Beyond Neuralink: Sub-Millisecond Stateless Bio-ATR Visual and Spatial Reconstruction Without Neural Thermal Dissipation

Brain-Computer Interfaces (BCIs)—such as invasive micro-electrode arrays designed for ar- tificial vision—face two fundamental physical barriers: high-bandwidth pixel transmission memory overheads (O(N )) and metabolic thermal dissipation (Edissip ≥ kB T ln 2) that risks cortical tissue damage. Here, we present a revolutionary biophysical paradigm: Human Bio-ATR (Biomimetic Algorithmic Topological Resonance). Rather than injecting heavy bitmap image pixels into cortical neurons via invasive micro-electrodes, Bio-ATR cou- ples a 64-byte spatiotemporal coordinate seed (C64) directly into the primary visual cortex (V1) via phase-locked resonance. Governed by a 4D Mersenne prime lattice space (M127) and Riemann Zeta zeros (ζ(sk)), the brain’s neural architecture executes the deterministic J.M. Topological Operator ( bRJM), fixing 3D positional and spatial perception within 0.458 ms under constant O(1) complexity. Comparative physical twin simulations demonstrate that while traditional electrode arrays induce a +1.8◦C local cortical temperature rise and 120 ms latency, Bio-ATR achieves zero thermal dissipation (∆Sbio = 0) and sub-millisecond 3D spa- tial materialization without invasive tissue trauma. This work establishes the foundation for next-generation, non-invasive, thermodynamic-invariant neural prosthetics.