def test_typeclass_passtype():
"""Last input has another edges"""
objects = [
C.Histogram2d(np.arange(4), np.arange(5)),
C.Histogram(np.arange(4)),
C.Points(np.arange(12).reshape(3,4))
]
outputs = [p.single() for p in objects]
obj = C.DummyType()
k = list(map(obj.add_input, outputs))
for i in range(5):
obj.add_output()
dt1 = R.TypeClasses.PassTypeT(context.current_precision())((0,), (0,1))
dt2 = R.TypeClasses.PassTypeT(context.current_precision())((1,), (2,-1))
R.SetOwnership(dt1, False)
R.SetOwnership(dt2, False)
dt1.dump(); print()
dt2.dump(); print()
obj.add_typeclass(dt1)
obj.add_typeclass(dt2)
res = obj.process_types();
assert res
obj.print()
dta = outputs[0].datatype()
dtb = outputs[1].datatype()
doutputs = obj.transformations.back().outputs
assert doutputs[0].datatype()==dta
assert doutputs[1].datatype()==dta
assert doutputs[2].datatype()==dtb
assert doutputs[3].datatype()==dtb
assert doutputs[4].datatype()==dtb
def build(self):
if self.xorders.size > 1:
if self.xorders.size + 1 != self.edges.size:
raise Exception(
'Incompartible edges and xorders definition:\n {!r}\n {!r}'
.format(self.edges, self.xorders))
self.integrator = R.GaussLegendre2d(self.edges, self.xorders,
self.edges.size - 1, -1.0, 1.0,
self.cfg.yorder)
else:
self.integrator = R.GaussLegendre2d(self.edges,
int(self.xorders[0]),
self.edges.size - 1, -1.0, 1.0,
self.cfg.yorder)
self.integrator.points.setLabel('Gauss-Legendre 2d')
self.integrator.points.x.setLabel(self.cfg.variables[0])
self.integrator.points.xedges.setLabel('%s edges' %
self.cfg.variables[0])
self.integrator.points.y.setLabel(self.cfg.variables[1])
self.set_output(self.integrator.points.x, self.cfg.variables[0])
self.set_output(self.integrator.points.xedges,
'%s_edges' % self.cfg.variables[0])
self.set_output(self.integrator.points.xhist,
'%s_hist' % self.cfg.variables[0])
self.set_output(self.integrator.points.y, self.cfg.variables[1])
for i, it in enumerate(self.idx.iterate()):
hist = R.GaussLegendre2dHist(self.integrator)
hist.hist.setLabel(it.current_format(name='hist'))
self.set_input(hist.hist.f, self.cfg.name, it, clone=0)
self.set_output(hist.hist.hist, self.cfg.name, it)
def test_typeclass_ndim_v03():
objects = [
C.Histogram(np.arange(6), np.arange(5)),
C.Points(np.arange(5)),
C.Histogram2d(np.arange(6), np.arange(7)),
C.Points(np.arange(12).reshape(3, 4))
]
outputs = [p.single() for p in objects]
obj = C.DummyType()
list(map(obj.add_input, outputs))
dt = R.TypeClasses.CheckNdimT(context.current_precision())(1, (0, 1))
R.SetOwnership(dt, False)
dt.dump()
print()
obj.add_typeclass(dt)
res = obj.process_types()
assert res
dt1 = R.TypeClasses.CheckNdimT(context.current_precision())(2, (-2, -1))
R.SetOwnership(dt1, False)
dt1.dump()
print()
obj.add_typeclass(dt1)
res = obj.process_types()
assert res
def test_typeclass_same_v02():
"""Last input has another shape"""
arrays = [np.arange(12, dtype='d').reshape(3,4) for i in range(5)]
arrays[-1]=arrays[-1].reshape(4,3)
points = [C.Points(a) for a in arrays]
outputs = [p.points.points for p in points]
print(outputs)
obj = C.DummyType()
list(map(obj.add_input, outputs))
dt = R.TypeClasses.CheckSameTypesT(context.current_precision())((1,-2))
R.SetOwnership(dt, False)
dt.dump(); print()
obj.add_typeclass(dt)
res = obj.process_types();
assert res
dt1 = R.TypeClasses.CheckSameTypesT(context.current_precision())((-2,-1))
R.SetOwnership(dt1, False)
dt1.dump(); print()
obj.add_typeclass(dt1)
print('Exception expected: ',end='')
res = obj.process_types();
assert not res
def test_par_02(floatprecision='double'):
"""Test getters (vec)"""
assert floatprecision in ['double', 'float']
const = N.array([1.5, 2.6, 3.7], dtype=floatprecision[0])
var = R.parameter(floatprecision)('testpar', const.size)
taintflag = R.taintflag('tflag')
var.subscribe(taintflag)
print('Set', const)
var.set(const)
print('Taintflag', bool(taintflag))
check('ret scalar', None, var.value(), const[0], taintflag, True)
for i, val in enumerate(const):
check('ret index[%i]' % i, None, var.value(i), val, taintflag, False)
check('ret vector', None, list(var.values()), const, taintflag, False)
ret = N.zeros(const.size, dtype=floatprecision[0])
before = ret.copy()
var.values(ret)
check('arg C array', before, ret, const, taintflag, False)
ret = R.vector(floatprecision)(const.size)
before = list(ret)
var.values(ret)
check('arg std vector', before, list(ret), const, taintflag, False)
def test_par_03(floatprecision='double'):
"""Test setters"""
assert floatprecision in ['double', 'float']
var = R.parameter(floatprecision)('testpar')
taintflag = R.taintflag('tflag')
var.subscribe(taintflag)
taintflag.set(False)
const = 1.5
var.set(const)
check('scalar', None, var.value(), const, taintflag)
const += 1.0
var.set(0, const)
check('index [0]', None, var.value(), const, taintflag)
const += 1.0
arr = N.array([const], dtype=floatprecision[0])
var.set(arr)
check('C array', None, var.value(), const, taintflag)
const += 1.0
arr = R.vector(floatprecision)(1, const)
var.set(arr)
check('std vector', None, var.value(), const, taintflag)
def test_gauss_par_repl():
p1 = R.GaussianParameter('double')('test1')
p1.set(-1.0)
p2 = R.GaussianParameter('double')('test2')
p2.set(-2.0)
def prt(title):
if title:
print(title)
print(' p1', p1.name(), p1.value())
print(' p2', p2.name(), p2.value())
print()
prt('Before replacement')
p2.getVariable().replace(p1.getVariable())
# p2.getParameter().replace( p1.getVariable() )
prt('After replacement')
assert (p1.value() == p2.value())
p1.set(1)
prt('Change parameter 1')
assert (p1.value() == p2.value())
p2.set(2)
prt('Change parameter 2')
assert (p1.value() == p2.value())
def test_par_01(floatprecision='double'):
"""Test getters"""
assert floatprecision in ['double', 'float']
var = R.parameter(floatprecision)('testpar')
taintflag = R.taintflag('tflag')
var.subscribe(taintflag)
const = 1.5
print('Set', const)
var.set(const)
print('Taintflag', bool(taintflag))
check('ret scalar', None, var.value(), const, taintflag, True)
check('ret index[0]', None, var.value(0), const, taintflag, False)
check('ret vector', None, list(var.values()), [const], taintflag, False)
ret = N.zeros(1, dtype=floatprecision[0])
before = ret.copy()
var.values(ret)
check('arg C array', before, ret, [const], taintflag, False)
ret = R.vector(floatprecision)(1)
before = list(ret)
var.values(ret)
check('arg std vector', before, list(ret), [const], taintflag, False)
def make_sample_file(filename):
file = R.TFile(filename, 'recreate')
assert not file.IsZombie()
it = 1
name = 'hist'
h = R.TH1D(name, name, 10, 0, 10)
h.SetBinContent(it, 1)
it += 1
file.WriteTObject(h)
for gr, dets in cfg.groups.items():
name = 'hist_{group}'.format(group=gr)
h = R.TH1D(name, name, 10, 0, 10)
h.SetBinContent(it, 1)
it += 1
file.WriteTObject(h)
for det in dets:
name = 'hist_{group}_{det}'.format(group=gr, det=det)
h = R.TH1D(name, name, 10, 0, 10)
h.SetBinContent(it, 1)
it += 1
file.WriteTObject(h)
print('Generated file contents')
file.ls()
file.Close()
def build(self):
self.comp0 = R.FillLike(1.0, labels='OP comp0')
for it_source in self.idx_source:
for it_detector in self.idx_detector:
it_dist = it_source+it_detector
dist = it_dist.current_format(name='baseline')
oscprobkey = it_dist.current_format('{autoindex}')[1:]
with self.namespace:
with self.namespace('pmns'):
oscprob = self.context.objects[oscprobkey] = R.OscProbPMNS(R.Neutrino.ae(), R.Neutrino.ae(), dist)
for it_component in self.idx_component:
component, = it_component.current_values()
it = it_source+it_detector+it_component
if component=='comp0':
output = self.comp0.fill.outputs['a']
input = self.comp0.fill.inputs['a']
else:
if not component in oscprob.transformations:
raise Exception( 'No component %s in oscprob transformation'%component )
trans = oscprob.transformations[component]
trans.setLabel( it.current_format('OP {component}: {reactor}-\\>{detector}') )
output = trans[component]
input = trans['Enu']
self.set_input('oscprob', it, input, argument_number=0)
self.set_output('oscprob', it, output)
def test_typeclass_kind_v01():
objects = [
C.Histogram(np.arange(6), np.arange(5)),
C.Histogram2d(np.arange(6), np.arange(7))
]
outputs = [p.single() for p in objects]
obj = C.DummyType()
list(map(obj.add_input, outputs))
dt_points = R.TypeClasses.CheckKindT(context.current_precision())(1)
R.SetOwnership(dt_points, False)
dt_points.dump()
print()
dt_hist = R.TypeClasses.CheckKindT(context.current_precision())(2)
R.SetOwnership(dt_hist, False)
dt_hist.dump()
print()
obj.add_typeclass(dt_hist)
res = obj.process_types()
assert res
obj.add_typeclass(dt_points)
print('Exception expected: ', end='')
res = obj.process_types()
assert not res
def unpack_hist1(output, dtype, kwargs={}):
dtype = dtype or output.datatype()
data = output.data()
edges = np.array(dtype.edgesNd[0], dtype='d')
widths = edges[1:] - edges[:-1]
rel_offsets = np.fabs(widths - widths[0]) / widths.max()
name = kwargs.pop('name', '')
title = kwargs.pop('label', kwargs.pop('title', ''))
if (rel_offsets < 1.e-9).all():
# Constant width histogram
hist = R.TH1D(name, title, edges.size - 1, edges[0], edges[-1])
else:
hist = R.TH1D(name, title, edges.size - 1, edges)
buffer = root2numpy.get_buffer_hist1(hist)
buffer[:] = data
hist.SetEntries(data.sum())
set_axes(hist, kwargs)
if kwargs:
raise Exception('Unparsed options in extra arguments for TH1D')
return hist
def build(self):
model_edges_t = C.Points( self.model_edges, ns=self.namespace )
model_edges_t.points.setLabel('Spectra interpolation edges')
self.context.objects['edges'] = model_edges_t
self.shared.reactor_anu_edges = model_edges_t.single()
if self.cfg.free_params:
with self.reac_ns:
tmp = C.VarArray(self.variables, ns=self.reac_ns, labels='Spec pars:\nlog(n_i)')
if self.cfg.varmode == 'log':
self.context.objects['npar_log'] = tmp
self.free_weights = R.Exp(ns=self.reac_ns)
self.free_weights.exp.points( tmp )
self.free_weights.exp.setLabel('n_i')
else:
tmp.vararray.setLabel('n_i')
self.free_weights = tmp
self.interp_expo = interp_expo = R.InterpExpo(ns=self.reac_ns)
sampler = interp_expo.transformations.front()
model_edges_t >> sampler.inputs.edges
sampler_input = sampler.inputs.points
interp_expo_t = interp_expo.transformations.back()
for i, it in enumerate(self.nidx_major):
isotope, = it.current_values()
spectrum_raw_t = C.Points( self.spectra[isotope], ns=self.reac_ns )
spectrum_raw_t.points.setLabel('%s spectrum, original'%isotope)
self.context.objects[('spectrum_raw', isotope)] = spectrum_raw_t
if self.cfg.free_params:
spectrum_t = C.Product(ns=self.reac_ns)
spectrum_t.multiply( spectrum_raw_t )
spectrum_t.multiply( self.free_weights.single() )
spectrum_t.product.setLabel('%s spectrum, corrected'%isotope)
else:
spectrum_t = spectrum_raw_t
if i>0:
interp_expo_t = interp_expo.add_transformation()
model_edges_t >> interp_expo_t.inputs.x
interp_output = interp_expo.add_input(spectrum_t)
interp_input = interp_expo_t.inputs.newx
if i>0:
self.set_input(self.cfg.name, it, interp_input, argument_number=0)
else:
self.set_input(self.cfg.name, it, (sampler_input, interp_input), argument_number=0)
interp_expo_t.setLabel('%s spectrum, interpolated'%isotope)
"""Store data"""
self.set_output(self.cfg.name, it, interp_output)
self.context.objects[('spectrum', isotope)] = spectrum_t
def __init__(self, title):
self._title = title
self._data = []
self._readers = {
R.GaussianParameter('double'): self._read_gaussian,
R.UniformAngleParameter('double'): self._read_angle,
DiscreteParameter: self._read_discrete,
}
def build(self):
self.load_data()
model_edges_t = C.Points(self.model_edges, ns=self.namespace)
model_edges_t.points.setLabel('Spectra interpolation edges')
self.context.objects['edges'] = model_edges_t
self.shared.reactor_anu_edges = model_edges_t.single()
self.corrections = None
if self.cfg.get('corrections', None):
self.corrections, = execute_bundles(cfg=self.cfg.corrections,
shared=self.shared)
self.interp_expo = interp_expo = R.InterpExpo(ns=self.namespace)
sampler = interp_expo.transformations.front()
model_edges_t >> sampler.inputs.edges
sampler_input = sampler.inputs.points
interp_expo_t = interp_expo.transformations.back()
for i, it in enumerate(self.nidx_major):
isotope, = it.current_values()
spectrum_raw_t = C.Points(self.spectra[isotope], ns=self.namespace)
spectrum_raw_t.points.setLabel('%s spectrum, original' % isotope)
self.context.objects[('spectrum_raw', isotope)] = spectrum_raw_t
if self.corrections:
spectrum_t = R.Product(ns=self.namespace)
spectrum_t.multiply(spectrum_raw_t)
for corr in self.corrections.bundles.values():
spectrum_t.multiply(corr.outputs[isotope])
spectrum_t.product.setLabel('%s spectrum, corrected' % isotope)
else:
spectrum_t = spectrum_raw_t
if i > 0:
interp_expo_t = interp_expo.add_transformation()
model_edges_t >> interp_expo_t.inputs.x
interp_output = interp_expo.add_input(spectrum_t)
interp_input = interp_expo_t.inputs.newx
if i > 0:
self.set_input(self.cfg.name,
it,
interp_input,
argument_number=0)
else:
self.set_input(self.cfg.name,
it, (sampler_input, interp_input),
argument_number=0)
interp_expo_t.setLabel('%s spectrum, interpolated' % isotope)
"""Store data"""
self.set_output(self.cfg.name, it, interp_output)
self.context.objects[('spectrum', isotope)] = spectrum_t
def test_datatype_preallocated_v02():
dt = R.DataType()
buf = N.arange(10, dtype='d')
dt.points().shape(buf.size).preallocated(buf)
dt1 = R.DataType()
dt1.__assign__(dt)
assert dt1 == dt
assert dt.requiresReallocation(dt1)
def test_histogram_v02_TH2D(tmp_path):
rhist = R.TH2D('testhist', 'testhist', 20, 0, 10, 24, 0, 12)
xyg = R.TF2("xyg", "exp([0]*x)*exp([1]*y)", 0, 10, 0, 12)
xyg.SetParameter(0, -1 / 2.)
xyg.SetParameter(1, -1 / 8.)
R.gDirectory.Add(xyg)
rhist.FillRandom('xyg', 10000)
hist = C.Histogram2d(rhist)
buf = rhist.get_buffer().T
res = hist.hist.hist()
# Plot
fig = plt.figure()
ax = plt.subplot(111)
ax.minorticks_on()
ax.grid()
ax.set_xlabel('X label')
ax.set_ylabel('Y label')
ax.set_title('ROOT histogram')
rhist.pcolorfast(colorbar=True)
suffix = 'histogram2d'
path = os.path.join(str(tmp_path), suffix + '.png')
savefig(path, dpi=300)
allure_attach_file(path)
plt.close()
fig = plt.figure()
ax = plt.subplot(111)
ax.minorticks_on()
ax.grid()
ax.set_xlabel('X label')
ax.set_ylabel('Y label')
ax.set_title('GNA histogram')
hist.hist.hist.plot_pcolorfast(colorbar=True)
suffix = 'histogram2d'
path = os.path.join(str(tmp_path), suffix + '.png')
savefig(path, dpi=300)
allure_attach_file(path)
plt.close()
path = os.path.join(str(tmp_path), suffix + '_graph.png')
savegraph(hist.hist, path)
allure_attach_file(path)
plt.close()
# Test consistency
assert np.all(buf == res)
def build(self):
with entryContext(subgraph="IBD"):
# initalize Evis to Enu converter
with self.namespace("ibd"):
self.econv = R.EvisToEe()
# register it's input and output
self.set_input('ee', None, self.econv.Ee.Evis, argument_number=0)
self.set_output('ee', None, self.econv.Ee.Ee)
if self.cfg.order==0:
# in 0th order and 1d case
# create 1d cross section
with self.namespace("ibd"):
self.ibd = R.IbdZeroOrder()
# register Enu input and output
self.set_input('enu', None, self.ibd.Enu.Ee, argument_number=0)
self.set_output('enu', None, self.ibd.Enu.Enu)
# register cross section input and output
self.set_input('ibd_xsec', None, self.ibd.xsec.Ee, argument_number=0)
self.set_output('ibd_xsec', None, self.ibd.xsec.xsec)
#label cross section for the graph
self.ibd.xsec.setLabel('IBD xsec (0)')
elif self.cfg.order==1:
# in 1th order and 2d case
# create 2d cross section
with self.namespace("ibd"):
self.ibd = R.IbdFirstOrder()
# register Enu inputs and output
self.set_input('enu', None, self.ibd.Enu.Ee, argument_number=0)
self.set_input('enu', None, self.ibd.Enu.ctheta, argument_number=1)
self.set_output('enu', None, self.ibd.Enu.Enu)
# register cross section inputs and output
self.set_input('ibd_xsec', None, self.ibd.xsec.Enu, argument_number=0)
self.set_input('ibd_xsec', None, self.ibd.xsec.ctheta, argument_number=1)
self.set_output('ibd_xsec', None, self.ibd.xsec.xsec)
# label cross section
self.ibd.xsec.setLabel('IBD xsec (1)')
# register jacobian inputs and output
self.set_input('jacobian', None, self.ibd.jacobian.Enu, argument_number=0)
self.set_input('jacobian', None, self.ibd.jacobian.Ee, argument_number=1)
self.set_input('jacobian', None, self.ibd.jacobian.ctheta, argument_number=2)
self.set_output('jacobian', None, self.ibd.jacobian.jacobian)
# label jacobian
self.ibd.jacobian.setLabel('Ee-\\>Enu jacobian')
# label neutrino energy caclulator
self.ibd.Enu.setLabel('Enu')
def build(self):
# initalize Evis to Enu converter
with self.common_namespace("ibd"):
self.econv = R.EvisToEe()
# register it's input and output
self.set_input( self.econv.Ee.Evis, 'ee', clone=0 )
self.set_output( self.econv.Ee.Ee, 'ee' )
if self.cfg.order==0:
# in 0th order and 1d case
# create 1d cross section
with self.common_namespace("ibd"):
self.ibd = R.IbdZeroOrder()
# register Enu input and output
self.set_input(self.ibd.Enu.Ee, 'enu', clone=0)
self.set_output(self.ibd.Enu.Enu, 'enu')
# register cross section input and output
self.set_input(self.ibd.xsec.Ee, 'ibd_xsec', clone=0)
self.set_output(self.ibd.xsec.xsec, 'ibd_xsec')
#label cross section for the graph
self.ibd.xsec.setLabel('IBD xsec (0)')
elif self.cfg.order==1:
# in 1th order and 2d case
# create 2d cross section
with self.common_namespace("ibd"):
self.ibd = R.IbdFirstOrder()
# register Enu inputs and output
self.set_input(self.ibd.Enu.Ee, 'enu', clone=0)
self.set_input(self.ibd.Enu.ctheta, 'enu', clone=1)
self.set_output(self.ibd.Enu.Enu, 'enu')
# register cross section inputs and output
self.set_input(self.ibd.xsec.Enu, 'ibd_xsec', clone=0)
self.set_input(self.ibd.xsec.ctheta, 'ibd_xsec', clone=1)
self.set_output(self.ibd.xsec.xsec, 'ibd_xsec')
# label cross section
self.ibd.xsec.setLabel('IBD xsec (1)')
# register jacobian inputs and output
self.set_input(self.ibd.jacobian.Enu, 'jacobian', clone=0)
self.set_input(self.ibd.jacobian.Ee, 'jacobian', clone=1)
self.set_input(self.ibd.jacobian.ctheta, 'jacobian', clone=2)
self.set_output(self.ibd.jacobian.jacobian, 'jacobian')
# label jacobian
self.ibd.jacobian.setLabel('Ee->Enu jacobian')
# label neutrino energy caclulator
self.ibd.Enu.setLabel('Enu')
def build_mat(self):
"""Assembles a chain for eleak detector effect using input matrix"""
haspar = bool(self.cfg.get('parname'))
ndiag = self.cfg.get('ndiag', 1)
norm = self.eleak_matrix.sum(axis=0)
norm[norm == 0.0] = 1.0
self.eleak_matrix /= norm
points = C.Points(self.eleak_matrix,
ns=self.namespace,
labels='Eleak matrix\n raw')
self.context.objects['matrix'] = points
if haspar:
self.set_output('eleak_matrix_raw', None, points.single())
else:
self.set_output('eleak_matrix', None, points.single())
for itdet in self.nidx_major:
if haspar:
parname = itdet.current_format(name=self.cfg.parname)
# Target=OffDiagonal, Mode=Upper
renormdiag = R.RenormalizeDiag(
ndiag,
1,
1,
parname,
ns=self.namespace,
labels=itdet.current_format('Eleak matrix\n {autoindex}'))
points.points >> renormdiag.renorm.inmat
self.set_output('eleak_matrix', itdet, renormdiag.single())
self.context.objects[itdet.current_values(
name='renormdiag')] = renormdiag
matinput = renormdiag.renorm
else:
matinput = points.points
for itother in self.nidx_minor:
it = itdet + itother
esmear = R.HistSmear(
True,
labels=it.current_format(
'{{Eleak effect|{autoindex}}}')) # True for 'upper'
matinput >> esmear.smear.inputs.SmearMatrix
self.set_input('eleak',
it,
esmear.smear.Ntrue,
argument_number=0)
self.set_output('eleak', it, esmear.single())
self.context.objects[it.current_values(name='esmear')] = esmear
def build(self):
model_edges_t = C.Points( self.model_edges, ns=self.common_namespace )
model_edges_t.points.setLabel('E0 (bin edges)')
self.objects['edges'] = model_edges_t
self.shared.reactor_anu_edges = model_edges_t.single()
self.corrections=None
if self.cfg.get('corrections', None):
self.corrections, = execute_bundles(cfg=self.cfg.corrections, shared=self.shared)
self.interp_expo = interp_expo = R.InterpExpo(ns=self.common_namespace)
sampler = interp_expo.transformations.front()
model_edges_t >> sampler.inputs.edges
sampler_input = sampler.inputs.points
interp_expo.bind_transformations(False)
interp_expo_t = interp_expo.transformations.back()
for i, it in enumerate(self.idx):
isotope = it.current_values()[0]
spectrum_raw_t = C.Points( self.spectra[isotope], ns=self.common_namespace )
spectrum_raw_t.points.setLabel('S0(E0):\n'+isotope)
self.objects[('spectrum_raw', isotope)] = spectrum_raw_t
if self.corrections:
spectrum_t = R.Product(ns=self.common_namespace)
spectrum_t.multiply( spectrum_raw_t )
for corr in self.corrections.bundles.values():
spectrum_t.multiply( corr.outputs[isotope] )
spectrum_t.product.setLabel('S(E0):\n'+isotope)
else:
spectrum_t = spectrum_raw_t
if i>0:
interp_expo_t = interp_expo.add_transformation(False)
interp_expo.bind_transformations(False)
model_edges_t >> interp_expo_t.inputs.x
interp_output = interp_expo.add_input(spectrum_t)
interp_input = interp_expo_t.inputs.newx
if i>0:
self.set_input(interp_input, self.cfg.name, it, clone=0)
else:
self.set_input((sampler_input, interp_input), self.cfg.name, it, clone=0)
interp_expo_t.setLabel('S(E):\n'+isotope)
"""Store data"""
self.set_output(interp_output, self.cfg.name, it)
self.objects[('spectrum', isotope)] = spectrum_t
def test_par_05(floatprecision='double'):
"""Test nested vector"""
assert floatprecision in ['double', 'float']
const = N.array([1.5, 2.6, 3.7], dtype=floatprecision[0])
var = R.parameter('vector<%s>' % floatprecision)('testpar')
var.value().resize(3)
taintflag = R.taintflag('tflag')
var.subscribe(taintflag)
taintflag.set(False)
vec = C.stdvector(const)
var.set(vec)
check('vec', None, list(var.value()), const, taintflag)
def build(self):
if self.xorders.size>1:
if self.xorders.size+1 != self.xedges.size:
raise self.exception('Incompartible edges and xorders definition:\n {!r}\n {!r}'.format(self.xedges, self.xorders))
self.integrator = R.Integrator21GL(self.xedges.size-1, self.xorders, self.xedges, self.cfg.yorder, -1.0, 1.0)
else:
self.integrator = R.Integrator21GL(self.xedges.size-1, int(self.xorders[0]), self.xedges, self.cfg.yorder, -1.0, 1.0)
self.integrator.points.setLabel('GL sampler (2d)')
self.integrator.points.x.setLabel(self.cfg.variables[0])
self.integrator.points.xedges.setLabel('%s edges'%self.cfg.variables[0])
self.integrator.points.xcenters.setLabel('{} bin centers'.format(self.cfg.variables[0]))
self.integrator.points.y.setLabel(self.cfg.variables[1])
self.set_output(self.cfg.variables[0], None, self.integrator.points.x)
self.set_output('{}_edges'.format(self.cfg.variables[0]), None, self.integrator.points.xedges)
self.set_output('{}_centers'.format(self.cfg.variables[0]), None, self.integrator.points.xcenters)
self.set_output('{}_hist'.format(self.cfg.variables[0]), None, self.integrator.points.xhist)
self.set_output('{}_mesh'.format(self.cfg.variables[0]), None, self.integrator.points.xmesh)
self.set_output('{}_mesh'.format(self.cfg.variables[1]), None, self.integrator.points.ymesh)
self.set_output(self.cfg.variables[1], None, self.integrator.points.y)
hist = self.integrator.hist
instances = self.cfg['instances']
needadd = False
for name, label in instances.items():
noindex = False
if isinstance(label, (dict, NestedDict)):
noindex = label.get('noindex')
label = label.get('label')
if label is None:
label = '{name} {autoindex} (GL)'
for it in self.nidx:
if needadd:
hist = self.integrator.add_transformation()
needadd=True
if noindex:
hist.setLabel(label)
self.set_input(name, None, self.integrator.add_input(), argument_number=0)
self.set_output(name, None, hist.outputs.back())
break
hist.setLabel(it.current_format(label, name='Integral'))
self.set_input(name, it, self.integrator.add_input(), argument_number=0)
self.set_output(name, it, hist.outputs.back())
def build(self):
'''Bringing uncertainties together with spectrum.
Spectrum values are grouped by bins in antineutrino
energy (binning is read together with uncertainties).
Each bin is corrected accordingly and corrected spectrum is provided
as output.
'''
order = ','.join((self.cfg.iso_idx, self.cfg.reac_idx))
reversed_order = ','.join((self.cfg.reac_idx, self.cfg.iso_idx))
order_from_idx = self.nidx_major.comma_list()
if order_from_idx == order:
normal_order = True
elif order_from_idx == reversed_order:
normal_order = False
else:
raise ValueError("Indicies from config and real don't match")
for idx in self.nidx_major:
if normal_order:
iso, reac, = idx.current_values()
else:
reac, iso, = reac_idx.current_values()
unc = self.total_unc[reac][iso]
nominal = R.FillLike(1., labels="Nominal weight for spectrum")
unc.single() >> nominal.single_input()
total = C.Sum(
outputs=[unc, nominal],
labels=f"Nominal weigts + correction for {iso} in {reac}")
correction = R.ReactorSpectrumUncertainty(self.binning.single(),
total.single())
correction.insegment.setLabel(
f"Segments in HM-bins for {iso} in {reac}")
correction.transformations.in_bin_product.setLabel(
f"Correction to antineutrino spectrum in HM model for {iso} in {reac}"
)
self.set_input("corrected_spectrum",
idx,
correction.insegment.points,
argument_number=0)
self.set_input("corrected_spectrum",
idx,
correction.transformations.in_bin_product.spectrum,
argument_number=1)
self.set_output(
"corrected_spectrum", idx,
correction.transformations.in_bin_product.corrected_spectrum)
def test_arrayview_allocation():
nitems, ndata = 6, 15
allocator = R.arrayviewAllocatorSimple(context.current_precision())(ndata)
arrays = []
for i in range(1, nitems):
array = R.arrayview(context.current_precision())(i, allocator)
for j in range(i):
array[j] = j
print(i, array.view())
arrays.append(array)
print('Arrays:', [array.view() for array in arrays])
print('Data (filled):', allocator.view())
print('Data (all):', allocator.viewall())
def build(self):
if self.xorders.size > 1:
if self.xorders.size + 1 != self.edges.size:
raise Exception(
'Incompartible edges and xorders definition:\n {!r}\n {!r}'
.format(self.edges, self.xorders))
self.integrator = R.Integrator21GL(self.edges.size - 1,
self.xorders, self.edges,
self.cfg.yorder, -1.0, 1.0)
else:
self.integrator = R.Integrator21GL(self.edges.size - 1,
int(self.xorders[0]),
self.edges, self.cfg.yorder,
-1.0, 1.0)
self.integrator.points.setLabel('GL sampler (2d)')
self.integrator.points.x.setLabel(self.cfg.variables[0])
self.integrator.points.xedges.setLabel('%s edges' %
self.cfg.variables[0])
self.integrator.points.xcenters.setLabel('{} bin centers'.format(
self.cfg.variables[0]))
self.integrator.points.y.setLabel(self.cfg.variables[1])
self.set_output(self.cfg.variables[0], None, self.integrator.points.x)
self.set_output('{}_edges'.format(self.cfg.variables[0]), None,
self.integrator.points.xedges)
self.set_output('{}_centers'.format(self.cfg.variables[0]), None,
self.integrator.points.xcenters)
self.set_output('{}_hist'.format(self.cfg.variables[0]), None,
self.integrator.points.xhist)
self.set_output('{}_mesh'.format(self.cfg.variables[0]), None,
self.integrator.points.xmesh)
self.set_output('{}_mesh'.format(self.cfg.variables[1]), None,
self.integrator.points.ymesh)
self.set_output(self.cfg.variables[1], None, self.integrator.points.y)
hist = self.integrator.hist
for i, it in enumerate(self.nidx):
if i:
hist = self.integrator.add_transformation()
hist.setLabel(
it.current_format('{name} {autoindex} (GL)', name='Integral'))
self.set_input('integral',
it,
self.integrator.add_input(),
argument_number=0)
self.set_output('integral', it, hist.outputs.back())
def test_arrayview_complex():
a1 = R.arrayview(context.current_precision())(2)
a1[0] = 2
a1[1] = 3
c1 = a1.complex()
assert c1.real == 2.0
assert c1.imag == 3.0
def define_variables(self):
names_all = set(self.cfg.names)
names_unc = self.cfg.fractions.keys()
names_eval = names_all - set(names_unc)
if len(names_eval) != 1:
raise self.exception(
'User should provide N-1 fractions, the last one is not independent\n'
'all: {!s}\nfractions: {!s}'.format(self.cfg.names, names_unc))
name_eval = names_eval.pop()
subst = []
names = ()
for name, val in self.cfg.fractions.items():
cname = self.cfg.format.format(component=name)
names += cname,
par = self.common_namespace.reqparameter(cname, cfg=val)
par.setLabel('{} fraction'.format(name))
subst.append(self.common_namespace.pathto(cname))
label = '{} fraction: '.format(name_eval)
label += '-'.join(('1', ) + names)
name_eval = self.cfg.format.format(component=name_eval)
with self.common_namespace:
self.vd = R.VarDiff(stdvector(subst),
name_eval,
1.0,
ns=self.common_namespace)
par = self.common_namespace[name_eval].get()
par.setLabel(label)
def saveInfo(self, name, info, title='', print_threshold=3, **kwargs):
auto_title = kwargs.pop('auto_title', False)
assert not kwargs, 'Unparsed arguments: ' + str(kwargs)
data = ordered_yaml.ordered_dump(info)
if auto_title:
title = str(data)
if title[-1] == '\n':
title = title[:-1]
title = title.replace('\n', '; ')
if title:
title = title + ' (yaml)'
else:
title = 'YAML data'
odata = R.TObjString(data)
self.outputfile.WriteTObject(odata, name, 'overwrite')
key = self.outputfile.GetKey(name)
key.SetTitle(title)
self.print(
print_threshold,
'Save info as {name}: {title}'.format(name=name, title=title))
self.print(print_threshold, data, end='\n')
def Histogram2d(arg1, arg2=None, arg3=None, *args, **kwargs):
if arg2 is None and arg3 is None:
if isinstance(arg1, R.TH2):
xedges = arg1.GetXaxis().get_bin_edges().astype('d')
yedges = arg1.GetYaxis().get_bin_edges().astype('d')
data = np.ascontiguousarray(arg1.get_buffer().T, dtype='d').ravel(
order='F') # histogram buffer is transposed (y, x)
else:
raise Exception(
'Should provide (xedges, yedges[, data]) or (TH2) to construct Histogram2d'
)
else:
xedges = np.ascontiguousarray(arg1, dtype='d')
yedges = np.ascontiguousarray(arg2, dtype='d')
reqsize = (xedges.size - 1) * (yedges.size - 1)
if arg3 is None:
data = np.zeros(reqsize, dtype='d')
else:
data = arg3
if reqsize != data.size:
raise Exception(
'Bin edges and data are not consistent (%i,%i and %i)' %
(xedges.size, yedges.size, data.size))
data = np.ascontiguousarray(data, dtype='d').ravel(order='F')
return R.Histogram2d(xedges.size - 1, xedges, yedges.size - 1, yedges,
data, *args, **kwargs)