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The ENI6MA contribution to the art is not “yet another encryption algorithm,” “yet another signature,” or “yet another proof system.” The contribution is architectural: it reframes what the public artifact is allowed to contain, what the private secret is allowed to be, and what an attacker is allowed to learn from observing an authentication event. In mainstream cryptography, we accept a familiar pattern: publish structured outputs that are verifiable by anyone, and rely on a hardness assumption to argue that the hidden secret cannot be efficiently recovered. That pattern is exceptionally successful, but it has a built-in weakness that shows up in modern attack realities: the artifacts we publish and the transcripts we exchange often remain valuable if stolen, copied, or recorded. Many of today’s breaches are not about inverting RSA or solving discrete logs; they are about copying credentials, replaying session tokens, stealing bearer artifacts, and harvesting logs for later use. ENI6MA’s contribution is that it targets the economics of those attacks by shifting from “security because you can’t compute the inverse” toward “security because the observable does not contain a reusable inverse to compute,” or even more bluntly, “security because there is nothing useful to steal and replay.” For the art, that matters because it addresses the dominant failure pattern in deployed identity systems: credential reuse and replay. A primitive that reduces the value of interception and reduces the value of stored secrets does not compete with conventional cryptography on the same axis as PQ signatures or SNARKs; it competes on an axis closer to “what is the attacker’s fastest win,” and that axis is often operational rather than mathematical. This is why it is orthogonal: post-quantum cryptography upgrades hardness assumptions; ENI6MA reduces reliance on hardness by changing what gets exposed in the first place and by making successful authorizations single-use events that cannot be replayed.