def fitZ(zmin, zmax, suffix):
NminCount = 100
# 1 percent deviation from mass function given the sigma 8 deviation
limits_04 = [125, 450] #max : 2e13#[100, 1000]
limits_10 = [250, 800] #max : 2e14
limits_25 = [600, 1100] #max : 5e14
limits_40 = [800, 1400] #max : 2e14
p0 = n.array([A0, v0, a0, b0])
#zmin = -0.01
#zmax = 0.001
#=================
# DATA
#=================
# redshift selection
zSel = lib.zSelection(data, zmin, zmax)
# mass selection
mSel = lib.vSelection(data, qty, limits_04, limits_10, limits_25,
limits_40)
# minimum number counts selection
nSel = lib.nSelection(data, NminCount, cos)
# altogether
ok = (zSel) & (mSel) & (nSel)
# selection per box :
# x coordinates definition
#=================
vmax = data[qty]
log_vmax = n.log10(vmax)
#print len(vmax), n.min(vmax), n.max(vmax)
# y coordinates
#=================
norm = (100)**3. / (cosmo.H(data["redshift"]).value)**6.
log_VF = n.log10(norm * vmax**3. * data["dNdVdlnV_" + cos])
log_VF_c = n.log10(norm * vmax**3. * data["dNdVdlnV_" + cos + "_c"])
#print n.min(log_VF), n.max(log_VF)
# error on y position
#=================
error = (data["std90_pc_" + cos]**2. +
data["dN_counts_" + cos]**(-1.))**(0.5)
print "n points", len(log_vmax[ok])
if len(log_vmax[ok]) > 50:
pOpt, pCov = lib.fit_vmax_function_z0(data[ok],
x_data=log_vmax[ok],
y_data=log_VF[ok],
y_err=error[ok],
p0=p0,
cos=cos,
mode="curve_fit",
suffix=suffix)
def fitZ(zmin, zmax, suffix): NminCount = 100 # 1 percent deviation from mass function given the sigma 8 deviation limits_04 = [125, 450] #max : 2e13#[100, 1000] limits_10 = [250, 800] #max : 2e14 limits_25 = [600, 1100] #max : 5e14 limits_40 = [800, 1400] #max : 2e14 p0 = n.array([A0, v0, a0, b0]) #zmin = -0.01 #zmax = 0.001 #================= # DATA #================= # redshift selection zSel = lib.zSelection( data, zmin, zmax ) # mass selection mSel = lib.vSelection(data, qty, limits_04, limits_10, limits_25,limits_40) # minimum number counts selection nSel = lib.nSelection(data, NminCount, cos) # altogether ok = (zSel) & (mSel) & (nSel) # selection per box : # x coordinates definition #================= vmax = data[qty] log_vmax = n.log10(vmax) #print len(vmax), n.min(vmax), n.max(vmax) # y coordinates #================= norm = (100)**3. /(cosmo.H(data["redshift"]).value)**6. log_VF = n.log10( norm * vmax**3. * data["dNdVdlnV_"+cos]) log_VF_c = n.log10( norm * vmax**3. * data["dNdVdlnV_"+cos+"_c"]) #print n.min(log_VF), n.max(log_VF) # error on y position #================= error = (data["std90_pc_"+cos]**2. + data["dN_counts_"+cos]**(-1.))**(0.5) print "n points", len(log_vmax[ok]) if len(log_vmax[ok])>50 : pOpt, pCov = lib.fit_vmax_function_z0(data[ok], x_data = log_vmax[ok], y_data = log_VF[ok], y_err = error[ok], p0 = p0, cos = cos, mode = "curve_fit", suffix = suffix)
zmin = -0.01 zmax = 2.3 #======================= #======================= cos = 'cen' #======================= #======================= # redshift selection zSel = lib.zSelection( data, zmin, zmax ) # mass selection mSel = lib.mSelection(data, qty, limits_04, limits_10, limits_25,limits_40) # minimum number counts selection nSelCen = lib.nSelection(data, NminCount, cos ) # altogether ok = (zSel) & (mSel) & (nSelCen) # selection per box : MD04=(data["boxName"]=='MD_0.4Gpc') MD10=(data["boxName"]=='MD_1Gpc_new_rockS') MD25=(data["boxName"]=='MD_2.5Gpc') MD40=(data["boxName"]=='MD_4Gpc') MD25NW=(data["boxName"]=='MD_2.5GpcNW') MD40NW=(data["boxName"]=='MD_4GpcNW') from hmf import MassFunction from astropy.cosmology import FlatLambdaCDM import astropy.units as u cosmo = FlatLambdaCDM(H0=67.77*u.km/u.s/u.Mpc, Om0=0.307115, Ob0=0.048206)
#=======================
# y coordinates
ff = mvir * data["dNdlnM_" + cos] / data["rhom"] / abs(data["dlnsigmaMdlnM"])
ff_c = mvir * data["dNdlnM_" + cos + "_c"] / data["rhom"] / abs(
data["dlnsigmaMdlnM"])
log_MF = n.log10(ff)
log_MF_c = n.log10(ff_c)
# redshift selection
zSel = lib.zSelection(data, zmin, zmax)
# mass selection
mSel = lib.mSelection(data, qty, logNpmin)
mSel2_inter = (data["log_mvir"] < 13.2) & (data["redshift"] > 0.)
mSel2 = (mSel2_inter == False)
# minimum number counts selection
nSelCen = lib.nSelection(data, NminCount, cos)
# altogether
ok1 = (zSel) & (mSel) & (mSel2) & (nSelCen)
# selection per box :
MD04 = (data["boxName"] == 'MD_0.4Gpc')
MD10 = (data["boxName"] == 'MD_1Gpc')
MD25 = (data["boxName"] == 'MD_2.5Gpc')
MD40 = (data["boxName"] == 'MD_4Gpc')
MD25NW = (data["boxName"] == 'MD_2.5GpcNW')
MD40NW = (data["boxName"] == 'MD_4GpcNW')
DS80 = (data["boxName"] == 'DS_8Gpc')
print "ST01 fit MULTIDARK ----------------------"
fw.write('\n')
fw.write('ST01 fit MULTIDARK \n')
