The Cosmological Dynamic: From Constant to Rhythm

The cosmological constant Λ has functioned since 1917 as a stabilising and lateraccelerating term in cosmological models. It fits observational data but lacks a generativeexplanation. This paper proposes a reframing grounded in the Cohesion unified fieldtheory (Gilbert 2025–2026): rather than a static constant, Λ is better understood asthe observable signature of dynamic boundary pressure — the pressure imposed on theobservable universe by the next higher scale. In the Cohesion UFT framework this isPs, the substrate pressure that drives all internal dynamics. Λ is not a number theuniverse happens to have. It is the rhythm the universe is continuously generating inresponse to that boundary pressure.The canonical observational proxies — Type Ia supernovae, the cosmic microwavebackground (CMB), baryon acoustic oscillations (BAO), and gravitational lensing— are reinterpreted as probes of specific Cohesion UFT operators: Surplus release,compression imprint, calibration cycles, and pressure gradient mapping respectively.The cosmological constant problem — the 10120 discrepancy between observed Λ andquantum vacuum predictions — dissolves under this reframing, because the CohesionUFT framework does not predict that quantum vacuum energy should equal Λ. Itpredicts that Λ measures the boundary pressure from the next scale, which is a separatequantity.This paper is an application of the Cohesion unified field theory and the Scaling GRframework (Gilbert 2026 [1, 3]). It does not add new physics but derives cosmologicalconsequences not yet stated explicitly in those papers.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-04-23
DOI
https://doi.org/10.5281/zenodo.17573865
Primary Topic
Cosmology and Gravitation Theories
Type
article
Field-Weighted Citation Impact
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article

The Cosmological Dynamic: From Constant to Rhythm

Zenodo (CERN European Organization for Nuclear Research)
Cosmology and Gravitation Theories
article

The Cosmological Dynamic: From Constant to Rhythm

article en

Abstract

The cosmological constant Λ has functioned since 1917 as a stabilising and lateraccelerating term in cosmological models. It fits observational data but lacks a generativeexplanation. This paper proposes a reframing grounded in the Cohesion unified fieldtheory (Gilbert 2025–2026): rather than a static constant, Λ is better understood asthe observable signature of dynamic boundary pressure — the pressure imposed on theobservable universe by the next higher scale. In the Cohesion UFT framework this isPs, the substrate pressure that drives all internal dynamics. Λ is not a number theuniverse happens to have. It is the rhythm the universe is continuously generating inresponse to that boundary pressure.The canonical observational proxies — Type Ia supernovae, the cosmic microwavebackground (CMB), baryon acoustic oscillations (BAO), and gravitational lensing— are reinterpreted as probes of specific Cohesion UFT operators: Surplus release,compression imprint, calibration cycles, and pressure gradient mapping respectively.The cosmological constant problem — the 10120 discrepancy between observed Λ andquantum vacuum predictions — dissolves under this reframing, because the CohesionUFT framework does not predict that quantum vacuum energy should equal Λ. Itpredicts that Λ measures the boundary pressure from the next scale, which is a separatequantity.This paper is an application of the Cohesion unified field theory and the Scaling GRframework (Gilbert 2026 [1, 3]). It does not add new physics but derives cosmologicalconsequences not yet stated explicitly in those papers.

Zenodo (CERN European Organization for Nuclear Research)
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