Assumptions, results and research status
A guide to the conditional gauge research programme.
Choose a concrete project
I welcome collaboration with experts in physics, mathematics and philosophy. The new project briefs specify six possible starting points: shared-reference completion, loop readout reconstruction, geometry beyond the spectrum, global representations, a nonzero vacuum-punctured estimate, and controlled limiting claims. Each includes a reproducible calculation, a proposed contribution and a criterion for reviewing it.
Use the research note template to state your assumptions and result. Independent checks, precise objections and counterexamples are welcome alongside proposed extensions. The connection map identifies related work across SMONAD.
Start from a question that can be resolved
The gauge programme spans several disciplines, so collaboration is most productive when it begins with a precisely stated task. You do not need to accept every part of the proposed temporal interpretation to contribute. An independently checked theorem, a missing hypothesis, a more efficient calculation or a sharper account of what a record must retain can improve the research on its own terms.
Please use the contact page for current email and social-account links, or the discussion section for a question suited to public exchange. The author page introduces my work. The gauge reference library supplies the manuscripts and version notes needed to identify a particular claim.
A useful first message names one article or manuscript section, states the result you want to check or extend, and describes the expertise or method you bring. A short calculation or a reproducible counterexample is often a better starting point than a broad promise to establish unification.
For physicists: build the observable bridge
One central opportunity is to connect a specified microscopic update to a physical effective interaction. The exact singlet model supplies a controlled loop response, but source selection, electric terms, matter realization and physical normalization need their own derivations. A contribution could isolate which microscopic symmetries forbid an extra central invariant or which allowed perturbation generates it.
Another task is to define a matched observable. Starting from a regulated Hamiltonian, calculate a correlation function or energy difference under a fixed unit convention and identify its cutoff dependence. Compare a leading approximation with an exact finite calculation before claiming a universal effect. The effective-interaction guide, coupling guide and hydrogen section provide related examples.
For lattice specialists, the practical questions include a common physical Hilbert space across regulators, locality of the proposed completion update, control of sector leakage and estimates uniform in spatial volume. The sector guide and continuum article identify where a finite calculation must be strengthened.
For mathematicians: strengthen a theorem or isolate an obstruction
Operator-algebra and quantum-information questions arise directly from predictive sufficiency. How does the record algebra change when the admitted future tests are restricted? Which approximate versions of joint-reference preservation survive if local algebras are only approximately fixed? Can a quantitative comparator or determinant-resource bound be proved for a chosen completion channel?
Spectral geometry provides another set of concrete tasks. One can study regularity and curvature of protected projectors, conditions for globally parallel product-volume tensors, compatibility of local phase choices, or stable comparison of spectral bundles at varying regulators. The spectral-bundle guide distinguishes a smooth frame formula from the invariant connection; the commutant guide makes the retained representation data explicit.
For functional analysts, a useful result could establish the correct form-domain Schur reduction with vacuum puncture for a specific family, including high-block invertibility and a relative mixing estimate. A counterexample where a desired estimate fails is also valuable if it identifies a missing invariance or uniformity condition. See form Feshbach reduction and the vacuum obstruction.
For philosophers: clarify the explanatory role of completion
The distinction between a generative history and an observable completed record raises questions about identity, relational information and explanatory dependence. Predictive sufficiency offers one operational criterion, but it is always relative to a family of future tests. A philosophical analysis can clarify what is assumed when that family is chosen and whether different families represent different observational resolutions or different physical theories.
Another question concerns the relation between structure and dynamics. A stabilizer group describes transformations preserving retained data. An explanation of why those data are physically realized needs a source law or an independently justified selection principle. Clarifying that distinction helps prevent a successful mathematical reconstruction from being asked to establish a stronger metaphysical conclusion than its hypotheses support.
The six nested inner generative levels and seventh outer completion also need consistent interpretation. Their role is not captured by treating every level as an independent observable time coordinate. The recurrence guide and completed-record guide provide a common vocabulary for relating the temporal picture to mathematical constructions.
Six focused starting projects
| Project | Suggested output | Starting article |
|---|---|---|
| Approximate record sufficiency | A norm bound relating local retention error to an explicit family of future interference tests. | Predictive sufficiency |
| Determinant-reference construction | A covariant preparation or transfer protocol with a fully accounted reference resource. | Group reconstruction |
| Beyond the restricted loop response | An exact perturbation calculation identifying whether a new central invariant appears. | Holonomy Hessian |
| Protected projector under regulator change | A common-space construction and quantitative gap/curvature estimate. | Protected bands |
| A nontrivial punctured window | A solvable model with retained excitation rank greater than zero and controlled Schur mixing. | Feshbach reduction |
| A matched physical observable | One prediction from fixed source inputs, with its units, approximation and independent benchmark. | Couplings and mixing |
These invitations are research questions rather than claims that their solutions already exist. Begin with the relevant manuscript version, agree on notation, and state the success criterion before expanding the scope.
Sources for this guide
- Completed records, v21
- Temporal completion and exact loops, v20
- Vacuum obstruction and form Feshbach, v2
- Conditional interactions and unification, v1
Source manuscripts, version notes, and standard references are listed in the reference library.

