Shows thermodynamic stability of a framework for brain-computer interfaces, indicating potential for lifelong use.
The realization of long-term, closed-loop Brain-Computer Interfaces (BCIs) is fundamentally bottlenecked by the degradation of underlying software architectures over infinite integration horizons. Conventional operating system constraints, UNIX epoch chronometry, IEEE 754 floating-point drift, and vulnerability to Single-Event Upsets (SEUs) render standard neuro-modulation frameworks non-viable for the 80 to 120-year biological lifetime. I present the ZARQA Neuro-Glio-Vascular Modulation (NGVM) Phase 0 Framework, a mathematically immortal Software-in-the-Loop (SITL) "Golden Model." By integrating relativistic hardware chronometry, contiguous SIMD-vectorized extended-precision arithmetic, unimodular Symplectic Byzantine Fault Tolerance, and circadian-coupled ergodic flushing, the architecture completely insulates internal neuro-dynamics from algorithmic decay. Empirical validation over 11.57 million continuous execution cycles demonstrates absolute thermodynamic stability, zero CPU thermal runaway, and perfect biological phase-tracking, establishing a rigorously verified blueprint for my high-level synthesis into bare-metal FPGA and ASIC hardware.
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Mohammad Shahbaaz Ahmed (2026) studied this question.
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