43 arcseconds per century • Pure kinematic derivation from F=ma + E=mc_t
Mercury’s perihelion advances by 43 arcseconds per century more than predicted by Newtonian gravity. In the Kinetiverse this precession is the direct result of entangled spatial and temporal kinematics around the Sun’s particle ensemble.
After subtracting all Newtonian planetary perturbations, the residual advance is 43.0 ± 0.1 arcseconds per century (modern radar + spacecraft data).
“The extra precession is the kinematic signature of c_t attachment to acceleration. Spatial motion overlap provides half the correction; the temporal domain, via exact 1:1 entanglement, provides the other half — yielding the observed 6π coefficient without any curvature or fields.”
For central force F = ma = –GM m / r² the Binet equation is:
Solution: closed ellipse, zero precession.
At orbital velocities, the planet’s motion overlaps with the Sun’s internal particle motions. This produces an extra effective 1/r³ force term. Detailed integration of the overlap yields a correction in the Binet equation of:
The same acceleration field attaches c_t to local a(r). By the Entanglement Axiom this produces an identical correction term:
(Exact 1:1 symmetry — no assumption of GR orbit equation.)
The coefficient 3 is the sum of two independent 1.5 contributions (spatial motion overlap + temporal c_t attachment).
Standard perturbation solution for small eccentricity yields advance per revolution:
For Mercury this gives exactly 43 arcseconds per century.
Modern radar ranging and spacecraft data confirm the 43″/century to high precision. The Kinetiverse derivation reproduces it exactly from motion overlap and c_t attachment alone — no curvature, no GR orbit equation assumed.