Unified theory of quantum resonance

Hermann

Theory of spontaneous quantum resonance

G. P. Berman, G. M. Zaslavsky

Tobias Micklitz, Alexander Altland

States supported by chaotic open quantum systems fall into two categories: a majority showing instantaneous ballistic decay, and a set of quantum resonances of classically vanishing support in phase space. We present a theory describing these structures within a unified semiclassical framework. Emphasis is put on the quantum diffraction mechanism which introduces an element of probability and is crucial for the formation of resonances. Our main result is boundary conditions on the semiclassical propagation along system trajectories. Depending on whether the trajectory propagation time is shorter or longer than the Ehrenfest time, these conditions describe deterministic escape, or probabilistic quantum decay.

P., Gabor

This paper introduces the Lazarus Effect hypothesis, formulated within the Quantum Resonance Unified Model (QRUM) and the Quantum Resonance Bio-Interface Theory (QRBIT). The model explores whether a suitably engineered bio-interface can temporarily suppress post-mortem decoherence and preserve a limited set of quantum-informational degrees of freedom over extended timescales. Using an open-quantum-systems framework, the analysis defines the effective decoherence rate, modified spectral density, non-Markovian backflow conditions, and an interface-mediated information-transduction channel. The “three-day” condition is treated strictly as a mathematical boundary requirement, not as a biological claim. The model shows that post-mortem coherence retention is only possible under extreme, non-physiological suppression of environmental noise, but remains formally consistent as a theoretical construct within QRUM–QRBIT. This work does not assert empirical biological feasibility. It provides a formally defined theoretical hypothesis for coherence retention and information transfer in highly constrained quantum-biophysical systems. All results are exploratory, speculative, and intended for scientific timestamping and conceptual examination.

Marco Merkli

Alisalam Bagirov

Bagirov Cover Theory (BCT): A Unified Resonance Framework of Matter, Light and Quantum Correlations Bagirov Cover Theory (BCT) introduces a novel unified physical framework in which matter, light, and pure energy are interpreted as different stability regimes of a single resonance-based system. Unlike conventional quantum mechanics, which relies heavily on probabilistic interpretation, BCT proposes a physically interpretable mechanism grounded in resonance coherence, structural stability, and energy transformation dynamics. In this framework, photons are treated as fundamental propagating excitations within a continuous energy medium, while matter emerges as a stable resonance configuration formed through coherent photon interactions. The theory defines three primary regimes: unstable (free photons), transitional (partial resonance), and stable (matter), providing a continuous model of physical existence. A central component of the theory is the resonance coefficient, which quantifies system stability through frequency alignment, phase coherence, energy balance, and structural compatibility. Additionally, BCT introduces a transformation operator describing the transition from incoherent energy states to stabilized matter structures. The theory further proposes a boundary-based interaction model, where photon interactions with matter occur through modification of frequency and velocity at structural boundaries rather than direct absorption. This leads to a reinterpretation of quantum entanglement as a manifestation of shared resonance origin rather than nonlocal communication. BCT also outlines an experimental framework suggesting that quantum correlations depend on the properties of the propagation medium, offering testable predictions beyond standard quantum mechanics. Overall, Bagirov Cover Theory provides a new conceptual and mathematical foundation for understanding physical reality, bridging gaps between energy, matter, and quantum phenomena, and opening pathways for future theoretical and applied research.