A Unified Evaluation Framework for Theories of Gravity and Computable Spacetime Models
A Unified Evaluation Framework for Theories of Gravity and Computable Spacetime Models
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Original abstract
This paper presents a structured methodology for ensuring traceability between theoretical constructs in the Computed Universe (CU) model and observable physical phenomena. It details how model components—from foundational axioms and constants to derived equations—can be systematically linked to empirical data, ensuring that every element of the CU framework can be justified, tested, and revised in line with observed reality.The work introduces a formal traceability matrix, mapping CU model elements to:Observations (astrophysical, quantum, relativistic, and cosmological data),Derived relationships (equations stemming from Planck units, energy identities, and causal update dynamics),Testable predictions (cutoff scales, gravitational weakening, redshift saturation, and quantum-scale effects).This approach enhances scientific rigour by providing a clear audit trail from model assumptions to real-world verification. It supports model evolution by highlighting dependencies, potential weak points, and areas where new observations could validate or falsify CU predictions.The paper also addresses best practices for maintaining traceability in evolving theoretical physics frameworks, including versioning, dependency tracking, and integration with experimental collaborations.