High-Energy Neutrinos from the Galactic Plane under Ontological Discipline

This article develops a critical–propositional reading of the IceCube Collaboration study reporting evidence for high-energy neutrinos from the Galactic plane, published in Science and accompanied by a public data release. The aim is not to compete with contemporary models in astroparticle physics, but to apply an ontological discipline to the presuppositions that structure the physical interpretation of the phenomenon—namely, the ontological status of spacetime, the role of information, the nature of boundaries, and the relational condition of full existence. The analysis is conducted in the light of the Theory of Objectivity (TO), a modal–axiomatic ontology grounded in the Seven Absolute Truths, according to which the intelligibility of any possible universe requires logically necessary axioms. Within this framework, the IceCube result is argued to display relevant structural compatibilities with TO: (i) relational observation (full existence requires observation by at least two others), reflected in the distributed character of detection and event reconstruction; (ii) field singularity (each element possesses a field that makes it unique), interpreted at the phenomenic level as the energy–directional identity of each event; and (iii) cumulative composition (every element is composed of prior elements), expressed in hadronic production chains, decay processes, and the causal “memory” antecedent to a neutrino’s arrival at the detector. At the same time, the article identifies productive ontological tensions: standard cosmology and physics often treat spacetime as a primordial given and information as a derived quantity, whereas TO interprets spacetime as emergent and elevates information to the status of a substance transcendent to the quantum (Axiom 7), understood as knowledge produced in atomic relations and equivalent to radiations. On this basis, the text proposes—propositionally—that high-energy neutrinos may be read as persistent phenomenic manifestations of the “plasmas” described across TO’s cosmological eras, functioning as carriers of informational coherence on Galactic scales. The article further offers an operational formalization of the Inductor Effects (Expansive and Reductive), derivable from axiomatic combinations, and proposes testability bridges for confrontation with experimental evidence: reproducibility protocols using public datasets, PASS/HOLD decision criteria, and AI-assisted audit strategies, in accordance with recent TO bibliographic developments. Keywords: neutrinos; IceCube; Galactic plane; modal ontology; Theory of Objectivity; cosmology; information; inductor effects; testability; neutrino astronomy.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-02-19
DOI
https://doi.org/10.5281/zenodo.18687205
Primary Topic
Astrophysics and Cosmic Phenomena
Type
article
Field-Weighted Citation Impact
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article

High-Energy Neutrinos from the Galactic Plane under Ontological Discipline

Denivaldo Silva, Vidamor Cabannas
Zenodo (CERN European Organization for Nuclear Research)
Astrophysics and Cosmic Phenomena
article

High-Energy Neutrinos from the Galactic Plane under Ontological Discipline

Denivaldo Silva, Vidamor Cabannas
article en

Abstract

This article develops a critical–propositional reading of the IceCube Collaboration study reporting evidence for high-energy neutrinos from the Galactic plane, published in Science and accompanied by a public data release. The aim is not to compete with contemporary models in astroparticle physics, but to apply an ontological discipline to the presuppositions that structure the physical interpretation of the phenomenon—namely, the ontological status of spacetime, the role of information, the nature of boundaries, and the relational condition of full existence. The analysis is conducted in the light of the Theory of Objectivity (TO), a modal–axiomatic ontology grounded in the Seven Absolute Truths, according to which the intelligibility of any possible universe requires logically necessary axioms. Within this framework, the IceCube result is argued to display relevant structural compatibilities with TO: (i) relational observation (full existence requires observation by at least two others), reflected in the distributed character of detection and event reconstruction; (ii) field singularity (each element possesses a field that makes it unique), interpreted at the phenomenic level as the energy–directional identity of each event; and (iii) cumulative composition (every element is composed of prior elements), expressed in hadronic production chains, decay processes, and the causal “memory” antecedent to a neutrino’s arrival at the detector. At the same time, the article identifies productive ontological tensions: standard cosmology and physics often treat spacetime as a primordial given and information as a derived quantity, whereas TO interprets spacetime as emergent and elevates information to the status of a substance transcendent to the quantum (Axiom 7), understood as knowledge produced in atomic relations and equivalent to radiations. On this basis, the text proposes—propositionally—that high-energy neutrinos may be read as persistent phenomenic manifestations of the “plasmas” described across TO’s cosmological eras, functioning as carriers of informational coherence on Galactic scales. The article further offers an operational formalization of the Inductor Effects (Expansive and Reductive), derivable from axiomatic combinations, and proposes testability bridges for confrontation with experimental evidence: reproducibility protocols using public datasets, PASS/HOLD decision criteria, and AI-assisted audit strategies, in accordance with recent TO bibliographic developments. Keywords: neutrinos; IceCube; Galactic plane; modal ontology; Theory of Objectivity; cosmology; information; inductor effects; testability; neutrino astronomy.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 49%
Astrophysics and Cosmic Phenomena
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