Empirical Relativity of Time: A Phenomenological Correction to Einsteinian Time Dilation and Resolution of the Twin Paradox

Einstein’s Theory of Relativity describes temporal dilation in terms of coordinate differentials within spacetime geometry, yet fails to address the relativity of lived, empirical time. This paper introduces the Empirical Relativity of Time (ERT), distinguishing between invariant physical time (τphys) and observer-dependent em- pirical time (τemp), related by a single scalar factor ρ(v,D,ψ), representing the existential density of consciousness. The framework resolves phenomenological inconsistencies in Interstellar (2014), reinterprets the Twin Paradox symmetrically (both twins age identically in phys- ical time but experience different empirical durations), and proposes empirically testable predictions via neural entropy and cognitive throughput measurements. We demonstrate that the NASA Twin Study (Scott Kelly, 2015-2016) validates clock rate relativity but does not prove ontological time relativity, supporting our dual-time formalism. The ERT unifies informational entropy (Shannon) and thermodynamic entropy (Boltzmann) under a dual-time formalism, extending Relativity into the experiential domain while maintaining Lorentz covariance. This proposal aligns with informa- tional approaches to consciousness (Tegmark 2014; Friston 2010), positioning ρ as a dynamic correlate of informational free energy within the perceptual manifold. Keywords: Empirical Relativity, Time Perception, Proper Time, Conscious- ness, Information Entropy, Thermodynamic Entropy, Twin Paradox, Phenomenol- ogy of Time, Scott Kelly, NASA Twin Study

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-10-16
DOI
https://doi.org/10.5281/zenodo.17364098
Primary Topic
Neuroscience and Music Perception
Type
article
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article

Empirical Relativity of Time: A Phenomenological Correction to Einsteinian Time Dilation and Resolution of the Twin Paradox

Zenodo (CERN European Organization for Nuclear Research)
Neuroscience and Music Perception
article

Empirical Relativity of Time: A Phenomenological Correction to Einsteinian Time Dilation and Resolution of the Twin Paradox

article en

Abstract

Einstein’s Theory of Relativity describes temporal dilation in terms of coordinate differentials within spacetime geometry, yet fails to address the relativity of lived, empirical time. This paper introduces the Empirical Relativity of Time (ERT), distinguishing between invariant physical time (τphys) and observer-dependent em- pirical time (τemp), related by a single scalar factor ρ(v,D,ψ), representing the existential density of consciousness. The framework resolves phenomenological inconsistencies in Interstellar (2014), reinterprets the Twin Paradox symmetrically (both twins age identically in phys- ical time but experience different empirical durations), and proposes empirically testable predictions via neural entropy and cognitive throughput measurements. We demonstrate that the NASA Twin Study (Scott Kelly, 2015-2016) validates clock rate relativity but does not prove ontological time relativity, supporting our dual-time formalism. The ERT unifies informational entropy (Shannon) and thermodynamic entropy (Boltzmann) under a dual-time formalism, extending Relativity into the experiential domain while maintaining Lorentz covariance. This proposal aligns with informa- tional approaches to consciousness (Tegmark 2014; Friston 2010), positioning ρ as a dynamic correlate of informational free energy within the perceptual manifold. Keywords: Empirical Relativity, Time Perception, Proper Time, Conscious- ness, Information Entropy, Thermodynamic Entropy, Twin Paradox, Phenomenol- ogy of Time, Scott Kelly, NASA Twin Study

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 44%
Neuroscience and Music Perception
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