This paper introduces the first controlled temporal organization layer for structured near-critical bands in the HγC framework. Earlier work established that the coarse-graining descriptor γ may be dynamically self-selected into a finite near-critical band, that this band should be treated as a structured mesoscopic distribution rather than a featureless interval, and that effective time becomes meaningful only after sufficient mesoscopic stabilization. W2 takes the next justified step after these results. Once structured near-critical bands and emergent effective time have both been admitted, the paper asks how such bands are occupied, how that occupation persists, and how it may migrate over effective time. The morphology descriptors of structured near-critical bands are promoted from static diagnostics to slowly varying mesoscopic state variables, allowing occupied band structure to be described in terms of persistence, migration, lag, and retained organization. The scope of the paper is deliberately limited. W2 does not construct a microscopic kinetic theory, a path-summing kernel, a Schrödinger-type equation, or a QFT-type fluctuation formalism. Instead, it establishes temporal organization as the minimal internal framework in which structured near-critical bands may persist, drift, and retain history over emergent effective time while preserving near-critical regime identity.
Hans Van Cools (Fri,) studied this question.