Conventional field theories typically treat particles or localized fields as primary objects endowedwith intrinsic properties, while the vacuum serves as a passive arena for their interactions.This paper formalizes an alternative ontological ordering, here called the Vacuum-ResponseOntology, motivated by ongoing work in the Primeon Framework but stated and defended onits own philosophical terms. Rather than defining an isolated object by internal attributes,physical observables such as mass and charge are formulated through the response generatedby a localized configuration and transmitted via surrounding field structures. We argue for theanalytical importance of distinguishing between internal symmetry currents, effective responsesources, and far-field observables. We further distinguish this response-centered ontology fromtwo influential twentieth-century descriptive emphases: the probability-centered organization ofquantum prediction and the frame-centered organization of special relativity. The proposal doesnot replace either formalism; it places physical configuration and vacuum response conceptuallyupstream of measurement statistics and observer-dependent descriptions.
Conventional field theories typically treat particles or localized fields as primary objects endowedwith intrinsic properties, while the vacuum serves as a passive arena for their interactions.This paper formalizes an alternative ontological ordering, here called the Vacuum-ResponseOntology, motivated by ongoing work in the Primeon Framework but stated and defended onits own philosophical terms. Rather than defining an isolated object by internal attributes,physical observables such as mass and charge are formulated through the response generatedby a localized configuration and transmitted via surrounding field structures. We argue for theanalytical importance of distinguishing between internal symmetry currents, effective responsesources, and far-field observables. We further distinguish this response-centered ontology fromtwo influential twentieth-century descriptive emphases: the probability-centered organization ofquantum prediction and the frame-centered organization of special relativity. The proposal doesnot replace either formalism; it places physical configuration and vacuum response conceptuallyupstream of measurement statistics and observer-dependent descriptions.
As far as classical physics is concerned, it is possible to trace causal relations between physical objects (i.e. particles in this case) back to intrinsic properties of these objects (such as their mass and charge). On this view, causal relations turn out to be internal instead of external relations, supervening on intrinsic properties of the relata (as proposed by Heil and Lowe). However, one can raise doubts about this view already in Newtonian mechanics. The decisive blow to this view comes from quantum physics, with Bell’s theorem proving that no dynamics based on local, intrinsic properties of quantum objects can yield the empirical predictions of quantum mechanics. Nonetheless, quantum entanglement by no means implies that we have to abandon an ontology of objects (i.e. substances such as particles) in favour of an ontology of structures (as claimed by French and Ladyman). Any of the known proposals for a quantum ontology of matter in space-time is committed to objects. However, on any of these proposals, what determines the dynamics of these objects are not local, intrinsic properties, but a global or holistic property instantiated by all the objects together – that is, a structure that takes all the objects in the universe as its relata. The view set out in this paper thus amounts to combining ontic structural realism with an ontology of objects that can be conceived as substances. This suggestion is illustrated by drawing on the ontology of quantum physics worked out by Bohm and Bell. 1.
Generative Continuum Ontology (GCO) proposes that existence is ontologically fundamental and intrinsically generative, with objects, structures, laws, space, time, and other features of reality understood as organizational forms disclosed within organizational regimes rather than as fundamental ontological primitives. While contemporary physics has achieved extraordinary empirical success, several foundational questions—including the quantum measurement problem, wave-particle duality, quantum entanglement, the emergence of classical reality, and the ontological status of physical laws and spacetime—remain subjects of ongoing conceptual debate. This paper investigates whether these longstanding conceptual difficulties can be reinterpreted through the ontological framework of GCO. Rather than proposing modifications to the mathematical formalism of established physical theories, it offers ontological reinterpretations intended to clarify how physical reality may become organized through stabilization, self-emergent constraints, and organizational path dependence within an intrinsically generative existence. From this perspective, quantum and classical descriptions are understood not as competing realities but as different organizational forms disclosed through different organizational regimes. The objective is not to replace existing physical theories, but to provide a coherent ontological framework within which their conceptual foundations may be interpreted. By distinguishing between mathematical description, physical explanation, and ontological grounding, the paper argues that many foundational problems arise not from deficiencies in physics itself, but from assumptions concerning the ontological status of objects, relations, laws, space, and time. GCO therefore offers a unified ontological perspective through which these concepts may be understood as organizational forms disclosed through organizational regimes associated with the intrinsic generative capacity (Φ) of existence.
For more than a century, physics has alternated between particle-based and wave- or fieldbased descriptions of matter. While classical intuition favored particles, quantummechanics and quantum field theory progressively shifted emphasis toward fields, withparticles reinterpreted as excitations or modes. Despite this evolution, persistentconceptual tensions remain: single-particle interference, path dependence, apparentdiscreteness amid continuity, and evidence that the vacuum itself possesses structure andmemory. This paper argues that these tensions arise because both “particle” and “field”framings omit a critical component: the active, conditionable structure of space itself.Within the SP3 (Space-Phase-3) framework, space is not a passive background but aphase-structured medium capable of conditioning, persistence, and relaxation. In thisview, particles are neither fundamental objects nor mere mathematical waves, butstabilized interaction modes between matter-energy and conditioned space-phasepathways. SP3 resolves the particle–wave debate by showing that both descriptions areemergent limits of a deeper space-phase ontology.
This paper advances a deductive formulation of a consciousness-based ontology in which consciousness is posited as the sole ontological foundation of reality. Starting from a minimal set of axioms that introduce no external substances, the work develops a formal framework in which knowledge is represented as regular closed sets of actualized distinctions within a topological space of unified consciousness. Within this framework, the observer emerges as a stable localization of knowledge structures, and physical phenomena are derived as forms of the observer’s local knowledge rather than as independent ontological entities. Space and time are reinterpreted as epistemic structures describing relations and ordered transformations of stable knowledge configurations. Matter is defined as a highly stable, densely structured configuration of knowledge; mass as a measure of resistance of such structures to restructuring; energy and momentum as knowledge of the intensity and directionality of restructuring processes. Gravitation is shown to be a local manifestation of the global harmony of consciousness, aimed at preserving compactness, Hausdorffness, and connectedness of knowledge structures, and is demonstrated to be equivalent to the geometry of space. Singularities and black holes are interpreted as limits of the observer’s local knowledge rather than as physical infinities or objects. The proposed framework eliminates the dualism of consciousness and matter, unifies geometry, dynamics, and observation within a single formalized context, and provides an epistemic reinterpretation of classical physical relations. Physics, in this view, is understood as a structured mode of self-knowledge of consciousness through local observers. The results suggest new conceptual foundations for the philosophy of physics, epistemology, quantum theory, and the ontology of artificial intelligence.
Traditional physical ontology relies on the assumption of observer-independence, regarding a physical state as an intrinsic property that exists prior to measurement, with observation acting merely as a passive retrieval of pre-existing facts. This paper challenges this view and articulates a relational paradigm of physics: at fundamental levels, physical states are not absolute inherent attributes, but structural outputs generated through mutual interactions among the system, the environment, and the observational framework. By re-evaluating quantum collapse, quantum decoherence, and relational quantum mechanics, this study demonstrates how the choice of measurement basis and environmental interactions selectively determine pointer states and establish classicuality. Furthermore, the relational character of physical states is corroborated in macroscopic domains, including the dependency of thermodynamic entropy on coarse-graining and the reference-frame relativity of spatiotemporal states in general relativity and the Unruh effect. By reframing physics around interaction boundaries and information exchange, this paper establishes a relational realism that transcends both rigid objective realism and subjective idealism, offering insight into foundational problems in quantum gravity and quantum cosmology without appealing to external observers.
The quantum field theory (QFT) is one of branches of the Standard Model. According to QFT, quantum fields are the primary entities and particles are the excitations of these fields, coming in discrete lumps with no inner structures and with properties assigned by declaration. Such view is in conflict with the observed vacuum energy density, 140 orders of magnitudes less than required by the QFT. In addition, such view is challenged by Aphysical Quantum Mechanics (AQM), a deeper quantum theory. According to AQM, the fundamental understanding of quantum reality is expanded by the addition of two fundamental categories, aphysical and elementary consciousness of elementary particles. Based on AQM and as an example, the total ontology of the intrinsic (fundamental) electron is presented with its inner structure of perfect geometry consisting of the physical charged c-ring and aphysical cylinder, and with its properties such as self-mass, spin, magneto-electrostatic field configuration and magnetic moment. The position parameter in the inner structure demonstrates that there are no two identical intrinsic electrons in the Universe thus placing a question mark over the QFT principle of indistinguishability.