Phase-Synchronized Trajectory Optimization on Curved Manifolds with High-Order Non-Separable Symplectic Thermostats, Adaptive Manifold Restraints, and 3D Braid-Group Spacetime Knot

Abstract We formulate and prove Version 4.0 of the unified geometric, thermodynamic, and topological framework governing relativistic N-body systems evolving on pseudo-Riemannian spacetimes. This work rigorously resolves fundamental challenges across relativistic astrophysics, geometric integration, and mathematical mechanics: 1. Curved-Manifold Langevin Thermostat and Frustrated Kuramoto Dynamics:We formulate the symmetric BAOAB Langevin thermostat on a general Riemannian Cauchy slice (Σ, g) via Levi-Civita covariant parallel transport along geodesics, incorporating the non-conservative 2.5PN Burke-Thorne quadrupole radiation reaction. We prove that the covariant Kuramoto order parameter R_g(t) ∈ [0, 1] exhibits exponential convergence toward phase synchronization with rate λ_g = K[cos(δ_max^g) − 2γ_0 sin(δ_max^g)] − K_c > 0, rigorously accounting for non-linear geometric frustration cross-terms induced by Riemann connection holonomy. 2. Conservative Non-Separable Symplectic Integrator:We establish an extended phase-space symplectic splitting (following Tao [1]) for the conservative Hamiltonian sector, incorporating velocity-dependent relativistic interactions through conservative 2.5 post-Newtonian (PN) next-to-leading order (NLO) spin-orbit coupling and 2PN spin-spin quadrupole-monopole deformations (C_Q). We explicitly derive the Poisson bracket commutators, the exact drift-kick flows, and the spin-precession equations. 3. Strictly Canonical Dynamic Restraint ω(r_min) and Transverse Bounds:To prevent constraint degradation during relativistic periastron passages while preserving exact canonical symplecticity, we decompose the coordinate-dependent restraint flow into a harmonic rotation and an exact symplectic shear kick generated by ∇_q ω(r_min) ||Z_-||². We prove Theorem 3.4, establishing that the steady-state transverse envelope from the physical constraint manifold C = {q = x, p = y} remains uniformly bounded as O(Δt / ω_0) across all pericenter passages with zero secular energy drift over 10⁷ orbits. 4. 3D Spacetime Cylinder Braid Group B_N, Knots, and DFA:We map multi-body timelike worldlines in the spacetime cylinder M = ℝ × Σ into physical braids in the Artin braid group B_N. We calculate the topological winding numbers W_ij = (1 / 2π) ∮ d arg(q_i − q_j), the Jones polynomial V̂_b(t) under Markov closures, and construct a 5-state Deterministic Finite Automaton (B_N-DFA) that strictly classifies chaotic scattering, binary-single exchanges, hyperbolic ejections, and gravitational-wave coalescences. Extensive numerical experiments in double precision (FP64) verify shadow Hamiltonian conservation (ΔH / H_0 < 10⁻⁸) and establish an order-of-magnitude reduction in constraint violation during close black hole encounters. Keywords: Non-Separable Symplectic Integrators, Post-Newtonian Spin Dynamics, Adaptive Constraint Manifolds, Kuramoto Phase Synchronization, Artin Braid Group, Spacetime Cylinder Knots, Topological Scattering DFA

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Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-17
DOI
https://doi.org/10.5281/zenodo.22817345
Primary Topic
Pulsars and Gravitational Waves Research
Type
preprint
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Phase-Synchronized Trajectory Optimization on Curved Manifolds with High-Order Non-Separable Symplectic Thermostats, Adaptive Manifold Restraints, and 3D Braid-Group Spacetime Knot

AryaArunachalaAnanda Ghulam-e-Shah-e-Unmani, Aghora Abraham Global LLC
Zenodo (CERN European Organization for Nuclear Research)
Pulsars and Gravitational Waves Research
preprint

Phase-Synchronized Trajectory Optimization on Curved Manifolds with High-Order Non-Separable Symplectic Thermostats, Adaptive Manifold Restraints, and 3D Braid-Group Spacetime Knot

AryaArunachalaAnanda Ghulam-e-Shah-e-Unmani, Aghora Abraham Global LLC
preprint en

Abstract

Abstract We formulate and prove Version 4.0 of the unified geometric, thermodynamic, and topological framework governing relativistic N-body systems evolving on pseudo-Riemannian spacetimes. This work rigorously resolves fundamental challenges across relativistic astrophysics, geometric integration, and mathematical mechanics: 1. Curved-Manifold Langevin Thermostat and Frustrated Kuramoto Dynamics:We formulate the symmetric BAOAB Langevin thermostat on a general Riemannian Cauchy slice (Σ, g) via Levi-Civita covariant parallel transport along geodesics, incorporating the non-conservative 2.5PN Burke-Thorne quadrupole radiation reaction. We prove that the covariant Kuramoto order parameter R_g(t) ∈ [0, 1] exhibits exponential convergence toward phase synchronization with rate λ_g = K[cos(δ_max^g) − 2γ_0 sin(δ_max^g)] − K_c > 0, rigorously accounting for non-linear geometric frustration cross-terms induced by Riemann connection holonomy. 2. Conservative Non-Separable Symplectic Integrator:We establish an extended phase-space symplectic splitting (following Tao [1]) for the conservative Hamiltonian sector, incorporating velocity-dependent relativistic interactions through conservative 2.5 post-Newtonian (PN) next-to-leading order (NLO) spin-orbit coupling and 2PN spin-spin quadrupole-monopole deformations (C_Q). We explicitly derive the Poisson bracket commutators, the exact drift-kick flows, and the spin-precession equations. 3. Strictly Canonical Dynamic Restraint ω(r_min) and Transverse Bounds:To prevent constraint degradation during relativistic periastron passages while preserving exact canonical symplecticity, we decompose the coordinate-dependent restraint flow into a harmonic rotation and an exact symplectic shear kick generated by ∇_q ω(r_min) ||Z_-||². We prove Theorem 3.4, establishing that the steady-state transverse envelope from the physical constraint manifold C = {q = x, p = y} remains uniformly bounded as O(Δt / ω_0) across all pericenter passages with zero secular energy drift over 10⁷ orbits. 4. 3D Spacetime Cylinder Braid Group B_N, Knots, and DFA:We map multi-body timelike worldlines in the spacetime cylinder M = ℝ × Σ into physical braids in the Artin braid group B_N. We calculate the topological winding numbers W_ij = (1 / 2π) ∮ d arg(q_i − q_j), the Jones polynomial V̂_b(t) under Markov closures, and construct a 5-state Deterministic Finite Automaton (B_N-DFA) that strictly classifies chaotic scattering, binary-single exchanges, hyperbolic ejections, and gravitational-wave coalescences. Extensive numerical experiments in double precision (FP64) verify shadow Hamiltonian conservation (ΔH / H_0 < 10⁻⁸) and establish an order-of-magnitude reduction in constraint violation during close black hole encounters. Keywords: Non-Separable Symplectic Integrators, Post-Newtonian Spin Dynamics, Adaptive Constraint Manifolds, Kuramoto Phase Synchronization, Artin Braid Group, Spacetime Cylinder Knots, Topological Scattering DFA

Zenodo (CERN European Organization for Nuclear Research)
Bharat Heavy Electricals (India) (IN), Abraham Baldwin Agricultural College (US), Yadanabon University (MM)
Sustainable cities and communities
Pulsars and Gravitational Waves Research
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