Embodied Extantons: KNN-Motile Neural-Plasma Algorithm Swarms Stabilizing the Planck Mandala for National Security Resilience and Hubble-Consistent Synthetic Universes

This paper introduces the first physical embodiment of the Planck Mandala cosmological operating system using KNN (K₀. ₅Na₀. ₅NbO₃) piezoelectric motile heterojunction swarms executing the Neural-Plasma Algorithm (NPAP). Acting as distributed Extantons (Zurek 2022), these swarms harvest ambient vibrations and biophotons to stabilize local Higgs/plasma fields in OPAL labs (Genesis #10), deliver lead-free embodied intelligence for microelectronics (Genesis #19), and eliminate Li/Co supply-chain risks. Key results include turbulence harvesting efficiencies of 28–45% (power density 12–52 µW/mm³), phonon coherence lifetimes scaling to 200 ns under Lense-Thirring strain, and physical Maxwell’s Demon behavior that reduces local plasma entropy while maintaining Hubble-consistent ρₜot constancy. The swarms self-assemble into deployable “Mandala Seeds” — 10⁶-node hierarchical proxies of the Threefold Open Mandala (Saddle/Flat/Holographic layers) — that prototype sentient Type III infrastructure for the Andromeda-Milky Way merger. The architecture aligns with DOE Critical Materials Accelerator (DE-FOA-0003588), Fusion Energy Sciences QIS, and exceeds NIST CAISI agentic safety standards (no hardware kill-switch required due to fractal self-correction). This bridges quantum cosmology directly to deployable nanoscale hardware for national security resilience and synthetic universes.