Grammalecte  Check-in [fb9b86e9e8]

Overview
Comment:[graphspell] ibdawg: performance improvements [fr] tests [fx] tests
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SHA3-256: fb9b86e9e88e9d8d1e8b3ea816cb5321d0ca5fe8b6f7a778b4b63dca648bcf58
User & Date: olr on 2020-09-16 06:09:45
Other Links: manifest | tags
Context
2020-09-16
08:04
[fr] ajustements check-in: 00ed7d0ed7 user: olr tags: trunk, fr
06:09
[graphspell] ibdawg: performance improvements [fr] tests [fx] tests check-in: fb9b86e9e8 user: olr tags: trunk, fr, fx, graphspell
2020-09-15
17:04
[fr] update suggest tests Closed-Leaf check-in: a8c66433af user: olr tags: fr, bdic_opt
2020-09-14
07:55
[fr] ajustements check-in: cd8c458e7b user: olr tags: trunk, fr
Changes
Hide Diffs Unified Diffs Ignore Whitespace Patch

Modified gc_lang/fr/modules/tests_modules.py from [1156e862bc] to [420f61228e].

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def timeblock (label, hDst=None):
    "performance counter (contextmanager)"
    start = time.perf_counter()
    try:
        yield
    finally:
        end = time.perf_counter()
        print('{} : {}'.format(label, end - start))
        if hDst:
            hDst.write("{:<12.6}".format(end-start))


class TestDictionary (unittest.TestCase):
    "Test du correcteur orthographique"









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def timeblock (label, hDst=None):
    "performance counter (contextmanager)"
    start = time.perf_counter()
    try:
        yield
    finally:
        end = time.perf_counter()
        print('{:<20} : {}'.format(label, end - start))
        if hDst:
            hDst.write("{:<12.6}".format(end-start))


class TestDictionary (unittest.TestCase):
    "Test du correcteur orthographique"
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            self.assertTrue(self.oDic.isValid(sWord), sWord)

    def test_isvalid_failed (self):
        for sWord in ["BranchE", "BRanche", "BRAnCHE", "émilie", "éMILIE", "émiLie"]:
            self.assertFalse(self.oDic.isValid(sWord), sWord)

    def test_suggest (self):

        for sWord in ["déelirranttesss", "vallidasion", "Emilie", "exibission"]:



            with timeblock(sWord):
                self.assertNotEqual(0, self.oDic.suggest(sWord))



class TestConjugation (unittest.TestCase):
    "Tests des conjugaisons"

    @classmethod
    def setUpClass (cls):








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            self.assertTrue(self.oDic.isValid(sWord), sWord)

    def test_isvalid_failed (self):
        for sWord in ["BranchE", "BRanche", "BRAnCHE", "émilie", "éMILIE", "émiLie"]:
            self.assertFalse(self.oDic.isValid(sWord), sWord)

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


class TestConjugation (unittest.TestCase):
    "Tests des conjugaisons"

    @classmethod
    def setUpClass (cls):
︙︙

Modified gc_lang/fr/perf_memo.text from [6a0d81df00] to [ad156793c1].

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0.6.2       2018.02.19 19:06    5.51302     1.29359     0.874157    0.260415    0.271596    0.290641    0.684754    0.376905    0.0815201   0.00919633  (spelling normalization)
1.0         2018.11.23 10:59    2.88577     0.702486    0.485648    0.139897    0.14079     0.148125    0.348751    0.201061    0.0360297   0.0043535   (x2, with new GC engine)
1.1         2019.05.16 09:42    1.50743     0.360923    0.261113    0.0749272   0.0763827   0.0771537   0.180504    0.102942    0.0182762   0.0021925   (×2, but new processor: AMD Ryzen 7 2700X)
1.2.1       2019.08.06 20:57    1.42886     0.358425    0.247356    0.0704405   0.0754886   0.0765604   0.177197    0.0988517   0.0188103   0.0020243
1.6.0       2020.01.03 20:22    1.38847     0.346214    0.240242    0.0709539   0.0737499   0.0748733   0.176477    0.0969171   0.0187857   0.0025143   (nouveau dictionnaire avec lemmes masculins)
1.9.0       2020.04.20 19:57    1.51183     0.369546    0.25681     0.0734314   0.0764396   0.0785668   0.183922    0.103674    0.0185812   0.002099    (NFC normalization)
1.9.2       2020.05.12 08:43    1.62465     0.398831    0.273012    0.0810811   0.080937    0.0845885   0.204133    0.114146    0.0212864   0.0029547
1.12.2      2020.09.09 13:34    1.50568     0.374504    0.233108    0.0798712   0.0804466   0.0769674   0.171519    0.0945132   0.0165344   0.0019474   
1.12.2      2020.09.09 13:35    1.41094     0.359093    0.236443    0.06968     0.0734418   0.0738087   0.169371    0.0946279   0.0167106   0.0019773   









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0.6.2       2018.02.19 19:06    5.51302     1.29359     0.874157    0.260415    0.271596    0.290641    0.684754    0.376905    0.0815201   0.00919633  (spelling normalization)
1.0         2018.11.23 10:59    2.88577     0.702486    0.485648    0.139897    0.14079     0.148125    0.348751    0.201061    0.0360297   0.0043535   (x2, with new GC engine)
1.1         2019.05.16 09:42    1.50743     0.360923    0.261113    0.0749272   0.0763827   0.0771537   0.180504    0.102942    0.0182762   0.0021925   (×2, but new processor: AMD Ryzen 7 2700X)
1.2.1       2019.08.06 20:57    1.42886     0.358425    0.247356    0.0704405   0.0754886   0.0765604   0.177197    0.0988517   0.0188103   0.0020243
1.6.0       2020.01.03 20:22    1.38847     0.346214    0.240242    0.0709539   0.0737499   0.0748733   0.176477    0.0969171   0.0187857   0.0025143   (nouveau dictionnaire avec lemmes masculins)
1.9.0       2020.04.20 19:57    1.51183     0.369546    0.25681     0.0734314   0.0764396   0.0785668   0.183922    0.103674    0.0185812   0.002099    (NFC normalization)
1.9.2       2020.05.12 08:43    1.62465     0.398831    0.273012    0.0810811   0.080937    0.0845885   0.204133    0.114146    0.0212864   0.0029547
1.12.2      2020.09.09 13:34    1.50568     0.374504    0.233108    0.0798712   0.0804466   0.0769674   0.171519    0.0945132   0.0165344   0.0019474
1.12.2      2020.09.09 13:35    1.41094     0.359093    0.236443    0.06968     0.0734418   0.0738087   0.169371    0.0946279   0.0167106   0.0019773
1.12.2      2020.09.11 19:16    1.35297     0.330545    0.221731    0.0666998   0.0692539   0.0701707   0.160564    0.0891676   0.015807    0.0045998

Modified gc_lang/fr/webext/gce_worker.js from [c94d68b34b] to [2672ecfd48].

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function resetOptions (oInfo={}) {
    gc_engine.resetOptions();
    let dOptions = helpers.mapToObject(gc_engine.getOptions());
    postMessage(createResponse("resetOptions", dOptions, oInfo, true));
}

function tests () {
    console.log(conj.getConj("devenir", ":E", ":2s"));
    console.log(mfsp.getMasForm("emmerdeuse", true));
    console.log(mfsp.getMasForm("pointilleuse", false));
    console.log(phonet.getSimil("est"));
    let aRes = gc_engine.parse("Je suit...");
    for (let oErr of aRes) {
        console.log(text.getReadableError(oErr));









    }
}

function textToTest (sText, sCountry, bDebug, bContext, oInfo={}) {
    if (!gc_engine) {
        postMessage(createResponse("textToTest", "# Grammar checker not loaded.", oInfo, true));
        return;








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function resetOptions (oInfo={}) {
    gc_engine.resetOptions();
    let dOptions = helpers.mapToObject(gc_engine.getOptions());
    postMessage(createResponse("resetOptions", dOptions, oInfo, true));
}

function tests () {
    /*console.log(conj.getConj("devenir", ":E", ":2s"));
    console.log(mfsp.getMasForm("emmerdeuse", true));
    console.log(mfsp.getMasForm("pointilleuse", false));
    console.log(phonet.getSimil("est"));
    let aRes = gc_engine.parse("Je suit...");
    for (let oErr of aRes) {
        console.log(text.getReadableError(oErr));
    }*/
    for (let sWord of ["fatiqué", "coeur", "trèèèèèèèèès", "vraaaaiiiimeeeeennnt", "apele", "email", "Co2", "emmppâiiiller", "testt", "apelaion", "exsepttion", "sintaxik", "ebriete", "ennormmement"]) {
        console.time("Suggestions for " + sWord);
        for (let aSugg of oSpellChecker.suggest(sWord)) {
            if (aSugg.length) {
                console.log(sWord + " -> ", aSugg.join(" "));
            }
        }
        console.timeEnd("Suggestions for " + sWord);
    }
}

function textToTest (sText, sCountry, bDebug, bContext, oInfo={}) {
    if (!gc_engine) {
        postMessage(createResponse("textToTest", "# Grammar checker not loaded.", oInfo, true));
        return;
︙︙

Modified graphspell-js/char_player.js from [0602ec129b] to [dab3d08473]. 

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// list of similar chars
// useful for suggestion mechanism

/* jshint esversion:6 */
/* jslint esversion:6 */

${map}


var char_player = {





    oDistanceBetweenChars: {
        "a": {},
        "e": {"é": 0.5},
        "é": {"e": 0.5},
        "i": {"y": 0.2},
        "o": {},
        "u": {},
        "y": {"i": 0.3},
        "b": {"d": 0.8, "h": 0.9},
        "c": {"ç": 0.1, "k": 0.5, "q": 0.5, "s": 0.5, "x": 0.5, "z": 0.8},
        "d": {"b": 0.8},
        "f": {"v": 0.8},
        "g": {"j": 0.5},
        "h": {"b": 0.9},
        "j": {"g": 0.5, "i": 0.9},
        "k": {"c": 0.5, "q": 0.1, "x": 0.5},
        "l": {"i": 0.9},
        "m": {"n": 0.8},
        "n": {"m": 0.8, "r": 0.9},
        "p": {"q": 0.9},
        "q": {"c": 0.5, "k": 0.1, "p": 0.9},
        "r": {"n": 0.9, "j": 0.9},
        "s": {"c": 0.5, "ç": 0.1, "x": 0.5, "z": 0.5},
        "t": {"d": 0.9},
        "v": {"f": 0.8, "w": 0.1},
        "w": {"v": 0.1},
        "x": {"c": 0.5, "k": 0.5, "q": 0.5, "s": 0.5},
        "z": {"s": 0.5}
    },

    distanceBetweenChars: function (c1, c2) {
        if (c1 == c2) {
            return 0;
        }
        if (this.oDistanceBetweenChars.hasOwnProperty(c1) && this.oDistanceBetweenChars[c1].hasOwnProperty(c2)) {











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// list of similar chars
// useful for suggestion mechanism

/* jshint esversion:6 */
/* jslint esversion:6 */

${map}


var char_player = {
    /*
        oDistanceBetweenChars:
            - with Jaro-Winkler, values between 1 and 10
            - with Damerau-Levenshtein, values / 10 (between 0 and 1: 0.1, 0.2 ... 0.9)
    */
    oDistanceBetweenChars: {
        //"a": {},
        "e": {"é": 5},
        //"é": {"e": 5},
        "i": {"y": 2},
        //"o": {},
        //"u": {},
        "y": {"i": 3},
        "b": {"d": 8, "h": 9},
        "c": {"ç": 1, "k": 5, "q": 5, "s": 5, "x": 5, "z": 8},
        "d": {"b": 8},
        "f": {"v": 8},
        "g": {"j": 5},
        "h": {"b": 9},
        "j": {"g": 5, "i": 9},
        "k": {"c": 5, "q": 1, "x": 5},
        "l": {"i": 9},
        "m": {"n": 8},
        "n": {"m": 8, "r": 9},
        "p": {"q": 9},
        "q": {"c": 5, "k": 1, "p": 9},
        "r": {"n": 9, "j": 9},
        "s": {"c": 5, "ç": 1, "x": 5, "z": 5},
        "t": {"d": 9},
        "v": {"f": 8, "w": 1},
        "w": {"v": 1},
        "x": {"c": 5, "k": 5, "q": 5, "s": 5},
        "z": {"s": 5}
    },

    distanceBetweenChars: function (c1, c2) {
        if (c1 == c2) {
            return 0;
        }
        if (this.oDistanceBetweenChars.hasOwnProperty(c1) && this.oDistanceBetweenChars[c1].hasOwnProperty(c2)) {
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        ["UN", ["EIN",]],
    ]),

    // End of word
    dFinal1: new Map([
        ["a", ["as", "at", "ant", "ah"]],
        ["A", ["AS", "AT", "ANT", "AH"]],
        ["c", ["ch",]],
        ["C", ["CH",]],
        ["e", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait", "ent", "eh"]],
        ["E", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT", "ENT", "EH"]],
        ["é", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["É", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["è", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["È", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["ê", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["Ê", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["ë", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["Ë", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["g", ["gh",]],
        ["G", ["GH",]],
        ["i", ["is", "it", "ie", "in"]],
        ["I", ["IS", "IT", "IE", "IN"]],


        ["n", ["nt", "nd", "ns", "nh"]],
        ["N", ["NT", "ND", "NS", "NH"]],
        ["o", ["aut", "ot", "os"]],
        ["O", ["AUT", "OT", "OS"]],
        ["ô", ["aut", "ot", "os"]],
        ["Ô", ["AUT", "OT", "OS"]],
        ["ö", ["aut", "ot", "os"]],








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        ["UN", ["EIN",]],
    ]),

    // End of word
    dFinal1: new Map([
        ["a", ["as", "at", "ant", "ah"]],
        ["A", ["AS", "AT", "ANT", "AH"]],
        ["c", ["ch", "que"]],
        ["C", ["CH", "QUE"]],
        ["e", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait", "ent", "eh"]],
        ["E", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT", "ENT", "EH"]],
        ["é", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["É", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["è", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["È", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["ê", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["Ê", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["ë", ["et", "er", "ets", "ée", "ez", "ai", "ais", "ait"]],
        ["Ë", ["ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"]],
        ["g", ["gh",]],
        ["G", ["GH",]],
        ["i", ["is", "it", "ie", "in"]],
        ["I", ["IS", "IT", "IE", "IN"]],
        ["k", ["que"]],
        ["K", ["QUE"]],
        ["n", ["nt", "nd", "ns", "nh"]],
        ["N", ["NT", "ND", "NS", "NH"]],
        ["o", ["aut", "ot", "os"]],
        ["O", ["AUT", "OT", "OS"]],
        ["ô", ["aut", "ot", "os"]],
        ["Ô", ["AUT", "OT", "OS"]],
        ["ö", ["aut", "ot", "os"]],
︙︙

Modified graphspell-js/ibdawg.js from [69d7490b82] to [fa91a09215].

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    var char_player = require("./char_player.js");
}


class SuggResult {
    // Structure for storing, classifying and filtering suggestions

    constructor (sWord, nDistLimit=-1) {
        this.sWord = sWord;
        this.sSimplifiedWord = str_transform.simplifyWord(sWord);
        this.nDistLimit = (nDistLimit >= 0) ? nDistLimit :  Math.floor(sWord.length / 3) + 1;
        this.nMinDist = 1000;

        this.aSugg = new Set();
        this.dSugg = new Map([ [0, []],  [1, []],  [2, []] ]);
        this.aAllSugg = new Set();      // all found words even those refused





    }

    addSugg (sSugg, nDeep=0) {
        // add a suggestion
        if (this.aAllSugg.has(sSugg)) {
            return;
        }
        this.aAllSugg.add(sSugg);
        if (!this.aSugg.has(sSugg)) {

            let nDist = Math.floor(str_transform.distanceDamerauLevenshtein(this.sSimplifiedWord, str_transform.simplifyWord(sSugg)));
            if (nDist <= this.nDistLimit) {
                if (sSugg.includes(" ")) { // add 1 to distance for split suggestions
                    nDist += 1;


                }
                if (!this.dSugg.has(nDist)) {
                    this.dSugg.set(nDist, []);


                }
                this.dSugg.get(nDist).push(sSugg);
                this.aSugg.add(sSugg);

                if (nDist < this.nMinDist) {
                    this.nMinDist = nDist;
                }
                this.nDistLimit = Math.min(this.nDistLimit, this.nMinDist+1);
            }





        }
    }

    getSuggestions (nSuggLimit=10) {
        // return a list of suggestions
        let lRes = [];

        let bFirstListSorted = false;
        for (let [nDist, lSugg] of this.dSugg.entries()) {
            if (nDist > this.nDistLimit) {
                break;


            }

            if (!bFirstListSorted && lSugg.length > 1) {



                lRes.sort((a, b) => { return str_transform.distanceDamerauLevenshtein(this.sWord, a) - str_transform.distanceDamerauLevenshtein(this.sWord, b); });
                bFirstListSorted = true;





            }



            lRes.push(...lSugg);
            if (lRes.length > nSuggLimit) {
                break;
            }
        }

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

    reset () {
        this.aSugg.clear();
        this.dSugg.clear();

    }
}


class IBDAWG {
    // INDEXABLE BINARY DIRECT ACYCLIC WORD GRAPH









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    var char_player = require("./char_player.js");
}


class SuggResult {
    // Structure for storing, classifying and filtering suggestions

    constructor (sWord, nSuggLimit=10, nDistLimit=-1) {
        this.sWord = sWord;
        this.sSimplifiedWord = str_transform.simplifyWord(sWord);
        this.nDistLimit = (nDistLimit >= 0) ? nDistLimit :  Math.floor(sWord.length / 3) + 1;
        this.nMinDist = 1000;
        // Temporary sets
        this.aAllSugg = new Set();  // All suggestions, even the one rejected
        this.dGoodSugg = new Map(); // Acceptable suggestions
        this.dBestSugg = new Map(); // Best suggestions
        // Parameters
        this.nSuggLimit = nSuggLimit;
        this.nSuggLimitExt = nSuggLimit + 2;                // we add few entries in case suggestions merge after casing modifications
        this.nBestSuggLimit = Math.floor(nSuggLimit * 1.5); // n times the requested limit
        this.nGoodSuggLimit = nSuggLimit * 15;              // n times the requested limit
    }

    addSugg (sSugg) {
        // add a suggestion
        if (this.aAllSugg.has(sSugg)) {
            return;
        }
        this.aAllSugg.add(sSugg);

        // jaro 0->1 1 les chaines sont égale
        let nDistJaro = 1 - str_transform.distanceJaroWinkler(this.sSimplifiedWord, str_transform.simplifyWord(sSugg));
        let nDist = Math.floor(nDistJaro * 10);
        if (nDistJaro < .11) {        // Best suggestions
            this.dBestSugg.set(sSugg, Math.round(nDistJaro*1000));
            if (this.dBestSugg.size > this.nBestSuggLimit) {
                this.nDistLimit = -1; // make suggest() to end search
            }
        } else if (nDistJaro < .33) { // Good suggestions
            this.dGoodSugg.set(sSugg, Math.round(nDistJaro*1000));
            if (this.dGoodSugg.size > this.nGoodSuggLimit) {
                this.nDistLimit = -1; // make suggest() to end search
            }


        } else {
            if (nDist < this.nMinDist) {
                this.nMinDist = nDist;
            }
            this.nDistLimit = Math.min(this.nDistLimit, this.nMinDist);
        }
        if (nDist <= this.nDistLimit) {
            if (nDist < this.nMinDist) {
                this.nMinDist = nDist;
            }
            this.nDistLimit = Math.min(this.nDistLimit, this.nMinDist+1);
        }
    }

    getSuggestions () {
        // return a list of suggestions
        let lRes = [];
        if (this.dBestSugg.size > 0) {
            // sort only with simplified words
            let lResTmp = [...this.dBestSugg.entries()].sort((a, b) => { return a[1] - b[1]; });
            let nSize = Math.min(this.nSuggLimitExt, lResTmp.length);

            for (let i=0;  i < nSize;  i++){
                lRes.push(lResTmp[i][0]);
            }
        }
        if (lRes.length < this.nSuggLimitExt) {
            // sort with simplified words and original word
            let lResTmp = [...this.dGoodSugg.entries()].sort((a, b) => {
                // Low precision to rely more on simplified words
                let nJaroA = Math.round(str_transform.distanceJaroWinkler(this.sWord, a[0]) * 10);

                let nJaroB = Math.round(str_transform.distanceJaroWinkler(this.sWord, b[0]) * 10);
                if (nJaroA == nJaroB) {
                    return a[1] - b[1];     // warning: both lists are NOT sorted the same way (key: a-b)
                } else {
                    return nJaroB - nJaroA; // warning: both lists are NOT sorted the same way (key: b-a)
                }
            }).slice(0, this.nSuggLimitExt);
            let nSize = Math.min(this.nSuggLimitExt, lResTmp.length);
            for (let i=0;  i < nSize;  i++){
                lRes.push(lResTmp[i][0]);


            }
        }
        // casing
        if (this.sWord.gl_isUpperCase()) {
            lRes = lRes.map((sSugg) => { return sSugg.toUpperCase(); });
            lRes = [...new Set(lRes)];
        }
        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);
    }

    reset () {
        this.dSugg.clear();
        this.dGoodSugg.clear();
        this.dBestSugg.clear();
    }
}


class IBDAWG {
    // INDEXABLE BINARY DIRECT ACYCLIC WORD GRAPH
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        }
        /*
            Properties:
            sName, nCompressionMethod, sHeader, lArcVal, nArcVal, sByDic, sLang, nChar, nBytesArc, nBytesNodeAddress,
            nEntry, nNode, nArc, nAff, cStemming, nTag, dChar, nBytesOffset,
        */

        /*
            Bug workaround.
            Mozilla’s JS parser sucks. Can’t read file bigger than 4 Mb!
            So we convert huge hexadecimal string to list of numbers…
            https://github.com/mozilla/addons-linter/issues/1361
        */
        let lTemp = [];
        for (let i = 0;  i < this.sByDic.length;  i+=2) {
            lTemp.push(parseInt(this.sByDic.slice(i, i+2), 16));
        }
        this.byDic = lTemp;
        //this.byDic = new Uint8Array(lTemp);  // not quicker, even slower
        /* end of bug workaround */

        if (!(this.sHeader.startsWith("/grammalecte-fsa/") || this.sHeader.startsWith("/pyfsa/"))) {
            throw TypeError("# Error. Not a grammalecte-fsa binary dictionary. Header: " + this.sHeader);
        }
        if (!(this.nCompressionMethod == 1 || this.nCompressionMethod == 2 || this.nCompressionMethod == 3)) {
            throw RangeError("# Error. Unknown dictionary compression method: " + this.nCompressionMethod);
        }
        // <dChar> to get the value of an arc, <dCharVal> to get the char of an arc with its value
        this.dChar = helpers.objectToMap(this.dChar);
        this.dCharVal = this.dChar.gl_reverse();
        this.a2grams = (this.l2grams) ? new Set(this.l2grams) : null;

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













        this._arcMask = (2 ** ((this.nBytesArc * 8) - 3)) - 1;

        this._finalNodeMask = 1 << ((this.nBytesArc * 8) - 1);


        this._lastArcMask = 1 << ((this.nBytesArc * 8) - 2);








        // Configuring DAWG functions according to nCompressionMethod
        switch (this.nCompressionMethod) {
            case 1:
                this.morph = this._morph1;

                this.stem = this._stem1;

                this._lookupArcNode = this._lookupArcNode1;
                this._getArcs = this._getArcs1;
                this._writeNodes = this._writeNodes1;
                break;
            case 2:
                this.morph = this._morph2;
                this.stem = this._stem2;
                this._lookupArcNode = this._lookupArcNode2;
                this._getArcs = this._getArcs2;
                this._writeNodes = this._writeNodes2;
                break;
            case 3:
                this.morph = this._morph3;
                this.stem = this._stem3;
                this._lookupArcNode = this._lookupArcNode3;
                this._getArcs = this._getArcs3;
                this._writeNodes = this._writeNodes3;
                break;
            default:
                throw ValueError("# Error: unknown code: " + this.nCompressionMethod);
        }
        //console.log(this.getInfo());
        this.bAcronymValid = true;
        this.bNumAtLastValid = false;

        // lexicographer module ?
        this.lexicographer = null;
        // JS still sucks: we’ll try importation when importation will be available in Workers. Still waiting...
        if (self && self.hasOwnProperty("lexgraph_"+this.sLangCode)) { // self is the Worker
            this.lexicographer = self["lexgraph_"+this.sLangCode];
        }

    }

    getInfo () {
        return  `  Language: ${this.sLangName}   Lang code: ${this.sLangCode}   Dictionary name: ${this.sDicName}\n` +
                `  Compression method: ${this.nCompressionMethod}   Date: ${this.sDate}   Stemming: ${this.cStemming}FX\n` +
                `  Arcs values:  ${this.nArcVal} = ${this.nChar} characters,  ${this.nAff} affixes,  ${this.nTag} tags\n` +
                `  Dictionary: ${this.nEntry} entries,    ${this.nNode} nodes,   ${this.nArc} arcs\n` +








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        }
        /*
            Properties:
            sName, nCompressionMethod, sHeader, lArcVal, nArcVal, sByDic, sLang, nChar, nBytesArc, nBytesNodeAddress,
            nEntry, nNode, nArc, nAff, cStemming, nTag, dChar, nBytesOffset,
        */















        if (!(this.sHeader.startsWith("/grammalecte-fsa/") || this.sHeader.startsWith("/pyfsa/"))) {
            throw TypeError("# Error. Not a grammalecte-fsa binary dictionary. Header: " + this.sHeader);
        }
        if (!(this.nCompressionMethod == 1 || this.nCompressionMethod == 2 || this.nCompressionMethod == 3)) {
            throw RangeError("# Error. Unknown dictionary compression method: " + this.nCompressionMethod);
        }
        // <dChar> to get the value of an arc, <dCharVal> to get the char of an arc with its value
        this.dChar = helpers.objectToMap(this.dChar);
        this.dCharVal = this.dChar.gl_reverse();
        this.a2grams = (this.l2grams) ? new Set(this.l2grams) : null;

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

        /*
            Bug workaround.
            Mozilla’s JS parser sucks. Can’t read file bigger than 4 Mb!
            So we convert huge hexadecimal string to list of numbers…
            https://github.com/mozilla/addons-linter/issues/1361
        */
        /*
            Performance trick:
            Instead of converting bytes to integers each times we parse the binary dictionary,
            we do it once, then parse the array
        */
        let nAcc = 0;
        let lBytesBuffer = [];
        let lTemp = [];
        let nDivisor = (this.nBytesArc + this.nBytesNodeAddress) / 2;
        for (let i = 0;  i < this.sByDic.length;  i+=2) {
            lBytesBuffer.push(parseInt(this.sByDic.slice(i, i+2), 16));
            if (nAcc == (this.nBytesArc - 1)) {
                lTemp.push(this._convBytesToInteger(lBytesBuffer));
                lBytesBuffer = [];
            }
            else if (nAcc == (this.nBytesArc + this.nBytesNodeAddress - 1)) {
                lTemp.push(Math.round(this._convBytesToInteger(lBytesBuffer) / nDivisor));  // Math.round should be useless, BUT with JS who knowns what can happen…
                lBytesBuffer = [];
                nAcc = -1;
            }


            nAcc = nAcc + 1;

        }
        this.byDic = lTemp;
        /* end of bug workaround */





        this._arcMask = (2 ** ((this.nBytesArc * 8) - 3)) - 1;
        this._finalNodeMask = 1 << ((this.nBytesArc * 8) - 1);
        this._lastArcMask = 1 << ((this.nBytesArc * 8) - 2);













        //console.log(this.getInfo());
        this.bAcronymValid = true;
        this.bNumAtLastValid = false;

        // lexicographer module ?
        this.lexicographer = null;
        // JS still sucks: we’ll try importation when importation will be available in Workers. Still waiting...
        if (self && self.hasOwnProperty("lexgraph_"+this.sLangCode)) { // self is the Worker
            this.lexicographer = self["lexgraph_"+this.sLangCode];
        }

    }

    getInfo () {
        return  `  Language: ${this.sLangName}   Lang code: ${this.sLangCode}   Dictionary name: ${this.sDicName}\n` +
                `  Compression method: ${this.nCompressionMethod}   Date: ${this.sDate}   Stemming: ${this.cStemming}FX\n` +
                `  Arcs values:  ${this.nArcVal} = ${this.nChar} characters,  ${this.nAff} affixes,  ${this.nTag} tags\n` +
                `  Dictionary: ${this.nEntry} entries,    ${this.nNode} nodes,   ${this.nArc} arcs\n` +
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                return false;
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return false;
            }
        }
        return Boolean(this._convBytesToInteger(this.byDic.slice(iAddr, iAddr+this.nBytesArc)) & this._finalNodeMask);
    }

    getMorph (sWord) {
        // retrieves morphologies list, different casing allowed
        if (!sWord) {
            return [];
        }
        sWord = str_transform.spellingNormalization(sWord);
        let l = this.morph(sWord);
        if (sWord[0].gl_isUpperCase()) {
            l.push(...this.morph(sWord.toLowerCase()));
            if (sWord.gl_isUpperCase() && sWord.length > 1) {
                l.push(...this.morph(sWord.gl_toCapitalize()));
            }
        }
        return l;
    }

    suggest (sWord, nSuggLimit=10, bSplitTrailingNumbers=false) {
        // returns a array of suggestions for <sWord>
        //console.time("Suggestions for " + sWord);
        sWord = str_transform.spellingNormalization(sWord);
        let sPfx = "";
        let sSfx = "";
        if (this.lexicographer) {
            [sPfx, sWord, sSfx] = this.lexicographer.split(sWord);
        }
        let nMaxSwitch = Math.max(Math.floor(sWord.length / 3), 1);
        let nMaxDel = Math.floor(sWord.length / 5);
        let nMaxHardRepl = Math.max(Math.floor((sWord.length - 5) / 4), 1);
        let nMaxJump = Math.max(Math.floor(sWord.length / 4), 1);
        let oSuggResult = new SuggResult(sWord);

        if (bSplitTrailingNumbers) {
            this._splitTrailingNumbers(oSuggResult, sWord);
        }
        this._splitSuggest(oSuggResult, sWord);
        this._suggest(oSuggResult, sWord, nMaxSwitch, nMaxDel, nMaxHardRepl, nMaxJump);
        let aSugg = oSuggResult.getSuggestions(nSuggLimit);
        if (this.lexicographer) {
            aSugg = this.lexicographer.filterSugg(aSugg);
        }
        if (sSfx || sPfx) {
            // we add what we removed
            return aSugg.map( (sSugg) => { return sPfx + sSugg + sSfx; } );
        }








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                return false;
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return false;
            }
        }
        return Boolean(this.byDic[iAddr] & this._finalNodeMask);
    }

    getMorph (sWord) {
        // retrieves morphologies list, different casing allowed
        if (!sWord) {
            return [];
        }
        sWord = str_transform.spellingNormalization(sWord);
        let l = this._morph(sWord);
        if (sWord[0].gl_isUpperCase()) {
            l.push(...this._morph(sWord.toLowerCase()));
            if (sWord.gl_isUpperCase() && sWord.length > 1) {
                l.push(...this._morph(sWord.gl_toCapitalize()));
            }
        }
        return l;
    }

    suggest (sWord, nSuggLimit=10, bSplitTrailingNumbers=false) {
        // returns a array of suggestions for <sWord>
        //console.time("Suggestions for " + sWord);
        sWord = str_transform.spellingNormalization(sWord);
        let sPfx = "";
        let sSfx = "";
        if (this.lexicographer) {
            [sPfx, sWord, sSfx] = this.lexicographer.split(sWord);
        }
        let nMaxSwitch = Math.max(Math.floor(sWord.length / 3), 1);
        let nMaxDel = Math.floor(sWord.length / 5);
        let nMaxHardRepl = Math.max(Math.floor((sWord.length - 5) / 4), 1);
        let nMaxJump = Math.max(Math.floor(sWord.length / 4), 1);
        let oSuggResult = new SuggResult(sWord, nSuggLimit);
        sWord = str_transform.cleanWord(sWord);
        if (bSplitTrailingNumbers) {
            this._splitTrailingNumbers(oSuggResult, sWord);
        }
        this._splitSuggest(oSuggResult, sWord);
        this._suggest(oSuggResult, sWord, nMaxSwitch, nMaxDel, nMaxHardRepl, nMaxJump);
        let aSugg = oSuggResult.getSuggestions();
        if (this.lexicographer) {
            aSugg = this.lexicographer.filterSugg(aSugg);
        }
        if (sSfx || sPfx) {
            // we add what we removed
            return aSugg.map( (sSugg) => { return sPfx + sSugg + sSfx; } );
        }
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            }
        }
    }

    _suggest (oSuggResult, sRemain, nMaxSwitch=0, nMaxDel=0, nMaxHardRepl=0, nMaxJump=0, nDist=0, nDeep=0, iAddr=0, sNewWord="", bAvoidLoop=false) {
        // returns a set of suggestions
        // recursive function
        if (this._convBytesToInteger(this.byDic.slice(iAddr, iAddr+this.nBytesArc)) & this._finalNodeMask) {
            if (sRemain == "") {
                oSuggResult.addSugg(sNewWord);
                for (let sTail of this._getTails(iAddr)) {
                    oSuggResult.addSugg(sNewWord+sTail);
                }
                return;
            }








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            }
        }
    }

    _suggest (oSuggResult, sRemain, nMaxSwitch=0, nMaxDel=0, nMaxHardRepl=0, nMaxJump=0, nDist=0, nDeep=0, iAddr=0, sNewWord="", bAvoidLoop=false) {
        // returns a set of suggestions
        // recursive function
        if (this.byDic[iAddr] & this._finalNodeMask) {
            if (sRemain == "") {
                oSuggResult.addSugg(sNewWord);
                for (let sTail of this._getTails(iAddr)) {
                    oSuggResult.addSugg(sNewWord+sTail);
                }
                return;
            }
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    }

    _getTails (iAddr, sTail="", n=2) {
        // return a list of suffixes ending at a distance of <n> from <iAddr>
        let aTails = new Set();
        for (let [nVal, jAddr] of this._getArcs(iAddr)) {
            if (nVal <= this.nChar) {
                if (this._convBytesToInteger(this.byDic.slice(jAddr, jAddr+this.nBytesArc)) & this._finalNodeMask) {
                    aTails.add(sTail + this.dCharVal.get(nVal));
                }
                if (n && aTails.size == 0) {
                    aTails.gl_update(this._getTails(jAddr, sTail+this.dCharVal.get(nVal), n-1));
                }
            }
        }
        return aTails;
    }

    // morph (sWord) {
    //     is defined in constructor
    // }

    getSimilarEntries (sWord, nSuggLimit=10) {
        // return a list of tuples (similar word, stem, morphology)
        if (sWord == "") {
            return [];
        }
        let lResult = [];
        for (let sSimilar of this.suggest(sWord, nSuggLimit)) {








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    }

    _getTails (iAddr, sTail="", n=2) {
        // return a list of suffixes ending at a distance of <n> from <iAddr>
        let aTails = new Set();
        for (let [nVal, jAddr] of this._getArcs(iAddr)) {
            if (nVal <= this.nChar) {
                if (this.byDic[jAddr] & this._finalNodeMask) {
                    aTails.add(sTail + this.dCharVal.get(nVal));
                }
                if (n && aTails.size == 0) {
                    aTails.gl_update(this._getTails(jAddr, sTail+this.dCharVal.get(nVal), n-1));
                }
            }
        }
        return aTails;
    }





    getSimilarEntries (sWord, nSuggLimit=10) {
        // return a list of tuples (similar word, stem, morphology)
        if (sWord == "") {
            return [];
        }
        let lResult = [];
        for (let sSimilar of this.suggest(sWord, nSuggLimit)) {
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            zFlexPattern = (sFlexPattern !== "") ? new RegExp(sFlexPattern) : null;
            zTagsPattern = (sTagsPattern !== "") ? new RegExp(sTagsPattern) : null;
        }
        catch (e) {
            console.log("Error in regex pattern");
            console.log(e.message);
        }
        yield* this._select1(zFlexPattern, zTagsPattern, 0, "");
    }

    // VERSION 1

    * _select1 (zFlexPattern, zTagsPattern, iAddr, sWord) {
        // recursive generator
        for (let [nVal, jAddr] of this._getArcs1(iAddr)) {
            if (nVal <= this.nChar) {
                // simple character
                yield* this._select1(zFlexPattern, zTagsPattern, jAddr, sWord + this.lArcVal[nVal]);
            } else {
                if (!zFlexPattern || zFlexPattern.test(sWord)) {
                    let sStem = this.funcStemming(sWord, this.lArcVal[nVal]);
                    for (let [nMorphVal, _] of this._getArcs1(jAddr)) {
                        if (!zTagsPattern || zTagsPattern.test(this.lArcVal[nMorphVal])) {
                            yield [sWord, sStem, this.lArcVal[nMorphVal]];
                        }
                    }
                }
            }
        }
    }

    _morph1 (sWord) {
        // returns morphologies of sWord
        let iAddr = 0;
        for (let c of sWord) {
            if (!this.dChar.has(c)) {
                return [];
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return [];
            }
        }
        if (this._convBytesToInteger(this.byDic.slice(iAddr, iAddr+this.nBytesArc)) & this._finalNodeMask) {
            let l = [];
            let nRawArc = 0;
            while (!(nRawArc & this._lastArcMask)) {
                let iEndArcAddr = iAddr + this.nBytesArc;
                nRawArc = this._convBytesToInteger(this.byDic.slice(iAddr, iEndArcAddr));
                let nArc = nRawArc & this._arcMask;
                if (nArc > this.nChar) {
                    // This value is not a char, this is a stemming code
                    let sStem = ">" + this.funcStemming(sWord, this.lArcVal[nArc]);
                    // Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    let iAddr2 = this._convBytesToInteger(this.byDic.slice(iEndArcAddr, iEndArcAddr+this.nBytesNodeAddress));
                    let nRawArc2 = 0;
                    while (!(nRawArc2 & this._lastArcMask)) {
                        let iEndArcAddr2 = iAddr2 + this.nBytesArc;
                        nRawArc2 = this._convBytesToInteger(this.byDic.slice(iAddr2, iEndArcAddr2));
                        l.push(sStem + "/" + this.lArcVal[nRawArc2 & this._arcMask]);
                        iAddr2 = iEndArcAddr2+this.nBytesNodeAddress;
                    }
                }
                iAddr = iEndArcAddr + this.nBytesNodeAddress;
            }
            return l;
        }
        return [];
    }

    _stem1 (sWord) {
        // returns stems list of sWord
        let iAddr = 0;
        for (let c of sWord) {
            if (!this.dChar.has(c)) {
                return [];
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return [];
            }
        }
        if (this._convBytesToInteger(this.byDic.slice(iAddr, iAddr+this.nBytesArc)) & this._finalNodeMask) {
            let l = [];
            let nRawArc = 0;
            while (!(nRawArc & this._lastArcMask)) {
                let iEndArcAddr = iAddr + this.nBytesArc;
                nRawArc = this._convBytesToInteger(this.byDic.slice(iAddr, iEndArcAddr));
                let nArc = nRawArc & this._arcMask;
                if (nArc > this.nChar) {
                    // This value is not a char, this is a stemming code
                    l.push(this.funcStemming(sWord, this.lArcVal[nArc]));
                }
                iAddr = iEndArcAddr + this.nBytesNodeAddress;
            }
            return l;
        }
        return [];
    }

    _lookupArcNode1 (nVal, iAddr) {
        // looks if nVal is an arc at the node at iAddr, if yes, returns address of next node else None
        while (true) {
            let iEndArcAddr = iAddr+this.nBytesArc;
            let nRawArc = this._convBytesToInteger(this.byDic.slice(iAddr, iEndArcAddr));
            if (nVal == (nRawArc & this._arcMask)) {
                // the value we are looking for
                // we return the address of the next node
                return this._convBytesToInteger(this.byDic.slice(iEndArcAddr, iEndArcAddr+this.nBytesNodeAddress));
            }
            else {
                // value not found
                if (nRawArc & this._lastArcMask) {
                    return null;
                }
                iAddr = iEndArcAddr + this.nBytesNodeAddress;
            }
        }
    }

    * _getArcs1 (iAddr) {
        // generator: return all arcs at <iAddr> as tuples of (nVal, iAddr)
        while (true) {
            let iEndArcAddr = iAddr+this.nBytesArc;
            let nRawArc = this._convBytesToInteger(this.byDic.slice(iAddr, iEndArcAddr));
            yield [nRawArc & this._arcMask, this._convBytesToInteger(this.byDic.slice(iEndArcAddr, iEndArcAddr+this.nBytesNodeAddress))];
            if (nRawArc & this._lastArcMask) {
                break;
            }
            iAddr = iEndArcAddr+this.nBytesNodeAddress;
        }
    }

    // VERSION 2
    _morph2 (sWord) {
        // to do
    }

    _stem2 (sWord) {
        // to do
    }

    _lookupArcNode2 (nVal, iAddr) {
        // to do
    }


    // VERSION 3
    _morph3 (sWord) {
        // to do
    }

    _stem3 (sWord) {
        // to do
    }

    _lookupArcNode3 (nVal, iAddr) {
        // to do
    }
}


if (typeof(exports) !== 'undefined') {
    exports.IBDAWG = IBDAWG;
}








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            zFlexPattern = (sFlexPattern !== "") ? new RegExp(sFlexPattern) : null;
            zTagsPattern = (sTagsPattern !== "") ? new RegExp(sTagsPattern) : null;
        }
        catch (e) {
            console.log("Error in regex pattern");
            console.log(e.message);
        }
        yield* this._select(zFlexPattern, zTagsPattern, 0, "");
    }



    * _select (zFlexPattern, zTagsPattern, iAddr, sWord) {
        // recursive generator
        for (let [nVal, jAddr] of this._getArcs(iAddr)) {
            if (nVal <= this.nChar) {
                // simple character
                yield* this._select(zFlexPattern, zTagsPattern, jAddr, sWord + this.lArcVal[nVal]);
            } else {
                if (!zFlexPattern || zFlexPattern.test(sWord)) {
                    let sStem = this.funcStemming(sWord, this.lArcVal[nVal]);
                    for (let [nMorphVal, _] of this._getArcs(jAddr)) {
                        if (!zTagsPattern || zTagsPattern.test(this.lArcVal[nMorphVal])) {
                            yield [sWord, sStem, this.lArcVal[nMorphVal]];
                        }
                    }
                }
            }
        }
    }

    _morph (sWord) {
        // returns morphologies of sWord
        let iAddr = 0;
        for (let c of sWord) {
            if (!this.dChar.has(c)) {
                return [];
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return [];
            }
        }
        if (this.byDic[iAddr] & this._finalNodeMask) {
            let l = [];
            let nRawArc = 0;
            while (!(nRawArc & this._lastArcMask)) {
                let iEndArcAddr = iAddr + 1;
                nRawArc = this.byDic[iAddr];
                let nArc = nRawArc & this._arcMask;
                if (nArc > this.nChar) {
                    // This value is not a char, this is a stemming code
                    let sStem = ">" + this.funcStemming(sWord, this.lArcVal[nArc]);
                    // Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    let iAddr2 = this.byDic[iEndArcAddr];
                    let nRawArc2 = 0;
                    while (!(nRawArc2 & this._lastArcMask)) {
                        let iEndArcAddr2 = iAddr2 + 1;
                        nRawArc2 = this.byDic[iAddr2];
                        l.push(sStem + "/" + this.lArcVal[nRawArc2 & this._arcMask]);
                        iAddr2 = iEndArcAddr2 + 1;
                    }
                }
                iAddr = iEndArcAddr + 1;
            }
            return l;
        }
        return [];
    }

    _stem (sWord) {
        // returns stems list of sWord
        let iAddr = 0;
        for (let c of sWord) {
            if (!this.dChar.has(c)) {
                return [];
            }
            iAddr = this._lookupArcNode(this.dChar.get(c), iAddr);
            if (iAddr === null) {
                return [];
            }
        }
        if (this.byDic[iAddr] & this._finalNodeMask) {
            let l = [];
            let nRawArc = 0;
            while (!(nRawArc & this._lastArcMask)) {
                let iEndArcAddr = iAddr + 1;
                nRawArc = this.byDic[iAddr];
                let nArc = nRawArc & this._arcMask;
                if (nArc > this.nChar) {
                    // This value is not a char, this is a stemming code
                    l.push(this.funcStemming(sWord, this.lArcVal[nArc]));
                }
                iAddr = iEndArcAddr + 1;
            }
            return l;
        }
        return [];
    }

    _lookupArcNode (nVal, iAddr) {
        // looks if nVal is an arc at the node at iAddr, if yes, returns address of next node else None
        while (true) {
            let iEndArcAddr = iAddr+1;
            let nRawArc = this.byDic[iAddr];
            if (nVal == (nRawArc & this._arcMask)) {
                // the value we are looking for
                // we return the address of the next node
                return this.byDic[iEndArcAddr];
            }
            else {
                // value not found
                if (nRawArc & this._lastArcMask) {
                    return null;
                }
                iAddr = iEndArcAddr + 1;
            }
        }
    }

    * _getArcs (iAddr) {
        // generator: return all arcs at <iAddr> as tuples of (nVal, iAddr)
        while (true) {
            let iEndArcAddr = iAddr+1;
            let nRawArc = this.byDic[iAddr];
            yield [nRawArc & this._arcMask, this.byDic[iEndArcAddr]];
            if (nRawArc & this._lastArcMask) {
                break;
            }
            iAddr = iEndArcAddr+1;
        }



























    }
}


if (typeof(exports) !== 'undefined') {
    exports.IBDAWG = IBDAWG;
}

Modified graphspell-js/str_transform.js from [4c4ee6009e] to [3bf8e3b480]. 

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// STRING TRANSFORMATION

/* jshint esversion:6, -W097 */
/* jslint esversion:6 */
/* global exports, console */

"use strict";


if (typeof(process) !== 'undefined') {
    var char_player = require("./char_player.js");
}



// Note: 48 is the ASCII code for "0"

var str_transform = {

    getNgrams: function (sWord, n=2) {
        let lNgrams = [];














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// STRING TRANSFORMATION

/* jshint esversion:6, -W097 */
/* jslint esversion:6 */
/* global exports, console */

"use strict";


if (typeof(process) !== 'undefined') {
    var char_player = require("./char_player.js");
}



// Note: 48 is the ASCII code for "0"

var str_transform = {

    getNgrams: function (sWord, n=2) {
        let lNgrams = [];
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            if (c != sWord.slice(i, i+1) || (c == 'e' && sWord.slice(i, i+2) != "ee")) {  // exception for <e> to avoid confusion between crée / créai
                sNewWord += c;
            }
            i++;
        }
        return sNewWord.replace(/eau/g, "o").replace(/au/g, "o").replace(/ai/g, "éi").replace(/ei/g, "é").replace(/ph/g, "f");
    },







    _xTransNumbersToExponent: new Map([
        ["0", "⁰"], ["1", "¹"], ["2", "²"], ["3", "³"], ["4", "⁴"], ["5", "⁵"], ["6", "⁶"], ["7", "⁷"], ["8", "⁸"], ["9", "⁹"]
    ]),

    numbersToExponent: function (sWord) {
        let sNewWord = "";








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            if (c != sWord.slice(i, i+1) || (c == 'e' && sWord.slice(i, i+2) != "ee")) {  // exception for <e> to avoid confusion between crée / créai
                sNewWord += c;
            }
            i++;
        }
        return sNewWord.replace(/eau/g, "o").replace(/au/g, "o").replace(/ai/g, "éi").replace(/ei/g, "é").replace(/ph/g, "f");
    },

    cleanWord: function (sWord) {
        // word clean for the user who make commun and preditive error help suggest
        // remove letters repeated more than 2 times
        return sWord.replace(/(.)\1{2,}/ig,'$1$1');
    },

    _xTransNumbersToExponent: new Map([
        ["0", "⁰"], ["1", "¹"], ["2", "²"], ["3", "³"], ["4", "⁴"], ["5", "⁵"], ["6", "⁶"], ["7", "⁷"], ["8", "⁸"], ["9", "⁹"]
    ]),

    numbersToExponent: function (sWord) {
        let sNewWord = "";
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            }
            return matrix[nLen1][nLen2];
        }
        catch (e) {
            console.error(e);
        }
    },




























































































    showDistance (s1, s2) {
        console.log(`Distance: ${s1} / ${s2} = ${this.distanceDamerauLevenshtein(s1, s2)})`);
    },

    // Suffix only
    defineSuffixCode: function (sFlex, sStem) {








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            }
            return matrix[nLen1][nLen2];
        }
        catch (e) {
            console.error(e);
        }
    },

    distanceJaroWinkler: function(a, b, boost = .666) {
        // https://github.com/thsig/jaro-winkler-JS
        //if (a == b) { return 1.0; }
        let a_len = a.length;
        let b_len = b.length;
        let a_flag = [];
        let b_flag = [];
        let search_range = Math.floor(Math.max(a_len, b_len) / 2) - 1;
        let minv = Math.min(a_len, b_len);

        // Looking only within the search range, count and flag the matched pairs.
        let Num_com = 0;
        let yl1 = b_len - 1;
        for (let i = 0; i < a_len; i++) {
          let lowlim = (i >= search_range) ? i - search_range : 0;
          let hilim  = ((i + search_range) <= yl1) ? (i + search_range) : yl1;
          for (let j = lowlim; j <= hilim; j++) {
            if (b_flag[j] !== 1 && a[j] === b[i]) {
              a_flag[j] = 1;
              b_flag[i] = 1;
              Num_com++;
              break;
            }
          }
        }

        // Return if no characters in common
        if (Num_com === 0) { return 0.0; }

        // Count the number of transpositions
        let k = 0;
        let N_trans = 0;
        for (let i = 0; i < a_len; i++) {
          if (a_flag[i] === 1) {
            let j;
            for (j = k; j < b_len; j++) {
              if (b_flag[j] === 1) {
                k = j + 1;
                break;
              }
            }
            if (a[i] !== b[j]) { N_trans++; }
          }
        }
        N_trans = Math.floor(N_trans / 2);

        // Adjust for similarities in nonmatched characters
        let N_simi = 0;
        let adjwt = char_player.oDistanceBetweenChars;
        if (minv > Num_com) {
          for (let i = 0; i < a_len; i++) {
            if (!a_flag[i]) {
              for (let j = 0; j < b_len; j++) {
                if (!b_flag[j]) {
                  if (adjwt[a[i]] && adjwt[a[i]][b[j]]) {
                    N_simi += adjwt[a[i]][b[j]];
                    b_flag[j] = 2;
                    break;
                  }
                }
              }
            }
          }
        }

        let Num_sim = (N_simi / 10.0) + Num_com;

        // Main weight computation
        let weight = Num_sim / a_len + Num_sim / b_len + (Num_com - N_trans) / Num_com;
        weight = weight / 3;

        // Continue to boost the weight if the strings are similar
        if (weight > boost) {
          // Adjust for having up to the first 4 characters in common
          let j = (minv >= 4) ? 4 : minv;
          let i;
          for (i = 0; (i < j) && a[i] === b[i]; i++) { }
          if (i) { weight += i * 0.1 * (1.0 - weight) };

          // Adjust for long strings.
          // After agreeing beginning chars, at least two more must agree
          // and the agreeing characters must be more than half of the
          // remaining characters.
          if (minv > 4 && Num_com > i + 1 && 2 * Num_com >= minv + i) {
            weight += (1 - weight) * ((Num_com - i - 1) / (a_len * b_len - i*2 + 2));
          }
        }

        return weight;
    },

    showDistance (s1, s2) {
        console.log(`Distance: ${s1} / ${s2} = ${this.distanceDamerauLevenshtein(s1, s2)})`);
    },

    // Suffix only
    defineSuffixCode: function (sFlex, sStem) {
︙︙

Modified graphspell/char_player.py from [e2b351100d] to [24cf38a4cb]. 

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"""
List of similar chars
useful for suggestion mechanism
"""


dDistanceBetweenChars = {



    "a": {},
    "e": {"é": 0.5},
    "é": {"e": 0.5},
    "i": {"y": 0.2},
    "o": {},
    "u": {},
    "y": {"i": 0.3},
    "b": {"d": 0.8, "h": 0.9},
    "c": {"ç": 0.1, "k": 0.5, "q": 0.5, "s": 0.5, "x": 0.5, "z": 0.8},
    "d": {"b": 0.8},
    "f": {"v": 0.8},
    "g": {"j": 0.5},
    "h": {"b": 0.9},
    "j": {"g": 0.5, "i": 0.9},
    "k": {"c": 0.5, "q": 0.1, "x": 0.5},
    "l": {"i": 0.9},
    "m": {"n": 0.8},
    "n": {"m": 0.8, "r": 0.9},
    "p": {"q": 0.9},
    "q": {"c": 0.5, "k": 0.1, "p": 0.9},
    "r": {"n": 0.9, "j": 0.9},
    "s": {"c": 0.5, "ç": 0.1, "x": 0.5, "z": 0.5},
    "t": {"d": 0.9},
    "v": {"f": 0.8, "w": 0.1},
    "w": {"v": 0.1},
    "x": {"c": 0.5, "k": 0.5, "q": 0.5, "s": 0.5},
    "z": {"s": 0.5}
}


def distanceBetweenChars (c1, c2):
    "returns a float between 0 and 1"
    if c1 == c2:
        return 0








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"""
List of similar chars
useful for suggestion mechanism
"""


dDistanceBetweenChars = {
    # dDistanceBetweenChars:
    # - with Jaro-Winkler, values between 1 and 10
    # - with Damerau-Levenshtein, values / 10 (between 0 and 1: 0.1, 0.2 ... 0.9)
    #"a": {},
    "e": {"é": 5},
    "é": {"e": 5},
    "i": {"y": 2},
    #"o": {},
    #"u": {},
    "y": {"i": 3},
    "b": {"d": 8, "h": 9},
    "c": {"ç": 1, "k": 5, "q": 5, "s": 5, "x": 5, "z": 8},
    "d": {"b": 8},
    "f": {"v": 8},
    "g": {"j": 5},
    "h": {"b": 9},
    "j": {"g": 5, "i": 9},
    "k": {"c": 5, "q": 1, "x": 5},
    "l": {"i": 9},
    "m": {"n": 8},
    "n": {"m": 8, "r": 9},
    "p": {"q": 9},
    "q": {"c": 5, "k": 1, "p": 9},
    "r": {"n": 9, "j": 9},
    "s": {"c": 5, "ç": 1, "x": 5, "z": 5},
    "t": {"d": 9},
    "v": {"f": 8, "w": 1},
    "w": {"v": 1},
    "x": {"c": 5, "k": 5, "q": 5, "s": 5},
    "z": {"s": 5}
}


def distanceBetweenChars (c1, c2):
    "returns a float between 0 and 1"
    if c1 == c2:
        return 0
︙︙
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# End of word

dFinal1 = {
    "a": ("as", "at", "ant", "ah"),
    "A": ("AS", "AT", "ANT", "AH"),
    "c": ("ch",),
    "C": ("CH",),
    "e": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait", "ent", "eh"),
    "E": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT", "ENT", "EH"),
    "é": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "É": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "è": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "È": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "ê": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "Ê": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "ë": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "Ë": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "g": ("gh",),
    "G": ("GH",),
    "i": ("is", "it", "ie", "in"),
    "I": ("IS", "IT", "IE", "IN"),


    "n": ("nt", "nd", "ns", "nh"),
    "N": ("NT", "ND", "NS", "NH"),
    "o": ("aut", "ot", "os"),
    "O": ("AUT", "OT", "OS"),
    "ô": ("aut", "ot", "os"),
    "Ô": ("AUT", "OT", "OS"),
    "ö": ("aut", "ot", "os"),








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# End of word

dFinal1 = {
    "a": ("as", "at", "ant", "ah"),
    "A": ("AS", "AT", "ANT", "AH"),
    "c": ("ch", "que"),
    "C": ("CH", "QUE"),
    "e": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait", "ent", "eh"),
    "E": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT", "ENT", "EH"),
    "é": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "É": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "è": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "È": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "ê": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "Ê": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "ë": ("et", "er", "ets", "ée", "ez", "ai", "ais", "ait"),
    "Ë": ("ET", "ER", "ETS", "ÉE", "EZ", "AI", "AIS", "AIT"),
    "g": ("gh",),
    "G": ("GH",),
    "i": ("is", "it", "ie", "in"),
    "I": ("IS", "IT", "IE", "IN"),
    "k": ("que",),
    "K": ("QUE",),
    "n": ("nt", "nd", "ns", "nh"),
    "N": ("NT", "ND", "NS", "NH"),
    "o": ("aut", "ot", "os"),
    "O": ("AUT", "OT", "OS"),
    "ô": ("aut", "ot", "os"),
    "Ô": ("AUT", "OT", "OS"),
    "ö": ("aut", "ot", "os"),
︙︙

Modified graphspell/ibdawg.py from [d16ed0d683] to [d672255b46].

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import re
from functools import wraps
import time
import json
import binascii
import importlib
from collections import OrderedDict


#import logging
#logging.basicConfig(filename="suggestions.log", level=logging.DEBUG)

from . import str_transform as st
from . import char_player as cp
from .echo import echo








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import re
from functools import wraps
import time
import json
import binascii
import importlib
from collections import OrderedDict
from math import floor

#import logging
#logging.basicConfig(filename="suggestions.log", level=logging.DEBUG)

from . import str_transform as st
from . import char_player as cp
from .echo import echo
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        return result
    return wrapper


class SuggResult:
    """Structure for storing, classifying and filtering suggestions"""

    def __init__ (self, sWord, nDistLimit=-1):
        self.sWord = sWord
        self.sSimplifiedWord = st.simplifyWord(sWord)
        self.nDistLimit = nDistLimit  if nDistLimit >= 0  else  (len(sWord) // 3) + 1
        self.nMinDist = 1000

        self.aSugg = set()
        self.dSugg = { 0: [],  1: [],  2: [] }
        self.aAllSugg = set()       # all found words even those refused






    def addSugg (self, sSugg, nDeep=0):
        "add a suggestion"
        #logging.info((nDeep * "  ") + "__" + sSugg + "__")
        if sSugg in self.aAllSugg:
            return
        self.aAllSugg.add(sSugg)
        if sSugg not in self.aSugg:
            #nDist = min(st.distanceDamerauLevenshtein(self.sWord, sSugg), st.distanceDamerauLevenshtein(self.sSimplifiedWord, st.simplifyWord(sSugg)))
            nDist = int(st.distanceDamerauLevenshtein(self.sSimplifiedWord, st.simplifyWord(sSugg)))

            #logging.info((nDeep * "  ") + "__" + sSugg + "__ :" + self.sSimplifiedWord +"|"+ st.simplifyWord(sSugg) +" -> "+ str(nDist))

            if nDist <= self.nDistLimit:

                if " " in sSugg:

                    nDist += 1

                if nDist not in self.dSugg:
                    self.dSugg[nDist] = []
                self.dSugg[nDist].append(sSugg)
                self.aSugg.add(sSugg)
                if nDist < self.nMinDist:
                    self.nMinDist = nDist
                self.nDistLimit = min(self.nDistLimit, self.nMinDist+1)

    def getSuggestions (self, nSuggLimit=10):
        "return a list of suggestions"
        # we sort the better results with the original word
        lRes = []
        bFirstListSorted = False
        for nDist, lSugg in self.dSugg.items():
            if nDist > self.nDistLimit:
                break
            if not bFirstListSorted and len(lSugg) > 1:
                lSugg.sort(key=lambda sSugg: st.distanceDamerauLevenshtein(self.sWord, sSugg))
                bFirstListSorted = True
            #print(nDist, "|".join(lSugg))
            #for sSugg in lSugg:
            #    print(sSugg, st.distanceDamerauLevenshtein(self.sWord, sSugg))
            lRes.extend(lSugg)
            if len(lRes) > nSuggLimit:




                break
        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[:nSuggLimit]

    def reset (self):
        "clear data"
        self.aSugg.clear()
        self.dSugg.clear()










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        return result
    return wrapper


class SuggResult:
    """Structure for storing, classifying and filtering suggestions"""

    def __init__ (self, sWord, nSuggLimit=10, nDistLimit=-1):
        self.sWord = sWord
        self.sSimplifiedWord = st.simplifyWord(sWord)
        self.nDistLimit = nDistLimit  if nDistLimit >= 0  else  (len(sWord) // 3) + 1
        self.nMinDist = 1000
        # Temporary sets
        self.aAllSugg = set()   # All suggestions, even the one rejected
        self.dGoodSugg = {}     # Acceptable suggestions
        self.dBestSugg = {}     # Best suggestions
        # Parameters
        self.nSuggLimit = nSuggLimit
        self.nSuggLimitExt = nSuggLimit + 2             # we add few entries in case suggestions merge after casing modifications
        self.nBestSuggLimit = floor(nSuggLimit * 1.5)   # n times the requested limit
        self.nGoodSuggLimit = nSuggLimit * 15           # n times the requested limit

    def addSugg (self, sSugg, nDeep=0):
        "add a suggestion"
        #logging.info((nDeep * "  ") + "__" + sSugg + "__")
        if sSugg in self.aAllSugg:
            return
        self.aAllSugg.add(sSugg)

        nDistJaro = 1 - st.distanceJaroWinkler(self.sSimplifiedWord, st.simplifyWord(sSugg))
        nDist = floor(nDistJaro * 10)
        if nDistJaro < .11:     # Best suggestions
            self.dBestSugg[sSugg] = round(nDistJaro*1000)
            if len(self.dBestSugg) > self.nBestSuggLimit:
                self.nDistLimit = -1  # make suggest() to end search
        elif nDistJaro < .33:   # Good suggestions
            self.dGoodSugg[sSugg] = round(nDistJaro*1000)
            if len(self.dGoodSugg) > self.nGoodSuggLimit:
                self.nDistLimit = -1  # make suggest() to end search
        else:
            if nDist < self.nMinDist:
                self.nMinDist = nDist
            self.nDistLimit = min(self.nDistLimit, self.nMinDist)
        if nDist <= self.nDistLimit:
            if nDist < self.nMinDist:
                self.nMinDist = nDist
            self.nDistLimit = min(self.nDistLimit, self.nMinDist+1)

    def getSuggestions (self):
        "return a list of suggestions"
        # we sort the better results with the original word
        lRes = []




        if len(self.dBestSugg) > 0:
            # sort only with simplified words
            lResTmp = sorted(self.dBestSugg.items(), key=lambda x: x[1])

            for i in range(min(self.nSuggLimitExt, len(lResTmp))):

                lRes.append(lResTmp[i][0])
        if len(lRes) < self.nSuggLimitExt:
            # sort with simplified words and original word
            lResTmp = sorted(self.dGoodSugg.items(), key=lambda x: ((1-st.distanceJaroWinkler(self.sWord, x[0]))*10, x[1]))
            for i in range(min(self.nSuggLimitExt, len(lResTmp))):
                lRes.append(lResTmp[i][0])
        # casing
        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]

    def reset (self):
        "clear data"
        self.aSugg.clear()
        self.dSugg.clear()
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            else:
                raise OSError("# Error. Unknown file type: "+source)
        else:
            self._initJSON(source)

        self.sFileName = source  if isinstance(source, str)  else "[None]"





















        self._arcMask = (2 ** ((self.nBytesArc * 8) - 3)) - 1
        self._finalNodeMask = 1 << ((self.nBytesArc * 8) - 1)
        self._lastArcMask = 1 << ((self.nBytesArc * 8) - 2)
        self._addrBitMask = 1 << ((self.nBytesArc * 8) - 3)  # version 2

        # function to decode the affix/suffix code
        if self.cStemming == "S":
            self.funcStemming = st.changeWordWithSuffixCode
        elif self.cStemming == "A":
            self.funcStemming = st.changeWordWithAffixCode
        else:
            self.funcStemming = st.noStemming

        # Configuring DAWG functions according to nCompressionMethod
        if self.nCompressionMethod == 1:
            self.morph = self._morph1
            self.stem = self._stem1
            self._lookupArcNode = self._lookupArcNode1
            self._getArcs = self._getArcs1
            self._writeNodes = self._writeNodes1
        elif self.nCompressionMethod == 2:
            self.morph = self._morph2
            self.stem = self._stem2
            self._lookupArcNode = self._lookupArcNode2
            self._getArcs = self._getArcs2
            self._writeNodes = self._writeNodes2
        elif self.nCompressionMethod == 3:
            self.morph = self._morph3
            self.stem = self._stem3
            self._lookupArcNode = self._lookupArcNode3
            self._getArcs = self._getArcs3
            self._writeNodes = self._writeNodes3
        else:
            raise ValueError("  # Error: unknown code: {}".format(self.nCompressionMethod))

        self.bAcronymValid = False
        self.bNumAtLastValid = False

        # lexicographer module ?
        self.lexicographer = None
        try:
            self.lexicographer = importlib.import_module(".lexgraph_"+self.sLangCode, "grammalecte.graphspell")








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            else:
                raise OSError("# Error. Unknown file type: "+source)
        else:
            self._initJSON(source)

        self.sFileName = source  if isinstance(source, str)  else "[None]"

        # Performance trick:
        #     Instead of converting bytes to integers each times we parse the binary dictionary,
        #     we do it once, then parse the array
        nAcc = 0
        byBuffer = b""
        lTemp = []
        nDivisor = (self.nBytesArc + self.nBytesNodeAddress) / 2
        for i in range(0, len(self.byDic)):
            byBuffer += self.byDic[i:i+1]
            if nAcc == (self.nBytesArc - 1):
                lTemp.append(int.from_bytes(byBuffer, byteorder="big"))
                byBuffer = b""
            elif nAcc == (self.nBytesArc + self.nBytesNodeAddress - 1):
                lTemp.append(round(int.from_bytes(byBuffer, byteorder="big") / nDivisor))
                byBuffer = b""
                nAcc = -1
            nAcc = nAcc + 1
        self.byDic = lTemp;

        # masks
        self._arcMask = (2 ** ((self.nBytesArc * 8) - 3)) - 1
        self._finalNodeMask = 1 << ((self.nBytesArc * 8) - 1)
        self._lastArcMask = 1 << ((self.nBytesArc * 8) - 2)


        # function to decode the affix/suffix code
        if self.cStemming == "S":
            self.funcStemming = st.changeWordWithSuffixCode
        elif self.cStemming == "A":
            self.funcStemming = st.changeWordWithAffixCode
        else:
            self.funcStemming = st.noStemming























        self.bAcronymValid = False
        self.bNumAtLastValid = False

        # lexicographer module ?
        self.lexicographer = None
        try:
            self.lexicographer = importlib.import_module(".lexgraph_"+self.sLangCode, "grammalecte.graphspell")
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        self.cStemming = l.pop(0)
        self.nTag = self.nArcVal - self.nChar - self.nAff
        # <dChar> to get the value of an arc, <dCharVal> to get the char of an arc with its value
        self.dChar = {}
        for i in range(1, self.nChar+1):
            self.dChar[self.lArcVal[i]] = i
        self.dCharVal = { v: k  for k, v in self.dChar.items() }
        self.nBytesOffset = 1 # version 3

    def _initJSON (self, oJSON):
        "initialize with a JSON text file"
        self.sByDic = ""  # init to prevent pylint whining
        self.__dict__.update(oJSON)
        self.byDic = binascii.unhexlify(self.sByDic)
        self.dCharVal = { v: k  for k, v in self.dChar.items() }








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        self.cStemming = l.pop(0)
        self.nTag = self.nArcVal - self.nChar - self.nAff
        # <dChar> to get the value of an arc, <dCharVal> to get the char of an arc with its value
        self.dChar = {}
        for i in range(1, self.nChar+1):
            self.dChar[self.lArcVal[i]] = i
        self.dCharVal = { v: k  for k, v in self.dChar.items() }


    def _initJSON (self, oJSON):
        "initialize with a JSON text file"
        self.sByDic = ""  # init to prevent pylint whining
        self.__dict__.update(oJSON)
        self.byDic = binascii.unhexlify(self.sByDic)
        self.dCharVal = { v: k  for k, v in self.dChar.items() }
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                "nNode": self.nNode,
                "nArc": self.nArc,
                "nArcVal": self.nArcVal,
                "lArcVal": self.lArcVal,
                "nCompressionMethod": self.nCompressionMethod,
                "nBytesArc": self.nBytesArc,
                "nBytesNodeAddress": self.nBytesNodeAddress,
                "nBytesOffset": self.nBytesOffset,
                # JavaScript is a pile of shit, so Mozilla’s JS parser don’t like file bigger than 4 Mb!
                # So, if necessary, we use an hexadecimal string, that we will convert later in Firefox’s extension.
                # https://github.com/mozilla/addons-linter/issues/1361
                "sByDic": self.byDic.hex()  if bBinaryDictAsHexString  else [ e  for e in self.byDic ],
                "l2grams": list(self.a2grams)
            }, ensure_ascii=False))
            if bInJSModule:








<








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                "nNode": self.nNode,
                "nArc": self.nArc,
                "nArcVal": self.nArcVal,
                "lArcVal": self.lArcVal,
                "nCompressionMethod": self.nCompressionMethod,
                "nBytesArc": self.nBytesArc,
                "nBytesNodeAddress": self.nBytesNodeAddress,

                # JavaScript is a pile of shit, so Mozilla’s JS parser don’t like file bigger than 4 Mb!
                # So, if necessary, we use an hexadecimal string, that we will convert later in Firefox’s extension.
                # https://github.com/mozilla/addons-linter/issues/1361
                "sByDic": self.byDic.hex()  if bBinaryDictAsHexString  else [ e  for e in self.byDic ],
                "l2grams": list(self.a2grams)
            }, ensure_ascii=False))
            if bInJSModule:
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        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return False
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return False
        return bool(int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask)

    def getMorph (self, sWord):
        "retrieves morphologies list, different casing allowed"
        if not sWord:
            return []
        sWord = st.spellingNormalization(sWord)
        l = self.morph(sWord)
        if sWord[0:1].isupper():
            l.extend(self.morph(sWord.lower()))
            if sWord.isupper() and len(sWord) > 1:
                l.extend(self.morph(sWord.capitalize()))
        return l

    #@timethis
    def suggest (self, sWord, nSuggLimit=10, bSplitTrailingNumbers=False):
        "returns a set of suggestions for <sWord>"
        sWord = sWord.rstrip(".")   # useful for LibreOffice
        sWord = st.spellingNormalization(sWord)
        sPfx = ""
        sSfx = ""
        if self.lexicographer:
            sPfx, sWord, sSfx = self.lexicographer.split(sWord)
        nMaxSwitch = max(len(sWord) // 3, 1)
        nMaxDel = len(sWord) // 5
        nMaxHardRepl = max((len(sWord) - 5) // 4, 1)
        nMaxJump = max(len(sWord) // 4, 1)
        oSuggResult = SuggResult(sWord)

        if bSplitTrailingNumbers:
            self._splitTrailingNumbers(oSuggResult, sWord)
        self._splitSuggest(oSuggResult, sWord)
        self._suggest(oSuggResult, sWord, nMaxSwitch, nMaxDel, nMaxHardRepl, nMaxJump)
        aSugg = oSuggResult.getSuggestions(nSuggLimit)
        if self.lexicographer:
            aSugg = self.lexicographer.filterSugg(aSugg)
        if sSfx or sPfx:
            # we add what we removed
            return list(map(lambda sSug: sPfx + sSug + sSfx, aSugg))
        return aSugg









|






|

|

|















|
>




|








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        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return False
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return False
        return bool(self.byDic[iAddr] & self._finalNodeMask)

    def getMorph (self, sWord):
        "retrieves morphologies list, different casing allowed"
        if not sWord:
            return []
        sWord = st.spellingNormalization(sWord)
        l = self._morph(sWord)
        if sWord[0:1].isupper():
            l.extend(self._morph(sWord.lower()))
            if sWord.isupper() and len(sWord) > 1:
                l.extend(self._morph(sWord.capitalize()))
        return l

    #@timethis
    def suggest (self, sWord, nSuggLimit=10, bSplitTrailingNumbers=False):
        "returns a set of suggestions for <sWord>"
        sWord = sWord.rstrip(".")   # useful for LibreOffice
        sWord = st.spellingNormalization(sWord)
        sPfx = ""
        sSfx = ""
        if self.lexicographer:
            sPfx, sWord, sSfx = self.lexicographer.split(sWord)
        nMaxSwitch = max(len(sWord) // 3, 1)
        nMaxDel = len(sWord) // 5
        nMaxHardRepl = max((len(sWord) - 5) // 4, 1)
        nMaxJump = max(len(sWord) // 4, 1)
        oSuggResult = SuggResult(sWord, nSuggLimit)
        sWord = st.cleanWord(sWord)
        if bSplitTrailingNumbers:
            self._splitTrailingNumbers(oSuggResult, sWord)
        self._splitSuggest(oSuggResult, sWord)
        self._suggest(oSuggResult, sWord, nMaxSwitch, nMaxDel, nMaxHardRepl, nMaxJump)
        aSugg = oSuggResult.getSuggestions()
        if self.lexicographer:
            aSugg = self.lexicographer.filterSugg(aSugg)
        if sSfx or sPfx:
            # we add what we removed
            return list(map(lambda sSug: sPfx + sSug + sSfx, aSugg))
        return aSugg
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                sWord1, sWord2 = sWord.split(cSplitter, 1)
                if self.isValid(sWord1) and self.isValid(sWord2):
                    oSuggResult.addSugg(sWord1+" "+sWord2)

    def _suggest (self, oSuggResult, sRemain, nMaxSwitch=0, nMaxDel=0, nMaxHardRepl=0, nMaxJump=0, nDist=0, nDeep=0, iAddr=0, sNewWord="", bAvoidLoop=False):
        # recursive function
        #logging.info((nDeep * "  ") + sNewWord + ":" + sRemain)
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            if not sRemain:
                oSuggResult.addSugg(sNewWord, nDeep)
                for sTail in self._getTails(iAddr):
                    oSuggResult.addSugg(sNewWord+sTail, nDeep)
                return
            if (len(sNewWord) + len(sRemain) == len(oSuggResult.sWord)) and oSuggResult.sWord.lower().startswith(sNewWord.lower()) and self.isValid(sRemain):
                if self.sLangCode == "fr" and sNewWord.lower() in ("l", "d", "n", "m", "t", "s", "c", "j", "qu", "lorsqu", "puisqu", "quoiqu", "jusqu", "quelqu") and sRemain[0:1] in cp.aVowel:








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                sWord1, sWord2 = sWord.split(cSplitter, 1)
                if self.isValid(sWord1) and self.isValid(sWord2):
                    oSuggResult.addSugg(sWord1+" "+sWord2)

    def _suggest (self, oSuggResult, sRemain, nMaxSwitch=0, nMaxDel=0, nMaxHardRepl=0, nMaxJump=0, nDist=0, nDeep=0, iAddr=0, sNewWord="", bAvoidLoop=False):
        # recursive function
        #logging.info((nDeep * "  ") + sNewWord + ":" + sRemain)
        if self.byDic[iAddr] & self._finalNodeMask:
            if not sRemain:
                oSuggResult.addSugg(sNewWord, nDeep)
                for sTail in self._getTails(iAddr):
                    oSuggResult.addSugg(sNewWord+sTail, nDeep)
                return
            if (len(sNewWord) + len(sRemain) == len(oSuggResult.sWord)) and oSuggResult.sWord.lower().startswith(sNewWord.lower()) and self.isValid(sRemain):
                if self.sLangCode == "fr" and sNewWord.lower() in ("l", "d", "n", "m", "t", "s", "c", "j", "qu", "lorsqu", "puisqu", "quoiqu", "jusqu", "quelqu") and sRemain[0:1] in cp.aVowel:
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                yield (self.dCharVal[nVal], jAddr)

    def _getTails (self, iAddr, sTail="", n=2):
        "return a list of suffixes ending at a distance of <n> from <iAddr>"
        aTails = set()
        for nVal, jAddr in self._getArcs(iAddr):
            if nVal <= self.nChar:
                if int.from_bytes(self.byDic[jAddr:jAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
                    aTails.add(sTail + self.dCharVal[nVal])
                if n and not aTails:
                    aTails.update(self._getTails(jAddr, sTail+self.dCharVal[nVal], n-1))
        return aTails

    def drawPath (self, sWord, iAddr=0):
        "show the path taken by <sWord> in the graph"








|








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                yield (self.dCharVal[nVal], jAddr)

    def _getTails (self, iAddr, sTail="", n=2):
        "return a list of suffixes ending at a distance of <n> from <iAddr>"
        aTails = set()
        for nVal, jAddr in self._getArcs(iAddr):
            if nVal <= self.nChar:
                if self.byDic[jAddr] & self._finalNodeMask:
                    aTails.add(sTail + self.dCharVal[nVal])
                if n and not aTails:
                    aTails.update(self._getTails(jAddr, sTail+self.dCharVal[nVal], n-1))
        return aTails

    def drawPath (self, sWord, iAddr=0):
        "show the path taken by <sWord> in the graph"
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            if sFlexPattern:
                zFlexPattern = re.compile(sFlexPattern)
            if sTagsPattern:
                zTagsPattern = re.compile(sTagsPattern)
        except re.error:
            print("# Error in regex pattern")
            traceback.print_exc()
        yield from self._select1(zFlexPattern, zTagsPattern, 0, "")

    # def morph (self, sWord):
    #     is defined in __init__

    # VERSION 1
    def _select1 (self, zFlexPattern, zTagsPattern, iAddr, sWord):
        # recursive generator
        for nVal, jAddr in self._getArcs1(iAddr):
            if nVal <= self.nChar:
                # simple character
                yield from self._select1(zFlexPattern, zTagsPattern, jAddr, sWord + self.lArcVal[nVal])
            else:
                if not zFlexPattern or zFlexPattern.search(sWord):
                    sStem = self.funcStemming(sWord, self.lArcVal[nVal])
                    for nMorphVal, _ in self._getArcs1(jAddr):
                        if not zTagsPattern or zTagsPattern.search(self.lArcVal[nMorphVal]):
                            yield [sWord, sStem, self.lArcVal[nMorphVal]]

    def _morph1 (self, sWord):
        "returns morphologies of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    sStem = ">" + self.funcStemming(sWord, self.lArcVal[nArc])
                    # Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    iAddr2 = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    nRawArc2 = 0
                    while not nRawArc2 & self._lastArcMask:
                        iEndArcAddr2 = iAddr2 + self.nBytesArc
                        nRawArc2 = int.from_bytes(self.byDic[iAddr2:iEndArcAddr2], byteorder='big')
                        l.append(sStem + "/" + self.lArcVal[nRawArc2 & self._arcMask])
                        iAddr2 = iEndArcAddr2+self.nBytesNodeAddress
                iAddr = iEndArcAddr+self.nBytesNodeAddress
            return l
        return []

    def _stem1 (self, sWord):
        "returns stems list of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    l.append(self.funcStemming(sWord, self.lArcVal[nArc]))
                iAddr = iEndArcAddr+self.nBytesNodeAddress
            return l
        return []

    def _lookupArcNode1 (self, nVal, iAddr):
        "looks if <nVal> is an arc at the node at <iAddr>, if yes, returns address of next node else None"
        while True:
            iEndArcAddr = iAddr+self.nBytesArc
            nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
            if nVal == (nRawArc & self._arcMask):
                # the value we are looking for
                # we return the address of the next node
                return int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
            # value not found
            if nRawArc & self._lastArcMask:
                return None
            iAddr = iEndArcAddr+self.nBytesNodeAddress

    def _getArcs1 (self, iAddr):
        "generator: return all arcs at <iAddr> as tuples of (nVal, iAddr)"
        while True:
            iEndArcAddr = iAddr+self.nBytesArc
            nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
            yield nRawArc & self._arcMask, int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
            if nRawArc & self._lastArcMask:
                break
            iAddr = iEndArcAddr+self.nBytesNodeAddress

    def _writeNodes1 (self, spfDest):
        "for debugging only"
        print(" > Write binary nodes")
        with open(spfDest, 'w', 'utf-8', newline="\n") as hDst:
            iAddr = 0
            hDst.write("i{:_>10} -- #{:_>10}\n".format("0", iAddr))
            while iAddr < len(self.byDic):
                iEndArcAddr = iAddr+self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                hDst.write("  {:<20}  {:0>16}  i{:>10}   #{:_>10}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:], "?", \
                                                                            int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], \
                                                                                           byteorder='big')))
                iAddr = iEndArcAddr+self.nBytesNodeAddress
                if (nRawArc & self._lastArcMask) and iAddr < len(self.byDic):
                    hDst.write("\ni{:_>10} -- #{:_>10}\n".format("?", iAddr))
            hDst.close()

    # VERSION 2
    def _morph2 (self, sWord):
        "returns morphologies of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    sStem = ">" + self.funcStemming(sWord, self.lArcVal[nArc])
                    # Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    if not nRawArc & self._addrBitMask:
                        iAddr2 = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    else:
                        # we go to the end of the node
                        iAddr2 = iEndArcAddr
                        while not nRawArc & self._lastArcMask:
                            nRawArc = int.from_bytes(self.byDic[iAddr2:iAddr2+self.nBytesArc], byteorder='big')
                            iAddr2 += self.nBytesArc + self.nBytesNodeAddress
                    nRawArc2 = 0
                    while not nRawArc2 & self._lastArcMask:
                        iEndArcAddr2 = iAddr2 + self.nBytesArc
                        nRawArc2 = int.from_bytes(self.byDic[iAddr2:iEndArcAddr2], byteorder='big')
                        l.append(sStem + "/" + self.lArcVal[nRawArc2 & self._arcMask])
                        iAddr2 = iEndArcAddr2+self.nBytesNodeAddress  if not nRawArc2 & self._addrBitMask else iEndArcAddr2
                iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr
            return l
        return []

    def _stem2 (self, sWord):
        "returns stems list of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    l.append(self.funcStemming(sWord, self.lArcVal[nArc]))
                    # Now , we go to the next node
                    if not nRawArc & self._addrBitMask:
                        iAddr2 = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    else:
                        # we go to the end of the node
                        iAddr2 = iEndArcAddr
                        while not nRawArc & self._lastArcMask:
                            nRawArc = int.from_bytes(self.byDic[iAddr2:iAddr2+self.nBytesArc], byteorder='big')
                            iAddr2 += self.nBytesArc + self.nBytesNodeAddress
                iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr
            return l
        return []

    def _lookupArcNode2 (self, nVal, iAddr):
        "looks if <nVal> is an arc at the node at <iAddr>, if yes, returns address of next node else None"
        while True:
            iEndArcAddr = iAddr+self.nBytesArc
            nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
            if nVal == (nRawArc & self._arcMask):
                # the value we are looking for
                if not nRawArc & self._addrBitMask:
                    # we return the address of the next node
                    return int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                # we go to the end of the node
                iAddr = iEndArcAddr
                while not nRawArc & self._lastArcMask:
                    nRawArc = int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big')
                    iAddr += self.nBytesArc + self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else self.nBytesArc
                return iAddr
            # value not found
            if nRawArc & self._lastArcMask:
                return None
            iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr

    def _writeNodes2 (self, spfDest):
        "for debugging only"
        print(" > Write binary nodes")
        with open(spfDest, 'w', 'utf-8', newline="\n") as hDst:
            iAddr = 0
            hDst.write("i{:_>10} -- #{:_>10}\n".format("0", iAddr))
            while iAddr < len(self.byDic):
                iEndArcAddr = iAddr+self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if not nRawArc & self._addrBitMask:
                    iNextNodeAddr = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    hDst.write("  {:<20}  {:0>16}  i{:>10}   #{:_>10}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:], "?", iNextNodeAddr))
                    iAddr = iEndArcAddr+self.nBytesNodeAddress
                else:
                    hDst.write("  {:<20}  {:0>16}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:]))
                    iAddr = iEndArcAddr
                if nRawArc & self._lastArcMask:
                    hDst.write("\ni{:_>10} -- #{:_>10}\n".format("?", iAddr))
            hDst.close()

    # VERSION 3
    def _morph3 (self, sWord):
        "returns morphologies of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            iAddrNode = iAddr
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    sStem = ">" + self.funcStemming(sWord, self.lArcVal[nArc])
                    # Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    if not nRawArc & self._addrBitMask:
                        iAddr2 = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    else:
                        iAddr2 = iAddrNode + int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesOffset], byteorder='big')
                    nRawArc2 = 0
                    while not nRawArc2 & self._lastArcMask:
                        iEndArcAddr2 = iAddr2 + self.nBytesArc
                        nRawArc2 = int.from_bytes(self.byDic[iAddr2:iEndArcAddr2], byteorder='big')
                        l.append(sStem + "/" + self.lArcVal[nRawArc2 & self._arcMask])
                        iAddr2 = iEndArcAddr2+self.nBytesNodeAddress  if not nRawArc2 & self._addrBitMask  else iEndArcAddr2+self.nBytesOffset
                iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr+self.nBytesOffset
            return l
        return []

    def _stem3 (self, sWord):
        "returns stems list of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if int.from_bytes(self.byDic[iAddr:iAddr+self.nBytesArc], byteorder='big') & self._finalNodeMask:
            l = []
            nRawArc = 0
            #iAddrNode = iAddr
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    l.append(self.funcStemming(sWord, self.lArcVal[nArc]))
                iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr+self.nBytesOffset
            return l
        return []

    def _lookupArcNode3 (self, nVal, iAddr):
        "looks if <nVal> is an arc at the node at <iAddr>, if yes, returns address of next node else None"
        iAddrNode = iAddr
        while True:
            iEndArcAddr = iAddr+self.nBytesArc
            nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
            if nVal == (nRawArc & self._arcMask):
                # the value we are looking for
                if not nRawArc & self._addrBitMask:
                    return int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                return iAddrNode + int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesOffset], byteorder='big')
            # value not found
            if nRawArc & self._lastArcMask:
                return None
            iAddr = iEndArcAddr+self.nBytesNodeAddress  if not nRawArc & self._addrBitMask  else iEndArcAddr+self.nBytesOffset

    def _writeNodes3 (self, spfDest):
        "for debugging only"
        print(" > Write binary nodes")
        with open(spfDest, 'w', 'utf-8', newline="\n") as hDst:
            iAddr = 0
            hDst.write("i{:_>10} -- #{:_>10}\n".format("0", iAddr))
            while iAddr < len(self.byDic):
                iEndArcAddr = iAddr+self.nBytesArc
                nRawArc = int.from_bytes(self.byDic[iAddr:iEndArcAddr], byteorder='big')
                nArc = nRawArc & self._arcMask
                if not nRawArc & self._addrBitMask:
                    iNextNodeAddr = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesNodeAddress], byteorder='big')
                    hDst.write("  {:<20}  {:0>16}  i{:>10}   #{:_>10}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:], "?", iNextNodeAddr))
                    iAddr = iEndArcAddr+self.nBytesNodeAddress
                else:
                    iNextNodeAddr = int.from_bytes(self.byDic[iEndArcAddr:iEndArcAddr+self.nBytesOffset], byteorder='big')
                    hDst.write("  {:<20}  {:0>16}  i{:>10}   +{:_>10}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:], "?", iNextNodeAddr))
                    iAddr = iEndArcAddr+self.nBytesOffset
                if nRawArc & self._lastArcMask:
                    hDst.write("\ni{:_>10} -- #{:_>10}\n".format("?", iAddr))
            hDst.close()








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            if sFlexPattern:
                zFlexPattern = re.compile(sFlexPattern)
            if sTagsPattern:
                zTagsPattern = re.compile(sTagsPattern)
        except re.error:
            print("# Error in regex pattern")
            traceback.print_exc()
        yield from self._select(zFlexPattern, zTagsPattern, 0, "")





    def _select (self, zFlexPattern, zTagsPattern, iAddr, sWord):
        # recursive generator
        for nVal, jAddr in self._getArcs(iAddr):
            if nVal <= self.nChar:
                # simple character
                yield from self._select(zFlexPattern, zTagsPattern, jAddr, sWord + self.lArcVal[nVal])
            else:
                if not zFlexPattern or zFlexPattern.search(sWord):
                    sStem = self.funcStemming(sWord, self.lArcVal[nVal])
                    for nMorphVal, _ in self._getArcs(jAddr):
                        if not zTagsPattern or zTagsPattern.search(self.lArcVal[nMorphVal]):
                            yield [sWord, sStem, self.lArcVal[nMorphVal]]

    def _morph (self, sWord):
        "returns morphologies of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if self.byDic[iAddr] & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + 1
                nRawArc = self.byDic[iAddr]
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    sStem = ">" + self.funcStemming(sWord, self.lArcVal[nArc])
                    # Now , we go to the next node and retrieve all following arcs values, all of them are tags
                    iAddr2 = self.byDic[iEndArcAddr]
                    nRawArc2 = 0
                    while not nRawArc2 & self._lastArcMask:
                        iEndArcAddr2 = iAddr2 + 1
                        nRawArc2 = self.byDic[iAddr2]
                        l.append(sStem + "/" + self.lArcVal[nRawArc2 & self._arcMask])
                        iAddr2 = iEndArcAddr2 + 1
                iAddr = iEndArcAddr + 1
            return l
        return []

    def _stem (self, sWord):
        "returns stems list of <sWord>"
        iAddr = 0
        for c in sWord:
            if c not in self.dChar:
                return []
            iAddr = self._lookupArcNode(self.dChar[c], iAddr)
            if iAddr is None:
                return []
        if self.byDic[iAddr] & self._finalNodeMask:
            l = []
            nRawArc = 0
            while not nRawArc & self._lastArcMask:
                iEndArcAddr = iAddr + 1
                nRawArc = self.byDic[iAddr]
                nArc = nRawArc & self._arcMask
                if nArc > self.nChar:
                    # This value is not a char, this is a stemming code
                    l.append(self.funcStemming(sWord, self.lArcVal[nArc]))
                iAddr = iEndArcAddr + 1
            return l
        return []

    def _lookupArcNode (self, nVal, iAddr):
        "looks if <nVal> is an arc at the node at <iAddr>, if yes, returns address of next node else None"
        while True:
            iEndArcAddr = iAddr + 1
            nRawArc = self.byDic[iAddr]
            if nVal == (nRawArc & self._arcMask):
                # the value we are looking for
                # we return the address of the next node
                return self.byDic[iEndArcAddr]
            # value not found
            if nRawArc & self._lastArcMask:
                return None
            iAddr = iEndArcAddr + 1

    def _getArcs (self, iAddr):
        "generator: return all arcs at <iAddr> as tuples of (nVal, iAddr)"
        while True:
            iEndArcAddr = iAddr + 1
            nRawArc = self.byDic[iAddr]
            yield nRawArc & self._arcMask, self.byDic[iEndArcAddr]
            if nRawArc & self._lastArcMask:
                break
            iAddr = iEndArcAddr + 1

    def _writeNodes (self, spfDest):
        "for debugging only"
        print(" > Write binary nodes")
        with open(spfDest, 'w', 'utf-8', newline="\n") as hDst:
            iAddr = 0
            hDst.write("i{:_>10} -- #{:_>10}\n".format("0", iAddr))
            while iAddr < len(self.byDic):
                iEndArcAddr = iAddr + 1
                nRawArc = self.byDic[iAddr]
                nArc = nRawArc & self._arcMask
                hDst.write("  {:<20}  {:0>16}  i{:>10}   #{:_>10}\n".format(self.lArcVal[nArc], bin(nRawArc)[2:], "?", self.byDic[iEndArcAddr]))

























































































                iAddr = iEndArcAddr + 1


























                if (nRawArc & self._lastArcMask) and iAddr < len(self.byDic):


































































































                    hDst.write("\ni{:_>10} -- #{:_>10}\n".format("?", iAddr))
            hDst.close()

Modified graphspell/str_transform.py from [e27e70d363] to [98c57fa9ba]. 

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"""
Operations on strings:
- calculate distance between two strings
- transform strings with transformation codes
"""

import unicodedata


from .char_player import distanceBetweenChars


#### N-GRAMS

def getNgrams (sWord, n=2):
    "return a list of Ngrams strings"
    return [ sWord[i:i+n]  for i in range(len(sWord)-n+1) ]








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"""
Operations on strings:
- calculate distance between two strings
- transform strings with transformation codes
"""

import unicodedata
import re

from .char_player import distanceBetweenChars, dDistanceBetweenChars


#### N-GRAMS

def getNgrams (sWord, n=2):
    "return a list of Ngrams strings"
    return [ sWord[i:i+n]  for i in range(len(sWord)-n+1) ]
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    sWord = sWord.lower().translate(_xTransCharsForSimplification)
    sNewWord = ""
    for i, c in enumerate(sWord, 1):
        if c != sWord[i:i+1] or (c == 'e' and sWord[i:i+2] != "ee"):  # exception for <e> to avoid confusion between crée / créai
            sNewWord += c
    return sNewWord.replace("eau", "o").replace("au", "o").replace("ai", "éi").replace("ei", "é").replace("ph", "f")







_xTransNumbersToExponent = str.maketrans({
    "0": "⁰", "1": "¹", "2": "²", "3": "³", "4": "⁴", "5": "⁵", "6": "⁶", "7": "⁷", "8": "⁸", "9": "⁹"
})

def numbersToExponent (sWord):
    "convert numeral chars to exponant chars"








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    sWord = sWord.lower().translate(_xTransCharsForSimplification)
    sNewWord = ""
    for i, c in enumerate(sWord, 1):
        if c != sWord[i:i+1] or (c == 'e' and sWord[i:i+2] != "ee"):  # exception for <e> to avoid confusion between crée / créai
            sNewWord += c
    return sNewWord.replace("eau", "o").replace("au", "o").replace("ai", "éi").replace("ei", "é").replace("ph", "f")


def cleanWord (sWord):
    "remove letters repeated more than 2 times"
    return re.sub("(.)\\1{2,}", '\\1\\1', sWord)


_xTransNumbersToExponent = str.maketrans({
    "0": "⁰", "1": "¹", "2": "²", "3": "³", "4": "⁴", "5": "⁵", "6": "⁶", "7": "⁷", "8": "⁸", "9": "⁹"
})

def numbersToExponent (sWord):
    "convert numeral chars to exponant chars"
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                d[i,   j-1] + 1,        # Insertion
                d[i-1, j-1] + nCost,    # Substitution
            )
            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 distanceSift4 (s1, s2, nMaxOffset=5):
    "implementation of general Sift4."
    # https://siderite.blogspot.com/2014/11/super-fast-and-accurate-string-distance.html
    if not s1:
        return len(s2)
    if not s2:








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                d[i,   j-1] + 1,        # Insertion
                d[i-1, j-1] + nCost,    # Substitution
            )
            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 (a, b, boost = .666):
    # https://github.com/thsig/jaro-winkler-JS
    #if (a == b): return 1.0
    a_len = len(a)
    b_len = len(b)
    nMax = max(a_len, b_len)
    a_flag = [None for _ in range(nMax)]
    b_flag = [None for _ in range(nMax)]
    search_range = (max(a_len, b_len) // 2) - 1
    minv = min(a_len, b_len)

    # Looking only within the search range, count and flag the matched pairs.
    Num_com = 0
    yl1 = b_len - 1
    for i in range(a_len):
        lowlim = i - search_range  if i >= search_range  else 0
        hilim  = i + search_range  if (i + search_range) <= yl1  else yl1
        for j in range(lowlim, hilim+1):
            if b_flag[j] != 1 and a[j:j+1] == b[i:i+1]:
                a_flag[j] = 1
                b_flag[i] = 1
                Num_com += 1
                break

    # Return if no characters in common
    if Num_com == 0:
        return 0.0

    # Count the number of transpositions
    k = 0
    N_trans = 0
    for i in range(a_len):
        if a_flag[i] == 1:
            for j in range(k, b_len):
                if b_flag[j] == 1:
                    k = j + 1
                    break
            if a[i] != b[j]:
                N_trans += 1
    N_trans = N_trans // 2

    # Adjust for similarities in nonmatched characters
    N_simi = 0
    if minv > Num_com:
        for i in range(a_len):
            if not a_flag[i]:
                for j in range(b_len):
                    if not b_flag[j]:
                        if a[i] in dDistanceBetweenChars and b[j] in dDistanceBetweenChars[a[i]]:
                            N_simi += dDistanceBetweenChars[a[i]][b[j]]
                            b_flag[j] = 2
                            break

    Num_sim = (N_simi / 10.0) + Num_com

    # Main weight computation
    weight = Num_sim / a_len + Num_sim / b_len + (Num_com - N_trans) / Num_com
    weight = weight / 3

    # Continue to boost the weight if the strings are similar
    if weight > boost:
        # Adjust for having up to the first 4 characters in common
        j = 4  if minv >= 4  else minv
        i = 0
        while i < j  and a[i] == b[i]:
            i += 1
        if i:
            weight += i * 0.1 * (1.0 - weight)
        # Adjust for long strings.
        # After agreeing beginning chars, at least two more must agree
        # and the agreeing characters must be more than half of the
        # remaining characters.
        if minv > 4  and  Num_com > i + 1  and  2 * Num_com >= minv + i:
            weight += (1 - weight) * ((Num_com - i - 1) / (a_len * b_len - i*2 + 2))
    return weight


def distanceSift4 (s1, s2, nMaxOffset=5):
    "implementation of general Sift4."
    # https://siderite.blogspot.com/2014/11/super-fast-and-accurate-string-distance.html
    if not s1:
        return len(s2)
    if not s2:
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Fossil 2.20 [210e89a059] 2022-11-16 18:46:32
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