def local_composition(self, outfile):
""" Variable radius sliding average Goes pixel by pixel and calculates the
composition around that pixel (within some radius) and assigns the center
pixel that composition. Use a 256 x 256 x 256 matrix. """
# TODO Rewrite if I ever need this again
radius = 3.6 * 2
npix = 64
#mat = np.zeros((npix,npix,npix),dtype=np.float)
#mat = np.zeros((npix,npix,npix),dtype={'names':['col1', 'col2', 'col3'], 'formats':['f4','f4','f4']})
#mat = np.zeros((npix,npix,npix),dtype={'names':['40', '13', '29'], 'formats':['f4','f4','f4']})
#mat = np.zeros((npix,npix,npix),dtype={'names':['id','data'], 'formats':['f4','f4']})
#names = ['id','data']
#formats = ['i4',('f4','f4','f4')]
#mat = np.zeros((npix,npix,npix),dtype=dict(names = names, formats=formats))
#mat = np.zeros((npix,npix,npix),dtype={'40':('i4',0), '29':('f4',0), '13':('f4',0)})
print("Creating matrix...")
mat = [[[{} for i in range(npix)] for j in range(npix)] for k in range(npix)]
print("Finished creating matrix.")
#print(repr(mat))
dx = self.xsize/npix
dy = self.ysize/npix
dz = self.zsize/npix
for ii,i in enumerate(drange(-npix/2*dx,npix/2*dx-dx,dx)):
print("On ii = {0}".format(ii))
for jj,j in enumerate(drange(-npix/2*dy,npix/2*dy-dy,dy)):
for kk,k in enumerate(drange(-npix/2*dz,npix/2*dz-dz,dz)):
atoms = self.get_atoms_in_cutoff( (i,j,k), radius )
comp = {}
for atom in atoms:
comp[str(atom.z)] = comp.get(str(atom.z),0) + 1.0
for key in comp:
comp[key] /= len(atoms)
#print(comp)
#mat[ii][jj][kk] = copy.copy(comp)
mat[ii][jj][kk] = comp
of = open(outfile,'w')
of.write('IGOR\n')
for atomtype in self.atomtypes:
of.write('\nWAVES/N=({0},{1},{2})\t {3}\nBEGIN\n'.format(npix,npix,npix,'partial_comp_'+znum2sym.z2sym(atomtype)))
for layer in mat:
for column in layer:
for value in column:
try:
of.write("{0} ".format(value[str(atomtype)]))
except KeyError:
of.write("{0} ".format(0.0))
of.write("\n")
of.write('END\n')
of.write('X SetScale/P x 0,1,"", {0}; SetScale/P y 0,1,"", {0}; SetScale/P z 0,1,"", {0}; SetScale d 0,0,"", {0}\n'.format('partial_comp_'+znum2sym.z2sym(atomtype)))
of.close()
return mat
def main():
axis = list(tools.drange(-0.05, 1.05, 0.1))
hists = []
for m in ["mass", "mass10"]:
h = pyroot.h1_axis(axis=axis)
h.blue() if m == "mass" else h.red()
for i, l in enumerate(range(0, 11), start=1):
db = shelve.open("data/ups3s/%s/lambda%d.db" % (m, l), "r")
mass = dbtools.get_db_param(
db=db,
param="mean_b1_3p",
year="all",
bin=(24, 40))
h[i] = mass
if m == "mass10":
g = h.asGraph3(0.01)
for j in g:
g.SetPointEXhigh(j, 0)
g.SetPointEXlow(j, 0)
g.Draw("P")
hists.append(g)
else:
h.Draw("e1x0")
hists.append(h)
tools.save_figure("ups3s/m3p_lambda")
def main():
axis = list(tools.drange(-0.05, 1.05, 0.1))
hists = []
for year in ["2011", "2012"]:
h = pyroot.h1_axis(axis=axis)
h.blue() if year == "2011" else h.red()
for i, l in enumerate(range(0, 11), start=1):
db = shelve.open("data/ups1s/mass/lambda%d.db" % l, "r")
mass = dbtools.get_db_param(
db=db,
param="mean_b1_1p",
year=year,
bin=(18, 22))
h[i] = mass
if year == "2012":
g = h.asGraph3(0.01)
for j in g:
g.SetPointEXhigh(j, 0)
g.SetPointEXlow(j, 0)
g.Draw("P")
hists.append(g)
else:
h.Draw("e1x0")
hists.append(h)
tools.save_figure("ups1s/m1p_lambda")
def radial_composition(self, outfile):
""" Creates 1D waves stored in outfile for each element in the model. Each
wave is a histogram of the number of atoms between two radial positions
starting at the center of model and radiating outward. """
# TODO Rewrite if I ever need this again
npix = 16
keys = self.atomtypes.keys()
#histo = [[0.0 for x in range(npix)] for key in keys]
histo = [{} for x in range(npix)]
dx = (self.xsize/2.0)/npix # Cube assumed
for i,r in enumerate(drange(dx, npix*dx-dx, dx)):
atoms = self.get_atoms_in_cutoff( (0.0,0.0,0.0), r)
print(r, len(atoms))
comp = {}
for atom in atoms:
comp[str(atom.z)] = comp.get(str(atom.z),0) + 1.0
for type in self.atomtypes:
if( str(type) not in comp.keys()):
comp[str(type)] = 0.0
comp['Total'] = len(atoms)
histo[i] = comp
of = open(outfile,'w')
of.write('IGOR\n')
for atomtype in keys:
of.write('\nWAVES/N=({0})\t {1}\nBEGIN\n'.format(npix,'partial_radial_comp_'+znum2sym.z2sym(atomtype)))
for i in range(npix-2):
if(i != 0):
of.write("{0} ".format((histo[i][str(atomtype)] - histo[i-1][str(atomtype)])/( 4.0/3.0*np.pi*( (i*dx)**3 - ((i-1)*dx)**3 ))))
#print("{1} {0} ".format(histo[i][str(atomtype)],i*dx))
#print(" {1} {0} ".format(histo[i][str(atomtype)] - histo[i-1][str(atomtype)],i*dx))
else:
of.write("{0} ".format(histo[i][str(atomtype)]))
#print("{1} {0} ".format(histo[i][str(atomtype)],i*dx))
of.write("\n")
of.write('END\n')
of.write('X SetScale x 0,{1}, {0};\n'.format('partial_comp_'+znum2sym.z2sym(atomtype),npix*dx-dx))
of.close()
