Planet Nine – The Oscillating Core in Antiphase in Kuiper Belt

Abstract We propose a novel model for the hypothesized Planet Nine, interpreting it not as a traditional planetary body, but as an oscillatory gravitational core operating in antiphase with the dominant orbital rhythm of the Kuiper Belt. Within the framework of Twin Quantum Computing (TQC) and the New Subquantum Informational Mechanics (NMSI), we describe a dynamic system in which Planet Nine acts as a deep resonance node whose phase inversion influences the trajectories of trans-Neptunian objects (TNOs) without requiring a massive or luminous body. The model introduces a subquantum oscillatory mechanism whereby the gravitational field is not static, but periodically modulated, resulting in phase-driven perturbations observable in the Kuiper Belt's distribution. This phase interaction offers an alternative explanation to anomalous clustering and eccentricities in extreme TNO orbits. Our theoretical treatment includes a time-symmetric gravitational function and resonance boundary conditions within the solar infobitic field, suggesting that the so-called "Planet Nine" is better understood as a gravitational wave node rather than a classic celestial object. This perspective may reframe the search for distant planetary masses, shifting focus from mass detection to resonance mapping, and opens a new frontier in cosmological modeling using TQC/NMSI logic.