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ExampleConstruction: AI-adaptedVerification: AI-adaptedPipeline-generatedverified 2026-10-15 (gpt-6-luna, gpt-6.1-sol, and delegated Codex review/repair agents; see completed run evidence)
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Two stationary clocks and one radial Rindler ray

Physical scope

A symbolic specialization of the conditional right-wedge Rindler theorem. The numerical parameters are chosen model values, not measured quantities; the instantaneous received-frequency reading is conditional on the theorem's additional adopted local phase-reception model, with its local ray-regime and finite-apparatus qualifications and no numerical accuracy or empirical validation claim.

Example

Specialize Right-wedge Rindler clocks, radial rays and frequency ratio to a=2 m s−2, emission radius ρE=2 m, reception radius ρR=4 m, and a future outward radial ray. These are exact model parameters. The one-way coordinate travel time is (c/2 m s−2)log⁡2, and over a shared Rindler-time interval the ideal-clock ratio is ΔτR/ΔτE=2. The instantaneous received-frequency ratio is ωR/ωE=1/2 under the theorem's additional adopted local phase-reception rule, with its local ray-regime and short-observation qualifications for finite apparatus and no numerical error bound or empirical validation. No experiment is described.

Facts & Assumptions

Given: The parameter values above and the right-wedge definitions and model readings of the theorem.

[F1]

Right-wedge Rindler clocks, radial rays and frequency ratio: radial travel has ΔT=(c/a)∣log⁡(ρR/ρE)∣, stationary ideal-clock increments scale as ρ, and the wave-covector contraction functional scales as 1/ρ; the instantaneous reception interpretation adopts the theorem's [A2] and retains all its qualifications.

Verification

1.1givenF1algebra

Substitute a=2 m s−2, ρR/ρE=2 into the theorem's travel-time formula. Since both radii are positive and the ray is outward, ΔT=(c/a)log⁡2=(c/2 m s−2)log⁡2, which is finite.

2.1step 1.1F1algebra∎

The clock-gradient formula gives ΔτR/ΔτE=ρR/ρE=4 m/(2 m)=2. The contraction functional gives ωR/ωE=ρE/ρR=1/2. By [F1], the latter is the instantaneous received-frequency ratio within the additional adopted local phase-reception model, with its local ray-regime and finite-apparatus limits; no measured accuracy is asserted.

Depends on

Dependency tree · 2 levels

Sources