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Logical Dependencies and Reading Guide for a Set of Five Related Preprints

Montejo, L

Published Dec 14, 2025• 0 citations
Publisher

Abstract

This document provides a logical dependency map and recommended reading order for five related preprints addressing additive structure, physical registration, thermodynamic enforcement, and the classical–quantum transition. It introduces no new results and is intended solely to clarify scope and conceptual layering across the associated works.

DOI
10.5281/zenodo.17930017

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This document provides a logical dependency map and recommended reading order for five related preprints addressing additive structure, physical registration, thermodynamic enforcement, and the classical–quantum transition. It introduces no new results and is intended solely to clarify scope and conceptual layering across the associated works.
This work presents a structural ontology intended to clarify how core concepts from general relativity, quantum theory, thermodynamics, and information theory may be discussed within a single, consistent descriptive framework. The document does not propose new physical laws or claim experimental validation. Instead, it aims to organize existing physical concepts around a minimal set of constraints, expressed through a three mode perspective referred to as GR, QR, and a waveband based representation. The waveband perspective is introduced as an interpretive layer rather than a competing theory. It is used to track coherence, constraint, and accessibility across physical regimes, from spacetime geometry and quantum measurement to entropy production and record formation. The emphasis is on conceptual continuity and structural consistency, not on replacing established formalisms. This document is intended as a foundation for discussion, critique, and future refinement. It remains compatible with standard physics and does not depend on the correctness of any specific model. Related frameworks developed previously by the author, including Resonant Coherence Field Theory and associated works, are referenced as prior exploratory material rather than as required assumptions. The author offers this work as an open preprint in the spirit of transparency and collaboration, with the expectation that some elements may be revised, clarified, or rejected as further analysis and feedback are obtained.
This series presents a structured and logically sequential formulation of a discrete informational framework governed by global coherence constraints. Although it originates from the same research program developed in the earlier exploratory preprint series (P-series), the works presented here constitute an autonomous and self-contained series, organized in a progressively axiomatic form and focused on the explicit derivation of the framework’s effective structures. The goal of the construction is to investigate whether structures commonly associated with quantum mechanics, thermodynamics, and geometry may emerge from a discrete relational substrate without being introduced as fundamental postulates. Each article addresses a specific level of the theoretical derivation and forms part of a progressive logical structure based on results established in the preceding works of the series. This article introduces the general structure, scope, and current status of the framework. The work provides an organized overview of the results developed in the first articles of the series, clarifies the overall logic of the theoretical construction, and situates the framework within a broader research program dedicated to the emergence of quantum, thermodynamic, and geometric structures from informational coherence constraints. The article does not introduce new specific physical postulates, but serves a methodological and introductory role: it defines the conceptual setting of the series, the relation between the different levels of the derivation, and the interpretative and theoretical limitations currently assumed within the framework.
This record contains version 0.5 of the Epsilon–Theta (ET) Framework Reader’s Guide. The Reader’s Guide is a non-normative, human-facing entry point to the ET Framework document suite. It explains the purpose, structure, and intended interpretation of the ET Framework without replacing the normative documents. The ET Framework is a baseline-relative residual, diagnostic, and sensitivity-reporting framework for finite Bell scenarios. It is designed to help describe declared observable departures from an explicit baseline probability model, including static residual structure and temporal or order-dependent diagnostics, under declared calibration and reporting protocols. This guide explains how the ET Framework Meta-Specification, the ET-CS-222 scenario pack, and the ET-CS-222 companion supplements fit together. It also clarifies what ET is and is not: ET is not a new physical theory, not a new Bell inequality, and not a replacement for Bell-valid significance analyses, loophole-specific experimental audits, device-independent security proofs, or quantum-set compatibility tools. Instead, ET is intended as a complementary layer for baseline-relative residual, temporal, and sensitivity reporting. The guide is intended for readers who want to understand the ET document suite before reading the formal Meta-Specification or the scenario-specific ET-CS-222 documents. It summarizes the residual-first principle, the epsilon/theta split, the role of scenario packs, the meaning of non-detection statements, the relation to existing Bell-analysis tools, and the recommended order for reading the ET documents. This Reader’s Guide refers to two separately published ET records: 1. The ET Framework Meta-Specification v0.5, DOI: 10.5281/zenodo.20472966.2. The ET-CS-222 Scenario Pack and Companion Supplements v0.7, DOI: 10.5281/zenodo.20474207. This release should be cited when referring specifically to the reader-facing overview and explanatory entry point to the ET Framework document suite. The Meta-Specification and ET-CS-222 package should be cited separately when referring to the normative framework-level contract or the canonical 2x2x2 scenario-pack specification.