A Process-Based Framework for Constraint-Bound Physical Change and Opportunity Mapping

This paper presents a process-based framework for reasoning about physical change across scales, organized around constraint, admissible bands of change, and lifecycle continuity. Rather than treating time, spacetime, or singular origin assumptions as primary explanatory primitives, the framework emphasizes conservation and constraint-bound progression as structural requirements governing admissible physical processes. Conservation is defined operationally as the preservation of a physical ledger (e.g., mass–energy, momentum, charge) across transformations, even as form, location, and binding change. Observational facts—including finite galactic lifecycles, the absence of runaway accumulation into irreversible sinks, and the dominance of redistribution over net matter creation—are stated independently of interpretation. The framework introduces the Potential–Operant–Potential (POP/OPO) cycle as a structural constraint: if conservation is fundamental, then persistent dead ends are inadmissible, and apparent breakdowns (e.g., singularities, divergences, loss of predictive representation) must be interpreted as indicators of forced return rather than terminal states. This requirement is shown to be compatible with established physics, including mechanisms such as Hawking radiation, without proposing new microphysical dynamics. A typed negative is made explicit: if persistent dead ends existed, irreversible sinks would accumulate and dominate large-scale structure over cosmic time. The absence of such dominance constitutes a falsifiable structural constraint. The framework does not claim quantitative prediction; it is intentionally descriptive and interpretive, identifying classes of behavior, breakdown regimes, and opportunity bands for inquiry rather than forecasting specific events. Finally, the paper establishes methodological implications for long-lived open problems (including the Millennium problems), arguing that under conservation and POP/OPO such problems must close either by collapse to actuality(proof or counterexample) or by auditable negative space, with breakdowns treated as map-failure signals rather than endpoints. Scope and limitations are stated explicitly. The framework is presented as complementary to standard cosmology and physics, not as a replacement, and identifies empirical instrumentation and quantitative differentiation as future work.