Quantum Causality Model: A Physics-Based Perspective

This paper proposes a simplified quantum causality framework stripped of speculative “lingua field” semantics, focusing purely on physical and mathematical underpinnings. The model assumes that all potential causal trajectories of the universe pre-exist in a superposed vector field, and reality is selectively collapsed through observer interference. Unlike traditional deterministic or probabilistic models, this structure treats the observer not merely as a passive recorder but as an active agent whose structural configuration determines which causal path stabilizes. Through this lens, “reality” becomes a context-sensitive projection—a filtered result of entropic compatibility and informational coherence. The proposed framework incorporates quantum decoherence, structural continuity, and conditional determinism as foundational constraints. Mathematically, it introduces causal path selection governed by entropic stability (ρ) and energy-structure compatibility (Ωi​,χi​). Implications include a reevaluation of time, retrocausality, and the observer’s ontological role in physics.