A Ln

This paper introduces a stratified non-normal modal logic, denoted R0, designed to formalize tran- sitions between epistemic regimes with partially ordered constraint structures. Unlike standard modal systems, R0 rejects normality and duality, allowing a finer articulation of local validity and inter-regime tension. The logic features regime-indexed modal operators, a stratified admissibility function, and a stability condition that governs modal transitions. We provide a formal Kripke-style semantics based on partial inclusion of constraint sets, and prove a completeness theorem relative to this semantics. The system is self-sufficient within its minimal formal setting, yet explicitly avoids ontological or epistemic closure, making it suitable for applications in pluralist philosophy of science, model-theoretic relativism, and the formal analysis of conceptual change. This work lays the groundwork for a general theory of modal reasoning under heterogeneous and dynamically shifting regimes of validity. Open to feedback.

This article develops a dynamic and empirically testable model of selfhood grounded in the concept of a coherence field C(t), representing the transient structural alignment of neu- ral, sensorimotor, and intentional dynamics. Against substantialist or narrative accounts, we propose that the self is not a continuous entity but a metastable regime of constraint integration, instantiated locally in time when coherence peaks. Memory, intentionality, and anticipation are reconceived as coherence operators, not as functions of a persisting sub- ject. Drawing on neurodynamical findings (e.g., metastability, phase synchrony, PCI), we formulate specific experimental predictions and falsifiability criteria based on EEG/MEG observables. Philosophically, the model supports a minimal, structurally grounded ontology of the self, compatible with phenomenology and cognitive science. The self is not what exists in time it is what locally renders time effective.

This article proposes a reconceptualization of the philosophy of science as a structurally embedded operator within the architecture of contemporary scientific knowledge. Rather than treating philosophy as an external meta-discourse or a derivative reflection on scientific methods, we argue that it functions as an architectonic agent: one that identifies, stabilizes, and mediates the compatibility conditions between heterogeneous epistemic regimes. These regimes, understood as locally constrained configurations of models, norms, and practices, do not admit unification under a single theory or method. Instead, coordination occurs through dynamically maintained interfaces that align structural constraints without ontological re- duction. We formalize this mediation using a symbolic operator Φ acting on families of regime-specific constraints, and define epistemic interfaces as zones of partial co-constraint. This structural framework reframes the role of philosophy from semantic analysis or nor- mative critique to the configuration of intelligibility across differentiated scientific domains. Against both foundationalism and relativism, we advocate for a regime-centric metaphiloso- phy: a stratified account of rationality in which philosophy functions not as the foundation of science, but as its transversal architect.

This article proposes a structural reconceptualization of scientific change, grounded not in the replacement of theories but in the dynamic reconfiguration of constraint-based regimes. Drawing on insights from historical epistemology, philosophy of science, and structural realism, we argue that scientific practice unfolds through temporally stratified architectures of conceptual, material, and institutional constraints. These regimes stabilize, overlap, decay, or reconfigure in ways that defy linear or representational models of diachronic succession. We introduce the notion of a temporally evolving constraint field \( C(x, t) \), in which scientific regimes correspond to local attractors, and inter-regime interfaces emerge as zones of partial constraint compatibility. Scientific change, we claim, is best understood as a compound process comprising internal transformation, temporal dephasing, and interface restructuring. This framework enables a non-reductive account of diachronic identity grounded in structural compatibility rather than ontological invariance. It supports a pluralistic yet realist perspective in which continuity, obsolescence, and reactivation are modeled as geometric properties of a dynamic epistemic landscape. We conclude by suggesting possible formal extensions of this model using topological or categorical tools to represent regime transitions within a generalized space of scientific dynamics.

This paper reexamines the ontological status of the metric tensor gμν in gene- ral relativity, arguing that the standard identification of the metric with spacetime geometry may be conceptually misguided. Drawing on constraint-based approaches and insights from emergent gravity (Sakharov, Jacobson), we propose an alternative interpretation : the metric functions as a dynamical regulator of relational coherence within a structured field regime, rather than as a primitive geometrical entity. This shift has implications for the debate between substantivalism and relationism, and supports a structural-realist reading of spacetime grounded in physical constraints rather than background structures. We assess the explanatory and ontological ad- vantages of this view, showing how it integrates naturally with thermodynamic and quantum-gravitational approaches to spacetime. The paper contributes to the on- going reevaluation of what it means for the metric to “be” the geometry and clarifies the conceptual foundations of general relativity

This article proposes a structural reconceptualization of subjectivity as a dynamic in- terface between heterogeneous regimes of constraint, perceptual, affective, normative, and technical. Against both substantialist accounts of the subject and eliminativist models in cognitive science, we argue that selfhood should not be understood as a metaphysical core, nor as an illusion, but as a temporally stratified, functionally emergent operator of compat- ibility. Drawing on genetic phenomenology (Husserl), the ontology of individuation (Simon- don), and the epistemology of structural regimes (Bachelard, Stiegler), we develop a model in which the subject is defined by its capacity to mediate and integrate conflicting structures across time. The interface model accounts for the persistence of subjectivity not through ontological identity, but through the regimic stabilization of co-constraints under histori- cally variable conditions. We articulate this model with both phenomenological analyses of memory, attention, and affective breakdown, and contemporary approaches in enactive and predictive cognitive science. Furthermore, we propose a typology of structural crises (col- lapse, mutation, disjunction) that clarifies how subjectivity transforms or fragments when these constraint integrations fail. Rather than dissolving the subject, this account repositions it as a structurally real operator: neither autonomous nor epiphenomenal, but constitutively entangled in dynamic systems of sense. It opens a path toward a structural phenomenology of selfhood compatible with both experiential and empirical inquiry.

This article develops a dynamic and empirically testable model of selfhood grounded in the concept of a coherence field C(t), representing the transient structural alignment of neu- ral, sensorimotor, and intentional dynamics. Against substantialist or narrative accounts, we propose that the self is not a continuous entity but a metastable regime of constraint integration, instantiated locally in time when coherence peaks. Memory, intentionality, and anticipation are reconceived as coherence operators, not as functions of a persisting sub- ject. Drawing on neurodynamical findings (e.g., metastability, phase synchrony, PCI), we formulate specific experimental predictions and falsifiability criteria based on EEG/MEG observables. Philosophically, the model supports a minimal, structurally grounded ontology of the self, compatible with phenomenology and cognitive science. The self is not what exists in time it is what locally renders time effective.

This paper develops a formal framework for quantum field quantization without reference to a Hilbert space. Based on a pre-metric tensor field Aμν (x, t∗) defined over a non-metrical time base, we construct a functional quantization procedure relying on dynamically weighted actualization channels. The approach generalizes path integral quantization by grounding it on structural con- straints rather than probabilistic amplitudes, and aims to provide an ontologically viable alternative to Hilbert-based formalisms.

We propose a structural reformulation of presentism that rejects the need for ontological substrata such as temporal instants or persisting entities as the basis of temporal ontology. Instead, we define the present as a dynamically stabilized configuration within a stratified field of constraints. This framework replaces existential quantification over objects with a logic of stratified actualization, captured by a family of non-normal, layer-indexed modal operators. Drawing from field-theoretic and structural realist perspectives, we show how presence, causality, and persistence can be grounded in the local propagation of constraint regimes rather than in the persistence of entities. The resulting model dissolves the meta- physical tension between presentism and the formal structure of physics, without collapsing into relativism. We introduce a formal apparatus Stratified Actualization Logic (SAL) to articulate this shift, and argue that presentness should be understood not as the occupa- tion of a temporal location, but as the local coherence of dynamic configurations within a constraint-regulated system. This offers a new foundation for presentist metaphysics that is both ontologically parsimonious and structurally robust.

This paper proposes a structuralist reformulation of presentism that resolves the classical tension between ontological parsimony and the semantic robustness of temporal discourse. Rather than postulating the ontological persistence of past entities, we develop a model in which past-tense propositions are grounded in the structural constraints of the present and the lawful dynamics that govern its evolution. Drawing on structural realism and constraint- based semantics, we define the past not as a domain of no-longer-existing objects, but as a family of nomologically admissible histories derived from the current configuration of the world. This allows for a robust theory of temporal reference without ontological inflation. We distinguish between ontological and nomological pasts, reformulate the truthmaker principle in modal-structural terms, and anchor the arrow of time in an epistemic asymmetry of law- ful reconstruction. The resulting framework reconciles presentism with relativistic physics, supports scientific retrodiction, and avoids the pitfalls of both deflationary semantics and er- satz metaphysics. Temporal truth is reconceived as structural invariance across dynamically constrained histories, yielding a tensed semantics compatible with both scientific realism and ontological actualism.

Presentism is often dismissed for its alleged ontological impoverishment and incompatibility with modern physics. In this article, we defend a structurally reformulated version of presentism, grounded not in the metaphysics of temporal slices but in the functional architecture of nomological constraints. We distinguish between ontological and nomological past, arguing that past-directed truths need not be anchored in presently subsisting entities, but can be structurally projected from the current state under lawful dynamics. This view preserves the truth-aptness of past-tense propositions, avoids ontological inflation, and remains compatible with relativis- tic and quantum frameworks. We propose that the present is best understood not as a static temporal point, but as a locally saturated structure a field of actualizing constraints capable of rounding temporal becoming and epistemic access. This structural presentism offers a realist yet dynamically grounded ontology, reconciling temporal truth with the demands of contemporary science.

This article proposes a structural account of scientific individuation that dispenses with substrata and primitive identity. Scientific objects are not given as substances with intrinsic essence, but as stabilized configurations within dynamic regimes of constraint. Individuation is achieved through the joint satisfaction of four modal predicatescompleteness, differentiation, localization, and signatureeach encoding a dimension of structural viability. This framework allows for a non-substantialist realism grounded in the operational coherence of scientific entities across contexts and regimes. We develop the implications of this approach for scientific ontology, arguing that constraint-based individuation offers a dynamic, nonessentialist alternative to both referential and haecceitist views. Throughout, our perspective remains epistemological in scope: the ontological terms used refer to structures of scientific intelligibility, not to a fundamental metaphysics of reality.

This article examines the phenomenon of epistemic inversion in contem- porary psychiatry, wherein diagnostic classification increasingly precedes and constrains theoretical development. We argue that this reversal—exemplified by symptom-based systems such as the DSM, leads to a loss of epistemic normativity and undermines the interpretive dimension of clinical reason- ing. Through a critical engagement with historical and philosophical tradi- tions (Canguilhem, Hacking) and contemporary debates in the philosophy of medicine (Khalidi, Kendler, Brigandt), we analyze the implications of object- led nosology on the ontology and intelligibility of mental disorders. To re- construct epistemic coherence, we introduce the concept of constraint regimes structural, empirical, and projective—as a framework for understanding how diagnostic stability emerges from the interplay of normative, contextual, and biological factors. We advocate for a situated model of rationality that restores the mediating role of clinical expertise, challenges classificatory reification, and reorients psychiatry toward an interpretive and normatively robust epistemol- ogy.

This article proposes an epistemologically grounded account of emergence based on constraint regimes, dynamically stabilized relational configurations that modulate a system’s accessible possibilities. Rather than positing ontological levels or irreducible properties, we analyze how scientific models and explanations identify stable patterns of regulation. Drawing on examples from neuroscience and systems biology, we argue that such regimes are empirically trackable, functionally efficacious, and structurally indispensable. Emergence, on this view, is not an ontological addition but a structural articulation of modal efficacy across domains. This account supports a realist interpretation of emergence grounded in scientific practice without presupposing a foundational metaphysical substrate.

This paper proposes a structural reconceptualization of scientific objectivity in response to the epistemic fragmentation induced by ultra-specialized scientific practices. Rejecting both foundationalist and relativist paradigms, we define objectivity not as a representational correspondence but as an emergent property of inter-regime structural compatibility. Drawing from topology, category theory, and the theory of constraint regimes, we argue that objectivity arises from the dynamic stabilization and interoperability of heterogeneous epistemic architectures. This account remains epistemological in scope: it does not rely on ontological unity, but instead articulates the conditions under which epistemic systems maintain intelligibility across disciplinary boundaries.

This article challenges the classical ideal of scientific unity as theoretical or ontological reduction. Against the backdrop of contemporary science’s increasing fragmentation, it proposes an alternative model of unity grounded in the structural coordination of constraint regimes. Drawing on recent work in structural realism, epistemology of practice, and anti-reductionist philosophy of science, it argues that the coherence of science emerges from functional compatibility between localized, heterogeneous models, not from global integration under a common theory. The resulting account reframes unity as a systemic property of interaction across epistemic regimes.

Theorization has long been regarded as the cornerstone of scientific rationality. Classical accounts conceive theory as a unifying, deductive, and ontologically grounded structure from which models, explanations, and predictions are derived. Yet contemporary science increasingly relies on fragmented models, localized heuristics, and distributed infrastructures that no longer stem from, nor converge toward, any overarching theoretical framework. This article offers a structural diagnosis of this epistemic displacement: scientific theory is no longer the source of object construction but its retroactive stabilization. We characterize this inversion through the concept of functional epistemology of theory, in which theoretical structures emerge as constraint-based coordinators within heterogeneous regimes of practice. Drawing on examples from climate modeling, synthetic biology, and formal logic, we argue that this reconfiguration applies not only to the “new sciences” but to a broader class of contemporary practices across the natural, formal, and social sciences. Theory becomes architectural rather than foundational, instrumental rather than axiomatic. We conclude by outlining three philosophical consequences: a transformation of the notion of truth, a redefinition of rationality as systemic compatibility, and a revised role for theorization within a distributed epistemic landscape.

This article proposes a conceptual shift in the understanding of scientific theo- ries: from representational realism, which views theories as mappings onto a mind- independent reality, to a framework grounded in constraint convergence. Rather than aiming to mirror the world, scientific theories are understood as architectures of interlocking constraints, structural, empirical, and projective, that collectively stabilize scientific practice. This account reframes key debates in the philosophy of science, including theory change, objectivity, and theory-ladenness, by emphasizing functional coherence over semantic correspondence. Through analyses of dualities, limiting cases, and inter-theoretic transitions, the constraint-based approach ex- plains how theories evolve not by replacing referents but by reorganizing constraint compatibility. The result is a model of scientific progress that is realist without metaphysical commitment, pluralist without fragmentation, and operationally ro- bust. This framework opens the possibility of a general research program structured around constraint architectures, supported by tools from category theory, varia- tional modeling, and computational metamodeling. Scientific knowledge, on this view, gains its epistemic legitimacy not through referential accuracy, but through the convergence and stability of constraint regimes across diverse domains.

We propose a reformulation of ontic structural realism (OSR) that replaces the traditional primacy of relata-independent structures with a dynamic framework grounded in constraint propagation. Drawing on recent debates in the philoso- phy of physics and the foundations of quantum field theory and quantum gravity, we introduce the notion of structural actualism, where physical individuation, causal propagation, and locality emerge from stabilization regimes over constraint spaces. In this framework, a field or system is not defined by intrinsic properties or met- ric embedding, but by a triplet (R, Σ, τ ) representing structural tension, admissible configurations, and propagation relations. We analyze three case studies—quantum excitations in QFT, effective locality in background-independent theories, and mod- ular causal reconstruction—showing how they can be reinterpreted as regimes of constraint coherence. The resulting ontology avoids commitment to objects or background structures, offering instead a theory of dynamically grounded physical structure. We conclude by examining implications for the identity of field-theoretic entities, the emergence of locality, and the interpretation of fields as constraint man- ifolds. This structural shift provides a parsimonious and testable alternative to both substantivalist and purely relational approaches in fundamental physics.

This article proposes a structural and functional reframing of scientific theorizing in response to the fragmentation of epistemic practices. We argue that contemporary scientific theories no longer operate as unified representational frameworks, but rather emerge as contingent aggregates of local epistemic units shaped by constraint regimes. Against representationalism, we advocate a functional epistemology in which the value of a theory lies in its capacity to stabilize, mediate, and propagate constraints across domains. Through case studies in renormalization, quantum measurement, and general relativity, we illustrate how this approach redefines objectivity and theoryhood. We further introduce the concept of “theoretical ersatz” to describe pseudo-theoretical structures that lack generative and normative depth. Diagnosing a broader epistemic inversion—where objects now condition theory rather than being constituted by it—we outline five key structural symptoms: instrumental ontogenesis, inter-regime fragmentation, normative algorithmization, hermeneutic inversion, and the erosion of theory. Each of these dimensions, while briefly sketched here, will be developed in future work. The paper thus offers both a conceptual diagnosis and a programmatic foundation for reassessing the structure of scientific knowledge.

in the wake of increasing epistemic specialization and ontological fragmentation across the sciences, the present paper argues for a renewed philosophia generalis under- stood as the structural regulator of intelligibility. Rather than lamenting the pluralism of scientific domains, we propose a stratified meta-architecture capable of articulat- ing the layered constitution of scientific objecthood. Central to this project is the notion of an ontological algorithm? not a computational procedure, but a configura- tional principle that stabilizes entities across constraint regimes: formal, operational, and effective. By reinterpreting scientific objects as constraint-bound nodes within epistemic ar- chitectures, we reject the naive assumption that theories deliver direct ontological ac- cess. Instead, objectivity is shown to emerge from the dynamic intersection of struc- tural, empirical, and projective constraints. The resulting model navigates between reductionist naturalism and speculative metaphysics by grounding ontological commit- ments in their functional role within scientific practice. Drawing on Husserl’s diagnosis of the Krisis, Bachelard’s epistemological disconti- nuity, and the ontic structural realism of Ladyman and Ross, we outline a structural philosophy that resists both disciplinary isolation and metaphysical absolutism. The ontological algorithm thus functions as a meta-theoretical operator: a principle of intel- ligibility that governs the co-formation of sense, representation, and objecthood across scientific domains. Philosophy, in this view, is not a discourse among others? it is the formal condition for making any discourse intelligible.

We present a functional quantization scheme for a symmetric tensor field de- fined on a differentiable temporal base without metric structure. By replacing the Hilbert space formalism with a functional integral over admissible configurations of the field, we show that quantum phenomena (interference, decoherence, measure- ment) emerge as statistical effects of dynamically stabilized configurations. This framework offers a rigorous alternative to operator-based quantum mechanics, with- out invoking background geometry, and recovers classical structures in appropriate asymptotic limits.

This article proposes a renewed formulation of presentism based on a field-theoretic and func- tional conception of the present. Contrary to classical metaphysical and geometric accounts, we define the present not as a global simultaneity slice but as a local maximum of actualization within an ontic intensity field. This field evolves over a fundamental, non-metric temporal back- ground and dynamically determines the structure of becoming. We argue that this model avoids major objections to presentism, including its incompatibility with relativity and the truthmaker challenge. It also provides a constructive reinterpretation of temporal ontology compatible with structural realism and local physics

This article reinterprets the Husserlian Krisis through a contemporary lens, situating the lifeworld (Lebenswelt) not merely as a forgotten origin of scientific meaning but as a dynamic horizon of intentional sense-constitution. Against the background of modern epistemic fragmentation and hyper-specialization, we argue that the crisis of science is not a pathology of knowledge, but the manifestation of a deeper ontological disconnection: the severing of objectivity from its genetic foundation in lived intentionality. By critically engaging with the transcendental project of Husserl, and bringing it into resonance with both dialectical reason and structural realism, we propose a renewed function for philosophy as a historical-transcendental critique of knowledge. We further introduce the notion of regimes of intentional effectuation to describe how scientific practices constitute worlds through noetic constraints. In the face of cognitive automation and symbolic alienation, we diagnose a proletarianization of intentionality: the subject no longer gives meaning to the world, but is constituted by the noematic systems through which it is represented. This calls for a reactivation of philosophical responsibility—one that does not seek metaphysical foundations, but clarifies the historical structures of sense from within.

This paper develops a non-metric model of causal structure based on the directed variation of a scalar field F(x)F. Departing from traditional frameworks that tie causality to spacetime metrics, we propose that causal precedence arises from internal asymmetries in F, independently of any geometric or temporal background. We formalize this idea via acyclic graphs, gradient structures, and threshold actualization, and show how regions of local stabilization in F give rise to emergent metric properties. The model supports a new type of modal logic based on functional flow, with possibility and necessity defined relative to the direction of variation. We discuss the philosophical implications for structural realism, the direction of time, and the ontology of causation, and suggest that this framework offers a viable foundation for causal reasoning in background-independent physical theories such as quantum gravity.

We propose a conceptual reinterpretation of quantum entanglement grounded in a non-metric field of ontological actualization. Rather than treating entanglement as a static, nonlocal feature of global quantum states, we argue that it can be understood as a regime of structural coherence induced by local cross-activation within a generative field. This approach dissolves several conceptual difficulties surrounding nonlocality, measurement, and the ontological status of the wavefunction. We assess how this perspective aligns with a dynamic, generative variant of ontic structural realism and explore its potential to reframe foundational paradoxes in quantum theory without invoking Hilbert space formalism.

This paper proposes a reformulation of scientific ontology grounded not in representational accuracy or metaphysical postulation, but in the dynamic stabilization of referents across regimes of constraint. Drawing on structural realism, category theory, and case studies in quantum field theory, measurement theory, and general relativity, we develop a criterion of ontological significance based on structural mediation. What is real, we argue, is not what is statically posited, but what persists under transformations that preserve constraintdefined functionality. This framework enables a reconciliation of epistemic contextuality with ontological robustness, by anchoring existence in the modal invariance of structures across scientific practices. We further suggest that mathematics functions not merely as a language of description, but as a constraint-preserving medium that shapes the ontology of science. The result is a shift toward a dynamically grounded metaphysics, in which being is not what is assumed, but what is stabilized. We conclude by arguing that this approach provides a unified ontological criterion applicable across domains, without recourse to speculative metaphysics or naive correspondence realism.

This paper proposes a novel criterion for scientific realism grounded in the modal stability of theoretical entities across scientific practices. Instead of tying ontological commitment to mere theoretical presence or syntactic features, we argue that only those mathematical structures which persist across regimes—formal, operational, and empirical—deserve ontological status. We introduce a three-tiered framework distinguishing formal objects (purely mathematical), operational objects (used in measurement or modeling), and effective objects (stabilized across theoretical transformations). Ontological legitimacy, we claim, arises not from theoretical elegance or explanatory power alone, but from cross-regime resilience. Using the case of the stress-energy tensor in general relativity, quantum field theory, and semiclassical gravity, we show how ontological status is not binary but stratified and dynamic. This leads to a refined form of structural realism that filters structural commitment based on modal invariance rather than abstraction. Our approach offers a pragmatic tool for ontological assessment, avoiding both naive realism and radical instrumentalism. It opens the path toward a modal ontology of science, in which existence is indexed to the stability of structures across the evolving landscape of theory and experiment.