Foundational paradoxes continue to persist in modern physics despite the remarkableempirical success of established theories. These paradoxes do not arise from failed predictionsor mathematical inconsistency, but from recurring conceptual tensions across quantummechanics, gravity, cosmology, and questions of identity, causality, and emergence.This paper examines twenty-four well-known paradoxes spanning these domains andproposes a unified resolution strategy. The analysis is methodological rather than technical:no new dynamics, particles, or forces are introduced, and no modifications to establishedformalisms are required. Instead, the paradoxes are shown to arise from a systematicconflation of descriptive levels, in which constructs native to effective theories are tacitlytreated as ontologically fundamental.By interpreting established theories as projection-level descriptions constrained by domain-specific validity, the paradoxes admit concise and uniform resolutions. Across all cases, themathematical frameworks remain intact; what changes is the interpretation of their ontologicalreach. The recurrence of this resolution pattern across independent and historically distinctparadoxes provides strong support for an ontological distinction between generative structureand effective physical description, articulated here in a deliberately restrained form.The resulting perspective reduces, rather than inflates, ontological commitments whilerestoring conceptual coherence across domains that are otherwise treated in isolation. Withoutspecifying the detailed nature of the generative level, the analysis establishes a unifiedinterpretive framework within which many longstanding foundational problems lose theirforce
Foundational paradoxes continue to persist in modern physics despite the remarkableempirical success of established theories. These paradoxes do not arise from failed predictionsor mathematical inconsistency, but from recurring conceptual tensions across quantummechanics, gravity, cosmology, and questions of identity, causality, and emergence.This paper examines twenty-four well-known paradoxes spanning these domains andproposes a unified resolution strategy. The analysis is methodological rather than technical:no new dynamics, particles, or forces are introduced, and no modifications to establishedformalisms are required. Instead, the paradoxes are shown to arise from a systematicconflation of descriptive levels, in which constructs native to effective theories are tacitlytreated as ontologically fundamental.By interpreting established theories as projection-level descriptions constrained by domain-specific validity, the paradoxes admit concise and uniform resolutions. Across all cases, themathematical frameworks remain intact; what changes is the interpretation of their ontologicalreach. The recurrence of this resolution pattern across independent and historically distinctparadoxes provides strong support for an ontological distinction between generative structureand effective physical description, articulated here in a deliberately restrained form.The resulting perspective reduces, rather than inflates, ontological commitments whilerestoring conceptual coherence across domains that are otherwise treated in isolation. Withoutspecifying the detailed nature of the generative level, the analysis establishes a unifiedinterpretive framework within which many longstanding foundational problems lose theirforce
Contemporary fundamental physics combines extraordinary empirical success with the per-sistence of unresolved foundational difficulties. While theoretical frameworks continue to in-crease in formal sophistication, certain classes of conceptual problems remain stable acrosssuccessive developments. This paper argues that this situation reflects a structural feature ofscientific methodology rather than a collection of isolated technical shortcomings.The central claim is that a methodological asymmetry between formal and ontological el-ements of scientific theories gives rise to a structural catch–22. Formal structures are readilyrevised, extended or elaborated, whereas ontological commitments that delimit a theory’s do-main of applicability are typically held fixed and remain implicit. As a result, foundationalproblems that originate at the level of interpretive structure cannot be resolved within the spaceof admissible responses, leading instead to formal complication or interpretive proliferation.Against this background, foundational paradoxes are not treated here as primary targetsof resolution but as diagnostic indicators of this structural constraint. The paper develops asystematic classification of paradox formation across fundamental physics, identifying five recur-ring mechanisms of ontological misalignment: boundary-region effects, illicit domain extension,projection conflation, temporal category errors and interpretive overloading. These mechanismsrecur across diverse theoretical contexts and account for the persistence of otherwise disparateparadoxes.The papers contribution is methodological and diagnostic: to clarify the structural conditionsunder which certain classes of foundational problems arise and persist and to show how makingontological commitments explicit can expand the space of coherent scientific description withoutundermining empirical rigor. The analysis also highlights how prevailing publication practicestend to reinforce the structural dynamics identified here.
This work proposes a minimal ontological framework aimed at systematically resolving key conceptual paradoxes of contemporary physics. The central claim is that many foundational difficulties of twentieth- and twenty-first-century physics arise not from empirical anomalies or mathematical inconsistencies, but from a conflation of mathematical formalism with ontological interpretation. On the basis of a small set of minimal ontological axioms, the work addresses and resolves ten fundamental paradoxes, including wave–particle duality, the measurement problem and collapse, the arrow of time, irreversibility, quantization, the nature of gravity, cosmological origin, the finiteness of the Universe, the status of singularities, and the information paradox. The proposed framework introduces no new physical entities and does not modify existing physical equations. Instead, it imposes strict ontological constraints from which these phenomena follow as necessary consequences. The work does not present an alternative physical theory, but rather an ontological foundation explaining why modern physical theories are successful and why they encounter inherent explanatory limits.
Many of the most persistent paradoxes in modern physics arise not from inconsistencies in fundamental laws, but from the extrapolation of effective descriptions beyond their regimes of validity. Across statistical mechanics, quantum measurement theory, relativity, and gravitation, paradoxes repeatedly emerge when idealized assumptions such as perfect locality, infinite response speed, memoryless dynamics, or exact reversibility are imposed on systems that exhibit finite response, coherence limits, and irreversible channel activation. This paper surveys a broad class of foundational paradoxes and argues that they share a common structural origin: regime misidentification. By treating geometry, unitarity, and locality as effective descriptors rather than primitive ontological elements, many paradoxes are dissolved or reclassified into concrete physical questions concerning response, memory, channel accounting, and dissipation. The paper is intended as a conceptual companion to work on structural tensions and operational requirements in contemporary physics.
The core dilemma of modern physics stems from two unproven ontological presuppositions: that spacetime is an innate container preceding matter, and that matter is an entity composed of indivisible particles. These presuppositions have led to the fundamental split between general relativity and quantum mechanics, giving rise to a series of century-old unsolved problems such as wave-particle duality, the quantum measurement paradox, the nature of gravity, and dark matter and dark energy. Based on the sole unfalsifiable first principle that "the essence of cognition is succession", this paper deduces a complete ontological system through pure a priori reasoning: the authentic physical world consists solely of one-dimensional successive rays and their transverse coupling relations; time is the successive extension of rays, space is the network of coupling relations, matter is the steady state of closed coupling, and all interactions are different manifestations of coupling actions. Particles are not authentically existing entities, but rather point-like endpoint phenomena presented in the observer's phenomenal world when two rays undergo an all-or-nothing coupling. Based on this framework, this paper uniformly explains all core phenomena in both the microscopic quantum domain and the macroscopic relativistic domain in one go, resolves all traditional physical paradoxes at the ontological level, achieves the ontological unification of the four fundamental forces, and proposes three falsifiable core predictions. This paper demonstrates that all theories of traditional physics are approximate descriptions of the authentic physical world at the phenomenal level, and their fundamental error lies in mistaking "coupling endpoints" for "primitive entities", thereby reversing the causal relationship. Cognitive Succession Ontology provides a logically consistent and universally unified ultimate foundation for physics.
This work presents a conceptual and representational framework aimed at clarifying the structural relationships among established physical theories across relativistic, quantum, and cosmological regimes. Rather than proposing new dynamical laws, particles, or experimentally testable predictions, the manuscript focuses on how existing physical descriptions may be consistently interpreted within a unified representational structure. The proposed Dual-Spacetime Projection Framework distinguishes between an underlying descriptive domain and an observed effective spacetime, connected through a scale-dependent projection. This distinction is intended as a formal and interpretative tool, not as an ontological claim about the existence of multiple physical spacetimes. Within this perspective, several foundational features of modern physics—such as Lorentz invariance, finite signal propagation, quantum uncertainty, and large-scale cosmological behavior—are discussed as consequences of representational structure rather than as independent postulates. The manuscript is positioned as a contribution to the foundations of theoretical physics, offering a coherent conceptual lens for organizing and interpreting existing theories. It is intended for readers interested in foundational questions, conceptual unification, and the representational aspects of physical law, and does not rely on experimental data or numerical simulation.
The measurement problem is commonly taken to indicate a fundamental conflict betweenthe linear, unitary dynamics of quantum mechanics and the definite outcomes observed inmeasurement processes. Standard responses typically resolve this tension by modifying thedynamics, enriching the ontology, or revising the interpretation of the quantum state.In this paper, we analyze the measurement problem from a projection-based perspectivein which quantum evolution and measurement outcomes are associated with ontologicallydistinct effective descriptions defined by incompatible invariance requirements. Within thisframework, quantum mechanics is characterized by unitary invariance and coherent superpo-sition, whereas measurement records are defined by definiteness, stability, and reproducibil-ity. The measurement problem arises when these distinct projection structures are implicitlyidentified or required to coexist within a single effective description.By analyzing measurement as a transition between such projections, we show that theappearance of wavefunction collapse does not require a physical dynamical process. Instead,collapse emerges as a necessary structural consequence of projecting a quantum descriptiononto a measurement domain that enforces different invariance constraints. This accountpreserves the formal structure and empirical success of quantum mechanics while motivatinga restrained ontological reading of its elements.More broadly, the analysis situates the measurement problem within a general patternin which foundational paradoxes arise at the boundaries between effective descriptions. Inthis sense, the resolution proposed here does not introduce new physics, but clarifies theontological scope and limits of quantum-mechanical description.