The RQF is primarily a quantum foundations solution. Its chief motivation is to answer basic story-telling questions about Nature that the last 125 years have been unable to answer, owing to foundational disarray stemming from the conceptual intractability that has pervaded quantum physics. The RQF is all about the what, where, when, and how of quantum physics, as it plays out in the space-time arena of special and general relativity. It is based on a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems. W-state is wave-like, local, physical state, embodying the physicality of matter-energy, whereas P-state is particle-like, global, informational state, mediating entanglement effects and particle holism. Historically, the single most difficult challenge of putting quantum theory on a realist footing has been to provide mechanistic explanation of how weak non-locality, manifest in entanglement phenomenology, can be squared with the no-signaling stricture of special relativity (SR). The challenge is so centrally important to making sense of quantum physics that the theoretical minimum of the RQF is dedicated exclusively to addressing and resolving it. Work to date consists of four papers: [1] The pilot paper (https://dx.doi.org/10.2139/ssrn.5920722) focuses principally on quantum foundations and the theoretical minimum of W-state and P-state, showing how the two separate realms of reality can interoperate to produce non-local entanglement effects fully compliant with the causal structure and no-signaling stricture of special relativity. [2] https://dx.doi.org/10.2139/ssrn.6194219 is a shorter paper, identifying multi-situationality, not probability, as the central metaphor of quantum physics. Multi-situationality signifies the facet of physical reality that permits two or more situations to coexist, despite their being mutually incompatible by all classical reckoning. The RQF interprets the uncertainty principle as a mandate for a minimal level of multi-situationality in quantum systems. [3] zenodo.org/records/20581089 elaborates on the detailed structure of W-state, which is the structure of elementary particle matter in the Standard Model: leptons, neutrinos, and quarks. Quantum theory and the core subject matter of nuclear physics are rebuilt from the ground up in the new realist framework. [4] zenodo.org/records/20671848 extends the RQF to cosmology, addressing the key topics of quantum gravity, origin of inertia, and phasal polarity (matter and anti-matter). It offers an Analysis of Alternatives that was historically lacking in the acceptance of Lemaitre's primeval atom.
The RQF is primarily a quantum foundations solution. Its chief motivation is to answer basic story-telling questions about Nature that the last 125 years have been unable to answer, owing to foundational disarray stemming from the conceptual intractability that has pervaded quantum physics. The RQF is all about the what, where, when, and how of quantum physics, as it plays out in the space-time arena of special and general relativity. It is based on a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems. W-state is wave-like, local, physical state, embodying the physicality of matter-energy, whereas P-state is particle-like, global, informational state, mediating entanglement effects and particle holism. Historically, the single most difficult challenge of putting quantum theory on a realist footing has been to provide mechanistic explanation of how weak non-locality, manifest in entanglement phenomenology, can be squared with the no-signaling stricture of special relativity (SR). The challenge is so centrally important to making sense of quantum physics that the theoretical minimum of the RQF is dedicated exclusively to addressing and resolving it. Work to date consists of four papers: [1] The pilot paper (https://dx.doi.org/10.2139/ssrn.5920722) focuses principally on quantum foundations and the theoretical minimum of W-state and P-state, showing how the two separate realms of reality can interoperate to produce non-local entanglement effects fully compliant with the causal structure and no-signaling stricture of special relativity. [2] https://dx.doi.org/10.2139/ssrn.6194219 is a shorter paper, identifying multi-situationality, not probability, as the central metaphor of quantum physics. Multi-situationality signifies the facet of physical reality that permits two or more situations to coexist, despite their being mutually incompatible by all classical reckoning. The RQF interprets the uncertainty principle as a mandate for a minimal level of multi-situationality in quantum systems. [3] zenodo.org/records/20581089 elaborates on the detailed structure of W-state, which is the structure of elementary particle matter in the Standard Model: leptons, neutrinos, and quarks. Quantum theory and the core subject matter of nuclear physics are rebuilt from the ground up in the new realist framework. [4] zenodo.org/records/20671848 extends the RQF to cosmology, addressing the key topics of quantum gravity, origin of inertia, and phasal polarity (matter and anti-matter). It offers an Analysis of Alternatives that was historically lacking in the acceptance of Lemaitre's primeval atom.
The RQF is primarily a quantum foundations solution. Its chief motivation is to answer basic story-telling questions about Nature that the last 125 years have been unable to answer, owing to foundational disarray stemming from the conceptual intractability that has pervaded quantum physics. The RQF is all about the what, where, when, and how of quantum physics, as it plays out in space-time arena of special and general relativity. It is based on a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems. W-state is wave-like, local, physical state, embodying the physicality of matter-energy, whereas P-state is particle-like, global, informational state, mediating entanglement effects and particle holism. Historically, the single most difficult challenge of putting quantum theory on a realist footing has been to provide mechanistic explanation of how weak non-locality, manifest in entanglement phenomenology, can be squared with the no-signaling stricture of special relativity (SR). The challenge is so centrally important to making sense of quantum physics that the theoretical minimum of the RQF is dedicated exclusively to addressing and resolving it. Work to date consists of four papers: [1] The pilot paper (https://dx.doi.org/10.2139/ssrn.5920722) focuses principally on quantum foundations and the theoretical minimum of W-state and P-state, showing how the two separate realms of reality can interoperate to produce non-local entanglement effects fully compliant with the causal structure and no-signaling stricture of special relativity. [2] https://dx.doi.org/10.2139/ssrn.6194219 is a shorter paper, identifying multi-situationality, not probability, as the central metaphor of quantum physics. Multi-situationality signifies the facet of physical reality that permits two or more situations to coexist, despite their being mutually incompatible by all classical reckoning. The RQF interprets the uncertainty principle as a mandate for a minimal level of multi-situationality in quantum systems. [3] zenodo.org/records/20581089 elaborates on the detailed structure of W-state, which is the structure of elementary particle matter in the Standard Model: leptons, neutrinos, and quarks. Quantum theory and the core subject matter of nuclear physics are rebuilt from the ground up in the new realist framework. [4] zenodo.org/records/20671848 extends the RQF to cosmology, addressing the key topics of quantum gravity, origin of inertia, and phasal polarity (matter and anti-matter). It offers an Analysis of Alternatives that was historically lacking in the acceptance of Lemaitre's primeval atom.
This volume builds upon and continues development of the realist quantum framework (RQF), introduced and developed in https://dx.doi.org/10.2139/ssrn.5920722, https://dx.doi.org/10.2139/ssrn.6194219, and zenodo.org/records/20581089. The RQF is based on a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems. W-state is wave-like, local, physical state, embodying the physicality of matter-energy, whereas P-state is particle-like, global, informational state, mediating entanglement effects and particle holism. The previous work focused principally on the theoretical minimum of W-state and P-state (i.e., showing how the two separate realms of reality can interoperate to produce non-local entanglement effects fully compliant with the causal structure and no-signaling stricture of special relativity) and the detailed structure of W-state (leptons, neutrinos, and quarks). This paper extends the RQF to cosmology, addressing the key topics of quantum gravity, origin of inertia, and phasal polarity (matter and anti-matter). It offers an Analysis of Alternatives that was historically lacking in the acceptance of Lemaitre's primeval atom.
This volume builds upon and continues development of the realist quantum framework (RQF), introduced and developed in https://dx.doi.org/10.2139/ssrn.5920722 and https://dx.doi.org/10.2139/ssrn.6194219.The RQF is based on a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems.W-state is wave-like, local, physical state, embodying the physicality of matter-energy, whereas P-state is particle-like, global, informational state, mediating entanglement effects and particle holism. The previous work focused principally on the theoretical minimum of W-state and P-state, showing how the two separate realms of reality can interoperate to produce non-local entanglement effects fully compliant with the causal structure and no-signaling stricture of special relativity. This new work focuses on the detailed structure of W-state, which is the structure of elementary particle matter in the SM: leptons, neutrinos, and quarks. Quantum theory and the core subject matter of nuclear physics is rebuilt from the ground up in the new realist framework.
Quantum mechanics has never had a simple, short-punch metaphor that expresses the central theme of what makes its model of Nature and conception of physical reality fundamentally different from that of classical physics. The realist quantum framework (RQF), introduced and developed in https://dx.doi.org/10.2139/ssrn.5920722, now provides a definitive answer. The new metaphor, in a word, is multi-situationality. That is nine syllables, compared to five for "clockwork universe'', but the mouthful aptly captures what for 125 years has been the conceptually intractable core of quantum physics. The most distinctive characteristic of classical physics that was overturned by the quantum revolution was uni-situationality, not determinism. If the multi-situational switch is shut off (which goes in tandem with h -> 0), the RQF gracefully reduces to classical physics in a precise manner that shows that multi-situationality makes all the difference.
This volume presents a comprehensive realist framework encompassing quantum foundations, quantum gravity, and the origin of inertia (Mach's Principle). It develops and builds upon a quantum ontology consisting of two fundamental ontic entities, called W-state and P-state, that respectively account for the wave- and particle-like aspects of quantum systems. W-state is a generalization of the wavefunction, but has ontic stature and is defined on the joint time-frequency domain. It constitutes a non-classical local reality, consisting of superpositions of quantum waves writ small. P-state enforces entanglement obligations and mediates the global coordination within quantum systems required to bring about wavefunction collapse in causal fashion consistent with special relativity. Quantum theory is rebuilt from the ground up, and the development then proceeds to quantum gravity, which is solved surprisingly easily once a good quantum foundations solution is in hand. It is solved not in the Planck regime, but in the testable regime of classical general relativity. The two great theories are intermeshed, and proposed testable solutions for the dark matter conundrum and origin of inertia are set forth. Both depend on non-local gravitational sourcing via P-state. The overall result is a robust architectural foundation for a (still elusive) Theory of Everything.
Abstract Quantum mechanics and relativity are two of the most successful theoretical frameworks in modern physics, yet their conceptual foundations remain difficult to reconcile at the deepest level. Quantum theory describes physical systems through states, observables, probabilities, measurement contexts, superposition, entanglement, and nonclassical correlations. Relativity describes physical processes through space-time structure, causal order, invariant physical law, observer-dependent decomposition of time and space, and constraints on signal propagation. This article examines the conceptual relationship between quantum measurement, relativistic causality, and space-time description. The purpose is not to present a mathematical unification but to analyze how the two frameworks organize physical explanation differently and where their interpretive tensions arise. Special attention is given to the measurement problem, the status of quantum states, the role of observers and reference frames, the meaning of locality, the distinction between correlation and causal influence, and the challenge of describing quantum processes without privileging a single global time. The article argues that many apparent conflicts between quantum theory and relativity result from importing classical intuitions into domains where they no longer apply. Quantum entanglement does not permit controllable faster-than-light communication, yet it challenges classical separability. Relativity forbids superluminal signaling, yet it does not require that all physically meaningful correlations be reducible to local classical properties. Measurement introduces another difficulty because standard quantum theory often describes state update in a way that appears instantaneous, while relativistic space-time does not provide a universal present. The discussion develops a conceptual framework in which quantum measurement is treated as a physical interaction, relativistic causality as a constraint on operational influence, and space-time description as an organizing structure for events rather than a simple background stage. This analysis is relevant for quantum field theory, quantum information, relativistic quantum foundations, and future approaches to quantum gravity.