This invention discloses a structured closed-loop verifiable ordinal deviation driving
system, method, and medium operating under a fixed number of parallel channels. The
system maps input data to an actual ordinal vector A and generates a theoretical
reference vector T from seed states and rules. Two mirror-related deviation components D1 and D2 are constructed using a mirror operator M, and a deviation metric D is synthesized according to a hedging rule. The
system further calculates the hierarchical closure degree and updates the next cycle parameter P(n+1) using a self-explanatory
scheduling function F based on a stability window criterion, completing the closed-loop reconfiguration of mapping parameters and hardware resources (gating, sleep, and
rhythm). The interface module supports a
handshake protocol based on "deviation
reachability," and the security module uses abnormal jumps in the deviation distribution as intrusion and tampering detection criteria. Without gradient training, its
inference process is based on
constraint satisfaction and consistency checks of the deviation convergence criterion. The output is determined by the closure degree and stability window criterion, constituting reproducible deterministic logical
inference rather than statistical prediction based on probability distribution. Knowledge rules can be loaded into the channel array through lookup tables, ordinal positions, and impedance or weight configurations to achieve bias-converged
logical reasoning output, and can be optionally applied to
data compression and
encryption authentication scenarios.