Quantum entanglement in the Acta Universi hypothesis is not just a "strange" feature of quantum mechanics, but a fundamental mechanism for recording and reading information from the universal archive of AU field events. Entanglement is the physical realization of non-local correlations between events separated by arbitrarily large distances. The AU field acts as a" carrier " of entanglement on cosmological scales.
Quantum entanglement in the Acta Universi hypothesis is not just a "strange" feature of quantum mechanics, but a fundamental mechanism for recording and reading information from the universal archive of AU field events. Entanglement is the physical realization of non-local correlations between events separated by arbitrarily large distances. The AU field acts as a" carrier " of entanglement on cosmological scales.
UAP (unidentified anomalous phenomena, formerly UFO) is a phenomenon that in 2025 attracts the attention of not only ufologists, but also serious physicists. In the Acta Universi hypothesis of D. E. Yashchenko (2025), UAP is explained as projections of the AU field caused by non-local correlations — quantum effects, where events at different points in space are connected without transmitting a signal faster than light. This is an extension of Bell's theorem: nonlocality arises from the entropy gradients S s_Θ in the AU field. The provided pages of Yashchenko's monographs (introduction to AUfield and UAP table of contents) confirm that UAP is not aliens, but the physical response of the event archive to sharp entropy peaks (solar flares, nuclear tests, collective thought forms).In 2025, scientific data (Nature, Phys.org They show that non-locality is a reality of the quantum world, and UAP can be its manifestation in the macrocosm. For example, experiments with non-local energy in quantum memories (Phys.org, March 2025) demonstrate a change in particle energy without local interaction-similar to "instantaneous maneuvers" UAP.
Quantum entanglement remains one of the most perplexing and foundational phenomena in quantum mechanics, demonstrating instantaneous correlations between particles regardless of distance. This article hypothesizes that quantum entanglement may serve not merely as an artifact of quantum systems but as a fundamental structural component of a broader multiversal framework. By synthesizing principles from quantum mechanics, theoretical physics, and cosmology, the argument is developed that entanglement might indicate the coexistence and interaction of parallel realities. Such a perspective challenges the conventional interpretation of entanglement as a closed-system phenomenon and posits it instead as an interdimensional tether across multiple universes. Though currently speculative and beyond empirical verification, this hypothesis opens a philosophical and theoretical avenue for reevaluating the implications of entanglement and the nature of reality itself. By reframing entanglement as a bridge rather than a boundary, the article explores whether the quantum world subtly encodes the existence of the multiverse within its very correlations.
This essay explores the interpretative hypothesis of a continuous quantum entanglement mechanism mediated by cosmological neutrino flux. By analyzing the "spooky action at a distance" through the lens of modern neutrino physics, the work proposes that the constant interaction of these subatomic particles may provide a physical basis for non-local information transfer. The study integrates concepts from Quantum Mechanics and Cosmology to discuss the limits of classical computing versus biological and quantum convergence, suggesting a new framework for understanding universal communication.
Abstract (English) Within the Acta Universi (AU) hypothesis, natural radioactive decay is reinterpreted as an irreversible act of recording a thought-form into the non-local informational archive. The fundamental entropy field Φ receives a localized source term at each decay event, producing a quantifiable increment of theta-entropy and advancing Kairos-time. Starting from the effective action of an unstable nucleus after integration over fast nuclear degrees of freedom, a modified decay constant is derived that depends on the local gradient of Φ and on the non-local archival kernel. This framework accounts for the statistical nature of decay while opening the possibility of small, environment-dependent corrections. Reported anomalies—seasonal and diurnal variations, correlations with solar activity that appear to precede flares, and deviations from pure Poisson statistics—are uniformly attributed to fluctuations of the AU field. The same mechanism links radioactivity to the atomic structure (entropy confinement in the nucleus), to cosmological entropy production, and to the thermodynamic and cosmological arrows of time. Concrete experimental protocols are proposed to test the predicted anticipatory correlations with solar activity, TRNG anomalies and weak non-Poissonian statistics, rendering the AU interpretation of radioactivity falsifiable. Keywords: Acta Universi; natural radioactivity; radioactive decay; entropy field of thought-forms; Kairos-time; non-local kernel; decay anomalies; solar correlations; theta-entropy; information ontology. Аннотация (русский) В рамках гипотезы Acta Universi (AU) естественный радиоактивный распад переосмысливается как необратимый акт записи мыслеформы в нелокальный информационный архив. Фундаментальное поле энтропии Φ получает локализованный источник при каждом акте распада, что порождает измеримый прирост тета-энтропии и продвигает кайрос-время. Исходя из эффективного действия нестабильного ядра после интегрирования по быстрым ядерным степеням свободы, выводится модифицированная постоянная распада, зависящая от локального градиента Φ и от нелокального архивного ядра. Такой подход сохраняет статистическую природу распада, но допускает малые, зависящие от окружения поправки. Наблюдаемые аномалии — сезонные и суточные вариации, корреляции с солнечной активностью, носящие опережающий характер, а также отклонения от чистой пуассоновской статистики — единообразно связываются с флуктуациями AU-поля. Тот же механизм соединяет радиоактивность со строением атома (энтропийный конфайнмент в ядре), с космологической генерацией энтропии и со стрелами времени — термодинамической и космологической. Предложены конкретные экспериментальные протоколы для проверки предсказанных опережающих корреляций с солнечной активностью, аномалиями TRNG и слабыми отклонениями от пуассоновской статистики, что делает AU-интерпретацию радиоактивности фальсифицируемой. Ключевые слова: Acta Universi; естественная радиоактивность; радиоактивный распад; поле энтропии мыслеформ; кайрос-время; нелокальное ядро; аномалии распада; солнечные корреляции; тета-энтропия; информационная онтология.
Quantum entanglement is a non-classical correlation between quantum systems that cannot be accounted for by any local hidden-variable theory. Since its articulation in the Einstein-Podolsky-Rosen paper of 1935 and its formal testability through Bell's theorem in 1964, entanglement has evolved from a philosophical puzzle into the central resource of quantum information science. This review surveys the conceptual foundations of entanglement, the experimental record culminating in loophole-free Bell tests, and applications including quantum key distribution, quantum teleportation, and measurement-based quantum computation. We summarise quantitative results of representative Bell experiments, discuss entanglement measures for mixed states, and outline recent developments in long-distance entanglement distribution via satellites and quantum repeaters. Persistent challenges decoherence, certification of high-dimensional entanglement, and scalable distribution are identified as active frontiers of research.
Quantum entanglement, a cornerstone of quantum mechanics, presents a profound challenge to classical intuition. This paper explores the potential of extending this peculiar phenomenon to encompass non-local correlations, proposing a novel framework termed "Entanglement Non-Locality" (ENL). The core claim is to establish a theoretical foundation for this non-locality, leveraging the inherent properties of entangled states to simulate quantum information transfer and associate it with classical information transfer. We hypothesize that by embedding entanglement within a non-local field theory, we can achieve enhanced quantum information processing and communication capabilities. This research delves into the design of such a field theory, examining its potential to overcome limitations imposed by classical physics and unlock new avenues for quantum technologies.