[Paper Review] Orthopositronium: "On the possible relation of gravity to electricity"

B. A. Kotov, B. M. Levin+1 more|ArXiv.org|Apr 24, 2006

Relativity and Gravitational Theory2 references3 citations

TL;DR

This paper challenges the resolution of the orthopositronium-lifetime puzzle by proposing that a non-perturbative, gravity-electricity coupled mode—mediated through a 'mirror Universe' and the C-field—contributes ~0.2% to annihilation decay rates. It argues that the Michigan group’s vacuum experiment suppressed this mode via an electric field, leading to apparent agreement with QED, and calls for comparative measurements with E-field parallel and perpendicular to gravity to test the alternative interpretation.

ABSTRACT

The resolve of the 'orthopositronium-lifetime puzzle' needs study of the "isotope anomaly" in gaseous neon and also of the contribution ~ 0.002 of nonperturbative mode into orthopositronium annihilation. The Michigan results (2003) are considered as the first supervision of relation between gravitation and electricity. For the decision of alternative in interpretation of new and former results it is necessary to execute the program of additional measurements.

Motivation & Objective

• To challenge the interpretation of the Michigan group’s 2003 vacuum measurement as resolving the orthopositronium-lifetime puzzle.
• To argue that the observed agreement with QED is an artifact of electric field suppression of a non-perturbative annihilation mode.
• To propose that the 'isotope anomaly' and non-perturbative contributions (~0.2%) in o-Ps decay are evidence of a deeper connection between gravity and electromagnetism.
• To call for new experiments comparing o-Ps decay rates with electric fields parallel and perpendicular to gravity to test the alternative model.
• To re-evaluate prior experimental data, especially from buffer-gas and vacuum experiments, in light of a non-local, mirror-Universe-mediated interaction.

Proposed method

• Analyzes the Michigan group’s 2003 vacuum experiment and its claim of agreement with QED, arguing that the electric field (E ≈ 10⁴ V/cm) suppressed a non-perturbative annihilation mode.
• Proposes that o-Ps states with m = ±1 and m = 0 (2γ) sub-states behave differently due to virtual single-photon annihilation and mirror-Universe exchange, leading to non-local dynamics.
• Introduces a suppression criterion: E > (g - γ_cr)·m_eff / (2n·e·cosα), where E must exceed ~10⁴ V/cm to suppress the non-perturbative mode.
• Uses the condition that when E is perpendicular to gravity (α ≈ 90°), the mode should be restored, allowing detection of the ~0.2% contribution.
• Compares experimental setups (e.g., Fig. 1 in [1] vs. Fig. 4.6 and 4.15 in Vallery’s dissertation) to infer that E was parallel to gravity in the 2003 experiment.
• Reinterprets the 140 ppm statistical and 115 ppm systematic errors in the Michigan result as insufficient to rule out a hidden non-perturbative contribution.

Experimental results

Research questions

• RQ1 Could the apparent agreement between theory and experiment in the Michigan 2003 o-Ps lifetime measurement be due to suppression of a non-perturbative annihilation mode by an external electric field?
• RQ2 Is the observed ~0.2% contribution to o-Ps decay rate in earlier experiments due to a non-local interaction with a 'mirror Universe' and the C-field?
• RQ3 Does the isotope anomaly in gaseous neon provide evidence for a gravity-electromagnetism connection in o-Ps systems?
• RQ4 Can the non-perturbative mode be restored by reorienting the electric field perpendicular to gravity, thereby revealing its true contribution?
• RQ5 Are the standard kinetic energy measurements in o-Ps experiments insufficient to detect a small but physically significant 'phase' of o-Ps that couples to macroscopic quantum structures?

Key findings

• The Michigan group’s 2003 vacuum measurement (λ_T = 7.0404(10)(8) μs⁻¹) is not a definitive resolution of the orthopositronium-lifetime puzzle, as the electric field suppressed a non-perturbative annihilation mode.
• The non-perturbative contribution to o-Ps annihilation is estimated at ~0.2% (0.19% ± 0.02% in buffer gases, 0.14% ± 0.023% in vacuum), attributed to interaction with the 'mirror Universe' and C-field.
• The electric field in the 2003 experiment (E ≈ 10⁴ V/cm) was aligned parallel to gravity, suppressing the non-perturbative mode, which would otherwise be detectable when E is perpendicular to gravity.
• When E is perpendicular to gravity (α ≈ 90°), the suppression criterion is violated, and the non-perturbative mode should be restored, allowing its measurement.
• The 2003 experiment’s systematic error estimate of 115 ppm is insufficient to rule out the existence of this non-perturbative mode, as the suppression mechanism was not accounted for.
• The authors conclude that the alternative interpretation—non-perturbative mode with gravity-electromagnetism coupling—cannot be excluded and requires direct experimental verification via E-field orientation comparisons.