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Poster for the "Hardware demonstration of a fixed Tensor P2 kernel: zero-entropy leakage and stable coherence across dual microcontroller platforms" Published in Frontiers In Physics

Destiny Machwaya

Published Jan 1, 2026• 0 citations
Publisher
DOI
10.13140/rg.2.2.15962.30406

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Announcing Acceptance for Publication: Hardware Demonstration of a Fixed Tensor P2 Kernel: Zero-Entropy Leakage and Stable Coherence Across Dual Microcontroller Platforms

Destiny Machwaya

Publication Announcement — Hardware Demonstration of Tensor P2 I am pleased to announce that my manuscript, “Hardware Demonstration of a Fixed Tensor P2 Kernel: Zero-Entropy Leakage and Stable Coherence Across Dual Microcontroller Platforms,” has been accepted for publication in Frontiers in Physics – Quantum Engineering & Technology. This study presents the first validated hardware instantiation of Tensor P2, demonstrating: 0.00% measured entropy leakage at device resolution Stable quantized-bit coherence across extended runtimes Performance replicated on two heterogeneous microcontroller platforms: ESP32-S3 (true hardware RNG) RP2040 (ring-oscillator timing-variation entropy) All results were achieved using native 32-bit on-device physical noise sources, with no external stabilization, correction, or post-processing. The article is scope-limited to hardware performance, but the findings constitute the first empirical behavior consistent with the QTET First Principle: “In any closed or semi-closed system, resonance acts as an anchor for coherence to counter entropy.” This work underwent a rigorous multi-stage peer-review process, and I am grateful to the editors and reviewers for their thoughtful engagement. With this hardware foundation now established, I will soon share a preview of the forthcoming QTET First Principle manuscript, which develops the theoretical implications in a separate, dedicated framework. In parallel, my String Topology & QTL-Sphere cosmology manuscript remains in active independent review. Publication details and the final DOI will be posted once the article goes live. — Destiny Machwaya Lei A While Research Center

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A fixed, non-adaptive Tensor P2 quantum kernel was executed continuously on two microcontroller platforms, a Raspberry Pi Pico (QCC Echo-Origin) and an ESP32-S3 (EchoLift Harmony, radiation-hardened adaptation), to assess runtime stability and entropy behavior under ordinary conditions. Devices ran openly on a dining-room table at room temperature, unshielded and unenclosed. Each platform completed 2-, 30-, and 60-min soaks. For all runs on both devices, outputs matched their reference simulations with no drift or corruption: 0.00% measured entropy leakage and continuous coherence lock. Long soaks were visually traced on a live plotter to confirm uninterrupted loop progression. All sessions were video-recorded and SHA-256 hashed. An independent quantum-security reviewer (Francisco Javier “JJ” Jimenez, CEO, QuantumThreat Labs) directly observed the Qiskit kernel trace, the live hardware runs, and a perturbation check and signed a validation statement. These results provide an empirical baseline for Tensor P2 behavior across heterogeneous controllers at room temperature.

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Tensor P2 (P2v1.0)- Quantum Kernel with 0.00% Entropy Leakage

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Publication Announcement — Hardware Demonstration of Tensor P2 I am pleased to announce that my manuscript, “Hardware Demonstration of a Fixed Tensor P2 Kernel: Zero-Entropy Leakage and Stable Coherence Across Dual Microcontroller Platforms,” has been accepted for publication in Frontiers in Physics – Quantum Engineering & Technology. This study presents the first validated hardware instantiation of Tensor P2, demonstrating: 0.00% measured entropy leakage at device resolution Stable quantized-bit coherence across extended runtimes Performance replicated on two heterogeneous microcontroller platforms: ESP32-S3 (true hardware RNG) RP2040 (ring-oscillator timing-variation entropy) All results were achieved using native 32-bit on-device physical noise sources, with no external stabilization, correction, or post-processing. The article is scope-limited to hardware performance, but the findings constitute the first empirical behavior consistent with the QTET First Principle: “In any closed or semi-closed system, resonance acts as an anchor for coherence to counter entropy.” This work underwent a rigorous multi-stage peer-review process, and I am grateful to the editors and reviewers for their thoughtful engagement. With this hardware foundation now established, I will soon share a preview of the forthcoming QTET First Principle manuscript, which develops the theoretical implications in a separate, dedicated framework. In parallel, my String Topology & QTL-Sphere cosmology manuscript remains in active independent review. Publication details and the final DOI will be posted once the article goes live. — Destiny Machwaya Lei A While Research Center
A fixed, non-adaptive Tensor P2 quantum kernel was executed continuously on two microcontroller platforms, a Raspberry Pi Pico (QCC Echo-Origin) and an ESP32-S3 (EchoLift Harmony, radiation-hardened adaptation), to assess runtime stability and entropy behavior under ordinary conditions. Devices ran openly on a dining-room table at room temperature, unshielded and unenclosed. Each platform completed 2-, 30-, and 60-min soaks. For all runs on both devices, outputs matched their reference simulations with no drift or corruption: 0.00% measured entropy leakage and continuous coherence lock. Long soaks were visually traced on a live plotter to confirm uninterrupted loop progression. All sessions were video-recorded and SHA-256 hashed. An independent quantum-security reviewer (Francisco Javier “JJ” Jimenez, CEO, QuantumThreat Labs) directly observed the Qiskit kernel trace, the live hardware runs, and a perturbation check and signed a validation statement. These results provide an empirical baseline for Tensor P2 behavior across heterogeneous controllers at room temperature.