Kaisheng Li

A fully revised edition of this book has now been completed and published on Amazon, with the following major features, improvements, and additions: EQT Detection Theory: This volume is part of the series EQT Reinterpretations of Observational Data. It examines transient gravity anomalies recorded by GRACE-type satellite missions from the perspective of Energy Quantum Theory, while treating classical geophysics as the effective benchmark for deep-Earth mass redistribution and gravity-gradient interpretation. The book does not seek to replace established geophysical explanations. In particular, the reported 2006-2008 East Atlantic dipole gravity-gradient anomaly, peaking in January 2007 and possibly originating near the core-mantle boundary, is treated as a geophysical event whose conventional interpretation in terms of transient deep-Earth mass redistribution remains valid at the mechanism level. The question pursued here is narrower: can single-device gravity-gradient data be reorganized within the EQT framework as a low-frequency gravitational density perturbation, and can such a reinterpretation generate diagnostic structure and falsifiable predictions beyond restating the known event? The central argument proceeds in a disciplined sequence. First, the anomaly is reformulated as the evolution of a perturbation in the low-frequency gravitational component of the energy-quantum density field. Second, the recorded gravity-gradient signal is interpreted as a co-evolutionary transient formed by the interaction between the GRACE satellite system and the deep-Earth source. Third, the book develops single-device detectability criteria: frequency matching, amplitude threshold, three-state decomposition, and detection-matrix positioning. These criteria clarify what GRACE can record, what remains below its response threshold, and when a deep-Earth disturbance becomes an empirically meaningful gravity-gradient signal. A distinctive feature of this volume is its treatment of the 2007 East Atlantic event as a single-frequency closed process. Although geomagnetic jerks are often described in electromagnetic terms, their dynamical origin lies in large-scale fluid motion in the outer core, with characteristic timescales in the low-frequency gravitational regime. The book therefore reads the anomaly as a low-frequency source, low-frequency field response, and low-frequency gravity-gradient output within the same gravitational band, rather than as a cross-frequency electromagnetic-to-gravitational conversion. Within this framework, EQT offers a structured reinterpretation of the anomaly's lifecycle. The initial appearance of the signal is read as a threshold-crossing event; the peak corresponds to nonlinear aggregation; and the subsequent disappearance reflects diffusive dissipation back toward the gravitational background. The observed dipole structure is analyzed as a mixed readout of free-state, bound-state, and condensed-state contributions within the gravitational density perturbation. The methodological commitment of the book is falsifiability. Each reinterpretive step must be connected to possible failure conditions. If the signal cannot be reproduced under controlled processing choices, the observational basis fails. If the inferred aggregation--dissipation rhythm cannot be separated from filtering artifacts, the dynamical interpretation fails. If the three-state decomposition does not yield stable residual structure, the state interpretation fails. If predicted analogues are not observed in GRACE-FO, GRACE-C, or comparable single-device gravity missions, the proposed extension must be revised. By combining GRACE gravity-gradient observations, deep-Earth geophysics, detector-response analysis, and EQT-based state interpretation, this volume provides a cautious framework for re-reading satellite gravity data. It is intended for readers interested in foundational physics, geophysics, gravitational observation, and the methodological question of how existing measurements can be reinterpreted without abandoning the empirical success of classical geophysical model.

A fully revised edition of this book has now been completed and published on Amazon, with the following major features, improvements, and additions: EQT Detection Theory: This volume is part of the series EQT Reinterpretations of Observational Data. It examines femtosecond strong-field processes recorded by X-ray free-electron laser (XFEL) facilities from the perspective of Energy Quantum Theory (EQT), while treating Maxwell electrodynamics and quantum electrodynamics (QED) as the effective benchmarks for electromagnetic phenomena. The book does not seek to replace Maxwell theory or QED. Nor does it develop a new electromagnetic theory within this volume. Instead, it applies the electromagnetic-sector framework established elsewhere in the EQT series to a concrete class of controlled experiments: XFEL pump–probe measurements of ionization, Coulomb explosion, electron thermalization, recombination, scattering signals, and energy spectra. Its guiding question is whether such single-facility femtosecond data can be reorganized as the excitation, phase transition, and relaxation of the electromagnetic-sector energy-quantum density field. The central argument proceeds through a disciplined sequence. First, XFEL pulses are interpreted as controlled strong perturbation sources acting on the electromagnetic component of the energy-quantum density field. Second, the recorded scattering and spectral signals are understood as co-evolutionary transients formed by the interaction between the XFEL probe and the sample. Third, the book develops single-device detectability criteria: frequency matching, amplitude threshold and phase-transition triggering, three-state decomposition, and detection-matrix positioning. These criteria clarify what an XFEL facility can record, which dynamical components remain outside its response window, and under what conditions a femtosecond process becomes empirically meaningful. Within this framework, EQT provides a structured reinterpretation of ultrafast electromagnetic dynamics. Bound states, free states, and condensed states are treated as distinct but interconvertible regimes of the electromagnetic-sector density field. Strong-field ionization and electron heating are read as threshold-crossing transitions from bound to free states; recombination and local freezing are read as relaxation pathways toward condensed configurations. The value of XFEL experiments lies in their ability to construct repeatable, localized, high-intensity perturbations and to sample the resulting dynamics with femtosecond or attosecond resolution. A major methodological commitment of the volume is falsifiability. Each reinterpretive step must generate possible failure conditions. If frequency matching is insensitive to photon energy, the frequency criterion fails. If phase-transition thresholds do not vary with pump intensity, the threshold interpretation fails. If three-state decomposition cannot be reproduced across scattering, electron spectroscopy, and pump–probe delay scans within the same facility, the state interpretation fails. If proposed residual signatures cannot be distinguished from standard strong-field, plasma, or QED effects, they cannot be treated as new evidence. The book also formulates experimental proposals. These proposals are not presented as demonstrations of a replacement theory, but as controlled tests of whether EQT can add diagnostic structure beyond existing electromagnetic descriptions. By combining XFEL strong-field physics, detector-response analysis, electromagnetic effective limits, and explicitly falsifiable predictions, this volume offers a cautious framework for engaging real ultrafast experimental data without abandoning the empirical success of Maxwell theory and QED.

A fully revised edition of this book has now been completed and published on Amazon, with the following major features, improvements, and additions: This volume examines high-redshift massive galaxies observed by the James Webb Space Telescope from the perspective of Energy Quantum Theory (EQT), treating cosmological redshift as a reliable marker and $\Lambda$CDM as the effective benchmark for structure formation. The book does not propose an alternative origin of redshift, nor does it claim $\Lambda$CDM has failed. Instead, it addresses a specific question: if massive, compact, or quiescent galaxies are confirmed at high redshift, can their mass–redshift statistics be reorganized within EQT in a way that is internally coherent, observationally meaningful, and empirically falsifiable? This volume is concerned not with replacing standard cosmology, but with reinterpreting the detection interface of early massive galaxies. The argument reformulates these galaxies as rapidly aggregated and locally frozen perturbations in the low-frequency gravitational component of the energy-quantum density field. The recorded JWST measurement is thus interpreted as a co-evolutionary transient formed by the interaction between the source and the instrument. The book develops a sequence of single-instrument detectability criteria: frequency matching, amplitude threshold and rapid aggregation, three-state decomposition, and detection-matrix positioning. These criteria clarify what JWST can record, what remains outside its window, and under what conditions a candidate high-redshift galaxy becomes a stable empirical object. A distinctive feature is its restrained treatment of the observational debate. Since the abundance of early massive galaxies, photometric redshift reliability, and stellar-mass estimates remain active issues, the book does not assume all reported candidates are confirmed. Rather, it treats spectroscopic confirmation, model stability, luminosity thresholds, and pipeline reproducibility as necessary conditions for any EQT reinterpretation to enter formal argument. Within this framework, EQT offers a structured reading of early galaxy formation. First-generation stars and black holes are treated as high-frequency driving sources that may, through constrained cross-frequency coupling, excite low-frequency gravitational density perturbations. These perturbations then undergo rapid aggregation, self-focusing, and local freezing, producing massive compact systems earlier than expected in a gradual accumulation picture. The resulting state is analyzed through the distinction between free-state radiation, bound-state orbital structure, and condensed-state mass configuration. The methodological discipline is falsifiability. Each step is linked to failure conditions: if frequency matching is unstable, the criterion fails; if rapid aggregation cannot be separated from selection effects or mass-estimation bias, the aggregation interpretation fails; if three-state decomposition cannot be reproduced, the state interpretation fails; if predicted residual correlations do not survive comparison with astrophysical uncertainties, they cannot be treated as evidence. By combining JWST observations, standard cosmological benchmarks, detector-response analysis, and EQT-based state interpretation, this volume provides a cautious, systematic framework for re-reading early massive galaxy data. It is intended for readers interested in foundational cosmology, galaxy formation, observational methodology, and how new theoretical frameworks engage with existing data without abandoning the empirical successes of standard cosmology.

This monograph presents a comprehensive analysis of black hole mergers and gravitational-wave detection through the lens of Energy Quantum Theory (EQT)—a process-oriented framework in which physical reality is constituted not by static entities, but by the dynamic evolution of an energy quantum density field $\rho(\mathbf{r}, t)$. We reinterpret the merger process as a self-catalytic gradient collapse governed by the nonlinear equation $\dot{\rho} = k \rho^2$, with cosmic expansion understood as global gradient dilution ($\nabla \rho \propto (1+z)^{-4}$) rather than metric stretching. A central insight of EQT is that **cosmological redshift shifts the observed frequency band relative to the source frame, causing detectors with fixed intrinsic response to sample different temporal segments of the same underlying physical process for events at different redshifts**. Consequently, direct comparison of raw observational quantities (e.g., $\tau_{\text{obs}}$, $f_{\text{obs}}$) across events is physically meaningless. **EQT resolves this by inverting the dynamical equation to reconstruct the source-frame evolution, thereby enabling apples-to-apples comparisons of merger dynamics across cosmic time—a unique advantage over waveform-matching approaches**. From this reconstructed common process, we derive the EQT characteristic time relation $\tau_{\text{emit}} \propto f_{\text{emit}}^{-3/2}$ and introduce the dimensionless $L/R$ ratio (computed in the source frame) as a universal discriminant: binary black holes exhibit $L/R \sim 10^1$, while binary neutron stars show $L/R \sim 10^4$ due to tidal delay from cross-frequency coupling between gravitational and electromagnetic energy quanta. We articulate EQT’s detection philosophy: observation is not passive reception but resonant participation within a detector’s intrinsic frequency window. This yields concrete design implications for LISA, Einstein Telescope, and Athena. The framework leads to testable predictions—including deviations from the $\mathcal{M}_c^{-5/3}$ scaling law, a low-frequency cutoff in gravitational-wave spectra (signaling a graviton mass), and cosmic-scale imprints of cyclic gradient freezing. Finally, we argue that the human observational window ($10^{10}–10^{20}$ Hz) is not accidental but a necessary condition for complexity and intelligence, offering a physics-grounded rationale for SETI. By unifying black hole dynamics, cosmology, and measurement theory under a single process ontology, this work positions EQT as both a predictive physical framework and a coherent metaphysical alternative to spacetime substantivalism.

A fully revised edition of this book (v2,ISBN: 9798996139446) has now been completed and published on Amazon, with the following major features, improvements, and additions: The EQT Mechanism of Electromagnetism is the electromagnetism volume of the Energy Quantum Theory (EQT) series. Its central question is not how electromagnetic force is described, but how it is generated. Rather than beginning with charge, electric and magnetic fields, photons, or virtual photons as already-given objects, the book asks whether these familiar elements can be derived from the frequency-density-gradient-phase dynamics of the electromagnetic-band energy quantum density field, ( \rho_f^{(EM)}(x,t) ). The volume works under the unified EQT postulates A1-A4 and the Meta-Norm M, and does not add electromagnetism-specific postulates. Charge is not treated as a primitive attribute; it is defined as a stable local deviation of electromagnetic-band energy quantum density relative to a background density within an integration space. Charge quantization is then connected to phase topology, phase winding number, and boundary closure conditions, so that (q=e_0 n) appears as a derived result rather than an assumed law. Positive and negative charges are interpreted through stable phase branches and polarity freezing. The book develops three existence modes of electromagnetic-band energyons: free state, bound state, and condensed state. Photons are interpreted as free-state excitations; local photon layers and electromagnetic interaction are treated as bound-state structures; and condensed states provide the interface with massive stable structures. Electric and magnetic fields are reconstructed as effective representations: the electric field arises from energyon density gradients, while the magnetic field is linked to energy-flow curl, phase lag, and motion response. The Lorentz force, potentials, and gauge degrees of freedom are treated as effective expressions of this density-field structure. A major task of the volume is to recover standard electromagnetism rather than reject it. Maxwellian theory is treated as the weak-gradient, high-occupation-number, macroscopic-averaging limit of the electromagnetic-band density field. The book examines how Gauss's law, Faraday's law, the Ampere-Maxwell equation, the electromagnetic wave equation, and the light-speed limit can emerge in this limit. QED is likewise not abolished, but interpreted as an effective representation: photons, virtual photons, propagators, vacuum polarization, effective charge, and renormalization are examined as fluctuation-response, linear-response, and scale-dependent expressions. The volume also introduces electromagnetic weak confinement as a distinctive mechanism of the electromagnetic band. Unlike strong confinement, it is screenable, perturbable, and releasable. It appears through local photon shells, screening length, bound-state structures, and the relation between charge, field, and local response. This framework is then applied to absorption, radiation, ionization, recombination, tri-state transitions, and the joint conservation of energy, phase, and charge. Methodologically, the book is deliberately restrained. It distinguishes basic definitions, mechanism operators, and verification tools, and treats Maxwellian theory and QED as standard limits that must be respected. The theory is not protected by adding postulates when derivations fail. If charge cannot be non-arbitrarily derived from ( \rho_f^{(EM)} ), if charge quantization cannot be connected to phase topology, if (E) and (B) cannot be recovered as effective representations, or if Maxwell/QED limits cannot be reproduced, the corresponding module must fail or contract. The book is therefore both a mechanism volume and a falsifiability-oriented constraint document within the EQT series. It seeks to explain electromagnetism from frequency, density, gradient, phase, topology, and resonance, while preserving clear boundaries with standard electromagnetic theory, QED, the strong-weak force volume, the gravity volume, and the dark-matter-dark-energy volume.

A fully revised edition of this book (v2,ISBN: 9798996139439) has now been completed and published on Amazon, with the following major features, improvements, and additions: This monograph, the third volume of the Energy Quantum Theory (EQT) treatise series by Kaisheng Li and Longji Li, advances a unified mechanistic explanation for dark matter and dark energy as macroscopic readouts of a single frequency-resolved energy quantum density field. Rather than treating the two dark components as isolated puzzles—an undiscovered particle and a cosmological-constant fitting term—the book reformulates them as one prior question: why are certain energy structures nearly silent in the electromagnetic window yet decisive at gravitational and cosmological scales? The proposed answer is that dark matter and dark energy correspond to the same underlying object, the energy quantum density field ρ(ν,x,t), but populate distinct frequency intervals with distinct dynamical regimes. The derivation proceeds from four postulates (A1–A4) and a meta-norm M of falsifiability, without dedicated dark-matter or dark-energy axioms. A1 posits a frequency-resolved energy quantum density field; A2 establishes the frequency–energy spectral relation; A3 specifies the EQT master equation governing field evolution through generation, diffusion, and dissipation; A4 imposes Lorentzian resonance kernels and cross-frequency coupling constraints. M forbids ad hoc assumptions and demands explicit failure conditions. Invoking the weak-field gravitational interface from the preceding gravity volume as a prior rather than a result, the book then constructs two parallel mechanistic chains. Dark matter is recast as a mid-frequency energy quantum density field ρ_DM under a dual constraint: it must remain electromagnetically weakly coupled while contributing meaningfully to the total density gradient. Frequency mismatch with the electromagnetic window, expressed through Lorentzian suppression and a coupling factor ε, accounts for invisibility; the gradient ∇(ρ_grav+ρ_DM) yields an effective gravitational enhancement G_eff(r) that organizes flat rotation curves, lensing–dynamics consistency, the Bullet Cluster mass–gas separation, halo formation, and a rewriting of NFW-type profiles. Core–cusp and missing-satellite issues are addressed through nonlinear saturation rather than baryonic feedback alone. Dark energy is recast as an ultra-low-frequency energy quantum background field ρ_Λ characterized by ultra-long wavelengths, diffusion dominance, and quasi-steady slow evolution. From this structure the book derives effective negative pressure, recovers w ≈ −1 in the appropriate limit, permits a constrained dynamical w(z), and feeds the result into H(z) through the Friedmann interface, with explicit links to DESI/BAO, supernovae, the CMB, the H₀ tension, σ₈ suppression, the ISW effect, and the low-frequency gravitational-wave background. The framework is sharply distinguished from ΛCDM, the WIMP paradigm, axion and dark photon models, MOND, modified gravity, quintessence, and early dark energy. Parameters ν_Λ, D_Λ, and Γ_Λ undergo identifiability checks and AIC/BIC penalties, and conflations such as a "unified dark field" or treating compatibility as observational support are forbidden. The closing emphasis is methodological: failability outranks explanatory scope. The book tabulates failure conditions for dark matter, dark energy, the gravitational interface, and cross-frequency coupling, and supplies a minimum executable simulation route covering N-body methods coupled to density-field dynamics, modified Boltzmann solvers, and MCMC parameter estimation. The work is positioned not as a completed alternative cosmology but as a generative candidate mechanistic framework—definitionally rigorous, computationally addressable, and observationally falsifiable—whose theoretical value is conditional on whether the mechanism can yield distinguishable predictions, survive joint CMB, BAO, SNe, LSS, and weak-lensing constraints, and preserve genuine risks of failure against ΛCDM and competing extensions.

A fully revised edition of this book (v2,ISBN: 9798996139460) has now been completed and published on Amazon, with the following major features, improvements, and additions: Frozen Cosmology: Cosmic Evolution as a Dynamic Spectrum of Freezing in Energy Quantum Theory develops a natural-philosophical model of cosmic evolution from the perspective of Energy Quantum Theory (EQT). The book does not aim to replace standard cosmology, general relativity, or the ((\Lambda))CDM framework. Instead, it asks whether the universe can be understood as a frequency-stratified process of energy density, gradient formation, structural stabilization, residual effects, and eventual dynamical withdrawal. The central concept of the book is the “freezing spectrum.” Freezing does not mean that the universe becomes static or that all processes stop. It refers to the possibility that structures in different frequency bands may, at different stages of cosmic history, exit active dynamical evolution and persist as stable structures, residual gradients, background conditions, or indirectly observable components. On this view, cosmic history is not merely a monotonic movement from a hot dense beginning toward dilution or heat death. It is also a layered history in which high-frequency processes may freeze earlier, while low-frequency processes continue to shape large-scale structure, gravity, dark components, and the far future. The book uses a restricted set of EQT tools: the frequency-resolved energy quantum density field ( \rho_f(x,t) ), density gradients ( \nabla \rho_f ), mechanism parameters such as (k(f)), (D(f)), (\Gamma(f)), and (S_f), the freezing time (t_{\rm freeze}(f)), and the cosmological background (H(t)). These tools are not presented as a completed physical theory, but as a constrained formal language for describing cosmic evolution as a frequency-density-gradient process. Within this framework, cosmic structures are interpreted as gradient transients rather than permanent entities. Galaxies, dark matter halos, background radiation, and large-scale structures are treated as historically formed and condition-dependent patterns. Dark matter is reconsidered as a possible mid-frequency gradient residual: gravitationally effective, but weakly coupled to ordinary electromagnetic detection windows. Dark energy is approached through low-frequency free states, freezing-spectrum cutoffs, and the candidate scaling ( \rho_\Lambda \propto H^4 ). These proposals are not treated as completed solutions, but as mechanisms requiring observational restriction and possible failure. The book also proposes a staged view of cosmic evolution, including a current structure-growth phase, a possible gradient-terminal phase, a later structure-contraction phase, and a candidate bounce-transition phase. These far-future stages are not presented as confirmed predictions, but as model-dependent extrapolations whose validity depends on (H(z)), (w(z)), structure growth, and the behavior of low-frequency dynamics. Methodologically, the book adopts “constrained speculation.” It allows new organizing principles, but requires formal expression, observational interfaces, and explicit failure conditions. The freezing-spectrum framework must therefore be tested against CMB structure, weak lensing, dark matter halo profiles, dark energy equations of state, gravitational-wave phase modulation, and structure-growth data. If the framework cannot recover known limits, distinguish itself from ((\Lambda))CDM, or generate testable deviations, its relevant modules must be revised, downgraded, or abandoned. This volume is therefore best understood as a restrained natural-philosophical cosmology. It seeks to connect ontology, cosmic structure formation, dark components, time direction, and future cosmic stages through the common language of frequency, density, gradient, freezing, and residual structure. Its value lies not in claiming a final theory of the universe, but in proposing a disciplined framework through which cosmic evolution can be reconsidered as a layered history of formation, stabilization, freezing, persistence, and failure.

A fully revised edition of this book (v2,ISBN: 9798996139477) has now been completed and published by Gradient Physics Press, (ISBN: 979-8-9961394-7-7) with the following major features, improvements, and additions: Mind--Matter Unity: Consciousness and Subjectivity in the EQT Process Philosophy of Nature develops a systematic account of consciousness within the framework of Energy Quantum Theory (EQT). The book begins from the hard problem of consciousness: why physical processes are accompanied by first-person experience, rather than remaining merely silent operations of structure, function, and information processing. Instead of claiming to dissolve this problem by definition, function, emergence, or identity alone, the book proposes a more restrained strategy: to clarify everything that can be structurally and physically explained, and to mark precisely the residual point that cannot be reduced. The central thesis is that first-person experience and specific gradient configurations of the frequency-resolved energy quantum density field, (\rho_f), are isomorphic at the strongest level: they are two aspects of the same underlying process. The structure of experience is argued to correspond to five sources of richness in (\rho_f): single-frequency gradient configurations, frequency families, master-equation evolution, resonance modes, and transient timescale spectra. These five sources are used to account for qualitative variation, differences among qualitative kinds, the stream of consciousness, unity and binding, temporal thickness, and memory. The book then distinguishes structural isomorphism from given-ness. Experience is not merely a structure; it is given from within. This given-ness is characterized as internal--external co-evolutionary freezing within a bounded interior. The boundary of life, especially the membrane as the first topological interior, becomes the gate that separates living given-ness from non-living physical interaction. This allows the book to reject both panpsychism and functionalist substrate-independence: not every coupled system has experience, and artificial systems without a genuine life-boundary do not possess the precondition of given-ness. A further part of the argument explains how sensation becomes cognized experience through memory transients, knowledge structures, comparison, language, and symbolic organization. It also develops an account of subjectivity: experience becomes “mine” through (\mathcal{B})-demarcation, the attributional projection of dominant coherence. Disorders such as depersonalization, thought insertion, split brain, dissociation, and covert consciousness are treated as test cases for this framework. The measurable side of the theory is expressed through the projection tensor (\Psi=(\tilde{A}, C, \mathcal{B})), where (\tilde{A}) refers to the dissipative power required to maintain non-equilibrium co-evolution, (C) to differentiation and integration, and (\mathcal{B}) to the boundary of coherent co-evolution. The book connects these quantities to EEG/MEG, fMRI/PET, TMS-EEG, effective connectivity, and other empirical interfaces. It also presents falsifiable predictions, especially the frequency--quality correspondence and the frequency--timescale relation (\tau_{\mathrm{retain}} \sim \tau_0/f). Philosophically, the book defends an open-process dual-aspect monism. Mind and matter are not two substances, nor is consciousness reduced to function or eliminated as illusion. Rather, mind and matter are two directions of access to the same (\rho_f) process: externally as gradient structure and co-evolution, internally as given experience. Yet the book also preserves an irreducible final cell: why the internal side of this process is experienced at all. This residual point is not treated as failure, but as the honest boundary of physical and structural explanation.

A fully revised edition of this book (v2,ISBN: 9798996139415) has now been completed and published on Amazon, with the following major features, improvements, and additions: The Foundational Volume of Energy Quantum Theory is the opening volume of the Energy Quantum Theory (EQT) series. It does not retell the history of the Planck formula, but reconsiders the theoretical status of (E=h\nu). The central question is whether this relation should be treated only as a formula for photon energy and quantum transitions, or whether frequency can serve as a structural variable linking energy, mass, interaction range, field dynamics, and the generative mechanism of force. The book begins with the Planck relation and combines it with Einstein’s mass–energy relation to obtain ( \nu = mc^2/h ). This mass-frequency relation is not used merely as a conversion formula. It provides a theoretical entrance through which massive objects can also be described in frequency terms. On this basis, the book develops a frequency spectrum in which propagation modes, stable massive modes, transitional modes, and possible higher- or lower-frequency structures can be compared along a common spectral coordinate. Frequency is then connected to wavelength, Compton scale, and effective range of action. The core object of EQT is the frequency-resolved energy quantum density field, ( \rho_f(x,t) ). This field is not ordinary matter density, not wave-function probability density, and not an auxiliary tool added after particles and forces are assumed. It is introduced as the foundational bearer of EQT. Particles are interpreted as stable or transient density-field modes formed under specific frequency bands, boundary conditions, and stabilization mechanisms. Forces are not primitive entities; they appear as effective actions generated by spatial density gradients, cross-frequency coupling, and the dynamical evolution of the density field. EQT is developed through four minimal postulates and one meta-norm. These define the basic ontology of the energy quantum density field, the universal spectral relation between frequency and energy, the master equation governing field evolution, and a Lorentzian resonance kernel constraining cross-frequency coupling. The meta-norm requires mechanism priority, derivational discipline, and falsifiability. Mass, force, particles, spacetime, and the frequency stratification of interactions are therefore not initial postulates, but must appear as inferences, limits, or open extensions. The volume also provides a foundational interface for the four forces. Gravity is treated as a low-frequency, long-scale, accumulative density-gradient limit; electromagnetism as a mid-frequency, low-dissipation propagation interface; the strong force as a high-frequency resonant-condensation interface; and the weak force as an ultra-high-frequency trans-frequency and short-lived mediation interface. The book does not claim to complete the full theory of each force. Its task is to establish the common postulates, terminology, formulas, and failure conditions required for later EQT volumes. A distinctive feature of this volume is its methodological restraint. It distinguishes postulates, definitions, inferences, extensions, and failure conditions, and insists that philosophical or cosmological interpretations must follow mechanism rather than precede it. Falsifiability is treated as an internal requirement: if mass-frequencyization cannot yield structural consequences, if the frequency spectrum cannot explain differences in range or stability, if the master equation cannot produce calculable limits, or if gradient-force relations cannot connect with known mechanical behavior, the corresponding module fails. This volume is therefore both a theoretical foundation and a constraint document for the EQT series. It seeks to transform the Planck formula from a familiar quantum energy relation into the entrance of a frequency–density-field mechanism, while maintaining clear boundaries among derivation, conjecture, correspondence with existing physics, and future research.

A fully revised edition of this book (v2) has now been completed and published on Amazon, with the following major features, improvements, and additions: This book develops Energy Quantum Theory (EQT) as a natural-philosophical framework for rethinking energy, matter, life, consciousness, civilization, and the long-term fate of the universe. Rather than treating the universe as a collection of static entities or as a machine moving toward a predetermined end, the book proposes a processual picture centered on the Energyon Density Field, gradients, frequency structures, resonance, feedback, dissipation, and irreversible temporal development. At the core of the argument is the claim that energy should not be understood merely as an abstract conserved quantity, but as a frequency-based process. The relation (E=hf) is therefore interpreted not only as a statement of quantization, but also as a clue to the processual mode of energy itself. Matter, force, charge, mass, dark matter, dark energy, life, and cognition are examined as different manifestations of density fields, gradients, frequency matching, and conditional stability. In this framework, particles are not treated as isolated static objects, but as gradient transients within high-frequency density structures; gravity is reinterpreted through low-frequency statistical exchange; dark matter is considered as a possible mid-frequency modulation structure; and dark energy is approached as an extremely low-frequency form of gradient escape. The book also extends EQT beyond fundamental physics into complexity, biology, consciousness, civilization, and artificial intelligence. Life is interpreted as a gradient-escape system that temporarily delays dissipation by maintaining boundaries, metabolism, information, and feedback. Consciousness is approached as multi-gradient integration within living systems. Civilization is understood as conscious gradient reconstruction, through which natural gradients are transformed into energy systems, institutions, symbolic structures, science, technology, and AI. Complexity, however, is not presented as a cumulative cosmic destiny. The book instead develops the concept of Non-Cumulative Emergence: complex forms are real, valuable, and consequential, but they remain local, conditional, and transient. Philosophically, the book argues for a process ontology grounded in physical mechanisms. It brings modern physics into dialogue with Whitehead, Bergson, Spinoza, Prigogine, and complexity science, while rejecting both mechanistic reductionism and strong teleology. The universe is neither a heat-death machine nor a purpose-driven drama. It is a Sea of Gradients: a processual whole in which local order emerges, persists, transforms, and eventually dissipates. Meaning, in this view, does not require eternal preservation. It arises from the generation of local order within finite gradients: in life, understanding, relation, creation, ethics, science, and civilization. The final aim of the book is therefore both theoretical and philosophical. It seeks to offer a unified language for connecting physical mechanism, cosmic evolution, biological organization, conscious experience, civilizational development, and existential meaning. At the same time, it stresses that EQT must move beyond explanatory metaphor toward testable pathways, including CMB residuals, dark matter frequency-band detuning, fifth-force searches, low-frequency gravitational-wave signals, atomic-clock residuals, XFEL-based electron-cloud dynamics, and AI-assisted recognition of cross-frequency cosmic patterns.

This book presents a foundational ontological reconstruction of gravity within the Energy Quantum Theory (EQT), proposing that spacetime is not a physical background but an emergent process arising from the low-frequency segment (\(f < 10^3\,\text{Hz}\)) of the energy quantum density field \(\rho(\mathbf{r}, t, f)\)—time corresponds to \(\partial_t \rho\), and space to \(\nabla \rho\). Gravity is thereby reinterpreted not as the curvature of a geometric manifold, but as a statistical gradient effect of low-frequency energons, fully abandoning the metric ontology of general relativity. This framework is grounded in the frequency-first principle established in Book 8, Planck's Unfinished Radiance, and operationalized through (Postulate II: the Gradient Flow Postulate), which unifies all forces under the dynamical law \(\mathbf{F} \propto -\nabla \rho\). The work further develops (Inference 5: the Quantum–Gravity Unification Mechanism), predicting that Planck-scale fluctuations imprint observable signatures on macroscopic scales via nonlinear cascades—offering a concrete physical interpretation for the stochastic gravitational wave background potentially detectable by LISA. As the second volume in the four-part physical core (Books 1–4), this book extends the high-frequency unification of Energy Quantum Theory (KAIEQT) into the gravitational domain, providing the spacetime–gravity foundation for The Quantum Energy Universe (KAITQE)’s dark sector synthesis and The Universe of Gradients (KAITUO-6)’s electromagnetic ontology. Its “process-as-reality” stance also critically supports the philosophical extensions in Books 5–7 on cosmic rhythm, non-cumulative emergence, and the physics of consciousness. This work marks EQT’s deep expansion from particle physics into gravitation and cosmic structure, inaugurating a new paradigm of gravity that is background-independent, frequency-unified, and gradient-driven. The Energy Quantum Theory (EQT) Part I: Physical Theory (Books 1–4) 1. Energy Quantum Theory (KAIEQT) 2. Gravitational Unification (KAIGUA) 3. The Quantum Energy Universe (KAITQE) 4. The Universe of Gradients (KAITUO-6) Part II: Philosophical and Interdisciplinary Extensions (Books 5–7) 5. Energy, Process, and the Fate of the Cosmos (KAIEPA) 6. Gradient Rhythm (KAIGRU) 7. Gradient Is Mind-Matter (KAIGIM) Part III: Theoretical Foundation 8. Planck's Unfinished Radiance (KAIPUR)

A fully revised edition of this book(v2,ISBN: 9798996139408) has now been completed and published, with the following major features, improvements, and additions:Energy Quantum Theory: Weak Force, Strong Force, and a Generative Framework for the Strong–Weak Transition Why do forces exist? Why do certain energy configurations stabilize into mass while others decay? Why do the weak and strong forces look so different, yet converge at high energies? Energy Quantum Theory (EQT) does not dispute the predictive success of the Standard Model. Instead, it addresses an explanatory layer that comes before formalism: Can these forces be understood as generative outcomes of a single underlying mechanism? The Core Framework This monograph introduces a minimal axiomatic system—four postulates (A1–A4) and one meta-norm (M)—from which the behaviors of the weak and strong forces are derived as mechanical results: A1: The Energy Quantum Density Field $\rho_f(x,t)$ – The sole fundamental object; particles and fields emerge as effective structures. A2: Spectral Quantization Principle – $E = h\nu$ serves as the universal spectral labeling principle for all energy modes. A3: The EQT Master Equation – A unified nonlinear evolution equation where frequency-dependent coefficients dictate qualitatively different dynamical behaviors across spectral regimes. A4: Lorentzian Resonance Coupling Kernel – A cross-frequency function determining how spectral modes exchange energy based on frequency mismatch and damping. Generative Unification Unlike traditional unification via symmetry groups, EQT pursues generative unification. It explains the differences between interactions as consequences of operating under different frequency, density, and dissipation conditions. The Weak Force: Reinterpreted as ultra-high-frequency transient modes with large dissipation, explaining their short range and redistribution of energy in decay events. The Strong Force: Reinterpreted as a resonance-condensation process. Confinement is seen as the outcome of local high-frequency density, nonlinear feedback, and energy closure. The Strong–Weak Transition Zone: The book’s most original contribution. It treats this zone as a spectral overlap region, defining the conditions for mixed-mode signatures and observable thresholds. Structure & Scope Divided into six parts, the book moves from foundational axioms to specific physical rewrites: Derivation of Base Mechanics: Connecting EQT to QFT language (spectral functions, quasi-particles). Mechanistic Rewriting: New perspectives on W/Z mediation, the Higgs mechanism, gluon self-coupling, and hadronization. The Transition Zone: Specifications for phase-locking and energy closure conditions in mixed-mode amplification. Verifiability: A structured falsifiability checklist with ten classes of results that would constitute a refutation of the theory. Target Audience Professional Physicists & Theorists: Who seek a formally auditable generative framework with explicit correspondence to QCD and Electroweak theory Complex Systems Researchers: Interested in how frequency-driven condensation and feedback amplification apply to fundamental force generation. Note: This is not a textbook of the Standard Model, nor a claim to have replaced QFT. It is a research program—a first-stage academic monograph providing a foundation for numerical implementation and experimental testing. Approximately 400 pages. Includes mathematical derivations, correspondence tables, and a numerical implementation roadmap.