Answers are grounded in this paper and cite their sources.
Simulation study demonstrates high detection efficiency for relativistic clock-transfer signals using synthetic ACES models, highlighting orbital phase coverage as a critical factor.
This work presents a prospective, precommitted residual-test architecture for relativistic clock-transfer measurements with the Atomic Clock Ensemble in Space (ACES), combining the primary scientific analysis with its technical validation supplement. A forward-modelled synthetic measurement twin evaluates the frozen R3 statistic under an ordinary H0 and a phase-uniform 10−1510⁻¹⁵ injected H1 signal class. Across 10,000 realizations per branch, the frozen analysis yields a 1.00% H0 false-positive rate and 70.74% H1 detection efficiency. A read-only external H0 cross-validation using reconstructed Wettzell-like cadence yields a 0.77% false-positive rate and broadly compatible pass-count, duration, and gap statistics, while revealing a material orbital-phase-coverage discrepancy that worsens R3 conditioning from 16.706 to 43.471. Sensitivity analysis identifies correction-state fidelity as the dominant methodological limitation. The package includes deterministic replay, provenance controls, branch-isolation receipts, external-validation matrices, and reproducibility artifacts. No authoritative ACES flight rows are analyzed, and no observational GCFT detection or parameter estimate is claimed.
No takes yet. Share an insight, caveat, or question.
Nicky Joseph Hubertus Catharina Hacquier (2026) studied this question.
Synapse has enriched 8 closely related papers on similar clinical questions. Consider them for comparative context: