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Detector and frontier atlas v1

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Detector and frontier atlas v1

Date: 24 October 2026 Status: canonical navigation map; detector coverage is not physical admission Machine authority: detector/frontier register Open topics: open-topic register and working list

Result

The corpus currently resolves twenty distinct frontier regions with thirty-nine detector bundles. The machine register, rather than this prose count, is authoritative for status totals as bundles are added or reclassified.

The word detector is used operationally:

a detector is a declared map from latent alternatives to records, together with the controls and nuisance model needed to interpret those records.

It may be a laboratory instrument, a computational observable, a mathematical certificate or—in the deepest unresolved cases—the missing action and observable dictionary itself.

1. The twenty frontier regions

IDFrontier regionGeometric shapePresent edge
FA-01Structural reachabilityfinite image in a formal carrierwell-typed environment image unknown
FA-02Representation stabilityquotient fibres over presentationsglobal normalization theorem absent
FA-03Detector resolutionvertical refinement towerglobal injectivity absent
FA-04Positivity and rankstratified conesphysical form selection open
FA-05Orientation and phasebranched double covercalibrated pseudoscalar channel open
FA-06Projector holonomyloops with lifted frame transportjoint device measurement open
FA-07Dynamical selectionbasins and neutral manifoldsindependent physical selector open
FA-08Measurement conditioningtrajectory fibres over an ensemble mapfull instrument experiment open
FA-09Thermodynamic costprecision-speed-dissipation regionmatched resource ledger open
FA-10Metastabilityrate functions and escape pathsplatform trajectory census open
FA-11Spectral boundariespoles, cuts, bands and thresholdsone-carrier closure open
FA-12Material and Casimir responsecausal tensor response surfaceno-refit same-film closure open
FA-13Transport rankpositive matrix spectral conelow-frequency thermodynamic rank open
FA-14Defects and topologydiscrete index sectors with fibrestransported data beyond index open
FA-15Disorder, causality and scalerobustness tubesjoint scaling and stable invariants open
FA-16Arithmetic and codesdiscrete islands and cliffsnew source-derived form/functor open
FA-17Operator translationbroken arrows between chartsphysical intertwiner absent
FA-18Consistency and continuumallowed regions and uniform limitsnew bound or uniform theorem absent
FA-19Flavour, gravity and cosmologyjoined likelihood manifoldscommon action and scale map absent
FA-20Exceptional unificationcandidate global assemblycomplete physical theory absent

These regions are not mutually exclusive. A single experiment can cross several boundaries—for example, projector tomography can probe positivity, orientation, holonomy and selection—but it must report which coordinate each record actually measures.

2. Actual detector stack

Computational structure detectors

These detectors map FA-01 through FA-03. They are exact within the pinned computational policy and have no direct claim to physical observability.

Geometry, holonomy and selection detectors

Together these span FA-04 through FA-10. No single headline signal—endpoint return, phase, contraction or hysteresis—closes the bundle.

Material, spectral and force detectors

These span FA-05 and FA-11–FA-12. Their nearest complete target is a same-film causal tensor that predicts a differential Casimir observable without refitting.

Transport and boundary detectors

These cover FA-11 and FA-13–FA-15. The immediate computational edge is the low-frequency two-current rank; the immediate model edge is the three-sector spectral-boundary Hamiltonian.

Formal, arithmetic and statistical detectors

These span FA-03 and FA-16–FA-18. DET-038 is the physical calibration precursor; DET-027 is sufficient for the declared emulator, not yet for a physical relation carrier.

Missing translation-level detectors

These are called missing detectors because no corpus-specific model presently maps the proposed latent structure into their ordinary observables. They occupy FA-17–FA-20 and are the fundamental firewall.

3. Detector bundles by question

QuestionMinimum bundle
Did a projector return?DET-004
Did its coherent frame rotate?DET-004 + DET-005
Was apparent rotation differential loss?DET-005 + DET-006
Was one state dynamically selected?DET-007 + DET-008
Was selection only postselection?DET-008 + DET-009
Do identical classical histories conceal different record laws?DET-009 + DET-039, with coherent g/k references and every outcome retained
Does a local fixed object glue globally?DET-026 + DET-039, with seam-order, scheduler and overlap controls
What did selection cost?DET-009 + DET-010
Was persistence equilibrium or kinetic?DET-007 + DET-011
Is a long lifetime caused by a weak/closed operator channel?DET-013 + DET-014 + DET-037
Does a linewidth equal a population lifetime?DET-013 + DET-037, with pure dephasing and detector response separated
Was a transverse material signal intrinsic?DET-012–DET-015 + DET-029
Did one material tensor predict Casimir?DET-012 + DET-016–DET-018
Is transport genuinely rank two?DET-019–DET-021
Is a state bound, resonant or interfacial?DET-022 + DET-023
Does a defect carry more than its index?DET-023 + DET-024
Is an invariant stable across scale/disorder?DET-025 + DET-026 + DET-030
Does the formal relation carrier reconstruct?DET-027 + withheld channels
Is an exceptional arithmetic identification possible?DET-028 plus a missing DET-035
Can inherited anomaly response be separated from a direct weak operator?W-associated kernel + DET-029 + DET-036
Is new physics distinguishable?relevant physical bundle + DET-029 + DET-035

4. Admission rule

A detector result advances a frontier only if:

  1. the latent alternatives are named;
  2. the forward detector map is frozen;
  3. nuisance directions and control parity are declared;
  4. at least one positive and one negative control are retained;
  5. the detector bundle separates the leading conventional alternative;
  6. the result survives held-out settings;
  7. complexity and backaction are reported;
  8. a residual equivalence class is retained when separation fails.

More repetitions of a detector that maps two mechanisms to the same record do not move the frontier.

5. Current exhaustion boundary

The inventory is exhausted at the level of detector types represented in the current corpus: structural, geometric, dynamical, channel/instrument, thermodynamic, material, spectral, topological, arithmetic, statistical and fundamental-translation detectors are all present. Exhaustion of the science has not been reached. The open work is to instantiate, join, calibrate and adversarially test these bundles on shared carriers. DET-039 makes the channel layer explicit: a state-space symmetry, an unread channel, a committed instrument and an accepted public record are not interchangeable. The remaining work is tracked in the open-topic register rather than inferred from this taxonomy.

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