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April 16, 20260 citationsOpen Access

Unified Variational Gravity with Dynamical Stabilization of Energy–Momentum Conservation: Cosmology, Quantum Gravity Interpretation, and Observational Constraints

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AMAngelito Enriquez Malicse

Key Points

  • This research aims to develop a new framework that dynamically stabilizes energy-momentum conservation in the context of gravity and cosmology.
  • Developed a variational framework appended to the Einstein-Hilbert action.
  • Defined a quadratic constraint functional to suppress deviations from energy-momentum conservation.
  • Derived modified Friedmann equations using the framework in an FLRW cosmological setting.
  • Established stability arguments and linked the coupling parameter to observational data.
  • Demonstrated successful suppression of deviations from covariant energy-momentum conservation.
  • Derived field equations that reproduce General Relativity under specific conditions.
  • Connected the framework to key observables like gravitational-wave measurements and CMB constraints.

Abstract

Abstract We present a unified variational framework in which deviations from covariant energy–momentum conservation are dynamically suppressed via a quadratic constraint functional appended to the Einstein–Hilbert action. We carefully define the constraint scalar, perform the variational derivation explicitly, and obtain the corrected field equations including the full form of Δ_μν (λ). The theory is reduced to the FLRW cosmological setting with the modified Friedmann and fluid equations derived from first principles. We establish a Lyapunov-style stability argument, connect the coupling λ to observational bounds from gravitational-wave speed measurements (LIGO/Virgo), CMB power-spectrum constraints, and black-hole ringdown spectroscopy, all stated in consistent physical units. Connections to holographic entropy, tensor network interpretations of spacetime, and AdS/CFT correspondence are developed as formal consequences of the framework rather than decorative context. Throughout, the framework is interpreted within the Universal Balance-Feedback Framework (UBFF), in which conservation laws represent dynamical equilibria governed by feedback attractor mechanisms. The theory reduces exactly to General Relativity in the limit λ → 0.

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Cite This Study

Angelito Enriquez Malicse (2026) studied this question.

synapsesocial.com/papers/69e07d732f7e8953b7cbe6d8https://doi.org/10.17605/osf.io/5928c
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