def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
assert len(names) == 2
objs = [h.obj for h in histograms]
h1, h2 = objs
p1 = R.TPad("pad", "", 0, 0, 1, 1)
keepalive(canvas, p1)
p1.Draw()
p1.cd()
h1.SetLineColor(R.kGreen)
h1.Draw()
# return
p2 = R.TPad("overlay", "", 0, 0, 1, 1)
keepalive(canvas, p2)
p2.SetFillStyle(4000)
p2.SetFrameFillStyle(4000)
p2.Draw()
p2.cd()
h2.SetLineColor(R.kRed)
h2.Draw("Y+")
def Get(self, name, rootpy=True, **kwargs):
"""
Return the requested object cast as its corresponding subclass in
rootpy if one exists and ``rootpy=True``, otherwise return the
unadulterated TObject.
"""
thing = super(_DirectoryBase, self).Get(name)
if not thing:
raise DoesNotExist
# Ensure that the file we took the object from is alive at least as long
# as the object being taken from it.
# Note, Python does *not* own `thing`, it is ROOT's responsibility to
# delete it in the C++ sense. (SetOwnership is False). However, ROOT
# will delete the object when the TFile's destructor is run.
# Therefore, when `thing` goes out of scope and the file referred to
# by `this` has no references left, the file is destructed and calls
# `thing`'s delete.
# (this is thanks to the fact that weak referents (used by keepalive)
# are notified when they are dead).
keepalive(thing, self)
if rootpy:
return asrootpy(thing, **kwargs)
return thing
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
assert len(names) == 2
objs = [h.obj for h in histograms]
h1, h2 = objs
p1 = R.TPad("pad", "", 0, 0, 1, 1)
keepalive(canvas, p1)
p1.Draw()
p1.cd()
h1.SetLineColor(R.kGreen)
h1.Draw()
# return
p2 = R.TPad("overlay", "", 0, 0, 1, 1)
keepalive(canvas, p2)
p2.SetFillStyle(4000)
p2.SetFrameFillStyle(4000)
p2.Draw()
p2.cd()
h2.SetLineColor(R.kRed)
h2.Draw("Y+")
def line(x):
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(1)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
def Get(self, name, rootpy=True, **kwargs):
"""
Return the requested object cast as its corresponding subclass in
rootpy if one exists and ``rootpy=True``, otherwise return the
unadulterated TObject.
"""
thing = super(_DirectoryBase, self).Get(name)
if not thing:
raise DoesNotExist
# Ensure that the file we took the object from is alive at least as long
# as the object being taken from it.
# Note, Python does *not* own `thing`, it is ROOT's responsibility to
# delete it in the C++ sense. (SetOwnership is False). However, ROOT
# will delete the object when the TFile's destructor is run.
# Therefore, when `thing` goes out of scope and the file referred to
# by `this` has no references left, the file is destructed and calls
# `thing`'s delete.
# (this is thanks to the fact that weak referents (used by keepalive)
# are notified when they are dead).
keepalive(thing, self)
if rootpy:
return asrootpy(thing, **kwargs)
return thing
def line(x):
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(1)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
def line(x, yrange):
ymin, ymax = yrange
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(3); l.SetLineStyle(2)
l.Draw()
keepalive(l)
def render(self, canvas):
# TODO(pwaller): Introduce some options here..
g = self.resource_to_render.obj
opts = "ACP"
if isinstance(g, R.TGraph2D):
opts = "SURF"
g.Draw(opts)
keepalive(canvas, g)
def render(self, canvas):
# TODO(pwaller): Introduce some options here..
g = self.resource_to_render.obj
opts = "ACP"
if isinstance(g, R.TGraph2D):
opts = "SURF"
g.Draw(opts)
keepalive(canvas, g)
def line(x, yrange):
ymin, ymax = yrange
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(3)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
def label_plot(pad,
template,
xaxis,
yaxis,
ylabel='Events',
xlabel=None,
units=None,
data_info=None,
category_label=None,
atlas_label=None,
extra_label=None,
extra_label_position='left',
textsize=22):
# set the axis labels
binw = list(template.xwidth())
binwidths = list(set(['%.2g' % w for w in binw]))
if units is not None:
if xlabel is not None:
xlabel = '%s [%s]' % (xlabel, units)
if ylabel and len(binwidths) == 1 and binwidths[0] != '1':
# constant width bins
ylabel = '%s / %s %s' % (ylabel, binwidths[0], units)
elif ylabel and len(binwidths) == 1 and binwidths[0] != '1':
ylabel = '%s / %s' % (ylabel, binwidths[0])
if ylabel:
yaxis.SetTitle(ylabel)
if xlabel:
xaxis.SetTitle(xlabel)
left, right, bottom, top = pad.margin_pixels
height = float(pad.height_pixels)
category_lumi_atlas(pad, category_label, data_info, atlas_label)
# draw the extra label
if extra_label is not None:
if extra_label_position == 'left':
label = ROOT.TLatex(pad.GetLeftMargin() + 0.03,
1. - (top + 2 * (textsize + 15)) / height,
extra_label)
else: # right
label = ROOT.TLatex(1. - pad.GetRightMargin() - 0.03,
1. - (top + 2 * (textsize + 15)) / height,
extra_label)
label.SetTextAlign(31)
label.SetNDC()
label.SetTextFont(43)
label.SetTextSize(textsize)
with pad:
label.Draw()
keepalive(pad, label)
pad.Update()
pad.Modified()
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
assert len(names) == 2
h1, h2 = [h.obj for h in histograms]
h = h2.Clone()
keepalive(h)
h.Add(h1, -1)
h.Draw()
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
assert len(names) == 2
h1, h2 = sorted([h.obj for h in histograms], key=lambda x: x.GetEntries())
eff = R.TEfficiency(h1, h2)
keepalive(canvas, eff)
eff.SetFillColor(R.kRed)
eff.Draw("AP")
def label_plot(pad, template, xaxis, yaxis,
ylabel='Events', xlabel=None,
units=None, data_info=None,
category_label=None,
atlas_label=None,
extra_label=None,
extra_label_position='left',
textsize=22):
# set the axis labels
binw = list(template.xwidth())
binwidths = list(set(['%.2g' % w for w in binw]))
if units is not None:
if xlabel is not None:
xlabel = '%s [%s]' % (xlabel, units)
if ylabel and len(binwidths) == 1 and binwidths[0] != '1':
# constant width bins
ylabel = '%s / %s %s' % (ylabel, binwidths[0], units)
elif ylabel and len(binwidths) == 1 and binwidths[0] != '1':
ylabel = '%s / %s' % (ylabel, binwidths[0])
if ylabel:
yaxis.SetTitle(ylabel)
if xlabel:
xaxis.SetTitle(xlabel)
left, right, bottom, top = pad.margin_pixels
height = float(pad.height_pixels)
category_lumi_atlas(pad, category_label, data_info, atlas_label)
# draw the extra label
if extra_label is not None:
if extra_label_position == 'left':
label = ROOT.TLatex(pad.GetLeftMargin() + 0.03,
1. - (top + 2 * (textsize + 15)) / height,
extra_label)
else: # right
label = ROOT.TLatex(1. - pad.GetRightMargin() - 0.03,
1. - (top + 2 * (textsize + 15)) / height,
extra_label)
label.SetTextAlign(31)
label.SetNDC()
label.SetTextFont(43)
label.SetTextSize(textsize)
with pad:
label.Draw()
keepalive(pad, label)
pad.Update()
pad.Modified()
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
assert len(names) == 2
h1, h2 = sorted([h.obj for h in histograms],
key=lambda x: x.GetEntries())
eff = R.TEfficiency(h1, h2)
keepalive(canvas, eff)
eff.SetFillColor(R.kRed)
eff.Draw("AP")
def Draw(self, *args):
pad = ROOT.gPad.func()
if not pad:
pad = Canvas()
if self.visible:
if self.drawstyle:
self.__class__.__bases__[-1].Draw(self,
" ".join((self.drawstyle, ) + args))
else:
self.__class__.__bases__[-1].Draw(self,
" ".join(args))
pad.Modified()
pad.Update()
keepalive(self, pad)
def render(self, canvas):
params = self.request.params
h = self.resource_to_render.obj
if "unit_fixup" in params:
h = fixup_hist_units(h)
if "nostat" in params:
h.SetStats(False)
if "notitle" in params:
h.SetTitle("")
h.Draw(build_draw_params(h, params))
keepalive(canvas, h)
def render(self, canvas):
params = self.request.params
h = self.resource_to_render.obj
if "unit_fixup" in params:
h = fixup_hist_units(h)
if "nostat" in params:
h.SetStats(False)
if "notitle" in params:
h.SetTitle("")
h.Draw(build_draw_params(h, params))
keepalive(canvas, h)
def category_lumi_atlas(pad,
category_label=None,
data_info=None,
atlas_label=None,
textsize=22):
left, right, bottom, top = pad.margin_pixels
height = float(pad.height_pixels)
# draw the category label
if category_label:
label = ROOT.TLatex(1. - pad.GetRightMargin(),
1. - (textsize - 2) / height, category_label)
label.SetNDC()
label.SetTextFont(43)
label.SetTextSize(textsize)
label.SetTextAlign(31)
with pad:
label.Draw()
keepalive(pad, label)
# draw the luminosity label
if data_info is not None:
plabel = ROOT.TLatex(1. - pad.GetRightMargin() - 0.03,
1. - (top + textsize + 15) / height,
str(data_info))
plabel.SetNDC()
plabel.SetTextFont(43)
plabel.SetTextSize(textsize)
plabel.SetTextAlign(31)
with pad:
plabel.Draw()
keepalive(pad, plabel)
# draw the ATLAS label
if atlas_label is not False:
label = atlas_label or ATLAS_LABEL
ATLAS_label(pad.GetLeftMargin() + 0.03,
1. - (top + textsize + 15) / height,
sep=0.132,
pad=pad,
sqrts=None,
text=label,
textsize=textsize)
pad.Update()
pad.Modified()
def category_lumi_atlas(pad, category_label=None,
data_info=None, atlas_label=None,
textsize=22):
left, right, bottom, top = pad.margin_pixels
height = float(pad.height_pixels)
# draw the category label
if category_label:
label = ROOT.TLatex(
1. - pad.GetRightMargin(),
1. - (textsize - 2) / height,
category_label)
label.SetNDC()
label.SetTextFont(43)
label.SetTextSize(textsize)
label.SetTextAlign(31)
with pad:
label.Draw()
keepalive(pad, label)
# draw the luminosity label
if data_info is not None:
plabel = ROOT.TLatex(
1. - pad.GetRightMargin() - 0.03,
1. - (top + textsize + 15) / height,
str(data_info))
plabel.SetNDC()
plabel.SetTextFont(43)
plabel.SetTextSize(textsize)
plabel.SetTextAlign(31)
with pad:
plabel.Draw()
keepalive(pad, plabel)
# draw the ATLAS label
if atlas_label is not False:
label = atlas_label or ATLAS_LABEL
ATLAS_label(pad.GetLeftMargin() + 0.03,
1. - (top + textsize + 15) / height,
sep=0.132, pad=pad, sqrts=None,
text=label,
textsize=textsize)
pad.Update()
pad.Modified()
def __init__(self, workspace, category):
self.ws = workspace
self.cat = category
self.mc = self.ws.obj('ModelConfig')
self.index_cat = self.mc.GetPdf().index_category
self.obsData = self.ws.data('obsData')
self.pdf = self.mc.GetPdf().pdf(self.cat)
self._obs = self.pdf.getObservables(self.mc.GetObservables()).first()
self._frame = self._obs.frame()
self._frame.SetName('{0}'.format(self.cat.name))
keepalive(self._frame, self._frame.GetName())
self._components = [Component(comp) for comp in self.iter_pdf_components()]
self._signal = Component(RooAddition('sum_sig_{0}'.format(self.cat.name),
'sum_sig_{0}'.format(self.cat.name),
self.signal_pdf_components()))
self._background = Component(RooAddition('sum_bkg_{0}'.format(self.cat.name),
'sum_bkg_{0}'.format(self.cat.name),
self.background_pdf_components()))
def __init__(self, workspace, category):
self.ws = workspace
self.cat = category
self.mc = self.ws.obj('ModelConfig')
self.index_cat = self.mc.GetPdf().index_category
self.obsData = self.ws.data('obsData')
self.pdf = self.mc.GetPdf().pdf(self.cat)
self._obs = self.pdf.getObservables(self.mc.GetObservables()).first()
self._frame = self._obs.frame()
self._frame.SetName('{0}'.format(self.cat.name))
keepalive(self._frame, self._frame.GetName())
self._components = [
Component(comp) for comp in self.iter_pdf_components()
]
self._signal = Component(
RooAddition('sum_sig_{0}'.format(self.cat.name),
'sum_sig_{0}'.format(self.cat.name),
self.signal_pdf_components()))
self._background = Component(
RooAddition('sum_bkg_{0}'.format(self.cat.name),
'sum_bkg_{0}'.format(self.cat.name),
self.background_pdf_components()))
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
# print "Rendering stack with {0} histograms".format(len(histograms))
objs = [h.obj for h in histograms]
colordict = {
"all": R.kBlue,
"signal": R.kGreen,
"fake": R.kRed,
}
from ROOT import (kAzure, kBlue, kWhite, kRed, kBlack, kGray, kGreen,
kYellow, kTeal, kCyan, kMagenta, kSpring)
clrs = [
kWhite, kGreen, kYellow, kBlue, kCyan, kMagenta, kBlack, kGray,
kRed, kAzure
]
mc = []
signals = []
data = []
name_of = {}
def is_data(h, name):
# log.info("Got histogram: {0} - {1}".format(h.GetName(), name))
# return h.GetTitle().lower().startswith("data")
return "data" in name
def is_signal(h):
return h.GetTitle().lower().startswith("higgs")
for name, obj in zip(names, objs):
name_of[obj] = name
obj.SetStats(False)
if not obj.GetTitle():
obj.SetTitle(name.replace(".root", ""))
if is_data(obj, name):
data.append(obj)
elif is_signal(obj):
signals.append(obj)
else:
mc.append(obj)
# obj.SetFillStyle(1001)
for h in data:
h.SetMarkerStyle(20)
h.SetMarkerSize(1.2)
h.SetFillStyle(0)
mc.sort(key=lambda h: h.GetMaximum())
for h, col in zip(reversed(mc), clrs):
if name_of[h] in colordict:
col = colordict[name_of[h]]
log.warning("Giving %s the color %s" % (name_of[h], col))
h.SetMarkerColor(col)
h.SetLineColor(R.kBlack)
h.SetLineWidth(2)
h.SetFillColor(col)
h.SetFillStyle(1001)
for h, col in zip(reversed(signals), (R.kRed, R.kBlue, R.kGreen)):
h.SetLineColor(col)
h.SetLineWidth(2)
h.SetLineStyle(2)
# get min/max
ymax = sum(h.GetMaximum() for h in mc)
ymin = sum(h.GetMinimum() for h in mc)
if data or signals:
ymax = max(ymax, max(h.GetMaximum() for h in data + signals))
ymin = min(ymin, min(h.GetMinimum() for h in data + signals))
ymax += 1
ymax *= (1.5 if not canvas.GetLogy() else 120)
ymin = max(5e-1, ymin)
# Create Stack of MC
mcstack = R.THStack()
for h in mc:
mcstack.Add(h)
keepalive(canvas, mcstack)
axis = None
mc_sum_line, mc_sum_error = None, None
if mc:
axis = mcstack
mcstack.Draw("Hist")
mc_sum_line, mc_sum_error = create_mc_sum(mc)
keepalive(canvas, mc_sum_line)
keepalive(canvas, mc_sum_error)
for signal in signals:
if mc:
signal.Add(mc_sum_line)
if not axis:
axis = signal
signal.Draw("hist")
else:
signal.Draw("hist same")
if mc:
mc_sum_error.Draw("e2same")
mc_sum_line.Draw("hist same")
for d in data:
if not axis:
axis = d
d.Draw("pe")
else:
d.Draw("pe same")
axis.SetMaximum(ymax)
axis.SetMinimum(ymin)
axis.GetXaxis().SetRange(objs[0].GetXaxis().GetFirst(),
objs[0].GetXaxis().GetLast())
axis.GetXaxis().SetTitle(objs[0].GetXaxis().GetTitle())
if not self.request.params.get("xlabel", None) is None:
axis.GetXaxis().SetTitle(self.request.params["xlabel"])
if not self.request.params.get("ylabel", None) is None:
axis.GetYaxis().SetTitle(self.request.params["ylabel"])
logy = canvas.GetLogy()
canvas.SetLogy(False)
canvas.Update()
ymin, ymax = canvas.GetUymin(), canvas.GetUymax()
canvas.SetLogy(logy)
canvas.Update()
def line(x):
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(1)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
# Draw cuts
slot = self.request.params.get("slot", None)
if not slot:
# Determine slot from path
for p in lineage(self):
if p.__name__ in cuts:
slot = p.__name__
if slot:
for x in set(cuts[slot]):
if canvas.GetUxmin() < x < canvas.GetUxmax():
line(x)
if not self.request.params.get("legend", None) is None:
legend = get_legend(mc=mc,
data=data,
signal=signals,
mc_sum=mc_sum_error)
legend.Draw()
if not self.request.params.get("lumi", None) is None:
label = get_lumi_label(lumi=self.request.params["lumi"])
label.Draw()
p = preliminary()
p.Draw("hist e0x0")
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
# print "Rendering stack with {0} histograms".format(len(histograms))
objs = [h.obj for h in histograms]
colordict = {
"all": R.kBlue,
"signal": R.kGreen,
"fake": R.kRed,
}
from ROOT import (kAzure, kBlue, kWhite, kRed, kBlack, kGray,
kGreen, kYellow, kTeal, kCyan, kMagenta, kSpring)
clrs = [kWhite, kGreen, kYellow, kBlue, kCyan,
kMagenta, kBlack, kGray, kRed, kAzure]
mc = []
signals = []
data = []
name_of = {}
def is_data(h, name):
# log.info("Got histogram: {0} - {1}".format(h.GetName(), name))
# return h.GetTitle().lower().startswith("data")
return "data" in name
def is_signal(h):
return h.GetTitle().lower().startswith("higgs")
for name, obj in zip(names, objs):
name_of[obj] = name
obj.SetStats(False)
if not obj.GetTitle():
obj.SetTitle(name.replace(".root", ""))
if is_data(obj, name):
data.append(obj)
elif is_signal(obj):
signals.append(obj)
else:
mc.append(obj)
# obj.SetFillStyle(1001)
for h in data:
h.SetMarkerStyle(20)
h.SetMarkerSize(1.2)
h.SetFillStyle(0)
mc.sort(key=lambda h: h.GetMaximum())
for h, col in zip(reversed(mc), clrs):
if name_of[h] in colordict:
col = colordict[name_of[h]]
log.warning("Giving %s the color %s" % (name_of[h], col))
h.SetMarkerColor(col)
h.SetLineColor(R.kBlack)
h.SetLineWidth(2)
h.SetFillColor(col)
h.SetFillStyle(1001)
for h, col in zip(reversed(signals), (R.kRed, R.kBlue, R.kGreen)):
h.SetLineColor(col)
h.SetLineWidth(2)
h.SetLineStyle(2)
# get min/max
ymax = sum(h.GetMaximum() for h in mc)
ymin = sum(h.GetMinimum() for h in mc)
if data or signals:
ymax = max(ymax, max(h.GetMaximum() for h in data + signals))
ymin = min(ymin, min(h.GetMinimum() for h in data + signals))
ymax += 1
ymax *= (1.5 if not canvas.GetLogy() else 120)
ymin = max(5e-1, ymin)
# Create Stack of MC
mcstack = R.THStack()
for h in mc:
mcstack.Add(h)
keepalive(canvas, mcstack)
axis = None
mc_sum_line, mc_sum_error = None, None
if mc:
axis = mcstack
mcstack.Draw("Hist")
mc_sum_line, mc_sum_error = create_mc_sum(mc)
keepalive(canvas, mc_sum_line)
keepalive(canvas, mc_sum_error)
for signal in signals:
if mc:
signal.Add(mc_sum_line)
if not axis:
axis = signal
signal.Draw("hist")
else:
signal.Draw("hist same")
if mc:
mc_sum_error.Draw("e2same")
mc_sum_line.Draw("hist same")
for d in data:
if not axis:
axis = d
d.Draw("pe")
else:
d.Draw("pe same")
axis.SetMaximum(ymax)
axis.SetMinimum(ymin)
axis.GetXaxis().SetRange(objs[0].GetXaxis().GetFirst(), objs[0].GetXaxis().GetLast())
axis.GetXaxis().SetTitle(objs[0].GetXaxis().GetTitle())
if not self.request.params.get("xlabel", None) is None:
axis.GetXaxis().SetTitle(self.request.params["xlabel"])
if not self.request.params.get("ylabel", None) is None:
axis.GetYaxis().SetTitle(self.request.params["ylabel"])
logy = canvas.GetLogy()
canvas.SetLogy(False)
canvas.Update()
ymin, ymax = canvas.GetUymin(), canvas.GetUymax()
canvas.SetLogy(logy)
canvas.Update()
def line(x):
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(1)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
# Draw cuts
slot = self.request.params.get("slot", None)
if not slot:
# Determine slot from path
for p in lineage(self):
if p.__name__ in cuts:
slot = p.__name__
if slot:
for x in set(cuts[slot]):
if canvas.GetUxmin() < x < canvas.GetUxmax():
line(x)
if not self.request.params.get("legend", None) is None:
legend = get_legend(mc=mc, data=data, signal=signals, mc_sum=mc_sum_error)
legend.Draw()
if not self.request.params.get("lumi", None) is None:
label = get_lumi_label(lumi=self.request.params["lumi"])
label.Draw()
p = preliminary()
p.Draw("hist e0x0")
def Draw(self, *args, **kwargs):
keepalive(ROOT.gPad.func(), self)
return super(DrawableKeepAlive, self).Draw(*args, **kwargs)
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
# print "Rendering stack with {0} histograms".format(len(histograms))
names = [n for n in names]
histograms = [h for h in histograms]
objs = [h.obj for h in histograms]
if "sum" in params:
hsum = objs[0].Clone("sum")
keepalive(canvas, hsum)
hsum.SetTitle("sum")
for h in objs[1:]:
hsum.Add(h)
names.append("sum")
objs.append(hsum)
colordict = {
"all": R.kBlue,
"signal": R.kGreen,
"fake": R.kRed,
}
cols = [R.kBlue, R.kRed, R.kGreen, R.kViolet, R.kAzure + 6, R.kOrange]
for name, obj, col in zip(names, objs, cols):
col = col + 1
# obj.SetTitle(""); obj.SetStats(False)
if name in colordict:
obj.SetLineColor(colordict[name])
else:
obj.SetLineColor(col)
obj.SetMarkerColor(col)
obj.SetLineWidth(2)
if "shape" in params:
for obj in objs:
if obj.Integral():
obj.Scale(1. / obj.Integral())
max_value = max(o.GetMaximum() for o in objs) * 1.1
min_value = min(o.GetMinimum() for o in objs)
if min_value != objs[0].GetMinimum():
old_minvalue = min_value
# Apply a correction to include a bit more than just the lower bound
min_value = min_value - (max_value - min_value) * 0.1
# If this takes us below zero but the old minimum value was close
# to zero, just use zero.
if min_value < 0 and abs(old_minvalue) < 1e-8:
min_value = 0
obj = objs[0] # .pop(0)
from root.histogram import build_draw_params
dp = "hist e0x0" # build_draw_params(obj, self.request.params, True)
obj.Draw(dp)
obj.SetMaximum(max_value)
# obj.SetMinimum(0)
for obj in objs[1:]:
obj.Draw(dp + " same")
logy = canvas.GetLogy()
canvas.SetLogy(False)
canvas.Update()
canvas_yrange = ymin, ymax = canvas.GetUymin(), canvas.GetUymax()
canvas.SetLogy(logy)
canvas.Update()
def line(x, yrange):
ymin, ymax = yrange
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(3)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
# Draw cuts
slot = self.request.params.get("slot", None)
if not slot:
# Determine slot from path
for p in lineage(self):
if p.__name__ in cuts:
slot = p.__name__
if slot:
for x, yrange in zip(cuts[slot], zip(etabins, etabins[1:])):
if canvas.GetUxmin() < x < canvas.GetUxmax():
line(x,
canvas_yrange if obj.GetDimension() != 2 else yrange)
if self.request.params.get("legend", None) is not None:
log.debug("Drawing legend: {0}".format(objs))
for n, o in zip(names, objs):
o.SetTitle(n)
legend = get_legend(mc=objs)
legend.Draw()
def render(self, canvas):
params = self.request.params
names, histograms = zip(*self.resource_to_render.stack)
# print "Rendering stack with {0} histograms".format(len(histograms))
names = [n for n in names]
histograms = [h for h in histograms]
objs = [h.obj for h in histograms]
if "sum" in params:
hsum = objs[0].Clone("sum")
keepalive(canvas, hsum)
hsum.SetTitle("sum")
for h in objs[1:]:
hsum.Add(h)
names.append("sum")
objs.append(hsum)
colordict = {
"all": R.kBlue,
"signal": R.kGreen,
"fake": R.kRed,
}
cols = [R.kBlue, R.kRed, R.kGreen, R.kViolet, R.kAzure + 6, R.kOrange]
for name, obj, col in zip(names, objs, cols):
col = col + 1
# obj.SetTitle(""); obj.SetStats(False)
if name in colordict:
obj.SetLineColor(colordict[name])
else:
obj.SetLineColor(col)
obj.SetMarkerColor(col)
obj.SetLineWidth(2)
if "shape" in params:
for obj in objs:
if obj.Integral():
obj.Scale(1. / obj.Integral())
max_value = max(o.GetMaximum() for o in objs) * 1.1
min_value = min(o.GetMinimum() for o in objs)
if min_value != objs[0].GetMinimum():
old_minvalue = min_value
# Apply a correction to include a bit more than just the lower bound
min_value = min_value - (max_value - min_value) * 0.1
# If this takes us below zero but the old minimum value was close
# to zero, just use zero.
if min_value < 0 and abs(old_minvalue) < 1e-8:
min_value = 0
obj = objs[0] # .pop(0)
from root.histogram import build_draw_params
dp = "hist e0x0" # build_draw_params(obj, self.request.params, True)
obj.Draw(dp)
obj.SetMaximum(max_value)
# obj.SetMinimum(0)
for obj in objs[1:]:
obj.Draw(dp + " same")
logy = canvas.GetLogy()
canvas.SetLogy(False)
canvas.Update()
canvas_yrange = ymin, ymax = canvas.GetUymin(), canvas.GetUymax()
canvas.SetLogy(logy)
canvas.Update()
def line(x, yrange):
ymin, ymax = yrange
args = x, ymin, x, ymax
l = R.TLine(*args)
l.SetLineWidth(3)
l.SetLineStyle(2)
l.Draw()
keepalive(canvas, l)
# Draw cuts
slot = self.request.params.get("slot", None)
if not slot:
# Determine slot from path
for p in lineage(self):
if p.__name__ in cuts:
slot = p.__name__
if slot:
for x, yrange in zip(cuts[slot], zip(etabins, etabins[1:])):
if canvas.GetUxmin() < x < canvas.GetUxmax():
line(x, canvas_yrange if obj.GetDimension() != 2 else yrange)
if self.request.params.get("legend", None) is not None:
log.debug("Drawing legend: {0}".format(objs))
for n, o in zip(names, objs):
o.SetTitle(n)
legend = get_legend(mc=objs)
legend.Draw()
