# -*- coding: utf-8 -*-
-# Author: Pierre Ratinaud
-# lisence : GNU GPL
-# copyright : 2014 (c) Pierre Ratinaud
+#Author: Pierre Ratinaud
+#Copyright (c) 2008-2020 Pierre Ratinaud
+#modification pour python 3 : Laurent Mérat, 6x7 - mai 2020
+#License: GNU/GPL
+#------------------------------------
+# import des modules python
+#------------------------------------
import os
from time import time
+
+#------------------------------------
+# import des fichiers du projet
+#------------------------------------
from analysetxt import AnalyseText
-from OptionAlceste import OptionAlc
-from PrintRScript import RchdTxt, ReinertTxtProf, TgenProfScript
+from OptionAlceste import OptionAlc
+from PrintRScript import RchdTxt, ReinertTxtProf, TgenProfScript, ReDoProfScript
from layout import PrintRapport
from chemins import ChdTxtPathOut, PathOut
from functions import DoConf, print_liste, TGen
class Reinert(AnalyseText) :
+
def doanalyse(self) :
self.parametres['type'] = 'alceste'
self.pathout.basefiles(ChdTxtPathOut)
self.doR(Rscript, dlg=self.dlg, message='profils et A.F.C. ...')
self.time = time() - self.t1
minutes, seconds = divmod(self.time, 60)
- hours, minutes = divmod(minutes, 60)
+ hours, minutes = divmod(minutes, 60)
self.parametres['time'] = '%.0fh %.0fm %.0fs' % (hours, minutes, seconds)
self.print_graph_files()
def preferences(self) :
+ print('parametres en entree config alceste', self.parametres)
parametres = DoConf(self.parent.ConfigPath['reinert']).getoptions('ALCESTE')
+ print('parametres apres doconf', parametres)
parametres['corpus'] = self.corpus
parametres['pathout'] = self.pathout
+ parametres['lem'] = self.parametres['lem']
self.dial = OptionAlc(self.parent, parametres)
self.dial.CenterOnParent()
self.dialok = self.dial.ShowModal()
parametres['mode.patate'] = self.dial.check_patate.GetValue()
DoConf(self.parent.ConfigPath['reinert']).makeoptions(['ALCESTE'], [parametres])
self.dial.Destroy()
- print parametres
- return parametres
+ print(parametres)
+ self.parametres.update(parametres)
+ return self.parametres
else :
self.dial.Destroy()
return None
return self.pathout['RTxtProfGraph']
def print_graph_files(self) :
- mess_afc = u"La position des points n'est peut être pas exacte"
- afc_graph_list = [[os.path.basename(self.pathout['AFC2DL_OUT']), u'Variables actives - coordonnées - 30 points par classes - facteurs 1 / 2 - %s' % mess_afc],
- [os.path.basename(self.pathout['AFC2DSL_OUT']), u'variables supplémentaires - coordonnées - 30 points par classes - facteurs 1 / 2 - %s' % mess_afc],
- [os.path.basename(self.pathout['AFC2DEL_OUT']), u'Variables illustratives - Coordonnées - 30 points par classes - facteur 1 / 2 - %s' % mess_afc],
- [os.path.basename(self.pathout['AFC2DCL_OUT']), u'Classes - Coordonnées - facteur 1 / 2']]
- chd_graph_list = [[os.path.basename(self.pathout['dendro1']), u'dendrogramme à partir de chd1']]
+ mess_afc = "La position des points n'est peut être pas exacte"
+ afc_graph_list = [[os.path.basename(self.pathout['AFC2DL_OUT']), 'Variables actives - coordonnées - 30 points par classes - facteurs 1 / 2 - %s' % mess_afc],
+ [os.path.basename(self.pathout['AFC2DSL_OUT']), 'variables supplémentaires - coordonnées - 30 points par classes - facteurs 1 / 2 - %s' % mess_afc],
+ [os.path.basename(self.pathout['AFC2DEL_OUT']), 'Variables illustratives - Coordonnées - 30 points par classes - facteur 1 / 2 - %s' % mess_afc],
+ [os.path.basename(self.pathout['AFC2DCL_OUT']), 'Classes - Coordonnées - facteur 1 / 2']]
+ chd_graph_list = [[os.path.basename(self.pathout['dendro1']), 'dendrogramme à partir de chd1']]
if self.parametres['classif_mode'] == 0 :
- chd_graph_list.append([os.path.basename(self.pathout['dendro2']), u'dendrogramme à partir de chd2'])
- chd_graph_list.append([os.path.basename(self.pathout['arbre1']), u'chd1'])
+ chd_graph_list.append([os.path.basename(self.pathout['dendro2']), 'dendrogramme à partir de chd2'])
+ chd_graph_list.append([os.path.basename(self.pathout['arbre1']), 'chd1'])
if self.parametres['classif_mode'] == 0 :
- chd_graph_list.append([os.path.basename(self.pathout['arbre2']), u'chd2'])
+ chd_graph_list.append([os.path.basename(self.pathout['arbre2']), 'chd2'])
print_liste(self.pathout['liste_graph_afc'], afc_graph_list)
print_liste(self.pathout['liste_graph_chd'], chd_graph_list)
PrintRapport(self, self.corpus, self.parametres)
self.parametres = parametres
self.pathout = PathOut(dirout = self.parametres['pathout'])
self.cluster_size = [len(classe) for classe in corpus.lc]
- print cluster_size
self.doanalyse()
-
- def doanalyse(self):
+
+ def doanalyse(self):
self.tgen = TGen(path = self.parametres['tgenpath'], encoding = self.ira.syscoding)
self.tgen.read(self.tgen.path)
#self.parametres['etoiles'].sort()
- self.parametres['tgeneff'] = os.path.join(self.parametres['pathout'], 'tgeneff.csv')
+ self.parametres['tgeneff'] = os.path.join(self.parametres['pathout'], 'tgeneff.csv')
tgenst = self.corpus.make_tgen_profile(self.tgen.tgen, self.corpus.lc)
clnames = ['cluster_%03d' % i for i in range(1, len(self.cluster_size) + 1)]
- et = dict(zip(clnames, self.cluster_size))
- tgenst = dict([[line[0], dict(zip(clnames, line[1:]))] for line in tgenst])
+ et = dict(list(zip(clnames, self.cluster_size)))
+ tgenst = dict([[line[0], dict(list(zip(clnames, line[1:])))] for line in tgenst])
self.tgen.writetable(self.parametres['tgeneff'], tgenst, et)
self.parametres['tgenspec'] = os.path.join(self.parametres['pathout'], 'tgenchi2.csv')
+ self.parametres['tgenlemeff'] = os.path.join(self.parametres['pathout'], 'tgenlemeff.csv')
+ self.parametres['tgenlemspec'] = os.path.join(self.parametres['pathout'], 'tgenlemchi2.csv')
+ tgenlemeff = dict([[lem, dict(list(zip(clnames, self.corpus.tgenlem[lem])))] for lem in self.corpus.tgenlem])
+ self.tgen.writetable(self.parametres['tgenlemeff'], tgenlemeff, et)
self.Rscript = TgenProfScript(self)
self.Rscript.make_script()
self.Rscript.write()
self.doR(self.Rscript.scriptout, dlg = False, message = 'R...')
-
-
-
-
-
-
\ No newline at end of file
+
+
+class ReDoProfile(AnalyseText):
+
+ def __init__(self, ira, corpus, analyses, parametres):
+ self.ira = ira
+ self.corpus = corpus
+ self.parametres = parametres
+ self.analyse = analyse
+ self.pathout = PathOut(dirout = self.parametres['pathout'])
+ #self.cluster_size = [len(classe) for classe in corpus.lc]
+ self.doanalyse()
+
+ def Rscript(self) :
+ script = ReDoProfScript(self)
projects / iramuteq / blobdiff