The New Law: Reversal of Everything — From the Heart of the Star to the Heart of the Galaxy to the Heart of the Universe

Abstract

Paper XIV of the Six-Throat Directed Geometry program develops the capstone three-heart framework called the New Law: Reversal of Everything. The construction connects the stellar core, the galactic core, and the Great Attractor through one finite directed-state transition. A star remains in its living state while inward loading and directed support remain balanced below a finite support capacity. Different stellar evolutionary paths may reach the common terminal surface at different times while sharing the same terminal geometry. Loss of directed support places the finite stellar material into the Hole state, after which it is routed into the galactic core and contributes to a continuously accumulated finite core burden.The galactic core continues collecting Hole-state material while the galaxy travels toward the Great Attractor. The model identifies the Great Attractor, M1, and the center of the Zero Region as the same central processing point. At that event, the accumulated Hole burden is discharged, the directed galactic polarity reverses, the finite galactic identity and material inventory are preserved, and two oppositely directed axial jets accompany the galactic-heart transition. The fundamental reversal is a transition of galactic and capsule directed polarity. It is not identified with a compulsory sign reversal of every internal mechanical coordinate. Two local realizations are retained. In the direct-mechanical branch, selected directed mechanical variables can pass continuously through zero and reverse sign, with finite torque and impulse requirements. In the protected-capsule branch, directed capsule polarity reverses while protected internal mechanical coordinates remain continuous and node identities are preserved while their functional roles exchange. The common physical endpoint is therefore the directed polarity transition, while the local mechanical response is branch-resolved. The paper also completes the Geometric-Strain Response, or GSR, sector for spherical even-parity radiative perturbations. The constitutive response is represented by a positive and nondegenerate reciprocal five-modulus matrix. Combined with the positive geometric operator inherited from Paper VI, the GSR contribution is positive semidefinite. Consequently, the completed even-parity sector remains positive throughout the adopted positive-definite GSR domain, while the independent odd-parity stability theorem is retained. The resulting radiative stability statement is uniform over the allowed constitutive domain and does not depend on one privileged numerical parameter set. The accompanying reproducibility package verifies the algebraic identities, stellar terminal calibration, load-assisted galactic transport, finite Hole-burden discharge, galactic-heart reversal, bipolar jet construction, conditional direct-mechanical response laws, and GSR constitutive positivity conditions. Numerical configurations used in the audit serve as reproducibility witnesses rather than measured physical calibrations. The detailed constitutive response functions remain to be fixed by the observational load and support calibration layer.