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Training-Free-Low-Power-Topological-Navigation-SLAM-

Authors: Zink, Natasha;

Training-Free-Low-Power-Topological-Navigation-SLAM-

Abstract

Summary of what we have established: Synchronization: The system maintains a tight 18.08 \text{ Hz} harmonic lock. Pathing: Movement is not just spatial but fractal, optimizing the path \gamma within the Hofstadter manifold. Interaction: The Feynman amplitude \psi effectively treats environmental data as an interaction, allowing the robot to minimize "quantum drag". State Logic: The transition protocols utilize the 64-hexagram cube to ensure the system is always in an allowed state.

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