Slope Traversal and Time: A Minimal Statement of Gravitational Phase-Cancellation Theory (gPCT)

This note presents a minimal geometric formulation of Gravitational Phase-Cancellation Theory (gPCT). The theory proposes that quantum-state collapse symmetry is locally modulated by the slope of gravitational phase, a scalar quantity derived from the gravitational potential, as it varies along an observer’s worldline. Local asymmetries accumulate as slope-dependent contributions, while global neutrality is preserved through phase cancellation across complete gravitational cycles. The paper introduces three postulates: Slope Memory — clocks accumulate gravitational phase-slope asymmetry along their worldlines. Dual Recursion — curvature and time co-determine one another through a symmetric differential recursion. The White Equation — a conjectured invariant linking slope derivatives and curvature recursion, yielding 1/2π in the weak-field limit. From these postulates, the theory recovers a cos² collapse law that depends explicitly on gravitational phase slope. This dependence cancels globally through phase cancellation, preserving classical statistical neutrality. A natural consequence of the formulation is the emergence of an intrinsic Arrow of Time. Because gravitational phase evolves monotonically along a worldline, slope-dependent collapse modulation is not symmetric under time reversal, even though global neutrality is maintained. The note is deliberately brief and self-contained, presenting only the minimal structure required to state the theory and its consequences.

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-11-15
DOI
https://doi.org/10.5281/zenodo.17620678
Primary Topic
Pulsars and Gravitational Waves Research
Type
article
Field-Weighted Citation Impact
0.00
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article

Slope Traversal and Time: A Minimal Statement of Gravitational Phase-Cancellation Theory (gPCT)

Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
article

Slope Traversal and Time: A Minimal Statement of Gravitational Phase-Cancellation Theory (gPCT)

article en

Abstract

This note presents a minimal geometric formulation of Gravitational Phase-Cancellation Theory (gPCT). The theory proposes that quantum-state collapse symmetry is locally modulated by the slope of gravitational phase, a scalar quantity derived from the gravitational potential, as it varies along an observer’s worldline. Local asymmetries accumulate as slope-dependent contributions, while global neutrality is preserved through phase cancellation across complete gravitational cycles. The paper introduces three postulates: Slope Memory — clocks accumulate gravitational phase-slope asymmetry along their worldlines. Dual Recursion — curvature and time co-determine one another through a symmetric differential recursion. The White Equation — a conjectured invariant linking slope derivatives and curvature recursion, yielding 1/2π in the weak-field limit. From these postulates, the theory recovers a cos² collapse law that depends explicitly on gravitational phase slope. This dependence cancels globally through phase cancellation, preserving classical statistical neutrality. A natural consequence of the formulation is the emergence of an intrinsic Arrow of Time. Because gravitational phase evolves monotonically along a worldline, slope-dependent collapse modulation is not symmetric under time reversal, even though global neutrality is maintained. The note is deliberately brief and self-contained, presenting only the minimal structure required to state the theory and its consequences.

Zenodo (CERN European Organization for Nuclear Research)
Openalex Percentile: Top 43%
Pulsars and Gravitational Waves Research
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