Jump to content

Dozenal Primer Inscription

From Yusupov's House
The four examples render the successor chain 1→2, 2→3, 3→4, 4→5, demonstrating that adding the simplex unit “ONE” advances X to its next value while preserving clause structure. Codes follow Kristiansen’s signary; glyph labels (“ONE”, “TWO”, …) are semantic glosses for expository clarity and do not assume phonetic values.

The Dozenal Primer Inscription is the working name for a long geometric-glyph text proposed to encode a compact dozenal (base-12) arithmetic register. The inscription is transcribed with a neutral code of sign classes (for example A01, B04, C03 and a slash-like divider P01) that mirrors the notation first used to document the shorter Scapula Glyph Inscription (KS-01). In 2024, a study argued from distributional evidence—rather than from phonetic values or a bilingual—that the text exhibits an equation-like clause structure with bound punctuation, a stereotyped medial “equals” spine, operator clusters, and a productive ×12 derivational suffix. On that account, the inscription functions as a brief primer for base-12 arithmetic, extending to compounds traditionally glossed as dozen (12×), gross (12²) and a tentative greatgross (12³).[1]

The sign code used to publish the Dozenal Primer Inscription derives from earlier internal documentation of KS-01, which described short ruled lines, rectilinear glyphs built from a limited set of straight strokes, and visually coherent families (corners, boxes, triangles, barred posts) separated by a consistent slash divider. That memorandum cautioned that widely circulated images likely trace back to a single original drawing, and it advocated raking-light or RTI imaging before firm claims about medium, date or technique.[2]

Overview

The Dozenal Primer Inscription is published only as a transcription in the Kristiansen coding scheme and as line drawings; no phonetic values or language affiliation are claimed in the 2024 analysis. Instead, the argument proceeds by methods common in Corpus linguistics and quantitative Epigraphy: (1) positional bias over initial/medial/final slots; (2) bigram inventories and pointwise mutual information to find unusually tight collocations; and (3) tests for morphological productivity at the right edge of clauses. In this model, the slash P01 behaves as bound punctuation confined to clause ends; an invariant 4-sign sequence occupies the medial spine and functions like an equals sign; a compact cluster acts as a binary addition operator; and a fixed four-sign bundle at the right edge derives “×12” forms. Complement constructions such as “11+1,” “10+2,” and “6+6” converge on the same dozen-marked targets, diagnosing 12 as the privileged base. A small number of clauses are read as scaling the same patterns to 12² and, by extension, to 12³.[1]

The approach is intentionally agnostic about Language identification and about whether the glyphs are ultimately logographic, syllabic or something else. The claim is structural: that a small and rigid clause template—bound final punctuation, a fixed medial spine, operator clusters with narrow distribution, and a selective right-edge derivation—fits a didactic number register more parsimoniously than it fits a segmental writing system without additional evidence.[1] Proponents note that such “equation-like” formatting is well attested in practice texts and primers across historical Numeral systems, whereas critics point out that non-linguistic genres (lists, catalogues, tallies) can sometimes mimic grammatical structure.

Glyph inventory and distribution

A compact distribution over the transcribed sign set (Kristiansen codes) is given below. Counts refer to the Dozenal Primer Inscription as published in line drawings/transcription; code labels are descriptive only and do not imply phonetic values.[1][2]

Code Glyph Name Freq Init Med Final
A01 A01 TRI-OPEN 5 2 3
A02 A02 TRI-BAR 17 17
A03 A03 TRI-DOT 4 4
A05 A05 TRI-CLOSED-BAR 3 3
B01 B01 BOX 6 4 2
B02 B02 BOX-DOT 5 5
B04 B04 BOX-DIAG-SW-NE 5 3 2
C01 C01 CORNER-NW 28 14 14
C02 C02 CORNER-SE 27 27
C03 C03 CORNER-SE-DOT 6 1 5
C04 C04 CORNER-NW-DIAG 3 3
C05 C05 CORNER-SE-DIAG 16 16
C06 C06 CORNER-NW-DIAG-DOT 7 7
H01 H01 DOUBLE-POST-CONNECTED 15 15
H02 H02 POST-DOUBLE-BAR 8 6 2
H03 H03 DOUBLE-POST-BAR 14 14
L01 L01 LINE-VERT 24 8 16
M01 M01 COMB-2-N 20 3 16 1
M02 M02 COMB-2-W 52 52
M03 M03 COMB-3-E 40 40
P01 P01 SLASH 25 25
S02 S02 MEANDER-2-HOLLOW 9 3 6
S03 S03 MEANDER-3 39 37 2
T01 T01 TEE-UP 7 4 3
T02 T02 TEE-LEFT 30 23 7
T03 T03 UPSIDE-DOWN-TEE 38 19 19


Proposed numeric forms and functional sequences

Codes follow Kristiansen’s signary. Values are glosses for exposition only.[1]. Coding scheme per Kristiansen.[2]

Function (gloss) Codes (Kristiansen) Glyph sequence (icons) Notes
ZERO B02-M03-L01-B05-S03 B02M03L01B05S03
ONE C01-S03-C03-T03 C01S03C03T03
TWO C02-M02-H01-M01-T01 C02M02H01M01T01
THREE B01-M02-T02-A03-H02 B01M02T02A03H02
FOUR C05-M03-S02-C06-T02 C05M03S02C06T02
FIVE C01-M03-T02 C01M03T02
SIX C05-B04-L01 C05B04L01
SEVEN M01-L01-A01-T03 M01L01A01T03
EIGHT B02-M03-S03 B02M03S03
NINE C05-M02-H02-A05-S02 C05M02H02A05S02
TEN C05-M01-T02-M02-L01 C05M01T02M02L01
ELEVEN A01-H01-B01 A01H01B01
TWELVE C01-M02-H02-B04 C01M02H02B04
EQUALS / clause spine C02–M03–H03–C01 C02M03H03C01 Invariant medial sequence dividing left expression from result; reported as present in every equation clause. [1]
PLUS (binary addition) A02–L01 A02L01 High-PMI operator cluster used in successor and complement constructions. [1]
MINUS (subtraction) C05–M02–S02 C05M02S02 Distinct collocational profile mirroring the syntax of the addition lines. [1]
ONE (simplex unit) C01–S03–C03–T03 C01S03C03T03 Recurrent bundle functioning as the unit “one”; used to advance the successor chain. [1]
PUNCTUATION (bound period) P01 (final only) P01 Clause-final slash behaving as bound punctuation; not attested internally. [1]
×12 derivation (“dozen”) –C01–M02–H02–B04 (right edge) C01M02H02B04 Contiguous right-edge 4-gram treated as a derivational suffix forming multiples of twelve; composes with stems. [1]

Scholarly discussion

Because the archaeological context of the longer inscription has not been publicly detailed, reception has been cautious. Supporters of the dozenal reading emphasise the conjunction of multiple independent diagnostics (final-only punctuation, a medial spine with near-zero variance, a selective right-edge four-gram, and complementary sums converging on the same target), arguing that chance alignment across all four is unlikely. Skeptics reply that without provenance, additional exemplars, or phonetic control, an arithmetic interpretation remains provisional and vulnerable to genre effects. Both sides agree on clear tests that could confirm or weaken the proposal: finding the slash P01 in non-final position; observing the putative ×12 four-gram away from clause edges; or documenting clauses that disrupt the medial spine while still behaving “arithmetically.”[1]

Nomenclature

“Dozenal Primer Inscription” is a descriptive convenience used in secondary discussion and is not a claim about ancient self-designation. Alternative labels in circulation include “Dozenal arithmetic inscription,” “Twelve-base arithmetic inscription,” and “Kristiansen-coded arithmetic inscription.” For clarity and disambiguation within encyclopedic contexts, the present title foregrounds the proposed function (primer) and base (dozenal).

Relation to the Scapula Glyph Inscription

The Scapula Glyph Inscription (KS-01) is much shorter but provided the stable sign labels and visual classes used in the transcription of the Dozenal Primer Inscription. KS-01 shows bipartite lines and a group-final slash divider consistent with the clause architecture proposed for the longer text, although by itself the scapula piece is too brief to display a full base-12 progression. Early notes on KS-01 also highlighted the need for direct examination and higher-quality imaging before drawing conclusions about material or chronology.[2]

See also

References

  1. 1.00 1.01 1.02 1.03 1.04 1.05 1.06 1.07 1.08 1.09 1.10 1.11 Ginevra Rubergskier, “A dozenal primer hidden in plain sight: decoding arithmetic from a corpus of tagged tokens,” Language Codes 6 (2024): 820–824.
  2. 2.0 2.1 2.2 2.3 Jan-Tage Kristiansen, “Twin renderings, single template: a ruled signary on a putative cervid scapula,” correspondence note, language 27 (October 2023): 1073–1074.