# # Now plot the measurements and luts # ## Plot all measurements # In[85]: pz = Sp.plt_zenrad(meas,good_only=True) # In[86]: pn = Sp.plt_norm_zenrad(meas,good_only=True) # In[87]: pc = Sp.curtain_zenrad(meas) # In[90]: pcn = Sp.curtain_zenrad(meas,utc=False) # In[89]:
cba.set_label('UTC [h]')
plt.ylim(0,1)
plt.xlim(340,1750)
plt.title('SASZe normalized spectra, Ascension Island, 2016-08-14')
plt.xlabel('Wavelength [nm]')
plt.ylabel('Normalized Radiance')
plt.tight_layout()
#plt.plot(lut.wvl,lut.norm[0,:,0,8,20],'k-',lw=3,
# label='Modeled, $\\tau$={:2.1f}, r$_{{eff}}$={:2.0f}$\\mu$m'.format(lut.tau[20],lut.ref[8]))
plt.plot(lut.wvl,lut.norm[0,:,0,4,16],'-',color='k',lw=3,alpha=0.8,
label='Modeled, $\\tau$={:2.1f}, r$_{{eff}}$={:2.0f}$\\mu$m'.format(lut.tau[16],lut.ref[4]))
plt.plot(lut.wvl,lut.norm[0,:,0,4,1],'-',color='lightgrey',lw=3,alpha=0.8,
label='Modeled, $\\tau$={:2.1f}, r$_{{eff}}$={:2.0f}$\\mu$m'.format(lut.tau[1],lut.ref[4]))
plt.legend(handletextpad=0.08,labelspacing=0.05,frameon=True)
plt.savefig(fp+'data/SASZe_sample_spectra_with_model.png',dpi=600,transparent=True)
# In[184]:
fig = sp.plt_zenrad(sr)
plt.ylim(0,0.5)
#plt.figure()
# In[253]:
sp.plt_norm_zenrad(sr)
meas.params()
# ### plot out the different spectra
# In[ ]:
if not noplot:
print('Making plots...')
fig1 = Sp.plt_zenrad(meas)
fig1.savefig(fp_zencld_plot+'{datestr}_zenrad.png'.format(datestr=datestr),
dpi=600,transparent=True)
print('zenrad...'),
fig1n = Sp.plt_norm_zenrad(meas)
fig1n.savefig(fp_zencld_plot+'{datestr}_norm_zenrad.png'.format(datestr=datestr),
dpi=600,transparent=True)
print('norm zenrad...'),
fig2 = Sp.curtain_zenrad(meas,utc=True)
fig2.savefig(fp_zencld_plot+'{datestr}_curtain_utc_zenrad.png'.format(datestr=datestr),
dpi=600,transparent=True)
print('utc curtain zenrad...'),
fig2n = Sp.curtain_norm_zenrad(meas,utc=True)
fig2n.savefig(fp_zencld_plot+'{datestr}_curtain_utc_norm_zenrad.png'.format(datestr=datestr),
dpi=600,transparent=True)
print('utc curtain norm zenrad...'),
fig3 = Sp.curtain_zenrad(meas,utc=False)
