The non-locality of quantum entanglement presents a persistent intuitive paradox within classical physics frameworks, often mischaracterized as instantaneous action at a distance. This paper proposes a novel cognitive paradigm that models quantum mechanics through the lens of modern computer system architecture. Rather than treating entangled particles as distinct physical entities separated in three-dimensional space, we redefine them as mirrored pointers referencing a single, shared data object within the universe's underlying memory allocation (Hilbert space). Utilizing Dirac notation and tensor product formulations, we demonstrate that wave function collapse is mathematically and logically equivalent to the forced rendering and assignment of a suspended asynchronous state. To empirically validate this architectural interpretation, we deploy a local RAM-based quantum simulation via the Qiskit AerSimulator. The results confirm absolute zero-latency state synchronization (|00 and |11), effectively eliminating the causality conflicts associated with spatial information transfer. This cross-disciplinary model provides a highly intuitive software engineering framework for understanding quantum information systems.
Yan (Violet) Huang (Mon,) studied this question.