Generative Structural Theory v1.23 — Connecting the Class C Evaluation with Closure-Preserving Sub-relations

GST v1.19 stored, for the fixed cut z_t of twelve pairs, a list of 59 sub-relations as the set C_2 of its class C evaluation; GST v1.20-v1.22 described, counted and analysed the family H_lt(z_t) of the proper sub-relations of z_t that keep its reflexive transitive closure, which also has 59 members. This manuscript connects the two by members, not by counts, and keeps three objects apart: the set E_alg that the evaluator's loop and acceptance condition define, the set E_stored of the elements of the stored list, and the set C_2 of the paper's definition. (T2a) E_alg = H_lt(z_t), by an argument based on existing computation results (the registered B1 check of v1.20) and on the drafting side's static reading of the evaluator, with no new enumeration. (T2b) E_stored = H_lt(z_t), and the stored list has no repeated element, confirmed by a pre-registered, LOCKed machine comparison (a single run, no automatic correction, no rerun; word EQUAL), which builds the reference set in two ways that must agree and checks four controls first. Hence E_stored = H_lt(z_t) = E_alg as sets, relations being identified with their integer codes. (T2c) Every member of C_2, where its definition applies, lies in H_lt(z_t), by the definition alone, without D2 or a check of condition C-cone; the converse inclusion holds if the recorded certified set V of the v1.18 runs is the V of those runs. So C_2 = H_lt(z_t) holds under that assumption; it is not established without it, and the assumption is undetermined. (T3) Through the equalities of T2a and T2b, the v1.22 results for z_t hold for E_alg and E_stored: five pairs lie in every member, there are four inclusion-minimal members, of 7, 7, 8 and 8 pairs, the least number of pairs is 7, and the stored answer y = z_t - {1>3} is one of the seven maximal members and is not inclusion-minimal. A short lemma says why removing the maximum z_t does not change the essential pairs, the inclusion-minimal members or the members of minimum cardinality. These are structural consequences; they do not explain why the procedure stored y. Nothing is claimed about the provenance of the stored file, other cuts, or the classification inside components.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-18
DOI
https://doi.org/10.5281/zenodo.23451513
Primary Topic
Logic, programming, and type systems
Type
preprint
Controls
|||
ALL TIME
JAN
FEB
MAR
APR
MAY
JUN
JUL
AUG
SEP
OCT
preprint

Generative Structural Theory v1.23 — Connecting the Class C Evaluation with Closure-Preserving Sub-relations

Koji Okino
Zenodo (CERN European Organization for Nuclear Research)
Logic, programming, and type systems
preprint

Generative Structural Theory v1.23 — Connecting the Class C Evaluation with Closure-Preserving Sub-relations

Koji Okino
preprint en

Abstract

GST v1.19 stored, for the fixed cut z_t of twelve pairs, a list of 59 sub-relations as the set C_2 of its class C evaluation; GST v1.20-v1.22 described, counted and analysed the family H_lt(z_t) of the proper sub-relations of z_t that keep its reflexive transitive closure, which also has 59 members. This manuscript connects the two by members, not by counts, and keeps three objects apart: the set E_alg that the evaluator's loop and acceptance condition define, the set E_stored of the elements of the stored list, and the set C_2 of the paper's definition. (T2a) E_alg = H_lt(z_t), by an argument based on existing computation results (the registered B1 check of v1.20) and on the drafting side's static reading of the evaluator, with no new enumeration. (T2b) E_stored = H_lt(z_t), and the stored list has no repeated element, confirmed by a pre-registered, LOCKed machine comparison (a single run, no automatic correction, no rerun; word EQUAL), which builds the reference set in two ways that must agree and checks four controls first. Hence E_stored = H_lt(z_t) = E_alg as sets, relations being identified with their integer codes. (T2c) Every member of C_2, where its definition applies, lies in H_lt(z_t), by the definition alone, without D2 or a check of condition C-cone; the converse inclusion holds if the recorded certified set V of the v1.18 runs is the V of those runs. So C_2 = H_lt(z_t) holds under that assumption; it is not established without it, and the assumption is undetermined. (T3) Through the equalities of T2a and T2b, the v1.22 results for z_t hold for E_alg and E_stored: five pairs lie in every member, there are four inclusion-minimal members, of 7, 7, 8 and 8 pairs, the least number of pairs is 7, and the stored answer y = z_t - {1>3} is one of the seven maximal members and is not inclusion-minimal. A short lemma says why removing the maximum z_t does not change the essential pairs, the inclusion-minimal members or the members of minimum cardinality. These are structural consequences; they do not explain why the procedure stored y. Nothing is claimed about the provenance of the stored file, other cuts, or the classification inside components.

Zenodo (CERN European Organization for Nuclear Research)
Logic, programming, and type systems
AI Navigator

Ask Laika to Summarize, Analyze, and Connect papers live on the map.

Summarize Papers & Methodologies

Extract key findings, datasets, and comparative methods across publications.

Benchmark Rankings & Visual Analytics

Rank top research institutions, authors, funders, topics, and journals by Field-Weighted Citation Impact (FWCI) and paper volume with instant charts.

Connect Distant Disciplines

Bridge topological clusters on the map to find hidden collaborative intersections.