def setUpClass(cls):
super().setUpClass()
case = features.Feature("case", "nom", "gen", "dat", "acc", "abl")
num = features.Feature("num", "sg", "pl")
# Ignoring gender since gender is a property of the stem rather than the
# ending.
noun = features.Category(case, num)
nomsg = features.FeatureVector(noun, "case=nom", "num=sg")
stem = paradigms.make_byte_star_except_boundary()
slots = [(paradigms.suffix("+a", stem), nomsg),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=gen", "num=sg")),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=dat", "num=sg")),
(paradigms.suffix("+am", stem),
features.FeatureVector(noun, "case=acc", "num=sg")),
(paradigms.suffix("+ā", stem),
features.FeatureVector(noun, "case=abl", "num=sg")),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=nom", "num=pl")),
(paradigms.suffix("+ārum", stem),
features.FeatureVector(noun, "case=gen", "num=pl")),
(paradigms.suffix("+īs", stem),
features.FeatureVector(noun, "case=dat", "num=pl")),
(paradigms.suffix("+ās", stem),
features.FeatureVector(noun, "case=acc", "num=pl")),
(paradigms.suffix("+īs", stem),
features.FeatureVector(noun, "case=abl", "num=pl"))]
cls.paradigm = paradigms.Paradigm(
category=noun,
slots=slots,
lemma_feature_vector=nomsg,
stems=["aqu", "bell", "caus", "cicād", "mens", "naut", "puell"])
def setUpClass(cls):
super().setUpClass()
case = features.Feature("case", "nom", "gen", "dat", "acc", "abl")
number = features.Feature("num", "sg", "pl")
# Ignoring gender since gender is a property of the stem rather than the
# ending.
noun = features.Category(case, number)
nomsg = features.FeatureVector(noun, "case=nom", "num=sg")
stem = paradigms.make_byte_star_except_boundary()
slots = [(paradigms.suffix("+a", stem), nomsg),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=gen", "num=sg")),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=dat", "num=sg")),
(paradigms.suffix("+am", stem),
features.FeatureVector(noun, "case=acc", "num=sg")),
(paradigms.suffix("+ā", stem),
features.FeatureVector(noun, "case=abl", "num=sg")),
(paradigms.suffix("+ae", stem),
features.FeatureVector(noun, "case=nom", "num=pl")),
(paradigms.suffix("+ārum", stem),
features.FeatureVector(noun, "case=gen", "num=pl")),
(paradigms.suffix("+īs", stem),
features.FeatureVector(noun, "case=dat", "num=pl")),
(paradigms.suffix("+ās", stem),
features.FeatureVector(noun, "case=acc", "num=pl")),
(paradigms.suffix("+īs", stem),
features.FeatureVector(noun, "case=abl", "num=pl"))]
v = pynini.union("a", "i", "e", "o", "u")
c = pynini.union("b", "c", "d", "f", "g", "h", "l", "m", "n", "p", "q",
"r", "s", "t")
cls.paradigm = paradigms.Paradigm(category=noun,
slots=slots,
lemma_feature_vector=nomsg,
stems=[(v | c).closure(1)])
def setUpClass(cls):
super().setUpClass()
case = features.Feature("case", "nom", "gen", "dat", "acc", "abl")
number = features.Feature("num", "sg", "pl")
cls.noun = features.Category(case, number)
cls.noun = features.Category(case, number)
nomsg = features.FeatureVector(cls.noun, "case=nom", "num=sg")
stem = paradigms.make_byte_star_except_boundary()
slots = [(paradigms.suffix("+s", stem), nomsg),
(paradigms.suffix("+is", stem),
features.FeatureVector(cls.noun, "case=gen", "num=sg")),
(paradigms.suffix("+ī", stem),
features.FeatureVector(cls.noun, "case=dat", "num=sg")),
(paradigms.suffix("+em", stem),
features.FeatureVector(cls.noun, "case=acc", "num=sg")),
(paradigms.suffix("+e", stem),
features.FeatureVector(cls.noun, "case=abl", "num=sg")),
(paradigms.suffix("+ēs", stem),
features.FeatureVector(cls.noun, "case=nom", "num=pl")),
(paradigms.suffix("+um", stem),
features.FeatureVector(cls.noun, "case=gen", "num=pl")),
(paradigms.suffix("+ibus", stem),
features.FeatureVector(cls.noun, "case=dat", "num=pl")),
(paradigms.suffix("+ēs", stem),
features.FeatureVector(cls.noun, "case=acc", "num=pl")),
(paradigms.suffix("+ibus", stem),
features.FeatureVector(cls.noun, "case=abl", "num=pl"))]
velar = pynini.union("c", "ct", "g")
v = pynini.union("a", "i", "ī", "e", "ē", "u")
# Builds way more stem IDs than we need to show that that this is efficient.
stem_ids = paradigms.build_stem_ids(1000, 101000)
rules = [
# c, ct, g -> x in nominative singular. Note the spelling of "cs" as "x"
# in Latin breaks the segmentation. One might also consider representing
# this as "c+s".
pynini.cdrewrite(
pynini.cross(velar, "x") + stem_ids + pynini.cross("+s", "+"),
"", "", cls.noun.sigma_star),
# s -> r / V __ V.
pynini.cdrewrite(pynini.cross("s", "r"), "", stem_ids + "+" + v,
cls.noun.sigma_star),
# s+s -> s.
pynini.cdrewrite(pynini.cross("s", ""), "s" + stem_ids + "+", "",
cls.noun.sigma_star)
]
cls.paradigm = paradigms.Paradigm(
category=cls.noun,
slots=slots,
lemma_feature_vector=nomsg,
stems=["noct__1000__", "ōs__1001__", "pac__1002__", "rēg__1003__"],
rules=rules)
cls.delete_stem_ids = pynini.cdrewrite(pynutil.delete(stem_ids), "",
"", cls.noun.sigma_star)
def setUpClass(cls):
super().setUpClass()
case = features.Feature("case", "nom", "gen", "dat", "acc", "abl")
num = features.Feature("num", "sg", "pl")
# Ignoring gender since gender is a property of the stem rather than the
# ending.
noun = features.Category(case, num)
nomsg = features.FeatureVector(noun, "case=nom", "num=sg")
stem = paradigms.make_byte_star_except_boundary()
slots = [(paradigms.suffix("+s", stem), nomsg),
(paradigms.suffix("+is", stem),
features.FeatureVector(noun, "case=gen", "num=sg")),
(paradigms.suffix("+ī", stem),
features.FeatureVector(noun, "case=dat", "num=sg")),
(paradigms.suffix("+em", stem),
features.FeatureVector(noun, "case=acc", "num=sg")),
(paradigms.suffix("+e", stem),
features.FeatureVector(noun, "case=abl", "num=sg")),
(paradigms.suffix("+ēs", stem),
features.FeatureVector(noun, "case=nom", "num=pl")),
(paradigms.suffix("+um", stem),
features.FeatureVector(noun, "case=gen", "num=pl")),
(paradigms.suffix("+ibus", stem),
features.FeatureVector(noun, "case=dat", "num=pl")),
(paradigms.suffix("+ēs", stem),
features.FeatureVector(noun, "case=acc", "num=pl")),
(paradigms.suffix("+ibus", stem),
features.FeatureVector(noun, "case=abl", "num=pl"))]
velar = pynini.union("c", "ct", "g")
v = pynini.union("a", "i", "ī", "e", "ē", "u")
rules = [
# c, ct, g -> x in nominative singular. Note the spelling of "cs" as "x"
# in Latin breaks the segmentation. One might also consider representing
# this as "c+s".
pynini.cdrewrite(pynini.cross(velar + "+s", "x+"), "", "",
noun.sigma_star),
# Rhotacize /s/ prevocalically: a non-Gorman theory of this alternation.
pynini.cdrewrite(pynini.cross("s", "r"), "", "+" + v,
noun.sigma_star),
# s+s -> s.
pynini.cdrewrite(pynini.cross("s+s", "s+"), "", "",
noun.sigma_star)
]
cls.paradigm = paradigms.Paradigm(category=noun,
slots=slots,
lemma_feature_vector=nomsg,
stems=["noct", "ōs", "pac", "rēg"],
rules=rules)
def setUpClass(cls):
super().setUpClass()
focus = features.Feature("focus", "none", "actor")
verb = features.Category(focus)
none = features.FeatureVector(verb, "focus=none")
v = pynini.union("a", "e", "i", "o", "u")
c = pynini.union("b", "d", "f", "g", "h", "k", "l", "ly", "k", "m",
"n", "ng", "ny", "p", "r", "s", "t", "ts", "w", "y",
"z")
stem = paradigms.make_byte_star_except_boundary()
um = pynini.union(c.plus + pynutil.insert("+um+") + v + stem,
pynutil.insert("um+") + v + stem)
slots = [(stem, none),
(um, features.FeatureVector(verb, "focus=actor"))]
cls.paradigm = paradigms.Paradigm(
category=verb,
slots=slots,
lemma_feature_vector=none,
stems=["bilang", "ibig", "lipad", "kopya", "punta"])
def setUpClass(cls):
super().setUpClass()
# Not clear "aspect" is exactly the right concept.
aspect = features.Feature("aspect", "root", "dubitative", "gerundial",
"durative")
verb = features.Category(aspect)
root = features.FeatureVector(verb, "aspect=root")
stem = paradigms.make_byte_star_except_boundary()
# Naming these with short names for space reasons.
vowels = ("a", "i", "o", "u")
v = pynini.union(*vowels)
c = pynini.union("c", "m", "h", "l", "y", "k", "ʔ", "d", "n", "w", "t")
# First template: apply Procrustean transformation to CVCC^?.
cvcc = (c + v + pynutil.delete(v).ques + c + pynutil.delete(v).star +
c.ques).optimize()
# Second template: apply Procrustean transformation to CVCVVC^?. The
# CVCVVC^? case involves copying vowels, which is most easily achieved by
# iterating over the vowels in the construction.
cvcvvc = pynini.Fst()
for v in vowels:
cvcvvc.union(c + v + pynutil.delete(v).ques + c +
pynutil.delete(v).star + pynutil.insert(v + v) +
c.ques)
cvcvvc.optimize()
slots = [(stem, root),
(paradigms.suffix("+al", stem),
features.FeatureVector(verb, "aspect=dubitative")),
(paradigms.suffix("+inay", stem @ cvcc),
features.FeatureVector(verb, "aspect=gerundial")),
(paradigms.suffix("+ʔaa", stem @ cvcvvc),
features.FeatureVector(verb, "aspect=durative"))]
cls.paradigm = paradigms.Paradigm(
category=verb,
slots=slots,
lemma_feature_vector=root,
stems=["caw", "cuum", "hoyoo", "diiyl", "ʔilk", "hiwiit"])
def setUpClass(cls):
super().setUpClass()
case = features.Feature("case", "nom", "gen", "dat", "acc", "ins",
"prp")
num = features.Feature("num", "sg", "pl")
noun = features.Category(case, num)
stem = paradigms.make_byte_star_except_boundary()
nomsg = features.FeatureVector(noun, "case=nom", "num=sg")
# Accent A has stem stress.
slots_a = [
(stem, nomsg),
(paradigms.suffix("+a", stem),
features.FeatureVector(noun, "case=gen", "num=sg")),
(paradigms.suffix("+u", stem),
features.FeatureVector(noun, "case=dat", "num=sg")),
(stem, features.FeatureVector(noun, "case=acc", "num=sg")),
(paradigms.suffix("+om", stem),
features.FeatureVector(noun, "case=ins", "num=sg")),
(paradigms.suffix("+e", stem),
features.FeatureVector(noun, "case=prp", "num=sg")),
(paradigms.suffix("+y", stem),
features.FeatureVector(noun, "case=nom", "num=pl")),
(paradigms.suffix("+ov", stem),
features.FeatureVector(noun, "case=gen", "num=pl")),
(paradigms.suffix("+am", stem),
features.FeatureVector(noun, "case=dat", "num=pl")),
(paradigms.suffix("+y", stem),
features.FeatureVector(noun, "case=acc", "num=pl")),
(paradigms.suffix("+ami", stem),
features.FeatureVector(noun, "case=ins", "num=pl")),
(paradigms.suffix("+ax", stem),
features.FeatureVector(noun, "case=prp", "num=pl")),
]
cls.paradigm_a = paradigms.Paradigm(
category=noun,
name="hard stem masculine accent A",
slots=slots_a,
lemma_feature_vector=nomsg,
stems=["grádus", "žurnál"],
)
# Accent B has stress-shift to the desinence except in the nom./acc.
deaccentuation_map = pynini.string_map([
("á", "a"),
("é", "e"),
("í", "i"),
("ó", "o"),
("ú", "u"),
("ý", "y"),
])
acc_v = pynini.project(deaccentuation_map, "input")
deaccentuation = pynini.cdrewrite(deaccentuation_map, "",
noun.sigma_star + acc_v,
noun.sigma_star).optimize()
slots_b = [
(paradigms.suffix("+á", stem),
features.FeatureVector(noun, "case=gen", "num=sg")),
(paradigms.suffix("+ú", stem),
features.FeatureVector(noun, "case=dat", "num=sg")),
(paradigms.suffix("+óm", stem),
features.FeatureVector(noun, "case=ins", "num=sg")),
(paradigms.suffix("+é", stem),
features.FeatureVector(noun, "case=prp", "num=sg")),
(paradigms.suffix("+ý", stem),
features.FeatureVector(noun, "case=nom", "num=pl")),
(paradigms.suffix("+óv", stem),
features.FeatureVector(noun, "case=gen", "num=pl")),
(paradigms.suffix("+ám", stem),
features.FeatureVector(noun, "case=dat", "num=pl")),
(paradigms.suffix("+ý", stem),
features.FeatureVector(noun, "case=acc", "num=pl")),
(paradigms.suffix("+ámi", stem),
features.FeatureVector(noun, "case=ins", "num=pl")),
(paradigms.suffix("+áx", stem),
features.FeatureVector(noun, "case=prp", "num=pl")),
]
cls.paradigm_b = paradigms.Paradigm(
category=noun,
name="hard stem masculine accent B",
slots=slots_b,
parent_paradigm=cls.paradigm_a,
lemma_feature_vector=nomsg,
stems=["górb", "stól"],
rules=[deaccentuation])