Horizon-Locked Unification (HLU) Model

The Locking Paradigm: Time, Horizon, and Emergence From Quantum Collapse to Galactic Structure Author: ZARKAMAffiliation: Independent Researcher Abstract This paper proposes a unifying conceptual framework, referred to as the Locking Principle, capable of coherently describing phenomena across widely separated physical scales—from quantum wave function collapse to galactic structure formation. The central claim is that physical systems undergo dynamic locking when critical relational thresholds are reached, leading to an effective freezing of degrees of freedom and the emergence of new, scale-dependent laws. Within this paradigm, quantum collapse, horizon-locked scalar fields, and cored galactic halo profiles are interpreted as distinct manifestations of a single underlying mechanism. The locking paradigm reduces the need for ad hoc assumptions and offers a conceptual bridge between quantum mechanics, gravity, and cosmology. 1. Introduction One of the persistent challenges in theoretical physics is the conceptual disconnection between quantum mechanics and large-scale cosmology. Quantum theory struggles with the measurement problem and wave function collapse, while cosmology confronts dark matter, dark energy, and the origin of large-scale structure. Attempts at unification often rely on heavy mathematical formalism or introduce additional hypothetical entities. This work advances an alternative route: a unifying principle-based framework centered on the concept of locking. We argue that seemingly unrelated phenomena across scales can be understood as outcomes of the same relational mechanism, activated when systems encounter critical informational, dynamical, or horizon-based thresholds. 2. The Locking Principle The locking principle may be stated succinctly: When a physical system reaches a critical relational threshold, a subset of its degrees of freedom becomes dynamically locked, and the system’s effective behavior is governed by emergent, coarse-grained variables. Locking does not imply absolute stasis. Rather, it denotes a sharp reduction in accessible dynamical pathways, resulting in stable, emergent behavior governed by new effective laws. These laws are scale-dependent and need not reflect the microscopic dynamics from which they arise. 3. Locking and Quantum Wave Function Collapse Within the locking paradigm, wave function collapse is not treated as a fundamental stochastic event, but as the consequence of a system crossing a critical relational threshold. When interaction with an environment, observer, or measurement apparatus exceeds this threshold, quantum phase relations become effectively locked. This transition produces a stable classical outcome without requiring explicit collapse postulates. Time, in this context, is modeled as pixel-time: a discrete sequence of relational updates that only acquire meaning through information exchange. Quantum collapse thus emerges as a form of temporal–informational locking. 4. Horizon Locking and Emergent Gravity At gravitational scales, horizons—whether black hole event horizons or cosmological horizons—act as natural locking boundaries. Scalar fields coupled to such horizons may experience horizon-induced locking, wherein their dynamics freeze near the horizon and generate effective gravitational behavior. This mechanism provides a natural pathway toward emergent gravity, in which gravitational dynamics arise from informational and horizon constraints rather than from a fundamental force carrier. In this view, gravity is an emergent phenomenon rooted in relational locking at causal boundaries. 5. Galactic Structure and Cored Halo Profiles A longstanding difficulty in standard cosmology is the explanation of cored density profiles observed in galactic halos. Within the locking framework, these cores arise naturally when effective fields reach density-driven locking thresholds. Instead of collapsing into cusped singularities, the system enters a locked phase characterized by suppressed degrees of freedom and a smooth, stable density distribution. This explanation does not require new dark matter particles or arbitrary modifications of gravity. 6. Comparative Manifestations of Locking Scale Locking Threshold Emergent Phenomenon Quantum Informational / relational Wave function collapse Gravitational Horizons Emergent gravity Galactic Critical density Cored halo profiles 7. Observational and Experimental Implications The locking paradigm yields testable consequences: Subtle deviations from standard dynamics near gravitational horizons Correlations between galactic core structures and their cosmic environments Non-classical signatures in controlled quantum measurement processes These signatures offer potential avenues for falsification and refinement of the framework. 8. Conclusion The locking principle provides a unified conceptual language for phenomena spanning quantum mechanics, gravity, and cosmology. By focusing on relational thresholds and the effective freezing of degrees of freedom, this framework enables unification without introducing additional speculative entities. Within this paradigm, time, space, and gravity emerge not as fundamental primitives, but as consequences of successive locking processes. The locking paradigm offers a promising direction for future research into the foundations of physical law and the emergence of structure across scales.