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Universal Obstruction to Simulating (x, y, z, x + y + z) in Near-Extremal 3-AP-Free Sets

Repository: OmegaCore-Labs / universal-obstruction-linear-form-x-y-z-x-y-z Preprint DOI: https://doi.org/10.5281/zenodo.XXXXXXX


Abstract

This repository contains a public research preprint addressing the modern formulation of ErdΕ‘s problem #142 concerning whether the linear form [ (x, y, z, x+y+z) ] can be simulated inside near-extremal three-term-arithmetic-progression-free subsets of the integers.

The work develops a structural reduction showing that any such set admits a bounded-variability, carry-controlled digit representation. Within this reduced model, configurations capable of realizing the linear form above are exponentially suppressed in the effective dimension.

The argument is combinatorial and structural in nature and does not rely on Fourier-analytic inverse theorems or assumptions about specific constructions.


Repository Contents

Main Manuscript

Digit_Rigidity_and_Container_Obstructions_for_Three_Term_Arithmetic_Progression_Free_Sets.pdf

This is the primary research manuscript presenting the full argument and mathematical development of the digit rigidity framework and container obstruction method applied to 3-term arithmetic progression free sets.

This document contains:

  • Formal theorem statements
  • Structural lemmas
  • Proof framework
  • Mathematical derivations
  • References and context

This file represents the canonical paper version of the work.


Preprint Source Versions

These files provide transparent source versions of the argument used to construct the manuscript.

digit_rigidity_container_obstruction_preprint.md

Full Markdown version of the preprint including all definitions, lemmas, and formulas in a format readable directly on GitHub.

digit_rigidity_container_obstruction_preprint.tex

LaTeX source version of the same document for typesetting, academic editing, or PDF compilation.

Both files mirror the mathematical content of the manuscript while providing editable and readable source formats.


Breakthrough Summary

BREAKTHROUGH_SUMMARY.md

A concise overview highlighting:

  • previously known bounds and structural results
  • the new obstruction mechanism developed in this work
  • the conceptual advance provided by the digit-rigidity reduction

This file allows readers to quickly understand the main idea before reading the full manuscript.


Supporting Technical Documents

appendix_container_lemma_tex.pdf

Technical appendix expanding the container-lemma component used in the structural reduction.

verification_notes_tex.pdf

Logical dependency map and verification notes documenting the reasoning structure and relationships between the components of the argument.

These files provide additional transparency into the structure and verification of the proof.


Summary of Contributions

The work establishes:

  • A digit-slice compression mechanism for near-extremal 3-AP-free sets
  • A structural reduction to a carry-controlled representation model
  • Application of a finite hypergraph container framework in this setting
  • A universal obstruction to simulating the linear configuration [ (x, y, z, x+y+z) ]

within such sets.


What Is Not Claimed

This repository does not claim:

  • a classification of all extremal 3-AP-free sets
  • explicit constructions achieving the upper bound
  • reliance on analytic or Fourier-based methods

The focus is strictly on the structural obstruction described above.


Attribution

Conceptual development, proof structure, and verification workflow were carried out using the A.R.S.V.E. (Autonomous Recursive Synthesis & Verification Engine) under human direction.

All mathematical claims and responsibility for correctness remain with the author.

About

A purely combinatorial obstruction to simulating ( π‘₯ , 𝑦 , 𝑧 , π‘₯ + 𝑦 + 𝑧 ) (x,y,z,x+y+z) in near-extremal 3-AP-free sets.

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