UED Layered Architecture: From Ripple–Resolution Ontology to Alignment Completion and Resolution-Aware Engineering

This work presents the UED Layered Architecture, a systematic framework organizing Universal Energy Dynamics (UED) into three non-overlapping yet coherent layers: a principle layer defining pre-resolution ontology, a mathematical completion layer formalized through Alignment Threshold Time (ATT), and an engineering layer translating foundational insight into practical system design. The framework addresses long-standing conceptual difficulties in quantum mechanics—including wave–particle duality, collapse, randomness, and decoherence—by identifying a common root cause: premature attribution of physical properties before resolution. In UED, unresolved ripple tension propagates within a structured vacuum, while physical properties such as energy, particles, and outcomes appear only at resolution. The Schrödinger equation is interpreted as an alignment-conditional articulation that remains relevant only while alignment is incomplete. This paper complements the author’s earlier work, “Alignment Threshold Time (ATT): Completing the Wave Function Through Observer–Field Alignment” (DOI: https://zenodo.org/records/18141932), which provides the mathematical formalism for outcome completion without modifying standard quantum mechanics. The present manuscript offers a higher-level architectural synthesis, clarifying how ontology, formalism, and engineering application relate without redundancy. Beyond foundational clarity, the architecture provides direct insight into engineering challenges in quantum technologies. Decoherence, noise, and scalability limits are reframed as consequences of uncontrolled or premature resolution rather than intrinsic fragility of quantum states. The framework is applicable to quantum computing, quantum sensing, photonic systems, and other field-sensitive technologies. This work is conceptual in nature, preserves standard quantum formalism, avoids metaphysical assumptions, and is intended as a unifying architectural reference for researchers working across quantum foundations and applied quantum engineering.