def collect_exp_data(wdir):
load_config('%s/input.py'%wdir)
conf['bootstrap']=False
istep=core.get_istep()
core.mod_conf(istep) #--set conf as specified in istep
resman=RESMAN(nworkers=1,parallel=False,datasets=True)
obsres={}
if 'idis' in conf['datasets'] : obsres['idis'] = resman.idisres
if 'pidis' in conf['datasets'] : obsres['pidis'] = resman.pidisres
if 'sidis' in conf['datasets'] : obsres['sidis'] = resman.sidisres
if 'psidis' in conf['datasets'] : obsres['psidis'] = resman.psidisres
if 'dy' in conf['datasets'] : obsres['dy'] = resman.dyres
if 'sia' in conf['datasets'] : obsres['sia'] = resman.siares
print('\ncollecting exp data using the setup as in %s\n'%wdir)
data={}
for reaction in obsres:
tabs={}
for idx in obsres[reaction].tabs:
tabs[idx]={}
tabs[idx]['value']=obsres[reaction].tabs[idx]['value']
tabs[idx]['alpha']=obsres[reaction].tabs[idx]['alpha']
data[reaction]=tabs
save(data,'%s/expdata.dat'%(wdir))
#--close resman
resman.shutdown()
def get_par(self, step, dep=[]):
#--current value must be within min and max
self.checklimits()
#--initialize resman
self.resman = RESMAN(self.nworkers)
self.parman = self.resman.parman
#--setups
guess = self.get_guess(dep)
bounds = self.get_bounds()
self.set_counters()
self.parman.set_new_params(guess, initial=True)
#--run fit
fit = least_squares(self.get_residuals,
guess,
bounds=bounds,
method='trf',
ftol=conf['ftol'])
#--generate summary. It will update system with the final results
self.gen_summary(step, fit.x)
#--close resman
self.resman.shutdown()
return fit.x
def __init__(self, tag):
load_config('data/input-%s.py' % tag)
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
self.parman = resman.parman
self.jar = np.load('data/jar-%s.npy' % tag,
allow_pickle=True,
encoding='latin1').item()
self.parman.order = self.jar['order']
self.par = self.jar['par']
self.nrep = len(self.par)
def gen_samples(wdir,nsamples=100,nsize=10):
load_config('%s/input.py'%wdir)
conf['bootstrap']=False
istep=core.get_istep()
core.mod_conf(istep) #--set conf as specified in istep
resman=RESMAN(nworkers=5,parallel=True,datasets=True)
parman=resman.parman
order=parman.order
obsres={}
if 'idis' in conf['datasets'] : obsres['idis'] = resman.idisres
if 'pidis' in conf['datasets'] : obsres['pidis'] = resman.pidisres
if 'sidis' in conf['datasets'] : obsres['sidis'] = resman.sidisres
if 'psidis' in conf['datasets'] : obsres['psidis'] = resman.psidisres
if 'dy' in conf['datasets'] : obsres['dy'] = resman.dyres
if 'sia' in conf['datasets'] : obsres['sia'] = resman.siares
print('\ngen ml samples using the setup as in %s\n'%wdir)
checkdir('%s/mlsamples'%wdir)
data=gen_dataframe(parman.order,obsres,nsize)
for _ in range(nsamples):
lprint('progress: %d/%d'%(_,nsamples))
par=parman.gen_flat(setup=True)
res,rres,nres=resman.get_residuals(par)
#--fill dataframe
i=data['size']
data['params'][i]=par
for reaction in obsres:
for idx in data['reactions'][reaction]:
prediction=copy.copy(obsres[reaction].tabs[idx]['prediction'])
data['reactions'][reaction][idx][i]=prediction
data['size']+=1
if data['size']==nsize:
save(data,'%s/mlsamples/%s'%(wdir,id_generator(12)))
data=gen_dataframe(parman.order,obsres,nsize)
print
#--close resman
resman.shutdown()
def gen_dist_from_fitpack(wdir,dist):
print('\ngenerating %s tables for benchmark using %s'%(dist,wdir))
load_config('%s/input.py'%wdir)
istep=core.get_istep()
core.mod_conf(istep) #--set conf as specified in istep
resman=RESMAN(nworkers=1,parallel=False,datasets=False)
parman=resman.parman
jar=load('%s/data/jar-%d.dat'%(wdir,istep))
replicas=jar['replicas']
X,Q2=gen_grid(dist)
qpd=conf[dist]
nx=len(X)
nQ2=len(Q2)
flavs=[-5,-4,-3,-2,-1,1,2,3,4,5,21]
fmap={-5:'bb',-4:'cb',-3:'sb',-2:'ub',-1:'db'}
fmap.update({5:'b',4:'c',3:'s',2:'u',1:'d'})
fmap.update({21:'g'})
#--gen qpd data per replica
checkdir('%s/benchmark'%wdir)
cnt=0
for par in replicas:
lprint('progress: %d/%d'%(cnt+1,len(replicas)))
parman.set_new_params(par)
data={}
for _ in Q2:
data[_]={}
for flav in flavs:
data[_][flav]=np.array([qpd.get_xF(x,_,fmap[flav]) for x in X])
save(data,'%s/benchmark/%s-%d.dat'%(wdir,dist,cnt))
cnt+=1
print
def gen_tables(wdir, dist, file_name, info, info_only=False):
print('\ngenerating LHAPDF tables for %s using %s' % (dist, wdir))
load_config('%s/input.py' % wdir)
istep = core.get_istep()
core.mod_conf(istep) #--set conf as specified in istep
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
jar = load('%s/data/jar-%d.dat' % (wdir, istep))
replicas = jar['replicas']
#--check order consistency
order = jar['order']
parman.order = order
#--create output dir
checkdir(wdir + '/data/')
checkdir(wdir + '/data/%s/' % file_name)
#--gen lhapdf_data_files
if info_only == False:
cnt = 0
for par in replicas:
lprint('progress: %d/%d' % (cnt + 1, len(replicas)))
parman.set_new_params(par)
X, Q2, table = _gen_table(dist)
gen_lhapdf_dat_file(X, Q2, table, wdir, file_name, cnt)
cnt += 1
print
#--gen_lhapdf_info_file
X, Q2 = gen_grid(dist)
nrep = len(replicas)
gen_lhapdf_info_file(X, Q2, nrep, wdir, file_name, info)
def gen_lhapdf_info_file(wdir, idxs, tar, info, dirname='JAMSIM'):
#--get tables
X, Q2, table, replicas = get_tables(wdir, idxs, tar)
#--get flav string
flavs = ''
for idx in idxs:
flavs += '%d, ' % idx
flavs = flavs.rstrip(',')
#--kinematic limits
xmin = X[0]
xmax = X[-1]
Qmin = Q2[0]**0.5
Qmax = Q2[-1]**0.5
#--qcd params
load_config('%s/input.py' % wdir)
RESMAN(nworkers=1, parallel=False, datasets=False)
aS = [conf['alphaS'].get_alphaS(_) for _ in Q2]
mZ = conf['aux'].mZ
mb = conf['aux'].mb
mc = conf['aux'].mc
alphaSMZ = conf['aux'].alphaSMZ
#--begin lhapdf info file
lines = []
lines.append('SetDesc: "<description>"')
lines.append('SetIndex: <index>')
lines.append('Authors: <authors>')
lines.append('Reference: <reference>')
lines.append('Format: lhagrid1')
lines.append('DataVersion: 1')
lines.append('NumMembers: 1')
lines.append('Particle: <particle>')
lines.append('Flavors: [%s]' % flavs)
lines.append('OrderQCD: 1')
lines.append('FlavorScheme: <flav scheme>')
lines.append('NumFlavors: %d' % len(idxs))
lines.append('ErrorType: no error')
lines.append('XMin: %0.2e' % xmin)
lines.append('XMax: %0.2e' % xmax)
lines.append('QMin: %0.2e' % Qmin)
lines.append('QMax: %0.2e' % Qmax)
lines.append('MZ: %f' % mZ)
lines.append('MUp: 0.0')
lines.append('MDown: 0.0')
lines.append('MStrange: 0.0')
lines.append('MCharm: %f' % mc)
lines.append('MBottom: %f' % mb)
lines.append('MTop: 180.0')
lines.append('AlphaS_MZ: %f' % alphaSMZ)
lines.append('AlphaS_OrderQCD: 1')
lines.append('AlphaS_Type: ipol')
line = 'AlphaS_Qs: ['
for _ in Q2:
line += ('%10.5e, ' % _**0.5).upper()
line = line.rstrip(',') + ']'
lines.append(line)
line = 'AlphaS_Vals: ['
for _ in aS:
line += ('%10.5e, ' % _).upper()
line = line.rstrip(',') + ']'
lines.append(line)
lines.append('AlphaS_Lambda4: 0')
lines.append('AlphaS_Lambda5: 0')
for i in range(len(lines)):
for _ in info:
lines[i] = lines[i].replace(_, info[_])
lines = [l + '\n' for l in lines]
checkdir('%s/lhapdf/%s' % (wdir, dirname))
tab = open('%s/lhapdf/%s/%s.info' % (wdir, dirname, dirname), 'w')
tab.writelines(lines)
tab.close()
############################################################################
# define datasets (kinematics) to perform the simulation
conf['datasets']={}
conf['datasets']['sidis']={}
conf['datasets']['sidis']['xlsx']={}
conf['datasets']['sidis']['xlsx'][1000]='./template.xlsx' # | proton | pi+
conf['datasets']['sidis']['norm']={}
for idx in conf['datasets']['sidis']['xlsx']: conf['datasets']['sidis']['norm'][idx]={'value':1,'fixed':True,'min':0,'max':1}
conf['datasets']['sidis']['filters']={}
############################################################################
# run simulation
resman = RESMAN()
parman = conf['parman']
resman.get_residuals(parman.par)
print
############################################################################
# prepare the new pseudo data set and save it as xlsx file
simdata=pd.DataFrame(conf['sidis tabs'][1000])
simdata['value']=simdata['thy']
simdata['stat_u']=pd.Series(simdata['thy']*simdata['%stat']/100,index=simdata.index)
simdata['syst_u']=pd.Series(simdata['thy']*simdata['%syst']/100,index=simdata.index)
simdata=simdata.drop(['r-residuals','shift','alpha','residuals','yp','yh','W2','Shift','N','thy','%stat','%syst'],axis=1)
print simdata[:10]
writer = pd.ExcelWriter('simulation.xlsx')
def get_parameters(wdir, Q2=None):
load_config('%s/input.py' % wdir)
istep = core.get_istep()
replicas = core.get_replicas(wdir)
## 'conf' will be modified for each replica individually later in the loop over 'replicas'
## the reason for doing this is that 'fix parameters' has to be set correctly for each replica
if 'ppdf' not in conf['steps'][istep]['active distributions']:
print('ppdf-proton not in active distribution')
return
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
parman.order = replicas[0]['order'][
istep] ## make sure 'parman' uses the same order as all the replicas do
# print parman.order
ppdf = conf['ppdf']
## setup kinematics
if Q2 == None: Q2 = conf['Q20']
## get parameters for all flavors of PDF
print('\ngetting ppdf-parameters from %s at Q2 = %.2f' % (wdir, Q2))
## check if any of the shapes are fixed
shape_1 = []
shape_2 = []
shape_3 = []
for parameter in conf['params']['ppdf']:
if '1' in parameter:
shape_1.append(conf['params']['ppdf'][parameter]['fixed'])
elif '2' in parameter:
shape_2.append(conf['params']['ppdf'][parameter]['fixed'])
elif '3' in parameter:
shape_3.append(conf['params']['ppdf'][parameter]['fixed'])
else:
print('there seems to be more than three shapes')
print(parameter)
sys.exit('please update script %s' % __file__)
fixed_shape_1 = False
fixed_shape_2 = False
fixed_shape_3 = False
if (len(shape_1) != 0) and all([_ == True for _ in shape_1]):
fixed_shape_1 = True
elif len(shape_1) == 0:
fixed_shape_1 = True
if (len(shape_2) != 0) and all([_ == True for _ in shape_2]):
fixed_shape_2 = True
elif len(shape_2) == 0:
fixed_shape_2 = True
if (len(shape_3) != 0) and all([_ == True for _ in shape_3]):
fixed_shape_3 = True
elif len(shape_3) == 0:
fixed_shape_3 = True
parameters = {}
if not fixed_shape_1: parameters[1] = {}
if not fixed_shape_2: parameters[2] = {}
if not fixed_shape_3: parameters[3] = {}
n_replicas = len(replicas)
for i in range(n_replicas):
lprint('%d/%d' % (i + 1, n_replicas))
parman.order = copy.copy(replicas[i]['order'][istep])
core.mod_conf(istep, replicas[i])
parman.set_new_params(replicas[i]['params'][istep], initial=True)
for flavor, value in ppdf.params.iteritems():
for j in parameters:
if str(j) in flavor:
flavor_key = flavor.replace(str(j), '')
if flavor_key not in parameters[j]:
parameters[j][flavor_key] = {
'n': [],
'a': [],
'b': [],
'c': [],
'd': []
}
parameters[j][flavor_key]['n'].append(value[0])
parameters[j][flavor_key]['a'].append(value[1])
parameters[j][flavor_key]['b'].append(value[2])
parameters[j][flavor_key]['c'].append(value[3])
parameters[j][flavor_key]['d'].append(value[4])
else:
pass
## remove c or d parameters if fixed in all flavors and shapes
## this is to avoid producing empty figures
shapes_fixed_c = []
shapes_fixed_d = []
for shape in parameters:
flavors_fixed_c = []
flavors_fixed_d = []
for flavor in parameters[shape]:
cs = parameters[shape][flavor]['c']
ds = parameters[shape][flavor]['d']
if all([_ == cs[0] for _ in cs]):
flavors_fixed_c.append(True)
else:
flavors_fixed_c.append(False)
if all([_ == ds[0] for _ in ds]):
flavors_fixed_d.append(True)
else:
flavors_fixed_d.append(False)
if all(flavors_fixed_c):
shapes_fixed_c.append(True)
else:
shapes_fixed_c.append(False)
if all(flavors_fixed_d):
shapes_fixed_d.append(True)
else:
shapes_fixed_d.append(False)
if all(shapes_fixed_c):
for shape in parameters:
for flavor in parameters[shape]:
del parameters[shape][flavor]['c']
print('parameter c is fixed for shape %s' % shape)
if all(shapes_fixed_d):
for shape in parameters:
for flavor in parameters[shape]:
del parameters[shape][flavor]['d']
print('parameter d is fixed for shape %s' % shape)
print
checkdir('%s/data' % wdir)
if Q2 == conf['Q20']:
save(parameters, '%s/data/ppdf-parameters-%d.dat' % (wdir, istep))
else:
save(parameters,
'%s/data/ppdf-parameters-%d-%f.dat' % (wdir, istep, Q2))
def get_moments(wdir, flavors, x_1, x_2, Q2=None):
load_config('%s/input.py' % wdir)
istep = core.get_istep()
replicas = core.get_replicas(wdir)
## 'conf' will be modified for each replica individually later in the loop over 'replicas'
## the reason for doing this is that 'fix parameters' has to be set correctly for each replica
if 'ppdf' not in conf['steps'][istep]['active distributions']:
print('ppdf-proton not in active distribution')
return
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
parman.order = replicas[0]['order'][istep]
## make sure 'parman' uses the same order for active distributions as all the replicas do
# print parman.order
ppdf = conf['ppdf']
## setup kinematics
# X = 10.0 ** np.linspace(-3, -1, 100)
# X = np.append(X, np.linspace(0.1, 0.99, 100))
if Q2 == None: Q2 = conf['Q20']
print('\ngenerating momentus for polarized pdf-proton from %s at Q2 = %f' %
(wdir, Q2))
## compute moments for all replicas
moments = {}
statistics = {}
n_replicas = len(replicas)
for i in range(n_replicas):
lprint('%d/%d' % (i + 1, n_replicas))
parman.order = copy.copy(replicas[i]['order'][istep])
core.mod_conf(istep, replicas[i])
parman.set_new_params(replicas[i]['params'][istep], initial=True)
for flavor in flavors:
if flavor not in moments: moments[flavor] = []
if flavor not in statistics: statistics[flavor] = {}
if flavor == 'up':
func = lambda x: (ppdf.get_xF(x, Q2, 'u') + ppdf.get_xF(
x, Q2, 'ub')) / x
elif flavor == 'dp':
func = lambda x: (ppdf.get_xF(x, Q2, 'd') + ppdf.get_xF(
x, Q2, 'sb')) / x
elif flavor == 'sp':
func = lambda x: (ppdf.get_xF(x, Q2, 's') + ppdf.get_xF(
x, Q2, 'sb')) / x
else:
func = lambda x: ppdf.get_xF(x, Q2, flavor) / x
moments[flavor].append(quad(func, x_1, x_2)[0])
for flavor in flavors:
statistics[flavor]['mean'] = np.mean(moments[flavor])
statistics[flavor]['standard_deviation'] = np.std(moments[flavor])
print
for flavor in flavors:
print flavor, ': ', statistics[flavor]
checkdir('%s/data' % wdir)
if Q2 == conf['Q20']:
save({
'Q2': Q2,
'moments': moments,
'statistics': statistics
}, '%s/data/ppdf-moments-%s-to-%s-%d.dat' % (wdir, x_1, x_2, istep))
else:
save({
'Q2': Q2,
'moments': moments,
'statistics': statistics
}, '%s/data/ppdf-moments-%s-to-%s-%d-%f.dat' %
(wdir, x_1, x_2, istep, Q2))
def gen_xf(wdir, flavors, Q2=None):
load_config('%s/input.py' % wdir)
istep = core.get_istep()
replicas = core.get_replicas(wdir)
## 'conf' will be modified for each replica individually later in the loop over 'replicas'
## the reason for doing this is that 'fix parameters' has to be set correctly for each replica
if 'ppdf' not in conf['steps'][istep]['active distributions']:
print('ppdf-proton not in active distribution')
return
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
parman.order = replicas[0]['order'][istep]
## make sure 'parman' uses the same order for active distributions as all the replicas do
# print parman.order
ppdf = conf['ppdf']
## setup kinematics
xs = 10.0**np.linspace(-3, -1, 100)
xs = np.append(xs, np.linspace(0.1, 0.99, 100))
if Q2 == None: Q2 = conf['Q20']
print('\ngenerating polarized pdf-proton from %s at Q2 = %f' % (wdir, Q2))
## compute xf for all replicas
xfs = {}
n_replicas = len(replicas)
for i in range(n_replicas):
lprint('%d/%d' % (i + 1, n_replicas))
## filter
#flag=False
#params=replica['params'][istep]
#order=replica['order'][istep]
#for i in range(len(order)):
# if order[i][0]!=1:continue
# if order[i][1]!='ppdf':continue
# #if order[i][2]=='s1 a':
# # if params[i]<-0.9: flag=True
#if flag: continue
parman.order = copy.copy(replicas[i]['order'][istep])
core.mod_conf(istep, replicas[i])
parman.set_new_params(replicas[i]['params'][istep], initial=True)
for flavor in flavors:
if flavor not in xfs: xfs[flavor] = []
if flavor == 'up':
func = lambda x: ppdf.get_xF(x, Q2, 'u') + ppdf.get_xF(
x, Q2, 'ub')
elif flavor == 'dp':
func = lambda x: ppdf.get_xF(x, Q2, 'd') + ppdf.get_xF(
x, Q2, 'sb')
elif flavor == 'sp':
func = lambda x: ppdf.get_xF(x, Q2, 's') + ppdf.get_xF(
x, Q2, 'sb')
else:
func = lambda x: ppdf.get_xF(x, Q2, flavor)
xfs[flavor].append([func(x) for x in xs])
print
checkdir('%s/data' % wdir)
if Q2 == conf['Q20']:
save({
'X': xs,
'Q2': Q2,
'XF': xfs
}, '%s/data/ppdf-%d.dat' % (wdir, istep))
else:
save({
'X': xs,
'Q2': Q2,
'XF': xfs
}, '%s/data/ppdf-%d-%f.dat' % (wdir, istep, Q2))
def gen_xf(wdir, had, flavors=['g', 'u', 'ub', 'd', 'db', 's', 'sb'], Q2=None):
fflabel = 'ff%s' % had
print('\ngenerating ff-%s from %s' % (had, wdir))
load_config('%s/input.py' % wdir)
istep = core.get_istep()
replicas = core.get_replicas(wdir)
core.mod_conf(istep, replicas[0]) ## set conf as specified in istep
if fflabel not in conf['steps'][istep]['active distributions']:
print('ff-%s not in active distribution' % had)
return
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
jar = load('%s/data/jar-%d.dat' % (wdir, istep))
## 'jar' contains parameters and their orders
replicas = jar['replicas']
## 'jar['replicas']' is a list, in which each element is a list of parameters obeying 'jar['order']'
ff = conf[fflabel]
## setup kinematics
X = np.linspace(0.01, 0.99, 100)
if Q2 == None: Q2 = conf['Q20']
## compute XF for all replicas
XF = {}
cnt = 0
for par in replicas:
cnt += 1
lprint('%d/%d' % (cnt, len(replicas)))
## filter
#flag=False
#params=replica['params'][istep]
#order=replica['order'][istep]
#for i in range(len(order)):
# if order[i][0]!=1:continue
# if order[i][1]!='pdf':continue
# #if order[i][2]=='s1 a':
# # if params[i]<-0.9: flag=True
#if flag: continue
parman.set_new_params(par, initial=True)
#print
#print conf['ffpion'].get_xF(0.5,10.0,'u')
#print conf['ffkaon'].get_xF(0.5,10.0,'u')
#print ff.get_xF(0.5,10.0,'u')
for flavor in flavors:
if flavor not in XF: XF[flavor] = []
if flavor == 'c' or flavor == 'cb' or flavor == 'c+cb':
_Q2 = conf['aux'].mc2 + 1
elif flavor == 'b' or flavor == 'bb' or flavor == 'b+bb':
_Q2 = conf['aux'].mb2 + 1
else:
_Q2 = Q2
if flavor == 'u+ub':
func = lambda x: ff.get_xF(x, _Q2, 'u') + ff.get_xF(
x, _Q2, 'ub')
elif flavor == 'd+db':
func = lambda x: ff.get_xF(x, _Q2, 'd') + ff.get_xF(
x, _Q2, 'db')
elif flavor == 's+sb':
func = lambda x: ff.get_xF(x, _Q2, 's') + ff.get_xF(
x, _Q2, 'cb')
elif flavor == 'c+cb':
func = lambda x: ff.get_xF(x, _Q2, 'c') + ff.get_xF(
x, _Q2, 'cb')
elif flavor == 'b+bb':
func = lambda x: ff.get_xF(x, _Q2, 'b') + ff.get_xF(
x, _Q2, 'bb')
else:
func = lambda x: ff.get_xF(x, _Q2, flavor)
XF[flavor].append([func(x) for x in X])
#print func(0.5)
print
checkdir('%s/data' % wdir)
if Q2 == conf['Q20']:
save({
'X': X,
'Q2': Q2,
'XF': XF
}, '%s/data/ff%s-%d.dat' % (wdir, had, istep))
else:
save({
'X': X,
'Q2': Q2,
'XF': XF
}, '%s/data/ff%s-%d-%d.dat' % (wdir, had, istep, int(Q2)))
def print_grouped_parameters(working_directory,
distribution_name,
i_replica=1):
## print parameters from replicas and PDF class to compare
load_config('%s/input.py' % working_directory)
istep = core.get_istep()
replicas = core.get_replicas(working_directory)
core.mod_conf(istep, replicas[0]) ## set conf as specified in istep
if distribution_name not in conf['steps'][istep]['active distributions']:
print('%s-proton is not an active distribution' % distribution_name)
return
resman = RESMAN(nworkers=1, parallel=False, datasets=False)
parman = resman.parman
parman.order = replicas[0]['order'][
istep] ## make sure 'parman' uses the same order as all the replicas do
# print parman.order
distribution = conf[distribution_name]
print('%s parameters in class' % distribution_name)
core.mod_conf(istep, replicas[i_replica - 1])
parman.set_new_params(replicas[i_replica - 1]['params'][istep],
initial=True)
for name, value in distribution.params.iteritems():
if value[0] != 0.0:
print '%7s: %.5e, %.5e, %.5e, %.5e, %.5e' % (
name, value[0], value[1], value[2], value[3], value[4])
print('%s parameters in replicas' % distribution_name)
orders = []
unique_orders = []
values = []
for i in range(len(replicas[i_replica - 1]['order'][istep])):
order = replicas[i_replica - 1]['order'][istep][i]
value = replicas[i_replica - 1]['params'][istep][i]
if (order[0] == 1) and (order[1] == distribution_name):
orders.append(order[2])
unique_orders.append(order[2].split(' ')[0])
values.append(value)
unique_orders = list(set(unique_orders))
for unique_order in unique_orders:
parameters = []
all_parameters = {'N': None, 'a': 0.0, 'b': 0.0, 'c': 0.0, 'd': 0.0}
for i in range(len(orders)):
if orders[i].split(' ')[0] == unique_order:
all_parameters[orders[i].split(' ')[1]] = values[i]
if all_parameters == {
'N': None,
'a': 0.0,
'b': 0.0,
'c': 0.0,
'd': 0.0
}:
continue
if all_parameters['N'] == None:
print '%7s: None, %.5e, %.5e, %.5e, %.5e' % (
unique_order, all_parameters['a'], all_parameters['b'],
all_parameters['c'], all_parameters['d'])
else:
print '%7s: %.5e, %.5e, %.5e, %.5e, %.5e' % (
unique_order, all_parameters['N'], all_parameters['a'],
all_parameters['b'], all_parameters['c'], all_parameters['d'])