Quantum Mechanics

Abstract: The major branches of physics exhibit persistent tensions at the interpretive level—quantum mechanics and general relativity are incompatible, the arrow of time in thermodynamics conflicts with the time-reversal symmetry of microscopic physics, and the mathematical structure of string theory resists experimental verification. These tensions are currently treated as independent problems within existing frameworks. This paper, based on the One-Body-Three-Functions hypothesis, proposes a hierarchical reorientation of physical phenomena across three functional layers—the Ontological Layer, the Linking Layer, and the Material Layer—and (...) establishes a three-tier coordinate system defined by two main axes: Time-Consciousness and Information-Matter. Within this coordinate system, the major branches of physics are relocated: Newtonian mechanics, thermodynamics, and electromagnetism are situated in the Material Layer; special and general relativity lie at the boundary of the Material Layer; quantum mechanics points to traces of the Linking Layer within the Material Layer; and the mathematical structure of string theory coincides with the characteristics of the Linking Layer. This paper does not attempt to resolve the unification problem between quantum mechanics and general relativity. Rather, it argues that the location of these tensions is at the boundary of the Material Layer, rather than dispersed across all branches of physics. Once this location is identified, the direction forward becomes clear—not seeking more refined equations within the same layer, but reinterpreting the differences and connections among theories within a functional-layer coordinate system. This paper offers no new physical experiments or mathematical formulas, but provides a frame of reference that places different theories, phenomena, and interpretive difficulties on a single grid. (shrink)

Abstract: The mathematical formalism of quantum mechanics has achieved undeniable success over the past century, yet its interpretation remains persistently divided. The Copenhagen, Many-Worlds, and Quantum Bayesian interpretations—none can coherently address the recurring "observer participation" issue in quantum phenomena without introducing additional ad hoc assumptions. This paper argues that this division does not stem from deficiencies in mathematical formalism, but from a deeper paradigmatic presupposition: that quantum mechanics is tacitly regarded as a theory of "matter itself." This paper proposes a (...) different perspective: quantum mechanics is not a theory describing the properties of matter itself, but a theory describing the rules by which information is translated from a global potential state to a local manifest state when material systems couple with cognitive systems—what this paper terms the "Mind-Matter Linkage." Based on the axiom of "Mind-Matter Unity," this paper defines three layers of function (Ontological Function, Differentiation Function, Manifestation Function), and repositions quantum mechanics as the mathematical formal system of translation rules between the Differentiation Function and the Manifestation Function. From this axiom, this paper successively derives five core phenomena that require ad hoc assumptions within the matter-only framework—the delayed-choice experiment, the quantum eraser experiment, quantum entanglement, the quantum Zeno effect, and the "Hard Problem" of consciousness—demonstrating how a single set of premises naturally yields these phenomena without the need for additional assumptions for each individual phenomenon. Comparative analysis shows that, in the specific dimension of "number of assumptions required to explain the fivefold dilemma," the framework proposed here exhibits structural advantages, though these advantages remain at the level of explanatory power and have not yet been extended to mathematical formalization or predictive power. This paper does not deny the reality of matter, does not modify the mathematical formalism of quantum mechanics, and does not replace existing interpretations, but rather offers a supplementary perspectival shift at the epistemological level. (shrink)

Gomes (2025) argues that gauge theory, as applied to the Standard Model, can be formulated without principal fiber bundles by working instead with ``structured'' vector bundles whose fibers carry an inner product and orientation. I show that this elimination is illusory and that the paper is self-contradictory. A $G$-structured vector bundle $E$ cannot be specified independently of a principal $G$-bundle; more precisely, the frame bundle $L'(E)$ is the \textit{potential bundle} of the principal bundle~--- the bundle of horizontal lines perpendicular to (...) the vertical field lines in the total space. The potential is defined as the perpendicular complement of the field; one cannot eliminate the field by working solely with its potential. The paper's own appendix confirms this: structure-preserving parallel transport is guaranteed only by appeal to the principal bundle of admissible frames --- the object the main text declares epiphenomenal. (shrink)

The ultraviolet catastrophe of cavity radiation and the ultraviolet divergence of quantum gravity admit the same cure, and the sameness is a chain of identities, not an analogy. This paper assembles the exact statement from two companion papers and from results proved here. The Plancherel weight P(λ) = πλ/sinh(πλ) that renders the celestial loop expansion finite at every order is the Planck law of the Lorentz boost: the partition function of a single modular oscillator at the Bisognano–Wichmann temperature β = (...) 2π, multiplied by the boost frequency. Its Mellin moments form a Stefan–Boltzmann family whose values are Dirichlet-completed zeta values, with the one-loop measure 1/8 the gravitational Stefan–Boltzmann constant. The spectral/kinematic factorization of loop amplitudes is the Kirchhoff separation of a universal thermal curve from a process-dependent emissivity, and the Temperedness Theorem of the kinematic companion is Wien's exponential tail: the integrand decays as the Boltzmann weight of the zero point, with nothing kinematic surviving to spoil it. The poles of the weight at integer imaginary frequency, with residues i(−1)^n n, are the quantization condition of the modular clock, the celestial counterpart of E = nhν. One kernel underlies all of it: κ(t) = (2 sinh t)^{−1}. The weight is 2πλ κ(πλ); the one-loop measure is the second Mellin moment of κ; the Riemann zeta function, through (1−2^{−s})Γ(s)ζ(s), is its full Mellin transform; and the removed Euler factor at the prime 2 is the arithmetic signature of the vacuum's zero-point energy. Planck's law, the Stefan–Boltzmann law, and the zeta function are s-slices of one thermal kernel at the modular temperature. Every identity is certified to fifty digits or better in the computational companion; every imported theorem carries its citation five disanalogies with 1900 are discussed, and one conjecture is labeled as such. (shrink)

The companion paper—On Self-Dual Measure and Finite Quantum Gravity—on the Plancherel loop measure established a structural factorization of celestial loop amplitudes into a spectral factor, governed by the measure P(λ) = πλ/sinh(πλ) on the principal series, and a kinematic factor, the conformal block evaluated on the unit circle of cross-ratio. This paper develops the kinematic factor. Four exact structures are established. First, the chiral block k_h(z) = z^h ₂F₁(h,h;2h;z) on the principal series h = ½(1+iλ) reduces exactly to a conical (...) Legendre function, k_h(z) = [2Γ(2h)/Γ(h)²] Q_{h−1}(2/z−1). Second, the shadow involution is the classical Legendre degree symmetry ν ↦ −ν−1, and the connection formula Q_{−ν−1} − Q_ν = iπ tanh(πτ) P_ν exhibits the shadow-symmetric part of the block as the Mehler–Fock kernel and the shadow-antisymmetric part as the carrier of the Mehler–Fock spectral density. Third, the Temperedness Theorem: on physical kinematics z̄ = z*, |z| = 1, the exponential growth rates of the two chiral factors are conjugate-odd and cancel identically, and |g_{1+iλ}(z, z̄)| = |1−z|^{−1/2} (1 + O(λ^{−1})) uniformly on compact subsets of the circle away from z = 1; the shadow spectral integrand therefore decays at the full Plancherel rate e^{−πλ}. Fourth, under the dictionary Δ = 2s the spectral weight is P(λ) = |Γ(2s)|² on the critical line, the logarithmic singularity of the block at z = 1 carries the coefficient ψ(s) evaluated on the critical line, the logarithmic derivative of the archimedean factor at the complex place, and the first moment of this transcendentality engine is evaluated in closed form: (1/2π) ∫ P(λ) Re ψ(½ + iλ/2) dλ = 1/8 + ¼ψ(½), the one-loop measure plus a quarter of the digamma at the shadow fixed point. A Mellin bridge is proved realizing (1−2^{−s})Γ(s)ζ(s) as the transform of the spectral kernel (2 sinh t)^{−1}, with the vanishing of its analytic continuation at the first nontrivial zeros verified to twenty-nine digits. The program for the closed-form one-loop kinematic factor is formulated with these tools and its target identified. Every exact claim is verified in a computational companion; the status of each statement is labeled. (shrink)

Abstract: Addressing the "Hard Problem" of consciousness and the theoretical dilemma of mind-body dualism, this paper further explores the holographic temporal attributes of consciousness based on the ontological hypothesis of Mind-Matter Unity established in The Unified Model of One Body and Three Functions. We propose that the Ground Consciousness Field (GCF), as the hypothetical ontological background of all existence, holographically accommodates all potential and manifested temporal information in an implicit state of "Super Implicate Order." By defining the dynamic mechanisms of (...) "storage as implicit manifestation" and "retrieval as explicit unfolding," this paper demonstrates the modulating roles of thought triggers and consciousness intensity in information extraction. This model not only fundamentally explains the logical gap regarding how matter produces subjective experience but also provides a new cognitive perspective for clinical anomalies such as near-death panoramic retrospection and memory persistence under cellular metabolism. (shrink)

可控核聚变传统磁约束范式受限于固定装置拓扑的表象性能极值，即便通过自组织优化逼近架构上限，仍无法突破人为认知截切带来的固有约束。本文为复杂系统演化元方法论的工程应用系列第二篇，基于本真物理层的相继射线 耦合框架，从底层拓扑视角揭示了传统装置性能天花板的本质：人为将连续电磁耦合网络切割为孤立分支，固化了系统的耦合连通度上限。 本文提出全域射线耦合突破范式，通过重构磁体拓扑、新增跨维度耦合分支提升全局耦合连通度 Ω，从根源上打破现象化层的固定增益极值。文章明确了本真层射线耦合本征效能定律的物理内涵，设计了从现有装置改造到全域耦合原型堆的三阶段递进工程路线，给出了各阶段的硬件配置、性能目标与核心约束，并系统分析 了多层磁体电磁兼容、观测扰动平衡等核心工程挑战与应对方案。 研究表明，本真层方案不存在理论层面的固定性能天花板，耦合拓扑每升级一次，系统增益上限即同步抬升。该范式为可控核聚变提供了一条从存量优化到极限突破的完整技术路径，也为复杂系统的原理级创新提供了可复用的工 程化范本。.

This paper is the thirty-ninth in a sequence developing an interpretive framework that redescribes physical reality as a causally consistent history of information updates. It is the second panel of the eleventh grouping — a Gate-VII / U3 audition, which asks whether the framework can force a distinctive world-side observable rather than one more warrant-side redescription. The three panels audit independent seams: Paper 38 a dynamical one (leading result: a null), this one a structural one, Paper 40 the synthesis. -/- (...) Paper 36 read the horizon entropy as a coarse-graining state entropy of a declared record-bearing support and imported the induced-gravity which-entropy / species problem as a live defect: in Sakharov-style induced gravity the effective Newton constant is a scheme-dependent sum over matter species, so G is not predicted and the cutoff and species content are declared. This panel asks whether the record-bearing reading actually restricts which species enter that sum, or is inert — a re-weighting of entanglement entropy with no bearing on G. The foil is the Global Species Census: the claim that the induced-G species content is a framework-external field-content declaration no record architecture can touch. -/- Two moves make the audit honest. First, following Paper 30, Darwinist redundancy is grain-relative, not species-intrinsic; so the world-side record-relevance indicator is defined relative to a declared grain (local algebra, exterior fragmentation, state class, anti-gerrymander covariance), with provenance kept out, and it is a reproducibility convention rather than a new physical observable. Second, three species-contributions are kept type-distinct: contribution to the entanglement entropy (a), to the Einstein-Hilbert counterterm that renormalizes 1/G (b), and record-relevance (c). The pivotal fact is that (a) and (b) are the same ultraviolet heat-kernel quantity — at leading order in a fixed scheme, modulo well-known gauge/contact-term, non-minimal-coupling, regulator, and Wald-entropy subtleties — while (c) is an infrared, environmental property. A field that fails Darwinist redundancy in the infrared still contributes to the ultraviolet counterterm according to its spin, multiplicity, and coupling. Therefore the record filter restricts (c), and a record-bearing re-weighting of (a), but not (b), the counterterm that fixes G. -/- The leading result is a null / reduction conclusion (39-C, inert), stated as a conditional argument, not an unconditional theorem: under the standard reading of the induced counterterm as a local ultraviolet heat-kernel coefficient, the record reading has no world-side teeth on induced gravity, and the Global Species Census stands. A counterfactual, toy-arithmetic species ledger shows the effect one would obtain — a factor of five in the ratio of induced increments, in the pure-induced limit — if the filter applied to the ultraviolet sum, which it does not; its low-energy redundancy entries are not established at the Planckian cutoff. A restriction would survive only if one could construct a scheme-robust ultraviolet bridge from record-relevance to the counterterm; the honest prior is that none exists, and even then it would not predict G. The null is treated as a result: it locates the which-entropy problem's record reading firmly in the infrared, where it cannot fix an ultraviolet constant. Presents no new physics; results are interpretive (L2) on imported physics (L1). (shrink)

This paper is the thirty-eighth in a sequence developing an interpretive framework that redescribes physical reality as a causally consistent history of information updates. It opens the eleventh grouping — a Gate-VII / U3 audition. After the tenth grouping crossed the dynamical quantum-mechanics–gravity gates (IV–VI) but produced no distinctive empirical signature (Papers 36 and 37 flag U3 and Gate VII as unreached), the eleventh grouping asks whether the framework can force a distinctive world-side observable rather than one more warrant-side redescription. (...) Its three panels audit independent seams — this one dynamical, Paper 39 structural, Paper 40 the synthesis — each built to yield a definite result either way, so that a null is a genuine outcome. -/- Panel 1 makes Paper 33's deferred magnitude dynamical. Its foil is the Global Heat Tax: that record backreaction is exhausted by a generic, arrow-blind energy bill, so the localized excess of a public record gravitates exactly as a generic mass of the same total localized mass-energy and localization would. This is neither Paper 6's already-rejected universal per-bit heat tax nor Paper 33's already-separated source-versus-cost confusion; it is the next question they leave open. We audit it in a purified gravitational record-export channel: a test mass in spatial superposition, and a genuine public record of its own content (quantum-Darwinist redundancy, per-fragment error, retention) that does not read the mass, so its exported fragments acquire a which-path imprint of the mass's branch only gravitationally, through the mass's branch-dependent Newtonian potential. -/- The mean localized record mass-energy sources a coherent phase, not decoherence; the fragments' branch distinguishability — governed by their internal-energy variance in the Pikovski time-dilation form — sources the dephasing, defined through the environmental overlap. Against a non-gerrymandered matched baseline (a maximum-entropy generic object of the same retained stress-energy), the specificity discriminator reduces to the record's internal-energy variance versus the baseline's. -/- The leading result is a null / reduction theorem. Because the internal-energy variance is a preparable state property, not fixed by mass-energy, a generic object can be specified with matching variance: the record-export channel is not framework-forced-distinct from a matched generic object unless the record's public and retained function constrains its internal-energy variance beyond what equilibrium can share. A concrete cold, error-corrected record earns a baseline-relative shift against a passive-equilibrium reference, but that shift is not framework-forced, and an energy-budget ceiling bounds any residual far below realizable testability at tabletop scales; observability moreover requires that the common standard decoherence remain below the interference-visibility threshold, not merely cancel algebraically. On the shared U3Status rubric — whose first axis is split into a baseline-relative shift and a framework-forced shift — the seam scores a positive baseline-relative shift but a null framework-forced shift and null testability: a Gate-VII candidate at most in principle, not U3. -/- The account is weak-field, bound-type, and per-branch; the dephasing model is a time-local, not necessarily Markovian, master equation, and no gravitational dynamics is derived. The null is treated as a precise map of what the seam cannot carry: it locates where a framework-specific gravitational signature would have to originate — a function-forced constraint on the record's internal-energy variance — and shows that the mere existence of a localized record source does not supply one. Presents no new physics; results are interpretive (L2) on imported physics (L1) and the framework's domain-general discipline (L2-G). (shrink)

This thesis presents Liminal Consciousness Theory (LCT), a novel theoretical framework that addresses the fundamental philosophical question of whether reality includes stable domains of in-between existence that are neither fully material nor fully immaterial. Through comprehensive analysis of existing literature in consciousness studies, quantum mechanics, phenomenology, and process philosophy, this work develops a unique perspective that has yet to be considered by human researchers. LCT proposes that consciousness, personal identity, and phenomena traditionally classified as supernatural emerge from stable liminal domains (...) that exist in quantum superposition states between material and immaterial reality. -/- The theory is grounded in empirical findings from neuroscience research on altered states of consciousness, particularly hypnagogic and hypnopompic states, which demonstrate enhanced creativity and anomalous experiences. Mathematical formulations based on quantum field theory provide a rigorous foundation for understanding liminal dynamics, while phenomenological analysis reveals the experiential structures of in-between existence. The framework generates specific empirical predictions including measurable parameters such as the Liminal Coherence Index (LCI), Threshold Sensitivity Quotient (TSQ), and Ontological Stability Metric (OSM). -/- Key findings include: (1) consciousness emerges from liminal coherence patterns rather than purely material brain processes, (2) personal identity exists as a dynamic process of becoming within liminal domains rather than a static property, (3) supernatural phenomena represent natural interactions with liminal reality rather than violations of physical law, and (4) liminal domains provide a unified framework for understanding creativity, mystical experience, and anomalous phenomena. The theory offers significant advantages over existing materialist, dualist, and idealist approaches by resolving the hard problem of consciousness while maintaining empirical testability. -/- This work contributes to multiple fields including philosophy of mind, consciousness studies, quantum biology, and anomalous phenomena research. The implications extend beyond academic theory to practical applications in therapy, education, and human development. LCT represents a paradigm shift toward understanding reality as fundamentally processual and liminal rather than composed of discrete material and mental substances. (shrink)

Black-hole horizons are ordinarily discussed through classical causal structure, semiclassical evaporation, quantum information, holography, complementarity, and remnant proposals. This paper does not modify general relativity, compute Hawking radiation, derive a Page curve, choose a quantum-gravity model, or assert that classical event horizons cannot be useful idealizations. It proves a narrower fixed-domain closure result. Once an exterior black-hole domain is treated as a coherent construction of persistent physical reference, the admissibility kernel is instantiated automatically: admissibility, standing, reference, and irreversibility become non-optional (...) constraints on same-scope exterior reconstruction. The standing-sink insight is formulated here as a universal obstruction theorem. The argument proceeds through: kernel instantiation, boundary-trace fixation, exterior witness completion, partial-domain obstruction, conservative hidden-sector collapse, no admissibilitygenerating structure, route exhaustion, and quotient uniqueness. Because the framework is constraint-theoretic, closure is not an added rhetorical aim; it is the expected result of exhausting all same-scope admissibility-preserving continuations. A permanent horizon is therefore not characterized merely as a region from which signals fail to escape. It is characterized, relative to a declared exterior reconstruction scope, as an attempted continuation of standing-bearing exterior reference after the admissible standing-transport operator has become partial. If no standing-transport certificate exists, totalizing that operator across the old uncertified horizon carrier is inadmissible. Equivalently, the internal horizon totalization obstruction is nonzero. The finite horizon reconstruction category CHOR and its partial-domain refinement C∂ HOR make the comparison class explicit. Objects contain a fixed exterior scope, horizon boundary traces, standing-bearing exterior reference classes, exterior witness algebras, admissible continuation, standing-transport status, certificate data, leakage status, and an envelope ledger for physical inputs not derived by the theorem. Morphisms preserve anchors, exterior witnesses, boundary typing, continuation, transport/certificate status, skin covariance, no-selector discipline, and no-repair history. The quotient Q∂ HOR is universal for admissible same-scope horizon reconstruction: every witness-preserving reconstruction factors through it up to bookkeeping-equivalent redescription. Three recurring objection classes receive separate treatment. First, global retention is not exterior reconstruction: a globally existing state, correlation, or code preserves exterior standing only when it induces a same-scope certificate on the declared exterior witness algebra. Second, stable remnants are not automatic rescues: a remnant preserving standing must expose an admissible reconstruction map to exterior witnesses, otherwise it is a compression sink, hidden index, or scope transfer. Third, authority cannot generate reconstruction: a duality claim, expert reconstruction procedure, Page-curve reconstruction claim, remnant index, or institutional declaration changes no admissibility status unless it factors through the old exterior witnesses or supplies a certificate; if it does change admissibility without that basis, it is repair, selector import, carrier laundering, or scope change. A finite toy collapse witness makes the obstruction explicit by displaying leakage, certification, and failed totalization cases on a small reference set. The analysis also uses the admissible-interior closure discipline: admissibility constraints are necessary conditions for lawful reconstruction, not sufficiency guarantees for persistence or realizability. The paper therefore does not assume that exterior reconstruction must continue indefinitely. It distinguishes three cases: certified continuation, larger-scope continuation, and exhaustion of admissible exterior successors under fixed constraints. Exhaustion is not a process, entropy drain, dynamical decay, or failure of the admissibility rules; it is the absence of any standing-preserving successor object in the declared scope. A model may acknowledge exhaustion, but it may not then present an uncertified permanent horizon as a continuing same-scope standingpreserving reconstruction object. The main theorem is conditional and scope-locked. In a fixed witness-complete exterior scope requiring standing-bearing reference preservation, an uncertified permanent horizon is inadmissible as a continuing same-scope reconstruction object. Any admissible horizon model must instantiate leakage, evaporation, certified exterior reconstruction, holographic anchor transport, complementarity with redescription-stable correspondence, a non-sink quotient structure, or explicitly classify the case as exhaustion of exterior reconstruction rather than as standingpreserving permanence. Hawking radiation and related mechanisms are possible dynamical realizations of the structural requirement, not assumptions of the proof. (shrink)

This study outlines the core objective: to explore an analogical argument between quantum mechanics and phenomenal consciousness. The work proposes that phenomenal consciousness and quantum phenomena share structural features—such as observer-dependence, contextual emergence, and perspectival constitution—that justify the use of analogy not as metaphor, but as a philosophical method. It also critically examines the status, limits, and epistemic implications of analogical reasoning in this context.

On Computing is an entry in the On ——ing series — a sequence of lyric-philosophical essays. Moving from a childhood memory of a first home computer and an Encarta entry on the Apollo 11 landing, the essay traces the processor's lineage from Babbage's imagined gears through the 1947 transistor and the integrated circuit to the first microprocessor, and sets the architecture of the machine — hard drive, RAM, processor — beside the architecture of the brain — cortex, prefrontal cortex, thalamus, (...) and the Cartesian pineal. It argues that the computer has only ever run the logic; the equations that reached the moon were a product of the human mind. Reading Armstrong's "one small step" as a meditation on the seam between man and mankind, and closing on the Boolean grammar of IF / AND / OR / THEN, the piece holds to the series' load-bearing distinction between philosophical framework and empirical claim, and to the call to keep our creations under control. (shrink)

量子力学与广义相对论的数学统一是基础物理学的核心目标。现有统一路径多依赖特设性数学构造，缺乏自洽的本体论支撑，且未能产出可明确检验的定量预言。 本文为系列研究第四篇，基于认知相继本体论的核心框架，将“相继射线-横向耦合”的定性本体论模型转化为严格的数学形式体系，建立相继耦合动力学。该理论以三项基本公理为逻辑起点，以一维相继射线为本真物理层的基 本实在，以横向耦合为唯一相互作用机制，推导出支配所有物理过程的统一积分-微分动力学方程。 本文从框架层面证明：薛定谔方程是相继耦合动力学在微观单射线弱耦合极限下的近似表达，爱因斯坦场方程是其在宏观多射线统计平均极限下的近似表达。该理论自然解释了引力不可量子化的本体论根源，并给出三项可与现有 理论明确区分的定量预言。本工作为物理学的终极统一提供了兼具本体论根基与数学可检验性的全新路径。.

Life as Nature's Circular-Linear Reaction to Death.

Wu and Yang (1975) identified gauge fields with principal fiber bundles: a gauge field is a bundle with a connection; this is not a choice of formalism but the definition of the object. This paper examines two lines of work that detach gauge-theoretic vocabulary from the geometric object it names, then identifies why the standard computational tools work despite this detachment. Part I reviews the metaplectic fusion category papers, which classify solutions to the pentagon and hexagon equations for the SO(2p+1)₂ (...) based ring, and shows that the physical vocabulary surrounding the work — topological quantum field theory, anyons, gauge invariants, SO(2p+1) at level 2 — is not earned. It supplies the result the classification was standing in for: integration over the principal SO(2p+1)-bundle with Chern-Simons connection at level 2 produces a single determined object. For SO(5)₂, the classification also produces wrong numerical data: the published twist values disagree with the bundle computation. Part II identifies the root issue — a pervasive substitution of ring algebras for fiber bundles — and exhibits the same error in a recent proposal to "encode" Chern-Simons theory into a Raman-coupled Bose gas, where the connection is eliminated in favor of a density coupling and the bundle is lost. It then proves that the Verlinde formula, used for 35 years without geometric explanation, computes on the complex Hopf fibration with first Chern number c₁ = 1 and linking number L = 1. Since physical fields fiber through U(1), the Hopf fibration is the universal principal bundle for gauge theory, and the Verlinde formula works because L = 1 at every level of the Hopf tower. (shrink)

This volume is the third book in the EQT series on the multi-instrument reinterpretation of observational data. Its central question is whether the radial acceleration relation (RAR) can be moved beyond post hoc dark-matter inversion and formulated as a mechanistic, falsifiable prediction. The RAR is one of the most striking regularities in galactic dynamics: observed accelerations depart from the Newtonian expectation based on baryons around a nearly universal acceleration scale, with small scatter and a smooth transition. Standard approaches describe this (...) regularity either through dark-matter halos in ΛCDM or through a universal acceleration scale and interpolation function in MOND. Both are treated here as empirically successful reference frameworks, not as failed targets. The EQT reading begins from an interface reclassification. The dark-matter-like enhancement inferred from rotation curves is not treated merely as an empirical residual, but is locked to the effective gravitational-coupling interface, so that the enhancement factor becomes a scale-dependent expression of (G_{\mathrm{eff}}(r)/G). This shifts the problem from “how much dark matter must be added after the fact?” to “what mechanism determines the scale dependence of effective gravitational coupling?” The book then develops the dual-field gradient mechanism: an ultra-low-frequency background field sets the universal acceleration scale, while a mid-frequency field determines the galaxy-by-galaxy enhancement amplitude. Their multiplicative coupling is used to reinterpret the RAR, its small scatter, and the smoothness of the transition radius. The methodological premise is that single probes are underdetermined. A single galaxy rotation curve can usually be made compatible with an EQT dual-field reading, a MOND interpolation, or a ΛCDM halo model. Discriminating information lies instead in systematic relations across galaxies, scales, environments, and redshifts: whether the acceleration scale is universal, whether the transition radius follows (r_t \propto \sqrt{M_b}), whether residual scatter correlates with dynamical relaxation, whether lensing and cluster dynamics read out the same effective-coupling structure, and whether the acceleration scale shows a high-redshift turnover. These are multi-probe questions, not single-curve questions. The volume proceeds from object foundations to cooperative detectability criteria, diagnostic matrices, reinterpretive verification, and falsifiable predictions. It introduces criteria for a universal acceleration scale, dual-field multiplicative coupling, and dynamic–steady-state handover; formulates diagnostic quantities such as (a^\dagger), (a^\dagger(z)), (r_t), enhancement factors, and scatter–relaxation correlations; and places SPARC rotation curves, lensing measurements, cluster dynamics, and high-redshift rotation data within a common testing framework. The core discriminating prediction is not that (a^\dagger) is numerically close to (cH_0), a relation noted in several traditions, but that a dual-field mechanism should generate testable patterns beyond MOND and halo fitting, especially a possible high-redshift turnover in (a^\dagger(z)). The book is deliberately constrained in scope. It does not introduce new EQT postulates, reject the empirical achievements of MOND or ΛCDM, or reinterpret cosmological redshift. It also does not claim that the final forward calculation of individual galaxy rotation curves has already been completed. Its contribution is more precise: to recast the RAR as a multi-probe, mechanism-level prediction, to identify where EQT can be empirically distinguished from existing descriptions, and to state clear conditions under which the proposed dual-field mechanism would fail. (shrink)

This volume is the second book in the EQT series on the multi-instrument reinterpretation of observational data. Its central question is whether coordinated distance probes can test a possibility that single-probe analyses usually cannot distinguish: that cosmic acceleration may be explained without introducing an independent dark-energy entity or a fundamental cosmological constant. The book does not deny cosmic acceleration, does not reject the expansion of the universe, and does not reinterpret cosmological redshift. Instead, it accepts redshift as a reliable distance–time (...) scale, treats accelerated expansion as an established observational fact, and uses ΛCDM with a cosmological constant as the effective reference model against which an alternative EQT reading is examined. The proposed reading is the ultra-low-frequency background interpretation. In this view, the acceleration term in the expansion history is not attributed to an independent Λ-like substance, but to the effective negative pressure of an ultra-low-frequency component of the energy-quantum density field as it enters the Hubble function H(z). The theoretical mechanism itself is taken from the corresponding EQT volume on dark matter and dark energy; the present book does not introduce new postulates or rebuild that mechanism. Its task is more specific: to examine whether multi-probe distance data can consistently constrain an H(z) interface in which cosmic acceleration is accounted for by an ultra-low-frequency background rather than by an independent dark-energy entity. The methodological premise is that single distance probes are underdetermined. Type Ia supernovae, BAO measurements, and CMB acoustic constraints can each be fitted within the standard ΛCDM reading and may also remain compatible with an alternative background-based reading, because each probe samples only part of the distance–redshift relation. The distinction becomes meaningful only when multiple probes jointly constrain the shape of H(z) across a wide redshift range. For this reason, the book focuses on the cooperative structure of BAO rigid rulers, supernova luminosity distances, and CMB acoustic anchors, and treats their consistency, tension, and residual structure as the observational interface through which the “no independent dark-energy entity” hypothesis can be tested. The volume proceeds from object foundations to cooperative detectability criteria, distance-diagnostic matrices, reinterpretive fitting, and falsifiable predictions. It develops criteria for rigid-scale anchoring, cooperative fitting thresholds, and multi-probe distance decomposition; introduces diagnostic quantities such as H(z), w(z), δ, and residual density terms; and frames model comparison against ΛCDM as an explicit failure condition. If the background parameter reduces to zero, the framework degenerates back to ΛCDM; if a background-based H(z) cannot fit BAO, supernova, and CMB distances without an independent Λ term, the proposed reading is not supported. By treating cosmic distance not as the output of isolated probes but as a jointly constrained observational structure, this book turns the phrase “without dark energy” into a precise, testable claim. It means not the absence of acceleration, but the possible absence of an independent dark-energy entity. The contribution of the volume is therefore to formulate a disciplined multi-probe research program: one that respects the empirical success of ΛCDM, preserves the standard redshift framework, and asks whether the source of cosmic acceleration can be reinterpreted through the ultra-low-frequency sector of Energy Quantum Theory. (shrink)

This volume is the first book in the EQT series on the multi-instrument reinterpretation of observational data. It asks whether coordinated observations across different instruments and frequency bands can formulate and test a possibility that single-instrument studies can rarely isolate: the active evolution of the universe. The book does not seek to replace ΛCDM, nor does it reinterpret cosmological redshift. Instead, it treats ΛCDM as an effective limiting description and accepts redshift as a reliable distance–time scale, while examining whether the (...) same cosmic structures may also be read, at the observational-interface level of Energy Quantum Theory (EQT), as products of high-frequency driving and cross-frequency coupling. The central thesis is methodological as much as theoretical. In single-instrument data, the passive reading of hierarchical gravitational aggregation and the active EQT reading of cross-frequency structural weaving may both remain compatible with observation. Their difference lies not primarily in any one frequency band, but in the relations among bands. For this reason, the book develops a multi-instrument framework in which JWST, ALMA, and future LISA observations are treated as complementary readouts of different components of the same evolving gravitational-density disturbance. The key diagnostic is not merely whether ultraviolet emission, cold-gas tracers, or low-frequency gravitational-wave backgrounds can be detected individually, but whether they display systematic cross-frequency co-location, correlation, and residual structure beyond standard explanations. The volume proceeds from object foundations to detectability criteria, diagnostic matrices, reinterpretive verification, and falsifiable predictions. It formulates criteria for cross-frequency frequency matching, cooperative amplitude thresholds, and multi-state decomposition; introduces a cooperative detection matrix and diagnostic quantities for spatial and temporal association; and applies these tools to the reinterpretation of existing and prospective multi-instrument data, especially JWST+ALMA and JWST+LISA configurations. Throughout, the argument is constrained by explicit boundaries: it does not add new postulates, does not assert that active cosmic evolution has already been confirmed, and does not treat standard star-formation or gas relations as evidence unless a residual, cross-frequency signature can be independently tested. By organizing cosmic-structure observations through the lens of coordinated detection rather than isolated instrumental readings, the book aims to clarify what multi-instrument astronomy can add to theoretical interpretation. Its contribution is to transform “active cosmic evolution” from a speculative image into a structured, testable research program: one grounded in existing observational interfaces, disciplined by failure conditions, and open to confirmation, revision, or falsification by future data. (shrink)

This special issue brings perspectivism, as a recent development in the philosophy of science, into contact with non-objectivist interpretations of quantum mechanics. By “objectivist interpretations,” broadly understood, we mean interpretations that seek to eliminate operational notions such as “measurement” from the fundamental postulates of the theory and insist that quantum mechanics, like classical mechanics, yields a purely objective, third-person description of how reality evolves in time. The guiding hypothesis, exemplified in several contributions to this issue, is that quantum mechanics supports (...) perspectivist approaches to science, and that perspectivism can serve as a suitable philosophical-conceptual framework for certain interpretations of quantum mechanics. (shrink)

This paper develops a cross domain account of how constraint closure mechanisms generate determinate structure in both quantum systems and affective cognition. Constraint Theory (CT) holds that “spatial properties…are downstream expressions of causal constraint propagation relations between token level actualities,” interpreting entanglement as the behavior of a unified constraint profile. The Core Emotion Framework (CEF) models emotion as ten somatic operators whose interactions form structured, vector valued states. Beyond this conceptual parallel, the paper integrates empirical findings from predictive coding, polyvagal (...) physiology, somatic therapies (EMDR and Somatic Experiencing), dopaminergic SEEKING systems, and behavioral activation, each of which maps onto specific CEF operators. Under dysregulation, operator fusions create non separable affective states analogous to quantum non factorability, a pattern supported by Phase 1 psychometric results showing excellent RMSEA but depressed CFI/TLI. The analysis argues that both physical and affective systems resolve indeterminacy through structurally homologous processes of constraint propagation and closure. Keywords: Constraint Closure; Quantum Non Separability; Affective Entanglement; Core Emotion Framework; Somatic Cognition; Predictive Coding; Active Inference; Polyvagal Theory; EMDR; Somatic Experiencing; SEEKING System; Behavioral Activation; Operator Fusion; Structural Psychopathology; TS 6 Vector Schema; TS 7 Architecture; Decoherence Analogy; Topological Restriction; Cognitive Constraint Dynamics; Embodied Neuroscience. (shrink)

What must be the case for real relation between distinct beings to be possible? Familiar answers fail to hold distinction and relation together: reduction collapses beings into their relations, dissolution denies distinct beings prior to relation, and withdrawal secures distinctness only by removing beings from relation. These views share an unexamined premise, namely that genuine presence in relation and inexhaustible actuality are incompatible, so that whatever a being holds in reserve must be subtracted from its presence. Against this, the paper (...) defends a transcendental thesis: intrinsic, non-relational distinction is the condition of relation, not its product. Relation cannot constitute the distinctness of its own terms; attempts to do so either regress, become circular, or concede primitiveness, which is intrinsic distinction under another name. Once intrinsic distinction and real relation are both admitted, further commitments such as non-exhaustive presence, manifestation, and participation without collapse follow as articulations of a single primitive rather than independent posits. The dependence is asymmetric: relational ontologies presuppose the distinction they deny, whereas distinction presupposes no relation. This requirement generalizes to determinacy itself, where articulation presupposes distinguishability that cannot be relationally constituted. A final section argues that contemporary field ontology exhibits the same structure, though the argument is independent of physics. (shrink)

The intersection of quantum foundations and cognitive modeling offers a fertile landscape for exploring how structural constraints govern both physical reality and subjective experience. This analysis evaluates the profound conceptual and empirical alignments between Dr. P. D. Prideaux's Constraint Theory (CT) of quantum non-separability and Jamel Bulgaria's Core Emotion Framework (CEF). By exploring how physical entanglement and constraint closure relate to affective entanglement, operational optimization, and quantum-like contextuality, this report demonstrates a unified structural-constructivist ontology wherein determinacy emerges through the restriction (...) of possibility spaces. (shrink)

Humans need to survive in order to reproduce, so, thus, the intersection of fintech and biotech (finance and biology and technology). Government steps in. -/- .

This paper explores what follows when the speed of light is understood not as a constraint on a single physical process but as the total structural budget distributed across the seven-operator chain of Structural Primitive Architecture (SPA). Beginning with the twin paradox and working toward wave-particle duality and wave-function collapse, I trace a continuous argument from first structural principles. The central claims have different evidential weights, which I flag throughout: (1) time and space are structural inverses grounded in the H/K (...) operator duality, and the Minkowski metric signature may encode this inversion— proposed, derivation open; (2) the twin paradox is a redistribution of c-budget from temporal Actualization into spatial Orientation, made permanent by K irreversibility — argued structurally; (3) the photon is a limiting structural case, absent from the K-type operator dimensions and propagating as a wave because it cannot localize — argued structurally; (4) wave-function collapse is seam-breaking by an external H > K structure — argued structurally, with the uniqueness-ofoutcome question left explicitly open; and (5) the Born rule may find a structural reading in the Gradientation operator, for monochromatic plane waves only —suggested, generalization open. This is theoretical philosophy of physics: an exploration from first principles whose goal is to open a direction of inquiry, not to close one. (shrink)

The theory of Brownian motion was the first physical theory in which a physical quantity (the diffusion coefficient) was connected to a moment of a random variable (the mean squared displacement). As a result, the experimentally measured position of a Brownian particle must be regarded as a realization of a random variable, and a sample of such measurements allows us to estimate the physical quantity associated with the moment. This is discussed within the framework of two criteria for measurement outlined (...) in Bas van Fraassen's work: Value Definiteness and Veracity in Measurement. The second criterion requires modification as compared with conventional measurements; in this regard, there is an analogy with van Fraassen's analysis of the problem of coordination related to quantum mechanics. Perspectives regarding the relationship between random variables in physical theory and the world are also explored. Presented herein are Einstein's view regarding probability as an indicator of incomplete physical theory, and the more flexible stance of V. V. Nalimov concerning the practical application of probability theory. (shrink)

What makes a world a world rather than a fragment, hallucination, dream, simulation-frame, Boltzmann-brain episode, or unstable configuration? This paper introduces the record-closure problem: the problem of specifying what degree of internal record coherence, stability, depth, channel-connectivity, and update-admissibility is required for a domain to function as a livable world for finite agents. A world need not be metaphysically complete in an absolute sense. It must, however, be sufficiently closed under record-based continuation: memories must connect to admissible histories; perceptions must (...) connect to stable environments; actions must generate coherent updates; errors must be detectable and correctable; and law-like regularities must support expectation. The paper develops record-closure as a criterion of worldhood within Record-Based Ontology (RBO) and as a companion notion to Bit-Collapse Theory (BCT). If BCT asks when possibilities become different experienced worlds for a finite observer, record-closure asks when a domain is internally coherent enough to count as a world at all. The framework is applied to dreams, hallucinations, Boltzmann brains, simulations, Everettian observer-worlds, historical reconstruction, and ordinary reality. The central thesis is that a world is not merely a substrate, an object-set, or a formal state. It is a record-closed domain of admissible continuation. (shrink)

Physical theories routinely use metric structure–distance, duration, locality, propagation, curvature, scale, and metric-dependent parameters–as part of their operative descriptive apparatus. This manuscript asks the prior question: under what structural conditions may metric description be used at all? For any non-degenerate target regime (a regime with stable target reference, identitypreserving reuse, irreversible commitment, and admissible continuation), the Admissibility And Standing Constraint (AASC) kernel is instantiated by necessity rather than assumed by convention. The dependency is target-typed: non-degenerate target regime ⇒ AASC kernel (...) ⇒ AMetric boundary ⇒ L-metric licensing. In such regimes, metricity is not primitive boundary authority. AASC is a constraint formalism: its theorems are fixed-domain exhaustion results, not generative dynamics. The comparison class is specified, and proposed standing-bearing alternatives are classified by whether they preserve the standing quotient, change scope, import an inadmissible authorizer, or collapse fail-closed. We define an L-metric boundary as a local projection interface at which metric descriptors may become physically interpretable. The central theorem proves that such descriptors are lawful only as licensed interior articulation of already standing-positive structure. They cannot serve as boundary authority, retroactive warrant, selector, carrier, boundary operator, undeclared hidden remainder, or repair mechanism for their own standing. Independent physics-bound audits–Lorentzian interval comparison, zero-point vacuum energy, Standard Model structural/parametric separation, cosmological transport closure, and entanglement/no-channel structure–illustrate the classification behavior. They are applications, not premises. The manuscript introduces no new empirical prediction and does not replace GR, quantum theory, QFT, or cosmological inference. It fixes the structural legality conditions under which physical description may be metric. Refutation of the central theorem requires a kernel-breaking regime, an unclassified faithful same-regime survivor (an admissible alternative preserving the declared comparison class), or a demonstrated misclassification by the exhaustion classifier; audit-level claims retain local burdens. (shrink)

The standard cosmological model (ΛCDM) attributes the observed dynamical anomalies of the universe to two components—dark matter and dark energy— whose nature remains unknown. The present work does not propose an alternative physical model. Instead, it offers an ontological reinterpretation of the dark sector within the framework of coherence thresholds. It is assumed that temporal autonomy does not arise from mere existence or interaction, but from crossing a coherence threshold λ(c), understood as the condi- tion under which the characteristic timescale (...) of coherence reconstruction equals or exceeds the timescale of its dissipation. If coherence thresholds are hierarchical, it becomes possible that some organizations belong to temporal regimes whose λ(c) differs from that of the baryonic domain. The paper introduces the notion of a coherence horizon as a measure of rel- ative temporal distance between domains. Crossing a critical value may lead to inter-regime decoherence—the loss of informational translatability while preserving metric coupling. On this view, phenomena attributed to dark matter and dark en- ergy may be interpreted as metrical and dynamical traces of organizations operating in temporal regimes partially inaccessible to the baryonic domain. The proposal does not compete with ΛCDM as a computational framework. Rather, it suggests an ontological shift: the dark sector may reflect not missing substance, but the non-uniformity of temporal regimes. Keywords: Dark Sector, Coherence Threshold, Temporal Regimes, Ontology of Time, Informational Accessibility, ΛCDM, Dark Matter, Dark Energy. (shrink)

Standard finite-dimensional quantum mechanics is usually formulated after its symmetric structure has already been assumed: states live in a complex projective Hilbert space, reversible dynamics is unitary, and distinguishability is symmetric inside the closed-system formalism. FDS-Q0 asks a prior question: why should physical distinguishability become symmetric at all? The answer proposed here is that standard quantum mechanics is the zero-holonomy reversible quotient of a more primitive asymmetric finite-boundary access dynamics. A physical distinction is first directed, boundary-relative, and capacity-limited: a system (...) may export, preserve, erase, or recover a distinction differently across different boundaries. The central object is the boundary-access holonomy H∂, an operational obstruction to closing a directed access loop through system, apparatus, environment, record, and recovery channels. This version strengthens the Q0 proposal in three ways. First, it defines a restricted access category with finite quantum systems, finite record registers, quantum instruments, record channels, and recovery maps, and proves a restricted zero-holonomy quotient-consistency theorem. Second, it separates coherent holonomy, record holonomy, and leakage holonomy, preventing geometric phases from being conflated with measurement records. Third, it supplies two minimal operational models: a Mach-Zehnder stable-record test in which recoverable visibility depends on stable accessible record holonomy after controlling ordinary overlap, and a QEC directed-leakage model in which logical failure depends on uncorrectable leakage information after controlling average physical error. The paper does not replace standard quantum mechanics, deny unitary evolution, prove objective collapse, derive quantum field theory, or complete the Born-rule proof. It supplies an upstream FDS architecture and a testable normal-form program: H∂ = 0 gives the reversible Hilbert sector, while H∂ ̸= 0 gives record, decoherence, measurement, and maintenance sectors. (shrink)

Structural Primitive Architecture (SPA) identifies seven operators co-necessary with the predomain condition H > K and predicts that physical systems optimised for appearance-sustaining functions should operate simultaneously at all relevant operator-seam conditions — dimensionless ratios that equal 1 at the structural threshold H = K. A prior paper (Shchevyev 2026a) established the Coherence-seam condition J·T₂/ħ = 1 in photosynthetic light-harvesting. This paper extends the test to three further operators — Relation (Δε/J = 1), Gradient (ΔE/kT = 1), and Orientation (k_fwd/k_bwd (...) = e) — using four spectroscopic datasets. Three of the four tests are genuinely independent; the Orientation test is an algebraic consequence of the Gradient test and serves as a corroborating check rather than an independent contribution to the combined probability. Biological light-harvesting complexes satisfy all three independent seam conditions simultaneously; engineered J-aggregates do not. Combined probability for three independent tests (A, B, D): p = 2.17 × 10⁻⁵. The co-necessity structure of SPA is the only known theoretical framework that predicts simultaneous multi-operator seam satisfaction; environment-assisted quantum transport (ENAQT) theory explains the Coherence condition but has no resources to predict the others. A closed derivation of the Coherence-seam invariant T_coh × T₂ = ħ/k_B = 7,638 K·fs explains the previously unexplained 127 K temperature clustering in three phylogenetically unrelated photosynthetic organisms. A corrected forward prediction — T₂(FCP) ≈ 62 fs — is derived using the measured FCP electronic coupling (J = 85 cm⁻¹, Butkus et al. 2015), superseding the transport-coupling estimate of ~77 fs in Shchevyev (2026a). (shrink)

本体波场理论以核心公理 u^2 + v^2 = \Phi c^2 和能量关系 E = \gamma_{\Phi v} m_0 \Phi c^2 为基础。本文从该公理出发，严格导出能量-动量平方关系 E^2 = m_0^2 c^4 \Phi + \Phi p^2 c^2。在标准量子化规则下，通过对称化处理得到包含引力标量势的相对论性标量波动方程（克莱因-戈登型）；在低速弱场缓变近似下，该方程退化为薛定谔方程，并精确给出牛顿引力势；进一步通过对平方根算符的矩阵线 性化，得到含 \Phi的旋量波动方程（狄拉克型），并在平直时空下回归标准狄拉克方程。本文工作表明，从本体波场理论的单一公理出发，可以自洽地导出量子力学的三大核心波动方程，为量子力学与引力的统一提供了新的第一性原理基 础。 -/- 版权与版本声明 本文为《高维本体投射下的三维波场统一物理理论》（主篇物理本体论，DOI：10.5281/zenodo.19656043）的配套实证研究，属高维本体波场理论体系子篇。 著作权均归作者所有，全文统一采用知识共享署名-非商业性使用-禁止演绎 4.0 国际许可协议（CC BY-NC-ND 4.0国际许可）进行版权许可。 未经作者书面正式授权，任何组织及个人不得对本系列文档全部或部分内容进行篡改、改编、演绎、商业使用、商用传播等侵权行为；合法转载需完整注明原文作者及出处，不得擅自修改文档内容与理论核心表述。 本声明适用于本套理论体系全部篇章，具有同等版权约束效力。.

This paper develops a unified ontology in which coherence is the fundamental operator underlying physical, cognitive, and theological structure. Drawing on quantum field theory, coherence is presented as the continuous, full, infinite‑dimensional condition that sustains waves, stabilizes matter, and enables identity, time, and consciousness. Collapse is interpreted as the local resolution of coherent potential under constraint, dissolving the wave–particle duality and reframing matter as a stable, self‑maintaining collapse. Higher‑order phenomena such as temporal flow, persistent identity, and unified subjective experience are (...) shown to be direct consequences of coherence dynamics. The structural features of the coherence field correspond to longstanding theological descriptions of a sustaining, unifying ground of being, without invoking metaphysics or doctrinal claims. The result is a single operator‑level framework that integrates physics, cognition, and existential meaning. (shrink)

This book derives and applies a predomain condition — H > K (holding exceeds dissolution) — that must hold for anything to appear at all. The argument is transcendental and self-securing: any denial of H > K from within any domain of inquiry instantiates the condition it denies. Seven structural operators co-necessary with H > K are derived and mapped to physical, logical, and mathematical instantiations. The framework crosses Hume's is/ought and fact/value divides by generating quantitative predictions from purely structural (...) premises. The decoherence time of the FMO light-harvesting complex is predicted at τ ≈ 61 femtoseconds with zero free parameters (2% agreement with experiment). A structural ceiling β ≤ 1/2 on phase-transition critical exponents is confirmed across eight systems. The dark energy equation of state attractor w* = −5/7 ≈ −0.714 falls within 0.67 standard deviations of the 2025 DESI measurement; the phantom bound w > −1 constitutes a falsifiable theorem testable by Euclid 2027. Structural ethics (three principles, two forms of evil, derivation of agape) and engagement with Kant, Meillassoux, Ladyman/Ross, Gödel/Penrose, and Chalmers complete the framework. (shrink)

This paper presents an expansion of the Kh-Stiffness formalism, a novel theoretical framework that reinterprets the ontology of spacetime not merely as a smooth geometric manifold, but as an elastic medium characterized by a fundamental stiffness modulus, Kh = c^2/G. By shifting away from the rigid manifold assumption of standard General Relativity, we introduce a tripartite conceptual symmetry termed the "Khaghani Triangle" which mathematically links temporal flux (Δτ), energy density (ρ), and quantum wave-states (Ψ). Through the Density-Induced Rigidity (DIR) mechanism, (...) we demonstrate that spacetime achieves perfect rigidity in high-density regimes—recovering standard Einsteinian field equations—while undergoing mechanical relaxation in cosmic voids. This foundational reinterpretation provides a dynamic resolution to two severe crises in modern cosmology: it resolves the H_0 tension by predicting a local expansion rate of H_0 = 73.14 ± 0.22 km/s/Mpc in alignment with recent JWST data, and it resolves the 10^122 vacuum energy discrepancy by treating Planck-scale density as dynamic potential stiffness rather than divergent curvature energy. Additionally, the model offers an entropic, thermodynamic derivation of gravity and a torsion-based alternative to dark matter in galactic rotation curves, establishing a falsifiable mechanical infrastructure for modern physical cosmology. (shrink)

This article develops a structural–contextual account of how physical information is generated, stabilized, and rendered objectively determinate. Rather than treating information as ontologically primitive, the paper develops a framework in which quantized action provides a lower physical scale for the discrimination of alternatives, while contextual constraints determine when and how a specific informational value may be objectively attributed. -/- First, the quantum of action ℏ is not itself a bit, but sets a characteristic lower action scale for the registration of (...) physically significant distinctions in phase-sensitive physical settings. Second, drawing on the Kochen–Specker theorem, the paper argues that informational values cannot be straightforwardly treated as globally pre-assigned across all contexts; rather, their determinate attribution is context-relative. Third, it introduces the notion of inscription, understood as the stabilization of a contextually generated distinction through a stabilizing structural condition, such as topological protection or metastable energetic separation. Such stabilization turns an otherwise transient distinction into objective, physically stored information. -/- Taken together, these claims support a physically grounded account on which objective physical information is not fundamental but emerges from the interplay of quantized action, structural context, and structural stabilization, in a sense that does not depend on any particular observer's knowledge or interpretation. The resulting framework complements rather than replaces existing approaches, offering a synthetic reinterpretation of the relationship between dynamics, context, and informational content. (shrink)

Recent work has shown equivalence between the formal apparatus of quantum mechanics and a general class of non-Markovian systems called indivisible stochastic systems. This short paper demonstrates how these indivisible dynamical systems can be used to describe the effective dynamics of coarse-grained observers. The observation suggests that quantum mechanics may arise as the expected phenomenology of coarse-grained systems in a classical, deterministic substrate.

This paper reframes wave–particle duality as a structural transition rather than a paradox. Waves are treated as the distributed, unconstrained form of a pattern prior to stabilization, while particles are the same pattern after environmental constraints force coherence into a localized, temporally persistent configuration. Under this view, matter is not a substance but a stabilized relational pattern. Collapse is simply the moment when contextual conditions restrict the pattern’s degrees of freedom enough to produce a stable solution. This framework unifies quantum (...) behavior with broader principles of pattern formation, stability, and constraint, showing that matter, life, cognition, and social systems all emerge from the same universal operator of stabilization. (shrink)

Physical interaction is often treated as the basic unit from which measurement, record, and fact are understood. Yet not every interaction becomes a measurement; not every registration becomes a record; not every record becomes an inheritable physical fact; and not every inheritable fact becomes reportable. This paper develops observation-rank: the degree to which a difference becomes registrable, stabilizable, redundantly accessible, inheritable, and reportable within a scale-organized physical field. Observation-rank is not a new physical quantity or a rival interpretation of quantum (...) mechanics. It is a philosophical reconstruction of the missing middle layer between interaction and reportable fact. The account draws on decoherence theory, Quantum Darwinism, spectrum broadcast structure, relational quantum mechanics, QBism, debates over mathematical applicability, and philosophy of scientific modeling. Its central claim is that observation is neither the intervention of a subject nor mere physical interaction, but the rank-mediated inheritance of difference across scale-organized gradient interfaces, which filter, amplify, stabilize, suppress, formalize, and report local differences across changes of scale and standpoint. The paper further introduces dynamic nullity, the background condition in which operations remain real without becoming foreground differences, and distinguishes the unseen from the escaped: decoupling before foregrounding versus decoupling after foreground contact but before inheritance. It finally reframes mathematical applicability as the preservation of minimal formal commonality across local standpoints. Earlier symbolic heuristics are replaced by prose-level boundary and inheritance conditions so that the contribution remains philosophical rather than pseudo-mathematical. (shrink)

本文在前期波场理论基础上，引入“分层双级频率调制机制”（源自公理 u^2+v^2=\Phi c^2）：地球相对于绝对波场的整体漂移速度（V\approx370\,\text{km/s}）作为一级公共因子，被局域引力势吸收，因此近地原子钟（GPS、地面光钟等）、高能粒子、引力的方向性效应被完全 屏蔽，原预言的12小时周期信号与方向性各异的判断不再存在，与现有观测一致。然而，绝对运动的痕迹在宇宙学尺度依然保留：CMB偶极的一阶幅度（V/c）及二阶时间膨胀调制（V^2/(2c^2)）由地球绝对速 度唯一决定；而LSS计数偶极的异常幅度（2-5倍于CMB偶极）则源于地球与星系群的绝对速度矢量差。若试图以LSS为参考系解释大偶极，将导致CMB二阶调制幅度过大，与普朗克数据矛盾。因此，高精度测量CM B偶极的二阶效应并与LSS偶极一阶幅度交叉比对，即可作为区分波场理论与相对论的判决性实验。该检验基于已有观测数据，有望在下一代CMB和LSS巡天中实现。作者将在后续更新版本统一解释 ”分层频率调制机制“ -/- 【本文中关于普朗克常数可变的推论将在1.1版本引入修正，保持普朗克常数不变，物质内部基波数量产生改变而产生质能变化，将在后续版本发布详细说明。】 -/- 杨‑米尔斯规范场论、量子场论均建立在量子力学核心关系式 E=hν 之上。波场理论从第一性原理出发，完整推导出聚束积分质能方程与量子力学 E=hν 实现定性等价；揭示静止质量是波场振幅空间聚束积分，E=hν 是聚束质能方程在一个波动周期内的特征能量值，必然受相位放缓因子（洛伦兹因子）γ_Φv调制；证明普朗克常数h非绝对常数，在高速、强场、高能场景中会受物理环境调制发生变化，据此提出普朗克参数的修正方案与可 观测实验预言，也能够以此解释当下高能物理、超导、聚变领域中诸多理论与实验不符的系统偏差（注意：方向性偏差通过分层调制机制修复，方向性偏差预言作废，版本将在后续更新）。在相互作用统一层面，引力本质为质能 沿标量势高能量区向低能量区自发流动，结合波场相位耦合、波包聚束、速率分配机制，实现电磁、弱、强、引力四大基本相互作用的定性统一，搭建贯通微观量子规律与宏观引力效应的完整物理框架。 -/- 版权与版本声明 本文为《高维本体投射下的三维波场统一物理理论》（主篇物理本体论，DOI：10.5281/zenodo.19656043）的配套实证研究，属高维本体波场理论体系子篇。 著作权均归作者所有，全文统一采用知识共享署名-非商业性使用-禁止演绎 4.0 国际许可协议（CC BY-NC-ND 4.0国际许可）进行版权许可。 未经作者书面正式授权，任何组织及个人不得对本系列文档全部或部分内容进行篡改、改编、演绎、商业使用、商用传播等侵权行为；合法转载需完整注明原文作者及出处，不得擅自修改文档内容与理论核心表述。 本声明适用于本套理论体系全部篇章，具有同等版权约束效力。.

This paper applies the Structural Primitive Architecture (SPA) / Archontologic Conditions framework across eight domains of physics. The central structural condition H > K (holding power exceeds dissolution pressure) generates an appearance amplitude A = √(H − K) whose seam (H = K) is the universal locus of critical behavior. Eight areas of application are developed: (1) dark energy cosmology, where the co-necessity of seven structural operators derives a structural attractor conjectured to be w* = −5/7 and prohibits phantom crossing; (...) (2) the structural selection of 3+1 spacetime dimensions from the Binding operator and Bertrand's theorem; (3) a structural uncertainty principle A·δA ≥ ℏ/2 that grounds Heisenberg's result and forbids vacuum emptiness; (4) K-irreversibility as the structural basis of the arrow of time and the prohibition of heat death; (5) quantum biology, where a seam condition R = Jτ/ℏ = 1 predicts the FMO decoherence time as 61 fs from the coupling constant alone; (6) five cross-domain tests with zero free parameters; (7) the emergence of the golden ratio from the self-similar structural cascade; and (8) the derivation of general relativity from seam thermodynamics, the holographic bound as d=3 seam geometry, and the completeness of the four fundamental forces. All claims are explicitly flagged by speculative confidence. (shrink)

This is the first paper of the La Profilée Domain Series. Following the Domain Principle (D012), it establishes the bridge assumptions connecting LP structural variables to physical observables and derives the LP structural account of physical persistence architectures. The central bridge claim: physical systems persist through the LP admissibility structure. The four LP structural variables are physically realized as: Frame (F) through conserved quantities, symmetry invariants, and topological stability; Module (M) through degrees of freedom, accessible state space, and phase flexibility; (...) Coupling (K) through interaction strengths, constraint propagation, and regulatory feedback; Transformation load (R) through perturbation magnitude, field intensities, and entropy production rates. Under these bridge assumptions, LP structural results apply to physical systems with full generality. Paper 001 of the Foundation Series established LP = F₀: LP is structurally identical to the minimal pre-geometric admissibility structure that must underlie any spacetime in which persistence is possible. Domain I instantiates this result in concrete physical systems. The bridge assumptions here are not arbitrary — they are constrained by the identity LP = F₀ and by the requirement that physical admissibility classes be LP-consistent. Five structural results are derived under the physical bridge assumptions. Result I — Phase Persistence: stable physical phases are Coherence Zone interiors. Phase transitions are IR = 1 crossings. Result II — Thermodynamic Directionality: structural entropy production (D009) is thermodynamically instantiated as the Second Law. Result III — Decoherence as Coupling Failure: quantum decoherence is the physical instantiation of K → 0 — the loss of quantum coherence corresponds to structural Coupling failure. Result IV — Gravitational Collapse: stellar and gravitational collapse are IR > 1 events where transformation load exceeds integration capacity at the relevant physical scale. Result V — Structural Irreversibility: physical irreversibility is the domain instantiation of D001 Theorem D1.2 — the arrow of time is the structural arrow derived from asymmetric admissibility. Physical persistence architectures are not merely analogies to LP. Under the stated bridge assumptions, they instantiate LP admissibility in the physical domain. (shrink)

The paper shows that the admissibility condition D > K implies, as a theorem, that the dark energy equation of state satisfies w > −1 at all redshifts. It argues the apparent phantom crossing at z ≈ 0.37–0.42 in DESI DR2 data is an artifact of the CPL parametrization. It derives w = −K/D from five structural constraints, establishes a Bernoulli-type evolution equation for w(z), and predicts a local minimum in w(z) testable by the Euclid Wide Survey (~2027).

This paper is organized in three distinct layers, each with a different epistemological status. Readers are invited to evaluate each layer independently. -/- Part I presents an observational case: quantum hardware, when operated far from equilibrium, produces a systematic cluster of anomalous physical phenomena, time crystals, exotic topological phases, thermal law violations, and measurable entanglement timescales. Each anomaly has a domain-specific conventional explanation. The structural observation is the cluster: these phenomena share a common operational boundary, appear conditionally at the same (...) threshold, and were not predicted by the quantum computing performance narrative. -/- Part II presents an empirical program: five pre-registered, falsifiable predictions derived from the structural observation that quantum processors operate on unresolved probability amplitudes rather than resolved states. The predictions specify what the operational boundary should look like if the anomaly cluster reflects physical structure rather than coincidence. -/- Part III presents the Multi-Simulation Thesis as a candidate theoretical interpretation of Parts I and II. The K kernel, a proposed computational substrate underlying physical reality, is offered as the candidate explanation for why the boundary has the structure Parts I and II document. Part III is labeled as interpretation. Parts I and II are evaluable without accepting it. -/- The 5Hz/200ms cross-registered prediction is an open empirical target. Researchers with access to relevant quantum coherence or gravimetric data are invited to correspond. (shrink)

This paper argues that if quantum non-locality is ontologically fundamental, then Emmanuel Levinas's concept of "infinite responsibility" is not merely a phenomenological discovery but a physical mandate embedded in the structure of reality itself. Drawing on Bell's theorem, the EPR paradox, and contemporary interpretations of quantum holism, I demonstrate that the non-separable nature of quantum entanglement provides the metaphysical foundation for an ethics that transcends traditional assumptions of autonomous, independent moral agents. Through a synthesis of quantum foundations, Levinasian phenomenology, and (...) panpsychist consciousness studies, I develop a novel theoretical framework showing structural isomorphism between quantum entanglement and infinite responsibility. Both phenomena exhibit non-locality, asymmetry, immediacy, and irreducibility to prior components. If consciousness is fundamental to reality (as panpsychism suggests), then the ethical structure revealed in conscious experience must reflect the physical structure of quantum reality. This leads to a radical reconceptualization of moral philosophy: rather than emerging from contracts between separate agents, ethics is grounded in the fundamental entanglement of all conscious beings. The implications challenge utilitarian calculation, deontological autonomy, and contractual theories while supporting a quantum-grounded framework of global, asymmetrical, and infinite responsibility. This quantum morality demands recognition that actions anywhere affect everyone everywhere, that responsibility extends across space and time through quantum correlations, and that the traditional notion of ethical autonomy is a metaphysical illusion. The paper concludes by outlining practical implications for environmental ethics, political philosophy, and legal theory. (shrink)

La Profilée (LP) is a structural law of persistent identity under transformation. From three minimal assumptions — distinguishability (M1), real transformation (M2), determinable persistence relation (M3) — LP derives the complete persistence architecture: F·M·K decomposition, IR = R/(F·M·K) ≤ 1, the Frame Continuity Condition (FCC), and the two universal persistence conditions Q1 and Q2. This paper establishes LP's architecture across physical domains. -/- The central claim: every physical theory instantiates Q1–Q2 and the F·M·K architecture. No physical theory derives them. -/- (...) LP makes explicit what physics has always left implicit. -/- For each physical domain, LP derives the domain-specific F·M·K conditions that the domain presupposes without grounding: for GR — diffeomorphism invariance (F-condition), non-linearity (M-condition), and existence of stable geometric regimes (K-condition); for QM — unitarity (M-condition, derived from M3); for the pre-geometric level F₀ — spacetime emergence (F-condition), fundamental unitarity (M-condition), and the information bound (K-condition). Note on architecture: Q3–Q5 are not general persistence conditions. They are domain-specific consequences of the F·M·K architecture applied to self-modeling Σ-complete persistence subjects (P162, P167). Physics operates with Q1–Q2 and domain-specific F·M·K conditions. Q3–Q5 apply where LP-admissible systems reach Σ-completeness, self-modeling, and internal dominance — the structural threshold for subjectivity. (shrink)

This paper asks a simple question: if we begin not with space, but with a network of relations, when is it legitimate to say that geometry has been recovered? -/- I study this question through the RZS-ELCL benchmark pipeline. The pipeline starts from weighted relational graphs, filters candidate geometric edges, builds local clique and simplicial structure, and then measures curvature with Regge-style operators. The goal is not to prove that spacetime emerges from a relational zero state. The goal is narrower (...) and more testable: to identify when a relational graph can be projected into a stable discrete geometry, and when that projection fails. -/- The results are deliberately presented as controlled benchmarks rather than as an asymptotic theorem. In low- and medium-damage regimes, explicit projectors recover the intended geometric graph and reject several families of synthetic contaminants. The error analysis separates two effects that are often mixed together: compression error from the spectral estimator, and discretization error from the Regge operator itself. This makes it possible to see whether a failure comes from the estimator or from the underlying discrete geometry. -/- The paper also records the limits of the method. Early 3D reconstruction fails under shortcut contamination, the 4D Regge operator depends on the correct internal-dihedral-angle convention, and high-damage repair succeeds only when scaffold incidence information is supplied. The main contribution is therefore not a claim that relational geometry has been solved, but a falsifiable framework for testing how much geometry can be recovered from relational data. (shrink)

现代物理学的核心困境根植于两个未经严格证明的本体论预设：时空是先于物质存在的先天容器，物质由不可分割的基本粒子构成。二者共同导致了广义相对论与量子力学的底层范式割裂，衍生出波粒二象性、量子测量佯谬、引 力本质、暗物质与暗能量等一系列长期悬而未决的基础难题。 本文为系列研究第一篇，以“认知的本质是前后相继”这一不可证伪的认识论事实为锚点，结合因果序列不可分割、耦合全有或全无两项基本公理，通过本体论演绎构建了一套自洽的物理世界解释框架：本真物理世界的终极基底 为一维相继因果序列（射线）及其横向耦合关系；时间是射线的相继延展属性，空间是耦合关系的网络结构，物质是射线闭合耦合的稳态显现，基本粒子则是耦合事件在现象层面的点状端点表象。 基于该框架，本文对微观量子领域与宏观相对论领域的核心物理现象给出了统一的本体论解释，从基底层面消解了传统物理的经典悖论，为四大力的统一提供了本体论基础，并提出了三项具备可证伪性的理论预言。本文认为，传 统物理学理论是本真物理世界在现象层面的近似有效描述，其局限源于将耦合端点误判为原生实体的认知路径颠倒。本研究为基础物理学的本体论重构提供了一条新的过程-关系论路径。.