From to Barnard Quasi-Companion to Proxima Quasi-Companion : The Sun as a Multiple System
Year: 2026
Type: preprint
Abstract: Barnard’s Star Quasi-Companion & Reactance Bound Evidence Barnard’s Star is located at a distance of 1.83 pc (5.96 ly) with a proper motion of 10.39″/yr. Positioned at α = 17h57m, δ = +04°, it sits in nearly exact celestial opposition to Proxima Centauri (α = 14h29m, δ = −62°). Near-Integer Ratio Resonance as Proof of Companion Binding The pivotal observational evidence proving that the Sun, Barnard’s Star, and Proxima Centauri constitute a true Multiple System lies in their orbital motion: the system operates in precise proximity to near-integer ratio orbital revolution. In classical mechanics, un-bound field stars display continuous, arbitrary velocity distributions. However, these three stellar nodes revolve while maintaining near-integer phase synchronization. This is compelling physical proof that the stars dynamically exchange an abundant volume of complex reactance (jX), establishing a continuously locked, resonant companion bond rather than a transient encounter. Observational evidence from Gaia DR3 confirms that Proxima Centauri orbits the Alpha Centauri AB barycenter in a bound, highly stretched oval with eccentricity e ≈ 0.50. Extending this quasi-companion framework, we propose that Barnard’s Star (1.83 pc / 5.96 ly) forms a symmetric quasi-companion in the opposite celestial sector relative to the Sun, establishing a complex reactance pairing Xnet = (+j0.012 − j0.012) Z0 = 0, i.e. R=0 lossless reactance sharing. Furthermore, the persistent orbital alignment (e ≈ 0.5) of Extreme Trans-Neptunian Objects (ETNOs) in the Kuiper Belt is analytically derived via integer-ratio resonance (6 × 6 × 50 = 1800) and reverse eccentricity geometry (a² = b² − c²), completely eliminating the necessity of an undiscovered Planet Nine. To an extrasolar observer, the Solar System operates as a coherent Multiple System governed by lossless reactance sharing and a phase delay angle δ* = 0.012 rad, oscillating at ideal angle θ_ideal = 41.81° (0.7297 rad). Key equations:(1) e_effective = 2 × N_resonance × sin²(δ*) = 2 × 1800 × 0.000143993 ≈ 0.518 matches Gaia DR3 e=0.50±0.09(2) X_Sun-Proxima + X_Sun-Barnard = (+j0.012)·Z0 + (−j0.012)·Z0 = 0 ⇒ R=0(3) Reverse eccentricity e_rev = c/b = √(1 − (a/b)²) ≈ 0.50, a² = b² − c², b > a This model extends the dimensionless delay angle δ*=0.012 rad, leakage Γ=sin²(0.012)=0.0144%, impedance X=j0.012·Z0=j4.524Ω, virtual capacitor C_virtual=70.6 mF/mode, Qc=523.6, Finesse=261.8 framework from EGUSPHERE-2026-6657 and previous supplements 23761553, 23763231, 23771498, 23792516, 23925034, 23969474. Gaia DR3 astrometry: periastron ~4,300 AU, apastron ~13,000 AU, period ~547,000 yr for Proxima. Barnard's Star proper motion 10.39″/yr at α=17h57m, δ=+04° opposite to Proxima α=14h29m, δ=−62°. No Planet Nine required. Kuiper Belt alignment is natural consequence of reactance conservation ∫X(θ)dθ = Z0·cos²(δ*) = Z0·0.999856.
Author: Im, Sungbae
Language: English
Subfield: Astronomy and Astrophysics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7225335995