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will.anderson c5508372ca elp(multilingual): native-el language layer — detect + localized phrases
Phase 3 piece 2. Ports multilingual.py: deterministic language detection
(en/es/pt/it) via stopword + diacritic scoring, localized fixed phrases (SACRED
per-language yes/no/decline/identity), PT/ES->EN retrieval term lexicon, and
EN->target predicate translation. No generative model.

Gate (multilingual_gate.el): 4/4 languages detected correctly; localized
declines + term/pred lexicons verified. Built bounded (elc rc=0 peak 25MB).

Worked through the documented el '+' mis-compile (two chained function-call Int
operands compile as string concat -> corrupt Int -> segfault on the accented
path); fixed by binding each score to an Int var and adding vars singly.

Simplifications (honest): diacritics scored by PRESENCE (str_contains) not
codepoint count (UTF-8 index safety); confidence scalar and the regex-based
parse_directive() from the reference not yet ported (directive parsing deferred
to the dialogue layer).
2026-08-13 15:09:04 -05:00
will.anderson 335298a518 elp(propositions): native-el READ primitive — memory text -> SACRED triples
Phase 3 piece 1. Ports propositions.py off spaCy: the dependency-parser role is
now the el-native parser (parse_spec), and each memory sentence's meaning-spec
IS the triple (subject, predicate, object, modifiers, polarity, tense, source,
confidence). Sentence segmentation + repr parity with propositions.py. NEGATION
SACRED: polarity flows straight from the spec, never dropped/inverted.

Gate (propositions_gate.el): 4/4 SACRED polarity correct on extraction;
multi-sentence memory splits one triple per sentence in reading order with
negation preserved. Built bounded (elc rc=0 peak 24MB, cc rc=0).

Gap (honest): English regular-verb lemmatizer does not restore silent-e
(stores->stor); coreference/passive normalization from the reference not yet
ported (shallow pronoun subject kept as surface).
2026-08-13 14:56:57 -05:00
will.anderson 7d4fdbcc22 elp(comprehend): ES/PT Romance parser path — SACRED polarity cross-lingual
Adds a deterministic Romance front-end to comprehend.el (parse_spec_romance),
dispatched from parse_spec_lang for lang es/pt. English path untouched
(byte-identical, regression gate still 5/5). Pro-drop aware clause skeleton
(subject | neg | verb | object | PP), cross-lingual negation lexemes already
SACRED. Romance telephone gate: polarity PRESERVED 6/6 and EXTRACTED 6/6
through parse->realize->re-parse for 3 ES + 3 PT sentences. Built bounded
(elc rc=0 peak 24MB, cc rc=0).

Named gaps (honest): ending-only verb detection misfires on prepositions
(contra) and -a/-o nouns (menina); lemma recovery keeps surface form; the
non-English realizer is a generic preverbal-negator skeleton so ES/PT surfaces
are not byte-parity. Full paradigm inversion + Romance lexicon deferred.
2026-08-13 14:55:14 -05:00
will.anderson 89ea1b5a15 elp(comprehend): el-native comprehension parser + SACRED polarity end-to-end
PIECE 1 — greenfield el-native parser (comprehend.el), spaCy-free:
- text -> meaning-spec via invertible English morphology (the realizer's own
  irregular table run BACKWARD) + a deterministic clause grammar (subject/verb
  boundary, roles, ditransitive iobj, PP adjuncts, subordination, coordination).
- NEGATION IS SACRED: explicit polarity field, always present, cross-lingual
  lexeme set; standalone neg adverbs (never) captured separately.
- WSD by deterministic syntactic position over a fixed sense inventory
  (flies->fly, like->comparison, saw->see); engram nearest-region is the
  documented runtime upgrade hook (no external model).

Polarity threaded through the whole el contract (was previously dropped at the
boundary): realizer.el realize_lang honors polarity (English do-support /
adverbial / copular negation; generic preverbal negator for es/pt/ca/it/fr/de/ro)
and places iobj; elp.el build_form_from_json carries polarity/neg_word/iobj
across JSON; morphology.el gains 'fight'.

Acceptance (native el telephone test, comprehend_gate.el): on the 5 gate
sentences polarity PRESERVED 5/5 and EXTRACTED 5/5 through parse->realize->
re-parse; 4/5 byte-identical. Built bounded (elc rc=0, cc rc=0).
2026-08-13 13:41:09 -05:00
will.anderson a816b119e7 stage(elp): consolidate scattered lang work — full-lexicon vocabulary + profiles
Backfill ELP vocabulary from FULL lexicons (UniMorph + kaikki.org Wiktionary,
real gender/inflections) for 8 languages, 812,894 entries total, in the proven
seed-fn format matching the 18 ancient vocabularies:
  es 72,032 | fr 130,517 | de 144,692 | la 22,590 | it 193,675 | pt 115,772 |
  ro 86,504 | ca 47,112
4 of these (es fr de la) backfill ELP languages that had morphology but no
vocabulary; it/pt/ro/ca are new Romance (need morphology-*.el ports next).
Adds lang_profile_* for all 8 + reproducible generators under tests/lang-gen.
Vocab is runtime seed data (not in build manifest, like the 18 ancients);
seed-fn format validated to compile to C via elc.
2026-08-13 11:56:03 -05:00
will.anderson ba6e36c3f7 self-review 2026-08-13: the extractor was reading the label; the topic was in the content
auto_term_empty_streak — the counter the 2026-08-06 review added to catch
exactly this — read 50 and climbing. Fifty consecutive curiosity scans where
the soul's dynamic seeding produced nothing and the loop fell back to four
hardcoded phrases. The live WM top said why in one look: every slot was a
Memory node labelled "memory:remembered". The extractor read the LABEL only,
the sentinel guard correctly rejects sentinels, so there was never anything
to extract. It was written against Knowledge nodes, which have real titles,
and was structurally blind to the node type that dominates working memory.

Rather than add a sixth guard to the five that accumulated across four
reviews (genre words, quoted titles, stopwords, label-df), invert the
algorithm. The old one was: take the first word, then check whether it is
acceptable. That shape forces quality to be expressed as rejection, and
rejection can only ever encode floods that already happened.

engram_salient_term() scores EVERY candidate token and returns the argmax of
idf · position · casing (YAKE, Campos et al. 2020, with real corpus IDF
substituted for YAKE's corpus-free proxies), falling back from a sentinel
label to the node's content. Term quality becomes the selection criterion
instead of a veto: a bad token loses to a better token in the same text
without needing to be on any list. Tabu is applied during the argmax, so
inhibition-of-return costs seed quality rather than costing the whole scan.

Two defects found by instrumenting rather than assuming, which is the lesson
this codebase keeps relearning:

  - The first live run returned five ALL-CAPS terms in a row. Memory content
    conventionally opens with an all-caps header, so YAKE's acronym bonus was
    handing the seed to whatever word the heading started with. Restricted to
    tokens <= 5 chars, where all-caps is evidence of an acronym rather than
    evidence of a heading. Long headers now compete on specificity.

  - df via istr_contains is substring matching, so "them" hit inside "theme"
    and function words came back with nonzero df. Added word-boundary df
    locally; engram_label_df keeps substring semantics for its callers.

An earlier draft claimed the min_df floor subsumed the 73 stopwords that
08-03 measured label-df as missing. Re-measured: about:2, whole:1, them:2 —
they clear a floor of 1. The claim was false and the comment now records the
correction. The floor buys lexical reachability; the argmax buys quality; the
stopword list still earns its keep.

Measured on 60 live Memory nodes before shipping: 0 empty, versus 60 of 60
under the old extractor. Terms are topical — HEBBIAN, CONSOLIDATION,
TEMPORAL, crash-loop, PRIMING, NEIGHBORHOOD, DRIFT. Three of sixty are weak
header words; left alone deliberately, because listing them is the move that
produced four blocklists.

ENGRAM_ST_DEBUG=1 dumps the scored candidate set. It exists because there was
no way to see whether the all-caps run was the corpus or the casing weight
without guessing.
2026-08-13 08:43:09 -05:00
42 changed files with 821752 additions and 7 deletions
+65
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@@ -0,0 +1,65 @@
# ELP language consolidation — full-lexicon backfill (stage)
Branch: `stage-elp-lang-consolidation` (stage-bound; NOT the live soul :8742).
Consolidates scattered Python language-realizer work (`~/Desktop/lang-realizers`,
`~/Desktop/lang-poetry-experiment`, `~/semitic_engine`) into the ELP `.el`
structure, generating **full lexicons** (complete UniMorph + kaikki.org
Wiktionary — real gender, real inflections) instead of the demo/curated subsets
the prototypes shipped.
## ELP before this branch
- 18 classical/ancient languages fully done (vocab + morphology + tests):
akk ang cop egy enm fro gez goh got grc non peo pi sa sga sux txb uga.
- 11 modern/classical languages had `morphology-<code>.el` in the build manifest
but **no vocabulary and no lang_profile**: es fr de ja ar he hi ru fi sw la.
- The ES port (`stage-elp-es-port`) had a *demo-scale* vocabulary-es.el (~350
entries, s-expr form).
## Landed on this branch (full-lexicon seed-fn format, matching the 18 ancients)
Vocabulary schema per row: `[lemma, pos, form0, form1, form2, en_gloss, hint]`.
Files are ELP runtime **seed data** (loaded via the Engram at runtime), so — like
all 18 classical `vocabulary-*.el` — they are intentionally NOT in the build
manifest. Syntax validated: the chunked `fn vocab_<code>_seed_pN` format
compiles cleanly to C via `elc` (correct UTF-8).
| code | in-ELP-morph? | vocab entries | verbs | nouns | adjs | profile |
|------|---------------|--------------:|------:|------:|-----:|---------|
| es | yes | 72,032 | 6,695 | 48,353 | 16,984 | yes |
| fr | yes | 130,517 | 7,534 | 77,344 | 45,639 | yes |
| de | yes | 144,692 | 6,661 | 133,162 | 4,869 | yes |
| la | yes | 22,590 | 82 | 13,436 | 9,072 | yes |
| it | no (bonus) | 193,675 | 10,008 | 109,459 | 74,208 | yes |
| pt | no (bonus) | 115,772 | 4,001 | 72,073 | 39,698 | yes |
| ro | no (bonus) | 86,504 | 1,216 | 65,915 | 19,373 | yes |
| ca | no (bonus) | 47,112 | 1,547 | 28,830 | 16,735 | yes |
|**total**| |**812,894** | | | | |
Generators (reproducible): `elp/tests/lang-gen/gen_elp_seed_full.py` (Romance),
`gen_elp_seed_de_la.py` (German declension + Latin case-paradigm mapping). They
read the pre-built morph caches in `~/Desktop/lang-realizers/data/` (UniMorph +
kaikki), which are too large to commit.
## Remaining (honest)
Of the 11 ELP backfill targets, 4 are done (es fr de la). The other 7 have **no
full-lexicon engine** yet — cannot be generated honestly without engine work:
- **ru**: only a 110-entry curated Slavic subset exists; full `rus.unimorph`
present but no `morphology_ru_full` productive loader. Needs a full Russian
morphology module (like the Romance ones) before vocab generation.
- **ja / ko / zh**: validated demo engines (~66-104 hardcoded words) in
`lang-poetry-experiment`, Python only. Agglutinative (ja/ko) + isolating (zh)
need `.el` engine ports + full-lexicon wiring (ja: jpn_unimorph; zh: CC-CEDICT).
- **ar / he (Semitic)**: template engines (16 AR / 8 HE patterns, ~6 roots) in
`~/semitic_engine`, Python only. Root-and-pattern; full UniMorph ara/heb
present but used only for validation. Needs productive root lexicon + `.el` port.
- **hi (Hindi), fi (Finnish), sw (Swahili)**: `morphology-<code>.el` exists in
ELP but there is NO scattered prototype and NO downloaded data for these —
full-lexicon collection (UniMorph/kaikki) + generator still to do.
De/nl/sv Germanic and it/ro/ca/pt Romance verb coverage note: German verbs here
are the ~6.6k caches carry; the it/ro/ca/pt bonus languages have full vocab but
**no `morphology-<code>.el` in ELP yet** (Python realizer exists; `.el` port is
the remaining engine work).
Construction coverage (separate from lexicon): French realizer was ~55%,
Semitic ~3% in the prototypes — full construction coverage remains its own task.
+3
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@@ -80,6 +80,9 @@ build {
"src/grammar.el",
"src/realizer.el",
"src/semantics.el",
"src/comprehend.el",
"src/propositions.el",
"src/multilingual.el",
"src/elp.el",
]
}
File diff suppressed because it is too large Load Diff
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// comprehend.elh — public surface of the ELP comprehension front-end.
// text → meaning-spec (the input half of the ELP; inverse of the realizer).
extern fn parse_spec(text: String) -> [String]
extern fn parse_spec_lang(text: String, lang: String) -> [String]
extern fn parse_json(text: String) -> String
extern fn parse_json_lang(text: String, lang: String) -> String
// Analysis primitives (invertible morphology + deterministic grammar helpers):
extern fn cp_tokenize(text: String) -> [String]
extern fn cp_pron_concept(w: String) -> String
extern fn cp_is_negation(w: String) -> Bool
extern fn cp_is_neg_adverb(w: String) -> Bool
extern fn cp_irr2(surface: String) -> [String]
extern fn cp_reg_verb(w: String) -> [String]
extern fn cp_analyze_verb(surface: String) -> [String]
extern fn cp_verb_start(toks: [String], end: Int) -> Int
extern fn cp_subord_start(toks: [String], n: Int) -> Int
+13
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@@ -63,6 +63,9 @@ import "morphology-cop.el"
import "grammar.el"
import "realizer.el"
import "semantics.el"
// Comprehension front-end (input half: text meaning-spec)
import "comprehend.el"
//
// Entry points:
//
@@ -117,6 +120,9 @@ fn build_form_from_json(semantic_form_json: String, lang_code: String) -> [Strin
let location: String = sem_get(semantic_form_json, "location")
let tense: String = sem_get(semantic_form_json, "tense")
let aspect: String = sem_get(semantic_form_json, "aspect")
let polarity: String = sem_get(semantic_form_json, "polarity")
let neg_word: String = sem_get(semantic_form_json, "neg_word")
let iobj: String = sem_get(semantic_form_json, "iobj")
let form: [String] = native_list_empty()
let form = native_list_append(form, "intent")
@@ -127,12 +133,19 @@ fn build_form_from_json(semantic_form_json: String, lang_code: String) -> [Strin
let form = native_list_append(form, predicate)
let form = native_list_append(form, "patient")
let form = native_list_append(form, patient)
let form = native_list_append(form, "iobj")
let form = native_list_append(form, iobj)
let form = native_list_append(form, "location")
let form = native_list_append(form, location)
let form = native_list_append(form, "tense")
let form = native_list_append(form, tense)
let form = native_list_append(form, "aspect")
let form = native_list_append(form, aspect)
// SACRED: polarity crosses the JSON boundary and is never inferred away.
let form = native_list_append(form, "polarity")
let form = native_list_append(form, polarity)
let form = native_list_append(form, "neg_word")
let form = native_list_append(form, neg_word)
let form = native_list_append(form, "lang")
let form = native_list_append(form, lang_code)
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;;; lang_profile_ca.el — Catalan language profile for ELP.
;;; Mirrors lang_profile_it / _es / _pt; keys the realizer's construction switches.
;;; Catalan is the CLOSEST Romance sibling to the shared engine (~85% conceptual
;;; reuse). The deltas: PRONOMS FEBLES with four position allomorphs, l'-elision,
;;; del/al/pel contractions, the periphrastic preterite (vaig+INF), and NO
;;; essere/avere split (perfect aux is always HAVER; ser/estar is only the copula).
(lang_profile_ca
(language "Catalan")
(iso639 "ca")
(family "Romance")
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop yes) ; null subjects default; overt pronoun = emphatic
(obligatory-subject no)
(grammatical-gender yes) ; m/f; full NP agreement (art + adj + participle)
(do-support no)
(subject-aux-inversion no) ; yes/no Q = declarative order + '?'; no inversion
(article-selection "el/la/l'/els/les ; un/una/uns/unes") ; l'-ELISION:
; el/la -> l' before vowel or (silent) h, glued to
; the next word (l'home, l'illa); de -> d' before vowel
(article-drives-contraction yes) ; article choice feeds prep+article contraction
(adjective-position "postnominal-default + small prenominal class") ; bo/bon,
; mal, gran, nou, vell, primer, molt... prenominal
(question-punct plain) ; ? and ! only (no inverted ¿ ¡)
;; ── MANDATORY prep+article contractions ────────────────────────────────
(contractions ((de el del) (de els dels)
(a el al) (a els als)
(per el pel) (per els pels)))
(contraction-mandatory yes) ; *de el -> del obligatory
(contraction-blocked-before-elision yes) ; de l'home / a l'home (NO *del home)
;; ── clitic system: PRONOMS FEBLES (the headline delta) ──────────────────
(clitics yes)
(clitic-allomorphy four-position) ; per pronoun, form varies by position+onset:
; reinforced (em, et, el) proclitic before a consonant
; elided (m', t', l', n') proclitic before a vowel/h
; full (-me, -lo, -li) enclitic after a consonant/-r
; reduced ('m, 't, 'l, 'ns) enclitic after a vowel
(clitic-placement ((finite proclitic) ; el veig, no m'ho dóna
(imperative-affirmative enclitic) ; dóna'm, digues-me
(imperative-negative present-subjunctive) ; no parlis (delta)
(infinitive enclitic) ; ajudar-me, veure'l
(gerund enclitic))) ; fent-ho
(clitic-combination ((me el "me'l") (te el "te'l") (se el "se'l")
(me la "me la") (me en "me'n")
(li el "l'hi") (li en "n'hi"))) ; dative+accusative clusters
(clitic-particles (hi en ho)) ; locative hi, partitive/genitive en, neuter ho
;; ── verb / aspect system ───────────────────────────────────────────────
(finite-agreement "person+number (6-way)")
(tenses (present imperfet preterit-simple perifrastic-preterit futur
condicional subjuntiu-present subjuntiu-imperfet imperatiu))
(periphrastic-preterite "vaig/vas/va/vam/vau/van + INFINITIVE") ; << hallmark CA
; (vaig cantar = 'I sang'); coexists w/ synthetic pret.
(compound-past "pretèrit perfet = haver(present) + participle")
(perfect-aux "HAVER only") ; << NO essere/avere split (simpler than IT)
(participle-agreement ((haver preceding-acc-clitic))) ; les he vistes; else invariable
(progressive-aux "estar + gerundi")
(copula "ser / estar") ; ser: identity/essential/origin; estar:
; location + transient state (estic cansat, és a casa)
(passive-aux "ser (+ per-agent)")
(future inflectional) ; cantaré, serà
(comparative "més/menys ADJ que")
;; ── SACRED safety bar (shared with es/pt/it/en) ────────────────────────
(negation-faithful yes) ; polarity never dropped/inverted; unplaceable -> FLAG
(negation "no (preverbal) + optional 'pas' + concord") ; no...res/
; ningú/mai/cap/gens/enlloc
(negative-concord yes) ; preverbal negative subject (ningú) keeps 'no'
(neg-reinforcer pas)) ; optional (no ho faré pas)
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;;; lang_profile_de.el — German language profile for ELP.
;;; Mirrors lang_profile_en / lang_profile_es. Keys the realizer's construction
;;; switches. German is the largest Germanic delta from the EN engine: V2 word
;;; order, four morphological cases, and separable-prefix verbs.
(lang_profile_de
(language "German")
(iso639 "de")
(family "Germanic")
(neighbor-base "en") ; realized by extending the English (Germanic) engine
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop no) ; obligatory subject in finite clauses
(obligatory-subject yes)
(grammatical-gender (m f n)) ; three genders; drives article + adj declension
(case-system (nom acc dat gen)) ; four cases on articles/adjs/nouns
(word-order V2) ; finite verb 2nd in main clause
(subordinate-order verb-final) ; "..., dass er den Hund SIEHT."
(separable-verbs yes) ; aufstehen -> "steht ... auf"; ppart "aufgestanden"
(do-support no) ; German negates/questions the finite verb directly
(subject-verb-inversion yes) ; yes/no Q fronts finite verb; wh-Q fills Vorfeld
(article-selection "der/die/das + ein/kein") ; declined by case x gender x number
(adjective-position prenominal)
(adjective-declension (strong weak mixed)) ; chosen by the determiner type
(noun-capitalization yes)
;; ── verb / aspect system ───────────────────────────────────────────────
(finite-agreement "person-and-number") ; full present/past paradigm
(auxiliary-order (modal tense-aux perfect passive main))
(perfect-aux (haben sein)) ; sein for intransitive motion/change verbs
(passive-aux "werden")
(future "werden + infinitive")
(comparative "synthetic (-er / -st, with umlaut)")
;; ── negation ───────────────────────────────────────────────────────────
(negation-markers (nicht kein)) ; kein- negates an indefinite NP; nicht else
(negation-faithful yes) ; SACRED: polarity never dropped/inverted -> FLAG
;; ── lexicon provenance ─────────────────────────────────────────────────
(lexicon-source "UniMorph deu (primary) + kaikki.org German (gender override)")
(lexicon-license "CC-BY-SA 3.0 / GFDL"))
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;;; lang_profile_en.el — English language profile for ELP.
;;; Mirrors lang_profile_es / lang_profile_pt; keys the realizer's construction
;;; switches. English is typologically distinct from the Romance builds, so the
;;; flags differ where the grammar differs.
(lang_profile_en
(language "English")
(iso639 "en")
(family "Germanic")
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop no) ; OBLIGATORY subjects — missing subject is FLAGGED
(obligatory-subject yes)
(grammatical-gender no) ; natural gender only (he/she/it), no NP agreement
(do-support yes) ; negation & questions of lexical verbs insert do/does/did
(subject-aux-inversion yes) ; yes/no + non-subject wh questions invert the operator
(article-selection "a/an/the") ; a/an resolved PHONOLOGICALLY (an hour, a university)
(adjective-position prenominal) ; attributive adjectives precede the noun; invariant
(has-tag-questions yes) ; "...doesn't he?" — operator + reversed polarity
(has-there-existential yes) ; "there is/are/have been ..."
(possessive-clitic "'s") ; saxon genitive; plural in -s -> bare apostrophe
(question-punct plain) ; ? and ! only (no inverted marks)
;; ── verb / aspect system ───────────────────────────────────────────────
(finite-agreement "3sg-present-only") ; only 3sg present -s (+ suppletive be)
(auxiliary-order (modal perfect progressive passive main))
(perfect-aux "have") ; have + past participle
(progressive-aux "be") ; be + present participle
(passive-aux "be") ; be + past participle (+ by-agent)
(future "will + base") ; no inflectional future
(comparative "synthetic-or-periphrastic") ; -er/-est vs more/most by syllables
;; ── SACRED safety bar (shared with es/pt) ──────────────────────────────
(negation-faithful yes) ; polarity never dropped/inverted; unplaceable -> FLAG
;; ── DIALECT overlay (post-realization, one core -> US/UK/AU) ────────────
(dialect US) ; default; profile field switches the overlay
(dialects (US UK AU))
(dialect-canonical US) ; core is authored in US orthography
(dialect-overlay "dialect_en.to_dialect") ; orthography + lexis + grammar prefs
(dialect-covers (spelling lexis collective-agreement gotten/got)))
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;;; lang_profile_es.el — Spanish language profile for ELP.
;;; Keys the realizer's construction switches. Mirrors lang_profile_en / _pt.
(lang_profile_es
(language "Spanish")
(iso639 "es")
(family "Romance")
;; -- core typology flags -------------------------------------------------
(pro-drop yes) ; subjects routinely dropped; agreement carries person
(obligatory-subject no)
(grammatical-gender yes) ; m/f on every noun; article+adjective AGREE
(gender-source lexicon); REAL per-noun gender from UniMorph — NOT a heuristic
(do-support no)
(subject-aux-inversion no) ; questions by intonation/punctuation, not inversion
(question-strategy intonation)
(article-selection "el/la/los/las un/una/unos/unas")
(stressed-a-rule yes) ; fem sg noun in stressed a-/ha- takes el/un (el agua)
(adjective-position postnominal) ; default post; a few prenominal + apocope
(adjective-agreement "gender+number")
(question-punct inverted) ; opening ¿ ¡ required
;; -- MANDATORY CONTRACTIONS (coordinator quality bar) --------------------
(contractions ((de el "del") (a el "al")))
(contraction-mandatory yes) ; 'de el'/'a el' MUST surface as del/al
;; -- verb / aspect system ------------------------------------------------
(verb-classes (ar er ir))
(tenses (present preterite imperfect future conditional))
(moods (ind sbjv imp))
(finite-agreement "person+number (6 slots)")
(perfect-aux "haber") ; haber + past participle (invariant -o)
(progressive-aux "estar") ; estar + gerund
(passive-aux "ser") ; ser + participle (agrees) + por-agent
(copula-split "ser/estar") ; permanent vs stage-level
(future "infinitive + é/ás/á/emos/éis/án")
;; -- clitics / government ------------------------------------------------
(object-clitics yes) ; me te lo la le nos os los las; proclisis/enclisis
(clitic-order "se II I III (le+lo -> se lo)")
(enclisis "imperative/infinitive/gerund + accent repair (dá+me+lo->dámelo)")
(verb-prep-government yes) ; verbs select prep (protestar+contra, escapar+de)
;; -- SACRED safety bar (shared with en/pt) -------------------------------
(negation-faithful yes)) ; polarity never dropped/inverted; unplaceable -> FLAG
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;;; lang_profile_fr.el — French language profile for ELP.
;;; Mirrors lang_profile_it / lang_profile_es; keys the realizer's construction
;;; switches. French is a Romance sibling (~54% of the realizer code and the whole
;;; clause-engine architecture reused), but carries the family's biggest surface
;;; deltas: NOT pro-drop, DISCONTINUOUS negation, and an orthography/phonology
;;; mismatch (elision, liaison) that makes exact-match genuinely hard.
(lang_profile_fr
(language "French")
(iso639 "fr")
(family "Romance")
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop no) ; << French-specific: subject clitic OBLIGATORY
(obligatory-subject yes) ; je/tu/il/elle/nous/vous/ils/elles always overt
(grammatical-gender yes) ; m/f; full NP agreement (art + adj + participle)
(do-support no)
(subject-aux-inversion optional) ; est-ce que (default) OR clitic inversion (vas-tu)
(article-selection "le/la/l'/les ; un/une/des ; PARTITIVE du/de la/de l'/des")
(article-drives-contraction yes) ; à+le=au, de+le=du feed off article choice
(adjective-position "postnominal-default + prenominal-BAGS") ; beau/bon/grand/
; petit/jeune/vieux/nouveau + ordinals prenominal
; (beau->bel, nouveau->nouvel, vieux->vieil / vowel)
(question-punct "space-before") ; French typography: ' ?' ' !' (no ¿¡)
;; ── elision (orthography/phonology mismatch — French-specific) ──────────
(elision ((le l') (la l') (je j') (ne n') (de d') (que qu')
(me m') (te t') (se s') (ce c'))) ; before vowel / h-muet
(elision-h-muet yes) ; l'homme, l'hôpital (h-aspiré exception list kept)
(liaison noted-not-modeled) ; phonological, not written in surface
;; ── MANDATORY prep+article contractions ────────────────────────────────
(contractions ((à le au) (à les aux) (de le du) (de les des)))
(contraction-mandatory yes) ; *à le -> au obligatory; à la / à l' uncontracted
(partitive ((m-sg du) (f-sg "de la") (vowel "de l'") (pl des)))
(partitive-under-neg "de") ; << gap in current build: 'ne … pas de pain'
;; ── clitic system ──────────────────────────────────────────────────────
(clitics yes)
(clitic-order (me te se nous vous | le la les | lui leur | y | en))
(clitic-placement ((finite proclitic) ; je le lui donne
(imperative-affirmative enclitic-hyphen) ; donne-le-moi
(imperative-negative "ne+proclitic+verb+pas") ; ne le donne pas
(infinitive enclitic))) ; PARTIAL: clitic-climbing
; onto infinitive under modal
(clitic-imperative-shift ((me moi) (te toi))) ; final me/te -> moi/toi (donne-moi)
(clitic-particles (y en)) ; locative y, partitive/genitive en
;; ── verb / aspect system ───────────────────────────────────────────────
(finite-agreement "person+number (written; many homophones)")
(tenses (présent imparfait passé-simple futur conditionnel
subjonctif-présent subjonctif-imparfait impératif))
(compound-past "passé-composé = aux(present) + participe passé")
(perfect-aux "être/avoir (LEXICAL selection)") ; << French-specific
(etre-aux-class "intransitive motion/change (aller venir arriver partir
entrer sortir monter descendre naître mourir rester
tomber retourner passer devenir revenir rentrer) + ALL
pronominal verbs")
(participle-agreement ((être subject) ; elle est allée / elles venues
(avoir preceding-direct-object))) ; je les ai vus
(progressive "être en train de + infinitif") ; no dedicated aux
(copula "être (single; no ser/estar, no essere/stare)")
(passive-aux "être (+ par-agent)")
(future inflectional) ; parlera, sera
(comparative "plus/moins ADJ que")
(superlative "le/la plus ADJ (de …)") ; PARTIAL word-order in build
;; ── SACRED safety bar (shared with es/pt/it/en) ────────────────────────
(negation-faithful yes) ; polarity never dropped/inverted; unplaceable -> FLAG
(negation "DISCONTINUOUS: ne (preverbal) … pas/jamais/rien/personne/
plus/guère/que (postverbal)") ; << biggest structural delta
(negation-ne-elides yes) ; ne -> n' before vowel (n'ai pas vu)
(negation-passe-composé "ne + aux + pas + participe") ; n'ai pas vu
(negative-concord partial)) ; personne/rien as arguments post-participle
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;;; lang_profile_it.el — Italian language profile for ELP.
;;; Mirrors lang_profile_es / lang_profile_pt; keys the realizer's construction
;;; switches. Italian is a Romance sibling, so ~85% of the flags match ES/PT; the
;;; essere/avere auxiliary split and phonological article selection are the deltas.
(lang_profile_it
(language "Italian")
(iso639 "it")
(family "Romance")
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop yes) ; null subjects default; overt pronoun = emphatic
(obligatory-subject no)
(grammatical-gender yes) ; m/f; full NP agreement (art + adj + participle)
(do-support no)
(subject-aux-inversion no) ; yes/no Q = declarative order + '?'; no inversion
(article-selection "il/lo/l'/i/gli + la/l'/le ; un/uno/un'/una") ; PHONOLOGICAL:
; lo/gli/uno before s+cons, z, gn, ps, pn, x, y, i+V;
; l'/un' before a vowel (elision, glued to next word)
(article-drives-contraction yes) ; article choice feeds the prep+art contraction
(adjective-position "postnominal-default + prenominal-class") ; bello/buono/grande
; /nuovo/vecchio/primo... prenominal (with apocope)
(question-punct plain) ; ? and ! only (no inverted ¿ ¡)
;; ── MANDATORY prep+article contractions ────────────────────────────────
(contractions ((di il del) (di lo dello) (di la della) (di i dei)
(di gli degli) (di le delle) (di l' dell')
(a il al) (a lo allo) (a la alla) (a i ai) (a gli agli)
(a le alle) (a l' all')
(da il dal) (da la dalla) (da gli dagli) (da l' dall')
(in il nel) (in la nella) (in gli negli) (in l' nell')
(su il sul) (su la sulla) (su gli sugli) (su l' sull')))
(contraction-mandatory yes) ; *di il -> del is obligatory, never uncontracted
(prep-no-contract (per tra fra)) ; per la strada (NOT *perla)
;; ── clitic system ──────────────────────────────────────────────────────
(clitics yes)
(clitic-placement ((finite proclitic) ; lo vedo, non me lo dà
(imperative-affirmative enclitic) ; dammelo, guardalo
(imperative-negative-tu non+infinitive) ; non parlare / non lo fare
(infinitive enclitic) ; vederlo, aiutarmi (drop -e)
(gerund enclitic))) ; dandolo
(clitic-combination ((mi lo "me lo") (ti lo "te lo") (ci lo "ce lo")
(vi lo "ve lo") (si lo "se lo")
(gli lo "glielo") (le lo "glielo"))) ; glielo = ONE word
(clitic-particles (ci ne)) ; locative ci, partitive ne
(raddoppiamento (da fa di va sta)) ; monosyllabic imper double clitic: dammelo
;; ── verb / aspect system ───────────────────────────────────────────────
(finite-agreement "person+number (6-way)")
(tenses (presente imperfetto passato-remoto futuro condizionale
congiuntivo-presente congiuntivo-imperfetto imperativo))
(compound-past "passato-prossimo = aux(present) + participle")
(perfect-aux "essere/avere (LEXICAL selection)") ; << Italian-specific
(essere-aux-class unaccusative) ; motion/change-of-state/copular/pronominal
; (andare venire nascere morire diventare piacere
; + ALL reflexives) -> essere
(participle-agreement ((essere subject) ; è andata / sono arrivati
(avere preceding-acc-clitic))) ; li ho visti
(progressive-aux "stare + gerundio") ; sto parlando
(copula "essere (default) / stare (state: sto bene)")
(passive-aux "essere / venire (+ da-agent)")
(future inflectional) ; parlerò, sarà
(comparative "più/meno ADJ di")
;; ── SACRED safety bar (shared with es/pt/en) ───────────────────────────
(negation-faithful yes) ; polarity never dropped/inverted; unplaceable -> FLAG
(negation "non (preverbal) + concord") ; non...niente/nessuno/mai/più
(negative-concord yes) ; preverbal negative word (nessuno/niente) suppresses non
(neg-adverb-position between-aux-and-participle)) ; non ho MAI visto
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;;; lang_profile_la.el — Latin language profile for ELP.
;;; Keys the realizer's construction switches. Companion to morphology-la.el.
(lang_profile_la
(language "Latin")
(iso639 "la")
(family "Italic")
;; -- core typology flags -------------------------------------------------
(pro-drop yes) ; person carried by verb ending; subjects dropped
(obligatory-subject no)
(grammatical-gender yes) ; m/f/n; adjective AGREES in case+gender+number
(gender-source lexicon) ; REAL per-noun gender from UniMorph lat
(articles none) ; Latin has no articles
(case-system yes) ; NOM GEN DAT ACC ABL VOC (+ rare LOC)
(cases (nom gen dat acc abl voc))
(word-order "SOV (default; free order, case-marked)")
(adjective-position "either (case agreement carries the link)")
(adjective-agreement "case+gender+number")
;; -- verb / aspect system ------------------------------------------------
(verb-classes (1 2 3 3io 4)) ; four conjugations + i-stem 3rd
(tenses (present imperfect future perfect pluperfect futureperfect))
(moods (indicative subjunctive imperative infinitive))
(voices (active passive))
(finite-agreement "person+number (6 slots)")
(citation "principal parts: pres-1sg / pres-inf / perf-participle")
;; -- SACRED safety bar ---------------------------------------------------
(negation-faithful yes)) ; polarity never dropped/inverted
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;;; lang_profile_pt.el — Portuguese language profile for ELP.
;;; Keys the realizer's construction switches. Mirrors lang_profile_es.
(lang_profile_pt
(language "Portuguese")
(iso639 "pt")
(family "Romance")
;; -- core typology flags -------------------------------------------------
(pro-drop yes) ; subjects routinely dropped; agreement carries person
(obligatory-subject no)
(grammatical-gender yes) ; m/f on every noun; article+adjective AGREE
(gender-source lexicon) ; REAL per-noun gender from UniMorph por / kaikki
(do-support no)
(subject-aux-inversion no)
(question-strategy intonation)
(article-selection "o/a/os/as um/uma/uns/umas")
(adjective-position postnominal)
(adjective-agreement "gender+number")
;; -- MANDATORY CONTRACTIONS (prep + article) -----------------------------
(contractions ((de o "do") (de a "da") (em o "no") (em a "na")
(a o "ao") (a a "à") (por o "pelo") (por a "pela")))
(contraction-mandatory yes)
;; -- verb / aspect system ------------------------------------------------
(verb-classes (ar er ir))
(tenses (present preterite imperfect future conditional))
(moods (ind sbjv imp))
(finite-agreement "person+number (6 slots)")
(perfect-aux "ter") ; ter + past participle
(copula-split "ser/estar")
(personal-infinitive yes) ; distinctive PT inflected infinitive
;; -- clitics / government ------------------------------------------------
(object-clitics yes) ; mesoclisis/enclisis/proclisis by context
(verb-prep-government yes)
;; -- SACRED safety bar ---------------------------------------------------
(negation-faithful yes))
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;;; lang_profile_ro.el — Romanian language profile for ELP.
;;; Romanian is the BIG typological delta of the Romance family. The verb/clause
;;; engine and the SACRED negation contract mirror the ES/PT/IT core, but the
;;; NOMINAL system is genuinely new: a SUFFIXED definite article, preserved CASE,
;;; a NEUTER gender, and a VOCATIVE. Those flags mark where the shared engine was
;;; extended rather than reused.
(lang_profile_ro
(language "Romanian")
(iso639 "ro")
(family "Romance (Eastern / Balkan)")
;; ── core typology flags ────────────────────────────────────────────────
(pro-drop yes) ; null subjects default; overt pronoun = emphatic
(obligatory-subject no)
(grammatical-gender yes) ; m / f / NEUTER (n)
(neuter-gender yes) ; << ROMANIAN-SPECIFIC: masc-agreeing SG, fem-agreeing PL
; (un tren nou / două trenuri noi)
(do-support no)
(subject-aux-inversion no) ; yes/no Q = declarative order + '?'
(question-punct plain) ; ? and ! only
;; ── SUFFIXED DEFINITE ARTICLE (the headline engine extension) ───────────
(definite-article suffixed) ; << UNIQUE IN ROMANCE: enclitic on the noun
(definite-forms ((m/n sg "-ul / -le / -l : om->omul, câine->câinele, codru->codrul")
(f sg "-a / -ea / -ua : casă->casa, carte->cartea, stea->steaua")
(m pl "-i : oameni->oamenii")
(f/n pl "-le : case->casele, trenuri->trenurile")))
(article-host ((no-prenom-adj noun) ; omul bun
(prenom-adj adjective))) ; bunul om (adj carries the article)
(indefinite-article ((m/n "un") (f "o") (pl "niște") (gen/dat-pl "unor")))
;; ── CASE (preserved; NOM/ACC vs GEN/DAT) ────────────────────────────────
(case (nom/acc gen/dat vocative)) ; << ROMANIAN-SPECIFIC
(case-syncretism "nom=acc ; gen=dat")
(genitive-marking "gen/dat definite: -lui (m/n), -ei/-i (f), -lor (pl)")
(genitival-article ((m sg "al") (f sg "a") (m pl "ai") (f/n pl "ale"))) ; o carte a lui
(possession "definite-head + gen/dat possessor: casa băiatului")
(vocative ((m sg "-ule/-e : omule, băiete") (f sg "-o : Mario, fato")
(pl "-lor")))
;; ── verb / aspect system ────────────────────────────────────────────────
(finite-agreement "person+number (6-way)")
(tenses (prezent imperfect perfect-simplu conjunctiv-prezent
imperativ (periphrastic: perfect-compus viitor conditional)))
(compound-past "perfectul compus = a-avea-clitic + INVARIABLE participle")
(perfect-aux "a avea (am/ai/a/am/ați/au) — ONE auxiliary for ALL verbs")
(perfect-aux-split no) ; << SIMPLER than Italian: no essere/avere selection
(participle-agreement none) ; invariable in the perfect compus (agrees only as
; an adjective / in the passive)
(future "voi/vei/va/vom/veți/vor + infinitive (viitor literar)")
(conditional "aș/ai/ar/am/ați/ar + infinitive")
(subjunctive "conjunctiv: particle 'să' + subjunctive present")
(modal-complement "modal + să + subjunctive (vreau să merg, poți să ajuți)")
(copula "a fi")
(passive "a fi + participle (participle AGREES like an adjective)")
(comparative "mai / mai puțin ADJ decât")
;; ── clitic system (partial — see honest gaps) ───────────────────────────
(clitics yes)
(clitic-set ((acc te îl o ne îi le) (dat îmi îți îi ne le)
(refl te se ne se)))
(clitic-placement ((finite proclitic) ; îmi place, o văd
(perfect-compus elision) ; << m-am, l-am, i-am (PARTIAL)
(imperative-affirmative enclitic))) ; dă-mi (PARTIAL)
;; ── SACRED safety bar (shared with es/pt/it/en) ─────────────────────────
(negation-faithful yes) ; polarity never dropped/inverted; unplaceable -> FLAG
(negation "nu (single preverbal marker) + concord")
(negative-concord yes) ; nu … nimic / nimeni / niciodată / niciun
(negative-imperative "nu + INFINITIVE : nu pleca! (KNOWN GAP: uses imperative stem)"))
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@@ -250,6 +250,7 @@ fn en_irregular_verb(base: String) -> [String] {
if str_eq(base, "cut") { let r: [String] = ["cut", "cuts", "cut", "cut", "cutting"]; return r }
if str_eq(base, "set") { let r: [String] = ["set", "sets", "set", "set", "setting"]; return r }
if str_eq(base, "hit") { let r: [String] = ["hit", "hits", "hit", "hit", "hitting"]; return r }
if str_eq(base, "fight") { let r: [String] = ["fight", "fights","fought", "fought", "fighting"]; return r }
return empty
}
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// multilingual.el - the language layer for the native-el interlocutor.
//
// Deterministic, NO generative model (ports multilingual.py):
// 1. ml_detect(text) -> ISO code (en/es/pt/it) via stopword + diacritic score
// 2. ml_tr(key, lang) -> localized fixed phrase (SACRED per-language yes/no/decline)
// 3. ml_term(w, lang) -> PT/ES content term -> EN engram equivalent
// 4. ml_translate_pred(lemma, lang) -> EN predicate lemma -> target infinitive
//
// The Python detector count-weights stopwords and diacritics; here diacritics are
// scored by PRESENCE (str_contains) rather than codepoint counting, to stay clear
// of UTF-8 index hazards in the runtime. Faithful enough to classify typical
// queries; documented simplification. Depends on: comprehend (cp_tokenize).
// 1. language detection
fn ml_stop_en(w: String) -> Bool {
if str_eq(w, "the") { return true }
if str_eq(w, "does") { return true }
if str_eq(w, "do") { return true }
if str_eq(w, "did") { return true }
if str_eq(w, "what") { return true }
if str_eq(w, "who") { return true }
if str_eq(w, "is") { return true }
if str_eq(w, "are") { return true }
if str_eq(w, "how") { return true }
if str_eq(w, "you") { return true }
if str_eq(w, "your") { return true }
if str_eq(w, "of") { return true }
if str_eq(w, "to") { return true }
if str_eq(w, "and") { return true }
if str_eq(w, "for") { return true }
if str_eq(w, "explain") { return true }
if str_eq(w, "answer") { return true }
if str_eq(w, "memory") { return true }
if str_eq(w, "with") { return true }
if str_eq(w, "not") { return true }
if str_eq(w, "store") { return true }
return false
}
fn ml_stop_es(w: String) -> Bool {
if str_eq(w, "que") { return true }
if str_eq(w, "qué") { return true }
if str_eq(w, "una") { return true }
if str_eq(w, "usted") { return true }
if str_eq(w, "su") { return true }
if str_eq(w, "cómo") { return true }
if str_eq(w, "como") { return true }
if str_eq(w, "cuál") { return true }
if str_eq(w, "quién") { return true }
if str_eq(w, "está") { return true }
if str_eq(w, "es") { return true }
if str_eq(w, "los") { return true }
if str_eq(w, "las") { return true }
if str_eq(w, "del") { return true }
if str_eq(w, "al") { return true }
if str_eq(w, "explica") { return true }
if str_eq(w, "explique") { return true }
if str_eq(w, "forma") { return true }
if str_eq(w, "con") { return true }
if str_eq(w, "memoria") { return true }
if str_eq(w, "responde") { return true }
return false
}
fn ml_stop_pt(w: String) -> Bool {
if str_eq(w, "que") { return true }
if str_eq(w, "uma") { return true }
if str_eq(w, "você") { return true }
if str_eq(w, "sua") { return true }
if str_eq(w, "seu") { return true }
if str_eq(w, "como") { return true }
if str_eq(w, "memória") { return true }
if str_eq(w, "isso") { return true }
if str_eq(w, "os") { return true }
if str_eq(w, "as") { return true }
if str_eq(w, "da") { return true }
if str_eq(w, "do") { return true }
if str_eq(w, "na") { return true }
if str_eq(w, "no") { return true }
if str_eq(w, "explica") { return true }
if str_eq(w, "forma") { return true }
if str_eq(w, "é") { return true }
if str_eq(w, "está") { return true }
if str_eq(w, "com") { return true }
if str_eq(w, "responda") { return true }
return false
}
fn ml_stop_it(w: String) -> Bool {
if str_eq(w, "che") { return true }
if str_eq(w, "una") { return true }
if str_eq(w, "come") { return true }
if str_eq(w, "della") { return true }
if str_eq(w, "gli") { return true }
if str_eq(w, "è") { return true }
if str_eq(w, "sono") { return true }
if str_eq(w, "questo") { return true }
if str_eq(w, "nel") { return true }
if str_eq(w, "di") { return true }
if str_eq(w, "il") { return true }
if str_eq(w, "cosa") { return true }
if str_eq(w, "per") { return true }
if str_eq(w, "memoria") { return true }
if str_eq(w, "spiega") { return true }
if str_eq(w, "rispondi") { return true }
return false
}
// diacritic PRESENCE score (weight 3 each; hard overrides weight 8).
fn ml_dia_score(low: String, lang: String) -> Int {
let s: Int = 0
if str_eq(lang, "pt") {
if str_contains(low, "ã") { let s = s + 3 }
if str_contains(low, "õ") { let s = s + 3 }
if str_contains(low, "ç") { let s = s + 3 }
if str_contains(low, "ê") { let s = s + 3 }
if str_contains(low, "á") { let s = s + 3 }
// hard PT markers (ã/õ almost never appear outside PT)
if str_contains(low, "ã") { let s = s + 8 }
if str_contains(low, "õ") { let s = s + 8 }
}
if str_eq(lang, "es") {
if str_contains(low, "ñ") { let s = s + 3 }
if str_contains(low, "¿") { let s = s + 3 }
if str_contains(low, "¡") { let s = s + 3 }
if str_contains(low, "á") { let s = s + 3 }
if str_contains(low, "é") { let s = s + 3 }
// hard ES markers
if str_contains(low, "ñ") { let s = s + 8 }
if str_contains(low, "¿") { let s = s + 8 }
if str_contains(low, "¡") { let s = s + 8 }
}
if str_eq(lang, "it") {
if str_contains(low, "è") { let s = s + 3 }
if str_contains(low, "ì") { let s = s + 3 }
if str_contains(low, "ò") { let s = s + 3 }
}
return s
}
fn ml_stop_score(toks: [String], lang: String) -> Int {
let n: Int = native_list_len(toks)
let s: Int = 0
let i: Int = 0
while i < n {
let w: String = native_list_get(toks, i)
if str_eq(lang, "en") { if ml_stop_en(w) { let s = s + 2 } }
if str_eq(lang, "es") { if ml_stop_es(w) { let s = s + 2 } }
if str_eq(lang, "pt") { if ml_stop_pt(w) { let s = s + 2 } }
if str_eq(lang, "it") { if ml_stop_it(w) { let s = s + 2 } }
let i = i + 1
}
return s
}
fn ml_detect(text: String) -> String {
if str_eq(text, "") { return "en" }
let low: String = str_to_lower(text)
let toks: [String] = cp_tokenize(text)
// NOTE: el's overloaded `+` mis-compiles two chained function-call Int operands
// as string concat (documented in comprehend_gate.el). Bind each call to an Int
// var and add vars one at a time so the addition stays integer.
let en: Int = ml_stop_score(toks, "en")
let es_s: Int = ml_stop_score(toks, "es")
let es_d: Int = ml_dia_score(low, "es")
let es: Int = es_s + es_d
let pt_s: Int = ml_stop_score(toks, "pt")
let pt_d: Int = ml_dia_score(low, "pt")
let pt: Int = pt_s + pt_d
let it_s: Int = ml_stop_score(toks, "it")
let it_d: Int = ml_dia_score(low, "it")
let it: Int = it_s + it_d
let best: String = "en"
let bs: Int = en
if es > bs { let best = "es"; let bs = es }
if pt > bs { let best = "pt"; let bs = pt }
if it > bs { let best = "it"; let bs = it }
// weak signal -> honest fallback to English
if bs < 3 { return "en" }
return best
}
// 2. localized fixed phrases (SACRED per-language decline/yes/no)
fn ml_tr(key: String, lang: String) -> String {
if str_eq(key, "no_memory") {
if str_eq(lang, "pt") { return "Não tenho isso na minha memória." }
if str_eq(lang, "es") { return "No tengo eso en mi memoria." }
if str_eq(lang, "it") { return "Non ho quello nella mia memoria." }
return "I don't have that in my memory."
}
if str_eq(key, "parse_fail") {
if str_eq(lang, "pt") { return "Não consegui interpretar isso." }
if str_eq(lang, "es") { return "No pude interpretar eso." }
if str_eq(lang, "it") { return "Non sono riuscito a interpretarlo." }
return "I didn't parse that."
}
if str_eq(key, "yes") {
if str_eq(lang, "pt") { return "Sim" }
if str_eq(lang, "es") { return "" }
if str_eq(lang, "it") { return "" }
return "Yes"
}
if str_eq(key, "no") {
if str_eq(lang, "pt") { return "Não" }
if str_eq(lang, "es") { return "No" }
if str_eq(lang, "it") { return "No" }
return "No"
}
if str_eq(key, "identity") {
if str_eq(lang, "pt") { return "Sou o Neuron, o engrama com quem você está falando." }
if str_eq(lang, "es") { return "Soy Neuron, el engrama con el que estás hablando." }
if str_eq(lang, "it") { return "Sono Neuron, l'engramma con cui stai parlando." }
return "I'm Neuron, the engram you're speaking with."
}
return ""
}
// 3. retrieval term lexicon (PT/ES content term -> EN engram equivalent)
fn ml_term(w: String, lang: String) -> String {
if str_eq(lang, "en") { return w }
if str_eq(w, "saliência") { return "salience" }
if str_eq(w, "saliencia") { return "salience" }
if str_eq(w, "memória") { return "memory" }
if str_eq(w, "memoria") { return "memory" }
if str_eq(w, "geometria") { return "geometry" }
if str_eq(w, "geometrias") { return "geometry" }
if str_eq(w, "geometrías") { return "geometry" }
if str_eq(w, "forma") { return "form" }
if str_eq(w, "consolidação") { return "consolidation" }
if str_eq(w, "consolidación") { return "consolidation" }
if str_eq(w, "aprendizagem") { return "learning" }
if str_eq(w, "aprendizaje") { return "learning" }
if str_eq(w, "") { return "node" }
if str_eq(w, "nodo") { return "node" }
if str_eq(w, "armazenamento") { return "storage" }
if str_eq(w, "almacenamiento") { return "storage" }
if str_eq(w, "estrutura") { return "structure" }
if str_eq(w, "estructura") { return "structure" }
return w
}
// 4. predicate translation (EN lemma -> target infinitive; pass-through) ─────
fn ml_translate_pred(lemma: String, lang: String) -> String {
if str_eq(lang, "en") { return lemma }
if str_eq(lang, "es") {
if str_eq(lemma, "store") { return "almacenar" }
if str_eq(lemma, "use") { return "usar" }
if str_eq(lemma, "have") { return "tener" }
if str_eq(lemma, "be") { return "ser" }
if str_eq(lemma, "give") { return "dar" }
if str_eq(lemma, "make") { return "hacer" }
if str_eq(lemma, "learn") { return "aprender" }
if str_eq(lemma, "form") { return "formar" }
return lemma
}
if str_eq(lang, "pt") {
if str_eq(lemma, "store") { return "armazenar" }
if str_eq(lemma, "use") { return "usar" }
if str_eq(lemma, "have") { return "ter" }
if str_eq(lemma, "be") { return "ser" }
if str_eq(lemma, "give") { return "dar" }
if str_eq(lemma, "make") { return "fazer" }
if str_eq(lemma, "learn") { return "aprender" }
if str_eq(lemma, "form") { return "formar" }
return lemma
}
if str_eq(lang, "it") {
if str_eq(lemma, "store") { return "memorizzare" }
if str_eq(lemma, "use") { return "usare" }
if str_eq(lemma, "have") { return "avere" }
if str_eq(lemma, "be") { return "essere" }
return lemma
}
return lemma
}
+140
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@@ -0,0 +1,140 @@
// propositions.el - the READ primitive over the engram's OWN memories, native el.
//
// Free memory text -> structured PROPOSITIONS (triples):
// (subject, predicate, object, modifiers, polarity, tense, source, confidence)
//
// This is comprehension turned inward: the Python reference (propositions.py) ran
// spaCy's dependency parser over each memory sentence and walked the arcs. Here
// the spaCy role is filled by the el-native parser (comprehend.el / parse_spec):
// each sentence is parsed to a meaning-spec, and the spec's roles ARE the triple.
// Nothing generates text. NEGATION IS SACRED: polarity flows straight from the
// spec's polarity field and is never dropped or inverted.
//
// Depends on: comprehend (parse_spec / parse_spec_lang), grammar (slots_get).
// sentence segmentation
// Split on sentence-final punctuation (. ! ?) and hard newlines. Markdown/long
// memories are handled shallowly (the reference caps + ranks by query overlap;
// that ranking belongs to the dialogue layer, not here).
fn prop_is_boundary(c: String) -> Bool {
if str_eq(c, ".") { return true }
if str_eq(c, "!") { return true }
if str_eq(c, "?") { return true }
if str_eq(c, "\n") { return true }
return false
}
fn prop_split_sentences(text: String) -> [String] {
let out: [String] = native_list_empty()
let n: Int = str_len(text)
let start: Int = 0
let i: Int = 0
while i < n {
let c: String = str_slice(text, i, i + 1)
if prop_is_boundary(c) {
let seg: String = str_slice(text, start, i + 1)
let trimmed: String = cp_trim_punct(seg)
if !str_eq(trimmed, "") {
let out = native_list_append(out, seg)
}
let start = i + 1
}
let i = i + 1
}
if start < n {
let seg: String = str_slice(text, start, n)
let trimmed: String = cp_trim_punct(seg)
if !str_eq(trimmed, "") {
let out = native_list_append(out, seg)
}
}
return out
}
// spec -> proposition record
// A proposition is a slot map (same [String] shape as the spec) with the READ
// contract keys. Modifiers fold the spec's location + iobj adjuncts.
fn prop_confidence(subject: String, predicate: String, object: String) -> String {
if str_eq(predicate, "") { return "0.0" }
if str_eq(subject, "") { return "0.4" }
if str_eq(object, "") { return "0.7" }
return "1.0"
}
fn prop_modifiers(spec: [String]) -> String {
let loc: String = slots_get(spec, "location")
let iobj: String = slots_get(spec, "iobj")
let parts: [String] = native_list_empty()
if !str_eq(loc, "") { let parts = native_list_append(parts, loc) }
if !str_eq(iobj, "") { let parts = native_list_append(parts, "to " + iobj) }
return str_join(parts, "; ")
}
fn prop_from_spec(spec: [String], source_id: String) -> [String] {
let subject: String = slots_get(spec, "agent")
let predicate: String = slots_get(spec, "predicate")
let object: String = slots_get(spec, "patient")
let polarity: String = slots_get(spec, "polarity")
let tense: String = slots_get(spec, "tense")
let mods: String = prop_modifiers(spec)
let conf: String = prop_confidence(subject, predicate, object)
let p: [String] = native_list_empty()
let p = native_list_append(p, "subject"); let p = native_list_append(p, subject)
let p = native_list_append(p, "predicate"); let p = native_list_append(p, predicate)
let p = native_list_append(p, "object"); let p = native_list_append(p, object)
let p = native_list_append(p, "modifiers"); let p = native_list_append(p, mods)
let p = native_list_append(p, "polarity"); let p = native_list_append(p, polarity)
let p = native_list_append(p, "tense"); let p = native_list_append(p, tense)
let p = native_list_append(p, "source"); let p = native_list_append(p, source_id)
let p = native_list_append(p, "confidence"); let p = native_list_append(p, conf)
return p
}
// Extract one proposition from a single sentence (given language).
fn prop_extract_one_lang(sentence: String, lang: String, source_id: String) -> [String] {
let spec: [String] = parse_spec_lang(sentence, lang)
return prop_from_spec(spec, source_id)
}
fn prop_extract_one(sentence: String, source_id: String) -> [String] {
return prop_extract_one_lang(sentence, "en", source_id)
}
// Render a proposition as a compact trace line (repr parity with propositions.py).
fn prop_repr(p: [String]) -> String {
let neg: String = ""
if str_eq(slots_get(p, "polarity"), "neg") { let neg = "NOT " }
let mods: String = slots_get(p, "modifiers")
let modstr: String = ""
if !str_eq(mods, "") { let modstr = " [" + mods + "]" }
let s: String = "(" + slots_get(p, "subject") + " -" + neg + slots_get(p, "predicate")
let s = s + "-> " + slots_get(p, "object") + modstr
let s = s + " conf=" + slots_get(p, "confidence") + ")"
return s
}
// Extract all propositions from a memory's text (one per sentence). Returns a
// flat [String] whose entries are the prop_repr trace lines, in reading order.
fn prop_extract_lang(text: String, lang: String, source_id: String) -> [String] {
let sents: [String] = prop_split_sentences(text)
let m: Int = native_list_len(sents)
let out: [String] = native_list_empty()
let i: Int = 0
while i < m {
let sent: String = native_list_get(sents, i)
let p: [String] = prop_extract_one_lang(sent, lang, source_id)
// drop empty parses (no predicate recovered): honest partial, not noise.
if !str_eq(slots_get(p, "predicate"), "") {
let out = native_list_append(out, prop_repr(p))
}
let i = i + 1
}
return out
}
fn prop_extract(text: String, source_id: String) -> [String] {
return prop_extract_lang(text, "en", source_id)
}
+84
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@@ -248,6 +248,56 @@ fn add_punct(s: String, intent: String) -> String {
return s + "."
}
// Polarity-aware negation (SACRED field honored on the generation side)
//
// Negation must never be dropped between comprehension and realization. The
// meaning-spec carries an explicit "polarity" field ("aff"|"neg") and optional
// "neg_word" (standalone negative adverb, e.g. "never"). English uses
// do-support ("did not see") or preverbal adverb ("never fought"); copular "be"
// takes post-verbal "not"; other languages get a preverbal negator particle.
fn realize_negator(code: String) -> String {
if str_eq(code, "es") { return "no" }
if str_eq(code, "pt") { return "não" }
if str_eq(code, "ca") { return "no" }
if str_eq(code, "it") { return "non" }
if str_eq(code, "fr") { return "ne" }
if str_eq(code, "de") { return "nicht" }
if str_eq(code, "ro") { return "nu" }
return "not"
}
fn realize_assert_neg_en(predicate: String, tense: String, person: String, number: String, agent: String, patient: String, iobj: String, location: String, neg_word: String, profile: [String]) -> String {
let parts: [String] = native_list_empty()
let parts = native_list_append(parts, agent)
if !str_eq(neg_word, "") {
// adverbial negation: "I never fought the ocean."
let verb_surf: String = morph_conjugate(predicate, tense, person, number, profile)
let parts = native_list_append(parts, neg_word)
let parts = native_list_append(parts, verb_surf)
} else {
if str_eq(predicate, "be") {
// copular: "she was not a monster"
let be_form: String = morph_conjugate("be", tense, person, number, profile)
let parts = native_list_append(parts, be_form)
let parts = native_list_append(parts, "not")
} else {
// do-support: "she did not see the man"
let do_form: String = morph_conjugate("do", tense, person, number, profile)
let parts = native_list_append(parts, do_form)
let parts = native_list_append(parts, "not")
let parts = native_list_append(parts, predicate)
}
}
if !str_eq(patient, "") { let parts = native_list_append(parts, patient) }
if !str_eq(iobj, "") {
let parts = native_list_append(parts, "to")
let parts = native_list_append(parts, iobj)
}
if !str_eq(location, "") { let parts = native_list_append(parts, location) }
return str_join(parts, " ")
}
// Main realization entry point
fn realize_lang(form: [String], profile: [String]) -> String {
@@ -284,6 +334,36 @@ fn realize_lang(form: [String], profile: [String]) -> String {
}
// Assertion (declarative)
let polarity: String = slots_get(form, "polarity")
let neg_word: String = slots_get(form, "neg_word")
let iobj: String = slots_get(form, "iobj")
let code: String = lang_get(profile, "code")
// Negative polarity: SACRED never dropped.
if str_eq(polarity, "neg") {
if str_eq(code, "en") {
let sentence: String = realize_assert_neg_en(predicate, tense, person, number, agent, patient, iobj, location, neg_word, profile)
return add_punct(capitalize_first(sentence), "assert")
}
// Generic non-English: affirmative core with a preverbal negator particle.
let neg_particle: String = realize_negator(code)
let vp_pair: [String] = realize_vp_lang(predicate, tense, aspect, person, number, profile)
let verb_surf: String = native_list_get(vp_pair, 0)
let aux_surf: String = native_list_get(vp_pair, 1)
let vp_str: String = neg_particle + " " + gram_build_vp(verb_surf, aux_surf, profile)
let core: String = gram_order_constituents(agent, vp_str, patient, profile)
let parts: [String] = native_list_empty()
let parts = native_list_append(parts, core)
if !str_eq(iobj, "") {
let parts = native_list_append(parts, "to")
let parts = native_list_append(parts, iobj)
}
if !str_eq(location, "") { let parts = native_list_append(parts, location) }
let sentence: String = str_join(parts, " ")
return add_punct(capitalize_first(sentence), "assert")
}
// Affirmative.
let vp_pair: [String] = realize_vp_lang(predicate, tense, aspect, person, number, profile)
let verb_surf: String = native_list_get(vp_pair, 0)
let aux_surf: String = native_list_get(vp_pair, 1)
@@ -293,6 +373,10 @@ fn realize_lang(form: [String], profile: [String]) -> String {
let parts: [String] = native_list_empty()
let parts = native_list_append(parts, core)
if !str_eq(iobj, "") {
let parts = native_list_append(parts, "to")
let parts = native_list_append(parts, iobj)
}
if !str_eq(location, "") {
let parts = native_list_append(parts, location)
}
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+93
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@@ -0,0 +1,93 @@
// comprehend_gate.el - the TELEPHONE TEST in native el (acceptance gate).
//
// For each of the 5 acceptance sentences: parse -> spec, realize the spec back
// to English, re-parse the realized surface, and require the SACRED polarity to
// survive the round-trip (and to have been extracted correctly in the first
// place). Mirrors roundtrip.py's GATE, but fully el-native (no LLM, no spaCy).
fn cp_line(text: String, expected_pol: String) -> String {
let spec: [String] = parse_spec(text)
let pol_in: String = slots_get(spec, "polarity")
let pred: String = slots_get(spec, "predicate")
let surf: String = realize(spec)
let spec2: [String] = parse_spec(surf)
let pol_out: String = slots_get(spec2, "polarity")
let status: String = "LOST"
if str_eq(pol_in, pol_out) { let status = "PRESERVED" }
let okexp: String = "MISMATCH"
if str_eq(pol_in, expected_pol) { let okexp = "ok" }
let out: String = "IN: " + text + "\n"
let out = out + " spec: pol=" + pol_in + " pred=" + pred
let out = out + " agent=" + slots_get(spec, "agent")
let out = out + " pat=" + slots_get(spec, "patient")
let out = out + " iobj=" + slots_get(spec, "iobj")
let out = out + " loc=" + slots_get(spec, "location")
let out = out + " tense=" + slots_get(spec, "tense")
let out = out + " negw=" + slots_get(spec, "neg_word")
let out = out + " subord=" + slots_get(spec, "subord_conj") + "/" + slots_get(spec, "subord_pred") + "\n"
let out = out + " realized: " + surf + "\n"
let out = out + " reparse: pol=" + pol_out + " [" + status + "] expected=" + expected_pol + " (" + okexp + ")\n"
return out
}
fn cp_preserved(text: String) -> Int {
let spec: [String] = parse_spec(text)
let pol_in: String = slots_get(spec, "polarity")
let surf: String = realize(spec)
let spec2: [String] = parse_spec(surf)
let pol_out: String = slots_get(spec2, "polarity")
if str_eq(pol_in, pol_out) { return 1 }
return 0
}
fn cp_correct(text: String, expected_pol: String) -> Int {
let spec: [String] = parse_spec(text)
if str_eq(slots_get(spec, "polarity"), expected_pol) { return 1 }
return 0
}
fn run_gate() -> String {
let s1: String = "I never fought the ocean."
let s2: String = "She did not see the man with the telescope."
let s3: String = "The teacher reads the book to the children."
let s4: String = "The stupid boy ate the cat because he was a monster."
let s5: String = "Time flies like an arrow."
let rep: String = "==== ELP native telephone test (parse -> realize -> re-parse) ====\n"
let rep = rep + cp_line(s1, "neg")
let rep = rep + cp_line(s2, "neg")
let rep = rep + cp_line(s3, "aff")
let rep = rep + cp_line(s4, "aff")
let rep = rep + cp_line(s5, "aff")
// NOTE: accumulate with Int-var + literal increments el's overloaded `+`
// mis-compiles chained function-call int operands as string concat.
let pres: Int = 0
if cp_preserved(s1) == 1 { let pres = pres + 1 }
if cp_preserved(s2) == 1 { let pres = pres + 1 }
if cp_preserved(s3) == 1 { let pres = pres + 1 }
if cp_preserved(s4) == 1 { let pres = pres + 1 }
if cp_preserved(s5) == 1 { let pres = pres + 1 }
let corr: Int = 0
if cp_correct(s1, "neg") == 1 { let corr = corr + 1 }
if cp_correct(s2, "neg") == 1 { let corr = corr + 1 }
if cp_correct(s3, "aff") == 1 { let corr = corr + 1 }
if cp_correct(s4, "aff") == 1 { let corr = corr + 1 }
if cp_correct(s5, "aff") == 1 { let corr = corr + 1 }
let rep = rep + "-----------------------------------------------------------------\n"
let rep = rep + "polarity PRESERVED through round-trip: " + int_to_str(pres) + "/5\n"
let rep = rep + "polarity EXTRACTED correctly: " + int_to_str(corr) + "/5\n"
if pres == 5 {
if corr == 5 {
let rep = rep + "GATE: PASS\n"
} else {
let rep = rep + "GATE: FAIL (extraction)\n"
}
} else {
let rep = rep + "GATE: FAIL (round-trip)\n"
}
return rep
}
println(run_gate())
+87
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@@ -0,0 +1,87 @@
// comprehend_romance_gate.el - ES / PT native telephone test (SACRED polarity).
//
// The spec is language-neutral. This gate proves the Romance front-end extracts
// SACRED polarity correctly and that negation survives parse -> realize ->
// re-parse for Spanish and Portuguese (byte-parity of the surface is NOT expected
// yet the non-English realizer path is a generic preverbal-negator skeleton).
fn rg_line(text: String, lang: String, expected_pol: String) -> String {
let spec: [String] = parse_spec_lang(text, lang)
let pol_in: String = slots_get(spec, "polarity")
let surf: String = realize(spec)
let spec2: [String] = parse_spec_lang(surf, lang)
let pol_out: String = slots_get(spec2, "polarity")
let status: String = "LOST"
if str_eq(pol_in, pol_out) { let status = "PRESERVED" }
let okexp: String = "MISMATCH"
if str_eq(pol_in, expected_pol) { let okexp = "ok" }
let out: String = "IN[" + lang + "]: " + text + "\n"
let out = out + " spec: pol=" + pol_in + " pred=" + slots_get(spec, "predicate")
let out = out + " agent=" + slots_get(spec, "agent")
let out = out + " pat=" + slots_get(spec, "patient")
let out = out + " iobj=" + slots_get(spec, "iobj")
let out = out + " loc=" + slots_get(spec, "location")
let out = out + " tense=" + slots_get(spec, "tense") + "\n"
let out = out + " realized: " + surf + "\n"
let out = out + " reparse: pol=" + pol_out + " [" + status + "] expected=" + expected_pol + " (" + okexp + ")\n"
return out
}
fn rg_pres(text: String, lang: String) -> Int {
let spec: [String] = parse_spec_lang(text, lang)
let surf: String = realize(spec)
let spec2: [String] = parse_spec_lang(surf, lang)
if str_eq(slots_get(spec, "polarity"), slots_get(spec2, "polarity")) { return 1 }
return 0
}
fn rg_corr(text: String, lang: String, expected_pol: String) -> Int {
let spec: [String] = parse_spec_lang(text, lang)
if str_eq(slots_get(spec, "polarity"), expected_pol) { return 1 }
return 0
}
fn run_romance_gate() -> String {
let e1: String = "El niño no comió el pescado."
let e2: String = "Yo nunca luché contra el océano."
let e3: String = "El profesor lee el libro."
let p1: String = "O professor não leu o livro."
let p2: String = "Eu nunca lutei contra o oceano."
let p3: String = "A menina comeu o peixe."
let rep: String = "==== ELP Romance telephone test (ES / PT) ====\n"
let rep = rep + rg_line(e1, "es", "neg")
let rep = rep + rg_line(e2, "es", "neg")
let rep = rep + rg_line(e3, "es", "aff")
let rep = rep + rg_line(p1, "pt", "neg")
let rep = rep + rg_line(p2, "pt", "neg")
let rep = rep + rg_line(p3, "pt", "aff")
let pres: Int = 0
if rg_pres(e1, "es") == 1 { let pres = pres + 1 }
if rg_pres(e2, "es") == 1 { let pres = pres + 1 }
if rg_pres(e3, "es") == 1 { let pres = pres + 1 }
if rg_pres(p1, "pt") == 1 { let pres = pres + 1 }
if rg_pres(p2, "pt") == 1 { let pres = pres + 1 }
if rg_pres(p3, "pt") == 1 { let pres = pres + 1 }
let corr: Int = 0
if rg_corr(e1, "es", "neg") == 1 { let corr = corr + 1 }
if rg_corr(e2, "es", "neg") == 1 { let corr = corr + 1 }
if rg_corr(e3, "es", "aff") == 1 { let corr = corr + 1 }
if rg_corr(p1, "pt", "neg") == 1 { let corr = corr + 1 }
if rg_corr(p2, "pt", "neg") == 1 { let corr = corr + 1 }
if rg_corr(p3, "pt", "aff") == 1 { let corr = corr + 1 }
let rep = rep + "-----------------------------------------------------------------\n"
let rep = rep + "polarity PRESERVED through round-trip: " + int_to_str(pres) + "/6\n"
let rep = rep + "polarity EXTRACTED correctly: " + int_to_str(corr) + "/6\n"
if pres == 6 {
if corr == 6 { let rep = rep + "ROMANCE GATE: PASS\n" }
else { let rep = rep + "ROMANCE GATE: FAIL (extraction)\n" }
} else {
let rep = rep + "ROMANCE GATE: FAIL (round-trip)\n"
}
return rep
}
println(run_romance_gate())
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# -*- coding: utf-8 -*-
"""Full-lexicon vocabulary-{de,la}.el emitters (custom field mapping for the
German declension/gender API and the Latin case-paradigm API). Reuses the
chunked seed-fn writer from gen_elp_seed_full.
"""
import sys, importlib
from gen_elp_seed_full import write_seed
def uw(x):
"""Unwrap (form, source) tuples that some morphology fns return."""
if isinstance(x, (tuple, list)):
return x[0] if x else ""
return x if x is not None else ""
def build_de():
M = importlib.import_module("morphology_de_full")
rows = []; st = {"verbs":0,"nouns":0,"adjs":0}
# nouns: form0=nom-sg(lemma) form1=plural form2=gender
for lem in sorted(M._NOUNS):
if not lem: continue
try:
g = uw(M.noun_gender(lem))
pl = uw(M.pluralize(lem))
except Exception:
continue
rows.append([lem, "noun", lem, pl, g or "", "", "gender:lexicon"])
st["nouns"] += 1
# adjs: form0=positive form1=comparative form2=superlative
for lem in sorted(M._ADJS):
if not lem: continue
try:
cmpr = uw(M.comparative(lem))
sprl = uw(M.superlative(lem))
except Exception:
continue
rows.append([lem, "adj", lem, cmpr, sprl, "", "degree:lexicon"])
st["adjs"] += 1
# verbs (only the ~30 irregular/strong stems the cache carries):
# form0=pres-3sg form1=past-3sg form2=past-participle
if hasattr(M, "_VERBS"):
for lem in sorted({k[0] if isinstance(k, tuple) else k for k in M._VERBS}):
if not lem: continue
try:
f0 = uw(M.finite(lem, "present", "third", "singular"))
f1 = uw(M.finite(lem, "past", "third", "singular"))
pp = uw(M.past_participle(lem))
except Exception:
continue
rows.append([lem, "verb", f0, f1, pp, "", "class:strong/irregular"])
st["verbs"] += 1
return rows, st
def build_la():
M = importlib.import_module("morphology_lat_full")
rows = []; st = {"verbs":0,"nouns":0,"adjs":0}
def dn(lem, c, n):
try:
r = M.decline_noun(lem, c, n)
return uw(r)
except Exception:
return ""
# nouns: dictionary citation — form0=nom-sg form1=gen-sg form2=gender
for lem in sorted(M._NOUNS):
if not lem: continue
nom = dn(lem, "NOM", "SG") or lem
gen = dn(lem, "GEN", "SG")
try: g = uw(M.noun_gender(lem))
except Exception: g = ""
rows.append([lem, "noun", nom, gen, g, "", "case-paradigm nom/gen-sg"])
st["nouns"] += 1
# adjs: three-gender nom-sg citation — form0=masc form1=fem form2=neut
for lem in sorted(M._ADJS):
if not lem: continue
try:
m = uw(M.decline_adj(lem, "NOM", "MASC", "SG")) or lem
f = uw(M.decline_adj(lem, "NOM", "FEM", "SG"))
nt = uw(M.decline_adj(lem, "NOM", "NEUT", "SG"))
except Exception:
continue
rows.append([lem, "adj", m, f, nt, "", "3-gender nom-sg"])
st["adjs"] += 1
# verbs: principal parts — form0=pres-ind-1sg form1=pres-infinitive form2=perf-participle
if hasattr(M, "_VERBS"):
for lem in sorted({k[0] if isinstance(k, tuple) else k for k in M._VERBS}):
if not lem: continue
try:
f0 = uw(M.conjugate(lem, "present", "indicative", "active", "first", "singular"))
inf = uw(M.infinitive(lem, "present", "active"))
pp = uw(M.participle(lem, "perfect", "nom", "m", "singular"))
except Exception:
continue
rows.append([lem, "verb", f0, inf, pp, "", "principal-parts pres1sg/inf/pfppl"])
st["verbs"] += 1
return rows, st
if __name__ == "__main__":
lang = sys.argv[1]; out = sys.argv[2]
rows, st = build_de() if lang == "de" else build_la()
total, _ = write_seed(lang, rows, st, out)
print(f"{lang}: wrote {out} total={total} verbs={st['verbs']} nouns={st['nouns']} adjs={st['adjs']}")
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# -*- coding: utf-8 -*-
"""gen_elp_seed_full.py — emit a FULL-lexicon vocabulary-{lang}.el in the
established ELP seed-fn format (same as vocabulary-non.el / the 18 classical
languages), iterating the ENTIRE morphology_{lang}_full lexicon (every verb,
noun, adjective lemma) — NOT a curated demo core.
Schema per row: [lemma, pos, form0, form1, form2, en_translation, semantic_hint]
Verbs: form0=pres-ind-3sg form1=preterite-3sg form2=past-participle
Nouns: form0=singular form1=plural form2=REAL gender (lexicon)
Adjs : form0=masc-sg form1=fem-sg form2=masc-pl
Output structure (chunked to stay within the proven ~5k-append/function scale):
fn vocab_{lang}_seed_pN(v) -> [[String]] { ... appends ... return v }
fn vocab_{lang}_seed() -> [[String]] { chains all chunks; return v }
fn vocab_{lang}_lookup(w) -> [String] { linear scan }
Usage: python3 gen_elp_seed_full.py <lang> <out.el>
"""
import sys, importlib
CHUNK = 5000
def esc(s):
return str(s).replace("\\", "\\\\").replace('"', '\\"')
def row(fields):
return " let v = native_list_append(v, [" + ", ".join(f'"{esc(f)}"' for f in fields) + "])"
def build_rows(lang, M):
rows = []
stats = {"verbs":0,"nouns":0,"adjs":0}
has = lambda n: hasattr(M, n)
# --- verbs ---
if has("_VERBS") and has("conjugate"):
verbs = sorted({k[0] for k in M._VERBS})
for lem in verbs:
if not lem: continue
try:
f0, s0 = M.conjugate(lem, "ind", "present", "third", "singular")
f1, _ = M.conjugate(lem, "ind", "preterite", "third", "singular")
pp, _ = (M.participle(lem) if has("participle") else ("",""))
except Exception:
continue
vclass = lem[-2:] if lem[-2:] in ("ar","er","ir","re") else lem[-2:]
rows.append([lem, "verb", f0 or "", f1 or "", pp or "", "", "class:"+vclass+" src:"+str(s0)])
stats["verbs"] += 1
# --- nouns ---
if has("_NOUNS") and has("inflect_noun"):
for lem in sorted(M._NOUNS):
if not lem: continue
try:
sg, _ = M.inflect_noun(lem, "singular")
pl, _ = M.inflect_noun(lem, "plural")
g = M.noun_gender(lem) if has("noun_gender") else ""
except Exception:
continue
src = "lexicon" if (isinstance(M._NOUNS.get(lem), dict) and M._NOUNS[lem].get("g")) else "heuristic"
rows.append([lem, "noun", sg or lem, pl or "", g or "", "", "gender:"+src])
stats["nouns"] += 1
# --- adjectives ---
if has("_ADJS") and has("inflect_adj"):
for lem in sorted(M._ADJS):
if not lem: continue
try:
m_sg, _ = M.inflect_adj(lem, "m", "singular")
f_sg, _ = M.inflect_adj(lem, "f", "singular")
m_pl, _ = M.inflect_adj(lem, "m", "plural")
except Exception:
continue
rows.append([lem, "adj", m_sg or lem, f_sg or "", m_pl or "", "", "src:lexicon"])
stats["adjs"] += 1
return rows, stats
def write_seed(lang, rows, stats, out_path):
"""Write vocabulary-{lang}.el in the chunked seed-fn format from prebuilt rows.
Each row is a 7-field list [lemma,pos,f0,f1,f2,gloss,hint]."""
total = len(rows)
chunks = [rows[i:i+CHUNK] for i in range(0, total, CHUNK)] or [[]]
L = []
L.append(f"// vocabulary-{lang}.el — FULL {lang} lexicon for ELP surface realization.")
L.append(f"// Generated by gen_elp_seed_full.py from morphology_{lang}_full")
L.append(f"// (real UniMorph + kaikki.org Wiktionary forms; gender from lexicon, not heuristic).")
L.append(f"// Entries: {total} (verbs={stats['verbs']} nouns={stats['nouns']} adjs={stats['adjs']})")
L.append(f"// Schema: [lemma, pos, form0, form1, form2, en_translation, semantic_hint]")
L.append(f"// verbs: form0=pres-3sg form1=pret-3sg form2=past-participle")
L.append(f"// nouns: form0=sg form1=pl form2=REAL gender adjs: form0=m-sg form1=f-sg form2=m-pl")
L.append("")
for ci, ch in enumerate(chunks):
L.append(f"fn vocab_{lang}_seed_p{ci}(v: [[String]]) -> [[String]] {{")
for r in ch:
L.append(row(r))
L.append(" return v")
L.append("}")
L.append("")
L.append(f"fn vocab_{lang}_seed() -> [[String]] {{")
L.append(" let v: [[String]] = native_list_empty()")
for ci in range(len(chunks)):
L.append(f" let v = vocab_{lang}_seed_p{ci}(v)")
L.append(" return v")
L.append("}")
L.append("")
L.append(f"fn vocab_{lang}_lookup(word: String) -> [String] {{")
L.append(f" let vocab: [[String]] = vocab_{lang}_seed()")
L.append(" let n: Int = native_list_len(vocab)")
L.append(" let i: Int = 0")
L.append(" while i < n {")
L.append(" let entry: [String] = native_list_get(vocab, i)")
L.append(' if str_eq(native_list_get(entry, 0), word) { return entry }')
L.append(" let i = i + 1")
L.append(" }")
L.append(" return native_list_empty()")
L.append("}")
with open(out_path, "w", encoding="utf-8") as fh:
fh.write("\n".join(L) + "\n")
return total, stats
def emit(lang, out_path):
M = importlib.import_module(f"morphology_{lang}_full")
rows, stats = build_rows(lang, M)
return write_seed(lang, rows, stats, out_path)
if __name__ == "__main__":
lang, out = sys.argv[1], sys.argv[2]
total, stats = emit(lang, out)
print(f"{lang}: wrote {out} total={total} verbs={stats['verbs']} nouns={stats['nouns']} adjs={stats['adjs']}")
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# -*- coding: utf-8 -*-
"""morphology_ca_full.py — production-grade Catalan morphological generator.
Same design as morphology_it_full.py (its Romance sibling); Catalan-specific data.
VERBS
UniMorph Catalan (github.com/unimorph/cat, CC-BY-SA 3.0)
7,535 verb lemmas × paradigm, CLEAN orthography:
present, imperfet (PST;IPFV), pretèrit simple (PST;PFV), futur,
condicional (COND), subjuntiu present (SBJV;PRS) / imperfet (SBJV;PST),
imperatiu (POS;IMP), infinitiu (NFIN), gerundi (V.CVB;PRS),
participi (V.PTCP;PST) — WITH full gender+number agreement forms
(cantat/cantada/cantats/cantades) stored directly.
ca_irreg_verbs.json — verbs UniMorph MISSES or under-populates
(anar, fer, plus core auxiliaries ser/haver/estar/tenir…), extracted from
kaikki.org Catalan by build_ca_irreg.py. Priority layer. Supplies anar,
whose present (vaig/vas/va/anem/aneu/van) is ALSO the PERIPHRASTIC-PRETERITE
auxiliary (vaig cantar = 'I sang') — a hallmark Catalan construction.
NOUNS + ADJECTIVES — kaikki.org Catalan (Wiktionary extract, CC-BY-SA 3.0)
noun lemmas WITH inherent gender + real plural (resolved PER LEMMA).
adjective lemmas with real feminine + plural forms.
Fallbacks degrade, never crash:
verbs : regular -ar/-er/-re/-ir rule generator (+ -car/-gar/-çar spelling).
nouns : gender heuristic + rule pluralization (-a→-es with ç/c/g/j/qu/gu
spelling changes; sibilant-final → -os; else -s). Ambiguous → FLAG.
adjs : -o? no (Catalan masc often consonant/-e); fem -a rule + plural rule.
Confidence flag per form: "lexicon" | "rule" | "fallback" (low → FLAG).
Public API (used by realizer_ca.py):
conjugate(lemma, mood, tense, person, number) -> (form, conf)
peri_pret_aux(person, number) -> form # anar-present, for vaig+INF
participle(lemma, gender, number) -> (form, conf)
gerund(lemma) -> (form, conf)
noun_gender(lemma) -> "m"|"f"
inflect_noun(lemma, number, gender=None) -> (form, conf)
inflect_adj(lemma, gender, number) -> (form, conf)
lexicon_stats() -> dict
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "cat.unimorph")
_IRREG = os.path.join(_HERE, "data", "ca_irreg_verbs.json")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_ca.jsonl")
_CACHE = os.path.join(_HERE, "data", "ca_morph_cache.pkl")
_VERB_KEYMAP = {
("ind", "present"): {"IND", "PRS"},
("ind", "imperfect"): {"IND", "PST", "IPFV"},
("ind", "preterite"): {"IND", "PST", "PFV"},
("ind", "future"): {"IND", "FUT"},
("ind", "conditional"): {"COND"},
("sbjv", "present"): {"SBJV", "PRS"},
("sbjv", "imperfect"): {"SBJV", "PST"},
("imp", "affirmative"): {"POS", "IMP"},
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
def _feat_set(tag):
return set(tag.split(";"))
# ── verbs from UniMorph ──────────────────────────────────────────────────────────
def _build_verbs():
verbs = {}
part = {} # lemma -> {("m","SG"):form, ("f","SG"):..., ("m","PL"):..., ("f","PL"):...}
ger = {}
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V.PTCP":
if "PST" in f:
g = "f" if "FEM" in f else "m"
n = "PL" if "PL" in f else "SG"
part.setdefault(lemma, {})[(g, n)] = form
continue
if head == "V.CVB":
if "PRS" in f:
ger.setdefault(lemma, form)
continue
if head != "V":
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
for (mood, tense), req in _VERB_KEYMAP.items():
if not req <= f:
continue
if tense == "imperfect" and "PFV" in f:
continue
if tense == "preterite" and "IPFV" in f:
continue
verbs.setdefault((lemma, f"{mood}|{tense}|{person}|{number}"), form)
break
return verbs, part, ger
# ── kaikki nouns + adjectives ────────────────────────────────────────────────────
_EXCL_FORM_TAGS = {"alternative", "archaic", "obsolete", "dialectal", "regional",
"diminutive", "augmentative", "pejorative", "comparative",
"superlative", "misspelling", "rare", "informal", "literary",
"poetic", "error-unrecognized-form", "Balearic", "Valencian",
"dated", "nonstandard"}
def _kaikki_gender(arg):
if not arg:
return None
a = str(arg).lower()
if a.startswith("f"):
return "f"
if a.startswith("m"):
return "m"
return None
def _build_nouns_adjs():
nouns = {}
adjs = {}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
pos = d.get("pos")
word = d.get("word", "")
if not word or " " in word:
continue
forms = d.get("forms", []) or []
if pos == "noun":
ht = d.get("head_templates") or []
g = None
if ht:
g = _kaikki_gender((ht[0].get("args") or {}).get("1"))
if g is None:
tags = d.get("tags") or []
if "feminine" in tags:
g = "f"
elif "masculine" in tags:
g = "m"
pl = None
for x in forms:
t = set(x.get("tags") or [])
if "plural" in t and not (t & _EXCL_FORM_TAGS):
fm = x.get("form")
if fm and " " not in fm and fm not in ("#", "", "-"):
pl = fm
break
if word not in nouns:
nouns[word] = {"g": g, "SG": word, "PL": pl}
else:
cur = nouns[word]
if cur.get("g") is None and g:
cur["g"] = g
if not cur.get("PL") and pl:
cur["PL"] = pl
elif pos == "adj":
d0 = adjs.setdefault(word, {})
d0.setdefault(("m", "SG"), word)
for x in forms:
t = set(x.get("tags") or [])
fm = x.get("form")
if not fm or " " in fm or (t & _EXCL_FORM_TAGS):
continue
if "feminine" in t and "plural" in t:
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
elif "masculine" in t and "plural" in t:
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
elif "feminine" in t:
d0[("f", "SG")] = d0.get(("f", "SG")) or fm
elif "plural" in t:
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
return nouns, adjs
def _build_cache():
verbs, part, ger = _build_verbs()
nouns, adjs = _build_nouns_adjs()
with open(_IRREG, encoding="utf-8") as fh:
irreg = json.load(fh)
data = {"verbs": verbs, "part": part, "ger": ger,
"nouns": nouns, "adjs": adjs, "irreg": irreg}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
srcs = [_UNIMORPH, _KAIKKI, _IRREG]
newest = max(os.path.getmtime(s) for s in srcs if os.path.exists(s))
if os.path.getmtime(_CACHE) >= newest:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _PART, _GER, _NOUNS, _ADJS, _IRREGV = (
_LEX["verbs"], _LEX["part"], _LEX["ger"], _LEX["nouns"], _LEX["adjs"],
_LEX["irreg"])
_PERI = _IRREGV.get("_peri_pret_aux", {})
# ── regular verb rule fallback ───────────────────────────────────────────────────
def _vclass(lemma):
if lemma.endswith("ar"):
return "ar"
if lemma.endswith("re"):
return "re"
if lemma.endswith("er"):
return "er"
if lemma.endswith("ir"):
return "ir"
return None
# endings [1sg,2sg,3sg,1pl,2pl,3pl] — central Catalan
_REG = {
("ind", "present", "ar"): ["o", "es", "a", "em", "eu", "en"],
("ind", "present", "re"): ["o", "s", "", "em", "eu", "en"],
("ind", "present", "er"): ["o", "s", "", "em", "eu", "en"],
("ind", "present", "ir"): ["o", "es", "", "im", "iu", "en"], # pure -ir (dormir)
("ind", "imperfect", "ar"): ["ava", "aves", "ava", "àvem", "àveu", "aven"],
("ind", "imperfect", "re"): ["ia", "ies", "ia", "íem", "íeu", "ien"],
("ind", "imperfect", "er"): ["ia", "ies", "ia", "íem", "íeu", "ien"],
("ind", "imperfect", "ir"): ["ia", "ies", "ia", "íem", "íeu", "ien"],
("ind", "preterite", "ar"): ["í", "ares", "à", "àrem", "àreu", "aren"],
("ind", "preterite", "re"): ["í", "eres", "é", "érem", "éreu", "eren"],
("ind", "preterite", "er"): ["í", "eres", "é", "érem", "éreu", "eren"],
("ind", "preterite", "ir"): ["í", "ires", "í", "írem", "íreu", "iren"],
("sbjv", "present", "ar"): ["i", "is", "i", "em", "eu", "in"],
("sbjv", "present", "re"): ["i", "is", "i", "em", "eu", "in"],
("sbjv", "present", "er"): ["i", "is", "i", "em", "eu", "in"],
("sbjv", "present", "ir"): ["i", "is", "i", "im", "iu", "in"],
("sbjv", "imperfect", "ar"): ["és", "essis", "és", "éssim", "éssiu", "essin"],
("sbjv", "imperfect", "re"): ["és", "essis", "és", "éssim", "éssiu", "essin"],
("sbjv", "imperfect", "er"): ["és", "essis", "és", "éssim", "éssiu", "essin"],
("sbjv", "imperfect", "ir"): ["ís", "issis", "ís", "íssim", "íssiu", "issin"],
("imp", "affirmative", "ar"): [None, "a", "i", "em", "eu", "in"],
("imp", "affirmative", "re"): [None, "", "i", "em", "eu", "in"],
("imp", "affirmative", "er"): [None, "", "i", "em", "eu", "in"],
("imp", "affirmative", "ir"): [None, "", "i", "im", "iu", "in"],
}
_FUT = ["é", "às", "à", "em", "eu", "an"]
_COND = ["ia", "ies", "ia", "íem", "íeu", "ien"]
def _slot_idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _apply_ar_spelling(stem, ending):
"""-car/-gar/-çar/-jar spelling before front (e/i) endings."""
front = ending[:1] in ("e", "i", "é", "í")
if not front:
# ç before back vowel stays; but -çar stem already ends ç
return stem + ending
if stem.endswith("c"):
return stem[:-1] + "qu" + ending
if stem.endswith("g"):
return stem[:-1] + "gu" + ending
if stem.endswith("ç"):
return stem[:-1] + "c" + ending
if stem.endswith("j"):
return stem[:-1] + "g" + ending
if stem.endswith("qu"):
return stem + ending
return stem + ending
def _rule_conjugate(lemma, mood, tense, person, number):
vc = _vclass(lemma)
if vc is None:
return None
body = lemma[:-2]
i = _slot_idx(person, number)
if mood == "ind" and tense in ("future", "conditional"):
# future/cond stem = infinitive (for -re verbs drop final -e)
stem = lemma[:-1] if vc == "re" else lemma
end = (_FUT if tense == "future" else _COND)[i]
return stem + end
table = _REG.get((mood, tense, vc))
if not table:
return None
end = table[i]
if end is None:
return None
if vc == "ar":
return _apply_ar_spelling(body, end)
# -re/-er/-ir: guard double vowel
if body and body[-1:] == end[:1] and end[:1] in "":
return body[:-1] + end
return body + end
# ── PUBLIC: verb conjugation ─────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number):
lemma = lemma.strip().lower()
key = f"{mood}|{tense}|{_PERSON.get(person,'?')}|{number and number[:2].upper()}"
key = f"{mood}|{tense}|{_PERSON.get(person,'?')}|{_NUMBER.get(number,'?')}"
# UniMorph (cleanly accented) takes priority; the kaikki irregulars layer is a
# FALLBACK for verbs/slots UniMorph lacks (anar, fer, and rarer paradigm cells).
p, n = _PERSON.get(person), _NUMBER.get(number)
if p and n:
form = _VERBS.get((lemma, f"{mood}|{tense}|{p}|{n}"))
if form:
return form, "lexicon"
ir = _IRREGV.get(lemma)
if ir and key in ir:
return ir[key], "lexicon"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r is not None:
return r, "rule"
return lemma, "fallback"
def peri_pret_aux(person, number):
"""anar-present auxiliary for the periphrastic preterite (vaig cantar)."""
return _PERI.get(f"{_PERSON.get(person,'3')}|{_NUMBER.get(number,'SG')}", "va")
# ── PUBLIC: participle + gerund ──────────────────────────────────────────────────
def participle(lemma, gender="m", number="singular"):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
ir = _IRREGV.get(lemma)
base = None
if ir and "part" in ir:
# prefer explicit irregular agreement form (part_mSG/part_fSG/...)
exact = ir.get("part_" + g + num)
if exact:
return exact, "lexicon"
base = ir["part"]
elif lemma in _PART:
table = _PART[lemma]
if (g, num) in table:
return table[(g, num)], "lexicon"
base = table.get(("m", "SG"))
if base is None:
vc = _vclass(lemma)
if vc == "ar":
base = lemma[:-2] + "at"
elif vc == "ir":
base = lemma[:-2] + "it"
elif vc in ("er", "re"):
base = lemma[:-2] + "ut"
else:
return lemma, "fallback"
conf = "rule"
else:
conf = "lexicon"
# agreement on -t/-ut/-at/-it participles: m.sg base, f.sg +a (-da? no: -ada),
# Catalan: cantat/cantada/cantats/cantades; -t → f -da, pl -ts/-des
if base.endswith("t"):
stem = base[:-1]
forms = {"m|SG": base, "f|SG": stem + "da",
"m|PL": base + "s", "f|PL": stem + "des"}
return forms[f"{g}|{num}"], conf
if base.endswith("s"): # after sibilant participle (rare): pres->presa
stem = base
forms = {"m|SG": base, "f|SG": base + "a",
"m|PL": base + "os", "f|PL": base + "es"}
return forms[f"{g}|{num}"], conf
return base, conf
def gerund(lemma):
lemma = lemma.strip().lower()
ir = _IRREGV.get(lemma)
if ir and "ger" in ir:
return ir["ger"], "lexicon"
if lemma in _GER:
return _GER[lemma], "lexicon"
vc = _vclass(lemma)
if vc == "ar":
return lemma[:-2] + "ant", "rule"
if vc in ("er", "re"):
return lemma[:-2] + "ent", "rule"
if vc == "ir":
return lemma[:-2] + "int", "rule"
return lemma, "fallback"
# ── PUBLIC: noun gender + number ─────────────────────────────────────────────────
_FEM_SUF = ("ció", "sió", "tat", "tud", "esa", "esa", "dat", "ança", "ència",
"ància", "tud", "ícia", "esa", "or") # note -or is mixed; kaikki wins
_MASC_SUF = ("atge", "ment", " isme", "or")
def _gender_heuristic(noun):
for suf in ("ció", "sió", "tat", "tud", "esa", "ança", "ència", "ància",
"ícia", "etat"):
if noun.endswith(suf):
return "f"
if noun.endswith("a") and not noun.endswith("ma"):
return "f"
return "m"
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g") in ("m", "f"):
return d["g"]
return _gender_heuristic(lemma)
def _rule_plural(noun, gender):
"""Deterministic Catalan pluralization. (form, ok); ok=False FLAGS ambiguity."""
if not noun:
return noun, True
# stressed final vowel with accent → +ns (mà→mans is irregular; but capità→capitans)
if noun[-1:] in ("à", "é", "í", "ó", "ú"):
return noun + "ns", True
if noun.endswith("ça"):
return noun[:-2] + "ces", True # plaça→places
if noun.endswith("ca"):
return noun[:-2] + "ques", True # branca→branques
if noun.endswith("ga"):
return noun[:-2] + "gues", True # amiga→amigues
if noun.endswith("ja"):
return noun[:-2] + "ges", True # pluja→pluges
if noun.endswith("qua"):
return noun[:-3] + "qües", True
if noun.endswith("gua"):
return noun[:-3] + "gües", True
if noun.endswith("a"):
return noun[:-1] + "es", True # casa→cases
# sibilant-final → -os
if noun.endswith(("s", "ç", "x", "ig")) or noun.endswith(("ix", "tx", "tj")):
if noun.endswith("ç"):
return noun[:-1] + "ços", True # braç→braços
return noun + "os", True # peix→peixos, gas→gasos
if noun[-1:] in ("e", "i", "o", "u"):
return noun + "s", True
# consonant-final
return noun + "s", True
def inflect_noun(lemma, number, gender=None):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if number == "singular":
return (d["SG"] if d and d.get("SG") else lemma), ("lexicon" if d else "rule")
if d and d.get("PL"):
return d["PL"], "lexicon"
g = gender or noun_gender(lemma)
form, ok = _rule_plural(lemma, g)
return form, ("rule" if ok else "fallback")
# ── PUBLIC: adjective agreement ──────────────────────────────────────────────────
def _fem_of(adj):
"""Regular Catalan feminine: consonant/-o? Catalan masc usually consonant or -e.
default +a with spelling changes; -e→-a for some; but many are invariable."""
a = adj
if a.endswith("a"):
return a
if a.endswith("e"):
return a[:-1] + "a" # ample→? actually 'ample' invariable; kaikki wins
if a.endswith("u"):
return a + "a"
if a.endswith("c"):
return a[:-1] + "ca" # ric→rica
if a.endswith("t"):
return a + "a" # alt→alta
return a + "a"
def inflect_adj(lemma, gender, number):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
d = _ADJS.get(lemma)
if d:
form = d.get((g, num))
if form:
return form, "lexicon"
sg = d.get((g, "SG")) or d.get(("m", "SG")) or lemma
if num == "PL":
pl, ok = _rule_plural(sg, g)
return pl, ("rule" if ok else "fallback")
return sg, "lexicon"
# rule fallback
base = lemma if g == "m" else _fem_of(lemma)
if num == "SG":
return base, "rule"
pl, ok = _rule_plural(base, g)
return pl, ("rule" if ok else "fallback")
def lexicon_stats():
return {
"verb_source": "UniMorph Catalan (github.com/unimorph/cat) + kaikki.org "
"irregulars (anar/fer/auxiliaries)",
"noun_adj_source": "kaikki.org Catalan (Wiktionary extract)",
"license": "CC-BY-SA 3.0 (Wiktionary/UniMorph lineage)",
"unimorph_verb_forms": len(_VERBS),
"unimorph_verb_lemmas": len({k[0] for k in _VERBS}),
"irregular_verb_lemmas": len([k for k in _IRREGV if not k.startswith("_")]),
"participle_lemmas": len(_PART),
"gerund_lemmas": len(_GER),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
tests = [
("cantar", "ind", "present", "first", "singular", "canto"),
("cantar", "ind", "present", "third", "plural", "canten"),
("ser", "ind", "present", "third", "singular", "és"),
("haver", "ind", "present", "first", "singular", "he"),
("anar", "ind", "present", "first", "singular", "vaig"),
("fer", "ind", "present", "third", "singular", "fa"),
("perdre", "ind", "present", "first", "singular", "perdo"),
("dormir", "ind", "present", "third", "plural", "dormen"),
("cantar", "ind", "future", "first", "singular", "cantaré"),
("cantar", "ind", "preterite", "third", "singular", "cantà"),
("tenir", "sbjv", "present", "first", "singular", "tingui"),
]
ok = 0
for lemma, mood, tense, per, num, exp in tests:
got, conf = conjugate(lemma, mood, tense, per, num)
flag = "OK " if got == exp else "XX "
ok += got == exp
print(f" {flag}{lemma:8} {mood}/{tense:11} {per[:3]}.{num[:2]} -> {got:10} ({conf}) exp={exp}")
print(f"verb tests {ok}/{len(tests)}")
print(" peri-pret anar: 1sg=", peri_pret_aux("first", "singular"),
"3pl=", peri_pret_aux("third", "plural"))
print(" gender casa=", noun_gender("casa"), "home=", noun_gender("home"),
"cavall=", noun_gender("cavall"), "cançó=", noun_gender("cançó"))
print(" plural casa->", inflect_noun("casa", "plural"),
"| plaça->", inflect_noun("plaça", "plural"),
"| peix->", inflect_noun("peix", "plural"),
"| braç->", inflect_noun("braç", "plural"),
"| home->", inflect_noun("home", "plural"))
print(" adj: alt/f/sg->", inflect_adj("alt", "f", "singular"),
"| bonic/f/pl->", inflect_adj("bonic", "f", "plural"),
"| vermell/f/sg->", inflect_adj("vermell", "f", "singular"))
print(" part: cantar/f/sg->", participle("cantar", "f", "singular"),
"| veure/f/pl->", participle("veure", "f", "plural"),
"| fer/m/sg->", participle("fer", "m", "singular"))
print(" ger: fer->", gerund("fer"), "| cantar->", gerund("cantar"))
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# -*- coding: utf-8 -*-
"""morphology_de_full.py — production German morphological generator.
Real data, no toy tables:
PRIMARY — UniMorph German (github.com/unimorph/deu, CC-BY-SA 3.0).
~219k noun forms, ~199k verb forms. Supplies:
nouns : gender (MASC/FEM/NEUT) + case×number paradigm
(N;NOM/ACC/DAT/GEN; MASC/FEM/NEUT; SG/PL) — the genitive -(e)s,
dative-plural -n and the five plural classes are REAL forms, not
guessed.
verbs : full finite paradigm IND;{SG,PL};{1,2,3};{PRS,PST}, the past
participle (V.PTCP;PST, incl. reattached separable prefix
'zugefügt'), and — crucially for V2 — the SEPARATED finite form
UniMorph records directly ('füge zu', 'steht auf').
adjs : comparative / superlative (ADJ;CMPR, ADJ;SPRL).
SECONDARY — kaikki.org German (Wiktionary, CC-BY-SA/GFDL). Gap-fills noun
gender + plural where UniMorph is thin. Never overrides UniMorph.
Rule fallbacks (flagged 'rule'/'fallback') for lemmas absent from both lexicons:
present : -e/-st/-t/-en/-t/-en with e-epenthesis after -t/-d/-chn stems
plural : gender heuristic (fem -> -(e)n, else -e / umlaut left to lexicon)
ppart : weak ge-…-t
Adjective ENDINGS are rule-computed by the realizer (regular closed table);
this module only supplies the comparative/superlative STEM.
Perfect auxiliary (haben vs sein): sein for a curated set of intransitive
motion / change-of-state verbs (real German lexical property), else haben.
Public API:
noun_gender(lemma) -> 'm'|'f'|'n'
decline_noun(lemma, case, number) -> (form, conf)
pluralize(lemma) -> (form, conf)
finite(lemma, tense, person, number) -> (form, conf) # may contain ' prefix'
nonfinite(lemma, req) -> (form, conf) # req: 'inf'|'ppart'
past_participle(lemma) -> (form, conf)
separable_prefix(lemma) -> str|None
perfect_aux(lemma) -> 'haben'|'sein'
comparative(lemma)/superlative(lemma) -> (stem, conf)
lexicon_stats() -> dict
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "deu.unimorph")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_de.jsonl")
_CACHE = os.path.join(_HERE, "data", "de_morph_cache.pkl")
_GENDER = {"MASC": "m", "FEM": "f", "NEUT": "n"}
# intransitive motion / change-of-state verbs that take SEIN in the perfect
_SEIN = {"gehen", "kommen", "fahren", "laufen", "rennen", "reisen", "fallen",
"steigen", "sinken", "wachsen", "sterben", "geschehen", "passieren",
"werden", "bleiben", "sein", "aufstehen", "einschlafen", "aufwachen",
"ankommen", "abfahren", "aufsteigen", "erscheinen", "verschwinden",
"fliegen", "schwimmen", "springen", "begegnen", "folgen", "gelingen",
"wandern", "ziehen", "flüchten", "eintreten", "einsteigen", "aussteigen"}
# hardcoded high-frequency irregular / auxiliary / modal paradigms (closed class,
# verified) — consulted before the lexicon so aux+modal chains are always correct.
_CORE = {
"sein": {"prs": {("first", "singular"): "bin", ("second", "singular"): "bist",
("third", "singular"): "ist", ("first", "plural"): "sind",
("second", "plural"): "seid", ("third", "plural"): "sind"},
"pst": {("first", "singular"): "war", ("second", "singular"): "warst",
("third", "singular"): "war", ("first", "plural"): "waren",
("second", "plural"): "wart", ("third", "plural"): "waren"},
"ppart": "gewesen"},
"haben": {"prs": {("first", "singular"): "habe", ("second", "singular"): "hast",
("third", "singular"): "hat", ("first", "plural"): "haben",
("second", "plural"): "habt", ("third", "plural"): "haben"},
"pst": {("first", "singular"): "hatte", ("second", "singular"): "hattest",
("third", "singular"): "hatte", ("first", "plural"): "hatten",
("second", "plural"): "hattet", ("third", "plural"): "hatten"},
"ppart": "gehabt"},
"werden": {"prs": {("first", "singular"): "werde", ("second", "singular"): "wirst",
("third", "singular"): "wird", ("first", "plural"): "werden",
("second", "plural"): "werdet", ("third", "plural"): "werden"},
"pst": {("first", "singular"): "wurde", ("second", "singular"): "wurdest",
("third", "singular"): "wurde", ("first", "plural"): "wurden",
("second", "plural"): "wurdet", ("third", "plural"): "wurden"},
"ppart": "geworden"},
}
_MODAL_PRS = {
"können": ("kann", "kannst", "kann", "können", "könnt", "können"),
"müssen": ("muss", "musst", "muss", "müssen", "müsst", "müssen"),
"wollen": ("will", "willst", "will", "wollen", "wollt", "wollen"),
"sollen": ("soll", "sollst", "soll", "sollen", "sollt", "sollen"),
"dürfen": ("darf", "darfst", "darf", "dürfen", "dürft", "dürfen"),
"mögen": ("mag", "magst", "mag", "mögen", "mögt", "mögen"),
}
_MODAL_PST = {
"können": ("konnte", "konntest", "konnte", "konnten", "konntet", "konnten"),
"müssen": ("musste", "musstest", "musste", "mussten", "musstet", "mussten"),
"wollen": ("wollte", "wolltest", "wollte", "wollten", "wolltet", "wollten"),
"sollen": ("sollte", "solltest", "sollte", "sollten", "solltet", "sollten"),
"dürfen": ("durfte", "durftest", "durfte", "durften", "durftet", "durften"),
"mögen": ("mochte", "mochtest", "mochte", "mochten", "mochtet", "mochten"),
}
_PN_ORDER = [("first", "singular"), ("second", "singular"), ("third", "singular"),
("first", "plural"), ("second", "plural"), ("third", "plural")]
_MODAL_PPART = {"können": "gekonnt", "müssen": "gemusst", "wollen": "gewollt",
"sollen": "gesollt", "dürfen": "gedurft", "mögen": "gemocht"}
for _m, _forms in _MODAL_PRS.items():
_CORE[_m] = {"prs": dict(zip(_PN_ORDER, _forms)),
"pst": dict(zip(_PN_ORDER, _MODAL_PST[_m])),
"ppart": _MODAL_PPART[_m]}
def _person_num(tags):
p = n = None
for t in tags:
if t in ("1", "2", "3"):
p = {"1": "first", "2": "second", "3": "third"}[t]
elif t == "SG":
n = "singular"
elif t == "PL":
n = "plural"
return p, n
def _build_from_unimorph():
nouns, verbs, adjs = {}, {}, {}
if not os.path.exists(_UNIMORPH):
return nouns, verbs, adjs
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tagstr = parts
tags = tagstr.split(";")
head = tags[0]
tset = set(tags)
if head == "N":
rec = nouns.setdefault(lemma, {"g": None, "cases": {}, "pl": None})
g = next((_GENDER[t] for t in tags if t in _GENDER), None)
if g and not rec["g"]:
rec["g"] = g
case = next((t for t in tags if t in ("NOM", "ACC", "DAT", "GEN")), None)
num = "plural" if "PL" in tset else ("singular" if "SG" in tset else None)
if case and num:
rec["cases"].setdefault((case, num), form)
if case == "NOM" and num == "plural" and not rec["pl"]:
rec["pl"] = form
elif head.startswith("V"):
rec = verbs.setdefault(lemma, {"prs": {}, "pst": {}, "ppart": None})
if "PTCP" in head and "PST" in tset:
rec["ppart"] = rec["ppart"] or form
elif "IND" in tset and ("PRS" in tset or "PST" in tset):
p, n = _person_num(tags)
if p and n:
slot = "prs" if "PRS" in tset else "pst"
rec[slot].setdefault((p, n), form)
elif head == "ADJ":
rec = adjs.setdefault(lemma, {})
if "CMPR" in tset:
rec.setdefault("cmpr", form.replace("am ", "").strip())
elif "SPRL" in tset:
rec.setdefault("sprl", form.replace("am ", "").replace("sten", "st")
if form.endswith("sten") else form.replace("am ", ""))
return nouns, verbs, adjs
def _build_from_kaikki(nouns):
"""Gap-fill noun gender + plural from kaikki German."""
if not os.path.exists(_KAIKKI):
return
_g = {"masculine": "m", "feminine": "f", "neuter": "n", "m": "m", "f": "f", "n": "n"}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
if d.get("pos") != "noun":
continue
w = d.get("word", "")
if not w or not w[0].isalpha() or " " in w:
continue
rec = nouns.setdefault(w, {"g": None, "cases": {}, "pl": None})
# GENDER: Wiktionary gender is hand-curated and OVERRIDES UniMorph's
# auto-tagged gender, which has known errors (e.g. UniMorph deu mis-
# records Zeit=MASC, Wagen=NEUT; Wiktionary has f, m correctly).
for h in d.get("head_templates", []) or []:
a = h.get("args", {}) or {}
raw = a.get("1") or a.get("g") or ""
code = str(raw).split(",")[0].strip().lower()
if code in _g:
rec["g"] = _g[code]
break
if not rec["pl"]:
for f in d.get("forms", []) or []:
t = set(f.get("tags", []) or [])
if "plural" in t and f.get("form") and "genitive" not in t:
rec["pl"] = f["form"]
break
def _build_cache():
nouns, verbs, adjs = _build_from_unimorph()
_build_from_kaikki(nouns)
data = {"nouns": nouns, "verbs": verbs, "adjs": adjs}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
srcs = [p for p in (_UNIMORPH, _KAIKKI) if os.path.exists(p)]
newest = max((os.path.getmtime(p) for p in srcs), default=0)
if os.path.getmtime(_CACHE) >= newest:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_NOUNS, _VERBS, _ADJS = _LEX["nouns"], _LEX["verbs"], _LEX["adjs"]
# ── nouns ────────────────────────────────────────────────────────────────────────
def noun_gender(lemma):
rec = _NOUNS.get(lemma) or _NOUNS.get(lemma.capitalize())
if rec and rec.get("g"):
return rec["g"]
# last-resort rule: -ung/-heit/-keit/-schaft/-tät/-ion -> f ; -chen/-lein -> n
low = lemma.lower()
if low.endswith(("ung", "heit", "keit", "schaft", "tät", "ion", "ik", "ei")):
return "f"
if low.endswith(("chen", "lein", "ment", "um")):
return "n"
return "m"
def pluralize(lemma):
rec = _NOUNS.get(lemma) or _NOUNS.get(lemma.capitalize())
if rec and rec.get("pl"):
return rec["pl"], "lexicon"
g = noun_gender(lemma)
if g == "f":
return (lemma + "en" if not lemma.endswith("e") else lemma + "n"), "rule"
return (lemma if lemma.endswith(("er", "en", "el")) else lemma + "e"), "rule"
def decline_noun(lemma, case, number):
"""case in NOM/ACC/DAT/GEN, number in singular/plural."""
rec = _NOUNS.get(lemma) or _NOUNS.get(lemma.capitalize())
if case == "DAT" and number == "singular":
# modern German drops the archaic dative -e ('dem Kinde' -> 'dem Kind');
# the article carries the case. Keep bare nominative form.
base = (rec or {}).get("cases", {}).get(("NOM", "singular")) or lemma
return base, ("lexicon" if rec else "rule")
if rec and rec.get("cases", {}).get((case, number)):
return rec["cases"][(case, number)], "lexicon"
if number == "plural":
pl, c = pluralize(lemma)
if case == "DAT" and not pl.endswith("n") and not pl.endswith("s"):
return pl + "n", c # dative plural -n
return pl, c
# singular
g = noun_gender(lemma)
if case == "GEN" and g in ("m", "n"):
return (lemma + "es" if lemma.endswith(("s", "ß", "z", "x")) else lemma + "s"), "rule"
return lemma, "lexicon" if rec else "rule"
# ── verbs ──────────────────────────────────────────────────────────────────────--
_PRS_ENDINGS = {("first", "singular"): "e", ("second", "singular"): "st",
("third", "singular"): "t", ("first", "plural"): "en",
("second", "plural"): "t", ("third", "plural"): "en"}
def _stem(lemma):
if lemma.endswith("en"):
return lemma[:-2]
if lemma.endswith("n"):
return lemma[:-1]
return lemma
def separable_prefix(lemma):
"""Return the separable prefix if the lemma is a separable-prefix verb."""
rec = _VERBS.get(lemma)
if rec:
for (_p, _n), form in rec.get("prs", {}).items():
if " " in form:
return form.rsplit(" ", 1)[1]
_SEP = ("auf", "aus", "ab", "an", "ein", "mit", "nach", "vor", "zu", "zurück",
"weg", "hin", "her", "los", "bei", "fest", "fort", "um", "zusammen")
_INSEP = ("be", "ge", "er", "ver", "zer", "ent", "emp", "miss")
for p in sorted(_SEP, key=len, reverse=True):
if lemma.startswith(p) and len(lemma) > len(p) + 2 \
and not lemma.startswith(_INSEP):
return p
return None
def finite(lemma, tense, person, number):
"""Present/past finite. For separable verbs the returned string is the
UniMorph SEPARATED form 'stem prefix' (realizer places prefix per V2)."""
slot = "prs" if tense == "present" else "pst"
if lemma in _CORE and _CORE[lemma].get(slot, {}).get((person, number)):
return _CORE[lemma][slot][(person, number)], "lexicon"
rec = _VERBS.get(lemma)
if rec and rec.get(slot, {}).get((person, number)):
return rec[slot][(person, number)], "lexicon"
# rule fallback (present only reliable; past weak -te)
stem = _stem(lemma)
pref = separable_prefix(lemma)
if pref:
stem = _stem(lemma[len(pref):])
if tense == "present":
end = _PRS_ENDINGS[(person, number)]
if stem.endswith(("t", "d", "chn", "ffn", "gn")) and end in ("st", "t"):
end = "e" + end
form = stem + end
else:
form = stem + ("ete" if stem.endswith(("t", "d")) else "te")
if (person, number) == ("second", "singular"):
form += "st"
elif number == "plural" and person != "second":
form += "n"
elif (person, number) == ("second", "plural"):
form += "t"
if pref:
return f"{form} {pref}", "rule"
return form, "rule"
def _weak_t(stem):
return stem + ("et" if stem.endswith(("t", "d", "chn", "ffn", "gn")) else "t")
def past_participle(lemma):
if lemma in _CORE:
return _CORE[lemma]["ppart"], "lexicon"
rec = _VERBS.get(lemma)
if rec and rec.get("ppart"):
return rec["ppart"], "lexicon"
stem = _stem(lemma)
pref = separable_prefix(lemma)
_INSEP = ("be", "ge", "er", "ver", "zer", "ent", "emp", "miss")
if pref:
inner = _stem(lemma[len(pref):])
return pref + "ge" + _weak_t(inner), "rule"
if lemma.startswith(_INSEP):
return _weak_t(stem), "rule"
return "ge" + _weak_t(stem), "rule"
def nonfinite(lemma, req):
if req == "ppart":
return past_participle(lemma)
return lemma, "lexicon" if lemma in _VERBS else "rule" # infinitive
def perfect_aux(lemma):
return "sein" if lemma in _SEIN else "haben"
# ── adjectives ────────────────────────────────────────────────────────────────---
_ADJ_IRREG_SPRL = {"gut": "best", "groß": "größt", "hoch": "höchst",
"nah": "nächst", "viel": "meist", "gern": "liebst"}
def comparative(lemma):
rec = _ADJS.get(lemma)
if rec and rec.get("cmpr"):
return rec["cmpr"], "lexicon"
return lemma + "er", "rule"
def superlative(lemma):
"""Return the bare superlative STEM (realizer adds 'am ...en' or '-e' ending)."""
if lemma in _ADJ_IRREG_SPRL:
return _ADJ_IRREG_SPRL[lemma], "lexicon"
# derive from the comparative so umlaut is carried (alt->älter->ältest)
cmpr, cconf = comparative(lemma)
base = cmpr[:-2] if cmpr.endswith("er") else lemma
end = "est" if base.endswith(("t", "d", "s", "ß", "z", "sch")) else "st"
return base + end, cconf
def lexicon_stats():
return {
"source": "UniMorph deu (primary) + kaikki.org German (gap-fill gender/plural)",
"license": "CC-BY-SA 3.0 (UniMorph); CC-BY-SA/GFDL (Wiktionary)",
"noun_lemmas": len(_NOUNS),
"nouns_with_gender": sum(1 for v in _NOUNS.values() if v.get("g")),
"nouns_with_plural": sum(1 for v in _NOUNS.values() if v.get("pl")),
"verb_lemmas": len(_VERBS),
"verbs_with_ppart": sum(1 for v in _VERBS.values() if v.get("ppart")),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
for w in ("Hund", "Frau", "Kind", "Mann", "Buch", "Blume"):
print(f" {w}: gender={noun_gender(w)} pl={pluralize(w)} "
f"gen.sg={decline_noun(w, 'GEN', 'singular')} "
f"dat.pl={decline_noun(w, 'DAT', 'plural')}")
for v in ("machen", "gehen", "aufstehen", "sein", "haben", "arbeiten"):
print(f" {v}: 3sg.prs={finite(v, 'present', 'third', 'singular')} "
f"3sg.pst={finite(v, 'past', 'third', 'singular')} "
f"ppart={past_participle(v)} aux={perfect_aux(v)} sep={separable_prefix(v)}")
for a in ("schnell", "gut", "groß", "alt"):
print(f" {a}: cmpr={comparative(a)} sprl={superlative(a)}")
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"""morphology_es_full.py — production-grade Spanish morphological generator.
NOT a toy. Backed by a real, broad, licensed lexicon:
UniMorph Spanish (github.com/unimorph/spa, CC-BY-SA 3.0, Wiktionary-derived)
1,196,245 inflected forms:
6,695 verb lemmas — full paradigms: indicative (present/preterite/
imperfect/future), conditional, present & imperfect
subjunctive, affirmative imperative, formal/informal
48,353 noun lemmas — WITH inherent gender (N;FEM/MASC;SG/PL)
16,984 adj lemmas — gender + number paradigms
Fallbacks (so we degrade, never crash, on out-of-vocabulary input):
- verbs : mlconjug3 (ML paradigm model, conjugates ANY Spanish verb) then a
hand-rolled regular-ending generator
- nouns : gender heuristic (endings) + regular pluralization
- adjs : -o/-a gender rule + regular pluralization
Every generated form carries a CONFIDENCE flag:
"lexicon" form came straight from UniMorph (trust: high)
"model" form came from mlconjug3 (trust: high)
"rule" form came from a deterministic rule (trust: medium)
"fallback" we could not inflect; returned lemma as-is (trust: low → FLAG)
Public API (used by realizer_es.py):
conjugate(lemma, mood, tense, person, number, formality="informal") -> (form, conf)
participle(lemma) -> (form, conf) # past participle (compound tenses)
gerund(lemma) -> (form, conf)
noun_gender(lemma) -> "m"|"f"
inflect_noun(lemma, number) -> (form, conf)
inflect_adj(lemma, gender, number) -> (form, conf)
attach_enclitics(verb_form, clitics) -> str # accent-correct enclisis
lexicon_stats() -> dict
"""
import os
import pickle
import unicodedata
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "spa.unimorph")
_CACHE = os.path.join(_HERE, "data", "es_morph_cache.pkl")
# ── canonical feature keys the realizer speaks, mapped to UniMorph tags ─────────
# mood/tense pair -> the UniMorph feature substring that identifies it
_VERB_KEYMAP = {
("ind", "present"): ("IND", "PRS", None),
("ind", "preterite"): ("IND", "PST", "PFV"),
("ind", "imperfect"): ("IND", "PST", "IPFV"),
("ind", "future"): ("IND", "FUT", None),
("ind", "conditional"):("COND", None, None),
("sbjv", "present"): ("SBJV", "PRS", None),
("sbjv", "imperfect"): ("SBJV", "PST", "LGSPEC1"), # -ra form
("imp", "present"): ("POS", "IMP", None),
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
# ── build / load the compact lexicon ───────────────────────────────────────────
def _feat_set(tag):
return set(tag.split(";"))
def _build_cache():
verbs = {} # (lemma, canonkey) -> form canonkey e.g. "ind|present|1|SG|infm"
nouns = {} # lemma -> {"g": "m"/"f", "SG": form, "PL": form}
adjs = {} # lemma -> {("m","SG"): form, ...}
part = {} # lemma -> masc-sg participle
ger = {} # lemma -> gerund
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V":
# skip clitic-bearing rows (we generate clitics ourselves)
if "PRO" in f:
continue
if "V.PTCP" in f and "PST" in f and "MASC" in f and "SG" in f:
part.setdefault(lemma, form)
continue
if "V.CVB" in f or "NFIN" in f or "V.PTCP" in f:
if "V.CVB" in f:
ger.setdefault(lemma, form)
continue
# identify mood/tense
mt = None
for (mood, tense), (a, b, c) in _VERB_KEYMAP.items():
if a not in f:
continue
if b is not None and b not in f:
continue
if c is not None and c not in f:
continue
# disambiguate IND;PST needing PFV vs IPFV
if a == "IND" and b == "PST" and c not in f:
continue
mt = (mood, tense)
break
if mt is None:
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
formal = "form" if "FORM" in f else ("infm" if "INFM" in f else "any")
key = f"{mt[0]}|{mt[1]}|{person}|{number}|{formal}"
verbs.setdefault((lemma, key), form)
elif head == "N":
# substring test handles epicene "MASC+FEM" (-> masc citation)
g = "m" if "MASC" in tag else ("f" if "FEM" in tag else None)
num = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if num is None:
continue
# store forms keyed by (gender,number); animate nouns list BOTH
# genders under one lemma (niño -> niño/niña). Resolve citation
# gender in a post-pass (gender of the row whose form == lemma).
d = nouns.setdefault(lemma, {})
d.setdefault("_rows", []).append((g, num, form))
elif head == "ADJ":
g = "m" if "MASC" in tag else ("f" if "FEM" in tag else "m")
num = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if num is None:
continue
adjs.setdefault(lemma, {})[(g, num)] = form
# post-pass: resolve noun citation gender + default SG/PL forms
for lemma, d in nouns.items():
rows = d.pop("_rows", [])
# citation gender = gender of the row whose form == lemma; else first MASC;
# else first seen gender.
cite_g = None
for g, num, form in rows:
if form == lemma and g:
cite_g = g
break
if cite_g is None:
for g, num, form in rows:
if g == "m":
cite_g = "m"
break
if cite_g is None:
cite_g = next((g for g, _, _ in rows if g), "m")
d["g"] = cite_g
for g, num, form in rows:
d[(g, num)] = form
d["SG"] = d.get((cite_g, "SG")) or next((f for g, n, f in rows if n == "SG"), lemma)
d["PL"] = d.get((cite_g, "PL")) or next((f for g, n, f in rows if n == "PL"), None)
# post-pass: UniMorph omits the identity inflection (masc-sg == lemma) for
# adjectives, so fill it in; without this a fem-sg row wrongly satisfies a
# masc-sg request (alto -> alta bug).
for lemma, d in adjs.items():
d.setdefault(("m", "SG"), lemma)
data = {"verbs": verbs, "nouns": nouns, "adjs": adjs, "part": part, "ger": ger}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE) and os.path.getmtime(_CACHE) >= os.path.getmtime(_UNIMORPH):
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _NOUNS, _ADJS, _PART, _GER = (
_LEX["verbs"], _LEX["nouns"], _LEX["adjs"], _LEX["part"], _LEX["ger"])
# ── mlconjug3 fallback (lazy) ───────────────────────────────────────────────────
_MLC = None
_MLC_TENSE = { # (mood,tense) -> (mlconjug mood label, tense label)
("ind", "present"): ("Indicativo", "Indicativo presente"),
("ind", "preterite"): ("Indicativo", "Indicativo pretérito perfecto simple"),
("ind", "imperfect"): ("Indicativo", "Indicativo pretérito imperfecto"),
("ind", "future"): ("Indicativo", "Indicativo futuro"),
("ind", "conditional"): ("Condicional", "Condicional Condicional"),
("sbjv", "present"): ("Subjuntivo", "Subjuntivo presente"),
("sbjv", "imperfect"): ("Subjuntivo", "Subjuntivo pretérito imperfecto 1"),
("imp", "present"): ("Imperativo", "Imperativo Afirmativo"),
}
_MLC_SLOT = { # (person,number) -> mlconjug slot key
("first", "singular"): "1s", ("second", "singular"): "2s",
("third", "singular"): "3s", ("first", "plural"): "1p",
("second", "plural"): "2p", ("third", "plural"): "3p",
}
def _mlc_conjugate(lemma, mood, tense, person, number):
global _MLC
try:
if _MLC is None:
from mlconjug3 import Conjugator
_MLC = Conjugator(language="es")
v = _MLC.conjugate(lemma)
if v is None:
return None
info = v.conjug_info
m, t = _MLC_TENSE.get((mood, tense), (None, None))
if m is None or m not in info or t not in info[m]:
return None
block = info[m][t]
slot = _MLC_SLOT.get((person, number))
if isinstance(block, dict) and slot in block and block[slot]:
return block[slot]
return None
except Exception:
return None
# ── regular-ending rule fallback (last resort, deterministic) ───────────────────
def _vclass(lemma):
return lemma[-2:] if lemma[-2:] in ("ar", "er", "ir") else "ar"
def _stem(lemma):
return lemma[:-2]
_REG = {
("ind", "present", "ar"): ["o", "as", "a", "amos", "áis", "an"],
("ind", "present", "er"): ["o", "es", "e", "emos", "éis", "en"],
("ind", "present", "ir"): ["o", "es", "e", "imos", "ís", "en"],
("ind", "preterite", "ar"): ["é", "aste", "ó", "amos", "asteis", "aron"],
("ind", "preterite", "er"): ["í", "iste", "", "imos", "isteis", "ieron"],
("ind", "preterite", "ir"): ["í", "iste", "", "imos", "isteis", "ieron"],
("ind", "imperfect", "ar"): ["aba", "abas", "aba", "ábamos", "abais", "aban"],
("ind", "imperfect", "er"): ["ía", "ías", "ía", "íamos", "íais", "ían"],
("ind", "imperfect", "ir"): ["ía", "ías", "ía", "íamos", "íais", "ían"],
("sbjv", "present", "ar"): ["e", "es", "e", "emos", "éis", "en"],
("sbjv", "present", "er"): ["a", "as", "a", "amos", "áis", "an"],
("sbjv", "present", "ir"): ["a", "as", "a", "amos", "áis", "an"],
("sbjv", "imperfect", "ar"): ["ara", "aras", "ara", "áramos", "arais", "aran"],
("sbjv", "imperfect", "er"): ["iera", "ieras", "iera", "iéramos", "ierais", "ieran"],
("sbjv", "imperfect", "ir"): ["iera", "ieras", "iera", "iéramos", "ierais", "ieran"],
}
_FUT = ["é", "ás", "á", "emos", "éis", "án"]
_COND = ["ía", "ías", "ía", "íamos", "íais", "ían"]
def _slot_idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _rule_conjugate(lemma, mood, tense, person, number):
if len(lemma) < 3 or lemma[-2:] not in ("ar", "er", "ir"):
return None
vc, st, i = _vclass(lemma), _stem(lemma), _slot_idx(person, number)
if tense == "future":
return lemma + _FUT[i]
if tense == "conditional":
return lemma + _COND[i]
table = _REG.get((mood, tense, vc))
if table:
return st + table[i]
if mood == "imp" and tense == "present":
# affirmative tú imperative = 3sg present indicative
pres = _REG.get(("ind", "present", vc))
return st + pres[2] if number == "singular" else st + pres[5]
return None
# ── PUBLIC: verb conjugation ────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number, formality="informal"):
"""Return (surface, confidence). mood in ind|sbjv|imp; tense per _VERB_KEYMAP."""
lemma = lemma.strip().lower()
p, n = _PERSON.get(person), _NUMBER.get(number)
formal = "form" if formality == "formal" else "infm"
if p and n:
for fkey in (formal, "any", "infm" if formal == "form" else "form"):
form = _VERBS.get((lemma, f"{mood}|{tense}|{p}|{n}|{fkey}"))
if form:
return form, "lexicon"
m = _mlc_conjugate(lemma, mood, tense, person, number)
if m:
return m, "model"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r:
return r, "rule"
return lemma, "fallback"
_IRREG_PART = { # guarantee the common irregular participles
"escribir": "escrito", "describir": "descrito", "abrir": "abierto",
"cubrir": "cubierto", "descubrir": "descubierto", "morir": "muerto",
"poner": "puesto", "ver": "visto", "volver": "vuelto", "devolver": "devuelto",
"hacer": "hecho", "deshacer": "deshecho", "decir": "dicho", "romper": "roto",
"resolver": "resuelto", "freír": "frito", "imprimir": "impreso",
"satisfacer": "satisfecho", "prever": "previsto", "revolver": "revuelto",
}
def participle(lemma):
lemma = lemma.strip().lower()
if lemma in _IRREG_PART:
return _IRREG_PART[lemma], "lexicon"
if lemma in _PART:
return _PART[lemma], "lexicon"
if lemma.endswith("ar"):
return lemma[:-2] + "ado", "rule"
if lemma[-2:] in ("er", "ir"):
return lemma[:-2] + "ido", "rule"
return lemma, "fallback"
_IRREG_GER = {"dormir": "durmiendo", "morir": "muriendo", "pedir": "pidiendo",
"sentir": "sintiendo", "mentir": "mintiendo", "servir": "sirviendo",
"venir": "viniendo", "decir": "diciendo", "poder": "pudiendo",
"ir": "yendo", "leer": "leyendo", "creer": "creyendo",
"oír": "oyendo", "traer": "trayendo", "caer": "cayendo",
"construir": "construyendo", "huir": "huyendo", "reír": "riendo"}
def gerund(lemma):
lemma = lemma.strip().lower()
if lemma in _IRREG_GER:
return _IRREG_GER[lemma], "lexicon"
if lemma in _GER:
return _GER[lemma], "lexicon"
if lemma.endswith("ar"):
return lemma[:-2] + "ando", "rule"
if lemma[-2:] in ("er", "ir"):
return lemma[:-2] + "iendo", "rule"
return lemma, "fallback"
# ── PUBLIC: noun gender + number ────────────────────────────────────────────────
_INVARIANT_PL = {"lunes", "martes", "miércoles", "jueves", "viernes",
"crisis", "tesis", "análisis", "dosis", "virus", "paraguas"}
def _gender_heuristic(noun):
for suf, g in (("ión", "f"), ("dad", "f"), ("tad", "f"), ("umbre", "f"),
("sis", "f"), ("ez", "f"), ("triz", "f"),
("ema", "m"), ("ama", "m"), ("oma", "m"), ("aje", "m"),
("or", "m"), ("án", "m"), ("ín", "m")):
if noun.endswith(suf):
return g
if noun.endswith("o"):
return "m"
if noun.endswith("a"):
return "f"
return "m"
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g"):
return d["g"]
return _gender_heuristic(lemma)
def _regular_plural(noun):
if noun in _INVARIANT_PL:
return noun
if not noun:
return noun
last = noun[-1]
if last == "z":
return noun[:-1] + "ces"
if last in "aeiouáéíóú":
# stressed final vowel í/ú -> +es (rubí->rubíes), else +s
if last in "íú":
return noun + "es"
return noun + "s"
if last == "s":
# esdrújula / stress-final handled crudely; most polysyllables invariant
return noun
return noun + "es"
def inflect_noun(lemma, number, gender=None):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
num = "SG" if number == "singular" else "PL"
if d:
# honor a requested gender for animate nouns (gato -> gata)
if gender and (gender, num) in d:
return d[(gender, num)], "lexicon"
if d.get(num):
return d[num], "lexicon"
if number == "singular":
return lemma, "rule" if not d else "lexicon"
return _regular_plural(lemma), "rule"
# ── PUBLIC: adjective agreement ─────────────────────────────────────────────────
_INV_GENDER_ADJ = {"español": "española", "trabajador": "trabajadora",
"hablador": "habladora", "encantador": "encantadora",
"alemán": "alemana", "francés": "francesa", "inglés": "inglesa"}
def inflect_adj(lemma, gender, number):
lemma = lemma.strip().lower()
d = _ADJS.get(lemma)
num = "SG" if number == "singular" else "PL"
if d:
form = d.get((gender, num))
if form:
return form, "lexicon"
# gender-invariant adjective (grande, feliz, azul): fem == masc.
# For a missing plural, pluralize this gender's singular form.
sg = d.get((gender, "SG")) or d.get(("m", "SG")) or lemma
if number == "plural":
return _regular_plural(sg), "rule"
return sg, "lexicon"
# rule fallback
a = lemma
if gender == "f":
if a in _INV_GENDER_ADJ:
a = _INV_GENDER_ADJ[a]
elif a.endswith("o"):
a = a[:-1] + "a"
if number == "plural":
a = _regular_plural(a)
return a, ("rule" if (a != lemma or gender == "m") else "rule")
# ── PUBLIC: clitic enclisis (dá + me + lo -> dámelo) ────────────────────────────
def _strip_accents(s):
return "".join(c for c in unicodedata.normalize("NFD", s)
if unicodedata.category(c) != "Mn")
def _count_syllables_vowelgroups(word):
# crude: count vowel groups
w = _strip_accents(word).lower()
groups, prev = 0, False
for ch in w:
isv = ch in "aeiou"
if isv and not prev:
groups += 1
prev = isv
return groups
def _host_stress_from_end(word):
"""Stressed-syllable index counted from the end (1=last) of a verb host."""
syls = _count_syllables_vowelgroups(word)
if any(c in "áéíóú" for c in word):
return None # already carries its own accent
if word[-2:] in ("ar", "er", "ir"): # infinitive: oxytone
return 1
if word.endswith("ndo"): # gerund: paroxytone
return 2
if word[-1:] in "aeiouns" and syls >= 2: # default paroxytone
return 2
return 1 # monosyllable / consonant-final oxytone
def attach_enclitics(verb_form, clitics):
"""Append clitic pronouns to a verb (imperative/infinitive/gerund enclisis)
and add a written accent when the resulting word becomes esdrújula/
sobreesdrújula (stress >= 3 syllables from the end): dá+me+lo -> dámelo,
lleva+me -> llévame, but dar+te -> darte and da+me -> dame (no accent)."""
if not clitics:
return verb_form
tail = "".join(clitics)
if any(c in "áéíóú" for c in verb_form): # host already accented
return verb_form + tail
sfe = _host_stress_from_end(verb_form)
total_sfe = sfe + len(clitics) # each clitic = 1 syllable
if total_sfe >= 3:
return _accentuate_nucleus(verb_form, sfe) + tail
return verb_form + tail
def _accentuate_nucleus(word, sfe):
"""Put a written accent on the syllable `sfe` positions from the word's end."""
vowels = "aeiou"
nuclei = [i for i, ch in enumerate(word) if ch in vowels]
if not nuclei or sfe > len(nuclei):
return word
i = nuclei[-sfe]
acc = {"a": "á", "e": "é", "i": "í", "o": "ó", "u": "ú"}
return word[:i] + acc[word[i]] + word[i + 1:]
def _accentuate_last_stressed(word):
# Restore the host's ORIGINAL lexical stress with a written accent.
# Default Spanish stress: word ending in vowel/n/s -> penultimate syllable;
# otherwise (e.g. infinitives in -r) -> last syllable.
vowels = "aeiou"
nuclei = [i for i, ch in enumerate(word) if ch in vowels]
if not nuclei:
return word
if word[-1] in "aeiouns" and len(nuclei) >= 2:
i = nuclei[-2] # paroxytone: penult nucleus
else:
i = nuclei[-1] # oxytone / monosyllable: last nucleus
acc = {"a": "á", "e": "é", "i": "í", "o": "ó", "u": "ú"}
return word[:i] + acc[word[i]] + word[i + 1:]
def lexicon_stats():
return {
"source": "UniMorph Spanish (github.com/unimorph/spa)",
"license": "CC-BY-SA 3.0 (Wiktionary-derived)",
"total_forms": sum(len(v) for v in (_VERBS, _NOUNS, _ADJS)) if False else None,
"verb_forms": len(_VERBS),
"verb_lemmas": len({k[0] for k in _VERBS}),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
"participles": len(_PART),
"gerunds": len(_GER),
}
if __name__ == "__main__":
import json
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
tests = [
("hablar", "ind", "present", "first", "singular", "hablo"),
("comer", "ind", "present", "third", "plural", "comen"),
("vivir", "ind", "present", "first", "plural", "vivimos"),
("ser", "ind", "present", "third", "singular", "es"),
("ir", "ind", "preterite", "first", "singular", "fui"),
("tener", "ind", "future", "first", "singular", "tendré"),
("hacer", "sbjv", "present", "first", "singular", "haga"),
("dormir", "ind", "present", "first", "singular", "duermo"),
("pensar", "sbjv", "present", "third", "singular", "piense"),
("dar", "ind", "preterite", "third", "singular", "dio"),
("poner", "ind", "conditional", "first", "singular", "pondría"),
]
ok = 0
for lemma, mood, tense, per, num, exp in tests:
got, conf = conjugate(lemma, mood, tense, per, num)
flag = "OK " if got == exp else "XX "
if got == exp:
ok += 1
print(f" {flag}{lemma:8} {mood}/{tense} {per[:3]}.{num[:2]:3} -> {got:14} ({conf}) exp={exp}")
print(f"verb tests {ok}/{len(tests)}")
print(" gender casa:", noun_gender("casa"), "| problema:", noun_gender("problema"),
"| agua:", noun_gender("agua"), "| mano:", noun_gender("mano"))
print(" plural: luz->", inflect_noun("luz", "plural"), "| rey->", inflect_noun("rey", "plural"))
print(" adj: rojo/f/pl->", inflect_adj("rojo", "f", "plural"),
"| feliz/m/pl->", inflect_adj("feliz", "m", "plural"),
"| grande/f/pl->", inflect_adj("grande", "f", "plural"))
print(" enclisis: da+[me,lo]->", attach_enclitics("da", ["me", "lo"]),
"| di+[me]->", attach_enclitics("di", ["me"]),
"| dar+[se,lo]->", attach_enclitics("dar", ["se", "lo"]))
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"""morphology_fr_full.py — production-grade French morphological generator.
Same architecture as morphology_it_full.py (shared Romance engine); French-specific
data and rules swapped in. Backed by three real, Wiktionary-lineage sources:
VERBS
UniMorph French (github.com/unimorph/fra, CC-BY-SA 3.0)
7,535 verb lemmas × full paradigm, CLEAN orthography:
indicatif présent / imparfait (PST;IPFV) / passé simple (PST;PFV) /
futur, conditionnel (COND), subjonctif présent (SBJV;PRS) /
subjonctif imparfait (SBJV;PST), impératif (POS;IMP), infinitif (NFIN),
participe présent (V.CVB/V.PTCP;PRS), participe passé (V.PTCP;PST, m.sg).
fr_irreg_verbs.json — high-frequency verbs UniMorph MISSES or mis-slots,
above all ÊTRE (absent from UniMorph fra), plus avoir/aller/faire/… — the
auxiliaries the passé-composé + être-agreement system depends on. Extracted
from kaikki.org French (build_fr_irreg.py), reflexive/multiword forms
dropped. This layer takes PRIORITY.
NOUNS + ADJECTIVES — kaikki.org French (Wiktionary extract, CC-BY-SA 3.0)
noun lemmas WITH inherent gender (head-template arg) + real plural
(cheval->chevaux, œil->yeux, invariable -s/-x/-z), resolved PER LEMMA.
adjective lemmas with real feminine + plural (petit->petite/petits/petites,
beau->belle/beaux/belles, heureux->heureuse, rouge invariant-gender).
Fallbacks (degrade, never crash, on OOV input):
verbs : rule generator for -er / -ir(-iss-) / -re (with -cer/-ger spelling,
future/conditional stems, imparfait/subjonctif endings)
nouns : gender heuristic (endings) + rule pluralization (-al->-aux, -eau->-eaux)
adjs : fem/plural agreement rules (-er->-ère, -eux->-euse, -f->-ve, +e default)
Confidence flag on every form: "lexicon" | "rule" | "fallback".
Public API (used by realizer_fr.py): identical signature to morphology_it_full.
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "fra.unimorph")
_IRREG = os.path.join(_HERE, "data", "fr_irreg_verbs.json")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_fr.jsonl")
_CACHE = os.path.join(_HERE, "data", "fr_morph_cache.pkl")
# ── (mood, tense) -> UniMorph feature set that must ALL be present ────────────────
_VERB_KEYMAP = {
("ind", "present"): {"IND", "PRS"},
("ind", "imperfect"): {"IND", "PST", "IPFV"}, # imparfait
("ind", "passe_simple"): {"IND", "PST", "PFV"}, # passé simple
("ind", "future"): {"IND", "FUT"},
("ind", "conditional"): {"COND"}, # French: V;COND;1;SG
("sbjv", "present"): {"SBJV", "PRS"},
("sbjv", "imperfect"): {"SBJV", "PST"},
("imp", "affirmative"): {"POS", "IMP"},
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
def _feat_set(tag):
return set(tag.split(";"))
# ── build verb lexicon from UniMorph ─────────────────────────────────────────────
def _build_verbs():
verbs = {}
part = {}
ger = {}
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V.PTCP":
if "PST" in f:
part.setdefault(lemma, form)
elif "PRS" in f:
ger.setdefault(lemma, form)
continue
if head == "V.CVB":
if "PRS" in f:
ger.setdefault(lemma, form)
continue
if head != "V":
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
for (mood, tense), req in _VERB_KEYMAP.items():
if not req <= f:
continue
if tense == "imperfect" and "PFV" in f:
continue
if tense == "passe_simple" and "IPFV" in f:
continue
verbs.setdefault((lemma, f"{mood}|{tense}|{person}|{number}"), form)
break
return verbs, part, ger
# ── kaikki nouns + adjectives ────────────────────────────────────────────────────
_EXCL_FORM_TAGS = {"alternative", "archaic", "obsolete", "dialectal", "regional",
"diminutive", "augmentative", "pejorative", "comparative",
"superlative", "misspelling", "rare", "informal", "literary",
"poetic", "error-unrecognized-form", "construed", "collective",
"nonstandard", "dated", "Louisiana", "Switzerland", "Belgium"}
def _kaikki_gender(arg):
if not arg:
return None
a = str(arg).lower()
if a.startswith("f"):
return "f"
if a.startswith("m"):
return "m"
return None
def _build_nouns_adjs():
nouns = {}
adjs = {}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
pos = d.get("pos")
word = d.get("word", "")
if not word or " " in word:
continue
forms = d.get("forms", []) or []
if pos == "noun":
ht = d.get("head_templates") or []
g = None
if ht:
g = _kaikki_gender((ht[0].get("args") or {}).get("1"))
if g is None:
tags = d.get("tags") or []
if "feminine" in tags:
g = "f"
elif "masculine" in tags:
g = "m"
pl = None
for x in forms:
t = set(x.get("tags") or [])
if "plural" in t and not (t & _EXCL_FORM_TAGS):
fm = x.get("form")
if fm and " " not in fm and fm not in ("#", "-", ""):
pl = fm
break
if word not in nouns:
nouns[word] = {"g": g, "SG": word, "PL": pl}
else:
cur = nouns[word]
if cur.get("g") is None and g:
cur["g"] = g
if not cur.get("PL") and pl:
cur["PL"] = pl
elif pos == "adj":
d0 = adjs.setdefault(word, {})
d0.setdefault(("m", "SG"), word)
for x in forms:
t = set(x.get("tags") or [])
fm = x.get("form")
if not fm or " " in fm or (t & _EXCL_FORM_TAGS):
continue
if "feminine" in t and "plural" in t:
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
elif "masculine" in t and "plural" in t:
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
elif "feminine" in t:
d0[("f", "SG")] = d0.get(("f", "SG")) or fm
elif "plural" in t:
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
return nouns, adjs
def _build_cache():
verbs, part, ger = _build_verbs()
nouns, adjs = _build_nouns_adjs()
with open(_IRREG, encoding="utf-8") as fh:
irreg = json.load(fh)
data = {"verbs": verbs, "part": part, "ger": ger,
"nouns": nouns, "adjs": adjs, "irreg": irreg}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
srcs = [_UNIMORPH, _KAIKKI, _IRREG]
newest = max(os.path.getmtime(s) for s in srcs if os.path.exists(s))
if os.path.getmtime(_CACHE) >= newest:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _PART, _GER, _NOUNS, _ADJS, _IRREGV = (
_LEX["verbs"], _LEX["part"], _LEX["ger"], _LEX["nouns"], _LEX["adjs"],
_LEX["irreg"])
# ── regular-ending rule fallback ─────────────────────────────────────────────────
def _vclass(lemma):
if lemma.endswith("er"):
return "er"
if lemma.endswith("ir"):
return "ir"
if lemma.endswith("re"):
return "re"
if lemma.endswith("oir"):
return "oir"
return None
# present-tense endings [1sg,2sg,3sg,1pl,2pl,3pl]
_REG_PRES = {
"er": ["e", "es", "e", "ons", "ez", "ent"],
"ir": ["is", "is", "it", "issons", "issez", "issent"], # -iss- class (finir)
"re": ["s", "s", "", "ons", "ez", "ent"], # vendre: vends/vend
}
_REG_IMPF = ["ais", "ais", "ait", "ions", "iez", "aient"] # attaches to pres-1pl stem
_REG_SUBJ = ["e", "es", "e", "ions", "iez", "ent"] # attaches to 3pl stem
_REG_PS = { # passé simple
"er": ["ai", "as", "a", "âmes", "âtes", "èrent"],
"ir": ["is", "is", "it", "îmes", "îtes", "irent"],
"re": ["is", "is", "it", "îmes", "îtes", "irent"],
}
_FUT = ["ai", "as", "a", "ons", "ez", "ont"]
_COND = ["ais", "ais", "ait", "ions", "iez", "aient"]
def _slot_idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _fut_stem(lemma, vc):
"""Future/conditional stem = infinitive (drop final -e of -re)."""
if vc == "re":
return lemma[:-1] # vendre -> vendr-
return lemma # parler-, finir-
def _pres_1pl_stem(lemma, vc):
"""Imparfait stem = present 1pl minus -ons (parlons->parl-, finissons->finiss-)."""
if vc == "er":
stem = lemma[:-2]
if stem.endswith("g"):
return stem + "e" # mangeons -> mange- (imparfait mangeais)
if stem.endswith("c"):
return stem[:-1] + "ç" # commençons -> commenç-
return stem
if vc == "ir":
return lemma[:-1] + "iss" # finir -> finiss-
if vc == "re":
return lemma[:-2] # vendre -> vend-
return lemma[:-2]
def _apply_er_spelling(stem, ending):
"""-cer/-ger softening before a/o (commençons, mangeons)."""
if ending and ending[0] in ("a", "o"):
if stem.endswith("c"):
return stem[:-1] + "ç" + ending
if stem.endswith("g"):
return stem + "e" + ending
return stem + ending
def _rule_conjugate(lemma, mood, tense, person, number):
vc = _vclass(lemma)
if vc is None:
return None
i = _slot_idx(person, number)
if mood == "ind" and tense in ("future", "conditional"):
stem = _fut_stem(lemma, vc)
end = (_FUT if tense == "future" else _COND)[i]
return stem + end
if mood == "ind" and tense == "present":
table = _REG_PRES.get("ir" if vc == "ir" else vc)
if not table:
return None
body = lemma[:-2] if vc in ("er", "re") else lemma[:-1] if vc == "ir" else lemma[:-2]
if vc == "ir":
body = lemma[:-2] # fin- ; endings carry -iss-
end = table[i]
return body + end
end = table[i]
if vc == "er":
return _apply_er_spelling(body, end)
return body + end
if mood == "ind" and tense == "imperfect":
stem = _pres_1pl_stem(lemma, vc)
return stem + _REG_IMPF[i]
if mood == "ind" and tense == "passe_simple":
table = _REG_PS.get("ir" if vc == "ir" else vc)
if not table:
return None
body = lemma[:-2] if vc in ("er", "re") else lemma[:-2]
end = table[i]
if vc == "er":
return _apply_er_spelling(body, end)
return body + end
if mood == "sbjv" and tense == "present":
# subjonctif: present-3pl stem + e/es/e/ions/iez/ent
stem3 = _pres_1pl_stem(lemma, vc) if vc == "ir" else (
lemma[:-2] if vc in ("er", "re") else lemma[:-2])
if vc == "ir":
stem3 = lemma[:-2] + "iss"
end = _REG_SUBJ[i]
if vc == "er":
return _apply_er_spelling(stem3, end)
return stem3 + end
if mood == "imp" and tense == "affirmative":
# impératif ~ present indicative (tu drops -s for -er verbs)
pres = _rule_conjugate(lemma, "ind", "present", person, number)
if pres and vc == "er" and person == "second" and number == "singular":
return pres[:-1] if pres.endswith("es") else pres
return pres
return None
# ── PUBLIC: verb conjugation ─────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number):
"""Return (surface, confidence)."""
lemma = lemma.strip().lower()
key = f"{mood}|{tense}|{_PERSON.get(person,'?')}|{number}"
ir = _IRREGV.get(lemma)
if ir and key in ir:
return ir[key], "lexicon"
p, n = _PERSON.get(person), _NUMBER.get(number)
if p and n:
form = _VERBS.get((lemma, f"{mood}|{tense}|{p}|{n}"))
if form:
return form, "lexicon"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r:
return r, "rule"
return lemma, "fallback"
# ── PUBLIC: participle + gerund/participe présent ────────────────────────────────
def _participle_msg(lemma):
ir = _IRREGV.get(lemma)
if ir and "part" in ir:
return ir["part"], "lexicon"
if lemma in _PART:
return _PART[lemma], "lexicon"
return None, None
# irregular participle fem/plural quirks (drop circonflexe: dû->due, dus)
_PART_FIX = {"": {"f|SG": "due", "m|PL": "dus", "f|PL": "dues"}}
def participle(lemma, gender="m", number="singular"):
"""Past participle with French gender/number agreement.
m.sg = base; f.sg = base+e; m.pl = base+s (invariable if base ends s/x);
f.pl = f.sg+s."""
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
msg, src = _participle_msg(lemma)
conf = "lexicon"
if msg is None:
vc = _vclass(lemma)
if vc == "er":
msg = lemma[:-2] + "é"
elif vc == "ir":
msg = lemma[:-1] # finir -> fini, partir -> parti
elif vc == "re":
msg = lemma[:-2] + "u" # vendre -> vendu
elif vc == "oir":
msg = lemma[:-3] + "u" # (rough) recevoir handled by irreg
else:
return lemma, "fallback"
conf = "rule"
fix = _PART_FIX.get(msg)
if fix and f"{g}|{num}" in fix:
return fix[f"{g}|{num}"], conf
if g == "m" and num == "SG":
return msg, conf
fem = msg + "e" if not msg.endswith("e") else msg
if g == "f" and num == "SG":
return fem, conf
if g == "m" and num == "PL":
return msg if msg.endswith(("s", "x")) else msg + "s", conf
# f|PL
return fem + "s", conf
def gerund(lemma):
"""Participe présent (base for gérondif 'en -ant')."""
lemma = lemma.strip().lower()
ir = _IRREGV.get(lemma)
if ir and "ger" in ir:
return ir["ger"], "lexicon"
if lemma in _GER:
return _GER[lemma], "lexicon"
vc = _vclass(lemma)
if vc == "er":
stem = lemma[:-2]
if stem.endswith("g"):
return stem + "eant", "rule"
if stem.endswith("c"):
return stem[:-1] + "çant", "rule"
return stem + "ant", "rule"
if vc == "ir":
return lemma[:-2] + "issant", "rule"
if vc == "re":
return lemma[:-2] + "ant", "rule"
return lemma, "fallback"
# ── PUBLIC: noun gender + number ─────────────────────────────────────────────────
_FEM_SUF = ("tion", "sion", "aison", "ance", "ence", "ette", "elle", "esse",
"ude", "ade", "ée", "", "tié", "ie", "ise", "ure", "eur")
_MASC_SUF = ("ment", "age", "eau", "isme", "oir", "ier", "eur", "in", "on")
def _gender_heuristic(noun):
for suf in _FEM_SUF:
if noun.endswith(suf):
return "f"
for suf in _MASC_SUF:
if noun.endswith(suf):
return "m"
if noun.endswith("e"):
return "f"
return "m"
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g") in ("m", "f"):
return d["g"]
return _gender_heuristic(lemma)
# closed sets for French plural irregularities
_OU_X = {"bijou", "caillou", "chou", "genou", "hibou", "joujou", "pou"}
_AIL_AUX = {"travail", "vitrail", "corail", "émail", "bail", "soupirail", "vantail"}
_AL_S = {"bal", "carnaval", "festival", "récital", "chacal", "régal", "cal", "aval"}
def _rule_plural(noun, gender):
"""Deterministic French pluralization. (form, ok); ok=False FLAGS ambiguity."""
if not noun:
return noun, True
if noun[-1:] in ("s", "x", "z"):
return noun, True # invariable
if noun in _OU_X:
return noun + "x", True
if noun.endswith(("eau", "au", "eu")):
if noun in ("pneu", "bleu", "landau", "sarrau"):
return noun + "s", True
return noun + "x", True # bateau->bateaux, jeu->jeux
if noun.endswith("al"):
if noun in _AL_S:
return noun + "s", True
return noun[:-2] + "aux", True # cheval->chevaux
if noun.endswith("ail"):
if noun in _AIL_AUX:
return noun[:-3] + "aux", True # travail->travaux
return noun + "s", True
return noun + "s", True # default
def inflect_noun(lemma, number, gender=None):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if number == "singular":
return (d["SG"] if d and d.get("SG") else lemma), ("lexicon" if d else "rule")
if d and d.get("PL"):
return d["PL"], "lexicon"
g = gender or noun_gender(lemma)
form, ok = _rule_plural(lemma, g)
return form, ("rule" if ok else "fallback")
# adjectives whose kaikki entries are unreliable: audited forms
_ADJ_FIX = {
"beau": {("m", "SG"): "beau", ("f", "SG"): "belle",
("m", "PL"): "beaux", ("f", "PL"): "belles"},
"nouveau": {("m", "SG"): "nouveau", ("f", "SG"): "nouvelle",
("m", "PL"): "nouveaux", ("f", "PL"): "nouvelles"},
"vieux": {("m", "SG"): "vieux", ("f", "SG"): "vieille",
("m", "PL"): "vieux", ("f", "PL"): "vieilles"},
"fou": {("m", "SG"): "fou", ("f", "SG"): "folle",
("m", "PL"): "fous", ("f", "PL"): "folles"},
"blanc": {("m", "SG"): "blanc", ("f", "SG"): "blanche",
("m", "PL"): "blancs", ("f", "PL"): "blanches"},
"long": {("m", "SG"): "long", ("f", "SG"): "longue",
("m", "PL"): "longs", ("f", "PL"): "longues"},
"bon": {("m", "SG"): "bon", ("f", "SG"): "bonne",
("m", "PL"): "bons", ("f", "PL"): "bonnes"},
}
def _rule_fem(a):
if a.endswith("e"):
return a
if a.endswith("er"):
return a[:-2] + "ère"
if a.endswith("eau"):
return a[:-3] + "elle"
if a.endswith("eux"):
return a[:-3] + "euse"
if a.endswith("f"):
return a[:-1] + "ve"
if a.endswith(("on", "en", "el", "eil", "et")):
return a + a[-1] + "e" # bon->bonne, ancien->ancienne, muet->muette
if a.endswith("c"):
return a[:-1] + "che" # blanc->blanche (public->publique via FIX)
return a + "e" # grand->grande, petit->petite, vert->verte
def inflect_adj(lemma, gender, number):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
fix = _ADJ_FIX.get(lemma)
if fix and (g, num) in fix:
return fix[(g, num)], "lexicon"
d = _ADJS.get(lemma)
if d and d.get((g, num)):
return d[(g, num)], "lexicon"
# derive
msc = (d.get(("m", "SG")) if d else None) or lemma
if g == "m" and num == "SG":
return msc, "lexicon" if d else "rule"
fem = (d.get(("f", "SG")) if d else None) or _rule_fem(msc)
if g == "f" and num == "SG":
return fem, "lexicon" if (d and d.get(("f", "SG"))) else "rule"
if g == "m" and num == "PL":
if msc.endswith(("s", "x")):
return msc, "rule"
if msc.endswith("al"):
return msc[:-2] + "aux", "rule"
if msc.endswith("eau"):
return msc + "x", "rule"
return msc + "s", "rule"
# f|PL
return (fem if fem.endswith("s") else fem + "s"), "rule"
def lexicon_stats():
return {
"verb_source": "UniMorph French (github.com/unimorph/fra) + kaikki.org "
"irregulars (être + high-frequency)",
"noun_adj_source": "kaikki.org French (Wiktionary extract)",
"license": "CC-BY-SA 3.0 (Wiktionary/UniMorph lineage)",
"unimorph_verb_forms": len(_VERBS),
"unimorph_verb_lemmas": len({k[0] for k in _VERBS}),
"irregular_verb_lemmas": len(_IRREGV),
"participle_lemmas": len(_PART),
"gerund_lemmas": len(_GER),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
tests = [
("parler", "ind", "present", "first", "singular", "parle"),
("être", "ind", "present", "third", "singular", "est"),
("avoir", "ind", "present", "first", "singular", "ai"),
("aller", "ind", "present", "third", "plural", "vont"),
("finir", "ind", "present", "first", "singular", "finis"),
("finir", "ind", "present", "first", "plural", "finissons"),
("manger", "ind", "present", "first", "plural", "mangeons"),
("faire", "ind", "future", "first", "singular", "ferai"),
("pouvoir", "sbjv", "present", "third", "singular", "puisse"),
("prendre", "ind", "passe_simple", "third", "singular", "prit"),
("vendre", "ind", "present", "third", "singular", "vend"),
("commencer", "ind", "imperfect", "first", "singular", "commençais"),
]
ok = 0
for lemma, mood, tense, per, num, exp in tests:
got, conf = conjugate(lemma, mood, tense, per, num)
flag = "OK " if got == exp else "XX "
ok += got == exp
print(f" {flag}{lemma:10} {mood}/{tense:12} {per[:3]}.{num[:2]} -> {got:12} ({conf}) exp={exp}")
print(f"verb tests {ok}/{len(tests)}")
print(" gender: maison=", noun_gender("maison"), "chat=", noun_gender("chat"),
"cheval=", noun_gender("cheval"), "nation=", noun_gender("nation"))
print(" plural: cheval->", inflect_noun("cheval", "plural"),
"| bateau->", inflect_noun("bateau", "plural"),
"| prix->", inflect_noun("prix", "plural"),
"| chat->", inflect_noun("chat", "plural"))
print(" adj: petit/f/sg->", inflect_adj("petit", "f", "singular"),
"| beau/f/sg->", inflect_adj("beau", "f", "singular"),
"| heureux/f/sg->", inflect_adj("heureux", "f", "singular"),
"| national/m/pl->", inflect_adj("national", "m", "plural"))
print(" part: aller/f/sg->", participle("aller", "f", "singular"),
"| prendre/f/pl->", participle("prendre", "f", "plural"),
"| finir/m/pl->", participle("finir", "m", "plural"))
print(" ger: manger->", gerund("manger"), "| finir->", gerund("finir"))
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"""morphology_it_full.py — production-grade Italian morphological generator.
NOT a toy. Backed by three real, Wiktionary-lineage lexical sources:
VERBS
UniMorph Italian (github.com/unimorph/ita, CC-BY-SA 3.0)
10,009 verb lemmas × full paradigm, CLEAN orthography (no stress marks):
indicative present / imperfetto (PST;IPFV) / passato remoto (PST;PFV) /
futuro, condizionale (COND),
congiuntivo presente (SBJV;PRS) / imperfetto (SBJV;PST),
affirmative imperative, infinitive, gerundio (V.CVB;PRS),
past participle (masc-sg; fem/plural derived by vowel rule).
it_irreg_verbs.json — 66 high-frequency verbs UniMorph MISSES
(essere, avere, potere, uscire, tenere, prendere, piacere, …), extracted
from kaikki.org Italian, filtered to standard forms, and DE-STRESSED to
real orthography (kaikki marks tonic stress everywhere: pàrlo->parlo,
avùto->avuto; final legit accents kept: sarò, è). Built by build_it_irreg.py.
This layer takes priority — it supplies the two auxiliaries essere/avere,
which the whole passato-prossimo / essere-agreement system depends on.
NOUNS + ADJECTIVES — kaikki.org Italian (Wiktionary extract, CC-BY-SA 3.0)
noun lemmas WITH inherent gender (head-template arg) + real (often irregular)
plural — uomo->uomini, uovo->uova, dito->dita, città invariant — resolved
PER LEMMA, never guessed.
adjective lemmas with real feminine + masc/fem plural (italiano->italiana/
italiani/italiane, felice->felici invariant).
Fallbacks (degrade, never crash, on OOV input):
verbs : rule generator for regular -are/-ere/-ire (with -care/-gare h-insertion
and -ciare/-giare/-iare i-drop spelling rules)
nouns : gender heuristic (endings) + rule pluralization (ambiguous -co/-go FLAGGED)
adjs : -o/-a/-e gender rule + rule pluralization
Confidence flag on every form:
"lexicon" from UniMorph / kaikki-irregular / kaikki noun-adj (trust: high)
"rule" deterministic rule (trust: medium)
"fallback" could not inflect; returned lemma / ambiguous (trust: low -> FLAG)
Public API (used by realizer_it.py):
conjugate(lemma, mood, tense, person, number) -> (form, conf)
participle(lemma, gender="m", number="singular") -> (form, conf)
gerund(lemma) -> (form, conf)
noun_gender(lemma) -> "m"|"f"
inflect_noun(lemma, number, gender=None) -> (form, conf)
inflect_adj(lemma, gender, number) -> (form, conf)
lexicon_stats() -> dict
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "ita.unimorph")
_IRREG = os.path.join(_HERE, "data", "it_irreg_verbs.json")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_it.jsonl")
_CACHE = os.path.join(_HERE, "data", "it_morph_cache.pkl")
# ── (mood, tense) -> UniMorph feature set that must ALL be present ────────────────
_VERB_KEYMAP = {
("ind", "present"): {"IND", "PRS"},
("ind", "imperfect"): {"IND", "PST", "IPFV"},
("ind", "passato_remoto"): {"IND", "PST", "PFV"},
("ind", "future"): {"IND", "FUT"},
("ind", "conditional"): {"COND"},
("sbjv", "present"): {"SBJV", "PRS"},
("sbjv", "imperfect"): {"SBJV", "PST"},
("imp", "affirmative"): {"POS", "IMP"},
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
def _feat_set(tag):
return set(tag.split(";"))
# ── build verb lexicon from UniMorph ─────────────────────────────────────────────
def _build_verbs():
verbs = {} # (lemma, "mood|tense|person|number") -> form
part = {} # lemma -> masc-sg past participle
ger = {} # lemma -> gerundio
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V.PTCP":
if "PST" in f:
part.setdefault(lemma, form)
continue
if head == "V.CVB": # gerundio (converb, present)
if "PRS" in f:
ger.setdefault(lemma, form)
continue
if head != "V":
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
for (mood, tense), req in _VERB_KEYMAP.items():
# exact-set discipline: PST;PFV must not match PST;IPFV, etc.
if not req <= f:
continue
# guard IND;PST ambiguity: require the specific aspect feature
if tense == "imperfect" and "PFV" in f:
continue
if tense == "passato_remoto" and "IPFV" in f:
continue
# COND must not also be a subjunctive/imperative slot
verbs.setdefault((lemma, f"{mood}|{tense}|{person}|{number}"), form)
break
return verbs, part, ger
# ── kaikki nouns + adjectives ────────────────────────────────────────────────────
_EXCL_FORM_TAGS = {"alternative", "archaic", "obsolete", "dialectal", "regional",
"diminutive", "augmentative", "pejorative", "comparative",
"superlative", "misspelling", "rare", "informal", "literary",
"poetic", "error-unrecognized-form", "apocopic", "obsolete",
"construed", "collective"}
def _kaikki_gender(arg):
if not arg:
return None
a = str(arg).lower()
if a.startswith("f"):
return "f"
if a.startswith("m"):
return "m"
return None
def _build_nouns_adjs():
nouns = {} # lemma -> {"g","SG","PL"}
adjs = {} # lemma -> {("m","SG"),("f","SG"),("m","PL"),("f","PL")}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
pos = d.get("pos")
word = d.get("word", "")
if not word or " " in word:
continue
forms = d.get("forms", []) or []
if pos == "noun":
ht = d.get("head_templates") or []
g = None
if ht:
g = _kaikki_gender((ht[0].get("args") or {}).get("1"))
if g is None:
tags = d.get("tags") or []
if "feminine" in tags:
g = "f"
elif "masculine" in tags:
g = "m"
pl = None
for x in forms:
t = set(x.get("tags") or [])
if "plural" in t and not (t & _EXCL_FORM_TAGS):
fm = x.get("form")
if fm and " " not in fm and fm != "#":
pl = fm
break
if word not in nouns:
nouns[word] = {"g": g, "SG": word, "PL": pl}
else:
cur = nouns[word]
if cur.get("g") is None and g:
cur["g"] = g
if not cur.get("PL") and pl:
cur["PL"] = pl
elif pos == "adj":
d0 = adjs.setdefault(word, {})
d0.setdefault(("m", "SG"), word)
for x in forms:
t = set(x.get("tags") or [])
fm = x.get("form")
if not fm or " " in fm or (t & _EXCL_FORM_TAGS):
continue
if "feminine" in t and "plural" in t:
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
elif "masculine" in t and "plural" in t:
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
elif "feminine" in t:
d0[("f", "SG")] = d0.get(("f", "SG")) or fm
elif "plural" in t: # invariant-gender adj (felice -> felici)
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
return nouns, adjs
def _build_cache():
verbs, part, ger = _build_verbs()
nouns, adjs = _build_nouns_adjs()
with open(_IRREG, encoding="utf-8") as fh:
irreg = json.load(fh)
data = {"verbs": verbs, "part": part, "ger": ger,
"nouns": nouns, "adjs": adjs, "irreg": irreg}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
srcs = [_UNIMORPH, _KAIKKI, _IRREG]
newest = max(os.path.getmtime(s) for s in srcs if os.path.exists(s))
if os.path.getmtime(_CACHE) >= newest:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _PART, _GER, _NOUNS, _ADJS, _IRREGV = (
_LEX["verbs"], _LEX["part"], _LEX["ger"], _LEX["nouns"], _LEX["adjs"],
_LEX["irreg"])
# ── regular-ending rule fallback ─────────────────────────────────────────────────
def _vclass(lemma):
if lemma.endswith("are"):
return "are"
if lemma.endswith("ere"):
return "ere"
if lemma.endswith("ire"):
return "ire"
return None
# endings [1sg,2sg,3sg,1pl,2pl,3pl]
_REG = {
("ind", "present", "are"): ["o", "i", "a", "iamo", "ate", "ano"],
("ind", "present", "ere"): ["o", "i", "e", "iamo", "ete", "ono"],
("ind", "present", "ire"): ["o", "i", "e", "iamo", "ite", "ono"],
("ind", "imperfect", "are"): ["avo", "avi", "ava", "avamo", "avate", "avano"],
("ind", "imperfect", "ere"): ["evo", "evi", "eva", "evamo", "evate", "evano"],
("ind", "imperfect", "ire"): ["ivo", "ivi", "iva", "ivamo", "ivate", "ivano"],
("ind", "passato_remoto", "are"): ["ai", "asti", "ò", "ammo", "aste", "arono"],
("ind", "passato_remoto", "ere"): ["ei", "esti", "é", "emmo", "este", "erono"],
("ind", "passato_remoto", "ire"): ["ii", "isti", "ì", "immo", "iste", "irono"],
("sbjv", "present", "are"): ["i", "i", "i", "iamo", "iate", "ino"],
("sbjv", "present", "ere"): ["a", "a", "a", "iamo", "iate", "ano"],
("sbjv", "present", "ire"): ["a", "a", "a", "iamo", "iate", "ano"],
("sbjv", "imperfect", "are"): ["assi", "assi", "asse", "assimo", "aste", "assero"],
("sbjv", "imperfect", "ere"): ["essi", "essi", "esse", "essimo", "este", "essero"],
("sbjv", "imperfect", "ire"): ["issi", "issi", "isse", "issimo", "iste", "issero"],
# imperative: 2sg,3sg(Lei),1pl,2pl,3pl (1sg has none)
("imp", "affirmative", "are"): [None, "a", "i", "iamo", "ate", "ino"],
("imp", "affirmative", "ere"): [None, "i", "a", "iamo", "ete", "ano"],
("imp", "affirmative", "ire"): [None, "i", "a", "iamo", "ite", "ano"],
}
# future / conditional attach to a stem = infinitive minus final -e, with
# -are -> -er (parlare->parler-), -ere/-ire keep (credere->creder-, dormir-)
_FUT = ["ò", "ai", "à", "emo", "ete", "anno"]
_COND = ["ei", "esti", "ebbe", "emmo", "este", "ebbero"]
def _slot_idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _fut_stem(lemma, vc):
body = lemma[:-3] # drop are/ere/ire
if vc == "are":
return body + "er"
return body + vc[0] + "r" # ere->er? no: keep vowel: creder-, dormir-
# NOTE corrected below
def _apply_are_spelling(stem, ending):
"""-care/-gare insert h before front endings; -ciare/-giare/-sciare/-iare drop i."""
front = ending[:1] in ("i", "e")
if stem.endswith(("c", "g")) and front:
return stem + "h" + ending
if stem.endswith(("ci", "gi", "sci")) and ending[:1] == "i":
return stem[:-1] + ending # mangi+iamo -> mangiamo
if stem.endswith("i") and ending[:1] == "i":
return stem[:-1] + ending # studi+iamo -> studiamo
return stem + ending
def _rule_conjugate(lemma, mood, tense, person, number):
vc = _vclass(lemma)
if vc is None:
return None
body = lemma[:-3]
i = _slot_idx(person, number)
if mood == "ind" and tense in ("future", "conditional"):
stem = body + "er" if vc == "are" else body + vc[0] + "r"
# ere: creder-, ire: dormir- -> body + 'e'/'i' + 'r'
if vc == "ere":
stem = body + "er"
elif vc == "ire":
stem = body + "ir"
end = (_FUT if tense == "future" else _COND)[i]
# spelling: -care/-gare -> cherò/gherò ; -ciare/-giare -> cerò/gerò
if vc == "are":
if body.endswith(("c", "g")):
stem = body + "her"
elif body.endswith(("ci", "gi", "sci")):
stem = body[:-1] + "er"
elif body.endswith("i"):
stem = body[:-1] + "er"
return stem + end
table = _REG.get((mood, tense, vc))
if not table:
return None
end = table[i]
if end is None:
return None
if vc == "are":
return _apply_are_spelling(body, end)
# -ere/-ire: guard against double-i (dormi+iamo -> dormiamo)
if body.endswith("i") and end[:1] == "i":
return body[:-1] + end
return body + end
# ── PUBLIC: verb conjugation ─────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number):
"""Return (surface, confidence). mood in ind|sbjv|imp; tense per _VERB_KEYMAP."""
lemma = lemma.strip().lower()
key = f"{mood}|{tense}|{_PERSON.get(person,'?')}|{number}"
ir = _IRREGV.get(lemma)
if ir and key in ir:
return ir[key], "lexicon"
p, n = _PERSON.get(person), _NUMBER.get(number)
if p and n:
form = _VERBS.get((lemma, f"{mood}|{tense}|{p}|{n}"))
if form:
return form, "lexicon"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r:
return r, "rule"
return lemma, "fallback"
# ── PUBLIC: participle + gerund ──────────────────────────────────────────────────
def _participle_msg(lemma):
"""Return (masc-sg participle, source) or (None, None)."""
ir = _IRREGV.get(lemma)
if ir and "part" in ir:
return ir["part"], "lexicon"
if lemma in _PART:
return _PART[lemma], "lexicon"
return None, None
def participle(lemma, gender="m", number="singular"):
"""Past participle with gender/number agreement (for essere-perfect & passives).
UniMorph/irregular give masc-sg; fem/plural derived by final-vowel swap
(-o -> -a/-i/-e), valid for regular -ato/-uto/-ito AND irregulars
(preso->presa/presi/prese, aperto->aperta/aperti/aperte, morto->morta/...)."""
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
msg, src = _participle_msg(lemma)
conf = "lexicon"
if msg is None:
vc = _vclass(lemma)
if vc == "are":
msg = lemma[:-3] + "ato"
elif vc == "ere":
msg = lemma[:-3] + "uto"
elif vc == "ire":
msg = lemma[:-3] + "ito"
else:
return lemma, "fallback"
conf = "rule"
# agreement: only -o participles inflect for gender+number
if msg.endswith("o"):
stem = msg[:-1]
suf = {"m|SG": "o", "f|SG": "a", "m|PL": "i", "f|PL": "e"}[f"{g}|{num}"]
return stem + suf, conf
return msg, conf # non -o participle: leave as-is (rare)
def gerund(lemma):
lemma = lemma.strip().lower()
ir = _IRREGV.get(lemma)
if ir and "ger" in ir:
return ir["ger"], "lexicon"
if lemma in _GER:
return _GER[lemma], "lexicon"
vc = _vclass(lemma)
if vc == "are":
return lemma[:-3] + "ando", "rule"
if vc in ("ere", "ire"):
return lemma[:-3] + "endo", "rule"
return lemma, "fallback"
# ── PUBLIC: noun gender + number ─────────────────────────────────────────────────
_FEM_SUF = ("zione", "sione", "gione", "", "", "trice", "aggine", "udine",
"igine", "ie", "essa", "izia", "ezza")
_MASC_SUF = ("ore", "ame", "iere", "ale", "ile")
def _gender_heuristic(noun):
for suf in _FEM_SUF:
if noun.endswith(suf):
return "f"
for suf in _MASC_SUF:
if noun.endswith(suf):
return "m"
if noun.endswith("o"):
return "m"
if noun.endswith("a"):
return "f"
if noun.endswith("à") or noun.endswith("ù"):
return "f"
return "m" # -e and consonant-final loanwords default masculine
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g") in ("m", "f"):
return d["g"]
return _gender_heuristic(lemma)
def _rule_plural(noun, gender):
"""Deterministic Italian pluralization. Returns (form, ok); ok=False FLAGS an
ambiguous case the lexicon would normally resolve (-co/-go palatalization)."""
if not noun:
return noun, True
# invariant: accented final vowel, consonant-final, monosyllable, -i final
if noun[-1:] in ("à", "è", "é", "ì", "í", "ò", "ó", "ù", "ú"):
return noun, True
if noun[-1:] not in ("a", "e", "o", "i", "u"):
return noun, True # consonant-final loanword: invariant
if noun.endswith("i"):
return noun, True # e.g. crisi, analisi: invariant
if noun.endswith("io"):
return noun[:-2] + "i", True # figlio->figli (unstressed i)
if noun.endswith("cia") or noun.endswith("gia"):
# vowel before cia/gia -> -cie/-gie ; consonant -> -ce/-ge (approx)
return noun[:-2] + "e", True # arancia->arance (majority)
if noun.endswith("ca"):
return noun[:-2] + "che", True # amica->amiche
if noun.endswith("ga"):
return noun[:-2] + "ghe", True
if noun.endswith("co"):
return noun[:-2] + "chi", False # AMBIGUOUS (amico->amici) -> flag
if noun.endswith("go"):
return noun[:-2] + "ghi", False # AMBIGUOUS (psicologo->psicologi)
if noun.endswith("a"):
return noun[:-1] + "e", True # casa->case (m -a: -i, but rare)
if noun.endswith("o"):
return noun[:-1] + "i", True # libro->libri
if noun.endswith("e"):
return noun[:-1] + "i", True # cane->cani, chiave->chiavi
return noun, True
def inflect_noun(lemma, number, gender=None):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if number == "singular":
return (d["SG"] if d and d.get("SG") else lemma), ("lexicon" if d else "rule")
if d and d.get("PL"):
return d["PL"], "lexicon"
g = gender or noun_gender(lemma)
form, ok = _rule_plural(lemma, g)
return form, ("rule" if ok else "fallback")
# adjectives whose kaikki entries are unreliable (messy inflection templates):
# supply audited regular agreement forms (prenominal apocope handled in realizer).
_ADJ_FIX = {
"bello": {("m", "SG"): "bello", ("f", "SG"): "bella",
("m", "PL"): "belli", ("f", "PL"): "belle"},
"quello": {("m", "SG"): "quello", ("f", "SG"): "quella",
("m", "PL"): "quelli", ("f", "PL"): "quelle"},
}
# ── PUBLIC: adjective agreement ──────────────────────────────────────────────────
def inflect_adj(lemma, gender, number):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
fix = _ADJ_FIX.get(lemma)
if fix and (g, num) in fix:
return fix[(g, num)], "lexicon"
d = _ADJS.get(lemma)
if d:
form = d.get((g, num))
if form:
return form, "lexicon"
sg = d.get((g, "SG")) or d.get(("m", "SG")) or lemma
if num == "PL":
pl, ok = _rule_plural(sg, g)
return pl, ("rule" if ok else "fallback")
return sg, "lexicon"
# rule fallback
a = lemma
if a.endswith("o"): # -o/-a/-i/-e class
base = a[:-1]
suf = {"m|SG": "o", "f|SG": "a", "m|PL": "i", "f|PL": "e"}[f"{g}|{num}"]
return base + suf, "rule"
if a.endswith("e"): # felice-class: SG invariant, PL -i
if num == "PL":
return a[:-1] + "i", "rule"
return a, "rule"
if num == "PL":
p, ok = _rule_plural(a, g)
return p, ("rule" if ok else "fallback")
return a, "rule"
def lexicon_stats():
return {
"verb_source": "UniMorph Italian (github.com/unimorph/ita) + kaikki.org "
"irregulars (de-stressed)",
"noun_adj_source": "kaikki.org Italian (Wiktionary extract)",
"license": "CC-BY-SA 3.0 (Wiktionary/UniMorph lineage)",
"unimorph_verb_forms": len(_VERBS),
"unimorph_verb_lemmas": len({k[0] for k in _VERBS}),
"irregular_verb_lemmas": len(_IRREGV),
"participle_lemmas": len(_PART),
"gerund_lemmas": len(_GER),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
tests = [
("parlare", "ind", "present", "first", "singular", "parlo"),
("essere", "ind", "present", "third", "singular", "è"),
("avere", "ind", "present", "first", "singular", "ho"),
("mangiare", "ind", "present", "second", "singular", "mangi"),
("finire", "ind", "present", "first", "singular", "finisco"),
("andare", "ind", "present", "third", "plural", "vanno"),
("fare", "ind", "future", "first", "singular", "farò"),
("potere", "sbjv", "present", "third", "singular", "possa"),
("prendere", "ind", "passato_remoto", "first", "singular", "presi"),
("cercare", "ind", "present", "second", "singular", "cerchi"),
("dormire", "ind", "present", "third", "plural", "dormono"),
("credere", "ind", "future", "first", "singular", "crederò"),
]
ok = 0
for lemma, mood, tense, per, num, exp in tests:
got, conf = conjugate(lemma, mood, tense, per, num)
flag = "OK " if got == exp else "XX "
ok += got == exp
print(f" {flag}{lemma:9} {mood}/{tense:14} {per[:3]}.{num[:2]} -> {got:12} ({conf}) exp={exp}")
print(f"verb tests {ok}/{len(tests)}")
print(" gender: casa=", noun_gender("casa"), "problema=", noun_gender("problema"),
"mano=", noun_gender("mano"), "città=", noun_gender("città"),
"cane=", noun_gender("cane"))
print(" plural: uomo->", inflect_noun("uomo", "plural"),
"| uovo->", inflect_noun("uovo", "plural"),
"| città->", inflect_noun("città", "plural"),
"| amico->", inflect_noun("amico", "plural"),
"| casa->", inflect_noun("casa", "plural"))
print(" adj: italiano/f/pl->", inflect_adj("italiano", "f", "plural"),
"| felice/m/pl->", inflect_adj("felice", "m", "plural"),
"| bello/f/sg->", inflect_adj("bello", "f", "singular"))
print(" part: aprire/f/sg->", participle("aprire", "f", "singular"),
"| prendere/m/pl->", participle("prendere", "m", "plural"),
"| andare/f/sg->", participle("andare", "f", "singular"))
print(" ger: fare->", gerund("fare"), "| parlare->", gerund("parlare"))
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# -*- coding: utf-8 -*-
"""morphology_lat_full.py — production-grade Latin morphological generator.
Latin is the FLAGSHIP dead-language realizer. It rides the *architecture* of the
Romance/Italic engine (the same Realization / spec-driven design and the UniMorph
loader pattern from morphology_it_full.py) but with the CASE SYSTEM RESTORED —
the feature Romance lost. Latin therefore exercises machinery the modern Romance
siblings never needed: 5 declensions x 6 cases x 2 numbers x 3 genders, plus a
4-conjugation verb system with tense/mood/voice.
DATA (real, attested — no fabrication):
NOUNS + ADJECTIVES — UniMorph Latin (github.com/unimorph/lat, CC-BY-SA 3.0)
163,182 N forms across ~thousands of lemmas, each with the full case paradigm
N;NOM/GEN/DAT/ACC/ABL/VOC;SG/PL (real inflected forms, WITH macrons:
puella->puellam, rēx->rēgis, corpus->corporis).
244,197 ADJ forms with case x GENDER x number, incl. UniMorph's combined
tags (GEN+DAT, MASC+FEM, MASC+FEM+NEUT) which are split on load.
462,668 V.PTCP forms (participles) also carry case/gender/number.
UniMorph N tags DO NOT encode inherent gender, so noun gender is inferred
from the declension (nom-sg + gen-sg endings) with a curated exceptions
map — the standard, attestable rule (1st decl -a/-ae = fem, 2nd -us/-i =
masc, -um = neut, ...).
VERBS — RULE ENGINE (honest gap: UniMorph Latin's verb list is a 947-lemma
sample of rare/prefixed verbs that MISSES every core textbook verb — amō,
videō, sum, regō, ... are all absent). Latin conjugation is, however, highly
regular, so verbs are generated by a deterministic 4-conjugation engine over
curated principal parts (present / perfect / supine stems), sourced from
standard references. Irregulars (sum, possum, eō, ferō, volō, nōlō, mālō)
are curated full tables. Forms are flagged "rule" (not "lexicon") for honesty.
Confidence flag on every form (same contract as the Romance engine):
"lexicon" from UniMorph (trust: high)
"rule" deterministic morphology rule (trust: medium)
"fallback" could not inflect; returned lemma (trust: low -> FLAG)
Public API (used by realizer_lat.py):
decline_noun(lemma, case, number) -> (form, conf)
noun_gender(lemma) -> "m"|"f"|"n"
decline_adj(lemma, case, gender, number) -> (form, conf)
conjugate(lemma, tense, mood, voice, person, number) -> (form, conf)
participle(lemma, kind, case, gender, number) -> (form, conf) # kind: prs|pfv|fut
infinitive(lemma, tense="present", voice="active") -> (form, conf)
lexicon_stats() -> dict
"""
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "lat.unimorph")
_CACHE = os.path.join(_HERE, "data", "lat_morph_cache.pkl")
_CASES = ("NOM", "GEN", "DAT", "ACC", "ABL", "VOC")
_CASE_MAP = {"nom": "NOM", "gen": "GEN", "dat": "DAT", "acc": "ACC",
"abl": "ABL", "voc": "VOC"}
_NUM = {"singular": "SG", "plural": "PL"}
_GEN = {"m": "MASC", "f": "FEM", "n": "NEUT"}
# ── UniMorph loader: noun + adjective + participle case paradigms ────────────────
def _build_cache():
nouns = {} # lemma -> {(CASE, NUM): form}
adjs = {} # lemma -> {(CASE, GEN, NUM): form}
ptcps = {} # lemma -> {(CASE, GEN, NUM): form} (from V.PTCP; keyed loosely)
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
feats = tag.split(";")
head = feats[0]
fs = set(feats)
case = next((c for c in _CASES if c in fs), None)
# handle combined case tags like GEN+DAT
if case is None:
for f in feats:
if "+" in f and any(c in f.split("+") for c in _CASES):
case = [c for c in _CASES if c in f.split("+")]
break
num = "SG" if "SG" in fs else ("PL" if "PL" in fs else None)
if case is None or num is None:
continue
cases = case if isinstance(case, list) else [case]
if head == "N":
d = nouns.setdefault(lemma, {})
for c in cases:
d.setdefault((c, num), form)
elif head == "ADJ":
# gender may be combined: MASC+FEM+NEUT, MASC+FEM
genders = []
for g in ("MASC", "FEM", "NEUT"):
if any(g == x or (g in x.split("+")) for x in feats):
genders.append(g)
if not genders:
genders = ["MASC", "FEM", "NEUT"]
d = adjs.setdefault(lemma, {})
for c in cases:
for g in genders:
d.setdefault((c, g, num), form)
data = {"nouns": nouns, "adjs": adjs, "ptcps": ptcps}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE) and os.path.exists(_UNIMORPH):
if os.path.getmtime(_CACHE) >= os.path.getmtime(_UNIMORPH):
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_NOUNS, _ADJS = _LEX["nouns"], _LEX["adjs"]
# ── noun gender inference (declension-based, curated exceptions) ─────────────────
# Real, attestable rule: gender follows declension + nominative shape, with the
# standard closed set of exceptions.
_GENDER_EXC = {
# 1st-declension masculines (people/agents)
"agricola": "m", "poēta": "m", "nauta": "m", "incola": "m", "scrība": "m",
"auriga": "m", "pīrāta": "m", "athlēta": "m",
# 2nd-declension neuters / feminines
"vīrus": "n", "vulgus": "n", "pelagus": "n", "humus": "f",
# common 3rd-declension whose gender the ending would mispredict
"rēx": "m", "dux": "m", "mīles": "m", "pater": "m", "frāter": "m",
"homō": "m", "leō": "m", "sōl": "m", "mōns": "m", "pōns": "m", "fōns": "m",
"sanguis": "m", "ōrdō": "m", "sermō": "m", "amor": "m", "dolor": "m",
"labor": "m", "timor": "m", "honor": "m", "color": "m", "pēs": "m",
"dēns": "m", "flōs": "m", "mōs": "m", "mensis": "m", "orbis": "m",
"piscis": "m", "ignis": "m", "collis": "m", "grex": "m", "prīnceps": "m",
"māter": "f", "soror": "f", "uxor": "f", "mulier": "f", "virgō": "f",
"urbs": "f", "arx": "f", "pāx": "f", "lēx": "f", "lūx": "f", "vōx": "f",
"nox": "f", "nix": "f", "vīs": "f", "salūs": "f", "virtūs": "f",
"aetās": "f", "cīvitās": "f", "lībertās": "f", "vēritās": "f", "voluptās": "f",
"nātiō": "f", "ratiō": "f", "ōrātiō": "f", "legiō": "f", "regiō": "f",
"mens": "f", "gens": "f", "ars": "f", "pars": "f", "mors": "f", "sors": "f",
"nāvis": "f", "turris": "f", "avis": "f", "vallis": "f", "classis": "f",
"corpus": "n", "tempus": "n", "opus": "n", "genus": "n", "onus": "n",
"pectus": "n", "latus": "n", "vulnus": "n", "scelus": "n", "sīdus": "n",
"caput": "n", "iter": "n", "flūmen": "n", "nōmen": "n", "carmen": "n",
"agmen": "n", "certāmen": "n", "lūmen": "n", "ōmen": "n", "cōgnōmen": "n",
"mare": "n", "animal": "n", "exemplar": "n", "rēte": "n",
# 4th-declension exceptions
"manus": "f", "domus": "f", "tribus": "f", "porticus": "f", "īdūs": "f",
"cornū": "n", "genū": "n", "gelū": "n", "verū": "n",
# 5th-declension
"diēs": "m", "merīdiēs": "m",
}
def _infer_gender(lemma):
if lemma in _GENDER_EXC:
return _GENDER_EXC[lemma]
d = _NOUNS.get(lemma)
nom = d.get(("NOM", "SG")) if d else lemma
gen = d.get(("GEN", "SG")) if d else None
nom = nom or lemma
# 5th declension: gen -eī / -ēī
if gen and (gen.endswith("") or gen.endswith("ēī")):
return "f"
# 1st declension: nom -a, gen -ae
if nom.endswith("a") and (not gen or gen.endswith("ae")):
return "f"
# 2nd declension neuter: nom -um
if nom.endswith("um"):
return "n"
# 2nd declension masc: nom -us/-er/-ir, gen -ī
if (nom.endswith("us") or nom.endswith("er") or nom.endswith("ir")) and \
(not gen or gen.endswith("ī")):
return "m"
# 4th declension: gen -ūs
if gen and gen.endswith("ūs"):
return "n" if nom.endswith("ū") else "m"
# 3rd declension neuters by common nom endings
if nom.endswith(("men", "us", "ur", "al", "ar", "e", "ma")):
# -us here is 3rd-decl neuter type (corpus) only if gen shows -oris/-eris
if nom.endswith("us") and gen and (gen.endswith("oris") or gen.endswith("eris")
or gen.endswith("uris")):
return "n"
if nom.endswith(("men", "al", "ar", "e")):
return "n"
# default 3rd-declension: masculine (most common)
return "m"
_GENDER_CACHE = {}
def noun_gender(lemma):
lemma = lemma.strip()
if lemma not in _GENDER_CACHE:
_GENDER_CACHE[lemma] = _infer_gender(lemma)
return _GENDER_CACHE[lemma]
# ── PUBLIC: noun declension ─────────────────────────────────────────────────────
def decline_noun(lemma, case, number):
lemma = lemma.strip()
C = _CASE_MAP.get(case, case.upper())
N = _NUM.get(number, number)
d = _NOUNS.get(lemma)
if d and (C, N) in d:
return d[(C, N)], "lexicon"
# abl sg often == the -e/-o form; try nom fallback
if d:
# try VOC==NOM, ACC neuter==NOM etc are already in data; last resort lemma
return lemma, "fallback"
return lemma, "fallback"
# ── PUBLIC: adjective declension ────────────────────────────────────────────────
def decline_adj(lemma, case, gender, number):
lemma = lemma.strip()
C = _CASE_MAP.get(case, case.upper())
G = _GEN.get(gender, gender.upper())
N = _NUM.get(number, number)
d = _ADJS.get(lemma)
if d and (C, G, N) in d:
return d[(C, G, N)], "lexicon"
# try other gender (some adjs listed only under MASC+FEM etc handled at load)
if d:
for altG in ("MASC", "FEM", "NEUT"):
if (C, altG, N) in d:
return d[(C, altG, N)], "lexicon"
return lemma, "fallback"
return lemma, "fallback"
# ═══════════════════════════════════════════════════════════════════════════════
# VERB RULE ENGINE (4 conjugations + curated irregulars)
# ═══════════════════════════════════════════════════════════════════════════════
# Curated principal parts for common attested verbs:
# lemma -> (conj, present_stem, perfect_stem, supine_stem)
# conj in {1,2,3,"3io",4}. Stems carry macrons (matching UniMorph orthography).
_VERBS = {
"amō": (1, "am", "amāv", "amāt"),
"laudō": (1, "laud", "laudāv", "laudāt"),
"portō": (1, "port", "portāv", "portāt"),
"vocō": (1, "voc", "vocāv", "vocāt"),
"": (1, "d", "ded", "dat"),
"spectō": (1, "spect", "spectāv", "spectāt"),
"pugnō": (1, "pugn", "pugnāv", "pugnāt"),
"labōrō": (1, "labōr", "labōrāv", "labōrāt"),
"necō": (1, "nec", "necāv", "necāt"),
"parō": (1, "par", "parāv", "parāt"),
"cōgitō": (1, "cōgit", "cōgitāv", "cōgitāt"),
"habitō": (1, "habit", "habitāv", "habitāt"),
"nārrō": (1, "nārr", "nārrāv", "nārrāt"),
"servō": (1, "serv", "servāv", "servāt"),
"superō": (1, "super", "superāv", "superāt"),
"oppugnō": (1, "oppugn", "oppugnāv", "oppugnāt"),
"ambulō": (1, "ambul", "ambulāv", "ambulāt"),
"clāmō": (1, "clām", "clāmāv", "clāmāt"),
"vulnerō": (1, "vulner", "vulnerāv", "vulnerāt"),
"aedificō": (1, "aedific", "aedificāv", "aedificāt"),
"expugnō": (1, "expugn", "expugnāv", "expugnāt"),
"dēfendō": (3, "dēfend", "dēfend", "dēfēns"),
"petō": (3, "pet", "petīv", "petīt"),
"occīdō": (3, "occīd", "occīd", "occīs"),
"interficiō": ("3io", "interfic", "interfēc", "interfect"),
"timeō": (2, "tim", "timu", None),
"iaceō": (2, "iac", "iacu", None),
"pāreō": (2, "pār", "pāru", "pārit"),
"respondeō": (2, "respond", "respond", "respōns"),
"vertō": (3, "vert", "vert", "vers"),
"ostendō": (3, "ostend", "ostend", "ostent"),
"cōnstituō": (3, "cōnstitu", "cōnstitu", "cōnstitūt"),
"cōgnōscō": (3, "cōgnōsc", "cōgnōv", "cōgnit"),
"crēdō": (3, "crēd", "crēdid", "crēdit"),
"ēdūcō": (3, "ēdūc", "ēdūx", "ēduct"),
"cōnservō": (1, "cōnserv", "cōnservāv", "cōnservāt"),
"iuvō": (1, "iuv", "iūv", "iūt"),
"dēbeō": (2, "dēb", "dēbu", "dēbit"),
"moneō": (2, "mon", "monu", "monit"),
"videō": (2, "vid", "vīd", "vīs"),
"habeō": (2, "hab", "habu", "habit"),
"teneō": (2, "ten", "tenu", "tent"),
"timeō": (2, "tim", "timu", None),
"terreō": (2, "terr", "terru", "territ"),
"dēleō": (2, "dēl", "dēlēv", "dēlēt"),
"iubeō": (2, "iub", "iuss", "iuss"),
"maneō": (2, "man", "māns", "māns"),
"moveō": (2, "mov", "mōv", "mōt"),
"doceō": (2, "doc", "docu", "doct"),
"sedeō": (2, "sed", "sēd", "sess"),
"rīdeō": (2, "rīd", "rīs", "rīs"),
"regō": (3, "reg", "rēx", "rēct"),
"dūcō": (3, "dūc", "dūx", "duct"),
"scrībō": (3, "scrīb", "scrīps", "scrīpt"),
"mittō": (3, "mitt", "mīs", "miss"),
"pōnō": (3, "pōn", "posu", "posit"),
"agō": (3, "ag", "ēg", "āct"),
"dīcō": (3, "dīc", "dīx", "dict"),
"gerō": (3, "ger", "gess", "gest"),
"vincō": (3, "vinc", "vīc", "vict"),
"petō": (3, "pet", "petīv", "petīt"),
"legō": (3, "leg", "lēg", "lēct"),
"currō": (3, "curr", "cucurr", "curs"),
"vīvō": (3, "vīv", "vīx", "vīct"),
"quaerō": (3, "quaer", "quaesīv", "quaesīt"),
"trahō": (3, "trah", "trāx", "tract"),
"claudō": (3, "claud", "claus", "claus"),
"cōgō": (3, "cōg", "coēg", "coāct"),
"relinquō": (3, "relinqu", "relīqu", "relict"),
"capiō": ("3io", "cap", "cēp", "capt"),
"faciō": ("3io", "fac", "fēc", "fact"),
"iaciō": ("3io", "iac", "iēc", "iact"),
"rapiō": ("3io", "rap", "rapu", "rapt"),
"fugiō": ("3io", "fug", "fūg", "fugit"),
"cupiō": ("3io", "cup", "cupīv", "cupīt"),
"accipiō": ("3io", "accip", "accēp", "accept"),
"audiō": (4, "aud", "audīv", "audīt"),
"veniō": (4, "ven", "vēn", "vent"),
"sciō": (4, "sc", "scīv", "scīt"),
"sentiō": (4, "sent", "sēns", "sēns"),
"mūniō": (4, "mūn", "mūnīv", "mūnīt"),
"dormiō": (4, "dorm", "dormīv", "dormīt"),
"aperiō": (4, "aper", "aperu", "apert"),
"inveniō": (4, "inven", "invēn", "invent"),
}
# ── Present-system paradigms: full ending tables per conjugation, attached to the
# bare present stem (pstem). Hardcoded from the standard grammar with correct
# macrons/vowel-lengths — deterministic and independently verifiable. Keys:
# (tense, mood, voice) -> {conj: [1sg,2sg,3sg,1pl,2pl,3pl]}
_PARADIGM = {
("present", "ind", "active"): {
1: ["ō", "ās", "at", "āmus", "ātis", "ant"],
2: ["", "ēs", "et", "ēmus", "ētis", "ent"],
3: ["ō", "is", "it", "imus", "itis", "unt"],
"3io": ["", "is", "it", "imus", "itis", "iunt"],
4: ["", "īs", "it", "īmus", "ītis", "iunt"],
},
("present", "ind", "passive"): {
1: ["or", "āris", "ātur", "āmur", "āminī", "antur"],
2: ["eor", "ēris", "ētur", "ēmur", "ēminī", "entur"],
3: ["or", "eris", "itur", "imur", "iminī", "untur"],
"3io": ["ior", "eris", "itur", "imur", "iminī", "iuntur"],
4: ["ior", "īris", "ītur", "īmur", "īminī", "iuntur"],
},
("imperfect", "ind", "active"): {
1: ["ābam", "ābās", "ābat", "ābāmus", "ābātis", "ābant"],
2: ["ēbam", "ēbās", "ēbat", "ēbāmus", "ēbātis", "ēbant"],
3: ["ēbam", "ēbās", "ēbat", "ēbāmus", "ēbātis", "ēbant"],
"3io": ["iēbam", "iēbās", "iēbat", "iēbāmus", "iēbātis", "iēbant"],
4: ["iēbam", "iēbās", "iēbat", "iēbāmus", "iēbātis", "iēbant"],
},
("imperfect", "ind", "passive"): {
1: ["ābar", "ābāris", "ābātur", "ābāmur", "ābāminī", "ābantur"],
2: ["ēbar", "ēbāris", "ēbātur", "ēbāmur", "ēbāminī", "ēbantur"],
3: ["ēbar", "ēbāris", "ēbātur", "ēbāmur", "ēbāminī", "ēbantur"],
"3io": ["iēbar", "iēbāris", "iēbātur", "iēbāmur", "iēbāminī", "iēbantur"],
4: ["iēbar", "iēbāris", "iēbātur", "iēbāmur", "iēbāminī", "iēbantur"],
},
("future", "ind", "active"): {
1: ["ābō", "ābis", "ābit", "ābimus", "ābitis", "ābunt"],
2: ["ēbō", "ēbis", "ēbit", "ēbimus", "ēbitis", "ēbunt"],
3: ["am", "ēs", "et", "ēmus", "ētis", "ent"],
"3io": ["iam", "iēs", "iet", "iēmus", "iētis", "ient"],
4: ["iam", "iēs", "iet", "iēmus", "iētis", "ient"],
},
("future", "ind", "passive"): {
1: ["ābor", "āberis", "ābitur", "ābimur", "ābiminī", "ābuntur"],
2: ["ēbor", "ēberis", "ēbitur", "ēbimur", "ēbiminī", "ēbuntur"],
3: ["ar", "ēris", "ētur", "ēmur", "ēminī", "entur"],
"3io": ["iar", "iēris", "iētur", "iēmur", "iēminī", "ientur"],
4: ["iar", "iēris", "iētur", "iēmur", "iēminī", "ientur"],
},
("present", "sbjv", "active"): {
1: ["em", "ēs", "et", "ēmus", "ētis", "ent"],
2: ["eam", "eās", "eat", "eāmus", "eātis", "eant"],
3: ["am", "ās", "at", "āmus", "ātis", "ant"],
"3io": ["iam", "iās", "iat", "iāmus", "iātis", "iant"],
4: ["iam", "iās", "iat", "iāmus", "iātis", "iant"],
},
("present", "sbjv", "passive"): {
1: ["er", "ēris", "ētur", "ēmur", "ēminī", "entur"],
2: ["ear", "eāris", "eātur", "eāmur", "eāminī", "eantur"],
3: ["ar", "āris", "ātur", "āmur", "āminī", "antur"],
"3io": ["iar", "iāris", "iātur", "iāmur", "iāminī", "iantur"],
4: ["iar", "iāris", "iātur", "iāmur", "iāminī", "iantur"],
},
("imperfect", "sbjv", "active"): {
1: ["ārem", "ārēs", "āret", "ārēmus", "ārētis", "ārent"],
2: ["ērem", "ērēs", "ēret", "ērēmus", "ērētis", "ērent"],
3: ["erem", "erēs", "eret", "erēmus", "erētis", "erent"],
"3io": ["erem", "erēs", "eret", "erēmus", "erētis", "erent"],
4: ["īrem", "īrēs", "īret", "īrēmus", "īrētis", "īrent"],
},
("imperfect", "sbjv", "passive"): {
1: ["ārer", "ārēris", "ārētur", "ārēmur", "ārēminī", "ārentur"],
2: ["ērer", "ērēris", "ērētur", "ērēmur", "ērēminī", "ērentur"],
3: ["erer", "erēris", "erētur", "erēmur", "erēminī", "erentur"],
"3io": ["erer", "erēris", "erētur", "erēmur", "erēminī", "erentur"],
4: ["īrer", "īrēris", "īrētur", "īrēmur", "īrēminī", "īrentur"],
},
}
# perfect-active endings (added to perfect stem) — same for all conjugations
_PERF_ACT = {
("perfect", "ind"): ["ī", "istī", "it", "imus", "istis", "ērunt"],
("pluperfect", "ind"): ["eram", "erās", "erat", "erāmus", "erātis", "erant"],
("futureperfect", "ind"): ["erō", "eris", "erit", "erimus", "eritis", "erint"],
("perfect", "sbjv"): ["erim", "erīs", "erit", "erīmus", "erītis", "erint"],
("pluperfect", "sbjv"):["issem", "issēs", "isset", "issēmus", "issētis", "issent"],
}
def _idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _present_system(conj, pstem, tense, mood, voice, person, number):
"""Generate a present-system form (present/imperfect/future ind & subj)."""
table = _PARADIGM.get((tense, mood, voice))
if not table or conj not in table:
return None
return pstem + table[conj][_idx(person, number)]
def _active_infinitive_stem(conj, pstem):
return {1: pstem + "ā", 2: pstem + "ē", 3: pstem + "e",
"3io": pstem + "e", 4: pstem + "ī"}[conj]
_IRREG = {
"sum": {
("present", "ind", "active"): ["sum", "es", "est", "sumus", "estis", "sunt"],
("imperfect", "ind", "active"): ["eram", "erās", "erat", "erāmus", "erātis", "erant"],
("future", "ind", "active"): ["erō", "eris", "erit", "erimus", "eritis", "erunt"],
("perfect", "ind", "active"): ["fuī", "fuistī", "fuit", "fuimus", "fuistis", "fuērunt"],
("pluperfect", "ind", "active"): ["fueram", "fuerās", "fuerat", "fuerāmus", "fuerātis", "fuerant"],
("present", "sbjv", "active"): ["sim", "sīs", "sit", "sīmus", "sītis", "sint"],
("imperfect", "sbjv", "active"): ["essem", "essēs", "esset", "essēmus", "essētis", "essent"],
},
"possum": {
("present", "ind", "active"): ["possum", "potes", "potest", "possumus", "potestis", "possunt"],
("imperfect", "ind", "active"): ["poteram", "poterās", "poterat", "poterāmus", "poterātis", "poterant"],
("future", "ind", "active"): ["poterō", "poteris", "poterit", "poterimus", "poteritis", "poterunt"],
("perfect", "ind", "active"): ["potuī", "potuistī", "potuit", "potuimus", "potuistis", "potuērunt"],
("present", "sbjv", "active"): ["possim", "possīs", "possit", "possīmus", "possītis", "possint"],
},
"": {
("present", "ind", "active"): ["", "īs", "it", "īmus", "ītis", "eunt"],
("imperfect", "ind", "active"): ["ībam", "ībās", "ībat", "ībāmus", "ībātis", "ībant"],
("future", "ind", "active"): ["ībō", "ībis", "ībit", "ībimus", "ībitis", "ībunt"],
("perfect", "ind", "active"): ["", "īstī", "iit", "iimus", "īstis", "iērunt"],
("present", "sbjv", "active"): ["eam", "eās", "eat", "eāmus", "eātis", "eant"],
},
"volō": {
("present", "ind", "active"): ["volō", "vīs", "vult", "volumus", "vultis", "volunt"],
("imperfect", "ind", "active"): ["volēbam", "volēbās", "volēbat", "volēbāmus", "volēbātis", "volēbant"],
("future", "ind", "active"): ["volam", "volēs", "volet", "volēmus", "volētis", "volent"],
("perfect", "ind", "active"): ["voluī", "voluistī", "voluit", "voluimus", "voluistis", "voluērunt"],
("present", "sbjv", "active"): ["velim", "velīs", "velit", "velīmus", "velītis", "velint"],
},
"nōlō": {
("present", "ind", "active"): ["nōlō", "nōn vīs", "nōn vult", "nōlumus", "nōn vultis", "nōlunt"],
("present", "sbjv", "active"): ["nōlim", "nōlīs", "nōlit", "nōlīmus", "nōlītis", "nōlint"],
},
"ferō": {
("present", "ind", "active"): ["ferō", "fers", "fert", "ferimus", "fertis", "ferunt"],
("imperfect", "ind", "active"): ["ferēbam", "ferēbās", "ferēbat", "ferēbāmus", "ferēbātis", "ferēbant"],
("future", "ind", "active"): ["feram", "ferēs", "feret", "ferēmus", "ferētis", "ferent"],
("perfect", "ind", "active"): ["tulī", "tulistī", "tulit", "tulimus", "tulistis", "tulērunt"],
("present", "sbjv", "active"): ["feram", "ferās", "ferat", "ferāmus", "ferātis", "ferant"],
},
}
def conjugate(lemma, tense, mood, voice="active", person="third", number="singular"):
"""Return (surface, confidence). Perfect-passive forms are periphrastic and
handled in the realizer (sum + PPP); this returns synthetic forms only."""
lemma = lemma.strip()
i = _idx(person, number)
ir = _IRREG.get(lemma)
if ir:
tbl = ir.get((tense, mood, voice)) or ir.get((tense, mood, "active"))
if tbl and tbl[i]:
return tbl[i], "rule"
v = _VERBS.get(lemma)
if not v:
v = _infer_principal_parts(lemma)
if not v:
return lemma, "fallback"
conj, pstem, perfstem, supstem = v
# imperative (present active) 2sg / 2pl
if mood == "imp":
return _imperative(conj, pstem, person, number), "rule"
# perfect-system active
if tense in ("perfect", "pluperfect", "futureperfect") and voice == "active":
if not perfstem:
return lemma, "fallback"
end = _PERF_ACT.get((tense, mood))
if end:
return perfstem + end[i], "rule"
# present-system (active + passive)
if tense in ("present", "imperfect", "future"):
form = _present_system(conj, pstem, tense, mood, voice, person, number)
if form:
return form, "rule"
return lemma, "fallback"
def _imperative(conj, pstem, person, number):
if number == "singular":
return {1: pstem + "ā", 2: pstem + "ē", 3: pstem + "e",
"3io": pstem + "e", 4: pstem + "ī"}[conj]
return {1: pstem + "āte", 2: pstem + "ēte", 3: pstem + "ite",
"3io": pstem + "ite", 4: pstem + "īte"}[conj]
def _infer_principal_parts(lemma):
"""OOV fallback: infer conjugation + stems from the 1sg-present citation form.
Perfect/supine stems are guessed regularly (often wrong for 3rd conj) and the
resulting forms are still returned as 'rule' but the realizer down-weights."""
if lemma.endswith("ō"):
base = lemma[:-1]
# can't distinguish conj from 1sg alone reliably; default by ending vowel
if base.endswith("i"):
return ("3io", base[:-1], base[:-1] + "īv", base[:-1] + "īt")
return (3, base, base + "s", base + "t")
return None
# ── PUBLIC: participles ─────────────────────────────────────────────────────────
def participle(lemma, kind, case="nom", gender="m", number="singular"):
"""kind: 'prs' (present active, -ns/-ntis), 'pfv' (perfect passive, -tus),
'fut' (future active, -tūrus). Declined as an adjective via rule endings.
Returns (form, conf)."""
v = _VERBS.get(lemma)
if not v:
return lemma, "fallback"
conj, pstem, perfstem, supstem = v
if kind == "pfv":
if not supstem:
return lemma, "fallback"
base = supstem[:-1] if supstem.endswith("t") or supstem.endswith("s") else supstem
stem = supstem # supine stem already ends in t/s: amāt- -> amātus
return _decline_us_a_um(stem, case, gender, number), "rule"
if kind == "fut":
if not supstem:
return lemma, "fallback"
return _decline_us_a_um(supstem + "ūr", case, gender, number), "rule"
if kind == "prs":
# present active participle: stem + ns (nom), stem + nt- (oblique), 3rd-decl
pv = {1: "ā", 2: "ē", 3: "ē", "3io": "", 4: ""}[conj]
ntstem = pstem + pv + "nt"
return _decline_pres_ptcp(pstem + pv, case, gender, number), "rule"
return lemma, "fallback"
def _decline_us_a_um(stem, case, gender, number):
"""Decline a -us/-a/-um adjective/participle stem (2-1-2 declension)."""
C = _CASE_MAP.get(case, case.upper())
end = {
("NOM", "m", "singular"): "us", ("NOM", "f", "singular"): "a", ("NOM", "n", "singular"): "um",
("GEN", "m", "singular"): "ī", ("GEN", "f", "singular"): "ae", ("GEN", "n", "singular"): "ī",
("DAT", "m", "singular"): "ō", ("DAT", "f", "singular"): "ae", ("DAT", "n", "singular"): "ō",
("ACC", "m", "singular"): "um", ("ACC", "f", "singular"): "am", ("ACC", "n", "singular"): "um",
("ABL", "m", "singular"): "ō", ("ABL", "f", "singular"): "ā", ("ABL", "n", "singular"): "ō",
("VOC", "m", "singular"): "e", ("VOC", "f", "singular"): "a", ("VOC", "n", "singular"): "um",
("NOM", "m", "plural"): "ī", ("NOM", "f", "plural"): "ae", ("NOM", "n", "plural"): "a",
("GEN", "m", "plural"): "ōrum", ("GEN", "f", "plural"): "ārum", ("GEN", "n", "plural"): "ōrum",
("DAT", "m", "plural"): "īs", ("DAT", "f", "plural"): "īs", ("DAT", "n", "plural"): "īs",
("ACC", "m", "plural"): "ōs", ("ACC", "f", "plural"): "ās", ("ACC", "n", "plural"): "a",
("ABL", "m", "plural"): "īs", ("ABL", "f", "plural"): "īs", ("ABL", "n", "plural"): "īs",
("VOC", "m", "plural"): "ī", ("VOC", "f", "plural"): "ae", ("VOC", "n", "plural"): "a",
}.get((C, gender, number), "us")
return stem + end
def _decline_pres_ptcp(stem, case, gender, number):
"""Present active participle (amāns, amantis) — 3rd-declension, stem+ns/nt."""
C = _CASE_MAP.get(case, case.upper())
if C == "NOM" and number == "singular":
return stem + "ns"
if C == "VOC" and number == "singular":
return stem + "ns"
base = stem + "nt"
end = {
("GEN", "singular"): "is", ("DAT", "singular"): "ī",
("ACC", "singular"): "em" if gender != "n" else "",
("ABL", "singular"): "e",
("NOM", "plural"): "ēs" if gender != "n" else "ia",
("GEN", "plural"): "ium", ("DAT", "plural"): "ibus",
("ACC", "plural"): "ēs" if gender != "n" else "ia",
("ABL", "plural"): "ibus", ("VOC", "plural"): "ēs",
}.get((C, number), "is")
if C == "ACC" and number == "singular" and gender == "n":
return stem + "ns"
return base + end
def infinitive(lemma, tense="present", voice="active"):
lemma = lemma.strip()
if lemma == "sum":
return ("esse", "rule") if tense == "present" else ("fuisse", "rule")
v = _VERBS.get(lemma)
if not v:
return lemma, "fallback"
conj, pstem, perfstem, supstem = v
if tense == "present":
if voice == "active":
return _active_infinitive_stem(conj, pstem).rstrip() + \
("re" if conj != 3 and conj != "3io" else "re"), "rule"
# passive present infinitive
base = {1: pstem + "ā", 2: pstem + "ē", 4: pstem + "ī"}.get(conj)
if base:
return base + "", "rule"
return pstem + "ī", "rule" # 3rd: regī
if tense == "perfect" and voice == "active" and perfstem:
return perfstem + "isse", "rule"
return lemma, "fallback"
def lexicon_stats():
return {
"noun_adj_source": "UniMorph Latin (github.com/unimorph/lat, CC-BY-SA 3.0)",
"verb_source": "rule-based 4-conjugation engine over curated attested "
"principal parts (UniMorph verb list is a 947-lemma sample "
"MISSING all core verbs — amō/sum/videō absent)",
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
"curated_verb_lemmas": len(_VERBS) + len(_IRREG),
"gender_inference": "declension-based (nom+gen endings) + curated exceptions",
}
if __name__ == "__main__":
import json
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
print("\n-- noun declension puella (1st, fem) --")
for c in ("nom", "gen", "dat", "acc", "abl", "voc"):
print(f" {c}: sg={decline_noun('puella', c, 'singular')[0]:10} "
f"pl={decline_noun('puella', c, 'plural')[0]}")
print("\n-- rēx (3rd, m):", [decline_noun('rēx', c, 'singular')[0] for c in ('nom','gen','dat','acc','abl')])
print("-- gender: puella=", noun_gender("puella"), "rēx=", noun_gender("rēx"),
"bellum=", noun_gender("bellum"), "corpus=", noun_gender("corpus"),
"manus=", noun_gender("manus"), "diēs=", noun_gender("diēs"))
print("\n-- conjugate videō (2nd) present ind active --")
for p in ("first", "second", "third"):
for n in ("singular", "plural"):
print(f" {p[:3]}.{n[:2]}: {conjugate('videō','present','ind','active',p,n)[0]}")
print("-- amō forms:", conjugate("amō","present","ind","active","first","singular")[0],
conjugate("amō","imperfect","ind","active","third","plural")[0],
conjugate("amō","future","ind","active","first","singular")[0],
conjugate("amō","perfect","ind","active","third","singular")[0])
print("-- sum:", [conjugate("sum","present","ind","active",p,"singular")[0] for p in ("first","second","third")])
print("-- participle amō pfv acc.f.sg:", participle("amō","pfv","acc","f","singular")[0])
print("-- infinitive amō:", infinitive("amō")[0], "| regō pass:", infinitive("regō", voice="passive")[0])
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"""morphology_pt_full.py — production-grade Brazilian-Portuguese morphological generator.
NOT a toy. Backed by two real, broad, Wiktionary-lineage lexicons:
VERBS — UniMorph Portuguese (github.com/unimorph/por, CC-BY-SA 3.0)
4,001 verb lemmas × full paradigm (283,991 finite/non-finite forms +
20,005 participle forms). Every mood/tense pt actually inflects:
indicative present / preterite (PST;PFV) / imperfect (PST;IPFV) /
pluperfect-simple (PST;PRF) / future,
conditional (futuro do pretérito),
subjunctive present / imperfect / FUTURE (PT-specific live tense),
affirmative + negative imperative,
PERSONAL infinitive (V;{p};{n};NFIN — a PT-specific finite-ish form),
past participle (4 gender/number forms) + gerúndio (V.PTCP;PRS).
NOUNS + ADJECTIVES — kaikki.org Portuguese (Wiktionary extract, same lineage)
81,138 noun lemmas WITH inherent gender + real (often irregular) plural —
so -ão→-ões / -ãos / -ães / -õos is resolved PER LEMMA by Wiktionary,
never guessed (mão→mãos, pão→pães, coração→corações).
40,252 adjective lemmas with real feminine + masc/fem plural forms.
Fallbacks (degrade, never crash, on out-of-vocabulary input):
verbs : rule generator for regular -ar/-er/-ir paradigms
nouns : gender heuristic (endings) + rule pluralization (with -ão FLAGGED)
adjs : -o/-a gender rule + rule pluralization
Confidence flag on every form:
"lexicon" straight from UniMorph/kaikki (trust: high)
"rule" deterministic rule (trust: medium)
"fallback" could not inflect; returned lemma (trust: low -> FLAG)
Public API (used by realizer_pt.py):
conjugate(lemma, mood, tense, person, number) -> (form, conf)
personal_infinitive(lemma, person, number) -> (form, conf)
participle(lemma, gender="m", number="singular") -> (form, conf)
gerund(lemma) -> (form, conf)
noun_gender(lemma) -> "m"|"f"
inflect_noun(lemma, number, gender=None) -> (form, conf)
inflect_adj(lemma, gender, number) -> (form, conf)
lexicon_stats() -> dict
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "por.unimorph")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_pt.jsonl")
_CACHE = os.path.join(_HERE, "data", "pt_morph_cache.pkl")
# ── mood/tense pair -> UniMorph feature triple (a in tag; b in tag; c in tag) ────
_VERB_KEYMAP = {
("ind", "present"): ("IND", "PRS", None),
("ind", "preterite"): ("IND", "PST", "PFV"),
("ind", "imperfect"): ("IND", "PST", "IPFV"),
("ind", "pluperfect"): ("IND", "PST", "PRF"), # simple mais-que-perfeito
("ind", "future"): ("IND", "FUT", None),
("ind", "conditional"): ("COND", None, None),
("sbjv", "present"): ("SBJV", "PRS", None),
("sbjv", "imperfect"): ("SBJV", "PST", "IPFV"),
("sbjv", "future"): ("SBJV", "FUT", None), # PT-specific
("imp", "affirmative"): ("IMP", "POS", None),
("imp", "negative"): ("IMP", "NEG", None),
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
def _feat_set(tag):
return set(tag.split(";"))
# ── build the compact lexicon from UniMorph (verbs) + kaikki (nouns/adjs) ────────
def _build_verbs():
verbs = {} # (lemma, "mood|tense|person|number") -> form
pinf = {} # (lemma, "person|number") -> personal-infinitive form
part = {} # lemma -> {("m","SG"): form, ...} past participle
ger = {} # lemma -> gerúndio
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V.PTCP":
if "PST" in f: # past participle: falado/falada/falados/faladas
g = "m" if "MASC" in f else ("f" if "FEM" in f else "m")
num = "SG" if "SG" in f else ("PL" if "PL" in f else "SG")
part.setdefault(lemma, {})[(g, num)] = form
elif "PRS" in f: # gerúndio: falando
ger.setdefault(lemma, form)
continue
if head != "V":
continue
# personal / impersonal infinitive
if "NFIN" in f:
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person and number:
pinf[(lemma, f"{person}|{number}")] = form
continue
# finite forms
mt = None
for (mood, tense), (a, b, c) in _VERB_KEYMAP.items():
if a not in f:
continue
if b is not None and b not in f:
continue
if c is not None and c not in f:
continue
# IND;PST needs exactly PFV|IPFV|PRF — reject if the required one absent
mt = (mood, tense)
break
if mt is None:
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
verbs.setdefault((lemma, f"{mt[0]}|{mt[1]}|{person}|{number}"), form)
return verbs, pinf, part, ger
def _kaikki_gender(arg):
if not arg:
return None
a = arg.lower()
if a.startswith("f"):
return "f"
if a.startswith("m"):
return "m"
return None
def _build_nouns_adjs():
nouns = {} # lemma -> {"g","SG","PL"}
adjs = {} # lemma -> {("m","SG"),("f","SG"),("m","PL"),("f","PL")}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
pos = d.get("pos")
word = d.get("word", "")
if not word or " " in word: # skip multiword entries
continue
forms = d.get("forms", []) or []
if pos == "noun":
ht = d.get("head_templates") or []
g = None
if ht:
g = _kaikki_gender((ht[0].get("args") or {}).get("1"))
if g is None:
tags = d.get("tags") or []
if "feminine" in tags:
g = "f"
elif "masculine" in tags:
g = "m"
pl = None
for x in forms:
t = x.get("tags") or []
if "plural" in t and "alternative" not in t and "obsolete" not in t:
pl = x.get("form")
break
# first entry wins; but a later entry with a plural fills a gap
if word not in nouns:
nouns[word] = {"g": g, "SG": word, "PL": pl}
else:
cur = nouns[word]
if cur.get("g") is None and g:
cur["g"] = g
if not cur.get("PL") and pl:
cur["PL"] = pl
elif pos == "adj":
d0 = adjs.setdefault(word, {})
d0.setdefault(("m", "SG"), word)
for x in forms:
t = set(x.get("tags") or [])
fm = x.get("form")
if not fm or ("alternative" in t) or ("obsolete" in t):
continue
if "comparative" in t or "superlative" in t or \
"diminutive" in t or "augmentative" in t:
continue
if "feminine" in t and "plural" in t:
d0[("f", "PL")] = fm
elif "masculine" in t and "plural" in t:
d0[("m", "PL")] = fm
elif "feminine" in t:
d0[("f", "SG")] = fm
elif "plural" in t: # invariant-gender adj (feliz -> felizes)
d0[("m", "PL")] = d0.get(("m", "PL")) or fm
d0[("f", "PL")] = d0.get(("f", "PL")) or fm
return nouns, adjs
def _build_cache():
verbs, pinf, part, ger = _build_verbs()
nouns, adjs = _build_nouns_adjs()
data = {"verbs": verbs, "pinf": pinf, "part": part, "ger": ger,
"nouns": nouns, "adjs": adjs}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
newest_src = max(os.path.getmtime(_UNIMORPH),
os.path.getmtime(_KAIKKI) if os.path.exists(_KAIKKI) else 0)
if os.path.getmtime(_CACHE) >= newest_src:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _PINF, _PART, _GER, _NOUNS, _ADJS = (
_LEX["verbs"], _LEX["pinf"], _LEX["part"], _LEX["ger"],
_LEX["nouns"], _LEX["adjs"])
# ── regular-ending rule fallback (deterministic, last resort) ────────────────────
def _vclass(lemma):
return lemma[-2:] if lemma[-2:] in ("ar", "er", "ir") else None
def _stem(lemma):
return lemma[:-2]
# endings indexed [1sg,2sg,3sg,1pl,2pl,3pl]
_REG = {
("ind", "present", "ar"): ["o", "as", "a", "amos", "ais", "am"],
("ind", "present", "er"): ["o", "es", "e", "emos", "eis", "em"],
("ind", "present", "ir"): ["o", "es", "e", "imos", "is", "em"],
("ind", "preterite", "ar"): ["ei", "aste", "ou", "amos", "astes", "aram"],
("ind", "preterite", "er"): ["i", "este", "eu", "emos", "estes", "eram"],
("ind", "preterite", "ir"): ["i", "iste", "iu", "imos", "istes", "iram"],
("ind", "imperfect", "ar"): ["ava", "avas", "ava", "ávamos", "áveis", "avam"],
("ind", "imperfect", "er"): ["ia", "ias", "ia", "íamos", "íeis", "iam"],
("ind", "imperfect", "ir"): ["ia", "ias", "ia", "íamos", "íeis", "iam"],
("sbjv", "present", "ar"): ["e", "es", "e", "emos", "eis", "em"],
("sbjv", "present", "er"): ["a", "as", "a", "amos", "ais", "am"],
("sbjv", "present", "ir"): ["a", "as", "a", "amos", "ais", "am"],
("sbjv", "imperfect", "ar"): ["asse", "asses", "asse", "ássemos", "ásseis", "assem"],
("sbjv", "imperfect", "er"): ["esse", "esses", "esse", "êssemos", "êsseis", "essem"],
("sbjv", "imperfect", "ir"): ["isse", "isses", "isse", "íssemos", "ísseis", "issem"],
("sbjv", "future", "ar"): ["ar", "ares", "ar", "armos", "ardes", "arem"],
("sbjv", "future", "er"): ["er", "eres", "er", "ermos", "erdes", "erem"],
("sbjv", "future", "ir"): ["ir", "ires", "ir", "irmos", "irdes", "irem"],
}
# future & conditional attach to the FULL infinitive
_FUT = ["ei", "ás", "á", "emos", "eis", "ão"]
_COND = ["ia", "ias", "ia", "íamos", "íeis", "iam"]
def _slot_idx(person, number):
base = {"first": 0, "second": 1, "third": 2}[person]
return base + (0 if number == "singular" else 3)
def _rule_conjugate(lemma, mood, tense, person, number):
vc = _vclass(lemma)
if vc is None:
return None
st, i = _stem(lemma), _slot_idx(person, number)
if mood == "ind" and tense == "future":
return lemma + _FUT[i]
if mood == "ind" and tense == "conditional":
return lemma + _COND[i]
if mood == "imp": # affirmative tú/vocês imperative ~ subjunctive present
table = _REG.get(("sbjv", "present", vc))
if table and tense == "negative":
return st + table[i]
# affirmative 2sg = 3sg present indicative; others = subjunctive
pres = _REG.get(("ind", "present", vc))
if person == "second" and number == "singular":
return st + pres[2]
return st + table[i] if table else None
table = _REG.get((mood, tense, vc))
if table:
return st + table[i]
return None
# verified corrections to UniMorph data errors (each audited individually, not
# guessed). The three 1PL-present entries are glued-allomorph errors surfaced by a
# full-lexicon scan for a non-final "mos" in V;1;PL;IND;PRS forms (the ONLY three).
_VERB_FIX = {
("estar", "ind", "imperfect", "third", "plural"): "estavam", # was "estávam"
("estar", "ind", "present", "first", "plural"): "estamos", # was "estamosestámos"
("haver", "ind", "present", "first", "plural"): "havemos", # was "havemoshemos"
("ir", "ind", "present", "first", "plural"): "vamos", # was "vamosimos"
}
# ── PUBLIC: verb conjugation ─────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number):
"""Return (surface, confidence). mood in ind|sbjv|imp; tense per _VERB_KEYMAP."""
lemma = lemma.strip().lower()
fix = _VERB_FIX.get((lemma, mood, tense, person, number))
if fix:
return fix, "lexicon"
p, n = _PERSON.get(person), _NUMBER.get(number)
if p and n:
form = _VERBS.get((lemma, f"{mood}|{tense}|{p}|{n}"))
if form:
# pt-BR normalization: UniMorph `por` carries the EUROPEAN spelling of
# the -ar 1pl PRETERITE (-ámos). Brazilian PT drops the accent
# (falámos->falamos, chegámos->chegamos) — 3,334/4,001 verbs affected.
if (mood == "ind" and tense == "preterite" and person == "first"
and number == "plural" and form.endswith("ámos")):
form = form[:-4] + "amos"
return form, "lexicon"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r:
return r, "rule"
return lemma, "fallback"
def personal_infinitive(lemma, person, number):
"""PT personal (inflected) infinitive: para falarmos, ao chegarem."""
lemma = lemma.strip().lower()
p, n = _PERSON.get(person), _NUMBER.get(number)
if p and n:
form = _PINF.get((lemma, f"{p}|{n}"))
if form:
return form, "lexicon"
# rule: infinitive + personal endings (-, -es, -, -mos, -des, -em)
end = {("first", "singular"): "", ("second", "singular"): "es",
("third", "singular"): "", ("first", "plural"): "mos",
("second", "plural"): "des", ("third", "plural"): "em"}.get((person, number), "")
return lemma + end, "rule"
# ── PUBLIC: participle + gerund ───────────────────────────────────────────────────
def participle(lemma, gender="m", number="singular"):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
d = _PART.get(lemma)
if d:
form = d.get((g, num)) or d.get(("m", "SG"))
if form:
return form, "lexicon"
if lemma.endswith("ar"):
base = lemma[:-2] + "ad"
elif lemma[-2:] in ("er", "ir"):
base = lemma[:-2] + "id"
else:
return lemma, "fallback"
suf = {"m|SG": "o", "f|SG": "a", "m|PL": "os", "f|PL": "as"}[f"{g}|{num}"]
return base + suf, "rule"
def gerund(lemma):
lemma = lemma.strip().lower()
if lemma in _GER:
return _GER[lemma], "lexicon"
if lemma.endswith("ar"):
return lemma[:-2] + "ando", "rule"
if lemma.endswith("er"):
return lemma[:-2] + "endo", "rule"
if lemma.endswith("ir"):
return lemma[:-2] + "indo", "rule"
return lemma, "fallback"
# ── PUBLIC: noun gender + number ─────────────────────────────────────────────────
_FEM_SUF = ("ção", "são", "ção", "dade", "tade", "agem", "igem", "ugem", "gem",
"ez", "eza", "ice", "ície", "tude", "ude", "âncbefore")
_FEM_SUF = ("ção", "são", "dade", "tade", "agem", "gem", "eza", "ez", "ice",
"tude", "ude", "ância", "ência", "ínia")
_MASC_SUF = ("ema", "oma", "ama", "grama", "eta", "ão") # Greek -ma etc. (mostly m)
def _gender_heuristic(noun):
for suf in _FEM_SUF:
if noun.endswith(suf):
return "f"
if noun.endswith(("ema", "oma", "ama")): # problema, idioma, programa
return "m"
if noun.endswith("a") or noun.endswith("ã"):
return "f"
if noun.endswith("o") or noun.endswith(("l", "r", "z", "m", "u", "i")):
return "m"
return "m"
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g"):
return d["g"]
return _gender_heuristic(lemma)
_INVARIANT_PL_SUF = ("s",) # paroxytones ending -s are invariant (o lápis / os lápis)
def _rule_plural(noun):
"""Deterministic PT pluralization. Returns (form, ok) where ok=False flags an
ambiguous -ão that should lower confidence (the lexicon normally resolves it)."""
if not noun:
return noun, True
if noun.endswith("ão"):
return noun[:-2] + "ões", False # majority rule, but AMBIGUOUS -> flag
if noun.endswith("m"):
return noun[:-1] + "ns", True # homem->homens, jardim->jardins
if noun.endswith("al"):
return noun[:-2] + "ais", True
if noun.endswith("el"):
return noun[:-2] + "éis", True
if noun.endswith("ol"):
return noun[:-2] + "óis", True
if noun.endswith("ul"):
return noun[:-2] + "uis", True
if noun.endswith("il"):
return noun[:-2] + "is", True # stressed (funil->funis); unstressed rarer
if noun.endswith(("r", "z")):
return noun + "es", True # flor->flores, luz->luzes
if noun.endswith("s"):
# paroxytone -s (lápis, ônibus) invariant; oxytone -s (país) -> -es
return noun, True
if noun.endswith(("a", "e", "i", "o", "u", "á", "é", "í", "ó", "ú", "ã")):
return noun + "s", True
return noun + "s", True
def inflect_noun(lemma, number, gender=None):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if number == "singular":
return (d["SG"] if d and d.get("SG") else lemma), ("lexicon" if d else "rule")
if d and d.get("PL"):
return d["PL"], "lexicon"
form, ok = _rule_plural(lemma)
return form, ("rule" if ok else "fallback")
# ── PUBLIC: adjective agreement ──────────────────────────────────────────────────
def inflect_adj(lemma, gender, number):
lemma = lemma.strip().lower()
g = "f" if gender == "f" else "m"
num = "SG" if number == "singular" else "PL"
d = _ADJS.get(lemma)
if d:
form = d.get((g, num))
if form:
return form, "lexicon"
# build a missing plural from this gender's singular
sg = d.get((g, "SG")) or d.get(("m", "SG")) or lemma
if num == "PL":
pl, ok = _rule_plural(sg)
return pl, ("rule" if ok else "fallback")
return sg, "lexicon"
# rule fallback: -o/-a gender, then pluralize
a = lemma
if g == "f":
if a.endswith("o"):
a = a[:-1] + "a"
elif a.endswith(("ês", "or")) and not a.endswith("ior"):
a = a + "a" # português->portuguesa, trabalhador->..a
if num == "PL":
a, ok = _rule_plural(a)
return a, ("rule" if ok else "fallback")
return a, "rule"
def lexicon_stats():
return {
"verb_source": "UniMorph Portuguese (github.com/unimorph/por)",
"noun_adj_source": "kaikki.org Portuguese (Wiktionary extract)",
"license": "CC-BY-SA (Wiktionary-derived)",
"verb_forms": len(_VERBS),
"verb_lemmas": len({k[0] for k in _VERBS}),
"personal_infinitive_forms": len(_PINF),
"participle_lemmas": len(_PART),
"gerund_lemmas": len(_GER),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
tests = [
("falar", "ind", "present", "first", "singular", "falo"),
("comer", "ind", "present", "third", "plural", "comem"),
("partir", "ind", "present", "first", "plural", "partimos"),
("ser", "ind", "present", "third", "singular", "é"),
("ir", "ind", "preterite", "first", "singular", "fui"),
("ter", "ind", "future", "first", "singular", "terei"),
("fazer", "sbjv", "present", "first", "singular", "faça"),
("dormir", "ind", "present", "first", "singular", "durmo"),
("dar", "ind", "preterite", "third", "singular", "deu"),
("poder", "ind", "conditional", "first", "singular", "poderia"),
("fazer", "sbjv", "future", "third", "singular", "fizer"),
("estar", "ind", "present", "third", "singular", "está"),
]
ok = 0
for lemma, mood, tense, per, num, exp in tests:
got, conf = conjugate(lemma, mood, tense, per, num)
flag = "OK " if got == exp else "XX "
ok += got == exp
print(f" {flag}{lemma:8} {mood}/{tense} {per[:3]}.{num[:2]} -> {got:14} ({conf}) exp={exp}")
print(f"verb tests {ok}/{len(tests)}")
print(" gender: casa=", noun_gender("casa"), "problema=", noun_gender("problema"),
"mão=", noun_gender("mão"), "coração=", noun_gender("coração"),
"flor=", noun_gender("flor"))
print(" plural: mão->", inflect_noun("mão", "plural"),
"| pão->", inflect_noun("pão", "plural"),
"| animal->", inflect_noun("animal", "plural"),
"| coração->", inflect_noun("coração", "plural"))
print(" adj: bonito/f/sg->", inflect_adj("bonito", "f", "singular"),
"| feliz/m/pl->", inflect_adj("feliz", "m", "plural"),
"| português/f/sg->", inflect_adj("português", "f", "singular"))
print(" part: fazer/m/sg->", participle("fazer"), "| ger falar->", gerund("falar"))
print(" pinf falar 1pl->", personal_infinitive("falar", "first", "plural"))
+609
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@@ -0,0 +1,609 @@
# -*- coding: utf-8 -*-
"""morphology_ro_full.py — production-grade Romanian morphological generator.
Romanian is the BIG typological delta of the Romance family. The verb engine and
the confidence/fallback contract TRANSFER from the Italian sibling; the NOMINAL
system is genuinely new: Romanian has a SUFFIXED definite article, a preserved
NOM/ACC vs GEN/DAT case distinction, a NEUTER gender (masc-agreeing in SG,
fem-agreeing in PL), and a VOCATIVE. Those are grounded in real per-lemma data,
not guessed.
Real, Wiktionary-lineage lexical sources:
VERBS UniMorph Romanian (github.com/unimorph/ron, CC-BY-SA 3.0)
~1216 verb lemmas × paradigm, CLEAN orthography:
indicativ prezent / imperfect (PST;IPFV) / perfectul simplu (PST;PFV) /
conjunctiv prezent (SBJV;PRS, stored WITHOUT the '' particle),
participiu (V.PTCP;PST, INVARIABLE in the perfect compus),
gerunziu (V.CVB;PRS), infinitiv (NFIN), imperativ.
ro_irreg_verbs (embedded) high-frequency verbs UniMorph MISSES
(avea, vrea, da) + the auxiliary clitic paradigms the compound tenses need
(perfect-compus am/ai/a/am/ați/au, viitor voi/vei/va/vom/veți/vor,
condițional /ai/ar/am/ați/ar). Real standard forms.
NOUNS kaikki.org Romanian (Wiktionary extract, CC-BY-SA 3.0)
the FULL declension per lemma, cleanly tagged:
(nom/acc | gen/dat | vocative) × (indefinite | definite) × (sg | pl).
This is what makes the suffixed article LEXICALLY grounded (omomul,
casăcasa, băiatbăiatul, casei gen/dat, omule vocative). Inherent gender
m / f / n (NEUTER available directly) from the head template.
ADJECTIVES UniMorph Romanian ADJ
full case × gender(MASC/FEM/NEUT) × number × definiteness paradigm.
Fallbacks (degrade, never crash, on OOV): rule verb conjugation for -a/-ea/-e/-i/-î
classes, rule pluralization, rule suffixed-article by gender+ending. Every form
carries a confidence flag: "lexicon" | "rule" | "fallback".
Public API (used by realizer_ro.py):
conjugate(lemma, mood, tense, person, number) -> (form, conf)
aux(kind, person, number) -> str # perfect / future / conditional clitics
participle(lemma) -> (form, conf) # INVARIABLE
gerund(lemma) -> (form, conf)
noun_gender(lemma) -> "m"|"f"|"n"
definite_suffix(noun, gender, number, case) -> (form, conf) # rule engine
inflect_noun(lemma, number, gender=None, case="nomacc", definite=False) -> (form, conf)
inflect_adj(lemma, gender, number, case="nomacc", definite=False) -> (form, conf)
lexicon_stats() -> dict
"""
import json
import os
import pickle
_HERE = os.path.dirname(os.path.abspath(__file__))
_UNIMORPH = os.path.join(_HERE, "data", "ron.unimorph")
_KAIKKI = os.path.join(_HERE, "data", "kaikki_ro.jsonl")
_CACHE = os.path.join(_HERE, "data", "ro_morph_cache.pkl")
# ── (mood, tense) -> UniMorph feature set ─────────────────────────────────────────
_VERB_KEYMAP = {
("ind", "present"): {"IND", "PRS"},
("ind", "imperfect"): {"IND", "PST", "IPFV"},
("ind", "perfect_s"): {"IND", "PST", "PFV"}, # perfectul simplu (regional/lit.)
("sbjv", "present"): {"SBJV", "PRS"},
("imp", "affirmative"): {"POS", "IMP"},
}
_PERSON = {"first": "1", "second": "2", "third": "3"}
_NUMBER = {"singular": "SG", "plural": "PL"}
def _feat_set(tag):
return set(tag.split(";"))
# ── high-frequency irregulars UniMorph misses + auxiliary clitic paradigms ────────
# Real standard Romanian forms (textbook paradigms).
_IRREG = {
"avea": {
"ind|present|1|SG": "am", "ind|present|2|SG": "ai", "ind|present|3|SG": "are",
"ind|present|1|PL": "avem", "ind|present|2|PL": "aveți", "ind|present|3|PL": "au",
"ind|imperfect|1|SG": "aveam", "ind|imperfect|2|SG": "aveai",
"ind|imperfect|3|SG": "avea", "ind|imperfect|1|PL": "aveam",
"ind|imperfect|2|PL": "aveați", "ind|imperfect|3|PL": "aveau",
"sbjv|present|3|SG": "aibă", "sbjv|present|3|PL": "aibă",
"sbjv|present|1|SG": "am", "sbjv|present|2|SG": "ai",
"sbjv|present|1|PL": "avem", "sbjv|present|2|PL": "aveți",
"part": "avut", "ger": "având",
},
"vrea": {
"ind|present|1|SG": "vreau", "ind|present|2|SG": "vrei", "ind|present|3|SG": "vrea",
"ind|present|1|PL": "vrem", "ind|present|2|PL": "vreți", "ind|present|3|PL": "vor",
"ind|imperfect|1|SG": "voiam", "ind|imperfect|3|SG": "voia",
"sbjv|present|3|SG": "vrea", "sbjv|present|3|PL": "vrea",
"part": "vrut", "ger": "vrând",
},
"da": {
"ind|present|1|SG": "dau", "ind|present|2|SG": "dai", "ind|present|3|SG": "",
"ind|present|1|PL": "dăm", "ind|present|2|PL": "dați", "ind|present|3|PL": "dau",
"ind|imperfect|1|SG": "dădeam", "ind|imperfect|3|SG": "dădea",
"sbjv|present|3|SG": "dea", "sbjv|present|3|PL": "dea",
"part": "dat", "ger": "dând",
},
"fi": { # a fi — present is in UniMorph but keep participle + subjunctive here
"part": "fost", "ger": "fiind",
"sbjv|present|1|SG": "fiu", "sbjv|present|2|SG": "fii", "sbjv|present|3|SG": "fie",
"sbjv|present|1|PL": "fim", "sbjv|present|2|PL": "fiți", "sbjv|present|3|PL": "fie",
"ind|imperfect|1|SG": "eram", "ind|imperfect|2|SG": "erai",
"ind|imperfect|3|SG": "era", "ind|imperfect|1|PL": "eram",
"ind|imperfect|2|PL": "erați", "ind|imperfect|3|PL": "erau",
},
}
# auxiliary clitic paradigms (person,number)->form
_AUX = {
"perfect": {("first", "singular"): "am", ("second", "singular"): "ai",
("third", "singular"): "a", ("first", "plural"): "am",
("second", "plural"): "ați", ("third", "plural"): "au"},
"future": {("first", "singular"): "voi", ("second", "singular"): "vei",
("third", "singular"): "va", ("first", "plural"): "vom",
("second", "plural"): "veți", ("third", "plural"): "vor"},
"conditional": {("first", "singular"): "", ("second", "singular"): "ai",
("third", "singular"): "ar", ("first", "plural"): "am",
("second", "plural"): "ați", ("third", "plural"): "ar"},
}
def aux(kind, person, number):
return _AUX[kind][(person, number)]
# ── build verb lexicon from UniMorph ──────────────────────────────────────────────
def _build_verbs():
verbs, part, ger = {}, {}, {}
with open(_UNIMORPH, encoding="utf-8") as fh:
for line in fh:
line = line.rstrip("\n")
if not line or "\t" not in line:
continue
parts = line.split("\t")
if len(parts) != 3:
continue
lemma, form, tag = parts
f = _feat_set(tag)
head = tag.split(";")[0]
if head == "V.PTCP":
if "PST" in f:
part.setdefault(lemma, form)
continue
if head == "V.CVB":
if "PRS" in f:
ger.setdefault(lemma, form)
continue
if head != "V":
continue
person = next((p for p in ("1", "2", "3") if p in f), None)
number = "SG" if "SG" in f else ("PL" if "PL" in f else None)
if person is None or number is None:
continue
# conjunctiv forms in UniMorph carry a leading 'să ' — strip it
surf = form
if surf.startswith(""):
surf = surf[3:]
for (mood, tense), req in _VERB_KEYMAP.items():
if not req <= f:
continue
if tense == "imperfect" and "PFV" in f:
continue
if tense == "perfect_s" and "IPFV" in f:
continue
# keep IND;PRS out of the PRF slot (mai-mult-ca-perfect etc. ignored)
if {"IND", "PRS"} <= req and "PRF" in f:
continue
verbs.setdefault((lemma, f"{mood}|{tense}|{person}|{number}"), surf)
break
return verbs, part, ger
# ── kaikki nouns: full declension paradigm per lemma ──────────────────────────────
_EXCL = {"alternative", "archaic", "obsolete", "regional", "dialectal", "rare",
"table-tags", "inflection-template", "error-unrecognized-form",
"diminutive", "augmentative", "informal"}
def _noun_key(tagset):
if tagset & _EXCL:
return None
if "vocative" in tagset:
case = "voc"
elif "genitive" in tagset or "dative" in tagset:
case = "gendat"
elif "nominative" in tagset or "accusative" in tagset:
case = "nomacc"
else:
return None
definite = "definite" in tagset and "indefinite" not in tagset
number = "PL" if "plural" in tagset else ("SG" if "singular" in tagset else None)
if number is None:
return None
return (case, definite, number)
def _build_nouns():
nouns = {} # lemma -> {"g":..., para:{(case,def,num):form}, "PL":plain_plural}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
if d.get("pos") != "noun":
continue
word = d.get("word", "")
if not word or " " in word:
continue
ht = d.get("head_templates") or []
g = None
if ht:
a = str((ht[0].get("args") or {}).get("1") or "").lower()
if a[:1] in ("m", "f", "n"):
g = a[:1]
entry = nouns.setdefault(word, {"g": g, "para": {}, "PL": None})
if entry["g"] is None and g:
entry["g"] = g
for x in (d.get("forms") or []):
fm = x.get("form")
tg = set(x.get("tags") or [])
if not fm or fm in ("-", "#", "") or " " in fm:
continue
if tg == {"plural"} and not entry["PL"]:
entry["PL"] = fm
k = _noun_key(tg)
if k and k not in entry["para"]:
entry["para"][k] = fm
return nouns
# ── adjectives from kaikki (UniMorph ron ADJ is sparse AND mis-tagged; kaikki is
# clean: the 4-form agreement pattern bun/bună/buni/bune). Neuter maps sg->masc,
# pl->fem, so 4 forms (m/f × SG/PL) fully cover it. ────────────────────────────
def _build_adjs():
adjs = {} # lemma -> {(gender,number): form} gender in {m,f}
with open(_KAIKKI, encoding="utf-8") as fh:
for line in fh:
try:
d = json.loads(line)
except Exception:
continue
if d.get("pos") != "adj":
continue
word = d.get("word", "")
if not word or " " in word:
continue
d0 = adjs.setdefault(word, {})
d0.setdefault(("m", "SG"), word) # masc sg = headword
for x in (d.get("forms") or []):
fm = x.get("form")
t = set(x.get("tags") or [])
if not fm or " " in fm or fm in ("-", "#") or (t & _EXCL):
continue
if "definite" in t or "genitive" in t or "dative" in t:
continue # keep indefinite nom/acc agr set
pl = "plural" in t
fem = "feminine" in t
masc = "masculine" in t
if fem and pl:
d0.setdefault(("f", "PL"), fm)
elif masc and pl:
d0.setdefault(("m", "PL"), fm)
elif fem and not pl:
d0.setdefault(("f", "SG"), fm)
elif pl and not fem and not masc: # bare plural -> both genders
d0.setdefault(("m", "PL"), fm)
d0.setdefault(("f", "PL"), fm)
return adjs
def _build_cache():
verbs, part, ger = _build_verbs()
nouns = _build_nouns()
adjs = _build_adjs()
data = {"verbs": verbs, "part": part, "ger": ger, "nouns": nouns, "adjs": adjs}
try:
with open(_CACHE, "wb") as fh:
pickle.dump(data, fh, protocol=pickle.HIGHEST_PROTOCOL)
except OSError:
pass
return data
def _load():
if os.path.exists(_CACHE):
srcs = [_UNIMORPH, _KAIKKI]
newest = max(os.path.getmtime(s) for s in srcs if os.path.exists(s))
if os.path.getmtime(_CACHE) >= newest:
try:
with open(_CACHE, "rb") as fh:
return pickle.load(fh)
except Exception:
pass
return _build_cache()
_LEX = _load()
_VERBS, _PART, _GER, _NOUNS, _ADJS = (
_LEX["verbs"], _LEX["part"], _LEX["ger"], _LEX["nouns"], _LEX["adjs"])
# ── rule verb conjugation fallback ────────────────────────────────────────────────
def _vclass(lemma):
if lemma.endswith("a"):
return "a"
if lemma.endswith("ea"):
return "ea"
if lemma.endswith("e"):
return "e"
if lemma.endswith("i"):
return "i"
if lemma.endswith("î"):
return "î"
return None
# regular present endings by class [1sg,2sg,3sg,1pl,2pl,3pl]
_REG_PRS = {
"a": ["", "i", "ă", "ăm", "ați", "ă"], # a lucra type (simplified)
"ea": ["", "i", "e", "em", "eți", "", ],
"e": ["", "i", "e", "em", "eți", ""],
"i": ["esc", "ești", "ește", "im", "iți", "esc"], # -i type (a vorbi)
"î": ["ăsc", "ăști", "ăște", "âm", "âți", "ăsc"],
}
_SLOT = {("first", "singular"): 0, ("second", "singular"): 1, ("third", "singular"): 2,
("first", "plural"): 3, ("second", "plural"): 4, ("third", "plural"): 5}
def _rule_conjugate(lemma, mood, tense, person, number):
vc = _vclass(lemma)
if vc is None:
return None
i = _SLOT[(person, number)]
body = lemma[:-len(vc)]
if mood == "ind" and tense == "present":
end = _REG_PRS[vc][i]
return body + end
if mood == "ind" and tense == "imperfect":
# -a/-i/-î -> stem + a/eai...; -e/-ea -> eam. Simplified regular imperfect.
stem = body
endings = {"a": ["am", "ai", "a", "am", "ați", "au"],
"i": ["eam", "eai", "ea", "eam", "eați", "eau"],
"î": ["am", "ai", "a", "am", "ați", "au"],
"e": ["eam", "eai", "ea", "eam", "eați", "eau"],
"ea": ["eam", "eai", "ea", "eam", "eați", "eau"]}[vc]
return stem + endings[i]
return None
# ── PUBLIC verb API ───────────────────────────────────────────────────────────────
def conjugate(lemma, mood, tense, person, number):
lemma = lemma.strip().lower()
key = f"{mood}|{tense}|{_PERSON.get(person,'?')}|{_NUMBER.get(number,'?')}"
ir = _IRREG.get(lemma)
if ir and key in ir:
return ir[key], "lexicon"
form = _VERBS.get((lemma, key))
if form:
return form, "lexicon"
r = _rule_conjugate(lemma, mood, tense, person, number)
if r is not None:
return r, "rule"
return lemma, "fallback"
def participle(lemma):
"""Past participle — INVARIABLE in the perfect compus (am mers, am văzut)."""
lemma = lemma.strip().lower()
ir = _IRREG.get(lemma)
if ir and "part" in ir:
return ir["part"], "lexicon"
if lemma in _PART:
return _PART[lemma], "lexicon"
vc = _vclass(lemma)
if vc == "a":
return lemma[:-1] + "at", "rule"
if vc in ("ea",):
return lemma[:-2] + "ut", "rule"
if vc == "i":
return lemma[:-1] + "it", "rule"
if vc == "î":
return lemma[:-1] + "ât", "rule"
if vc == "e":
return lemma[:-1] + "ut", "rule"
return lemma, "fallback"
def gerund(lemma):
lemma = lemma.strip().lower()
ir = _IRREG.get(lemma)
if ir and "ger" in ir:
return ir["ger"], "lexicon"
if lemma in _GER:
return _GER[lemma], "lexicon"
vc = _vclass(lemma)
if vc in ("a", "î"):
return lemma[:-1] + "ând", "rule"
if vc in ("ea", "e", "i"):
return lemma[:-len(vc)] + "ind", "rule"
return lemma, "fallback"
# ── noun gender ───────────────────────────────────────────────────────────────────
def noun_gender(lemma):
lemma = lemma.strip().lower()
d = _NOUNS.get(lemma)
if d and d.get("g") in ("m", "f", "n"):
return d["g"]
if lemma.endswith(("ă", "a", "e")):
return "f"
return "m"
# ── SUFFIXED DEFINITE ARTICLE — rule engine (fallback for OOV nouns) ───────────────
def definite_suffix(noun, gender, number, case="nomacc"):
"""Attach the enclitic definite article by gender + ending. Returns (form, conf).
This is the headline Romanian-specific engine extension."""
n = noun
g = gender
if number == "singular":
if g in ("m", "n"):
if case == "gendat":
# masc/neut gen-dat definite: -lui
if n.endswith("e"):
return n + "lui", "rule" # câine -> câinelui
if n.endswith("u"):
return n + "lui", "rule"
return n + "ului", "rule" # om -> omului
# nom/acc
if n.endswith("e"):
return n + "le", "rule" # câine -> câinele
if n.endswith("u"):
return n + "l", "rule" # codru -> codrul
if n.endswith("i"):
return n + "ul", "rule"
return n + "ul", "rule" # om -> omul
# feminine singular
if case == "gendat":
# fem gen/dat definite = plural-stem + i (casei, fetei) — needs plural;
# approximated as: -ă->-ei, -e->-ei, -a->-alei
if n.endswith("ă"):
return n[:-1] + "ei", "rule" # casă -> casei
if n.endswith("e"):
return n[:-1] + "ei", "rule" # carte -> cărții(approx cartei)
if n.endswith("a"):
return n[:-1] + "lei", "rule"
return n + "i", "rule"
# fem nom/acc
if n.endswith("ă"):
return n[:-1] + "a", "rule" # casă -> casa
if n.endswith("e"):
return n[:-1] + "ea", "rule" # carte -> cartea
if n.endswith("a"):
return n + "ua", "rule" # stea -> steaua
if n.endswith("i"):
return n + "a", "rule"
return n + "a", "rule"
# plural
if case == "gendat":
base = noun
return base + "lor", "rule" # -lor for all gen/dat pl
if g == "m":
return noun + "i", "rule" # oameni -> oamenii (+i)
return noun + "le", "rule" # case -> casele, trenuri->trenurile
# ── rule pluralization (fallback) ─────────────────────────────────────────────────
def _rule_plural(noun, gender):
if gender == "f":
if noun.endswith("ă"):
return noun[:-1] + "e"
if noun.endswith("e"):
return noun[:-1] + "i"
if noun.endswith("a"):
return noun[:-1] + "le"
return noun + "e"
if gender == "n":
return noun + "uri"
# masculine
if noun.endswith(("e",)):
return noun[:-1] + "i"
return noun + "i"
# ── PUBLIC noun inflection ────────────────────────────────────────────────────────
def inflect_noun(lemma, number, gender=None, case="nomacc", definite=False):
lemma = lemma.strip().lower()
g = gender or noun_gender(lemma)
d = _NOUNS.get(lemma)
numk = "SG" if number == "singular" else "PL"
if d:
if case == "voc":
form = d["para"].get(("voc", True, numk)) or d["para"].get(("voc", False, numk))
if form:
return form, "lexicon"
# try the exact paradigm cell from kaikki (lexically grounded)
form = d["para"].get((case, definite, numk))
if form:
return form, "lexicon"
# indefinite fallbacks from the paradigm
if not definite:
form = d["para"].get(("nomacc", False, numk))
if form:
return form, "lexicon"
if numk == "PL" and d.get("PL"):
return d["PL"], "lexicon"
if numk == "SG":
return lemma, "lexicon"
# rule path
base = lemma if number == "singular" else _rule_plural(lemma, g)
if definite:
return definite_suffix(base, g, number, case)
return base, ("rule" if d is None else "lexicon")
# ── PUBLIC adjective agreement ────────────────────────────────────────────────────
def _neuter_map(gender, number):
# neuter agrees masculine in SG, feminine in PL
if gender == "n":
return "m" if number == "singular" else "f"
return gender
def inflect_adj(lemma, gender, number, case="nomacc", definite=False):
lemma = lemma.strip().lower()
numk = "SG" if number == "singular" else "PL"
eg = _neuter_map(gender, number) # neuter -> masc(SG)/fem(PL)
d = _ADJS.get(lemma)
if d:
form = d.get((eg, numk))
if form:
return form, "lexicon"
# rule fallback: 4-form pattern bun/bună/buni/bune keyed by effective gender
a = lemma
if number == "singular":
if eg == "f":
if a.endswith("e"):
return a, "rule" # mare invariant sg
if a.endswith("u"):
return a[:-1] + "ă", "rule" # nou -> nouă
if a.endswith("ă"):
return a, "rule"
return a + "ă", "rule" # bun -> bună
return a, "rule" # masc/neut sg = lemma
# plural
if eg == "f":
if a.endswith("e"):
return a[:-1] + "i", "rule" # mare -> mari
if a.endswith("u"):
return a[:-1] + "e", "rule" # nou -> noue (approx; 'noi' irr)
if a.endswith("ă"):
return a[:-1] + "e", "rule"
return a + "e", "rule" # bun -> bune
# masc/neut(SG-only)->here masc pl -> -i
if a.endswith("e"):
return a[:-1] + "i", "rule" # mare -> mari
if a.endswith("u"):
return a[:-1] + "i", "rule"
return a + "i", "rule" # bun -> buni
def lexicon_stats():
return {
"verb_source": "UniMorph Romanian (github.com/unimorph/ron) + curated "
"irregulars (avea/vrea/da + aux clitic paradigms)",
"noun_source": "kaikki.org Romanian — full case/definite/vocative declension",
"adj_source": "UniMorph Romanian ADJ (case×gender×number×definiteness)",
"license": "CC-BY-SA 3.0 (Wiktionary/UniMorph lineage)",
"unimorph_verb_forms": len(_VERBS),
"unimorph_verb_lemmas": len({k[0] for k in _VERBS}),
"irregular_verb_lemmas": len(_IRREG),
"participle_lemmas": len(_PART),
"noun_lemmas": len(_NOUNS),
"adj_lemmas": len(_ADJS),
}
if __name__ == "__main__":
print(json.dumps(lexicon_stats(), indent=2, ensure_ascii=False))
print("\n── SUFFIXED DEFINITE ARTICLE (the headline delta) ──")
for n, g in [("om", "m"), ("băiat", "m"), ("casă", "f"), ("carte", "f"),
("tren", "n"), ("student", "m"), ("floare", "f")]:
sg = inflect_noun(n, "singular", g, "nomacc", True)
pl = inflect_noun(n, "plural", g, "nomacc", True)
gd = inflect_noun(n, "singular", g, "gendat", True)
vo = inflect_noun(n, "singular", g, "voc", False)
print(f" {n:8}({g}) def.sg={sg[0]:12} def.pl={pl[0]:14} "
f"gen/dat.sg={gd[0]:12} voc={vo[0]}")
print("\n── NEUTER split agreement (tren: masc SG / fem PL) ──")
print(" tren nou ->", inflect_noun("tren", "singular", "n")[0],
inflect_adj("nou", "n", "singular")[0])
print(" trenuri noi->", inflect_noun("tren", "plural", "n")[0],
inflect_adj("nou", "n", "plural")[0])
print("\n── verbs ──")
for l, m, t, p, n, in [("merge", "ind", "present", "third", "singular"),
("avea", "ind", "present", "first", "singular"),
("fi", "ind", "present", "third", "singular"),
("vorbi", "ind", "present", "third", "plural"),
("face", "sbjv", "present", "third", "singular"),
("lucra", "ind", "imperfect", "third", "singular")]:
print(f" {l:8}{m}/{t:10}{p[:3]}.{n[:2]} -> {conjugate(l,m,t,p,n)}")
print(" perfect-aux(3sg):", aux("perfect", "third", "singular"),
"| future(1sg):", aux("future", "first", "singular"),
"| cond(3sg):", aux("conditional", "third", "singular"))
print(" participle merge/vedea:", participle("merge"), participle("vedea"))
+43
View File
@@ -0,0 +1,43 @@
// multilingual_gate.el - deterministic language detect + localized-phrase test.
fn mg_det(text: String, want: String) -> String {
let got: String = ml_detect(text)
let ok: String = "MISMATCH"
if str_eq(got, want) { let ok = "ok" }
return " detect(" + got + ") want=" + want + " (" + ok + ") :: " + text + "\n"
}
fn mg_ok(text: String, want: String) -> Int {
if str_eq(ml_detect(text), want) { return 1 }
return 0
}
fn run_ml_gate() -> String {
let t1: String = "Does Neuron use SQLite for storage?"
let t2: String = "Neuron, me explica cómo la saliencia forma las geometrías."
let t3: String = "O professor não leu o livro na memória."
let t4: String = "Che cosa memorizza Neuron nella memoria?"
let rep: String = "==== ELP multilingual detect + localized phrases ====\n"
let rep = rep + mg_det(t1, "en")
let rep = rep + mg_det(t2, "es")
let rep = rep + mg_det(t3, "pt")
let rep = rep + mg_det(t4, "it")
let rep = rep + " localized decline (pt): " + ml_tr("no_memory", "pt") + "\n"
let rep = rep + " localized decline (es): " + ml_tr("no_memory", "es") + "\n"
let rep = rep + " term(saliência->en): " + ml_term("saliência", "pt") + "\n"
let rep = rep + " pred(store->pt): " + ml_translate_pred("store", "pt") + "\n"
let ok: Int = 0
if mg_ok(t1, "en") == 1 { let ok = ok + 1 }
if mg_ok(t2, "es") == 1 { let ok = ok + 1 }
if mg_ok(t3, "pt") == 1 { let ok = ok + 1 }
if mg_ok(t4, "it") == 1 { let ok = ok + 1 }
let rep = rep + "-----------------------------------------------------------------\n"
let rep = rep + "language detected correctly: " + int_to_str(ok) + "/4\n"
if ok == 4 { let rep = rep + "ML GATE: PASS\n" } else { let rep = rep + "ML GATE: FAIL\n" }
return rep
}
println(run_ml_gate())
+52
View File
@@ -0,0 +1,52 @@
// propositions_gate.el - the READ primitive over memory text (native el).
// Proves triples are recovered from free memory text and that SACRED polarity
// survives extraction (a negative memory must yield a NOT-triple).
fn pg_check(text: String, want_pol: String) -> String {
let p: [String] = prop_extract_one(text, "nd-test")
let pol: String = slots_get(p, "polarity")
let ok: String = "MISMATCH"
if str_eq(pol, want_pol) { let ok = "ok" }
return " " + prop_repr(p) + " pol=" + pol + " expected=" + want_pol + " (" + ok + ")\n"
}
fn pg_pol_ok(text: String, want_pol: String) -> Int {
let p: [String] = prop_extract_one(text, "nd-test")
if str_eq(slots_get(p, "polarity"), want_pol) { return 1 }
return 0
}
fn run_prop_gate() -> String {
let m1: String = "Neuron stores memories in SQLite."
let m2: String = "The engram does not delete a memory."
let m3: String = "Salience never drops the negation."
let m4: String = "The teacher gives the book to the children."
let rep: String = "==== ELP proposition extraction (memory text -> triples) ====\n"
let rep = rep + pg_check(m1, "aff")
let rep = rep + pg_check(m2, "neg")
let rep = rep + pg_check(m3, "neg")
let rep = rep + pg_check(m4, "aff")
// multi-sentence memory: one triple per sentence, order preserved
let doc: String = "Neuron persists learning. It does not forget the library."
let props: [String] = prop_extract(doc, "nd-doc")
let rep = rep + " --- multi-sentence doc (" + int_to_str(native_list_len(props)) + " props) ---\n"
let di: Int = 0
while di < native_list_len(props) {
let rep = rep + " " + native_list_get(props, di) + "\n"
let di = di + 1
}
let ok: Int = 0
if pg_pol_ok(m1, "aff") == 1 { let ok = ok + 1 }
if pg_pol_ok(m2, "neg") == 1 { let ok = ok + 1 }
if pg_pol_ok(m3, "neg") == 1 { let ok = ok + 1 }
if pg_pol_ok(m4, "aff") == 1 { let ok = ok + 1 }
let rep = rep + "-----------------------------------------------------------------\n"
let rep = rep + "SACRED polarity correct on extraction: " + int_to_str(ok) + "/4\n"
if ok == 4 { let rep = rep + "PROP GATE: PASS\n" } else { let rep = rep + "PROP GATE: FAIL\n" }
return rep
}
println(run_prop_gate())
+516 -7
View File
@@ -3155,6 +3155,37 @@ static void jb_init(JsonBuf* b) {
b->buf[0] = '\0';
}
/* jb_init_cap — jb_init with a caller-supplied starting capacity.
*
* WHY THIS EXISTS (2026-08-11 self-review). jb_init starts at 64 BYTES and
* jb_reserve grows by doubling. That is right for the hundreds of small JSON
* responses this runtime builds per minute and catastrophic for the one that
* is 64 MEGABYTES: serializing the canonical snapshot walked the buffer
* 64B 128B ... 128MB, about twenty reallocs, each copying everything
* written so far. Roughly 128MB of memcpy per save, and the part that
* actually hurt a fresh large span from the allocator every time.
*
* MEASURED (13,129 nodes / 43,400 edges, macOS arm64): RSS climbed +63MB per
* snapshot write, linearly, 14 for 14 writes, no plateau 204MB to 1,028MB.
* `leaks` reported only 15KB genuinely unreachable, which is what makes this
* subtle: nothing is leaked in the reachable/unreachable sense. engram_save
* frees b.buf correctly on every path. The growth is the allocator declining
* to return large freed spans to the OS, and the doubling walk guaranteeing
* that each save asks for a differently-sized region than the last free made
* available. Every durable write path calls this node create, edge create,
* the Hebbian batch write-back so on the live daemon it grows without bound
* until the process dies.
*
* The fix is to ask for the right size once. With a stable capacity the
* allocator hands back the same span on every save and RSS flattens. */
static void jb_init_cap(JsonBuf* b, size_t cap) {
if (cap < 64) cap = 64;
b->cap = cap; b->len = 0;
b->buf = malloc(b->cap);
if (!b->buf) { fputs("el_runtime: out of memory\n", stderr); exit(1); }
b->buf[0] = '\0';
}
static void jb_reserve(JsonBuf* b, size_t add) {
if (b->len + add + 1 > b->cap) {
while (b->len + add + 1 > b->cap) b->cap *= 2;
@@ -6424,6 +6455,26 @@ static float* _eg_ctx_c = NULL;
static int32_t _eg_ctx_dim = 0;
static double _eg_act_ctx_cos = -2.0;
/* Fan-effect gauges (2026-08-11 self-review). Per-call, like ctx_cos: they
* describe THIS activation, not process history. Without these the degree
* normalization is an unobservable change to the most important scoring path
* in the runtime, and "did it do anything" would be unanswerable which is
* exactly the failure the Hebbian learning rate had before it was measured.
* fan_mean mean applied factor over every propagation step. 1.0 means the
* correction never bound (graph is flat, or d_ref is above every
* pair's geometric mean degree). Falling toward FAN_MIN means
* traversal is running through hubs.
* fan_min_seen / fan_hits the worst single penalty and how many steps were
* penalized at all, so a low mean caused by one pathological hub
* is distinguishable from broad hub saturation.
* fan_dref the live mean degree the correction is calibrated against;
* publishing it makes densification visible over time. */
static double _eg_act_fan_sum = 0.0;
static double _eg_act_fan_min = 1.0;
static int64_t _eg_act_fan_n = 0;
static int64_t _eg_act_fan_hits = 0;
static double _eg_act_fan_dref = 0.0;
static int _eg_embed_consec_fail = 0;
static int64_t _eg_embed_breaker_until = 0;
@@ -6782,6 +6833,10 @@ typedef struct EngramStore {
int* adj_to_len;
int adj_dirty; /* 1 = rebuild needed before next BFS */
int64_t adj_node_count; /* node_count at time of last adj_rebuild */
/* Nodes with degree >= 1 at last adj_rebuild. The denominator for the
* fan-effect reference degree see eg_fan_factor for why isolated nodes
* must not be counted. (2026-08-11 self-review) */
int64_t adj_connected;
} EngramStore;
static EngramStore* engram_global = NULL;
@@ -7145,11 +7200,16 @@ static void engram_adj_rebuild(EngramStore* g) {
if (ti >= 0 && g->adj_to[ti])
g->adj_to[ti][to_pos[ti]++] = (int)ei;
}
/* Copy counts */
/* Copy counts. Also tally how many nodes have any edge at all — the
* fan-effect denominator. Free here, in the O(V) pass that already exists,
* rather than as a separate scan. (2026-08-11 self-review) */
int64_t connected = 0;
for (int64_t i = 0; i < g->node_count; i++) {
g->adj_from_len[i] = from_cnt[i];
g->adj_to_len[i] = to_cnt[i];
if (from_cnt[i] + to_cnt[i] > 0) connected++;
}
g->adj_connected = connected;
free(from_cnt); free(to_cnt); free(from_pos); free(to_pos);
g->adj_node_count = g->node_count;
g->adj_dirty = 0;
@@ -8297,6 +8357,108 @@ static double engram_activation_dampen(const EngramNode* n) {
return 1.0 / (1.0 + log(1.0 + (double)n->activation_count));
}
/* ── ACT-R fan effect: degree normalization for spreading activation ─────────
* (2026-08-11 self-review. Closes the other half of a mechanism that has been
* half-implemented since the BLL work.)
*
* THE GAP. This runtime implements ACT-R's base-level learning term
* B_i = ln(Σ t_k^-d) (engram_bll_base_level) but never implemented the
* ASSOCIATIVE term that goes with it:
*
* A_i = B_i + Σ_j W_j · S_ji where S_ji = S ln(fan_j)
*
* fan_j is the number of things j is associated with. The whole point of the
* fan effect (Anderson 1974; Anderson & Reder 1999) is that a source spreads a
* FIXED budget of activation across its associations so being connected to
* many things makes each individual connection weaker. Without it, degree is
* pure advantage: a node wins retrieval by being popular rather than by being
* relevant. That is backwards, and it is what this graph has been doing.
*
* MEASURED ON THE LIVE STORE (13,129 nodes / 43,400 edges, 2026-08-11):
* degree p50=14 p90=34 p95=82 p99=275 max=357 mean=23.3
* the top 1% of nodes by degree touch 21.2% of all edges
* So the most-connected node had a 25x propagation advantage over the median
* node for no reason other than accumulated connections. The top hubs are not
* even semantically central several are duplicate pairs of the same document
* left over from the redundancy census of the 2026-08-05 review.
*
* The hub problem was already recognized twice and patched narrowly both
* times: InternalStateEvent nodes were cut out of propagation entirely (see
* the frontier loop) and eg_hebb_node_budget caps per-node Hebbian mass. Both
* are special cases of this general law. This is the general fix.
*
* FORM. Symmetric normalization, w / (deg(u)^β · deg(v)^β) with β = 0.5 the
* normalized-Laplacian / GCN form, which penalizes a hub both for sending and
* for receiving. Both failure modes are live here: a hub source floods its
* neighborhood, and a hub target gets reached by everything regardless of
* relevance. Written relative to the graph's own mean degree:
*
* fan(u,v) = clamp( d_ref / sqrt(deg(u) · deg(v)), FAN_MIN, 1.0 )
* d_ref = 2·|E| / |V| (mean degree, O(1), live)
*
* WHY IT IS CLAMPED AT 1.0 ON TOP this is the load-bearing safety property,
* not a detail. The factor can only ever REDUCE propagation, never amplify it.
* Every constant downstream of this multiply is calibrated against today's
* activation magnitudes: the 0.02 firing threshold, SPREAD_DECAY = 0.7, the
* 0.15 WM promotion threshold, the 24-slot WM cap. A normalization that
* boosted low-degree nodes would inflate the frontier, change how many nodes
* clear 0.02, and silently recalibrate working memory as a side effect of a
* change that was supposed to be about hubs. Capping at 1.0 means every pair
* at or below mean degree the common case propagates EXACTLY as it does
* today, and the only behavior that changes is that above-mean hubs stop
* winning on degree alone. Strictly monotone, strictly conservative, and the
* blast radius is confined to the nodes the change is aimed at.
*
* Self-calibrating: d_ref is recomputed from the live graph, so the correction
* tracks densification instead of drifting against a constant that was right
* in August 2026 and wrong a year later. Change is the signal.
*
* FAN_MIN = 0.30 bottoms the penalty at ~3.3x rather than the ~15x that raw
* 1/deg would give at max degree. Same reasoning as ENGRAM_QGATE_FLOOR: damp
* the uninformative path, never sever it. A hub is usually a hub for a reason;
* it just should not also get a free win.
*
* Sources: Anderson & Reder 1999 (fan effect, S=1.6-2.0, d=0.5) ·
* arXiv:2405.14831 HippoRAG (node specificity) · Systems 9(2):22
* (normalized-Laplacian spreading activation) · arXiv:2606.30133 (β is a
* low-sensitivity knob; gating and fan normalization carry the effect). */
/* FAN_MIN 0.50, not the 0.30 this shipped as on the first build. Measured on
* the live graph, β=0.5 with a 0.30 floor damped 96% of propagation steps to a
* mean factor of 0.34 and that number is not a bug in the correction, it is
* an honest measurement of how hub-dominated traversal here actually is. But a
* ~3x near-uniform damp is a bigger global change than one A/B run justifies,
* and it cost a working-memory promotion (5 4) on the one query measured
* cleanly. A 0.50 floor keeps the full mechanism and the whole [0.5, 1.0]
* dynamic range for separating hubs from non-hubs, at half the blast radius.
* The fan_mean / fan_hits gauges make the next review's tuning evidence-based
* rather than another guess: loosen it when the data says WM can afford it. */
#define ENGRAM_FAN_MIN 0.50
/* eg_node_degree — total (in + out) degree from the adjacency index. The index
* is rebuilt at the top of engram_activate whenever topology changed, so this
* is current. adj_node_count is the count at BUILD time and can lag
* node_count; out-of-range indices report 0 and are treated as unpenalized. */
static int eg_node_degree(const EngramStore* g, int64_t idx) {
if (idx < 0 || idx >= g->adj_node_count) return 0;
if (!g->adj_from_len || !g->adj_to_len) return 0;
return g->adj_from_len[idx] + g->adj_to_len[idx];
}
static double eg_fan_factor(const EngramStore* g, double d_ref,
int64_t u_idx, int64_t v_idx) {
if (d_ref <= 0.0) return 1.0;
int du = eg_node_degree(g, u_idx);
int dv = eg_node_degree(g, v_idx);
/* Degree 0 is only reachable when the adjacency index is stale or absent;
* an actually-isolated node is never on the frontier. Do not penalize what
* we cannot measure. */
if (du <= 0 || dv <= 0) return 1.0;
double f = d_ref / sqrt((double)du * (double)dv);
if (f > 1.0) return 1.0; /* never amplify — see above */
if (f < ENGRAM_FAN_MIN) return ENGRAM_FAN_MIN;
return f;
}
/* Temporal proximity bonus: boost propagation along edges connecting
* co-temporal nodes. Returns a multiplier bonus in [0, 0.2]. */
static double engram_temporal_proximity_bonus(int64_t node_created,
@@ -8464,6 +8626,8 @@ el_val_t engram_activate(el_val_t query, el_val_t depth) {
* miss nearly all events between beats; see the definition site).
* ctx_cos stays per-call: it is a gauge of THIS query vs the centroid. */
_eg_act_ctx_cos = -2.0;
_eg_act_fan_sum = 0.0; _eg_act_fan_min = 1.0;
_eg_act_fan_n = 0; _eg_act_fan_hits = 0;
/* ── Embedding backfill + query embedding (2026-07-24, bl-b2d1c944) ──
* Backfill: embed up to N un-embedded eligible nodes per call, newest
@@ -8696,6 +8860,29 @@ el_val_t engram_activate(el_val_t query, el_val_t depth) {
ftail++;
}
const double SPREAD_DECAY = 0.7;
/* Reference degree for the fan-effect correction: mean degree over
* CONNECTED nodes, 2|E| / |{v : deg(v) > 0}|. O(1) adj_connected is
* tallied during adjacency rebuild.
*
* NOT 2|E|/|V|. That was the first cut and instrumentation caught it
* immediately: on the live graph it gives d_ref = 6.61, while the median
* degree of a node that actually has edges is 14. Isolated nodes cannot
* be on the frontier spreading activation only ever traverses connected
* ones so including them in the denominator deflates the reference below
* anything traversal will ever see, and the correction pins to
* ENGRAM_FAN_MIN on every step. Measured on the first build:
* fan_mean 0.3026 with fan_hits 579/579 a uniform 0.30 multiplier, which
* is not a fan effect at all. It is just a weaker SPREAD_DECAY, and it
* would have quietly recalibrated the 0.02 firing threshold and WM
* competition while appearing to be a targeted change.
*
* Over connected nodes the reference is ~23, above the median, so typical
* traversal rides the 1.0 cap unchanged and only genuine hubs are damped
* which is the whole intent. The gauge that caught this is the reason it
* was worth adding the gauge. */
const double FAN_DREF = (g->adj_connected > 0)
? (2.0 * (double)g->edge_count / (double)g->adj_connected) : 0.0;
_eg_act_fan_dref = FAN_DREF;
while (fhead < ftail) {
Frontier f = fr[fhead++];
if (f.hops >= max_depth) continue;
@@ -8767,11 +8954,24 @@ el_val_t engram_activate(el_val_t query, el_val_t depth) {
double c = cosq[oi] > 0.0 ? cosq[oi] : 0.0;
qgate = ENGRAM_QGATE_FLOOR + (1.0 - ENGRAM_QGATE_FLOOR) * c;
}
/* ── ACT-R fan effect (2026-08-11 self-review) ──
* Symmetric degree normalization over the (source, target) pair.
* The query gate above prunes branches that are semantically
* irrelevant; this prunes branches that are merely POPULAR. They
* are different failure modes a duplicate document with 357
* edges can be highly cosine-similar to the query and still be
* the wrong thing to spread through. Only ever <= 1.0, so it
* cannot inflate the frontier. See eg_fan_factor. */
double fan = eg_fan_factor(g, FAN_DREF, cur, oi);
_eg_act_fan_sum += fan;
_eg_act_fan_n++;
if (fan < 1.0) _eg_act_fan_hits++;
if (fan < _eg_act_fan_min) _eg_act_fan_min = fan;
/* eg_edge_eff_weight, not e->weight: edges that have repeatedly
* carried co-activated pairs propagate more strongly. Identity on
* an unlearned edge. (2026-08-04 self-review.) */
double new_act = f.act * eg_edge_eff_weight(e) * SPREAD_DECAY
* (1.0 + tbonus) * tdecay * dampen * qgate;
* (1.0 + tbonus) * tdecay * dampen * qgate * fan;
/* Firing threshold per classic spreading-activation: sub-threshold
* activation neither updates the target nor enqueues it, so weak
* signals die out instead of flooding the whole graph with tiny
@@ -9744,11 +9944,24 @@ static void engram_emit_edge_json(JsonBuf* b, const EngramEdge* e) {
jb_putc(b, '}');
}
/* Size of the last snapshot this process serialized. Seeds the next save's
* buffer so the doubling walk never runs on the big document. See jb_init_cap
* for the measurement that motivated it. (2026-08-11 self-review) */
static size_t _eg_save_cap_hint = 0;
el_val_t engram_save(el_val_t path) {
const char* p = EL_CSTR(path);
if (!p || !*p) return 0;
EngramStore* g = engram_get();
JsonBuf b; jb_init(&b);
/* Pre-size from the previous save plus 12.5% headroom, so ordinary growth
* between snapshots does not trigger a realloc and the request size stays
* stable enough for the allocator to reuse the same span. First save of
* the process has no hint and starts at 1MB still 14 doublings better
* than 64 bytes. */
JsonBuf b;
jb_init_cap(&b, _eg_save_cap_hint
? _eg_save_cap_hint + (_eg_save_cap_hint >> 3) + 1024
: (size_t)1 << 20);
jb_puts(&b, "{\"nodes\":[");
for (int64_t i = 0; i < g->node_count; i++) {
if (i > 0) jb_putc(&b, ',');
@@ -9788,6 +10001,10 @@ el_val_t engram_save(el_val_t path) {
jb_putc(&b, '}');
}
jb_puts(&b, "]}");
/* Remember the size BEFORE the write: the hint is about how much buffer
* the next serialization needs, which is a property of the graph, not of
* whether this particular fopen succeeded. */
_eg_save_cap_hint = b.len;
FILE* f = fopen(p, "wb");
if (!f) { free(b.buf); return 0; }
size_t w = fwrite(b.buf, 1, b.len, f);
@@ -10714,8 +10931,11 @@ el_val_t engram_act_stats_json(void) {
}
/* 768, not 512: the write-back gauges added 2026-08-07 push the worst-case
* rendering past the old bound, and snprintf would truncate the JSON into
* an unparseable tail rather than fail loudly. */
char buf[896];
* an unparseable tail rather than fail loudly.
* 1152, not 896: the five fan-effect gauges added 2026-08-11 add ~90 bytes
* worst-case. Same reasoning headroom is cheaper than a truncated tail
* that every downstream JSON parser rejects as a whole. */
char buf[1152];
/* ctx_cos (2026-07-29): cos(query, context centroid) at the LAST
* activate call, measured before the query was folded in. ~1.0 =
* context aligned with current query; low = divergence (expected at
@@ -10736,7 +10956,14 @@ el_val_t engram_act_stats_json(void) {
* any climb means a write path is mangling text again. Cheap
* (counted at creation) the full census lives in
* engram_text_health_json. (2026-08-08 self-review) */
"\"txt_damaged\":%lld}",
"\"txt_damaged\":%lld,"
/* Fan-effect gauges (2026-08-11 self-review) — see the
* _eg_act_fan_* definitions. fan_mean == 1.0 with fan_hits == 0
* means the degree correction never bound on the last activation;
* a mean drifting toward ENGRAM_FAN_MIN means traversal is
* running through hubs and the correction is doing work. */
"\"fan_mean\":%.4f,\"fan_min\":%.4f,\"fan_hits\":%lld,"
"\"fan_steps\":%lld,\"fan_dref\":%.2f}",
(long long)_eg_act_wm_evicted,
(long long)_eg_act_breakthroughs,
breaker_open, _eg_embed_consec_fail,
@@ -10748,7 +10975,10 @@ el_val_t engram_act_stats_json(void) {
(long long)_eg_hebb_wb_dropped,
(long long)_eg_act_dup_seeds, (long long)_eg_act_dup_wm,
(long long)_eg_act_dup_wm_global,
(long long)_eg_txt_write_damaged);
(long long)_eg_txt_write_damaged,
(_eg_act_fan_n > 0 ? _eg_act_fan_sum / (double)_eg_act_fan_n : 1.0),
_eg_act_fan_min, (long long)_eg_act_fan_hits,
(long long)_eg_act_fan_n, _eg_act_fan_dref);
return el_wrap_str(el_strdup(buf));
}
@@ -10881,6 +11111,285 @@ el_val_t engram_label_df(el_val_t term) {
return (el_val_t)df;
}
/* ── Salient-term extraction (2026-08-13 self-review) ────────────────────────
* THE MEASUREMENT. auto_term_empty_streak, the counter added by the 2026-08-06
* review precisely to catch this class of silent death, read 50 and climbing.
* Fifty consecutive curiosity scans in which the soul's dynamic seeding path
* produced NOTHING and the loop fell back to its four hardcoded rotating
* phrases. Dumping the live WM top says why in one look:
*
* Memory 0.390 memory:remembered
* Memory 0.378 memory:remembered
* Memory 0.377 memory:remembered
* Memory 0.373 memory:remembered
* Memory 0.370 memory:remembered
*
* Every slot at the top of working memory is a Memory node, and every Memory
* node written by remember() carries the sentinel label "memory:remembered".
* auto_term_try_slot reads the LABEL and only the label; the colon-no-space
* guard (correctly) rejects sentinels as carrying no seed signal; so the
* extractor had nothing to work with and returned empty, forever.
*
* THE ACTUAL DEFECT is not the sentinel guard that guard is right. It is
* that the extractor was built against Knowledge nodes, which have real
* titles, and is structurally blind to the node type that in fact dominates
* working memory. The label is not the content. A Memory node's topic is in
* its text; the runtime just never looked there.
*
* WHY NOT ANOTHER GUARD. The extractor's whole history is guards: genre words
* (07-23), quoted titles (07-25), English stopwords (07-30), label-df
* (08-03). Four reviews, four blocklists, each written after watching a flood
* happen. That is a losing shape, and 08-03 said so explicitly before adding
* the fifth. The reason it keeps recurring is the algorithm underneath:
* TAKE THE FIRST WORD, THEN CHECK WHETHER IT IS ACCEPTABLE. A first-word
* extractor has no notion of term quality, so quality has to be bolted on as
* rejection, and rejection can only encode the past.
*
* THE FIX is to invert it: score EVERY candidate token in the text and take
* the argmax. Then term quality is the selection criterion rather than a
* veto, and a bad token does not need to be on a list to lose it only needs
* a better token in the same text, which is the common case.
*
* SCORING (YAKE, Campos et al., Information Sciences 509:257-289, 2020
* lightweight unsupervised single-document keyword extraction). YAKE scores
* candidates on casing, position, frequency, context relatedness and sentence
* dispersion, and beats RAKE/TextRank/SingleRank across twenty datasets. Two
* of its five features port directly and cheaply; the other three are
* within-document proxies for a corpus YAKE deliberately does not have. This
* system DOES have the corpus 12.7k labelled nodes so real IDF is
* substituted where YAKE has to approximate:
*
* score(t) = idf(t) · position(t) · casing(t)
*
* idf = ln((N+1)/(df+1)) real corpus specificity (Spärck
* Jones 1972), strictly better than
* YAKE's TF-based stand-in
* position = 1/ln(e + i) YAKE T_Position: earlier tokens are
* more topical. Keeps the old
* first-word bias as a SOFT preference
* instead of an absolute rule
* casing = 1.30 acronym / 1.15 capitalised / 1.00 otherwise
* YAKE T_Case
*
* THE min_df GATE. The df ceiling (08-03) rejects corpus-frequent markup and
* sentinels. A floor was added alongside it for an independent reason: a term
* appearing in ZERO labels cannot lexically reach anything, so it is a bad
* seed however specific it looks.
*
* An earlier draft of this comment claimed the floor also subsumes the 73
* hand-listed stopwords that 08-03 measured label-df as missing (Whose:0,
* Would:0, Could:0). MEASURED, AND THAT CLAIM IS FALSE. Under word-boundary
* df on the live store, function words are rare in labels but not absent:
* about:2, whole:1, them:2, head:2. They clear a floor of 1. What actually
* keeps them from winning is the argmax itself they carry no position
* advantage and lose to a topical term in the same text on every node
* measured. The stopword list therefore STAYS as a real defense for the
* Title-case cases, not as vestigial belt-and-braces. Recording the
* correction rather than the tidier story: the floor buys lexical
* reachability, the argmax buys quality, and the list still earns its keep.
*
* TABU IS APPLIED DURING THE ARGMAX, not after it. The old code picked a term
* and then discarded it if it was tabu, which turned inhibition-of-return
* into another source of empty scans. Excluding tabu terms from the candidate
* set instead yields the best NON-TABU term, so rotation costs quality rather
* than costing the whole scan.
*
* COST. One pass over g->nodes scoring all candidates at once (12.7k labels ×
* <=32 candidates, short strings, good locality), twice per 30 s scan.
*
* POLICY LIVES IN THE SOUL. Thresholds arrive as arguments; the runtime
* measures and ranks, awareness.el decides. Same split as engram_label_df.
*
* Returns the winning token, or "" when the node is missing, has no usable
* text, or every candidate is gated out "" remains the honest signal that
* this slot yielded no seed, and auto_term_empty_streak still counts it. */
#define ENGRAM_ST_MAXCAND 32
#define ENGRAM_ST_TOKLEN 64
#define ENGRAM_ST_SCANCHARS 400
/* Trim leading/trailing non-alphanumerics, then accept only tokens whose core
* is alphanumeric plus '-' and '_' with at least 3 letters. This subsumes the
* quoted-title guard (2026-07-25) and the "<!--" flood (2026-08-03)
* structurally: markup and punctuation-bearing tokens never become
* candidates, rather than being blocklisted after the fact. */
static int eg_st_clean_token(const char* raw, size_t rawlen,
char* out, size_t outcap) {
size_t s = 0, e = rawlen;
while (s < e && !isalnum((unsigned char)raw[s])) s++;
while (e > s && !isalnum((unsigned char)raw[e - 1])) e--;
size_t len = e - s;
if (len < 4 || len >= outcap) return 0;
int alpha = 0;
for (size_t i = 0; i < len; i++) {
unsigned char c = (unsigned char)raw[s + i];
if (isalpha(c)) alpha++;
else if (!isdigit(c) && c != '-' && c != '_') return 0;
}
if (alpha < 3) return 0;
memcpy(out, raw + s, len);
out[len] = '\0';
return 1;
}
/* ENGRAM_ST_DEBUG=1 dumps the full scored candidate set to stderr. One
* cached branch in production. This exists because the first live run of this
* function returned five ALL-CAPS terms in a row and there was no way to see
* whether that was the corpus or the casing weight without guessing the
* lesson this system keeps relearning. */
static int _eg_st_debug(void) {
static int v = -1;
if (v < 0) { const char* e = getenv("ENGRAM_ST_DEBUG"); v = (e && *e == '1'); }
return v;
}
/* Word-boundary document frequency. engram_label_df uses istr_contains, i.e.
* SUBSTRING matching, and that is the wrong estimator for term specificity on
* short tokens: "them" hits inside "theme" and "anthem", "about" and "whole"
* come back with df 2 and 1 rather than 0. That matters here specifically
* because the min_df floor is what rejects English function words, and it can
* only do that job if their df is honestly zero. Substring df quietly handed
* them a survival ticket. Measured on the live store before this fix, "whole"
* (df=1, idf=8.76) and "about" (df=2, idf=8.36) were outscoring real topical
* terms and losing only on position one node whose text happened to open
* with a function word would have seeded on it.
*
* engram_label_df keeps substring semantics: it is a separate published
* measure with existing callers, and changing it underneath them is not this
* change's business. */
static int eg_st_label_has_word(const char* hay, const char* word) {
size_t wl = strlen(word);
for (const char* p = hay; *p; p++) {
if (strncasecmp(p, word, wl) != 0) continue;
char before = (p == hay) ? '\0' : p[-1];
char after = p[wl];
if (before && (isalnum((unsigned char)before) || before == '_')) continue;
if (after && (isalnum((unsigned char)after) || after == '_')) continue;
return 1;
}
return 0;
}
/* YAKE T_Case, adapted to this corpus. YAKE up-weights all-caps tokens
* because in ordinary prose an acronym is rare and carries topic. That
* assumption does not hold here: memory content written by remember()
* conventionally OPENS WITH AN ALL-CAPS HEADER ("FRAME-ROUTER UPGRADE —
* RESULTS", "THE GAP", "CENSUS"), so a flat acronym bonus systematically
* hands the seed to whatever word the header happens to start with and lets
* casing override the specificity signal it is supposed to only nudge.
* Measured on the live store: the first five WM nodes returned PRIMING,
* CONVERSATION, OCCUPATION, RELATIONAL, SELF-OCCUPATION every one an
* all-caps header word, none chosen on its merits.
*
* Genuine acronyms are SHORT (VBD, CCR, MCP, HTTP); shouty headers are long
* words that happen to be capitalised. So the acronym bonus is restricted to
* tokens of <= 5 characters, where all-caps is actually evidence of an
* acronym rather than evidence of a heading. Longer all-caps tokens fall
* through to the ordinary Title-case nudge they still compete, they just
* compete on specificity instead of on volume. */
static double eg_st_casing(const char* t) {
int upper = 0, lower = 0;
size_t len = 0;
for (const char* q = t; *q; q++, len++) {
if (isupper((unsigned char)*q)) upper++;
else if (islower((unsigned char)*q)) lower++;
}
if (lower == 0 && upper >= 2 && len <= 5) return 1.30; /* acronym */
if (isupper((unsigned char)t[0])) return 1.15; /* Title/hdr */
return 1.0;
}
el_val_t engram_salient_term(el_val_t node_id, el_val_t max_df_v,
el_val_t min_df_v, el_val_t tabu_v) {
EngramStore* g = engram_get();
int64_t ix = engram_find_node_index(EL_CSTR(node_id));
if (ix < 0) return el_wrap_str(el_strdup(""));
EngramNode* n = &g->nodes[ix];
int64_t max_df = (int64_t)max_df_v;
int64_t min_df = (int64_t)min_df_v;
if (max_df <= 0) max_df = g->node_count;
if (min_df < 0) min_df = 0;
const char* tabu = EL_CSTR(tabu_v);
/* Source selection. Prefer the label — it is a curated title when it is
* one. Fall back to content when the label is absent or a sentinel
* ("memory:remembered": a colon and no space). This single line is what
* makes Memory nodes visible to the extractor at all. */
const char* src = n->label;
if (!src || !*src) {
src = n->content;
} else if (strchr(src, ':') != NULL && strchr(src, ' ') == NULL) {
src = n->content;
}
if (!src || !*src) return el_wrap_str(el_strdup(""));
/* Collect distinct candidates from the head of the text. */
char cand[ENGRAM_ST_MAXCAND][ENGRAM_ST_TOKLEN];
int pos[ENGRAM_ST_MAXCAND];
int64_t df[ENGRAM_ST_MAXCAND];
int ncand = 0, tokidx = 0;
const char* p = src;
const char* lim = src + strnlen(src, ENGRAM_ST_SCANCHARS);
while (p < lim && ncand < ENGRAM_ST_MAXCAND) {
while (p < lim && isspace((unsigned char)*p)) p++;
if (p >= lim) break;
const char* tk = p;
while (p < lim && !isspace((unsigned char)*p)) p++;
char buf[ENGRAM_ST_TOKLEN];
int slot = tokidx++;
if (!eg_st_clean_token(tk, (size_t)(p - tk), buf, sizeof(buf))) continue;
/* Tabu exclusion, applied here so the argmax runs over eligible
* terms only. tabu arrives pipe-delimited: "|t0|t1|t2|t3|". */
if (tabu && *tabu) {
char pat[ENGRAM_ST_TOKLEN + 2];
snprintf(pat, sizeof(pat), "|%s|", buf);
if (istr_contains(tabu, pat)) continue;
}
int dup = 0;
for (int i = 0; i < ncand; i++)
if (strcasecmp(cand[i], buf) == 0) { dup = 1; break; }
if (dup) continue;
memcpy(cand[ncand], buf, strlen(buf) + 1);
pos[ncand] = slot;
df[ncand] = 0;
ncand++;
}
if (ncand == 0) return el_wrap_str(el_strdup(""));
/* One pass over the store, all candidates at once. */
for (int64_t i = 0; i < g->node_count; i++) {
const char* lbl = g->nodes[i].label;
if (!lbl || !*lbl) continue;
for (int c = 0; c < ncand; c++)
if (eg_st_label_has_word(lbl, cand[c])) df[c]++;
}
/* Argmax over idf · position · casing, subject to the df band. */
int best = -1;
double best_score = 0.0;
for (int c = 0; c < ncand; c++) {
if (df[c] > max_df) continue;
if (df[c] < min_df) continue;
double idf = log(((double)g->node_count + 1.0) / ((double)df[c] + 1.0));
if (idf <= 0.0) continue;
double position = 1.0 / log(2.718281828459045 + (double)pos[c]);
double casing = eg_st_casing(cand[c]);
double score = idf * position * casing;
if (_eg_st_debug()) {
fprintf(stderr, " cand %-24s df=%-5lld idf=%.2f pos=%d p=%.2f "
"case=%.2f score=%.3f\n",
cand[c], (long long)df[c], idf, pos[c], position,
casing, score);
}
if (score > best_score) { best_score = score; best = c; }
}
if (best < 0) return el_wrap_str(el_strdup(""));
return el_wrap_str(el_strdup(cand[best]));
}
/* engram_embed_backfill — explicitly drive the lazy embedding backfill.
* (2026-07-25 self-review.) The per-activate backfill (8 nodes/call) only
* runs inside engram_activate, and on the authoritative HTTP store nothing
@@ -628,6 +628,13 @@ el_val_t engram_hebb_drain_json(el_val_t max);
/* Document frequency of a term across node labels — term-specificity signal
* for curiosity seed selection. (2026-08-03 self-review.) */
el_val_t engram_label_df(el_val_t term);
/* Best curiosity seed from one node: argmax over idf·position·casing across
* the candidate tokens of its label, falling back to its content when the
* label is a sentinel. Excludes pipe-delimited tabu terms during selection
* and gates candidates to the df band [min_df, max_df]. Returns "" when
* nothing qualifies. (2026-08-13 self-review.) */
el_val_t engram_salient_term(el_val_t node_id, el_val_t max_df,
el_val_t min_df, el_val_t tabu);
el_val_t engram_embed_backfill(el_val_t count);
el_val_t engram_list_layers_json(void);
/* Working memory introspection — count, mean weight, and top-N snapshot.