Grammalecte  Check-in [78b5950c87]

    def __init__ (self, sText):
        self.sText = sText
        self.sText0 = sText
        self.sSentence = ""
        self.sSentence0 = ""
        self.nOffsetWithinParagraph = 0
        self.lTokens = []
        self.lTokens0 = []
        self.dTokenPos = {}         # {position: token}
        self.dTags = {}             # {position: tags}
        self.dError = {}            # {position: error}
        self.dSentenceError = {}    # {position: error} (for the current sentence only)
        self.dErrorPriority = {}    # {position: priority of the current error}

    def __str__ (self):

        dOpt = dOptions or gc_options.dOptions
        bShowRuleId = gc_options.dOptions.get('idrule', False)
        # parse paragraph
        try:
            self.parseText(self.sText, self.sText0, True, 0, sCountry, dOpt, bShowRuleId, bDebug, bContext)
        except:
            raise


        if bFullInfo:
            lParagraphErrors = list(self.dError.values())
            lSentences = []
            self.dSentenceError.clear()
        # parse sentences
        sText = self._getCleanText()
        for iStart, iEnd in text.getSentenceBoundaries(sText):

                        })
                        self.dSentenceError.clear()
                except:
                    raise
        if bFullInfo:
            # Grammar checking and sentence analysis
            return lParagraphErrors, lSentences

        # Grammar checking only
        return self.dError.values() # this is a view (iterable)

    def _getCleanText (self):
        sText = self.sText
        if " " in sText:
            sText = sText.replace(" ", ' ') # nbsp
        if " " in sText:
            sText = sText.replace(" ", ' ') # nnbsp

                if bUppercase:
                    sWhat = sWhat[0:1].upper() + sWhat[1:]
                self.lTokens[nTokenRewriteStart]["sNewValue"] = sWhat
            else:
                # several tokens
                lTokenValue = sWhat.split("|")
                if len(lTokenValue) != (nTokenRewriteEnd - nTokenRewriteStart + 1):
                    if bDebug:
                        echo("Error. Text processor: number of replacements != number of tokens.")
                    return
                for i, sValue in zip(range(nTokenRewriteStart, nTokenRewriteEnd+1), lTokenValue):
                    if not sValue or sValue == "*":
                        self.lTokens[i]["bToRemove"] = True
                    else:
                        if bUppercase:
                            sValue = sValue[0:1].upper() + sValue[1:]
                        self.lTokens[i]["sNewValue"] = sValue

    def rewriteFromTags (self, bDebug=False):
        "rewrite the sentence, modify tokens, purge the token list"
        if bDebug:
            echo("REWRITE")
        lNewTokens = []

        nMergeUntil = 0
        dTokenMerger = {}
        for iToken, dToken in enumerate(self.lTokens):
            bKeepToken = True
            if dToken["sType"] != "INFO":
                if nMergeUntil and iToken <= nMergeUntil:
                    # token to merge

"""
Grammar checking functions
"""

# generated code, do not edit
# template: <gc_core/py/lang_core/gc_functions.py>
# variables generated in <compile_rules.py>


import re
import traceback

from . import gc_options
from ..graphspell.echo import echo


_sAppContext = "Python"         # what software is running
_oSpellChecker = None


def load (sContext, oSpellChecker):
    "mandatory first function to call: variables initialization"
    global _sAppContext
    global _oSpellChecker
    _sAppContext = sContext
    _oSpellChecker = oSpellChecker


#### common functions

dOptions = {}

_sAppContext = "Python"


def load (sContext="Python"):
    "mandatory first function to call: variables initialization"
    global dOptions
    global _sAppContext
    _sAppContext = sContext
    dOptions = getDefaultOptions(sContext)


def setOption (sOpt, bVal):

        if not os.path.exists(spfParsingTest):
            print(f"No file <gc_test.txt> in <{spHere}>")
            return
        with open(spfParsingTest, "r", encoding="utf-8") as hSrc:
            nUnexpectedErrors = 0
            nTestWithExpectedError = 0
            nTestWithExpectedErrorAndSugg = 0
            for sLine in ( s for s in hSrc if not s.startswith("#") and s.strip() ):
                sLineNum = sLine[:10].strip()
                sLine = sLine[10:].strip()
                sOption = None
                m = zOption.search(sLine)
                if m:
                    sLine = sLine[m.end():]
                    sOption = m.group(1)

            lFoundSuggs = sFoundSuggs.split("|")
            if len(lExpectedSuggs) != len(lFoundSuggs) or set(lExpectedSuggs) != set(lFoundSuggs):
                return False
        return True


def purgeMessage (sMessage):
    "remove space after elided French words"
    for sToReplace, sReplacement in [
        ("l’ ", "l’"), ("d’ ", "d’"), ("n’ ", "n’"), ("j’ ", "j’"), ("m’ ", "m’"), ("t’ ", "t’"), ("s’ ", "s’"), ("qu’ ", "qu’"),
        ("L’ ", "L’"), ("D’ ", "D’"), ("N’ ", "N’"), ("J’ ", "J’"), ("M’ ", "M’"), ("T’ ", "T’"), ("S’ ", "S’"), ("QU’ ", "QU’")
    ]:
        sMessage = sMessage.replace(sToReplace, sReplacement)
    return sMessage

                if (conj.hasConj(sStem, sTense, sWho)) {
                    aSugg.add(conj.getConj(sStem, sTense, sWho));
                }
            }
        }
        else {
            for (let [sTense, ] of lTenses) {
                for (let [sWho2, ] of [ ...sMorph.matchAll(/:(?:[123][sp]|P|Y)/g) ]) {
                    if (conj.hasConj(sStem, sTense, sWho2)) {
                        aSugg.add(conj.getConj(sStem, sTense, sWho2));
                    }
                }
            }
        }
    }
    if (aSugg.size > 0) {
        return Array.from(aSugg).join("|");

def getNamesFrom (sVerb):
    "returns a list of names derivating from <sVerb>"
    if sVerb in _dVerbNames:
        # there are names derivated from the verb
        return list(_dVerbNames[sVerb])

    # nothing found: we suggest past participles
    tTags = _getTags(sVerb)
    if tTags:
        aSugg = [ _getConjWithTags(sVerb, tTags, ":Q", ":m:s") ]
        if _hasConjWithTags(tTags, ":Q", ":f:s"):
            aSugg.append(_getConjWithTags(sVerb, tTags, ":Q", ":f:s"))
        if _hasConjWithTags(tTags, ":Q", ":m:p"):
            aSugg.append(_getConjWithTags(sVerb, tTags, ":Q", ":m:p"))
        if _hasConjWithTags(tTags, ":Q", ":f:p"):
            aSugg.append(_getConjWithTags(sVerb, tTags, ":Q", ":f:p"))
        # if there is only one past participle (epi inv), unreliable.
        return aSugg  if len(aSugg) > 1  else []
    return []


def getConjSimilInfiV1 (sInfi):
    "returns verbal forms phonetically similar to infinitive form (for verb in group 1)"
    if sInfi not in _dVerb:
        return []
    aSugg = []

                            aTense[":Ip"] = ""
                            aTense[":Iq"] = ""
                            aTense[":Is"] = ""
                        elif m.group(1) == ":P":
                            aTense[":Ip"] = ""
                        else:
                            aTense[m.group(1)] = ""
            for sTense in aTense:
                if sWho == ":1ś" and not conj._hasConjWithTags(tTags, sTense, ":1ś"):
                    sWho = ":1s"
                if conj._hasConjWithTags(tTags, sTense, sWho):
                    dSugg[conj._getConjWithTags(sStem, tTags, sTense, sWho)] = ""
    if funcSugg2:
        sSugg2 = funcSugg2(*args)  if args  else funcSugg2(sFlex)
        if sSugg2:
            dSugg[sSugg2] = ""
    if dSugg:
        if bVC:
            return "|".join([ joinVerbAndSuffix(sSugg, sSfx)  for sSugg in dSugg ])
        return "|".join(dSugg)
    return ""


def joinVerbAndSuffix (sFlex, sSfx):
    "join <sFlex> verb with <sSfx> suffix, modifying <sFlex> to prevent irregular forms"
    if sSfx.startswith(("-t-", "-T-")) and sFlex.endswith(("t", "d", "T", "D")):
        return sFlex + sSfx[2:]
    if sFlex.endswith(("e", "a", "c", "E", "A", "C")):
        if re.match("(?i)-(?:en|y)$", sSfx):
            return sFlex + "s" + sSfx
        if re.match("(?i)-(?:ie?l|elle|on)$", sSfx):
            return sFlex + "-t" + sSfx

                    dSugg[conj._getConjWithTags(sStem, tTags, ":Q", ":m:s")] = ""
                dSugg[conj._getConjWithTags(sStem, tTags, ":Q", ":f:p")] = ""
            else:
                dSugg[conj._getConjWithTags(sStem, tTags, ":Q", ":m:s")] = ""
    if "" in dSugg:
        del dSugg[""]
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggVerbTense (sFlex, sTense, sWho):
    "change <sFlex> to a verb according to <sTense> and <sWho>"
    dSugg = {}
    for sStem in _oSpellChecker.getLemma(sFlex):
        if conj.hasConj(sStem, sTense, sWho):
            dSugg[conj.getConj(sStem, sTense, sWho)] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggVerbFrom (sStem, sFlex, sWho=""):
    "conjugate <sStem> according to <sFlex> (and eventually <sWho>)"
    dSugg = {}
    for sMorph in _oSpellChecker.getMorph(sFlex):
        lTenses = [ m.group(0)  for m in re.finditer(":(?:Y|I[pqsf]|S[pq]|K|P)", sMorph) ]
        if sWho:
            for sTense in lTenses:
                if conj.hasConj(sStem, sTense, sWho):
                    dSugg[conj.getConj(sStem, sTense, sWho)] = ""
        else:
            for sTense in lTenses:
                for sWho2 in [ m.group(0)  for m in re.finditer(":(?:[123][sp]|P|Y)", sMorph) ]:
                    if conj.hasConj(sStem, sTense, sWho2):
                        dSugg[conj.getConj(sStem, sTense, sWho2)] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggVerbImpe (sFlex, bVC=False):
    "change <sFlex> to a verb at imperative form"
    if bVC:
        sFlex, sSfx = splitVerb(sFlex)

        if tTags:
            for sTense in lMode:
                if conj._hasConjWithTags(tTags, sTense, sWho):
                    dSugg[conj._getConjWithTags(sStem, tTags, sTense, sWho)] = ""
    if sFlex in _dModeSugg:
        dSugg[_dModeSugg[sFlex]] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


## Nouns and adjectives

def suggPlur (sFlex, bSelfSugg=False):
    "returns plural forms assuming sFlex is singular"

                # We also check if the verb has a feminine form.
                # If not, we consider it’s better to not suggest the masculine one, as it can be considered invariable.
                dSugg[conj.getConj(sVerb, ":Q", ":m:s")] = ""
    if bSuggSimil:
        for e in phonet.selectSimil(sFlex, ":m:[si]"):
            dSugg[e] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggMasPlur (sFlex, bSuggSimil=False):
    "returns masculine plural forms"
    dSugg = {}
    for sMorph in _oSpellChecker.getMorph(sFlex):

                # it is necessary to filter these flexions, like “succédé” or “agi” that are not masculine plural.
                if sSugg.endswith("s"):
                    dSugg[sSugg] = ""
    if bSuggSimil:
        for e in phonet.selectSimil(sFlex, ":m:[pi]"):
            dSugg[e] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggFemSing (sFlex, bSuggSimil=False):
    "returns feminine singular forms"
    dSugg = {}
    for sMorph in _oSpellChecker.getMorph(sFlex):

            sVerb = cr.getLemmaOfMorph(sMorph)
            if conj.hasConj(sVerb, ":Q", ":f:s"):
                dSugg[conj.getConj(sVerb, ":Q", ":f:s")] = ""
    if bSuggSimil:
        for e in phonet.selectSimil(sFlex, ":f:[si]"):
            dSugg[e] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def suggFemPlur (sFlex, bSuggSimil=False):
    "returns feminine plural forms"
    dSugg = {}
    for sMorph in _oSpellChecker.getMorph(sFlex):

    lMorphSrc = _oSpellChecker.getMorph(sFlexSrc)
    if not lMorphSrc:
        return ""
    sGender, sNumber = cr.getGenderNumber(lMorphSrc)
    if sGender == ":m":
        if sNumber == ":s":
            return suggMasSing(sFlexDest)
        if sNumber == ":p":
            return suggMasPlur(sFlexDest)
        return suggMasSing(sFlexDest)
    if sGender == ":f":
        if sNumber == ":s":
            return suggFemSing(sFlexDest)
        if sNumber == ":p":
            return suggFemPlur(sFlexDest)
        return suggFemSing(sFlexDest)
    if sGender == ":e":
        if sNumber == ":s":
            return suggSing(sFlexDest)
        if sNumber == ":p":
            return suggPlur(sFlexDest)
        return sFlexDest
    return ""


def g_suggAgree (dTokenDst, dTokenSrc):
    "returns suggestions for <dTokenDst> that matches agreement with <dTokenSrc>"
    lMorphSrc = dTokenSrc["lMorph"]  if "lMorph" in dTokenSrc  else  _oSpellChecker.getMorph(dTokenSrc["sValue"])
    if not lMorphSrc:
        return ""
    sGender, sNumber = cr.getGenderNumber(lMorphSrc)
    if sGender == ":m":
        if sNumber == ":s":
            return suggMasSing(dTokenDst["sValue"])
        if sNumber == ":p":
            return suggMasPlur(dTokenDst["sValue"])
        return suggMasSing(dTokenDst["sValue"])
    if sGender == ":f":
        if sNumber == ":s":
            return suggFemSing(dTokenDst["sValue"])
        if sNumber == ":p":
            return suggFemPlur(dTokenDst["sValue"])
        return suggFemSing(dTokenDst["sValue"])
    if sGender == ":e":
        if sNumber == ":s":
            return suggSing(dTokenDst["sValue"])
        if sNumber == ":p":
            return suggPlur(dTokenDst["sValue"])
        return dTokenDst["sValue"]
    return ""


def hasFemForm (sFlex):
    "return True if there is a feminine form of <sFlex>"

    else:
        for sMorph in _oSpellChecker.getMorph(sFlex):
            if ":f" in sMorph:
                dSugg[suggMasSing(sFlex)] = ""
            elif ":m" in sMorph:
                dSugg[suggFemSing(sFlex)] = ""
    if dSugg:
        return "|".join(dSugg)
    return ""


def switchPlural (sFlex):
    "return plural or singular form(s) of <sFlex>"
    aSugg = {}
    for sMorph in _oSpellChecker.getMorph(sFlex):
        if ":s" in sMorph:
            aSugg[suggPlur(sFlex)] = ""
        elif ":p" in sMorph:
            aSugg[suggSing(sFlex)] = ""
    if aSugg:
        return "|".join(aSugg)
    return ""


def hasSimil (sWord, sPattern=None):
    "return True if there is words phonetically similar to <sWord> (according to <sPattern> if required)"
    return phonet.hasSimil(sWord, sPattern)

                        if any(re.search(sPattern, sMorph2)  for sMorph2 in _oSpellChecker.getMorph(sName)):
                            dSugg[sName] = ""
                else:
                    dSugg.update(dict.fromkeys(conj.getNamesFrom(sInfi), ""))
                break
    if dSugg:
        if bVC:
            return "|".join([ joinVerbAndSuffix(sSugg, sSfx)  for sSugg in dSugg ])
        return "|".join(dSugg)
    return ""


def suggCeOrCet (sWord):
    "suggest “ce” or “cet” or both according to the first letter of <sWord>"
    if re.match("(?i)[aeéèêiouyâîï]", sWord):
        return "cet"

    def test_isvalid_failed (self):
        for sWord in ["BranchE", "BRanche", "BRAnCHE", "émilie", "éMILIE", "émiLie", "aujourd'hui", "Aujourd'hui", ]:
            self.assertFalse(self.oSpellChecker.isValid(sWord), sWord)

    def test_suggest (self):
        for sWord in [
            "déelirranttesss", "vallidasion", "Emilie", "exibission", "ditirembique", "jai", "email",
            "fatiqué", "coeur", "trèèèèèèèèès", "vraaaaiiiimeeeeennnt", "apele", "Co2",
            "emmppâiiiller", "testt", "apelaion", "exsepttion", "sintaxik", "ebriete", "ennormmement"
        ]:
            for lSugg in self.oSpellChecker.suggest(sWord):
                self.assertTrue(len(lSugg) > 0)
            #with timeblock(sWord):
            #    aSugg = self.oSpellChecker.suggest(sWord)
            #    print(sWord, "->", " ".join(aSugg))

    def test_lemmas (self):
        for sWord, sInfi in [
            ("suis",        "suivre"),
            ("suis",        "être"),
            ("a",           "avoir"),
            ("a",           "a"),
            ("irai",        "aller"),
            ("jetez",       "jeter"),
            ("finit",       "finir"),
            ("mangé",       "manger"),
            ("oubliait",    "oublier"),
            ("arrivais",    "arriver"),
            ("venait",      "venir"),
            ("prendre",     "prendre")

        if (cStemming == "A") {
            this.funcStemming = str_transform.changeWordWithAffixCode;
        } else if (cStemming == "S") {
            this.funcStemming = str_transform.changeWordWithSuffixCode;
        } else {
            this.funcStemming = str_transform.noStemming;
        }

        // binary dictionary
        this.sByDic = "";
        this.lByDic = [];

        // build
        lWord.sort();
        if (xProgressBarNode) {
            xProgressBarNode.value = 0;
            xProgressBarNode.max = lWord.length;
        }

        }
        else if (this.sWord.slice(0,1).gl_isUpperCase()) {
            lRes = lRes.map((sSugg) => { return sSugg.slice(0,1).toUpperCase() + sSugg.slice(1); });
            lRes = [...new Set(lRes)];
        }
        return lRes.slice(0, this.nSuggLimit);
    }






}


class IBDAWG {
    // INDEXABLE BINARY DIRECT ACYCLIC WORD GRAPH

    constructor (source, sPath="") {

        # calculated later
        self.nBytesNodeAddress = 1
        self.nBytesArc = 0
        self.nBytesOffset = 0
        self.nMaxOffset = 0

        # binary dictionary
        self.byDic = b""
        self.lByDic = []

        # build
        lWord.sort()
        oProgBar = ProgressBar(0, len(lWord))
        for aEntry in lWord:
            self.insert(aEntry)
            oProgBar.increment(1)
        oProgBar.done()

    # BINARY CONVERSION
    def _calculateBinary (self):
        print(" > Write DAWG as an indexable binary dictionary")
        self.nBytesArc = ( (self.nArcVal.bit_length() + 2) // 8 ) + 1   # We add 2 bits. See DawgNode.convToBytes()
        self.nBytesOffset = 0
        self._calcNumBytesNodeAddress()
        self._calcNodesAddress()

        self.byDic = self.oRoot.convToBytes(self.nBytesArc, self.nBytesNodeAddress)
        for oNode in self.lMinimizedNodes:
            self.byDic += oNode.convToBytes(self.nBytesArc, self.nBytesNodeAddress)
        print("   Arc values (chars, affixes and tags): {}  ->  {} bytes".format( self.nArcVal, len("\t".join(self.lArcVal).encode("utf-8")) ))
        print("   Arc size: {} bytes, Address size: {} bytes   ->   {} * {} = {} bytes".format( self.nBytesArc, self.nBytesNodeAddress, \
                                                                                                self.nBytesArc+self.nBytesNodeAddress, self.nArc, \
                                                                                                (self.nBytesArc+self.nBytesNodeAddress)*self.nArc ))

        if self.sWord.isupper():
            lRes = list(OrderedDict.fromkeys(map(lambda sSugg: sSugg.upper(), lRes))) # use dict, when Python 3.6+
        elif self.sWord[0:1].isupper():
            # dont’ use <.istitle>
            lRes = list(OrderedDict.fromkeys(map(lambda sSugg: sSugg[0:1].upper()+sSugg[1:], lRes))) # use dict, when Python 3.6+
        return lRes[:self.nSuggLimit]







class IBDAWG:
    """INDEXABLE BINARY DIRECT ACYCLIC WORD GRAPH"""

    def __init__ (self, source):
        if isinstance(source, str):
            by = pkgutil.get_data(__package__, "_dictionaries/" + source)

_zPartDemForm = re.compile("([\\w]+)-(là|ci)$")
_zInterroVerb = re.compile("([\\w]+)(-(?:t-(?:ie?l|elle|on)|je|tu|ie?ls?|elles?|on|[nv]ous))$")
_zImperatifVerb = re.compile("([\\w]+)(-(?:l(?:es?|a)-(?:moi|toi|lui|[nv]ous|leur)|y|en|[mts]['’ʼ‘‛´`′‵՚ꞌꞋ](?:y|en)|les?|la|[mt]oi|leur|lui))$")

def setLabelsOnToken (dToken):
    "create an attribute “alabels” on <dToken> as a list of readable meanings"
    # Token: .sType, .sValue, .nStart, .nEnd, .lMorph
    try:
        if dToken["sType"] == "PUNC" or dToken["sType"] == "SIGN":
            dToken["aLabels"] = [ _dValues.get(dToken["sValue"], "signe de ponctuation divers") ]
        elif dToken["sType"] == 'SYMBOL':
            dToken["aLabels"] = ["symbole"]
        elif dToken["sType"] == 'EMOJI':
            dToken["aLabels"] = ["émoji"]
        elif dToken["sType"] == 'NUM':
            dToken["aLabels"] = ["nombre"]
        elif dToken["sType"] == 'LINK':

            dToken["aLabels"] = ["token de nature inconnue"]
    except:
        return


# Other functions

def filterSugg (aSuggs):
    "exclude suggestions"
    return [ sSugg  for sSugg in aSuggs  if not sSugg.endswith(("è", "È")) ]
    #return filter(lambda sSugg: not sSugg.endswith(("è", "È")), aSuggs) # return an object filter

            )
            if i and j and s1[i] == s2[j-1] and s1[i-1] == s2[j]:
                d[i, j] = min(d[i, j], d[i-2, j-2] + nCost)     # Transposition
    return d[nLen1-1, nLen2-1]


def distanceJaroWinkler (sWord1, sWord2, fBoost = .666):
    "distance of Jaro-Winkler between <sWord1> and <sWord2>, returns a float"
    # https://github.com/thsig/jaro-winkler-JS
    #if (sWord1 == sWord2): return 1.0
    nLen1 = len(sWord1)
    nLen2 = len(sWord2)
    nMax = max(nLen1, nLen2)
    aFlags1 = [ None for _ in range(nMax) ]
    aFlags2 = [ None for _ in range(nMax) ]

                    bTrans = abs(i2-i1) >= abs(t[1] - t[0])
                    if bTrans:
                        nTrans += 1
                    elif not t[2]:
                        t[2] = True
                        nTrans += 1
                    break
                if i1 > t[1] and i2 > t[0]:
                    del lOffset[i]
                else:
                    i += 1
            lOffset.append([i1, i2, bTrans])
        else:
            nLargestCS += nLocalCS
            nLocalCS = 0
            if i1 != i2:
                i1 = i2 = min(i1, i2)
            for i in range(nMaxOffset):
                if i1 + i >= nLen1 and i2 + i >= nLen2:
                    break
                if i1 + i < nLen1 and s1[i1+i] == s2[i2]:
                    i1 += i - 1
                    i2 -= 1
                    break
                if i2 + i < nLen2 and s1[i1] == s2[i2+i]:
                    i2 += i - 1
                    i1 -= 1
                    break
        i1 += 1
        i2 += 1
        if i1 >= nLen1 or i2 >= nLen2:
            nLargestCS += nLocalCS

ignore-patterns=bottle.py,gc_rules,.*_data.py

# Python code to execute, usually for sys.path manipulation such as
# pygtk.require().
#init-hook=

# Use multiple processes to speed up Pylint.
jobs=1

# List of plugins (as comma separated values of python modules names) to load,
# usually to register additional checkers.
load-plugins=

# Pickle collected data for later comparisons.
persistent=yes

        div-method,
        idiv-method,
        rdiv-method,
        exception-message-attribute,
        invalid-str-codec,
        sys-max-int,
        bad-python3-import,



        deprecated-types-field,
        missing-format-attribute,
        next-method-defined,
        dict-items-not-iterating,
        dict-keys-not-iterating,
        dict-values-not-iterating,
        deprecated-operator-function,
        deprecated-urllib-function,
        xreadlines-attribute,

        exception-escape,
        comprehension-escape,
        bad-whitespace,
        consider-using-ternary,
        line-too-long

# Enable the message, report, category or checker with the given id(s). You can
# either give multiple identifier separated by comma (,) or put this option
# multiple time (only on the command line, not in the configuration file where
# it should appear only once). See also the "--disable" option for examples.
enable=c-extension-no-member