def Read1DGraphErrors(self, iline):
"""
Read 1D graph section
"""
ngraphs = self.GetNhist(
self.lines[iline]) # graph and hist format is the same
xarray = []
data = {}
errors = {}
for igraph in range(ngraphs):
data[igraph] = []
errors[igraph] = []
for line in self.lines[iline + 1:]:
line = line.strip()
if line == '': break
elif re.search("^#", line): continue
words = line.split()
xarray.append(float(words[0]))
for igraph in range(ngraphs):
data[igraph].append(float(words[(igraph + 1) * 2 - 1]))
errors[igraph].append(float(words[(igraph + 1) * 2]))
npoints = len(xarray)
for igraph in range(ngraphs):
if self.subtitles[igraph]:
subtitle = ' - ' + self.subtitles[igraph]
else:
subtitle = ''
self.FixTitles()
g = TGraphErrors(npoints)
# self.ihist+1 - start from ONE as in Angel - easy to compare
g.SetNameTitle(
"g%d" % (self.ihist + 1), "%s%s;%s;%s" %
(self.title, subtitle, self.xtitle, self.ytitle))
self.ihist += 1
for i in range(npoints):
x = xarray[i]
y = data[igraph][i]
ey = errors[igraph][i]
g.SetPoint(i, x, y)
g.SetPointError(i, 0, ey * y)
self.histos.Add(g)
del self.subtitles[:]
def main(argv):
#Usage controls from OptionParser
parser_usage = "outputfile.root"
parser = OptionParser(usage=parser_usage)
(options, args) = parser.parse_args(argv)
if (len(args) != 1):
parser.print_help()
return
#Get files, add to another dictionary
run_dict = get_run_dict()
f_list = {}
for runnum in run_dict:
print "Run: " + str(runnum)
filesmatching = glob.glob(base_directory + "*_" + str(runnum) +
"*.root")
if (len(filesmatching) != 1):
print "ERROR FINDING FILE: " + base_directory + "hd_root_" + str(
runnum) + "*.root"
print "exiting..."
return
f = TFile.Open(filesmatching[0])
f_list[runnum] = f
rocid_arr = array('i',
[31, 32, 34, 35, 37, 38, 40, 41
]) #These are the rocids associated with BCAL fADC250s
slot_arr = array(
'i',
[3, 4, 5, 6, 7, 8, 9, 10, 13, 14, 15, 16
]) #These are the slots used for BCAL fADC250s, common to all crates
channel_arr = array(
'i',
[0, 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, 11, 12, 13, 14, 15
]) #These are the channels used on each slot, common to all slots
if (year == "2015"):
rocid_arr = array(
'i', [31, 32, 34, 35
]) #These are the rocids associated with BCAL fADC250s
h_layer1_US_RMS_arr = []
h_layer2_US_RMS_arr = []
h_layer3_US_RMS_arr = []
h_layer4_US_RMS_arr = []
h_global_US_RMS_arr = []
h_layer1_DS_RMS_arr = []
h_layer2_DS_RMS_arr = []
h_layer3_DS_RMS_arr = []
h_layer4_DS_RMS_arr = []
h_global_DS_RMS_arr = []
h_global_all_RMS_arr = []
#A whole big bunch of arrays for TGraphErrors
mean_layer1_US_RMS = array('d', [])
mean_layer2_US_RMS = array('d', [])
mean_layer3_US_RMS = array('d', [])
mean_layer4_US_RMS = array('d', [])
mean_global_US_RMS = array('d', [])
mean_layer1_DS_RMS = array('d', [])
mean_layer2_DS_RMS = array('d', [])
mean_layer3_DS_RMS = array('d', [])
mean_layer4_DS_RMS = array('d', [])
mean_global_DS_RMS = array('d', [])
mean_global_all_RMS = array('d', [])
mean_err_layer1_US_RMS = array('d', [])
mean_err_layer2_US_RMS = array('d', [])
mean_err_layer3_US_RMS = array('d', [])
mean_err_layer4_US_RMS = array('d', [])
mean_err_global_US_RMS = array('d', [])
mean_err_layer1_DS_RMS = array('d', [])
mean_err_layer2_DS_RMS = array('d', [])
mean_err_layer3_DS_RMS = array('d', [])
mean_err_layer4_DS_RMS = array('d', [])
mean_err_global_DS_RMS = array('d', [])
mean_err_global_all_RMS = array('d', [])
bias_arr = array('d', [])
bias_err_arr = array('d', [])
mean_layer1_diff_RMS = array('d', [])
mean_layer2_diff_RMS = array('d', [])
mean_layer3_diff_RMS = array('d', [])
mean_layer4_diff_RMS = array('d', [])
mean_global_diff_RMS = array('d', [])
mean_err_layer1_diff_RMS = array('d', [])
mean_err_layer2_diff_RMS = array('d', [])
mean_err_layer3_diff_RMS = array('d', [])
mean_err_layer4_diff_RMS = array('d', [])
mean_err_global_diff_RMS = array('d', [])
#Loop over all files
for curr_run in f_list:
print "Runnum: " + str(curr_run)
print "bias V: " + str(run_dict[curr_run])
curr_file = f_list[curr_run]
curr_bias = run_dict[curr_run]
#Create histograms
hist_min = 0.
hist_max = 4.
h_layer1_US_RMS = TH1F("h_layer1_US_RMS_bias" + str(curr_bias),
"RMS of US Layer 1 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer2_US_RMS = TH1F("h_layer2_US_RMS_bias" + str(curr_bias),
"RMS of US Layer 2 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer3_US_RMS = TH1F("h_layer3_US_RMS_bias" + str(curr_bias),
"RMS of US Layer 3 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer4_US_RMS = TH1F("h_layer4_US_RMS_bias" + str(curr_bias),
"RMS of US Layer 4 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_global_US_RMS = TH1F("h_global_US_RMS_bias" + str(curr_bias),
"RMS of All US BCAL Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer1_DS_RMS = TH1F("h_layer1_DS_RMS_bias" + str(curr_bias),
"RMS of DS Layer 1 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer2_DS_RMS = TH1F("h_layer2_DS_RMS_bias" + str(curr_bias),
"RMS of DS Layer 2 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer3_DS_RMS = TH1F("h_layer3_DS_RMS_bias" + str(curr_bias),
"RMS of DS Layer 3 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_layer4_DS_RMS = TH1F("h_layer4_DS_RMS_bias" + str(curr_bias),
"RMS of DS Layer 4 Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_global_DS_RMS = TH1F("h_global_DS_RMS_bias" + str(curr_bias),
"RMS of All DS BCAL Channels;RMS (ADC units)",
1000, hist_min, hist_max)
h_global_all_RMS = TH1F("h_global_all_RMS_bias" + str(curr_bias),
"RMS of All BCAL Channels;RMS (ADC units)",
1000, hist_min, hist_max)
#Loop over all channels
for rocid in rocid_arr:
for slot in slot_arr:
for channel in channel_arr:
hist = get_hist_from_rocid_slot_channel(
curr_file, rocid, slot, channel)
quadrant = getquadrant(rocid)
layer = getlayer(slot, channel)
is_downstream = getend(slot, channel)
# if(quadrant==3): continue #Skip quadrant 3, it has LEDs firing (in 2019 at least)
if (quadrant == 3 or quadrant == 2 or quadrant == 4):
continue #Skip quadrant 3, it has LEDs firing (in 2019 at least)
#Fill appropriate histograms
if (layer == 1 and is_downstream == 0):
h_layer1_US_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 2 and is_downstream == 0):
h_layer2_US_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 3 and is_downstream == 0):
h_layer3_US_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 4 and is_downstream == 0):
h_layer4_US_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (is_downstream == 0):
h_global_US_RMS.Fill(hist.GetRMS())
if (layer == 1 and is_downstream == 1):
h_layer1_DS_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 2 and is_downstream == 1):
h_layer2_DS_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 3 and is_downstream == 1):
h_layer3_DS_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (layer == 4 and is_downstream == 1):
h_layer4_DS_RMS.Fill(hist.GetRMS() / sqrt(layer))
if (is_downstream == 1):
h_global_DS_RMS.Fill(hist.GetRMS())
h_global_all_RMS.Fill(hist.GetRMS())
#End of file: add histograms to list
h_layer1_US_RMS_arr.append(h_layer1_US_RMS)
h_layer2_US_RMS_arr.append(h_layer2_US_RMS)
h_layer3_US_RMS_arr.append(h_layer3_US_RMS)
h_layer4_US_RMS_arr.append(h_layer4_US_RMS)
h_global_US_RMS_arr.append(h_global_US_RMS)
h_layer1_DS_RMS_arr.append(h_layer1_DS_RMS)
h_layer2_DS_RMS_arr.append(h_layer2_DS_RMS)
h_layer3_DS_RMS_arr.append(h_layer3_DS_RMS)
h_layer4_DS_RMS_arr.append(h_layer4_DS_RMS)
h_global_DS_RMS_arr.append(h_global_DS_RMS)
h_global_all_RMS_arr.append(h_global_all_RMS)
mean_layer1_US_RMS.append(h_layer1_US_RMS.GetMean())
mean_layer2_US_RMS.append(h_layer2_US_RMS.GetMean())
mean_layer3_US_RMS.append(h_layer3_US_RMS.GetMean())
mean_layer4_US_RMS.append(h_layer4_US_RMS.GetMean())
mean_global_US_RMS.append(h_global_US_RMS.GetMean())
mean_layer1_DS_RMS.append(h_layer1_DS_RMS.GetMean())
mean_layer2_DS_RMS.append(h_layer2_DS_RMS.GetMean())
mean_layer3_DS_RMS.append(h_layer3_DS_RMS.GetMean())
mean_layer4_DS_RMS.append(h_layer4_DS_RMS.GetMean())
mean_global_DS_RMS.append(h_global_DS_RMS.GetMean())
mean_global_all_RMS.append(h_global_all_RMS.GetMean())
mean_err_layer1_US_RMS.append(h_layer1_US_RMS.GetRMS())
mean_err_layer2_US_RMS.append(h_layer2_US_RMS.GetRMS())
mean_err_layer3_US_RMS.append(h_layer3_US_RMS.GetRMS())
mean_err_layer4_US_RMS.append(h_layer4_US_RMS.GetRMS())
mean_err_global_US_RMS.append(h_global_US_RMS.GetRMS())
mean_err_layer1_DS_RMS.append(h_layer1_DS_RMS.GetRMS())
mean_err_layer2_DS_RMS.append(h_layer2_DS_RMS.GetRMS())
mean_err_layer3_DS_RMS.append(h_layer3_DS_RMS.GetRMS())
mean_err_layer4_DS_RMS.append(h_layer4_DS_RMS.GetRMS())
mean_err_global_DS_RMS.append(h_global_DS_RMS.GetRMS())
mean_err_global_all_RMS.append(h_global_all_RMS.GetRMS())
bias_arr.append(curr_bias)
bias_err_arr.append(0)
mean_layer1_diff_RMS.append(h_layer1_DS_RMS.GetMean() -
h_layer1_US_RMS.GetMean())
mean_layer2_diff_RMS.append(h_layer2_DS_RMS.GetMean() -
h_layer2_US_RMS.GetMean())
mean_layer3_diff_RMS.append(h_layer3_DS_RMS.GetMean() -
h_layer3_US_RMS.GetMean())
mean_layer4_diff_RMS.append(h_layer4_DS_RMS.GetMean() -
h_layer4_US_RMS.GetMean())
mean_global_diff_RMS.append(h_global_DS_RMS.GetMean() -
h_global_US_RMS.GetMean())
mean_err_layer1_diff_RMS.append(
sqrt(h_layer1_DS_RMS.GetRMS()**2 + h_layer1_US_RMS.GetRMS()**2))
mean_err_layer2_diff_RMS.append(
sqrt(h_layer2_DS_RMS.GetRMS()**2 + h_layer2_US_RMS.GetRMS()**2))
mean_err_layer3_diff_RMS.append(
sqrt(h_layer3_DS_RMS.GetRMS()**2 + h_layer3_US_RMS.GetRMS()**2))
mean_err_layer4_diff_RMS.append(
sqrt(h_layer4_DS_RMS.GetRMS()**2 + h_layer4_US_RMS.GetRMS()**2))
mean_err_global_diff_RMS.append(
sqrt(h_global_DS_RMS.GetRMS()**2 + h_global_US_RMS.GetRMS()**2))
gr_layer1_US_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer1_US_RMS, bias_err_arr,
mean_err_layer1_US_RMS)
gr_layer2_US_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer2_US_RMS, bias_err_arr,
mean_err_layer2_US_RMS)
gr_layer3_US_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer3_US_RMS, bias_err_arr,
mean_err_layer3_US_RMS)
gr_layer4_US_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer4_US_RMS, bias_err_arr,
mean_err_layer4_US_RMS)
gr_global_US_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_global_US_RMS, bias_err_arr,
mean_err_global_US_RMS)
gr_layer1_DS_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer1_DS_RMS, bias_err_arr,
mean_err_layer1_DS_RMS)
gr_layer2_DS_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer2_DS_RMS, bias_err_arr,
mean_err_layer2_DS_RMS)
gr_layer3_DS_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer3_DS_RMS, bias_err_arr,
mean_err_layer3_DS_RMS)
gr_layer4_DS_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer4_DS_RMS, bias_err_arr,
mean_err_layer4_DS_RMS)
gr_global_DS_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_global_DS_RMS, bias_err_arr,
mean_err_global_DS_RMS)
gr_global_all_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_global_all_RMS, bias_err_arr,
mean_err_global_DS_RMS)
gr_layer1_diff_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer1_diff_RMS, bias_err_arr,
mean_err_layer1_diff_RMS)
gr_layer2_diff_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer2_diff_RMS, bias_err_arr,
mean_err_layer2_diff_RMS)
gr_layer3_diff_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer3_diff_RMS, bias_err_arr,
mean_err_layer3_diff_RMS)
gr_layer4_diff_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_layer4_diff_RMS, bias_err_arr,
mean_err_layer4_diff_RMS)
gr_global_diff_RMS = TGraphErrors(len(bias_arr), bias_arr,
mean_global_diff_RMS, bias_err_arr,
mean_err_global_diff_RMS)
if (subtract_floor_term):
gr_layer1_US_RMS = remove_floor_term_from_gr(gr_layer1_US_RMS)
gr_layer2_US_RMS = remove_floor_term_from_gr(gr_layer2_US_RMS)
gr_layer3_US_RMS = remove_floor_term_from_gr(gr_layer3_US_RMS)
gr_layer4_US_RMS = remove_floor_term_from_gr(gr_layer4_US_RMS)
gr_global_US_RMS = remove_floor_term_from_gr(gr_global_US_RMS)
gr_layer1_DS_RMS = remove_floor_term_from_gr(gr_layer1_DS_RMS)
gr_layer2_DS_RMS = remove_floor_term_from_gr(gr_layer2_DS_RMS)
gr_layer3_DS_RMS = remove_floor_term_from_gr(gr_layer3_DS_RMS)
gr_layer4_DS_RMS = remove_floor_term_from_gr(gr_layer4_DS_RMS)
gr_global_DS_RMS = remove_floor_term_from_gr(gr_global_DS_RMS)
gr_global_all_RMS = remove_floor_term_from_gr(gr_global_all_RMS)
gr_layer1_diff_RMS = remove_floor_term_from_gr_diff(
gr_layer1_US_RMS, gr_layer1_DS_RMS)
gr_layer2_diff_RMS = remove_floor_term_from_gr_diff(
gr_layer2_US_RMS, gr_layer2_DS_RMS)
gr_layer3_diff_RMS = remove_floor_term_from_gr_diff(
gr_layer3_US_RMS, gr_layer3_DS_RMS)
gr_layer4_diff_RMS = remove_floor_term_from_gr_diff(
gr_layer4_US_RMS, gr_layer4_DS_RMS)
gr_global_diff_RMS = remove_floor_term_from_gr_diff(
gr_global_US_RMS, gr_global_DS_RMS)
gr_layer1_US_RMS.SetNameTitle(
"gr_layer1_US_RMS",
"Layer 1 Upstream;Bias (V);Pedestal Width (ADC units)")
gr_layer2_US_RMS.SetNameTitle(
"gr_layer2_US_RMS",
"Layer 2 Upstream;Bias (V);Pedestal Width (ADC units)")
gr_layer3_US_RMS.SetNameTitle(
"gr_layer3_US_RMS",
"Layer 3 Upstream;Bias (V);Pedestal Width (ADC units)")
gr_layer4_US_RMS.SetNameTitle(
"gr_layer4_US_RMS",
"Layer 4 Upstream;Bias (V);Pedestal Width (ADC units)")
gr_global_US_RMS.SetNameTitle(
"gr_global_US_RMS", "ALL Upstream;Bias (V);Pedestal Width (ADC units)")
gr_layer1_DS_RMS.SetNameTitle(
"gr_layer1_DS_RMS",
"Layer 1 Downstream;Bias (V);Pedestal Width (ADC units)")
gr_layer2_DS_RMS.SetNameTitle(
"gr_layer2_DS_RMS",
"Layer 2 Downstream;Bias (V);Pedestal Width (ADC units)")
gr_layer3_DS_RMS.SetNameTitle(
"gr_layer3_DS_RMS",
"Layer 3 Downstream;Bias (V);Pedestal Width (ADC units)")
gr_layer4_DS_RMS.SetNameTitle(
"gr_layer4_DS_RMS",
"Layer 4 Downstream;Bias (V);Pedestal Width (ADC units)")
gr_global_DS_RMS.SetNameTitle(
"gr_global_DS_RMS",
"ALL Downstream;Bias (V);Pedestal Width (ADC units)")
gr_global_all_RMS.SetNameTitle(
"gr_global_all_RMS",
"ALL Channels;Bias (V);Pedestal Width (ADC units)")
gr_layer1_diff_RMS.SetNameTitle(
"gr_layer1_diff_RMS",
"Layer 1 Downstream - Upstream;Bias (V);Pedestal Width Difference (ADC units)"
)
gr_layer2_diff_RMS.SetNameTitle(
"gr_layer2_diff_RMS",
"Layer 2 Downstream - Upstream;Bias (V);Pedestal Width Difference (ADC units)"
)
gr_layer3_diff_RMS.SetNameTitle(
"gr_layer3_diff_RMS",
"Layer 3 Downstream - Upstream;Bias (V);Pedestal Width Difference (ADC units)"
)
gr_layer4_diff_RMS.SetNameTitle(
"gr_layer4_diff_RMS",
"Layer 4 Downstream - Upstream;Bias (V);Pedestal Width Difference (ADC units)"
)
gr_global_diff_RMS.SetNameTitle(
"gr_global_diff_RMS",
"ALL Downstream - Upstream;Bias (V);Pedestal Width Difference (ADC units)"
)
#Save results to file
f_out = TFile(argv[0], "RECREATE")
f_out.cd()
gr_layer1_US_RMS.Write()
gr_layer2_US_RMS.Write()
gr_layer3_US_RMS.Write()
gr_layer4_US_RMS.Write()
gr_global_US_RMS.Write()
gr_layer1_DS_RMS.Write()
gr_layer2_DS_RMS.Write()
gr_layer3_DS_RMS.Write()
gr_layer4_DS_RMS.Write()
gr_global_DS_RMS.Write()
gr_global_all_RMS.Write()
gr_layer1_diff_RMS.Write()
gr_layer2_diff_RMS.Write()
gr_layer3_diff_RMS.Write()
gr_layer4_diff_RMS.Write()
gr_global_diff_RMS.Write()
for i in range(0, len(h_layer1_US_RMS_arr)):
h_layer1_US_RMS_arr[i].Write()
h_layer2_US_RMS_arr[i].Write()
h_layer3_US_RMS_arr[i].Write()
h_layer4_US_RMS_arr[i].Write()
h_global_US_RMS_arr[i].Write()
h_layer1_DS_RMS_arr[i].Write()
h_layer2_DS_RMS_arr[i].Write()
h_layer3_DS_RMS_arr[i].Write()
h_layer4_DS_RMS_arr[i].Write()
h_global_DS_RMS_arr[i].Write()
h_global_all_RMS_arr[i].Write()
f_out.Close()
print("Done")
return
def RunAnalysis(input_name, output_name=""):
# Check output name, set by default if not passed to the function
if not output_name:
output_name = input_name.split("_")[0] + "_analysed.root"
print("INPUT:", input_name, "\nOUTPUT:", output_name)
# Configuring thresholds
(thr_start, thr_end, thr_step) = (0.3, 8, 0.1)
thr_range = np.arange(thr_start, thr_end + thr_step, thr_step)
n_thr = len(thr_range)
# Get hit dictionary
hit_dict = GetHitDict(input_name)
# Open root file to write the results into
write_file = TFile("data/" + output_name, "recreate")
write_file.cd()
# Initialize efficiency and cluster size objects
eff = TEfficiency("Efficiency", "Efficiency;Threshold [fC];Efficiency",
n_thr, thr_start, thr_end)
clus_graph = TGraphErrors(n_thr)
clus_graph.SetNameTitle("Average_cluster_size", "Average_cluster_size")
clus_graph.GetXaxis().SetTitle("Threshold [fC]")
clus_graph.GetYaxis().SetTitle("Average cluster size")
# Perform threshold scanning
for thr in thr_range:
thrE = thr * 6242.2
print("Threshold scanning:",
round(thr / thr_end * 100, 1),
"%",
end="\r")
# Scan a threshold and obtain a list of clusters
cluster_list = ScanThreshold(hit_dict, thrE)
# Analyze cluster list and fill TEfficiency object
for cluster in cluster_list:
eff.Fill(bool(cluster), thr)
# Replace zeros with NaN to obtain proper average later
cluster_list = [
np.nan if cluster == 0 else cluster for cluster in cluster_list
]
try:
# Calculate average cluster size and add points to clus_graph
cluster_size = np.nanmean(cluster_list)
N = np.count_nonzero(~np.isnan(cluster_list))
err = np.nanstd(cluster_list) / sqrt(N - 1)
clus_graph.SetPoint(int(np.where(thr_range == thr)[0][0]), thr,
cluster_size)
clus_graph.SetPointError(int(np.where(thr_range == thr)[0][0]),
ex=0,
ey=err)
except RuntimeWarning:
pass
print("\nDone.")
# Efficiency fit
fit_form = "0.5*[0]*TMath::Erfc((x-[1])/(TMath::Sqrt(2)*[2])*(1-0.6*TMath::TanH([3]*(x-[1])/TMath::Sqrt(2)*[2])))"
fit_func = TF1("Efficiency_fit", fit_form, 0, 8)
# Set initial parameter values and limits
fit_func.SetParameters(1, 4, 1, 1, 0.5)
fit_func.SetParLimits(1, 0, 5)
fit_func.SetParLimits(2, 0, 2)
fit_func.SetParLimits(3, 0, 2)
fit_func.SetParLimits(4, 0.5, 0.7)
# Perform fit
eff.Fit(fit_func, "R")
# Write outputs to file
eff.Write()
clus_graph.Write()
# Collect info
source = "allpix"
angle = input_name.split("-")[0]
descr = input_name.split("_")[0].strip("0deg-")
n_events = str(int(eff.GetTotalHistogram().GetEntries() / n_thr))
title = source + "," + angle + "," + descr + "(" + str(n_events) + "ev)"
vt50 = str(fit_func.GetParameter(1))
vt50_err = str(fit_func.GetParError(1))
thr_range = str(thr_start) + ":" + str(thr_end) + ":" + str(thr_step)
# Write info to Info directory
info_dir = write_file.mkdir("Info")
info_dir.cd()
info_dir.WriteObject(TString(source), "source")
info_dir.WriteObject(TString(angle), "angle")
info_dir.WriteObject(TString(descr), "descr")
info_dir.WriteObject(TString(n_events), "n_events")
info_dir.WriteObject(TString(title), "title")
info_dir.WriteObject(TString(vt50), "vt50")
info_dir.WriteObject(TString(vt50), "vt50_err")
info_dir.WriteObject(TString(thr_range), "thr_range")
write_file.Close()
RecSA_MinMax_graph.SetPointError(count, 0, tmp_RecSA_M.std())
RecSA_Quantiles_graph.SetPoint(count, RealSignalAmplitude,
mean_RecSA_Q)
RecSA_Quantiles_graph.SetPointError(count, 0, tmp_RecSA_Q.std())
ghost_graph.SetPoint(count, RealSignalAmplitude, tmp_Ghosts.mean())
minimas_graph.SetPoint(count, RealSignalAmplitude, tmp_Minimas.mean())
count += 1
canvas = TCanvas("canvas", "canvas")
canvas.SetGrid()
pad = canvas.GetPad(0)
success_graph.SetNameTitle(
"success", "MC Performance Analysis Result ({0} Hits)".format(hits))
success_graph.GetXaxis().SetTitle("Relative Real Signal Amplitude")
success_graph.GetYaxis().SetTitle(
"Peak Finding Efficiency | Reconstructed Signal Amplitude")
success_graph.GetYaxis().SetRangeUser(0, 1.1)
success_graph.Draw("ALP*")
ghost_graph.SetNameTitle("ghost_graph", "Ghost Peaks")
ghost_graph.Draw("SAME LP*")
func = TF1("func", "x", 0, 1)
func.Draw("SAME")
RecSA_Quantiles_graph.SetMarkerColor(ROOT.kRed)
RecSA_Quantiles_graph.Draw("SAME P*")
PngSaveName = PerfResults + foldername + (
"MC_PerformanceAnalysis_{0}_" + peaks + "_{1}rep_" + str(binning) + "_" +