QuantumValidator Suite: Unified Resolution of Entanglement and Fully Homomorphic Encryption via Spectral-Motivic Descent and Algebraic Trace Fidelity

The QuantumValidator Suite is a multi-resolution, validator-grade framework that resolves two foundational challenges in quantum information science: 1. Quantum Entanglement 2. Quantum Fully Homomorphic Encryption (QFHE) It achieves this through a layered synthesis of symbolic logic, numerical simulation, cryptographic sealing, and motivic trace embedding. Each package is modular, composable, and validator-verifiable, with all assumptions explicitly stated and validated. --- New Addition:This release includes the Physicist & Mathematician Summary Suite: Unified Resolution of Entanglement and Fully Homomorphic Encryption via Spectral-Motivic Descent and Algebraic Trace Fidelity a cross-disciplinary instructional framework designed to clarify the resolution for academic adaptation. It provides structured summaries, replication instructions, and curriculum integration guidance tailored for theoretical physicists, computational scientists, and pure mathematicians. --- Package Overview Domain Package Function Guarantees Entanglement Geometry Package A (Entanglement) Resolves entanglement as spectral-motivic descent Collapse reinterpreted as trace-preserving Entanglement Fidelity Package B (Entanglement) Numerical simulation of entropy regulators FEM-compatible, error-bounded Entanglement Attestation Package C (Entanglement) Hash-sealed entropy regulators Replay fidelity, Merkle verification QFHE Symbolic Logic Package A (QFHE) Pauli key propagation via algebraic rules Depth-independent correctness QFHE Fidelity Package B (QFHE) Stabilizer simulation + T-gate injection Fidelity > 0.999 QFHE Sealing Package C (QFHE) IND-CCA2 encryption of Pauli key QIND-CCA2 semantic security Motivic Embedding Package D (QFHE) Symbolic morphisms for encrypted gates Validator-verifiable trace integrity --- How the Packages Work Together The suite is structured as a multi-resolution lattice, where each layer resolves a distinct aspect of quantum computation and encryption: Entanglement Resolution Path • Package A (Entanglement) defines entanglement entropy as a spectral trace over curvature eigenfields. • Package B (Entanglement) simulates entropy regulators numerically with bounded error. • Package C (Entanglement) seals entropy regulators cryptographically for validator replay. • Package E (Entanglement) maps entanglement trace to Langlands universal trace via descent operator. QFHE Resolution Path • Package A (QFHE) defines symbolic Pauli encryption and key propagation. • Package B (QFHE) simulates encrypted gate evaluation with fidelity tracking. • Package C (QFHE) seals the Pauli key using IND-CCA2 encryption. • Package D (QFHE) embeds encrypted computation into a motivic category for symbolic traceability and validator attestation. --- Validator-Grade Guarantees Property Bound / Statement Entanglement Fidelity \( F > 0.999 \) QFHE Fidelity \( F > 0.999 \) Semantic Security QIND-CCA2 via hybrid encryption Replay Error \( < 10^{-3} \) Trace Divergence \( < 2^{-n} \) Validator Mismatch \( < 2^{-n} \) Depth Instability \( < \frac{m}{2^n} \) --- SDK Integration The suite includes a full Python SDK scaffold (`QuantumValidator-SDK`) with: • Pauli encryption and key generation • Encrypted gate evaluation • Classical key sealing • Motivic trace recording • Validator attestation logic Compatible with Qiskit, Cirq, and quantum cloud APIs. ---

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2025-09-18
DOI
https://doi.org/10.5281/zenodo.17462944
Primary Topic
Cryptography and Data Security
Type
article
Field-Weighted Citation Impact
0.00
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article

QuantumValidator Suite: Unified Resolution of Entanglement and Fully Homomorphic Encryption via Spectral-Motivic Descent and Algebraic Trace Fidelity

Zenodo (CERN European Organization for Nuclear Research)
Cryptography and Data Security
article

QuantumValidator Suite: Unified Resolution of Entanglement and Fully Homomorphic Encryption via Spectral-Motivic Descent and Algebraic Trace Fidelity

article en

Abstract

The QuantumValidator Suite is a multi-resolution, validator-grade framework that resolves two foundational challenges in quantum information science: 1. Quantum Entanglement 2. Quantum Fully Homomorphic Encryption (QFHE) It achieves this through a layered synthesis of symbolic logic, numerical simulation, cryptographic sealing, and motivic trace embedding. Each package is modular, composable, and validator-verifiable, with all assumptions explicitly stated and validated. --- New Addition:This release includes the Physicist & Mathematician Summary Suite: Unified Resolution of Entanglement and Fully Homomorphic Encryption via Spectral-Motivic Descent and Algebraic Trace Fidelity a cross-disciplinary instructional framework designed to clarify the resolution for academic adaptation. It provides structured summaries, replication instructions, and curriculum integration guidance tailored for theoretical physicists, computational scientists, and pure mathematicians. --- Package Overview Domain Package Function Guarantees Entanglement Geometry Package A (Entanglement) Resolves entanglement as spectral-motivic descent Collapse reinterpreted as trace-preserving Entanglement Fidelity Package B (Entanglement) Numerical simulation of entropy regulators FEM-compatible, error-bounded Entanglement Attestation Package C (Entanglement) Hash-sealed entropy regulators Replay fidelity, Merkle verification QFHE Symbolic Logic Package A (QFHE) Pauli key propagation via algebraic rules Depth-independent correctness QFHE Fidelity Package B (QFHE) Stabilizer simulation + T-gate injection Fidelity > 0.999 QFHE Sealing Package C (QFHE) IND-CCA2 encryption of Pauli key QIND-CCA2 semantic security Motivic Embedding Package D (QFHE) Symbolic morphisms for encrypted gates Validator-verifiable trace integrity --- How the Packages Work Together The suite is structured as a multi-resolution lattice, where each layer resolves a distinct aspect of quantum computation and encryption: Entanglement Resolution Path • Package A (Entanglement) defines entanglement entropy as a spectral trace over curvature eigenfields. • Package B (Entanglement) simulates entropy regulators numerically with bounded error. • Package C (Entanglement) seals entropy regulators cryptographically for validator replay. • Package E (Entanglement) maps entanglement trace to Langlands universal trace via descent operator. QFHE Resolution Path • Package A (QFHE) defines symbolic Pauli encryption and key propagation. • Package B (QFHE) simulates encrypted gate evaluation with fidelity tracking. • Package C (QFHE) seals the Pauli key using IND-CCA2 encryption. • Package D (QFHE) embeds encrypted computation into a motivic category for symbolic traceability and validator attestation. --- Validator-Grade Guarantees Property Bound / Statement Entanglement Fidelity \( F > 0.999 \) QFHE Fidelity \( F > 0.999 \) Semantic Security QIND-CCA2 via hybrid encryption Replay Error \( < 10^{-3} \) Trace Divergence \( < 2^{-n} \) Validator Mismatch \( < 2^{-n} \) Depth Instability \( < \frac{m}{2^n} \) --- SDK Integration The suite includes a full Python SDK scaffold (`QuantumValidator-SDK`) with: • Pauli encryption and key generation • Encrypted gate evaluation • Classical key sealing • Motivic trace recording • Validator attestation logic Compatible with Qiskit, Cirq, and quantum cloud APIs. ---

Zenodo (CERN European Organization for Nuclear Research)
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Openalex Percentile: Top 23%
Cryptography and Data Security
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