCanvas(frm)
# 9/1/2010: enable zooming function, double click for default size
client.SetEnableZoom(True)
line = plot.PolyLine(self.data, legend='', colour='red', width=1)
line0 = plot.PolyLine(self.data0, legend='', colour='black', width=0.5)
gc = plot.PlotGraphics([line, line0], title, text1, 'Reflectivity')
client.setLogScale((False,False))
if use_Log==True: client.setLogScale((False,True))
client.Draw(gc, xAxis= (self.xMin,self.xMax), yAxis= (self.yMin,self.yMax))
frm.Show(True)
self.plot_on = 1
self.plot=frm
#------------------------------------------------
def OnSimulate1(self, event): # for arbitrary structure
reload(SimpleParratt)
# --- Retrive values from panel --------------
# self.Text1
text=self.Text1.GetValue()
eV0=float(text)
eV0_min=500
if eV0<=eV0_min: eV0=eV0_min+10.
# self.Text2
film_mat=self.Text2.GetValue()
# self.Text3
text=self.Text3.GetValue()
film_thick=float(text)
# self.Text4
text=self.Text4.GetValue()
film_den=float(text)
# self.Text5
text=self.Text5.GetValue()
film_roughness=float(text)
# self.Text6
subs_mat=self.Text6.GetValue()
# self.Text7
text=self.Text7.GetValue()
subs_den=float(text)
# self.cb2
text=self.cb2.GetValue()
use_Cr=0
if text=='Yes': use_Cr=1
# self.cb1
text=self.cb1.GetValue()
xUnit='m rad'
xUnit=text
# self.cb0
text=self.cb0.GetValue()
use_Log=False
if text=='Yes': use_Log=True
if use_Cr==1:
NumLayers=2
else:
NumLayers=1
LayerStructure0=self.Text8.GetValue()
import read_FilmName
film1=read_FilmName.Film(LayerStructure0)
film1.get_structure()
film1.reverse_structure() # reverse the layer order so that the top is vaccum
layer_mat=[]; layer_thick=[]; layer_den=[]; layer_rough=[]; layer_tag=[]
layer_thc=[]; layer_la=[]
print('energy(eV) \t layer \t th_c(Deg.) \t th_c(m rad) \t absorption_length(micron) \t density (g/cc)\n')
for (ii, layer1) in enumerate(film1.LayerList):
layer_mat.append(str(layer1.composition))
inputfile='NominalDensity.txt'
f=open(inputfile)
lines=f.readlines()
out=1.0
for line in lines:
if not line.startswith('#'):
words=line.split(',')
if layer1.composition==words[0]:
temp=words[1].split()
out=temp[0]
layer1.density=float(out)
f.close()
layer_den.append(float(layer1.density))
layer_thick.append(float(layer1.thickness))
layer_rough.append(float(layer1.rms))
layer_tag.append(str(layer1.tag))
out=readf1f2a.get_delta(layer1.composition, layer1.density, eV0)
la_layer=out[2]*10000.0 # absorption length in cm, convert to microns
delta_layer=out[0]
thc_layer=(2.*delta_layer)**(0.5)*180./math.pi # critical angle in deg
if ii==1:
thc_toplayer=thc_layer
print('%4.1f \t %s \t %4.4f \t %4.4f \t %4.1f \t %s\n' % \)
(eV0, layer1.composition+'-'+layer1.tag, thc_layer, thc_layer*math.pi/180.*1000., la_layer, layer1.density)
th_step=0.001
th_range=numpy.arange(0.000, thc_toplayer*12.0, th_step) # angular range
depths=[0.0] # calculate efield intensity at air/film interface
#print(layer_mat)
#print(layer_thick)
#print(layer_den)
#print(layer_rough)
#layer_mat=['He', 'Cr', 'Si']; layer_thick=[0, 10., 10000]; layer_den=[1,1,1]; layer_rough=[1,1,1]
# --- call reflectivity in SimpleParratt.py ------------------
SimpleParratt.reflectivity(eV0, th_range, layer_mat, layer_thick, layer_den,\
layer_rough, layer_tag, depths)
# --- Plot ----------------------------------------------------
if self.plot_on==1:
print(self.plot_on)
self.plot.Destroy()
#self.frm.Destroy()
frm = wx.Frame(self, 1, 'SimpleParratt.txt', size=(600,450))
self.data=[]; self.data0=[]
th0=0; refl_half=1e6
inputfile='SimpleParratt.txt'
f=open(inputfile)
lines=f.readlines()
self.xMin=1e6; self.xMax=-1e6; self.yMin=1e6; self.yMax=-1e6
for line in lines:
if line.startswith('#'): continue
words=line.split()
if xUnit=='m rad':
xx=float(words[0])*math.pi/180.0*1000. # convert deg to m rad
if xUnit=='Deg':
xx=float(words[0])
if xUnit=='qz':
ang=float(words[0])
qz=4*math.pi*(eV0/1000.0/12.39842)*math.sin(ang*math.pi/180.0)
xx=qz
if self.xMin>xx: self.xMin=xx
if self.xMax<=xx: self.xMax=xx
yy=float(words[1])
if self.yMin>yy: self.yMin=yy
if self.yMax<=yy: self.yMax=yy
self.data.append((xx, yy))
self.data0.append((xx, 0.5))
temp=abs(yy-0.5)
if temp<=refl_half:
refl_half=temp
th0=xx
self.yMax=1.0
f.close()
sample=''
for (ii,item) in enumerate(layer_mat):
if ii==0:
sample='vacuum'
else:
sample=sample+'/'+item
#title=str(eV0)+'eV, '+sample+', Refl.=0.5 at '+str(th0)+' m rad.'
text0=' m rad.'
text1='Incident angle (m rad)'
if xUnit=='Deg':
text0=' Deg'
text1='Incident angle (Deg)'
if xUnit=='qz':
text0=' qz (1/Angstrom)'
text1='qz (1/Agnstrom)'
title='%4.1f, %s, %s %s %3.3f %s' % (eV0, 'eV', sample, 'Refl.=0.5 at', th0, text0)
#------------------------------------------------
client = plot.PlotCanvas(frm)
# 9/1/2010: enable zooming function, double click for default size
client.SetEnableZoom(True)
line = plot.PolyLine(self.data, legend='', colour='red', width=1)
line0 = plot.PolyLine(self.data0, legend='', colour='black', width=0.5)
gc = plot.PlotGraphics([line, line0], title, text1, 'Reflectivity')
client.setLogScale((False,False))
if use_Log==True: client.setLogScale((False,True))
client.Draw(gc, xAxis= (self.xMin,self.xMax), yAxis= (self.yMin,self.yMax))
frm.Show(True)
self.plot_on = 1
self.plot=frm
