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l1THistos.py
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l1THistos.py
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from __future__ import print_function
import ROOT
import root_numpy as rnp
import numpy as np
from array import array
# import pandas as pd
import python.pf_regions as pf_regions
stuff = []
class HistoLazyFiller(object):
def __init__(self, dataframe):
self.df = dataframe
self.manager = ROOT.FillerManager()
self.columns = dataframe.columns
def fill1d_lazy(self, histo, col_name, sel_name):
if not self.manager.knowsVariable(col_name):
# print (" - add variable {}".format(col_name))
self.manager.addVariable(col_name, self.df[col_name].values)
if not self.manager.knowsSelection(sel_name):
print("*** [HistoLazyFiller] ERROR: selection: {} not known!".format(sel_name))
raise ValueError('[HistoLazyFiller] selection {} not known'.format(sel_name))
self.manager.add_1Dhisto(histo, col_name, sel_name)
def fill2d_lazy(self, histo, x_col_name, y_col_name, sel_name):
if not self.manager.knowsVariable(x_col_name):
# print (" - add variable {}".format(col_name))
self.manager.addVariable(x_col_name, self.df[x_col_name].values)
if not self.manager.knowsVariable(y_col_name):
# print (" - add variable {}".format(col_name))
self.manager.addVariable(y_col_name, self.df[y_col_name].values)
if not self.manager.knowsSelection(sel_name):
print("*** [HistoLazyFiller] ERROR: selection: {} not known!".format(sel_name))
raise ValueError('[HistoLazyFiller] selection {} not known'.format(sel_name))
self.manager.add_2Dhisto(histo, x_col_name, y_col_name, sel_name)
def add_selection(self, sel_name, sel_values):
self.manager.addFilter(sel_name, sel_values)
def fill(self):
self.manager.fill()
class HistoManager(object):
class __TheManager:
def __init__(self):
self.val = None
self.histoList = list()
def __str__(self):
return 'self' + self.val
def addHistos(self, histo):
# print 'ADD histo: {}'.format(histo)
self.histoList.append(histo)
def writeHistos(self):
for histo in self.histoList:
histo.write()
instance = None
def __new__(cls):
if not HistoManager.instance:
HistoManager.instance = HistoManager.__TheManager()
return HistoManager.instance
def __getattr__(self, name):
return getattr(self.instance, name)
def __setattr__(self, name):
return setattr(self.instance, name)
class BaseHistos():
def __init__(self, name, root_file=None, debug=False):
self.name_ = name
# print name
# print self.__class__.__name__
# # print 'BOOK histo: {}'.format(self)
if root_file is not None:
root_file.cd()
# print 'class: {}'.format(self.__class__.__name__)
# ROOT.gDirectory.pwd()
file_dir = root_file.GetDirectory(self.__class__.__name__)
# print '# keys in dir: {}'.format(len(file_dir.GetListOfKeys()))
# file_dir.cd()
selhistos = [(histo.ReadObj(), histo.GetName())
for histo in file_dir.GetListOfKeys()
if histo.GetName().startswith(name+'_')]
if debug:
print(selhistos)
for hinst, histo_name in selhistos:
attr_name = 'h_'+histo_name.split(name+'_')[1]
setattr(self, attr_name, hinst)
# self.h_test = root_file.Get('h_EleReso_ptRes')
# print 'XXXXXX'+str(self.h_test)
else:
for histo in [a for a in dir(self) if a.startswith('h_')]:
getattr(self, histo).Sumw2()
hm = HistoManager()
hm.addHistos(self)
def write(self):
if self.__class__.__name__ not in ROOT.gDirectory.GetListOfKeys():
ROOT.gDirectory.mkdir(self.__class__.__name__)
newdir = ROOT.gDirectory.GetDirectory(self.__class__.__name__)
newdir.cd()
for histo in [a for a in dir(self) if a.startswith('h_')]:
# print ("Writing {}".format(histo))
getattr(self, histo).Write("", ROOT.TObject.kOverwrite)
ROOT.gDirectory.cd('..')
# def normalize(self, norm):
# className = self.__class__.__name__
# ret = className()
# return ret
def __repr__(self):
return '<{} {}>'.format(self.__class__.__name__, self.name_)
class GraphBuilder:
def __init__(self, h_obj, h_name):
self.h_obj = h_obj
self.h_name = h_name
def get_graph(self, name, title, x, y, ex_l, ex_h, ey_l, ey_h):
global stuff
ret = ROOT.TGraphAsymmErrors()
stuff.append(ret)
ret.SetName(name)
ret.SetTitle(title)
ret.Set(len(x))
for idx in range(0, len(x)):
ret.SetPoint(idx, x[idx], y[idx])
ret.SetPointError(idx, ex_l[idx], ex_h[idx], ey_l[idx], ey_h[idx])
ret.SetMarkerStyle(2)
return ret
def __call__(self, name, title, function):
h2d = getattr(self.h_obj, self.h_name)
x, y, ex_l, ex_h, ey_l, ey_h = function(h2d)
h_title_parts = h2d.GetTitle().split(';')
g_title = '{};; {}'.format(h_title_parts[0], title)
if len(h_title_parts) == 2:
g_title = '{}; {}; {}'.format(
h_title_parts[0],
h_title_parts[1],
title)
elif len(h_title_parts) == 3:
g_title += '{}; {}; {} ({})'.format(
h_title_parts[0],
h_title_parts[1],
title,
h_title_parts[2])
graph = self.get_graph('{}_{}'.format(h2d.GetName(), name),
g_title, x, y, ex_l, ex_h, ey_l, ey_h)
g_attr_name = 'g_{}_{}'.format(self.h_name.split('h_')[1], name)
setattr(self.h_obj, g_attr_name, graph)
return graph
def Write(self, name='', options=None):
return
class BaseResoHistos(BaseHistos):
"""
Base class for resolution histogram classes.
The class adds a special method to produce a graph out of each
2D histograms of the class via e special <histoname>_graph method.
The interface of this method is actually defined by the __call__
method of the GraphBuilder class.
If the method is called, the newly created graph is also added permanently
to the class members and can be reused later.
Example:
def computeEResolution():
....
hreso.h_energyResVenergy_graph('sigmaEOE', '#sigma_{E}/E', computeEResolution)
will create the graph accessible with:
hreso.g_energyResVenergy_sigmaEOE
)
--------
"""
def __init__(self, name, root_file=None, debug=False):
BaseHistos.__init__(self, name, root_file, debug)
if root_file is not None or True:
# print dir(self)
for attr_2d in [attr for attr in dir(self) if (attr.startswith('h_') and 'TH2' in getattr(self, attr).ClassName())]:
setattr(self, attr_2d+'_graph', GraphBuilder(self, attr_2d))
class BaseTuples(BaseHistos):
def __init__(self, tuple_suffix, tuple_variables,
name, root_file=None, debug=False):
if not root_file:
self.t_values = ROOT.TNtuple(
'{}_{}'.format(name, tuple_suffix),
'{}_{}'.format(name, tuple_suffix),
tuple_variables)
BaseHistos.__init__(self, name, root_file, debug)
def write(self):
if self.__class__.__name__ not in ROOT.gDirectory.GetListOfKeys():
ROOT.gDirectory.mkdir(self.__class__.__name__)
newdir = ROOT.gDirectory.GetDirectory(self.__class__.__name__)
newdir.cd()
self.t_values.Write()
ROOT.gDirectory.cd('..')
return
class GenPartHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
self.h_pt = ROOT.TH1F(name+'_pt', 'Gen Part Pt (GeV)', 100, 0, 100)
self.h_energy = ROOT.TH1F(name+'_energy', 'Gen Part Energy (GeV)', 100, 0, 1000)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, gps):
rnp.fill_hist(self.h_pt, gps.pt)
rnp.fill_hist(self.h_energy, gps.energy)
def write(self):
for histo in [a for a in dir(self) if a.startswith('h_')]:
getattr(self, histo).Write()
class GenParticleHistos(BaseHistos):
def __init__(self, name, root_file=None, extended_range=False, debug=False):
if not root_file:
pt_bins = [y for y in range(0, 102, 2)]
if(extended_range):
# print ('Booking: {} with extended range'.format(name))
pt_bins = [y for y in range(0, 200, 2)] + \
[y for y in range(200, 400, 50)] + \
[y for y in range(400, 1100, 100)]
n_pt_bins = len(pt_bins) - 1
# print ('bins: {}'.format(pt_bins))
# print ("# bins: {}".format(n_pt_bins))
self.h_eta = ROOT.TH1F(name+'_eta', 'Gen Part eta; #eta^{GEN};', 50, -3, 3)
self.h_abseta = ROOT.TH1F(name+'_abseta', 'Gen Part |eta|; |#eta^{GEN}|;', 40, 0, 4)
self.h_pt = ROOT.TH1F(name+'_pt', 'Gen Part P_{T} (GeV); p_{T}^{GEN} [GeV];', n_pt_bins, array('d', pt_bins))
# self.h_energy = ROOT.TH1F(name+'_energy', 'Gen Part Energy (GeV); E [GeV];', 100, 0, 1000)
self.h_reachedEE = ROOT.TH1F(name+'_reachedEE', 'Gen Part reachedEE', 4, 0, 4)
self.h_fBrem = ROOT.TH1F(name+'_fBrem', 'Brem. p_{T} fraction', 30, 0, 1)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, particles):
particles_weight = particles.weight
rnp.fill_hist(hist=self.h_eta,
array=particles.eta,
weights=particles_weight)
rnp.fill_hist(hist=self.h_abseta,
array=particles.abseta,
weights=particles_weight)
rnp.fill_hist(hist=self.h_pt,
array=particles.pt,
weights=particles_weight)
# rnp.fill_hist(hist=self.h_energy,
# array=particles.energy,
# weights=particles_weight)
rnp.fill_hist(hist=self.h_reachedEE,
array=particles.reachedEE,
weights=particles_weight)
rnp.fill_hist(hist=self.h_fBrem,
array=particles.fbrem,
weights=particles_weight)
def fill_lazy(self, filler, sel_name):
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
filler.fill1d_lazy(self.h_abseta, 'abseta', sel_name)
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
# filler.fill1d_lazy(self.h_energy, 'energy', sel_name)
filler.fill1d_lazy(self.h_reachedEE, 'reachedEE', sel_name)
filler.fill1d_lazy(self.h_fBrem, 'fbrem', sel_name)
class DigiHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_layer = ROOT.TH1F(name+'_layer', 'Digi layer #', 60, 0, 60)
# self.h_simenergy = ROOT.TH1F(name+'_energy', 'Digi sim-energy (GeV)', 100, 0, 2)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, digis):
rnp.fill_hist(self.h_layer, digis.layer)
# rnp.fill_hist(self.h_simenergy, digis.simenergy)
class RateHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_norm = ROOT.TH1F(name+'_norm', '# of events', 1, 1, 2)
self.h_pt = ROOT.TH1F(name+'_pt', 'rate above p_{T} thresh.; p_{T} [GeV]; rate [kHz];', 100, 0, 100)
self.h_ptVabseta = ROOT.TH2F(name+'_ptVabseta', 'Candidate p_{T} vs |#eta|; |#eta|; p_{T} [GeV];', 34, 1.4, 3.1, 100, 0, 100)
BaseHistos.__init__(self, name, root_file, debug)
if root_file is not None or True:
for attr_1d in [attr for attr in dir(self) if (attr.startswith('h_') and 'TH1' in getattr(self, attr).ClassName())]:
setattr(self, attr_1d+'_graph', GraphBuilder(self, attr_1d))
if root_file is not None:
self.normalize(31000)
# self.h_simenergy = ROOT.TH1F(name+'_energy', 'Digi sim-energy (GeV)', 100, 0, 2)
def fill(self, pt, eta):
for ptf in range(0, int(pt)+1):
self.h_pt.Fill(ptf)
self.h_ptVabseta.Fill(abs(eta), pt)
def fill_norm(self, many=1):
# print (f' fill rate norm: {many}')
self.h_norm.Fill(1, many)
def normalize(self, norm):
nev = self.h_norm.GetBinContent(1)
# print(f' . # ev: {nev}')
if(nev != norm):
print('normalize to {}'.format(norm))
self.h_norm.Scale(norm/nev)
self.h_pt.Scale(norm/nev)
self.h_ptVabseta.Scale(norm/nev)
def fill_many(self, data):
if 'pt_em' in data.columns:
# for HGC clusters we use only the EM interpretation of the pT
ROOT.fill1D_rate(self.h_pt, data.pt_em.values)
# print('[RateHistos::fill_many] using pt_em')
else:
ROOT.fill1D_rate(self.h_pt, data.pt.values)
# print('[RateHistos::fill_many] using pt')
class RateHistoCounter(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_norm = ROOT.TH1F(name+'_norm', '# of events', 1, 1, 2)
self.h_rate = ROOT.TH1F(name+'_rate', '# passing events; rate [kHz];', 1, 1, 2)
BaseHistos.__init__(self, name, root_file, debug)
if root_file is not None or True:
for attr_1d in [attr for attr in dir(self) if (attr.startswith('h_') and 'TH1' in getattr(self, attr).ClassName())]:
setattr(self, attr_1d+'_graph', GraphBuilder(self, attr_1d))
if root_file is not None:
self.normalize(31000)
# self.h_simenergy = ROOT.TH1F(name+'_energy', 'Digi sim-energy (GeV)', 100, 0, 2)
def fill(self, count):
self.h_rate.Fill(1, count)
def fill_norm(self, many=1):
# print (f' fill rate norm: {many}')
self.h_norm.Fill(1, many)
def normalize(self, norm):
nev = self.h_norm.GetBinContent(1)
# print(f' . # ev: {nev}')
if(nev != norm):
print('normalize to {}'.format(norm))
self.h_norm.Scale(norm/nev)
self.h_rate.Scale(norm/nev)
class SingleObjRateHistoCounter(RateHistoCounter):
def __init__(self, name, root_file=None, debug=False):
RateHistoCounter.__init__(self, name, root_file, debug)
def fill(self, df):
# print(f' . # of surviving entries: ')
# print(df['pt'].groupby(level='entry', group_keys=False).nlargest(n=1).count())
RateHistoCounter.fill(self, df['pt'].groupby(level='entry', group_keys=False).nlargest(n=1).count())
class DoubleObjRateHistoCounter(RateHistoCounter):
def __init__(self, name, root_file=None, debug=False):
RateHistoCounter.__init__(self, name, root_file, debug)
def has_unique_pairs(entry):
unique_pairs = [(l1, l2) for l1 in entry.loc[entry.index.get_level_values('leg') == 0].index for l2 in entry.loc[entry.index.get_level_values('leg') == 1].index if ((l1[2] != l2[2]) and (l1[1] != l2[1]))]
return len(unique_pairs) > 0
def fill(self, df):
# print(f' . # of surviving entries: ')
# print(df.groupby(level='entry').filter(DoubleObjRateHistoCounter.has_unique_pairs).index.unique('entry').size)
RateHistoCounter.fill(self, df.groupby(level='entry').filter(DoubleObjRateHistoCounter.has_unique_pairs).index.unique('entry').size)
class TCHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_energy = ROOT.TH1F(name+'_energy', 'TC energy (GeV)', 100, 0, 2)
self.h_subdet = ROOT.TH1F(name+'_subdet', 'TC subdet #', 8, 0, 8)
self.h_mipPt = ROOT.TH1F(name+'_mipPt', 'TC MIP Pt', 50, 0, 10)
self.h_layer = ROOT.TProfile(name+'_layer', 'TC layer #', 60, 0, 60, 's')
self.h_absz = ROOT.TH1F(name+'_absz', 'TC z(cm)', 100, 300, 500)
self.h_wafertype = ROOT.TH1F(name+'_wafertype', 'Wafer type', 10, 0, 10)
self.h_layerVenergy = ROOT.TH2F(name+'_layerVenergy', "Energy (GeV) vs Layer #", 60, 0, 60, 100, 0, 2)
self.h_energyVeta = ROOT.TH2F(name+'_energyVeta', "Energy (GeV) vs Eta", 100, -3.5, 3.5, 100, 0, 2)
# self.h_energyVetaL1t5 = ROOT.TH2F(name+'_energyVetaL1t5', "Energy (GeV) vs Eta (layers 1 to 5)", 100, -3.5, 3.5, 100, 0, 2)
# self.h_energyVetaL6t10 = ROOT.TH2F(name+'_energyVetaL6t10', "Energy (GeV) vs Eta (layers 6 to 10)", 100, -3.5, 3.5, 100, 0, 2)
# self.h_energyVetaL11t20 = ROOT.TH2F(name+'_energyVetaL11t20', "Energy (GeV) vs Eta (layers 11 to 20)", 100, -3.5, 3.5, 100, 0, 2)
# self.h_energyVetaL21t60 = ROOT.TH2F(name+'_energyVetaL21t60', "Energy (GeV) vs Eta (layers 21 to 60)", 100, -3.5, 3.5, 100, 0, 2)
self.h_energyPetaVphi = ROOT.TProfile2D(name+'_energyPetaVphi', "Energy profile (GeV) vs Eta and Phi", 100, -3.5, 3.5, 100, -3.2, 3.2)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, tcs):
rnp.fill_hist(self.h_energy, tcs.energy)
rnp.fill_hist(self.h_subdet, tcs.subdet)
rnp.fill_hist(self.h_mipPt, tcs.mipPt)
cnt = tcs.layer.value_counts().to_frame(name='counts')
cnt['layer'] = cnt.index.values
rnp.fill_profile(self.h_layer, cnt[['layer', 'counts']])
rnp.fill_hist(self.h_absz, np.fabs(tcs.z))
rnp.fill_hist(self.h_wafertype, tcs.wafertype)
rnp.fill_hist(self.h_wafertype, tcs.wafertype)
# FIXME: should bin this guy in eta bins
rnp.fill_hist(self.h_layerVenergy, tcs[['layer', 'energy']])
rnp.fill_hist(self.h_energyVeta, tcs[['eta', 'energy']])
rnp.fill_hist(self.h_energyVeta, tcs[['eta', 'energy']])
# rnp.fill_hist(self.h_energyVetaL1t5, tcs[(tcs.layer >= 1) & (tcs.layer <= 5)][['eta', 'energy']])
# rnp.fill_hist(self.h_energyVetaL6t10, tcs[(tcs.layer >= 6) & (tcs.layer <= 10)][['eta', 'energy']])
# rnp.fill_hist(self.h_energyVetaL11t20, tcs[(tcs.layer >= 11) & (tcs.layer <= 20)][['eta', 'energy']])
# rnp.fill_hist(self.h_energyVetaL21t60, tcs[(tcs.layer >= 21) & (tcs.layer <= 60)][['eta', 'energy']])
rnp.fill_profile(self.h_energyPetaVphi, tcs[['eta', 'phi', 'energy']])
class ClusterHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_energy = ROOT.TH1F(name+'_energy', 'Cluster energy (GeV); E [GeV];', 100, 0, 30)
self.h_layer = ROOT.TH1F(name+'_layer', 'Cluster layer #; layer #;', 60, 0, 60)
# self.h_nCoreCells = ROOT.TH1F(name+'_nCoreCells', 'Cluster # cells (core)', 30, 0, 30)
self.h_layerVenergy = ROOT.TH2F(name+'_layerVenergy', "Cluster Energy (GeV) vs Layer #; layer; E [GeV];", 50, 0, 50, 100, 0, 20)
self.h_ncells = ROOT.TH1F(name+'_ncells', 'Cluster # cells; # TC components;', 30, 0, 30)
self.h_layerVncells = ROOT.TH2F(name+'_layerVncells', "Cluster #cells vs Layer #; layer; # TC components;", 50, 0, 50, 30, 0, 30)
# self.h_layerVnCoreCells = ROOT.TH2F(name+'_layerVnCoreCells', "Cluster #cells vs Layer #", 50, 0, 50, 30, 0, 30)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, clsts):
rnp.fill_hist(self.h_energy, clsts.energy)
rnp.fill_hist(self.h_layer, clsts.layer)
rnp.fill_hist(self.h_layerVenergy, clsts[['layer', 'energy']])
# if 'ncells' in clsts.columns:
rnp.fill_hist(self.h_ncells, clsts.ncells)
rnp.fill_hist(self.h_layerVncells, clsts[['layer', 'ncells']])
# if 'nCoreCells' in clsts.columns:
# rnp.fill_hist(self.h_nCoreCells, clsts.nCoreCells)
# rnp.fill_hist(self.h_layerVnCoreCells, clsts[['layer', 'nCoreCells']])
class Cluster3DHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
# self.h_npt05 = ROOT.TH1F(
# name+'_npt05', '# 3D Cluster Pt > 0.5 GeV; # 3D clusters in cone;', 1000, 0, 1000)
# self.h_npt20 = ROOT.TH1F(
# name+'_npt20', '# 3D Cluster Pt > 2.0 GeV; # 3D clusters in cone;', 1000, 0, 1000)
self.h_pt = ROOT.TH1F(
name+'_pt', '3D Cluster Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', '3D Cluster eta; #eta;', 100, -4, 4)
# self.h_energy = ROOT.TH1F(name+'_energy', '3D Cluster energy (GeV); E [GeV]', 1000, 0, 1000)
# self.h_nclu = ROOT.TH1F(name+'_nclu', '3D Cluster # clusters; # 2D components;', 60, 0, 60)
# self.h_ncluVpt = ROOT.TH2F(name+'_ncluVpt', '3D Cluster # clusters vs pt; # 2D components; p_{T} [GeV]', 60, 0, 60, 100, 0, 100)
# self.h_showlenght = ROOT.TH1F(name+'_showlenght', '3D Cluster showerlenght', 60, 0, 60)
# self.h_firstlayer = ROOT.TH1F(name+'_firstlayer', '3D Cluster first layer', 30, 0, 30)
# self.h_sEtaEtaTot = ROOT.TH1F(name+'_sEtaEtaTot', '3D Cluster RMS Eta', 100, 0, 0.1)
# self.h_sEtaEtaMax = ROOT.TH1F(name+'_sEtaEtaMax', '3D Cluster RMS Eta (max)', 100, 0, 0.1)
# self.h_sPhiPhiTot = ROOT.TH1F(name+'_sPhiPhiTot', '3D Cluster RMS Phi', 100, 0, 2)
# self.h_sPhiPhiMax = ROOT.TH1F(name+'_sPhiPhiMax', '3D Cluster RMS Phi (max)', 100, 0, 2)
# self.h_sZZ = ROOT.TH1F(name+'_sZZ', '3D Cluster RMS Z ???', 100, 0, 10)
# self.h_eMaxOverE = ROOT.TH1F(name+'_eMaxOverE', '3D Cluster Emax/E', 100, 0, 1)
# self.h_HoE = ROOT.TH1F(name+'_HoE', '3D Cluster H/E', 20, 0, 2)
# self.h_iso0p2 = ROOT.TH1F(name+'_iso0p2', '3D Cluster iso DR 0.2(GeV); Iso p_{T} [GeV];', 100, 0, 100)
# self.h_isoRel0p2 = ROOT.TH1F(name+'_isoRel0p2', '3D Cluster relative iso DR 0.2; Rel. Iso;', 100, 0, 1)
# self.h_bdtPU = ROOT.TH1F(name+'_bdtPU', '3D Cluster bdt PU out; BDT-PU out;', 100, -1, 1)
# self.h_bdtPi = ROOT.TH1F(name+'_bdtPi', '3D Cluster bdt Pi out; BDT-Pi out;', 100, -1, 1)
self.h_bdtEg = ROOT.TH1F(name+'_bdtEg', '3D Cluster bdt Pi out; BDT-EG out;', 100, -1, 1)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, cl3ds):
# self.h_npt05.Fill(len(cl3ds[cl3ds.pt > 0.5].index))
# self.h_npt20.Fill(len(cl3ds[cl3ds.pt > 2.0].index))
rnp.fill_hist(self.h_pt, cl3ds.pt)
rnp.fill_hist(self.h_eta, cl3ds.eta)
# rnp.fill_hist(self.h_energy, cl3ds.energy)
# rnp.fill_hist(self.h_nclu, cl3ds.nclu)
# rnp.fill_hist(self.h_ncluVpt, cl3ds[['nclu', 'pt']])
# rnp.fill_hist(self.h_showlenght, cl3ds.showerlength)
# rnp.fill_hist(self.h_firstlayer, cl3ds.firstlayer)
# rnp.fill_hist(self.h_sEtaEtaTot, cl3ds.seetot)
# rnp.fill_hist(self.h_sEtaEtaMax, cl3ds.seemax)
# rnp.fill_hist(self.h_sPhiPhiTot, cl3ds.spptot)
# rnp.fill_hist(self.h_sPhiPhiMax, cl3ds.sppmax)
# rnp.fill_hist(self.h_sZZ, cl3ds.szz)
# rnp.fill_hist(self.h_eMaxOverE, cl3ds.emaxe)
# rnp.fill_hist(self.h_HoE, cl3ds.hoe)
# if 'iso0p2' in cl3ds.columns:
# rnp.fill_hist(self.h_iso0p2, cl3ds.iso0p2)
# rnp.fill_hist(self.h_isoRel0p2, cl3ds.isoRel0p2)
# if 'bdt_pu' in cl3ds.columns:
# rnp.fill_hist(self.h_bdtPU, cl3ds.bdt_pu)
# if 'bdt_pi' in cl3ds.columns:
# rnp.fill_hist(self.h_bdtPi, cl3ds.bdt_pi)
rnp.fill_hist(self.h_bdtEg, cl3ds.bdteg)
def fill_lazy(self, filler, sel_name):
# self.h_npt05.Fill(len(cl3ds[cl3ds.pt > 0.5].index))
# self.h_npt20.Fill(len(cl3ds[cl3ds.pt > 2.0].index))
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
# filler.fill1d_lazy(self.h_energy, 'energy', sel_name)
# filler.fill1d_lazy(self.h_nclu, 'nclu', sel_name)
# # filler.fill2d_lazy(self.h_ncluVpt, cl3ds[['nclu', 'pt']], sel_name)
# filler.fill1d_lazy(self.h_showlenght, 'showerlength', sel_name)
# filler.fill1d_lazy(self.h_firstlayer, 'firstlayer', sel_name)
# filler.fill1d_lazy(self.h_sEtaEtaTot, 'seetot', sel_name)
# filler.fill1d_lazy(self.h_sEtaEtaMax, 'seemax', sel_name)
# filler.fill1d_lazy(self.h_sPhiPhiTot, 'spptot', sel_name)
# filler.fill1d_lazy(self.h_sPhiPhiMax, 'sppmax', sel_name)
# filler.fill1d_lazy(self.h_sZZ, 'szz', sel_name)
# filler.fill1d_lazy(self.h_eMaxOverE, 'emaxe', sel_name)
# filler.fill1d_lazy(self.h_HoE, 'hoe', sel_name)
# if 'iso0p2' in filler.columns:
# filler.fill1d_lazy(self.h_iso0p2, 'iso0p2', sel_name)
# filler.fill1d_lazy(self.h_isoRel0p2, 'isoRel0p2', sel_name)
# if 'bdt_pu' in filler.columns:
# filler.fill1d_lazy(self.h_bdtPU, 'bdt_pu', sel_name)
# if 'bdt_pi' in filler.columns:
# filler.fill1d_lazy(self.h_bdtPi, 'bdt_pi', sel_name)
filler.fill1d_lazy(self.h_bdtEg, 'bdteg', sel_name)
class EGHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'EG Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', 'EG eta; #eta;', 100, -4, 4)
self.h_energy = ROOT.TH1F(name+'_energy', 'EG energy (GeV); E [GeV]', 1000, 0, 1000)
self.h_hwQual = ROOT.TH1F(name+'_hwQual', 'EG energy (GeV); hwQual', 5, 0, 5)
self.h_tkIso = ROOT.TH1F(name+'_tkIso', 'Iso; rel-iso_{tk}', 100, 0, 2)
self.h_pfIso = ROOT.TH1F(name+'_pfIso', 'Iso; rel-iso_{pf}', 100, 0, 2)
self.h_tkIsoPV = ROOT.TH1F(name+'_tkIsoPV', 'Iso; rel-iso^{PV}_{tk}', 100, 0, 2)
self.h_pfIsoPV = ROOT.TH1F(name+'_pfIsoPV', 'Iso; rel-iso^{PV}_{pf}', 100, 0, 2)
self.h_n = ROOT.TH1F(name+'_n', '# objects per event', 100, 0, 100)
self.h_compBdt = ROOT.TH1F(name+'_compBdt', 'BDT Score Comp ID', 100, -4, 4)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, egs):
weight = None
if 'weight' in egs.columns:
weight = egs.weight
else:
weight = np.ones(egs.shape[0])
rnp.fill_hist(hist=self.h_pt, array=egs.pt, weights=weight)
rnp.fill_hist(hist=self.h_eta, array=egs.eta, weights=weight)
rnp.fill_hist(hist=self.h_energy, array=egs.energy, weights=weight)
rnp.fill_hist(hist=self.h_hwQual, array=egs.hwQual, weights=weight)
if 'tkIso' in egs.columns:
rnp.fill_hist(hist=self.h_tkIso, array=egs.tkIso, weights=weight)
rnp.fill_hist(hist=self.h_pfIso, array=egs.pfIso, weights=weight)
if 'tkIsoPV' in egs.columns:
rnp.fill_hist(hist=self.h_tkIsoPV, array=egs.tkIsoPV, weights=weight)
rnp.fill_hist(hist=self.h_pfIsoPV, array=egs.pfIsoPV, weights=weight)
def fill_lazy(self, filler, sel_name):
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
filler.fill1d_lazy(self.h_energy, 'energy', sel_name)
filler.fill1d_lazy(self.h_hwQual, 'hwQual', sel_name)
if 'tkIso' in filler.columns:
filler.fill1d_lazy(self.h_tkIso, 'tkIso', sel_name)
filler.fill1d_lazy(self.h_pfIso, 'pfIso', sel_name)
if 'tkIsoPV' in filler.columns:
filler.fill1d_lazy(self.h_tkIsoPV, 'tkIsoPV', sel_name)
filler.fill1d_lazy(self.h_pfIsoPV, 'pfIsoPV', sel_name)
if 'compBDTScore' in filler.columns:
filler.fill1d_lazy(self.h_compBdt, 'compBDTScore', sel_name)
def fill_event(self, objects):
if objects.empty:
self.h_n.Fill(0)
else:
self.h_n.Fill(objects.pt.count())
def add_histos(self):
self.h_pt.Add(self.h_pt_temp.GetValue())
self.h_eta.Add(self.h_eta_temp.GetValue())
self.h_energy.Add(self.h_energy_temp.GetValue())
self.h_hwQual.Add(self.h_hwQual_temp.GetValue())
# self.h_tkIso = ROOT.TH1F(name+'_tkIso', 'Iso; rel-iso_{tk}', 100, 0, 2)
# self.h_pfIso = ROOT.TH1F(name+'_pfIso', 'Iso; rel-iso_{pf}', 100, 0, 2)
# self.h_tkIsoPV = ROOT.TH1F(name+'_tkIsoPV', 'Iso; rel-iso^{PV}_{tk}', 100, 0, 2)
# self.h_pfIsoPV = ROOT.TH1F(name+'_pfIsoPV', 'Iso; rel-iso^{PV}_{pf}', 100, 0, 2)
class DecTkHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(
name+'_pt',
'Pt (GeV); p_{T} [GeV]',
100, 0, 100)
self.h_deltaPt = ROOT.TH1F(
name+'_deltaPt',
'Pt (GeV); p_{T}^{decoded}-p_{T}^{float} [GeV]',
100, -10, 10)
self.h_deltaPtVeta = ROOT.TH2F(
name+'_deltaPtVeta',
'Pt (GeV); #eta^{float}; p_{T}^{decoded}-p_{T}^{float} [GeV]',
50, -2.5, 2.5,
50, -0.25, 0.25)
self.h_deltaPtVabseta = ROOT.TH2F(
name+'_deltaPtVabseta',
'Pt (GeV); |#eta^{float}|; p_{T}^{decoded}-p_{T}^{float} [GeV]',
50, 0, 2.5,
50, -0.25, 0.25)
self.h_eta = ROOT.TH1F(
name+'_eta',
'#eta; #eta;',
100, -4, 4)
self.h_z0 = ROOT.TH1F(
name+'_z0',
'z0; z_{0} [cm];',
100, -10, 10)
self.h_deltaZ0 = ROOT.TH1F(
name+'_deltaZ0',
'#Delta z0; z0^{decoded}-z0^{float};',
50, -0.2, 0.2)
self.h_deltaZ0Veta = ROOT.TH2F(
name+'_deltaZ0Veta',
'#Delta z0; #eta^{float}; z0^{decoded}-z0^{float};',
100, -2.5, 2.5,
50, -0.05, 0.05)
self.h_deltaEta = ROOT.TH1F(
name+'_deltaEta',
'#Delta #eta_{@vtx}; #eta_{@vtx}^{decoded}-#eta_{@vtx}^{float};',
100, -1, 1)
self.h_deltaEtaVabseta = ROOT.TH2F(
name+'_deltaEtaVabseta',
'#Delta #eta_{@vtx} vs |#eta^{float}|; |#eta^{float}|; #eta_{@vtx}^{decoded}-#eta_{@vtx}^{float};',
25, 0, 2.5,
100, -0.004, 0.004)
self.h_deltaEtaVeta = ROOT.TH2F(
name+'_deltaEtaVeta',
'#Delta #eta_{@vtx} vs #eta^{float}; #eta^{float}; #eta_{@vtx}^{decoded}-#eta_{@vtx}^{float};',
50, -2.5, 2.5,
50, -0.004, 0.004)
self.h_deltaCaloEta = ROOT.TH1F(
name+'_deltaCaloEta',
'#Delta #eta_{@calo}; #eta_{@calo}^{decoded}-#eta_{@calo}^{float};',
100, -1, 1)
self.h_deltaCaloEtaVabseta = ROOT.TH2F(
name+'_deltaCaloEtaVabseta',
'#Delta #eta_{@calo} vs |#eta^{float}|; |#eta^{float}|; #eta_{@calo}^{decoded}-#eta_{@calo}^{float};',
50, 0, 2.5,
100, -0.04, 0.04)
self.h_deltaCaloEtaVeta = ROOT.TH2F(
name+'_deltaCaloEtaVeta',
'#Delta #eta_{@calo} vs #eta^{float}; #eta^{float}; #eta_{@calo}^{decoded}-#eta_{@calo}^{float};',
100, -2.5, 2.5,
100, -0.04, 0.04)
self.h_deltaCaloPhi = ROOT.TH1F(
name+'_deltaCaloPhi',
'#Delta #phi_{@calo}; #phi_{@calo}^{decoded}-#phi_{@calo}^{float};',
100, -1, 1)
self.h_deltaCaloPhiVabseta = ROOT.TH2F(
name+'_deltaCaloPhiVabseta',
'#Delta #phi_{@calo} vs |#eta^{float}|; |#phi^{float}|; #phi_{@calo}^{decoded}-#phi_{@calo}^{float};',
100, 0, 2.5,
100, -0.1, 0.1)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, egs):
pass
def fill_lazy(self, filler, sel_name):
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
filler.fill1d_lazy(self.h_deltaPt, 'deltaPt', sel_name)
filler.fill2d_lazy(self.h_deltaPtVeta, 'simeta', 'deltaPt', sel_name)
filler.fill2d_lazy(self.h_deltaPtVabseta, 'simabseta', 'deltaPt', sel_name)
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
filler.fill1d_lazy(self.h_z0, 'z0', sel_name)
filler.fill1d_lazy(self.h_deltaZ0, 'deltaZ0', sel_name)
filler.fill2d_lazy(self.h_deltaZ0Veta, 'simeta', 'deltaZ0', sel_name)
filler.fill1d_lazy(self.h_deltaEta, 'deltaEta', sel_name)
filler.fill2d_lazy(self.h_deltaEtaVabseta, 'simabseta', 'deltaEta', sel_name)
filler.fill2d_lazy(self.h_deltaEtaVeta, 'simeta', 'deltaEta', sel_name)
filler.fill1d_lazy(self.h_deltaCaloEta, 'deltaCaloEta', sel_name)
filler.fill2d_lazy(self.h_deltaCaloEtaVabseta, 'simabseta', 'deltaCaloEta', sel_name)
filler.fill2d_lazy(self.h_deltaCaloEtaVeta, 'simeta', 'deltaCaloEta', sel_name)
filler.fill1d_lazy(self.h_deltaCaloPhi, 'deltaCaloPhi', sel_name)
filler.fill2d_lazy(self.h_deltaCaloPhiVabseta, 'simabseta', 'deltaCaloPhi', sel_name)
class TkEleHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', 'eta; #eta;', 100, -2.5, 2.5)
self.h_energy = ROOT.TH1F(name+'_energy', 'energy (GeV); E [GeV]', 1000, 0, 1000)
self.h_hwQual = ROOT.TH1F(name+'_hwQual', 'quality; hwQual', 10, 0, 10)
self.h_tkpt = ROOT.TH1F(name+'_tkpt', 'Tk Pt (GeV); p_{T}^{L1Tk} [GeV]', 100, 0, 100)
self.h_dpt = ROOT.TH1F(name+'_dpt', 'Delta Tk Pt (GeV); #Delta p_{T}^{L1Tk-Calo} [GeV]', 100, -50, 50)
self.h_tkchi2 = ROOT.TH1F(name+'_tkchi2', 'Tk chi2; #Chi^{2}', 1000, 0, 1000)
self.h_ptVtkpt = ROOT.TH2F(name+'_ptVtkpt', 'TkEG Pt (GeV) vs TkPt; p_{T}^{Tk} [GeV]; p_{T}^{EG} [GeV]', 100, 0, 100, 100, 0, 100)
self.h_tkIso = ROOT.TH1F(name+'_tkIso', 'Iso; rel-iso_{tk}', 100, 0, 2)
self.h_pfIso = ROOT.TH1F(name+'_pfIso', 'Iso; rel-iso_{pf}', 100, 0, 2)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, tkegs):
rnp.fill_hist(self.h_pt, tkegs.pt)
rnp.fill_hist(self.h_eta, tkegs.eta)
rnp.fill_hist(self.h_energy, tkegs.energy)
rnp.fill_hist(self.h_hwQual, tkegs.hwQual)
rnp.fill_hist(self.h_tkpt, tkegs.tkPt)
rnp.fill_hist(self.h_dpt, tkegs.dpt)
rnp.fill_hist(self.h_tkchi2, tkegs.tkChi2)
# rnp.fill_hist(self.h_ptVtkpt, tkegs[['tkPt', 'pt']])
if 'tkIso' in tkegs.columns:
rnp.fill_hist(self.h_tkIso, tkegs.tkIso)
rnp.fill_hist(self.h_pfIso, tkegs.pfIso)
def fill_lazy(self, filler, sel_name):
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
filler.fill1d_lazy(self.h_energy, 'energy', sel_name)
filler.fill1d_lazy(self.h_hwQual, 'hwQual', sel_name)
filler.fill1d_lazy(self.h_tkpt, 'tkPt', sel_name)
filler.fill1d_lazy(self.h_dpt, 'dpt', sel_name)
filler.fill1d_lazy(self.h_tkchi2, 'tkChi2', sel_name)
filler.fill1d_lazy(self.h_tkIso, 'tkIso', sel_name)
filler.fill1d_lazy(self.h_pfIso, 'pfIso', sel_name)
class TkEmHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', 'eta; #eta;', 100, -2.5, 2.5)
self.h_energy = ROOT.TH1F(name+'_energy', 'energy (GeV); E [GeV]', 1000, 0, 1000)
self.h_hwQual = ROOT.TH1F(name+'_hwQual', 'quality; hwQual', 10, 0, 10)
self.h_tkIso = ROOT.TH1F(name+'_tkIso', 'Iso; rel-iso_{tk}', 100, 0, 2)
self.h_pfIso = ROOT.TH1F(name+'_pfIso', 'Iso; rel-iso_{pf}', 100, 0, 2)
self.h_tkIsoPV = ROOT.TH1F(name+'_tkIsoPV', 'Iso; rel-iso^{PV}_{tk}', 100, 0, 2)
self.h_pfIsoPV = ROOT.TH1F(name+'_pfIsoPV', 'Iso; rel-iso^{PV}_{pf}', 100, 0, 2)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, tkegs):
rnp.fill_hist(self.h_pt, tkegs.pt)
rnp.fill_hist(self.h_eta, tkegs.eta)
rnp.fill_hist(self.h_energy, tkegs.energy)
rnp.fill_hist(self.h_hwQual, tkegs.hwQual)
rnp.fill_hist(self.h_tkIso, tkegs.tkIso)
rnp.fill_hist(self.h_pfIso, tkegs.pfIso)
rnp.fill_hist(self.h_tkIsoPV, tkegs.tkIsoPV)
rnp.fill_hist(self.h_pfIsoPV, tkegs.pfIsoPV)
def fill_lazy(self, filler, sel_name):
filler.fill1d_lazy(self.h_pt, 'pt', sel_name)
filler.fill1d_lazy(self.h_eta, 'eta', sel_name)
filler.fill1d_lazy(self.h_energy, 'energy', sel_name)
filler.fill1d_lazy(self.h_hwQual, 'hwQual', sel_name)
filler.fill1d_lazy(self.h_tkIso, 'tkIso', sel_name)
filler.fill1d_lazy(self.h_pfIso, 'pfIso', sel_name)
filler.fill1d_lazy(self.h_tkIsoPV, 'tkIsoPV', sel_name)
filler.fill1d_lazy(self.h_pfIsoPV, 'pfIsoPV', sel_name)
class TkEGHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'TkEG Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', 'TkEG eta; #eta;', 100, -4, 4)
self.h_energy = ROOT.TH1F(name+'_energy', 'TkEG energy (GeV); E [GeV]', 1000, 0, 1000)
self.h_hwQual = ROOT.TH1F(name+'_hwQual', 'TkEG energy (GeV); hwQual', 5, 0, 5)
self.h_tkpt = ROOT.TH1F(name+'_tkpt', 'TkEG Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_tketa = ROOT.TH1F(name+'_tketa', 'TkEG eta; #eta;', 100, -4, 4)
self.h_tkchi2 = ROOT.TH1F(name+'_tkchi2', 'TkEG chi2; #Chi^{2}', 1000, 0, 1000)
self.h_tkchi2Red = ROOT.TH1F(name+'_tkchi2Red', 'TkEG chi2 red; reduced #Chi^{2}', 100, 0, 100)
self.h_tknstubs = ROOT.TH1F(name+'_tknstubs', 'TkEG # stubs; # stubs', 10, 0, 10)
self.h_tkz0 = ROOT.TH1F(name+'_tkz0', 'TkEG z0; z_{0} [cm]', 100, -10, 10)
self.h_tkchi2RedVeta = ROOT.TH2F(name+'_tkchi2RedVeta', 'TkEG chi2 red. v eta; #eta; red. #Chi^{2}', 100, -4, 4, 100, 0, 100)
self.h_tknstubsVeta = ROOT.TH2F(name+'_tknstubsVeta', 'TkEG # stubs vs eta; #eta; # stubs', 100, -4, 4, 10, 0, 10)
self.h_tkz0Veta = ROOT.TH2F(name+'_tkz0Veta', 'TkEG z0 vs eta; #eta; z_{0} [cm]', 100, -4, 4, 100, -10, 10)
self.h_dphi = ROOT.TH1F(name+'_dphi', 'TkEG #Delta #phi; #Delta #phi [rad]', 100, -0.2, 0.2)
self.h_dphiVpt = ROOT.TH2F(name+'_dphiVpt', 'TkEG #Delta #phi vs p_{T}^{EG}; p_{T}^{EG} [GeV]; #Delta #phi [rad]', 100, 0, 100, 100, -0.2, 0.2)
self.h_deta = ROOT.TH1F(name+'_deta', 'TkEG #Delta #eta; #Delta #eta', 100, -0.2, 0.2)
self.h_detaVpt = ROOT.TH2F(name+'_detaVpt', 'TkEG #Delta #eta vs p_{T}^{EG}; p_{T}^{EG} [GeV]; #Delta #eta', 100, 0, 100, 100, -0.2, 0.2)
self.h_dr = ROOT.TH1F(name+'_dr', 'TkEG #Delta R; #Delta R', 100, 0, 0.2)
self.h_ptVtkpt = ROOT.TH2F(name+'_ptVtkpt', 'TkEG Pt (GeV) vs TkPt; p_{T}^{Tk} [GeV]; p_{T}^{EG} [GeV]', 100, 0, 100, 100, 0, 100)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, tkegs):
rnp.fill_hist(self.h_pt, tkegs.pt)
rnp.fill_hist(self.h_eta, tkegs.eta)
rnp.fill_hist(self.h_energy, tkegs.energy)
rnp.fill_hist(self.h_hwQual, tkegs.hwQual)
rnp.fill_hist(self.h_tkpt, tkegs.tkpt)
rnp.fill_hist(self.h_tketa, tkegs.tketa)
rnp.fill_hist(self.h_tkchi2, tkegs.tkchi2)
rnp.fill_hist(self.h_tkchi2Red, tkegs.tkchi2Red)
rnp.fill_hist(self.h_tknstubs, tkegs.tknstubs)
rnp.fill_hist(self.h_tkz0, tkegs.tkz0)
rnp.fill_hist(self.h_tkchi2RedVeta, tkegs[['eta', 'tkchi2Red']])
rnp.fill_hist(self.h_tknstubsVeta, tkegs[['eta', 'tknstubs']])
rnp.fill_hist(self.h_tkz0Veta, tkegs[['eta', 'tkz0']])
rnp.fill_hist(self.h_dphi, tkegs.dphi)
rnp.fill_hist(self.h_deta, tkegs.deta)
rnp.fill_hist(self.h_dphiVpt, tkegs[['pt', 'dphi']])
rnp.fill_hist(self.h_detaVpt, tkegs[['pt', 'deta']])
rnp.fill_hist(self.h_dr, tkegs.dr)
rnp.fill_hist(self.h_ptVtkpt, tkegs[['tkpt', 'pt']])
class TrackHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'Track Pt (GeV); p_{T} [GeV]', 100, 0, 100)
self.h_eta = ROOT.TH1F(name+'_eta', 'Track eta; #eta;', 100, -4, 4)
self.h_chi2 = ROOT.TH1F(name+'_chi2', 'Track chi2; #Chi^{2}', 1000, 0, 1000)
self.h_chi2Red = ROOT.TH1F(name+'_chi2Red', 'Track chi2 red; red. #Chi^{2}', 100, 0, 100)
self.h_nstubs = ROOT.TH1F(name+'_nstubs', 'Track # stubs; # stubs', 10, 0, 10)
self.h_z0 = ROOT.TH1F(name+'_z0', 'Track z0; z_{0} [cm]', 100, -10, 10)
self.h_chi2RedVeta = ROOT.TH2F(name+'_chi2RedVeta', 'Track chi2 red. v eta; #eta; red. #Chi^{2}', 100, -4, 4, 100, 0, 100)
self.h_nstubsVeta = ROOT.TH2F(name+'_nstubsVeta', 'Track # stubs vs eta; #eta; # stubs', 100, -4, 4, 10, 0, 10)
self.h_z0Veta = ROOT.TH2F(name+'_z0Veta', 'Track z0 vs eta; #eta; z_{0} [cm]', 100, -4, 4, 100, -10, 10)
self.h_chi2RedVpt = ROOT.TH2F(name+'_chi2RedVpt', 'Track chi2 red. v pT; p_{T} [GeV]; red. #Chi^{2}', 100, 0, 100, 100, 0, 100)
self.h_nstubsVpt = ROOT.TH2F(name+'_nstubsVpt', 'Track # stubs vs pT; p_{T} [GeV]; # stubs', 100, 0, 100, 10, 0, 10)
self.h_z0Vpt = ROOT.TH2F(name+'_z0Vpt', 'Track z0 vs pT; p_{T} [GeV]; z_{0} [cm]', 100, 0, 100, 100, -10, 10)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, tracks):
rnp.fill_hist(self.h_pt, tracks.pt)
rnp.fill_hist(self.h_eta, tracks.eta)
rnp.fill_hist(self.h_chi2, tracks.chi2)
rnp.fill_hist(self.h_chi2Red, tracks.chi2Red)
rnp.fill_hist(self.h_nstubs, tracks.nStubs)
rnp.fill_hist(self.h_z0, tracks.z0)
rnp.fill_hist(self.h_chi2RedVeta, tracks[['eta', 'chi2Red']])
rnp.fill_hist(self.h_nstubsVeta, tracks[['eta', 'nStubs']])
rnp.fill_hist(self.h_z0Veta, tracks[['eta', 'z0']])
rnp.fill_hist(self.h_chi2RedVpt, tracks[['pt', 'chi2Red']])
rnp.fill_hist(self.h_nstubsVpt, tracks[['pt', 'nStubs']])
rnp.fill_hist(self.h_z0Vpt, tracks[['pt', 'z0']])
class TriggerTowerHistos(BaseHistos):
def __init__(self, name, root_file=None, debug=False):
if not root_file:
self.h_pt = ROOT.TH1F(name+'_pt', 'Tower Pt (GeV); p_{T} [GeV];', 100, 0, 100)
self.h_etEm = ROOT.TH1F(name+'_etEm', 'Tower Et EM (GeV)', 100, 0, 100)
self.h_etHad = ROOT.TH1F(name+'_etHad', 'Tower Et Had (GeV)', 100, 0, 100)
self.h_HoE = ROOT.TH1F(name+'_HoE', 'Tower H/E', 20, 0, 2)
self.h_HoEVpt = ROOT.TH2F(name+'_HoEVpt', 'Tower H/E vs Pt (GeV); H/E;', 50, 0, 100, 20, 0, 2)
self.h_energy = ROOT.TH1F(name+'_energy', 'Tower energy (GeV)', 1000, 0, 1000)
self.h_eta = ROOT.TH1F(name+'_eta', 'Tower eta; #eta;', 75, -3.169, 3.169)
self.h_ieta = ROOT.TH1F(name+'_ieta', 'Tower eta; i#eta;', 18, 0, 18)
self.h_ptVeta = ROOT.TH2F(name+'_ptVeta', 'Tower P_P{T} (GeV) vs #eta; #eta; p_{T} [GeV];', 75, -3.169, 3.169, 100, 0, 10)
self.h_etVieta = ROOT.TH2F(name+'_etVieta', 'Tower E_{T} (GeV) vs ieta; i#eta; E_{T} [GeV];', 18, 0, 18, 100, 0, 10)
self.h_etEmVieta = ROOT.TH2F(name+'_etEmVieta', 'Tower E_{T} EM (GeV) vs ieta; i#eta; E_{T}^{EM} [GeV];', 18, 0, 18, 100, 0, 10)
self.h_etHadVieta = ROOT.TH2F(name+'_etHadVieta', 'Tower E_{T} Had (GeV) vs ieta; i#eta; E_{T}^{HAD} [GeV];', 18, 0, 18, 100, 0, 10)
self.h_sumEt = ROOT.TH1F(name+'_sumEt', 'Tower SumEt (GeV); E_{T}^{TOT} [GeV];', 200, 0, 400)
self.h_sumEtCentral = ROOT.TH1F(name+'_sumEtCentral', 'Tower SumEt (GeV) (central); E_{T}^{TOT} [GeV];', 200, 0, 400)
BaseHistos.__init__(self, name, root_file, debug)
def fill(self, towers):
rnp.fill_hist(self.h_pt, towers.pt)
rnp.fill_hist(self.h_etEm, towers.etEm)
rnp.fill_hist(self.h_etHad, towers.etHad)
rnp.fill_hist(self.h_HoE, towers.HoE)
rnp.fill_hist(self.h_HoEVpt, towers[['pt', 'HoE']])
rnp.fill_hist(self.h_energy, towers.energy)
rnp.fill_hist(self.h_eta, towers.eta)
rnp.fill_hist(self.h_ieta, towers.iEta)
rnp.fill_hist(self.h_ptVeta, towers[['eta', 'pt']])
rnp.fill_hist(self.h_etVieta, towers[['iEta', 'pt']])
rnp.fill_hist(self.h_etEmVieta, towers[['iEta', 'etEm']])
rnp.fill_hist(self.h_etHadVieta, towers[['iEta', 'etHad']])
if not towers.empty:
self.h_sumEt.Fill(towers.momentum.sum().Pt())
central_towers = towers[(towers.iEta != 0) & (towers.iEta != 17)]
if not central_towers.empty:
self.h_sumEtCentral.Fill(central_towers.momentum.sum().Pt())
class TriggerTowerResoHistos(BaseResoHistos):
def __init__(self, name, root_file=None):
if not root_file:
self.h_ptRes = ROOT.TH1F(name+'_ptRes', 'TT Pt reso (GeV); (p_{T}^{L1}-p_{T}^{GEN})/p_{T}^{GEN};', 100, -1, 2)
self.h_ptResVpt = ROOT.TH2F(name+'_ptResVpt', 'TT Pt reso (GeV) vs pt (GeV); p_{T}^{GEN} [GeV]; (p_{T}^{L1}-p_{T}^{GEN})/p_{T}^{GEN};', 50, 0, 100, 100, -1, 2)
self.h_ptResVeta = ROOT.TH2F(name+'_ptResVeta', 'TT Pt reso (GeV) vs eta; #eta^{GEN}; (p_{T}^{L1}-p_{T}^{GEN})/p_{T}^{GEN};', 100, -3.5, 3.5, 100, -1, 2)
self.h_ptResp = ROOT.TH1F(name+'_ptResp', 'TT Pt resp.; p_{T}^{L1}/p_{T}^{GEN};', 100, 0, 2)
self.h_ptRespVpt = ROOT.TH2F(name+'_ptRespVpt', 'TT Pt resp. vs pt (GeV); p_{T}^{GEN} [GeV]; p_{T}^{L1}/p_{T}^{GEN};', 50, 0, 100, 100, 0, 2)
self.h_ptRespVeta = ROOT.TH2F(name+'_ptRespVeta', 'TT Pt resp. vs |#eta|; |#eta^{GEN}|; p_{T}^{L1}/p_{T}^{GEN};', 34, 1.4, 3.1, 100, 0, 2)
self.h_energyRes = ROOT.TH1F(name+'_energyRes', 'TT Energy reso (GeV)', 200, -100, 100)
self.h_energyResVeta = ROOT.TH2F(name+'_energyResVeta', 'TT E reso (GeV) vs eta', 100, -3.5, 3.5, 200, -100, 100)
# FIXME: add corresponding Pt plots
self.h_etaRes = ROOT.TH1F(name+'_etaRes', 'TT eta reso; #eta^{L1}-#eta^{GEN}', 100, -0.4, 0.4)
self.h_phiRes = ROOT.TH1F(name+'_phiRes', 'TT phi reso; #phi^{L1}-#phi^{GEN}', 100, -0.4, 0.4)
self.h_etalwRes = ROOT.TH1F(name+'_etalwRes', 'TT eta reso (lw)', 100, -0.4, 0.4)
self.h_philwRes = ROOT.TH1F(name+'_philwRes', 'TT phi reso (lw)', 100, -0.4, 0.4)
self.h_drRes = ROOT.TH1F(name+'_drRes', 'TT DR reso', 100, 0, 0.1)
BaseResoHistos.__init__(self, name, root_file)
def fill(self, reference, target):
self.h_ptRes.Fill((target.pt - reference.pt)/reference.pt)
self.h_ptResVpt.Fill(reference.pt, (target.pt - reference.pt)/reference.pt)
self.h_ptResVeta.Fill(reference.eta, (target.pt - reference.pt)/reference.pt)
self.h_ptResp.Fill(target.pt/reference.pt)
self.h_ptRespVpt.Fill(reference.pt, target.pt/reference.pt)
self.h_ptRespVeta.Fill(abs(reference.eta), target.pt/reference.pt)
self.h_energyRes.Fill(target.energy - reference.energy)
self.h_energyResVeta.Fill(reference.eta, target.energy - reference.energy)
self.h_etaRes.Fill(target.eta - reference.eta)
self.h_phiRes.Fill(target.phi - reference.phi)
self.h_drRes.Fill(np.sqrt((reference.phi-target.phi)**2+(reference.eta-target.eta)**2))
if 'etalw' in target:
self.h_etalwRes.Fill(target.etalw - reference.eta)
if 'philw' in target:
self.h_philwRes.Fill(target.philw - reference.phi)
class ResoHistos(BaseResoHistos):
# @profile
def __init__(self, name, root_file=None, debug=False):
if not root_file:
# self.h_ptRes = ROOT.TH1F(
# name+'_ptRes', '3D Cluster Pt reso (GeV); (p_{T}^{L1} - p_{T}^{GEN})/p_{T}^{GEN}',
# 100, -1, 1)
# # self.h_energyRes = ROOT.TH1F(name+'_energyRes', '3D Cluster Energy reso (GeV); E^{L1} - E^{GEN} [GeV]', 200, -100, 100)
# self.h_ptResVeta = ROOT.TH2F(
# name+'_ptResVeta', '3D Cluster Pt reso (GeV) vs eta; #eta^{GEN}; p_{T}^{L1} - p_{T}^{GEN} [GeV];',
# 50, -3.5, 3.5, 20, -40, 40)
# # self.h_energyResVenergy = ROOT.TH2F(
# # name+'_energyResVenergy',
# # '3D Cluster E reso vs E; E^{GEN} [GeV]; (E^{L1} - E^{GEN})/E^{GEN};',
# # 100, 0, 1000, 100, -1.5, 1.5)
# # self.h_energyResVeta = ROOT.TH2F(
# # name+'_energyResVeta',
# # '3D Cluster E reso (GeV) vs eta; #eta^{GEN}; (E^{L1} - E^{GEN})/E^{GEN};',
# # 100, -3.5, 3.5, 100, -1.5, 1.5)
# # self.h_energyResVnclu = ROOT.TH2F(name+'_energyResVnclu', '3D Cluster E reso (GeV) vs # clusters; # 2D clus.; E^{L1} - E^{GEN} [GeV];', 50, 0, 50, 200, -100, 100)
# self.h_ptResVpt = ROOT.TH2F(
# name+'_ptResVpt',
# '3D Cluster Pt reso (GeV) vs pt (GeV); p_{T}^{GEN} [GeV]; p_{T}^{L1} - p_{T}^{GEN} [GeV];',
# 50, 0, 100, 200, -40, 40)
# self.h_ptResVnclu = ROOT.TH2F(name+'_ptResVnclu', '3D Cluster Pt reso (GeV) vs # clusters; # 2D clus.; p_{T}^{L1} - p_{T}^{GEN} [GeV];', 50, 0, 50, 200, -40, 40)
self.h_ptResp = ROOT.TH1F(
name+'_ptResp',
'3D Cluster Pt resp.; p_{T}^{L1}/p_{T}^{GEN}',
100, 0, 2)
self.h_ptRespVpt = ROOT.TH2F(
name+'_ptRespVpt',
'3D Cluster Pt resp. vs pt (GeV); p_{T}^{GEN} [GeV]; p_{T}^{L1}/p_{T}^{GEN};',
50, 0, 100, 100, 0, 2)
self.h_ptRespVeta = ROOT.TH2F(
name+'_ptRespVeta',