Complete response classification
Eight irredundant generators for coherent complex Dirac matter; six when real Majorana masses are also allowed. The proof has no representation-size cutoff.
The featured axion paper classifies which heavy sectors can produce a given gauge response and derives conditional running bounds. Two related papers determine which interventions identify a trimer Hamiltonian and when a field description is observationally distinct from a competitor. The separate CHC Framework Series v2.0 archive contains 72 fixed manuscripts.
Global quantization does not decide which axion couplings heavy particles can generate. This paper classifies the complete gauge response of specified Dirac and Dirac–Majorana matter classes, determines their minimum contribution to gauge running, and derives conditional heavy-threshold bounds. The central classification requires no CHC hypothesis.
Eight irredundant generators for coherent complex Dirac matter; six when real Majorana masses are also allowed. The proof has no representation-size cutoff.
A necessary-and-sufficient integer test gives the complete minimal running frontier: at most 70 Dirac candidates, or nine with Majorana masses, for any anomaly vector.
Published Standard Model inputs turn the arithmetic restriction into a heavy-mass bound. The stated benchmark is stronger than the componentwise triangle test, under the same validity assumptions.
The generators classify coupling responses, not unique particle spectra. Cosmological applications require separately specified interactions and thermal histories. This is a theoretical preprint, not an experimental detection.
The 21-page paper proves an exact two-dimensional passive ambiguity, an explicit finite ambiguity after one intervention, and a closed-form global inverse after two distinct calibrated edge attenuations. It also reports a reproducible, figure-level spectrum–current audit of public superconducting-qubit results without converting compatibility into confirmation.
Five trace-free microscopic coordinates enter all passive spectra and nondegenerate currents through only three polynomial invariants.
Two calibrated labelled-edge attenuations recover every site offset and positive hopping magnitude by closed-form equations.
Twenty registered intervals pass the conservative figure-resolution enclosure; absent raw covariance, no formal rejection or acceptance is claimed.
The 35-page paper joins regular-branch and functional-saturation no-go results to finite predictive codimension, named-comparator exposure, covariance-weighted local power, and one prospectively fixed compact-holonomy test. It is derived from CHC v2.0 but has its own DOI and publication record.
Separate ambient falsifiability from distinction against a specified competitor and from attainable measurement precision.
Twelve phases, independent spectrum and current measurements, full covariance, validity gates, and one rejection threshold.
The symmetric trimer is also the standard magnetic graph. Agreement cannot identify a cosmological compact field.
The archive remains the citable source. A separate status page tracks open objections, candidate downgrades, failed gates, and next checks.
The Zenodo archive remains the citable target, so criticism has something stable to hit.
The review-status page shows which claims are most vulnerable, what would count as failure, and which objections would move the project.
Corrections, downgrades, failed gates, sharper references, and stronger tests become public status changes rather than hidden maintenance.
Each route reduces the archive to a bounded question with a comparator, failure condition, and status basis, without requiring full-framework acceptance.
CHC does not ask readers to replace established QFT, GR, cosmology, or open-system machinery.
It routes claims through local record formation, boundary conditions, ordinary comparators, and controlled recovery limits.
It asks which calculated structures become stable records, shared facts, interfacial outcomes, or bounded public-data constraints.
The practical entry point is one claim family at a time: detector records, objectivity, branch budgets, or public stress tests.
These three papers address interpretive background, finite-window measurement and objectivity, and raw-fragment QD/SBS redundancy tests. They remain independent of the 72-paper CHC archive and do not alter its validation status.
A philosophy-of-physics manuscript for interpretive background, bounded by recovery, ordinary-theory comparison, and failure-preserving evidence.
Adjacent research note
A quantum-measurement note separating measurement-map statistics, detector readout records, and redundant objectivity criteria on finite observation windows.
Adjacent research note
A synthetic raw-fragment QD/SBS benchmark for all-subsets redundancy, disagreement diagnostics, negative controls, and common-mode fragility checks.
Adjacent research note
Each route identifies a technical surface and asks whether the bounded CHC claim survives its closest ordinary comparator. The route table converts the broad archive into inspectable entry points.
| Route | What to inspect | Current posture | Good first question |
|---|---|---|---|
| Mathematical spine | CHC-min action, constrained scalar sector, effective stiffness, and branch assumptions. | formula anchors for review, not proof of whole-framework validation | What assumptions make the root route well-posed? |
| Recovery limits | Controlled recovery, ordinary GR/QFT limits, and declared exclusion criteria. | ordinary limits remain the default comparator | What exactly is recovered, and at what order or window? |
| Detector records | SPAD, SNSPD, CCD, PMT, bubble-chamber, readout, latch, and durable-output rows. | orientation-only across completed detector-family rows | Does any record layer survive beyond ordinary detector/readout language? |
| Objectivity | SBS, quantum Darwinism, pointer stability, and shared-fact certificate comparisons. | likely redundant or equivalent-or-weaker in the named SBS case | Is the CHC certificate redundant, weaker, or stricter than standard objectivity criteria? |
| Interface budgets | Externalized, retained, and dissipated channels under a fixed calibration map. | candidate-only and blocked without a public fixed calibration artifact | Can one public calibration artifact close the branch budget? |
| Public-data gates | DE, CMB, TDC, FRC/CHIME labels and rerun or blocked-artifact status. | bounded labels: non-exclusion, partial, proxy, blocked, or failed | Which labels are non-exclusion, partial, failed, blocked, or rerunnable? |
| Typed sector language | Exact, recovery, compatibility, exclusion, and public-data labels across sectors. | claim governance only, not evidence promotion | Does the type discipline clarify claims without promoting unlike evidence? |
The covariant expansion-phase root and the homogeneous background response used as the public entry point.
Common propagation classes, event statistics, detector-local commit, readout, and shared-fact records.
De Broglie recovery, light-speed distinctions, cosmic time, and phase-decoupling tests.
Composite matter, vibrational spectra, tunneling, and boundary-memory prototypes.
Declared calibration ledgers and observational stress windows for cosmology, compact objects, and carrier conversion.
Matter-coupled gauge sheets, anomaly ledgers, electroweak structure, confinement grammar, and fit windows.
Vacuum selection, compact fibers, duality benchmarks, large-N comparators, and cross-sector language.
Late-series finite-window identities for phase loading, commit cadence, neutrino response, and charged-lepton loading.
The common microscopic-closure criterion and a complete finite loop-holonomy realization with an exact spectral test.