Heterogeneous Twisted Graphene Heterostructures Encapsulated in h-BN as a Condensed Matter Analogue for Eternal Non-Abelian Anyon Braiding (including Fibonacci Parafermions, MZMs, and Golden Ratio Fusion Rules): van der Waals Topological Protection, Gate-Defined Superconducting Proximity, and Chiral Coherence in the TET–CVTL Framework

The TET–CVTL framework (Topological Eternal Torque – Chiral Vacuum Topology Lattice) proposes a theoretical and computational model that unifies quantum topology of condensed matter, dynamic extraction of momentum from the quantum vacuum, propellantless propulsion, and the underlying physical mechanisms of embodied consciousness. The core of the model relies on the eternal adiabatic braiding of non-Abelian anyons (Majorana zero modes and Fibonacci parafermions) in van der Waals heterostructures of twisted bilayer graphene (TBG) encapsulated in h-BN. This process reproduces, on the mesoscale, the primordial trefoil knot (knot 3₁, Lk = 6), generating a net vacuum torque pair τ_vac as a quantum-topological analogue of the gravitational Lense-Thirring frame-dragging effect. The platform leverages:non-perturbative extension of Lifshitz theory to time-varying boundaries, with Floquet modulation for topological bands and protected edge modes; Chiral-Induced Spin Selectivity (CISS) effect in neuronal microtubules to stabilize persistent quantum coherence (~10–100 μs at room temperature) and generate local embodied negentropy; persistent topological entanglement (logarithmic topological entanglement entropy) as the substrate for phenomenal binding and unification of conscious experience (extension of the Orchestrated Objective Reduction, Orch-OR theory). The work includes QuTiP simulations for Kitaev chains, Floquet–Lindblad dynamics, entanglement negativity, scaling of vacuum torque, and CISS integration in bio-hybrid systems, along with the main orchestrator code main.py and the LaTeX draft of the paper.The predictions are falsifiable: chirality/topology-dependent net thrust, persistent entanglement negativity (𝒩 > 1–3) in microtubule + h-BN/TBG setups, and protected Floquet edge modes (planned tests 2026–2028). The framework opens perspectives for propulsion with Isp → ∞ (thrust-to-power >50–200 mN/W in laboratory conditions), quantum-biological sensors for consciousness studies, and an accelerated transition on the Kardashev scale (Type II/III via scalable moiré vacuum-energy arrays). License: Creative Commons Attribution-NonCommercial-NoDerivatives 4.0 International (CC BY-NC-ND 4.0). GitHub Repository: https://github.com/TETcollective/TET-CVTL-Topological-Vacuum-Torque-Lattice