One-sentence thesis
CHC is a bounded manuscript program for asking which physical structures become stable records, shared facts, interfacial outcomes, and testable cross-domain constraints.
This page is the reader router for the coordinated 70-entry release. It is built to lower the first barrier for outside readers: pick the question closest to your field, read a small set first, then return to the manuscript archive.
CHC is a bounded manuscript program for asking which physical structures become stable records, shared facts, interfacial outcomes, and testable cross-domain constraints.
The guide is meant to help a reader choose an entry route before opening the full archive. It does not ask researchers to accept CHC as a whole or to replace established tools. It separates root framework claims, measurement and record layers, objectivity criteria, material-interface branch budgets, public-data stress windows, and claim-boundary checks, while keeping the manuscripts and Zenodo archive as the authority for exact statements.
CHC is not offered here as a superior replacement for QFT, GR, cosmology, or open quantum systems. Its possible value is narrower: it asks which calculated structures become stable records, shared facts, interfacial outcomes, or bounded public-data constraints. These routes are designed so a reader can test one claim family without accepting the whole framework.
When does a threshold crossing become a recorded event?
Start where the series separates switching, failed transients, local commit, latching, and durable record-counting.
When is decoherence not enough for a shared fact?
Read the redundant-record route as a stricter objectivity filter using accessibility, consensus, discord leakage, and pointer stability.
How does absorbed excitation become externalized, retained, or dissipated?
Use the branch-budget route as a middle-layer interface grammar, explicitly not as a Maxwell, QED, or detector-microphysics replacement.
Can bounded CHC constraints survive public-data checks?
Open the witness-window papers first, then check whether the declared support or stress labels stay within their non-claim boundaries.
A large theory archive is easy to misread as one sweeping assertion. This guide instead points to concrete moves: where CHC introduces a boundary distinction, what ordinary tools remain in force, and what would make the distinction useful, redundant, blocked, or false.
The cosmology-facing papers separate homogeneous phase-flat response, chronometer inference, bound-structure decoupling, and primary-sector ruler constraints. This lets a reader ask a narrower question than whether CHC replaces cosmology: which background, clock, ruler, or width statement is being made, and under which recovery or exclusion condition?
The measurement papers treat a detector event as a layered process: propagation reaches an effect domain, a local opening or threshold is crossed, a metastable device commits or fails to commit, and only some outputs become durable records. That grammar is useful because it can be checked directly against ordinary detector/readout models.
The objectivity route asks whether redundant records become publicly recoverable and consensus-bearing, rather than only decohered in a formal state description. Its review value is also its risk: if quantum Darwinism, spectrum broadcast structure, pointer stability, or fragment-access criteria already cover the case, CHC wording should be narrowed or retired.
The interfacial branch-budget route asks whether absorbed excitation can be tracked into externalized, retained, and dissipated channels under one calibration map. The companion records are useful as public-pilot and support surfaces, but they remain bounded: they can sharpen or downgrade the branch grammar without validating the parent claim by themselves.
The public-data companions make source basis, selection risk, reproducibility status, and downgrade condition visible. FRC/CHIME is the clearest example: the rerun surface is public, but the declared selection-stress condition fails, so the correct value is transparency and falsifiability rather than support inflation.
The black-hole papers approach horizons, evaporation, memory, and return kernels through conditional access and boundary structure. The series value is in making those assumptions explicit enough to compare with standard black-hole, JT-bath, and information-flow accounts.
Technical readers need concrete places to start. This guide surfaces a small set of readable anchors so visitors can see where to challenge the action, recovery conditions, boundary bookkeeping, and phase-loading identity.
A researcher-facing archive becomes more credible when it does not flatten outcomes. These examples keep detailed evaluation material in bounded review language.
Useful as a bounded question about whether phase-flat background behavior remains inside ordinary posterior envelopes. It should not be presented as dark-energy closure.
Width, acoustic-angle, linked-ruler, and later-transfer checks should be separated so a reader can challenge the exact gate that is being invoked.
The CHIME route is a strong public negative example: high selection-response variability is preserved as stress, not converted into support.
The time-delay lensing route is best read as proxy-level stress language with mass-profile and kinematic limitations explicit.
Exact, Recover, Struct, Exclude, and Compat roles help readers avoid mixing theorem-like identities, recovery limits, public-data labels, and conjectural bridges.
The cryo-EM and quantum-chemistry comparison is valuable as naming and orientation. It should be stated as an analogy about phase readability and gauge discipline, not as evidence that CHC is true.
| Domain | Technical setting | Phase-origin role | Boundary |
|---|---|---|---|
| CHC | Covariant scalar-tensor and field-theory archive | Uses a phase-background reference route to organize recovery, boundary, and sector-exchange questions. | Scientific value still depends on manuscript-level assumptions and external review. |
| Cryo-EM | Fourier-space image processing | Phase-origin handling makes Fourier phase structure readable against the intended real-space reference. | An analogy for phase readability, not evidence for CHC physics. |
| DIRAC / DALTON | Relativistic quantum chemistry | Gauge or phase-origin choices help keep magnetic-response and London-orbital calculations interpretable. | An analogy for origin discipline, not a cross-domain proof. |
I want the framework spine.
Start with the root and background papers, then move into recovery and calibration anchors.
I care about measurement, clicks, and shared facts.
Follow propagation into event statistics, detector-local commit, durable records, and objectivity criteria.
I want public-data and stress-test surfaces.
Open the declared public witness windows first, then read each boundary as part of the result.
I am checking what is not being claimed.
Use the root, source-authority, and witness-window papers to track exclusions before details.
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.
These terms help orientation. They do not widen manuscript claims.
| Term | Reader-safe meaning | Do not read it as |
|---|---|---|
| Source-authority lane | The manuscript sequence used to keep the website and paper list aligned. | A blanket owner-level theorem closure for every paper. |
| Public support lane | A bounded support or witness surface described by its source paper. | An unrestricted empirical confirmation claim. |
| Per-paper guide | A web guide page for manuscript-based orientation, structure, status, and future links. | A web-only scientific statement. |
The release plan changed. The richer guide structure is useful, but the page now needs to orient the full parent-and-companion map.
No. The homepage should stay manuscript-first. Videos belong on guide or media pages when they are ready.
Use the research entry or series pages before opening individual paper guides.
Additional version notes, companion-paper links, verification-package records, and final media packages.