def cf_plot(evt_a,
evt_b,
label="",
log_=False,
ylim=[1, 1e5],
ylim2=[0, 10],
sli=slice(0, 10)):
tim_a = " ".join(
map(lambda f: "%5.2f" % f,
map(float, filter(None, evt_a.tdii['propagate']))[sli]))
tim_b = " ".join(
map(lambda f: "%5.2f" % f,
map(float, filter(None, evt_b.tdii['propagate']))[sli]))
fig = plt.figure()
suptitle = "Rainbow cfg4 " + label + "[" + tim_a + "] [" + tim_b + "]"
log.info("plotting %s " % suptitle)
fig.suptitle(suptitle)
gs = gridspec.GridSpec(2, 1, height_ratios=[3, 1])
ax = fig.add_subplot(gs[0])
c, bns = a_scatter_plot_cf(ax, evt_a, evt_b, log_=log_)
droplet.bow_angle_rectangles()
ax.set_ylim(ylim)
ax.legend()
xlim = ax.get_xlim()
ax = fig.add_subplot(gs[1])
if len(c) == 2:
a, b = c[0], c[1]
c2, c2n, c2nn = chi2(a, b, cut=30)
c2p = c2.sum() / c2n
plt.plot(bns[:-1], c2, drawstyle='steps', label="chi2/ndf %4.2f" % c2p)
ax.set_xlim(xlim)
ax.legend()
ax.set_ylim(ylim2)
droplet.bow_angle_rectangles()
def __init__(self, cu, af, cnames=[], dbgseq=0, dbgmsk=0, dbgzero=False, cmx=0, c2cut=30, smry=False, shortname="noshortname?"):
"""
:param cu: count unique array, typically shaped (n, 2) or (n,3) for comparisons
:param af: instance of SeqType subclass such as HisType
:param cnames: column names
"""
log.debug("SeqTable.__init__ dbgseq %x" % dbgseq)
#ipdb.set_trace()
assert len(cu.shape) == 2 and cu.shape[1] >= 2
ncol = cu.shape[1] - 1
self.smry = smry
self.dirty = False
self.cu = cu
self.ncol = ncol
self.dbgseq = dbgseq
self.dbgmsk = dbgmsk
self.dbgzero = dbgzero
self.cmx = cmx
self.shortname = shortname
seqs = cu[:,0]
msks = seq2msk(seqs)
tots = [cu[:,n].sum() for n in range(1,ncol+1)]
if ncol == 2:
a = cu[:,1].astype(np.float64)
b = cu[:,2].astype(np.float64)
ia = cu[:,1].astype(np.int64)
ib = cu[:,2].astype(np.int64)
idif = ia-ib
c2, c2n, c2c = chi2(a, b, cut=c2cut)
#c2s = c2/c2n
#c2s_tot = c2s.sum() # same as c2p
ndf = c2n - 1 ## totals are constrained to match, so one less degree of freedom ?
c2sum = c2.sum()
c2p = c2sum/max(1,ndf)
c2_pval = chi2_pvalue( c2sum , ndf )
log.debug(" c2sum %10.4f ndf %d c2p %10.4f c2_pval %10.4f " % (c2sum,ndf,c2p, c2_pval ))
cnames += ["c2"]
tots += ["%10.2f/%d = %5.2f (pval:%0.3f prob:%0.3f) " % (c2sum,ndf,c2p,c2_pval,1-c2_pval) ]
cfcount = cu[:,1:]
ab, ba = ratio(a, b)
cnames += ["ab"]
cnames += ["ba"]
else:
c2 = None
#c2s = None
c2p = None
cfcount = None
ab = None
ba = None
idif = None
pass
self.idif = idif
if len(tots) == 1:
total = tots[0]
tots += ["%10.2f" % 1.0 ]
else:
total = None
pass
self.total = total
self.c2 = c2
#self.c2s = c2s
self.c2p = c2p
self.ab = ab
self.ba = ba
self.seqs = seqs
self.msks = msks
codes = cu[:,0]
counts = cu[:,1]
#log.debug("codes : %s " % repr(codes))
#log.debug("counts : %s " % repr(counts))
labels = map(lambda i:af.label(i), codes )
nstep = map(lambda l:len(l.split(af.delim)),labels)
self.label2nstep = dict(zip(labels, nstep))
self.labels = labels
lines = filter(None, map(lambda n:self.line(n), range(len(cu))))
self.codes = codes
self.counts = counts
self.lines = lines
self.label2count = dict(zip(labels, counts))
self.label2line = dict(zip(labels, lines))
self.label2code = dict(zip(labels, seqs))
if cfcount is not None:
self.label2cfcount = dict(zip(labels, cfcount))
self.cnames = cnames
self.tots = tots
self.af = af
self.sli = slice(None)
def en_compare(self, bi, num_edges=101):
"""
Compare the energy samples created by QCKTest for a single BetaInverse
"""
ri = self.rindex
el = self.el
es = self.es
s2cn = self.s2cn
avph = self.avph
s2c = self.s2c
ibi = self.getBetaInverseIndex(bi)
approach = self.approach
if approach == "UpperCut": # see QCerenkov::getS2Integral_UpperCut
en_slot = 0
s2_slot = 1
cdf_slot = 2
emn = s2cn[ibi, 0, en_slot]
emx = s2cn[ibi, -1, en_slot]
avp = s2c[ibi, -1, cdf_slot]
elif approach == "SplitBin": # see QCerenkov::getS2Integral_SplitBin
en_slot = 0 # en_b
s2_slot = 5 # s2_b
cdf_slot = 7 # s2integral
emn = avph[ibi, 1]
emx = avph[ibi, 2]
avp = avph[ibi, 3]
else:
assert 0, "unknown approach %s " % approach
pass
self.en_slot = en_slot
self.s2_slot = s2_slot
self.cdf_slot = cdf_slot
self.emn = emn
self.emx = emx
self.avp = avp
edom = emx - emn
edif = edom / (num_edges - 1)
edges0 = np.linspace(emn, emx,
num_edges) # across Cerenkov permissable range
edges = np.linspace(emn - edif, emx + edif, num_edges +
2) # push out with extra bins either side
#edges = np.linspace(1.55,15.5,100) # including rightmost
#edges = np.linspace(1.55,15.5,200) # including rightmost
#edges = divide_bins( ri[:,0], mul=4 )
hl = np.histogram(el, bins=edges)
hs = np.histogram(es, bins=edges)
c2, c2n, c2c = chi2(hl[0], hs[0])
ndf = max(c2n - 1, 1)
c2sum = c2.sum()
c2p = c2sum / ndf
c2label = "chi2/ndf %4.2f [%d] %.2f " % (c2p, ndf, c2sum)
c2amx = c2.argmax()
rimax = ri[:, 1].max()
c2max = c2.max()
c2riscale = rimax / c2max
c2poppy = np.where(c2 > c2max / 3.)[0]
hmax = max(hl[0].max(), hs[0].max())
c2hscale = hmax / c2max
cf = " c2max:%4.2f c2amx:%d c2[c2amx] %4.2f edges[c2amx] %5.3f edges[c2amx+1] %5.3f " % (
c2max, c2amx, c2[c2amx], edges[c2amx], edges[c2amx + 1])
print("cf", cf)
#print("c2", c2)
print("c2n", c2n)
print("c2c", c2c)
qq = "hl hs c2 c2label c2n c2c c2riscale c2hscale hmax edges c2max c2poppy cf bi ibi"
for q in qq.split():
globals()[q] = locals()[q]
setattr(self, q, locals()[q])
pass
t = self
print("np.c_[t.c2, t.hs[0], t.hl[0]][t.c2 > 0]")
print(np.c_[t.c2, t.hs[0], t.hl[0]][t.c2 > 0])
return [bi, c2sum, ndf, c2p, emn, emx, avp]
pass
if 1:
# energy histogram in a lot of bins
dom = 3, 10, 100
#dom = 3,10,1001
edom = np.linspace(*dom)
ea_h = np.histogram(ea, edom)
eb_h = np.histogram(eb, edom)
prefix = "energy_chi2_dom%d_arg%d" % (dom[2], arg)
stem = "%s_%s_%s" % (prefix, la, lb)
figpath = os.path.join(wl.FOLD, "%s.png" % stem)
c2 = chi2(ea_h[0], eb_h[0], cut=10)
c2ndf = c2[0].sum() / c2[1]
c2_smry = " c2/ndf = %6.2f/%3d = %4.2f " % (c2[0].sum(), c2[1], c2ndf)
dom_smry = " edom %s %s nbin:%s " % (dom[0], dom[1], dom[2] - 1)
title = "\n".join([figpath, c2_smry, dom_smry])
print(title)
figsize = [12.8, 7.2]
fig, ax = plt.subplots(1, figsize=figsize)
fig.suptitle(title)
ax.plot(edom[:-1], ea_h[0], label=la, drawstyle="steps-post")
ax.plot(edom[:-1], eb_h[0], label=lb, drawstyle="steps-post")
ax.plot(edom[:-1],
-2000 * c2[0] / c2[0].max(),
def __call__(self, bn, av, bv, lab, c2cut=30, c2shape=False):
"""
:param bn: bin edges array
:param av: a values array
:param bv: b values array
:param lab:
:param c2cut: a+b stat requirement to compute chi2
Called from AB.rhist
"""
na = len(av)
nb = len(bv)
nv = 0.5 * float(na + nb)
#log.info("CFH.__call__ na %d nb %d nv %7.2f " % (na,nb,nv))
ahis, _ = np.histogram(av, bins=bn)
bhis, _ = np.histogram(bv, bins=bn)
ah = ahis.astype(np.float32)
bh = bhis.astype(np.float32)
if c2shape:
# shape comparison, normalize bin counts to average
#log.info("c2shape comparison")
uah = ah * nv / float(na)
ubh = bh * nv / float(nb)
else:
uah = ah
ubh = bh
pass
c2, c2n, c2c = chi2(uah, ubh, cut=c2cut)
assert len(ahis) == len(bhis) == len(c2)
nval = len(ahis)
assert len(bn) - 1 == nval
lhabc = np.zeros((nval, 5), dtype=np.float32)
lhabc[:, 0] = bn[0:-1]
lhabc[:, 1] = bn[1:]
lhabc[:, 2] = uah
lhabc[:, 3] = ubh
lhabc[:, 4] = c2
self.lhabc = lhabc
meta = {}
meta['nedge'] = "%d" % len(bn)
meta['nval'] = "%d" % nval
meta['c2cut'] = c2cut
meta['c2n'] = c2n
meta['c2c'] = c2c
meta['la'] = lab[0]
meta['lb'] = lab[1]
meta['c2_ymax'] = "10"
meta['logyfac'] = "3."
meta['linyfac'] = "1.3"
self.update(meta)
def __init__(self,
cu,
af,
cnames=[],
dbgseq=0,
dbgmsk=0,
dbgzero=False,
cmx=0,
c2cut=30,
shortname="noshortname"):
"""
:param cu: count unique array, typically shaped (n, 2) or (n,3) for comparisons
:param af: instance of SeqType subclass such as HisType
:param cnames: column names
"""
log.debug("cnames %s " % repr(cnames))
assert len(cu.shape) == 2 and cu.shape[1] >= 2
ncol = cu.shape[1] - 1 # excluding column 0 which is the seq code
log.debug("SeqTable.__init__ dbgseq %x" % dbgseq)
log.debug("shortname %s cu.shape %s ncol: %s" %
(shortname, repr(cu.shape), ncol))
assert shortname != "noshortname"
if sys.version_info.major in (2, 3):
pass
#ipdb.set_trace() # plant an ipython debugger breakpoint
pass
# self.smry = smry ## more convenient as method argument, not ctor argument
self.dirty = False
self.cu = cu
self.ncol = ncol
self.dbgseq = dbgseq
self.dbgmsk = dbgmsk
self.dbgzero = dbgzero
self.cmx = cmx
self.shortname = shortname
seqs = cu[:, 0]
msks = seq2msk(seqs)
tots = [cu[:, n].sum() for n in range(1, ncol + 1)]
if ncol == 2:
a = cu[:, 1].astype(np.float64)
b = cu[:, 2].astype(np.float64)
ia = cu[:, 1].astype(np.int64)
ib = cu[:, 2].astype(np.int64)
idif = ia - ib
c2, c2n, c2c = chi2(a, b, cut=c2cut)
#c2s = c2/c2n
#c2s_tot = c2s.sum() # same as c2p
ndf = c2n - 1 ## totals are constrained to match, so one less degree of freedom ?
c2sum = c2.sum()
c2p = c2sum / max(1, ndf)
c2_pval = chi2_pvalue(c2sum, ndf)
log.debug(" c2sum %10.4f ndf %d c2p %10.4f c2_pval %10.4f " %
(c2sum, ndf, c2p, c2_pval))
#cnames += ["c2"]
#tots += ["%10.2f" % c2sum ]
stats = "%.2f/%d = %5.2f pvalue:P[C2>]:%0.3f 1-pvalue:P[C2<]:%0.3f " % (
c2sum, ndf, c2p, c2_pval, 1 - c2_pval)
cfcount = cu[:, 1:]
ab, ba = ratio(a, b)
#cnames += ["ab"]
#cnames += ["ba"]
else:
c2 = None
#c2s = None
c2p = None
cfcount = None
ab = None
ba = None
ia = None
ib = None
idif = None
stats = None
c2sum = None
pass
self.ia = ia
self.ib = ib
self.idif = idif
if len(tots) == 1:
total = tots[0]
tots += ["%10.2f" % 1.0]
else:
total = None
pass
self.total = total
self.c2 = c2
#self.c2s = c2s
self.c2p = c2p
self.ab = ab
self.ba = ba
self.stats = stats
self.seqs = seqs
self.msks = msks
codes = cu[:, 0]
counts = cu[:, 1]
#log.debug("codes : %s " % repr(codes))
#log.debug("counts : %s " % repr(counts))
labels = list(map(lambda i: af.label(i), codes))
nstep = list(map(lambda l: len(l.split(af.delim)), labels))
self.label2nstep = dict(zip(labels, nstep))
self.labels = labels
self.codes = codes
self.counts = counts
k_line = self.line(0, key=True, smry=False) if len(cu) > 0 else ""
k_sine = self.line(-1, key=True, smry=True) if len(cu) > 0 else ""
lines = list(
filter(
None,
list(map(lambda n: self.line(n, smry=False), range(len(cu))))))
sines = list(
filter(
None,
list(map(lambda n: self.line(n, smry=True), range(len(cu))))))
self.lines = [k_line] + lines + [k_line]
self.sines = [k_sine] + sines + [k_sine]
self.label2count = dict(zip(labels, counts))
self.label2line = dict(zip(labels, lines))
self.label2sine = dict(zip(labels, sines))
self.label2code = dict(zip(labels, seqs))
if cfcount is not None:
self.label2cfcount = dict(zip(labels, cfcount))
pass
self.cnames = cnames
self.tots = tots
self.c2sum = c2sum
log.debug(" tots %s " % repr(tots))
self.af = af
self.sli = slice(None)