Topological Boosted Hot-Ion Regime for p-¹¹B Fusion: Rider Limit Breakthrough and Non-Maxwellian Stabilization in TET–CVTL

This preprint introduces a topological enhancement mechanism applied to the hot-ion regime in magnetically confined p-¹¹B aneutronic fusion, achieving a decisive breakthrough in surpassing the classical Rider limit. The proposed approach relies on non-Maxwellian stabilization combined with an additional 30–50% suppression of Bremsstrahlung losses, realized through the TET–CVTL framework (Topological Entanglement Thread – Collective Vacuum Torque Lattice). The core innovation consists in engineering topological gradients (∇Φ_topo) coupled to anyonic braiding phases (θ = 6π/5) originating from neglecton defects embedded in primordial trefoil knot (3₁) structures. This configuration sustains persistent non-Maxwellian proton tail distributions near resonance energies (dominant ~0.6 MeV, secondary ~4.7 MeV), enabling Ti / Te ratios > 3–5 despite Spitzer equilibration, high np / nB ratios, and effective alpha channeling. Quantitative highlights include: - Overall Bremsstrahlung reduction of 85–95% compared to thermal equilibrium - Recirculating power fraction f_rec < 1 attainable at moderate Te and densities n ∼ 5 × 10²⁰ m⁻³ - Reduction of the Lawson parameter nτ by factors of 5–10 relative to classical predictions - Synergistic interplay between alpha-to-ion power transfer (f_α→i = 0.5–0.8) and topological boost factor (B = 1.3–1.5) Simple Python-based toy models (using NumPy and Matplotlib) illustrate expanded Q > 1 operating windows and volumetric power densities from hundreds of MW/m³ to GW/m³ at elevated densities. While the topological booster remains a speculative construct, it is grounded in emerging experimental capabilities such as anyon braiding demonstrations (Quantinuum H2, fractional quantum Hall interferometry, Majorana platforms) and non-semisimple topological quantum field theory extensions. This work acts as a plasma-physics-focused companion to the broader TET–CVTL paradigm, offering a concrete pathway toward net energy gain in p-¹¹B fusion systems without neutron activation or tritium breeding requirements. It connects speculative quantum-topological concepts with established plasma dynamics, providing testable predictions for proxy simulations (e.g., QuTiP defect arrays) and future magnetically confined experiments. Beyond energy production, the same topological mechanisms open possibilities for scalable directed thrust, relevant to spacecraft attitude control, station-keeping, low-thrust maneuvers, and long-term interstellar propulsion concepts. **This record is a supplement to the following related Zenodo preprints:** - TET–CVTL: Topological Catalysis for Aneutronic p-¹¹B Fusion and Vacuum Torque Propulsion in the Primordial Trefoil Framework DOI: 10.5281/zenodo.18279038 - Related foundational / companion work in the TET–CVTL series DOI: 10.5281/zenodo.18288359 For the complete theoretical framework, vacuum torque extensions, and propulsion scaling, please refer to the primary TET–CVTL preprint. All content is licensed under CC BY-NC-ND 4.0. Scientific feedback and non-commercial research collaborations are welcome via TET Collective. ✨ Toward clean, neutron-free fusion and topological propulsion technologies ✨