Wu Xian Ze You, Second Canon Compendium of Papers from the Physical Chemistry Division (Working-Layer Bridging Section)

This collection constitutes the stage-concluding synthesis of the chemical working layer within the Second Canon—the New Paradigm Physics—of the Tri-Source System of The Unmanifest Selecting the Manifest. It comprises sixteen papers: ten core treatises covering the periodic law, chemical bonding, water networks, the full periodic table and superheavy elements, catalysis, prebiotic chemistry, electrochemistry, chirality, solid-state phase transitions, and polymer soft matter; four dedicated numerical calibration papers; one calibration master table; and one interdisciplinary bridging table. Together, they answer a single question: if the electron is not an a priori point-object, if the vacuum is not emptiness, and if the wavefunction is not ontology itself, then what should chemistry become?

The answer is that chemistry is rewritten as the unified external manifestation of a five-element grammar: Skeleton — Background — Channel — Locking — Percolation. The periodic law is no longer an empirical classification but an arrangement of stability-island numbers along the nucleus-electron boundary. Chemical bonds are not orbital overlaps but the closure of charged boundary channels within the static-free background. Water is not a mere polar solvent but a reconfigurable hydrogen-bond network shared between light skeletons and the background shell. Catalysis is not primarily "lowering activation energy" but the temporary rearrangement of reactant boundary channels by a catalytic skeleton, coupled with regenerative cycling. Electrochemistry is not electron transfer but the locking and switching of charged skeletons at interfacial backgrounds. Biological homochirality is not accidental bias but the nonlinear amplification of a weak background directional source through autocatalytic locking. Solid-state phase transitions are not band rearrangements but switches between skeleton locking and background percolation. Polymers are not merely statistical chains but multilevel conformational lockings formed by long skeletons within solvent backgrounds.

This unified grammar covers ten chemical subdomains and has completed a first round of numerical bridging. The regular simplex angle formula, augmented by a lone-pair compression term, yields a mean absolute error of approximately 0.12° for five standard molecular bond angles—without any fitting parameters. The effective hydrogen-bond energy of approximately 22 kJ/mol is derived from evaporation enthalpy and aligns with literature windows. The Mott percolation threshold n_c^(1/3)a_B* ≈ 0.25 recovers the classical criterion. The Flory exponents 0.60/0.50/0.33 emerge naturally from a single conformational functional. The gel point for a tetrafunctional network p_c = 1/3 and the vesicle closure radius r_c = 4κ/(γedge − ΔγΘ) all grow from within the grammar and return to experimental magnitudes. Critically, the chemical layer serves as the molecular-scale anchor for a short chain of physical constants: from μ = 1836.15, the physics layer independently derives the bare fine-structure value α0 ≈ 1/136.04, which bridges via background modification to the observed α ≈ 1/137.036, while simultaneously yielding sin²θW ≈ 0.2312—entirely free of adjustable parameters. The chemical layer’s hydrogen-bond energies, interfacial thresholds, and isotope differences all fall within the same kJ/mol scale, consistent with the physical chain.

This does not deny the validity of quantum mechanics, DFT, the Standard Model, or existing chemical subdisciplines within their respective domains. Rather, it compresses these effective but mutually inconsistent fragments into a deeper ontological foundation. Valence-bond theory, molecular orbitals, VSEPR, band theory, the Mott picture, Flory statistics—all are demoted to projections of the same skeleton–background–channel grammar at different scales. The chemical working layer has now completed ontological closure and first-round numerical calibration. It does not claim full final computation of all chemistry—bond-length databases remain incomplete, transition-metal valence ordering is unfinished, and quantitative predictions for catalytic volcano peaks and the Z = 164 superheavy window await high-precision collaboration. These gaps are explicitly listed in Cal-C15, neither concealed nor excused.

This collection formally draws the stage boundary for the chemical working layer: no further lateral expansion into new chemical topics will be undertaken. Instead, the chemical layer is closed as a calibrated module and interfaced with the main physical thread of the cross-disciplinary master table, subject to tripartite adjudication by computation, experiment, and observation. Every prediction carries explicit falsification conditions: if main-group valence and bond-angle locking are systematically refuted by experiment, if water/H-D network consistency is excluded, if electrical double-layer layering thresholds fail, or if the Z = 164 superheavy window is ruled out by high-precision computation, then the chemical working layer must be revised. This system does not demand reverence; it demands only to be read carefully—follow its first principles to the end, and then judge for yourself on which side it stands.

Regarding language availability: given the vast scale of the complete system, a full translation by a single author is infeasible. The first chapter and the sixteenth chapter (the chemical-layer synthesis and the interdisciplinary master table) of the physical canon have been translated in full, sufficient for professional readers to assess the system's logical rigor, explanatory reach, and falsifiability. The remaining eleven volumes and the expanded working-layer papers are currently published only in Chinese. Scholars with genuine academic judgment can, from these two chapters alone, recognize the structural trajectory of the higher-order propositions and proceed with professional translation or computational tools as needed. This is a constraint of circumstance, not a diminution of scholarly value. May this body of knowledge reach the place it is meant to reach.