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This theoretical exploration reveals the dynamics of attention regimes in production response, indicating policy implications for effective recovery from traps.
The many models of this programme are one payoff, and the boundary that sorts them into strategic-inattention and active regimes is not a single surface: past a cusp in the production response it bifurcates into a hysteretic band, and it is inside that band—on the productive substrate, at high stakes—that the programme’s dynamic traps live. An atlas (Claim A, the stage) places every model—the foundational observability-gradient equilibrium, the vertical cascade, the rotation dynamic, the single-monitor composition, the observation portfolio, its rotation and coupled extensions—as a point or region in one regime space with coordinates (g, δ, α₀, Δ, Φ, ψ) under one of two gate substrates, sharing one local boundary δ^*(g, ψ); each placement is verified against a direct global-optimum solve. The mechanical result (Claim B) is that δ^* is a single clean boundary only for production response g below a cusp curve gcusp(δ); above it the boundary splits into three sheets—a lower spinodal (which is δ^* itself), a Maxwell global switch, and an upper spinodal—with hysteresis, and a single δ^* mispredicts the global regime by a gap that grows with g and δ. What separates the model families is not which side of a boundary they fall on but the width of the band at their operating stakes: at the weak-production corner (δ = 0) the band is a razor-thin, low-stakes sliver that the programme’s static models—operating far above it—never feel, so they are effectively single-regime; on the productive substrate (δ > 0) the band is wide and rises to the operating stakes, which is exactly where the dynamic (rotation) models sit. The fold is organized like a cusp—one behaviour variable (attention) folding as two controls vary, the production response g and the stake ψ, with the production value δ sliding the pinch—but the pinch is boundary-constrained rather than a textbook interior cusp, so the catastrophe language is used as an analogy (§ 5). Its policy corollary is sharp: inside the band, recovery from the inattention trap requires crossing the lower spinodal, not the Maxwell point—the band’s width is the size of the over-correction a regime redesign must fund.
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Mikio Hanaeda (2026) studied this question.
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