Experimental measurements across atomic, molecular, condensed-matter, and quantum systems consistently reveal oscillatory behavior, discrete frequency mode spectra, stable equilibrium geometries, thermodynamic population distributions, and coupling interactions that generate new stable configurations. When two systems interact coherently, experiments show the formation of joint eigenstates with nonfactorizable correlations (entanglement). This paper organizes these experimentally verified behaviors into a single structural sequence within physics and identifies evaluation pathways, open research questions, and opportunities for collaboration.
Experimental measurements across atomic, molecular, condensed-matter, and quantum systems consistently reveal oscillatory behavior, discrete frequency mode spectra, stable equilibrium geometries, thermodynamic population distributions, and coupling interactions that generate new stable configurations. When two systems interact coherently, experiments show the formation of joint eigenstates with nonfactorizable correlations (entanglement). This paper organizes these experimentally verified behaviors into a single structural sequence within physics and identifies evaluation pathways, open research questions, and opportunities for collaboration.
New Subquantum Information Mechanics (NMSI) is a unified theoretical framework that extends quantum mechanics and classical field theory by introducing a deeper informational substrate underlying all physical processes. NMSI proposes that the vacuum is not empty but a structured subquantum medium composed of oscillatory informational units ("infobits"), whose coherent interactions generate observable matter, energy, and spacetime geometry. In this model, particles, fields, and forces emerge as stable oscillatory patterns in a multidimensional informational manifold. Mass is interpreted as the amount of structured subquantum information stored in the vacuum; photons represent freely propagating oscillatory modes that carry information without storing it. Gravitational interaction arises from gradients in informational density, producing curvature-like behavior consistent with Einstein’s equations but without singularities. NMSI provides a mathematically consistent reinterpretation of key physical concepts, including: Subquantum resonances as generators of particle states Oscillatory duality as the mechanism behind wave–particle behavior Informational conservation replacing classical energy conservation at the deepest scale Coherent cyclicity explaining cosmological evolution without expansion Lie-symmetry foundations linking subquantum dynamics with macroscopic structure The project develops: 1. A formal axiomatic system for NMSI 2. Analytical and numerical models of subquantum oscillatory networks 3. Applications to cosmology (non-expanding Universe, baryonic cycle), condensed-matter systems, atmospheric coherent structures, and computational architectures (TQC – Twin Quantum Computing) 4. Testable predictions that differentiate NMSI from standard quantum mechanics and ΛCDM cosmology The NMSI framework aims to provide a deeper, symmetry-based understanding of physical reality, reconciling mathematical rigor with observational coherence and offering new pathways toward unified physics.
This paper establishes a structural interpretation of quantum-like phenomena within the Scalar Drag Emergence Framework (SDEF), a parameter-based ontology in which all behavior arises from the redistribution of conserved, bounded quantities under compatibility constraints. Quantum features—discreteness, coexistence of configurations, measurement outcomes, entanglement-like correlations, and constrained transitions—are shown to correspond to the formation, coexistence, and reconfiguration of coherent regimes: stable, compatibility-satisfying corridor configurations that support persistent propagation. Key correspondences established: Quantum Phenomenon SDEF Structural Interpretation Discrete states Stable parameter-supported coherent regimes Superposition Distributed parameter support across compatible regimes Measurement Symmetry breaking through constraint-driven redistribution Entanglement Ancestry-linked parameter coupling under symmetry preservation Spectral transitions Constrained reconfiguration pathways between stable regimes All behavior follows from redistribution under GPLA fields (Gradient, Persistence, Coherence/Loop integrity, Ancestry), with no additional primitives introduced. Parameters are neither created nor destroyed—only redistributed. Scope: This work is intentionally limited to establishing a structural bridge. It does not attempt to reproduce the full formalism of quantum mechanics, derive specific equations, or provide quantitative mapping to experimental observables. Detailed modeling, measurement protocols, and system-specific applications are deferred to subsequent work. Significance: Demonstrates that a unified, parameter-based structure can support behaviors consistent with quantum phenomenology without extending the underlying ontology, providing a foundation for further development of measurement mappings and quantitative regime modeling.
Measurement in quantum mechanics is commonly treated as a passive observational process that reveals properties of an underlying physical system. However, both theoretical analysis and experimental practice suggest that measurement interactions are physical events that irreversibly alter system states and their subsequent evolution. This work advances the hypothesis that measurement events function as generative interactions that actively produce realized states, rather than merely disclosing pre-existing conditions.Focusing on non-equilibrium dynamics, we examine the role of discrete interaction events in the transition from potential configurations to actualized states. Measurement interactions are characterized as localized, irreversible processes that introduce stable correlations and constrain future system evolution. From this perspective, state realization is associated with event-based commitments rather than continuous revelation, aligning naturally with thermodynamic irreversibility and entropy production.Preliminary conceptual analysis indicates that this generative role of measurement events is consistent with established formulations of quantum theory, including unitary evolution prior to measurement and the statistical structure of observed outcomes. The proposed viewpoint does not modify existing formalism or introduce new dynamical laws, but instead reframes the ontological role of measurement within standard theory.1Analogous event-driven state transitions appear across a range ofnon-equilibrium systems, including thermodynamic processes, information processing, chemical reactions, and distributed computational protocols. These analogies are noted to highlight structural commonalities in state actualization, rather than to assert cross-domain phys-ical equivalence.The present work introduces this hypothesis as a foundational perspective on the role of discrete interaction events in state formation. Broader structural implications and potential extensions of this framework are reserved for future investigation. Keywords: measurement theory, non-equilibrium dynamics, quantum observation, state formation, irreversibility
In the past decades, rapid advances in the experimental control of quantum systems have opened up unparalleled capabilities of engineering exotic quantum states. Nowadays, we may consider ourselves witnesses of a second quantum revolution as strongly correlated quantum matter is regularly created, on a daily basis, within the most diverse platforms, e.g. arrays of Rydberg atoms, ultra-cold atoms in optical lattices, superconducting qubits, trapped ions, and quantum dots. In this era, dubbed Noisy-Intermediate Scale Quantum (NISQ) era, the effort in pursuing research for realizing quantum technologies with practical purposes, such as quantum computing, simulations, communication and metrology, has greatly accelerated, and we are just starting to experience the immense progress that could be achieved. The remarkable breakthrough we are facing builds upon seminal theoretical and experimental advances in quantum physics. The key achievements in atomic, molecular, and optical (AMO) physics have opened up the possibility of controlling, trapping, and measuring single atoms, one by one, with high accuracy and reliability. In parallel, from a theoretical point of view, the study of quantum entanglement and correlations has bridged AMO physics and quantum information with crucial proposals for the realization of universal quantum computers. In this context, entanglement has emerged as one of the key tools to characterize and to exploit quantum many-body systems for quantum information purposes. We will study quantum entanglement in several scenarios to investigate and probe complex quantum many-body systems. We will consider examples ranging from generic mixed states in equilibrium to out-of-equilibrium dynamics, with and without dissipation, and topologically non-trivial systems. The leitmotif of this work will be how entanglement and correlations can be exploited to characterize the many-body quantum state describing a physical system and how entanglement can be detected in an experimentally efficient manner.