A field guide to a constructed language

luryt

A language you can compute.

Luryt is a constructed language built like an instrument: small, regular, and fully inspectable. It has twenty consonants, six vowels, and a short list of rules — and from those, every word is assembled, and any word can be taken apart again. Nothing is irregular. Nothing has to be memorized that could instead be computed.

This page is the whole language as it stands today. By the end you will be able to read simple sentences, build words of your own, and — because the language is honest about its own machinery — check your work with the parser at the bottom.

Meaning, assembled

Small modules click together; each position contributes one inspectable part of the result.

One word, whole system

Prefix · ka

A grammar syllable used inside a word. ka is from the K‑family (“configuration”) and means as a group.

Root · piri

Every vocabulary root has the shape consonant‑vowel‑consonant‑vowel. Its two vowels are coordinates: first vowel i = the Person domain, second vowel i = the Individual aspect. Result: person.

Ending · m

The final consonant declares what kind of word this is. ‑m makes an entity — a thing, a generic noun.

ka + piri + mkapirim“a group of people; a crowd, a community.”

Say it /ka.ˈpi.rim/ — stress always lands on the second‑to‑last syllable, here pi.

The language has no official name yet. This guide calls it luryt, following the language’s own grammar: lury “language, system” + ‑t “this specific one” — the language.

RULE 1

Every word wears its shape

Most grammar words are two-letter particles. Content words are longer and always end in one of six consonants; the fixed atom num is the sole longer grammar word. With that one listed exception, you can segment any sentence by eye.

RULE 2

Vowels are coordinates

In a vocabulary root, the first vowel names a domain of reality and the second names an aspect of it. Meaning is written into the spelling.

RULE 3

One consonant, six vowels, one scale

Grammar words come in families: one consonant crossed with the six vowels in fixed order i y e a o u, sweeping a scale from one extreme to the other.

Chapter 01

Sounds

Twenty consonants, six vowels, one letter per sound — and the order of the alphabet is itself part of the grammar.

Luryt is written in plain Latin letters, and the spelling is perfectly phonetic: each letter always makes the same sound. A handful of letters do not sound the way English trained you to expect — they’re flagged below.

The alphabet has a fixed canonical order, and the language leans on it constantly: it numbers the consonants for the counting system (chapter 06) and orders the vowels into scales (chapter 05). It is worth absorbing early:

p b m f v t d n q s z l c w x j k g r h · i y e a o u

A deliberately small sound cabinet

Twenty consonants sit in five countable banks; the six larger resonators are the vowels that carry the language’s grammar.

  1. 20 consonantsone letter per sound
  2. 6 vowelsone fixed grammatical order

Consonants

Vowels

Six vowels, all “pure” — no gliding, as in Spanish or Japanese. Because vowels carry so much meaning in Luryt, this guide gives each one a fixed color and uses it wherever a vowel is doing grammatical work.

Syllables & stress

Every syllable is a consonant plus a vowel, optionally closed by a final consonant — ka, rim. No syllable starts with a vowel, and consonants never cluster. The result is a steady, drum-like rhythm: ka·pi·rim, zi·fe·n.

Stress is automatic: always the first syllable of the root — which, given the word template, is always the second-to-last syllable. pi·rimpirim; ka·pi·rim → kapirim. Free particles are little words with their own stress, so ka pirim (“people, as a group”) and kapirim (“a crowd”) sound different.


Chapter 02

Two kinds of words

Grammar words are normally two letters; num is the sole longer fixed atom. Vocabulary words are built from a four-letter root, with slots before and after.

Everything you will ever read in Luryt is one of two things:

1 · Particles. Little two-letter words — consonant plus vowel — that do the grammar: pronouns, tense, negation, quantifiers, question words. ji “I”, te “now”, na “not”. They never take prefixes or endings; they are atoms. (One longer fixed word exists: num, the numeral marker — chapter 06.)

2 · Content words. The open-ended vocabulary: things, actions, qualities. Every content word is built on exactly one four-letter root (consonant-vowel-consonant-vowel), wears exactly one final consonant as its ending, and may stack two-letter prefixes in front:

A word has only one legal cut

The large center chassis is always the root. Small modules can stack before it; one final peg declares the result’s grammatical kind.

  1. (cv)*optional prefixes
  2. cvcvexactly one root
  3. m · t · n · s · l · rpick one ending
cvprefixes · optional
cv₁cv₂root · exactly one
m t n s l rending · pick one

Only the six consonants m t n s l r may end a content word — which is exactly what makes words machine-readable.

Reading a word is an algorithm

Because of these shapes, any word segments itself, with no dictionary needed:

First check the list of longer fixed atoms — currently just num. kapirim is not one, so parse it as a content word. Peel the last letter — m, a legal ending. The four letters before it — piri — must be the root. Whatever is left — ka — must be prefixes, read off two letters at a time. Done, and there was never any other way to cut it.

One convention to know: writing like piri‑m with a hyphen is just this guide making the seams visible. On the page, Luryt writes each word solid: pirim.


Chapter 03

The six endings

Where English has “speak / speech / spoken / speaker”, Luryt has one root and six regular endings.

The final consonant tells you what kind of thing a word refers to — noun, verb, adjective and so on, except more precise. Linguists would call it the word’s head; you can think of it as the word declaring its own part of speech:

EndingKindWhat it makes
‑mEntitya descriptive thing — “an X, some X” (no particular one)
‑tReferentialan identifiable thing or set — “the X (we know which)”
‑nEventa verb — “to X, X happens”
‑sPropertyan adjective — “X-like, having X”
‑lManneran adverb — “in an X way, X-ly”
‑rRelationala link — “of X, X’s, related by X”
One root · six grammatical lenses

The ending changes how a root enters a sentence; the root’s semantic neighborhood stays intact.

  1. ‑mentity
  2. ‑treferential
  3. ‑nevent
  4. ‑sproperty
  5. ‑lmanner
  6. ‑rrelational

Every root accepts all six. Take zife, the root for speech, and turn the dial (glosses are one natural reading of each form):

zifeman utterance; a piece of speech
zifetthe utterance (the identifiable one — one or several)
zifento speak
zifestalkative; speech-like
zifelverbally; in a speaking manner
ziferof speech; speech-related

Chapter 04

The meaning grid

A root’s two vowels are map coordinates: domain × aspect. Thirty-six cells cover, roughly, everything.

Here is the language’s boldest idea. In a root cv₁cv₂, the consonants are free — they just make roots distinguishable — but the two vowels are chosen from two fixed menus:

The first vowel picks a domain — which slice of reality the root lives in:

Six domains · six slices of reality

The first root vowel chooses one of these rows. The scene colors follow the vowel key used throughout this guide.

  1. iPersonbody, mind, experience
  2. ySocietygroups, institutions, culture
  3. eLifeanimals, plants, ecosystems
  4. aPhysicalmatter, space, energy, weather
  5. oArtefacttools, machines, buildings
  6. uAbstractideas, language, logic

The second vowel picks an aspect — what about that domain the root is pointing at:

iIndividualthe basic things and actors
yConfigparts, wholes, groups, layouts, structures
eProcessactivities, changes, doing
aStatestable conditions and qualities
oRelationlinks and roles between things
uQuantitymeasures, magnitudes, degrees
The second vowel changes the lens

The same basic token is viewed as a unit, an arrangement, a process, a condition, a link, or a measurable amount.

  1. iIndividualthings and actors
  2. yConfigparts and layouts
  3. eProcesschange and doing
  4. aStatestable conditions
  5. oRelationlinks and roles
  6. uQuantitymeasures and degrees

So before you have ever seen a word, its vowels have told you its neighborhood. pase must be a physical process (it means “to move, flow”); byru must be a social quantity (“wealth, money”).

The language currently defines one root per cell — 36 core roots. Click any cell:

Meaning is an address

Choose one domain row and one aspect column. Their intersection is the neighborhood in which a root lives.

Rows = first vowel (domain) · columns = second vowel (aspect). The vocabulary will grow beyond these 36, but every future root will still sit in one of these cells.


Chapter 05

Particles: fifteen families

Particle families use two-letter words in matched sets of six. The fixed atom num sits outside those families.

Here is Rule 3 in action. A particle family takes one consonant and crosses it with the six vowels in canonical orderi y e a o u — and the vowel order always traces a meaningful progression. Learn the T-family’s consonant and you already know all six time words:

tilong ago
tyrecently
tenow
tasoon
tosomeday
tutimeless

One consonant, one scale: past → future → outside time.

The T-family sweeps across time

Each vowel advances one station: remote past, recent past, the present, near future, distant future, then outside the timeline.

  1. tilong ago
  2. tyrecently
  3. tenow
  4. tasoon
  5. tosomeday
  6. tutimeless

One family you can see

The K-family changes how units are arranged. The vowels sweep from one singled-out unit, through increasingly large groups, to many units spread apart:

K-family · configuration made visible

Put a free K-form before the complete noun phrase it configures, or attach it to a root as a prefix: ka pirim “people as a group” · kapirim “a crowd.”

  1. kisingled
  2. kypair
  3. kefew
  4. kagroup
  5. komass
  6. kuscattered

Fifteen families are defined so far. Five consonants (b v z l x) remain reserved — three of them already earmarked (b mood, x subordination, z reflexive & discourse reference). Here they all are, grouped by what they do.


Chapter 06

Numbers

Every nonnegative integer is one marked run of compact base-100 syllable blocks.

The counting system reuses the canonical orders from chapter 01. Number the twenty consonants 0–19, and the first five vowels 0–4 (u sits this one out). Each value from 0 to 99 therefore becomes one syllable:

block value = 5 × consonant + vowel

So 27 = 5 × 5 + 2 = consonant №5 (t) + vowel №2 (e) → te. And 99 = 5 × 19 + 4 → ho. The whole hundred, at a glance:

A hundred values from two small choices

Pick one of twenty consonant positions, then one of five vowel positions. The pair is a single pronounceable syllable.

  1. 20 consonantsvalues 0–19
  2. 5 vowelsvalues 0–4; u sits out

Seventy-five of the hundred number syllables also name defined particles; the remaining twenty-five are reserved but currently unallocated — te is both “now” and 27 — so counting is announced by the fixed marker num (a clipped form of nunu “number”): num te = 27, num pi = 0, num pa pirim pasen “three people go”. A bare syllable like pi stays a particle (“just starting to”).

For 100 and above, put two or more of those blocks after one num and read them left to right as base-100 places: num py pi = 100, num py py = 101, num py pi pi = 10,000, and num me do ly jy = 12,345,678. A multi-block numeral cannot start with pi, but zero blocks stay inside or at the end. There is no maximum number of blocks.

Inside an entity noun phrase, configuration, quantifier, and pointer all come before the exact number; relational words and then property words come after it: [k] [q] [d] [num cv+] [relation‑r] [property‑s] noun. For example, dy num pa pirit means “these three people” and dy num pa vosas koryt “these three broken houses.” Keeping every NP particle before num and using a content word — relation, property, or noun — to close the CV run makes both numeral boundaries visible.

Try it


Chapter 07

Sentences

Canonical event clauses put grammar particles first, roles after noun phrases, an optional manner before the event tail, and the event word last. Other predicate types have patterns below.

A pivoted event clause has a canonical track. Up front, in a fixed order, come the little operators — a question word with any questioned role, then time, phase, frequency, degree, and polarity — followed by an optional unmarked pivot, any other role-marked or spatial phrases, one optional ‑l manner, optional narrow na, and the event word at the end:

A canonical event clause runs on a track

Optional operators and pivot come first. Participants and spatial frames precede an optional manner and narrow negation; the event module closes the clause.

  1. [w (+r)] [t] [p] [h] [m] [n]optional operators
  2. [pivot] · NP + roleparticipants
  3. [manner‑l] [na]event tail modifiers
  4. event‑ncloses event clause
w– (+ r–)question + role
t–time
p–phase
h–frequency
m–degree
n–polarity
pivotunmarked pronoun / NP
NP + role / spaceother frames
manner‑lone event manner
nanarrow polarity
event‑nlast

A questioned non-pivot keeps its role directly after the W-word. The pivot may be omitted when every participant is role-marked. Manner and narrow na occupy the fixed tail immediately before the event. The smallest pivoted event clause is two words.

Start minimal, then add dials

jiI
zifen.speak
“I speak.”
tenow
py‑ing
jiI
zifen.speak
“I am speaking right now.” — time, then phase, from the T- and P-families.
tenow
py‑ing
nanot
jiI
zifen.speak
“Right now, I am not speaking.” — polarity slots in just before the pivot.

Operators bind everything to their right, so where you put one is its scope. Moving na past a quantifier flips the meaning:

nanot
qo pirimall people
pasen.go
“Not all people go.”
qo pirimall people
nanot
pasen.go
“All the people don’t go — none of them go.”
Position changes the reach of “not”

On the left, negation takes scope over “all,” so some may still pass. On the right, “all” is already established when negation stops the action.

  1. na · qo pirim · pasennot all people go
  2. qo pirim · na · pasenall people do not go

Put one event manner next to the event

An optional root‑l manner comes after the pivot and every role-marked or spatial phrase, then before narrow na and the final root‑n event. It modifies that event, and only one manner fills the slot. The front operators keep their established order and rightward scope.

jiI
guselthoughtfully · manner
zifen.speak · event
“I speak thoughtfully.”
jiI · pivot
koryt rehouse · object
tokim ratool · instrument
guselthoughtfully · manner
gosen.build · event
“I build the house thoughtfully, with a tool.” — all participant frames close before the manner slot.
jiI
si di koryt roinside this house · setting
guselthoughtfully · manner
zifen.speak · event
“I speak thoughtfully inside this house.”
jiI
guselmanner slot
nanarrow not
zifen.speak · event
The narrow-polarity tail is always manner‑l · na · event‑n.

Noun phrases: configuration, quantifier, pointer, exact number, relation, property, noun

Inside a noun phrase, an optional free K-family configuration comes first, then the quantifier (Q-family), demonstrative (D-family), optional exact number, optional relational words, optional property words, and noun: [k] [q] [d] [num cv+] [relation‑r] [property‑s] noun. K configures the participants selected by everything that follows it; Q can quantify the following pointer-and-cardinality frame, and only one free K fills the outer slot.

qi pirimfew people
qy pirimsome person
qa pirimmost people
qe da fenitsome of those animals
qo du korytall those houses (elsewhere)
Pronouns (ji, jy, je…) stand anywhere a noun phrase can. Demonstratives point at identifiable things, so they normally pair with the ‑t ending.
ka qa pirimmost people · together
qa kapirimmost crowds
ky qe da fenitsome of those animals · paired
qe da kyfenitsome of those animal pairs
A spaced K-form scopes over the selected participants. A glued k‑ prefix builds the noun first, so Q and D select grouped entities.
dy num pa piritthese three people
qe da num bi fenitsome of those five animals
ka num ka pirim83 people · together
num pa kapirimthree crowds
num py pi pirim100 people
num makes its following run of numeric CVs one base-100 cardinal, even when those CVs are particles elsewhere. All K/Q/D particles come first; the first content word — relation, property, or noun — ends the run, and a bound K remains inside that noun.
zifer rufima speech-related idea
di zifer rufitthis speech-related idea
zifer luryr rufiman idea related to speech and language
num bi koryr vosas tokimfive broken, house-related tools
A bare relation‑r word before a noun restricts it by a generic, context-supplied relation. Stack relational words in either order, but put the complete relation block before every property‑s word. K, Q, D, and the exact number scope over both kinds of restriction. This construction adds no explicit possessor or relation direction: zifer rufim means “a speech-related idea,” not a new possessive construction.
vosas koryma broken house
di vosas korytthis broken house
qa vosas korymmost broken houses
dy num pa vosas korytthese three broken houses
A property‑s word before the noun restricts it — it says which ones. The same word at the end of a clause predicates — it says how it is: vosas korym “a broken house” vs korym vosas. “a house is broken.” Stack several to intersect: di hatas vosas tokit “this hot, broken tool,” in either order. K, Q, D, and the exact number all scope over the restricted noun: qa vosas korym quantifies over broken houses, not houses.

Who did what to whom: role markers

Instead of case endings, Luryt puts a small R-family particle after a noun phrase to mark its role — agent ri, recipient ry, object re, instrument ra, location ro, path ru. One argument — the pivot, usually the doer — may stay unmarked in the pivot slot; every other argument carries its role:

Roles travel after their noun phrases

The builder can be the unmarked pivot. The house is tagged as what is affected; the tool is tagged as the instrument.

  1. jipivot · unmarked
  2. koryt rehouse · object
  3. tokim ratool · instrument
jiI
koryt rethe house · object
tokim ratool · with
gosen.build
“I build the house with a tool.”
tyrecently
di koryt rethis house · object
gosen.build
“This house was built recently.” — mark every argument and leave the doer out: agent omission without any passive voice.

Space: no verb “to be” required

The S-family places a figure relative to a ground — si inside, sy on, se beside, sa around, so outside, su among. For plain location, that’s the whole sentence:

One figure · six relations to its ground

The S-family keeps the figure constant and changes its placement. The same relation can describe a static scene or trace a path.

  1. siinside
  2. syon
  3. sebeside
  4. saaround
  5. sooutside
  6. suamong

That relation can then sit at three different levels in a clause:

Space works at three levels

The same scene becomes a location, an event setting, or an oriented path depending on how the spatial phrase is closed.

  1. di pirit · si · di korytstatic location
  2. ji · si di koryt ro · zifenevent setting
  3. ji · go si di koryt ru · pasenoriented path
di piritthis person
siinside
di koryt.this house
“This person is in this house.”
jiI
si di korytinside this house
roat
zifen.speak
“I speak inside this house.” — for an event at a place, the spatial phrase is closed by ro (location role).
jiI
saaround
sarymregion
pasen.move
“I wander around the region.” — before a motion verb, an S-phrase traces a path without choosing an orientation.
jiI
goarriving
siinside
di korytthis house
rupath
pasen.move
“I go into this house.” — a G-family word orients the path (go = endpoint), and ru closes the whole path phrase. Swap in gi (origin) and you exit instead: ji gi si di koryt ru pasen — “I come out of this house.”

Questions

Content questions start with a W-family word. If that word asks for the event pivot, it stands alone; if it asks for another participant or the event setting, its R-family role follows immediately. Yes/no questions are just intonation. Answers can be a single polarity particle:

wowho? · pivot
zifen?speak
“Who is speaking?”
wawhat?
repatient
jiI · pivot
nifen?eat
“What do I eat?” — the questioned thing keeps its patient role.
wewhere?
rolocation
johe/she/it · pivot
nifen?eat
“Where does he/she eat?” — event settings take the location role.
wu jo zifen?how does she speak?
jo gusel zifen.she speaks thoughtfully
A declarative event-manner slot supplies a direct answer to wu.
jo zifen?does she speak?
ni.yes
na.no
no.on the contrary
nu.never / absolutely not

Describe a subject with one property

A simple property clause needs no word for “be.” Put one pronoun or complete noun phrase first and one root‑s property last. Optionally place one M-family degree immediately before it: subject · [m] · property‑s. M grades only that final property, which applies to the whole subject including its K, Q, D, exact-number, and modifier material.

jiI · subject
gusas.knowledgeable · property
“I am knowledgeable.” — there is no copula between subject and property.
di korytthis house · subject
vosas.broken · property
“This house is broken.”
di korytthis house · subject
movery · degree
hatas.hot · property
“This house is very hot.” Use mi my me ma mo mu for the existing minimal-to-excessive degree scale; only one M-word occupies this local slot.
qa dy num pa korytmost of these three houses
vosas.broken · property
The complete Q+D+NUM noun phrase is one subject; the final ‑s word predicates brokenness of it.
di tokit vosas?is this tool broken?
ni.yes
The ordinary question intonation works on a property clause too.

Degree and polarity keep fixed local order. One optional M-word sits directly before the property. Put one of ni ny ne na no nu before the whole clause for broad polarity: [n] · subject · [m] · property‑s. For narrow negation, put only na after the subject and before optional M: subject · na · [m] · property‑s. These are alternative positions; do not combine or stack them. The scope order is front N, complete subject, local na, M degree, property.

nanot · broad polarity
qo dy korytall these houses · subject
vosas.broken · property
“Not all these houses are broken.” Broad na scopes over the whole quantified proposition.
qo dy korytall these houses · subject
nanot · narrow polarity
vosas.broken · property
“All these houses are not broken — none is broken.” The complete subject scopes over local na.
na qo dy koryt mo hatas.not all are very hot
qo dy koryt na mo hatas.all are not very hot
Front na scopes over the quantified proposition; local na follows the complete subject and scopes over mo hatas.
na di tokit vosas?isn’t this tool broken?
ni.indeed · affirm that proposition
Question intonation and the existing short answers work on a polarity-marked property clause too.

The clause still licenses one property predicate and at most one local M-word. Multiple property predicates and time, phase, or frequency operators remain outside the specified grammar. M is not licensed inside a noun phrase or comparison. A property word inside a noun phrase instead restricts the noun: di vosas koryt hatas. asserts only hotness, of this broken house. Property polarity and local M do not automatically extend to static-location clauses; a comparison takes one front polarity particle of its own (see “Comparing things”).

Comparing things

Comparison uses the C-family before a property word, with re marking the standard (“than …”):

jiI
camore
gusasknowledgeable
de piritthat person
re.than
“I am more knowledgeable than that person.” Swap ca for ce “as … as”, cy “less”, or drop the standard and say ji co gusas — “I’m the most knowledgeable” — or ji ci gusas, the least. One front polarity particle scopes over a whole comparison, which also builds the bounds: na ji cy gusas de pirit re — “I’m at least as knowledgeable as that person” (not less), and na … ca gives “at most.”
Ask for a missing value · compare a degree

A questioned pivot is bare; any other questioned event role follows the W-word. C-family words place a property on a scale from less through equal to more.

  1. wo · zifen? / wa · re · ji · nifen?pivot / patient question
  2. ci · cy · ce · ca · coleast · less · equal · more · most

Linking: and, or, but

The F-family links two of the same kind — two noun phrases or two full clauses — with one relation each: fi “and”, fy “and then”, fe “or”, fa “but”, fo “so”, fu “or else”. Each conjunct keeps its own particles; a role marker after a linked pair marks the whole pair; chains read left to right.

jiI
koryt fi tokimthe house and the tool
repatient · marks the pair
gosen.build · event
“I build the house and the tool” — one event, one role for the linked pair.
pirim fe fenim pasen.a person or an animal goes
di koryt vosas fo ji gosen.the house is broken, so I build
je zifen fu ji pasen.you speak, or else I go
Between clauses, each side is a complete clause and keeps its own operators: te ji zifen fi to je zifen. “Now I speak, and later you will speak.” An F-word may also open a sentence as a discourse link: fo ji gosen. “So, I build.” — put the cause first and use fo until “because”-clauses exist.
tokim fi zifer rufim pasen.a tool and a speech-related idea move
A relation‑r word can begin the noun phrase after an F-link, so low attachment still recognizes the two complete noun phrases.
na qy pirim fe qy fenim pasen.neither a person nor an animal goes
Negative linking is composed, not memorized: broad na over an fe-pair means “neither … nor.” When an F-word sits between two noun-phrase words it links the noun phrases (low attachment); to start a new clause after one that ends in a noun, open the next clause with an operator or start a new sentence.

Same particle, two altitudes

Remember ka from the very top? K-family words work at two levels: as a free particle before a noun phrase they configure its selected participants; glued on as a prefix they build a new word. This particle-and-prefix duality is a design principle the language intends to extend to other families later:

ka pirim pasenas-a-group · people · move
“People travel as a group” — ka configures the participant phrase.
kapirim pasena-crowd · moves
“A crowd travels” — ka‑ built a noun meaning crowd.

Chapter 08

Read your first sentences

Everything below uses only what you’ve seen. Translate in your head, then check.


Chapter 09

Take a word apart

The segmentation algorithm from chapter 02, running live. Type anything.

The parser follows the seams

It reads from the outside in: recognize a legal ending, reserve the four cells before it for the root, then split the remainder into two-cell prefixes.

  1. 1 · endingpeel the final consonant
  2. 2 · roottake the previous four letters
  3. 3 · prefixesread what remains in pairs

Chapter 10

Quick reference

The whole language on a card — and an honest note about where the map ends.

Word shapes

  • Particle-family form: cv — two letters, atomic
  • Longer fixed atom: num — numeral marker
  • Content: (cv)* + cvcv + m/t/n/s/l/r
  • Stress: second-to-last syllable
  • Number block 0–99: cv, value = 5·C + V
  • Cardinal: num cv+, blocks read left-to-right in base 100

Endings

  • ‑m a thing · ‑t the thing · ‑n to do
  • ‑s -like · ‑l -ly · ‑r of

Root vowels

  • 1st: i person · y society · e life · a physical · o artefact · u abstract
  • 2nd: i individual · y config · e process · a state · o relation · u quantity

Particle families

    Canonical event-clause order

    • [w (+r)] [t] [p] [h] [m] [n]
    • [pivot] · NPs+role/space · [manner‑l] · [na] · event‑n
    • NP: [k] [q] [d] [num cv+] [relation‑r] [property‑s] noun · roles follow the complete NP
    • Property: [n] · subject · [m] · property‑s or subject · [na] · [m] · property‑s · one polarity position · one local degree · no copula
    • Compare: A ca PROP‑s B re “A is more PROP than B”
    • Link: X f‑ Y, same kind only (two NPs or two clauses) · fi fy fe fa fo fu = and · then · or · but · so · or‑else
    • Path: figure g (s) place ru verb
    • Operators scope over what follows them

    Edges of the map

    Luryt is a live project, and its spec is candid about what is settled and what isn’t. Deliberately still open:

    • More prefix families — only K- (grouping) is fully defined as a prefix so far; time, voice and valence prefixes are anticipated.
    • The earmarked families — b mood, x subordination, z reflexive & discourse reference — have jobs but no forms yet.
    • Subordination — no “because / if / that”-clauses yet; the F-family links, but does not embed. Correlatives (“both … and”), ellipsis, and configuration over a whole coordination are also open.
    • The lexicon beyond the 36 core roots (one extra root, nife “eat”, floats around examples provisionally).
    • Full syntax for complex sentences: subordination, focus, relative clauses, and extraction from inside static-location or path-ground phrases.
    • Direct event-level use and ordering of free K-family modifiers relative to the canonical operator track. NP-internal K already precedes Q, D, and the exact number.
    • Time, phase, and frequency placement and scope over simple property clauses. The unmarked pattern, property-local M degree, broad N-family polarity, and narrow na polarity are fixed.
    • Non-event syntax of manner -l content words, and uses of relational -r outside the entity-NP restriction block — explicit possessors, relational predicates, and relation direction.
    • Negative numbers, fractions, decimals, and ordinals.

    Which is to say: if you learn this page, you know the entire language — for now.