What question did this study set out to answer?

The aim is to extend the ER=EPR conjecture by framing quantum entanglement as an information-theoretic shared memory reference.

April 13, 2026Open Access

Quantum Entanglement as Shared Memory Reference: An Information-Theoretic Extension of the ER=EPR Conjecture (Paper III)

Key Points

The aim is to extend the ER=EPR conjecture by framing quantum entanglement as an information-theoretic shared memory reference.
Proposing an information-theoretic reinterpretation of the ER=EPR conjecture
Analyzing the accessibility of Einstein-Rosen bridges
Deriving predictions regarding synchronization of information in entangled states
Introduced the concept of access-right constraints within a non-local logic layer
Predicted a minute temporal jitter in synchronized information between entangled states
Demonstrated that entanglement can be viewed as a signature of hardware limitations

Abstract

This paper proposes an information-theoretic extension of the ER=EPR conjecture, reinterpreting quantum entanglement as a shared memory reference. We resolve the non-traversability of Einstein-Rosen bridges by framing it as an access-right constraint within a non-local logic layer. Furthermore, we provide a falsifiable prediction: the synchronization of information between entangled states must exhibit a minute temporal jitter, reflecting the finite processing latency of the underlying computational bus. span₃ (startₛpan) This framework transforms entanglement into a measurable signature of a hardware-constrained reality.

Quantum Entanglement as Shared Memory Reference: An Information-Theoretic Extension of the ER=EPR Conjecture (Paper III)

Key Points

Abstract

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