Zero-Strain Intercalation and Phase Symmetry in Aluminum-Manganese Sulfate (Al-MnSO₄) Battery Systems: A V-QRAM Simulation Study

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1. Verfasser: Kyjovsky, Peter
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Veröffentlicht: Zenodo 2026
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author Kyjovsky, Peter
author_facet Kyjovsky, Peter
contents <p>This technical report presents the discovery of a thermodynamically stable cathode configuration for aluminum-ion (Al-ion) batteries based on manganese sulfate ($MnSO_4$). Utilizing the <strong>V-QRAM</strong> quantum simulation suite (deployed on <strong>AWS Braket</strong> infrastructure), a specific topological equilibrium was identified that eliminates mechanical strain during $Al^{3+}$ ion intercalation.</p> <p><strong>Key Findings:</strong></p> <ul> <li> <p><strong>Zero-Strain Identification:</strong> Discovery of a stable state achieved through a cluster symmetry of .50 in the charged state, effectively preventing lattice pulverization.</p> </li> <li> <p><strong>Lattice Verification:</strong> Structural stability validated using a 55-node Higgs lattice Hamiltonian within a Mackay icosahedron geometry (calibrated at 82.67 GeV).</p> </li> <li> <p><strong>Slipstream Regime:</strong> Proposal for an industrial high-frequency conditioning process (1.3 GHz) utilizing AC Stark Shift to achieve a continuous driving limit, minimizing ground-state noise interaction.</p> </li> </ul> <p>The documentation provides a comprehensive theoretical framework for a next-generation stationary energy storage system. This technology offers 70% higher cost-efficiency than current LFP/NMC benchmarks while ensuring extreme cyclability through topological lattice optimization.</p> <p><code>Aluminum-ion batteries</code>, <code>Manganese Sulfate</code>, <code>V-QRAM</code>, <code>Quantum Simulation</code>, <code>Zero-Strain</code>, <code>Energy Storage</code>, <code>Peter Kyjovský</code>, <code>AWS Braket</code>, <code>Higgs Lattice</code></p>
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id zenodo_https___doi_org_10_5281_zenodo_19069303
institution Zenodo
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publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Zero-Strain Intercalation and Phase Symmetry in Aluminum-Manganese Sulfate (Al-MnSO₄) Battery Systems: A V-QRAM Simulation Study
Kyjovsky, Peter
<p>This technical report presents the discovery of a thermodynamically stable cathode configuration for aluminum-ion (Al-ion) batteries based on manganese sulfate ($MnSO_4$). Utilizing the <strong>V-QRAM</strong> quantum simulation suite (deployed on <strong>AWS Braket</strong> infrastructure), a specific topological equilibrium was identified that eliminates mechanical strain during $Al^{3+}$ ion intercalation.</p> <p><strong>Key Findings:</strong></p> <ul> <li> <p><strong>Zero-Strain Identification:</strong> Discovery of a stable state achieved through a cluster symmetry of .50 in the charged state, effectively preventing lattice pulverization.</p> </li> <li> <p><strong>Lattice Verification:</strong> Structural stability validated using a 55-node Higgs lattice Hamiltonian within a Mackay icosahedron geometry (calibrated at 82.67 GeV).</p> </li> <li> <p><strong>Slipstream Regime:</strong> Proposal for an industrial high-frequency conditioning process (1.3 GHz) utilizing AC Stark Shift to achieve a continuous driving limit, minimizing ground-state noise interaction.</p> </li> </ul> <p>The documentation provides a comprehensive theoretical framework for a next-generation stationary energy storage system. This technology offers 70% higher cost-efficiency than current LFP/NMC benchmarks while ensuring extreme cyclability through topological lattice optimization.</p> <p><code>Aluminum-ion batteries</code>, <code>Manganese Sulfate</code>, <code>V-QRAM</code>, <code>Quantum Simulation</code>, <code>Zero-Strain</code>, <code>Energy Storage</code>, <code>Peter Kyjovský</code>, <code>AWS Braket</code>, <code>Higgs Lattice</code></p>
title Zero-Strain Intercalation and Phase Symmetry in Aluminum-Manganese Sulfate (Al-MnSO₄) Battery Systems: A V-QRAM Simulation Study
url https://doi.org/10.5281/zenodo.19069303