Information revelation through signalling

Pakgohar, Amirpouya

The present study introduces the Quantum of Revelation (QoR), the fundamental discrete unit of divine information, establishing a quantum-inspired framework for analyzing revelation dynamics. Building upon the Wave Model of Revelation, Quranic Assembly Language (QAL), and Divine Information Dynamics (DID), this work formalizes revelation as a superposed, entangled, and phase-coherent informational process. Each QoR is represented as a state vector in a Hilbert space, subject to Hamiltonian dynamics, semantic and energetic operators, and measurement-induced collapse, producing realized insight. Simulations demonstrate interference, entanglement, and time evolution of QoRs, revealing mechanisms for multi-layered understanding, coherent guidance, and cognitive impact. By bridging theology, cognitive science, and quantum information theory, the QoR framework offers a scientifically rigorous and computationally tractable approach to studying divine guidance, while preserving its spiritual and semantic richness. Future work includes experimental validation, complex entangled networks, and integration with neural and affective models.

Vladimir S. Lerner

Raj Kiriti Velicheti, Melih Baştopçu, Tamer Başar

In the classical communication setting, multiple senders having access to the same source of information and transmitting it over channel(s) to a receiver, in general, leads to a decrease in estimation error at the receiver. However, if the objectives of the information providers are different from that of the estimator, this might result in interesting strategic interactions. In this work, we consider a hierarchical signaling game between two senders (information designers) and a single receiver (decision maker) each having their own, possibly misaligned, objectives. The senders lead the game by committing to individual information disclosure policies simultaneously, within the framework of a Nash game among themselves. This is followed by the receiver's action decision. With Gaussian information structure and quadratic objectives (which depend on underlying state and receiver's action) for all the players, we show that in general the equilibrium is not unique. While we show that full revelation of the state is always an equilibrium, we propose an algorithm to achieve non trivial equilibria. Through simulations we show that misalignment between senders' objectives is beneficial for the receiver.

Ian T. Durham, Dean P. Rickles

Jan Kåhre

Neil Clive Tuckwell

This preprint clarifies a persistent category error in the interpretation of quantum mechanics and relativity by explicitly distinguishing propagation from correlation. Relativistic constraints, including the finite speed of light, apply to the transmission of energy, matter, and information through spacetime. Quantum mechanics, by contrast, permits nonlocal correlations between entangled systems that do not involve transmission, motion, or signal propagation. The apparent instantaneity of quantum effects therefore reflects the revelation of pre-existing correlation structure rather than superluminal dynamics. By maintaining this separation, the preprint shows that the finite speed of light and quantum nonlocality are not in conflict. Light is limited in speed because it propagates; quantum correlations have no speed because nothing propagates. This framing resolves common misconceptions surrounding entanglement, nonlocality, and causality without introducing hidden structures, preferred frames, or violations of relativistic invariance. The work is intended as a conceptual clarification and falsifiable interpretive framework, not a modification of quantum theory or relativity. Keywords quantum correlation nonlocality entanglement speed of light relativity causality non-signaling propagation vs correlation foundations of quantum mechanics conceptual clarification