Abstract
This paper builds on our previous work on "Apophenic/PROVIDENCE Machines", where we introduced the scalarization viewpoint: when high-dimensional evidence is compressed into a low-dimensional readout, distinct situations can become operationally indistinguishable, making machine "apophenia" a structural possibility. Here we generalize that idea into a mechanism-level template for chunked, resource-bounded cognition under feedback, with an explicit focus on when internal coherence can decouple from reality-tracking. We formalize a geometric core: chunk embeddings live in a finite-dimensional Hilbert space, context is summarized by a normalized direction (a "narrative ray"), and selection is biased toward alignment with that ray. We then provide a conceptual equivalence to generalized Bayesian retrieval: the tilted selection rule is exactly a Gibbs-posterior (generalized-Bayes) update, yielding a generalized Bayesian RAG view in which the "query" is the evolving ray direction. The analysis also pinpoints where the Bayesian analogy breaks: projection dominance (one-dimensional folding), posterior collapse to a point representative (mean-field or single-sample propagation), and endogenous query dynamics via aggregation and normalization. Iterative self-consistency pressure yields contractive dynamics that suppress drift-like components while damping orthogonal alternatives below an operational legibility threshold. In this regime, frame switches cease to be routine deliberative options and become rare-event transitions (hitting-time/escape problems) from metastable basins. As an illustrative special case, we instantiate the template in a mode-dependent three-state agent (wake/deep/REM): when external anchoring is largely suppressed but internal iteration continues, dream-like dynamics arise as transient apophenic stabilization of recombined stored content rather than as reliable new factual evidence. We separate internal and external viewpoints using information filtrations: when observations are policy-dependent and independent anchors are inaccessible, an agent need not be able to falsify its own active frame from within, while an outside observer with a richer filtration can detect persistent channel discrepancies via independent records. A central implication is exponential leverage. In metastable settings, exit hazards and exit probabilities depend exponentially on effective barrier-to-noise ratios (Kramers/large-deviation scaling), while calendar-time survival is governed by the integrated hazard time. We distinguish the typically hard-to-forecast identity/timing of specific exit triggers from the more diagnosable onset of fragility (weakening restoring margins consistent with critical slowing down). We extend the framework from dyadic inside-outside asymmetries to multi-agent communication: when communication becomes endogenous evidence, shared anchors can stabilize corrigibility while compressing alternatives, whereas anchor mismatch and low overlap can be exponentially amplified into fragmentation via trust-flip coupling, mean-field tipping, and metastable lock-in. Finally, we discuss constructive interventions (anchoring injection, auditing, exploration, and legibility-floor reduction) alongside the dual-use risk of evidence-channel control, emphasizing that "cooling-down" can improve detectability and timely anchoring without necessarily amplifying diffusive exits, and that these regime parameters are safety-critical and require governance in high-stakes deployments.
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Thomas Richter.
Reality Distortions in Finite Cognitive Systems: A Generalized Bayesian Stochastic Template for Minds, Machines, Markets, and Societies. Authorea. 04 February 2026.
DOI: https://doi.org/10.22541/au.177023495.54959943/v1
DOI: https://doi.org/10.22541/au.177023495.54959943/v1
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