Kaisheng Li

This paper advances a limited architectural claim about what any viable pre-physical generative theory must preserve, at minimum, once the entry conditions are already granted. It does not re-establish the minimal conditions under which structural existence can count as genuinely attained within process. It also does not offer a completed ontology, a physical theory, a formal dynamics, or a direct adjudication of competing scientific proposals. Instead, it takes as input the result of Author (2026a): that a viable theory must preserve genuine attainment, real internal failure, genuine status-difference, and some internal basis of processual determinability. The present question is what follows organizationally if those conditions are not to collapse into one another. The paper argues that collapse is the central architectural danger once the minimal conditions are in place. A theory may name ontology, generation, and readout while silently allowing one burden to absorb the work of another. Ontology may preload attainment by making the starting basis so rich that structural existence is already secured before generation begins. Generation may be reduced to neutral sequence or classificatory staging that bears no internal status-consequence. Readout may reverse explanatory order by allowing physical legibility to constitute what counts as attained rather than remaining downstream of it. In each case, the vocabulary of three layers is preserved while the functional distinctions those layers are meant to secure are evacuated. Against this pattern, the paper defends two claims. The stronger claim is functional: ontology, generation, and readout identify three irreducible explanatory burdens. Their irreducibility is established not by the observation that they answer different questions, but by showing that the characteristic failure of each burden cannot be redescribed without remainder as the successful operation of the others. Ontology cannot exhaust generation because even the most fully specified admissible characterization does not determine whether the accumulated differences among participating events will converge on the configuration required for closure. Generation cannot exhaust readout because even a fully borne generative trajectory does not determine how its attained outcome becomes physically legible. Readout cannot exhaust generation because even a fully specified account of physical legibility conditions does not bear the internal difference-accumulation that produces attained status. The weaker but still substantial claim is architectural: a three-layer structure of ontology, generation, and readout is the minimally viable organization under which this functional non-collapse can be preserved. The paper further introduces four metatheoretical diagnostics for identifying burden-collapse in practice: the Admissibility Compression Test, the Consequence Test, the Readout Reversal Test, and the Failure-Profile Test. These are not mechanical decision procedures but disciplined probes that require charges of collapse to be tied to determinate questions about failure-profile and explanatory remainder. The paper applies these diagnostics to Whitehead's framework of actual occasions and satisfaction, showing that it fails the Admissibility Compression Test because satisfaction is guaranteed by the nature of actual occasions, and fails the Consequence Test because the process does not bear attainment as an open question. The Failure-Profile Test confirms that the generative burden has no distinct explanatory work once the ontological burden is counted as successful. The present result is the middle term in a three-paper series. Author (2026a) establishes the necessary entry conditions for pre-physical generative theory. The present paper establishes the necessary architectural conditions: that the three burdens must remain functionally non-collapsed. Author (2026c) addresses the necessary bridge/interface conditions by asking what would additionally be required for attained status to stand prior to readout without being constituted by it. Satisfying the conditions of one level does not automatically satisfy those of the next; the levels are independent but cumulative. The present paper is offered as a clarification of the architectural threshold that must be crossed before that later bridge/interface work can be well-posed.

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.