Keywords Planet Nine, Real-Virtual Dual-Field Theory, Conjugate Golden Decay Rate, Outer Solar System, Trans-Neptunian Objects, IRAS, AKARI, Far-Infrared Observation, Orbital Parameter Prediction, P9, 500 AU, holographic entropy, lattice dynamics, orbital velocity, planetary rotation evolution Abstract Based on the Real-Virtual Dual-Field Theory (RVDT) unified framework integrated with holographic entropy calibration, N-body corrected lattice dynamics and conjugate golden fractal long-timescale dissipation, this paper carries out complete first-principles derivation for outer solar system orbits, and presents full precise orbital, physical, kinematic and rotational evolutionary parameter predictions for Planet Nine. The derived results are cross-compared with the far-infrared moving point source candidate identified by the joint team of National Chung Hsing University and Tsinghua University using IRAS and AKARI survey data; all core parameters including semi-major axis, mass, surface equilibrium temperature, celestial region and optimal detection band show excellent consistency. Dynamic uniqueness analysis proves that two ice giant planets with comparable mass and orbital scale cannot stably coexist within the 280–700 AU orbital zone, which strongly supports that the observed far-infrared source corresponds to the theoretically predicted Planet Nine. Furthermore, we supplement full kinematic solving results of orbital instantaneous velocity and planetary rotation evolution via the three-module coupled system, which greatly narrows the parameter uncertainty range compared with single conjugate golden decay calculation, providing high-precision motion constraints for upcoming far-infrared sky surveys. This study delivers a definite, fully quantified target for subsequent direct astronomical observations of Planet Nine.
Zhongqiang Liu (Tue,) studied this question.
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