Hiperuniverse

This volume develops the Hiperuniverse hypothesis as an ontology for a singleself-contained physical whole. It treats reality as a changing relationalconfiguration whose operative distinctions appear as events and retainedrecords. Space and time are therefore to be recovered rather than assumed.Temporal order and measurable duration remain distinct, while strongerphysical interpretations require additional operational input. The method makes assumptions and inferences explicit. Definitions, finitemodels, proofs, and controlled comparisons are used to test whether one accountcan connect domains usually treated separately. Conclusions are stated onlyat the strength supported by their premises, and computations test proposalsrather than select a physical law. Some load-bearing constructions rest onpremises not derived from the event law; their dependencies and claimboundaries are made explicit in the body. The work also records the negativeresults accumulated during the analysis. Technicaldetails and numerical outcomes are reserved for the chapters, annexes, and thedistributed Companion. The result is a research framework rather than a completed unification. Itdistinguishes what follows from the proposal, what is assumed, what depends onadditional conditions, and what remains unresolved. It also identifies thephysical mechanisms and empirical calibration still required. Their scopeand failure conditions are collected in a dedicated objections register.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-10-06
DOI
https://doi.org/10.5281/zenodo.23195431
Primary Topic
Relativity and Gravitational Theory
Type
preprint
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Hiperuniverse

Mircea Ghidarcea
Zenodo (CERN European Organization for Nuclear Research)
Relativity and Gravitational Theory
preprint

Hiperuniverse

Mircea Ghidarcea
preprint en

Abstract

This volume develops the Hiperuniverse hypothesis as an ontology for a singleself-contained physical whole. It treats reality as a changing relationalconfiguration whose operative distinctions appear as events and retainedrecords. Space and time are therefore to be recovered rather than assumed.Temporal order and measurable duration remain distinct, while strongerphysical interpretations require additional operational input. The method makes assumptions and inferences explicit. Definitions, finitemodels, proofs, and controlled comparisons are used to test whether one accountcan connect domains usually treated separately. Conclusions are stated onlyat the strength supported by their premises, and computations test proposalsrather than select a physical law. Some load-bearing constructions rest onpremises not derived from the event law; their dependencies and claimboundaries are made explicit in the body. The work also records the negativeresults accumulated during the analysis. Technicaldetails and numerical outcomes are reserved for the chapters, annexes, and thedistributed Companion. The result is a research framework rather than a completed unification. Itdistinguishes what follows from the proposal, what is assumed, what depends onadditional conditions, and what remains unresolved. It also identifies thephysical mechanisms and empirical calibration still required. Their scopeand failure conditions are collected in a dedicated objections register.

Zenodo (CERN European Organization for Nuclear Research)
Universidad Pontificia Bolivariana (CO)
Relativity and Gravitational Theory
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Hiperuniverse — Mircea Ghidarcea · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS