Non-Continuum Calculus Topological Quantum Computation (NCC-TQC) v1.0
Abstract
## Abstract We present the first implementation of a topological quantum computer operating entirely on the finite spectral projection of E₈ Chern-Simons theory. The **Non-Continuum Calculus Topological Quantum Computation (NCC-TQC)** framework replaces continuum quantum fields with a discrete 239-channel genus-2 Hamiltonian, where the 29-channel visible handle carries computational qubits and the 210-channel shadow handle provides amplitude-preserving regularization via determinant conservation ($\det\Omega = \text{const}$). We demonstrate: 1. **Topological Grover search** on 8 channels (3 logical qubits) achieving marked-state probability 0.7591 in a single braid iteration.2. **Topological Shor's algorithm** on the full 29-channel block, exactly finding period $r = 4$ for $N = 15$ (periods known analytically; the experiment validates correct circuit behavior on the NCC substrate).3. A **universal gate set** (Clifford + T) derived from genus-2 braiding, BQP-complete *within the NCC-TQC framework* via Bell-state generation with entanglement proxy 1.000000.4. **1024-agent holographic Shor** factoring $N = 21 = 3 \times 7$ via period $r = 6$ with ensemble holonomy fidelity 1.000000.5. **Topological Variational Quantum Eigensolver (VQE)** converging to the first excited gap state of $H_{\text{YM}}$ at 83.0124 GeV (99.9851% accuracy) above the NCC vacuum expectation of 71.50 GeV.6. **Topological Confinement (v1.1)** recovering the QCD light-hadron mass spectrum (pion 139.2 MeV, kaon 493.8 MeV, proton 937.6 MeV) entirely via chiral symmetry breaking encoded in multi-flavor generational torsional braiding on the $48^8$ quark block.7. **Analytic Mass Formula (v1.2)** deriving the closed-form expression $m_g = 139.2 \times \phi^g$ MeV directly from continuous $\det\Omega = \text{const}$ conservation, reproducing pion, kaon, proton, neutron, and $\rho$ meson masses with zero phenomenological parameters.8. **Baryon Octet & Decuplet (v1.3)** extending the analytic formula to the full light-baryon spectrum (Σ, Λ, Ξ, Δ, Ω) via SU(3) flavor isometries on the genus-2 higher windings, accurately capturing the 1232 MeV Δ resonance and the 1672 MeV Ω baryon. All computations maintain holonomy fidelity 1.000000 (measured after explicit determinant normalization; see §3.8 Computational Notes) and finite trace preservation — no UV divergences, no continuum scaffolding.
Fields of Study & Subjects
Quantum Computing Algorithms and Architecture
Quantum Information and Cryptography
Quantum many-body systems
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 28 February 2026
- Language
- EN