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Technical Physics

The collapse paradigm : a light amplification experiment proposed

Artur Szczepański

Published Jan 1, 1998• 0 citations
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Modern quantum information theory assumes that absolute security and computational advantage must emerge from the controlled amplification of microscopic uncertainty. This assumption has culminated in the recent ETH Zurich randomness amplification experiment, where cryptographic security is obtained through Bell certified randomness generated by cryogenic superconducting qubits. We argue that this approach represents the final and most refined expression of a deeper legacy paradigm: Computation by Exploration. In this paradigm, a machine explores an enormous state space and relies on probability or filtering to locate useful states. In this manuscript, we present a fundamental alternative: Computation by Admissibility. In this paradigm, the physical state space itself is constrained so that inadmissible states simply cannot exist. By utilizing the deterministic topological projections of the DSM-861 architecture, we demonstrate that security, error correction, memory, and computation are not distinct algorithmic tasks,

•May 29, 2026•0 citations
Modern quantum information theory assumes that absolute security and computational advantage must emerge from the controlled amplification of microscopic uncertainty. This assumption has culminated in the recent ETH Zurich randomness amplification experiment, where cryptographic security is obtained through Bell certified randomness generated by cryogenic superconducting qubits. We argue that this approach represents the final and most refined expression of a deeper legacy paradigm: Computation by Exploration. In this paradigm, a machine explores an enormous state space and relies on probability or filtering to locate useful states. In this manuscript, we present a fundamental alternative: Computation by Admissibility. In this paradigm, the physical state space itself is constrained so that inadmissible states simply cannot exist. By utilizing the deterministic topological projections of the DSM-861 architecture, we demonstrate that security, error correction, memory, and computation are not distinct algorithmic tasks,