PO-1—PO-12
R⋆R algebra
Specify the carrier, field, basis, multiplication/structure constants, unit, involution, norm and domain of the author’s R⋆R.
PN2_theorem_ru_v1.0 §12; PN2_journal_ru_v1.1 §8Consistency
Check bilinearity, closure, continuity, zero divisors and the existence of the operators used.
PN2_theorem_ru_v1.0 §12; journal §8Nonzero associator
Compute K on explicit triples and classify the associative and nonassociative sectors of R⋆R.
PN2_theorem_ru_v1.0 §12; journal §8Structural coordinate 𝔇
Define 𝔇 with Δ_D>0, prove invariance and interpret its unit.
PN2_theorem_ru_v1.0 §12; journal §8Observable S
Choose a physically interpretable S and prove c-separation, or use the full-state form.
PN2_theorem_ru_v1.0 §12; journal §8Measurement model
Describe hidden b, available data, permitted estimators and the experimental meaning of e_S,e_D,e_R.
PN2_theorem_ru_v1.0 §12; journal §8Uniform constant
Choose a normalized Ω for the author’s R⋆R and prove ε_->0; investigate its boundary and degenerate sectors.
PN2_theorem_ru_v1.0 §12; journal §8Dimensional consistency
State physical dimensions of S, 𝔇, K, m and κ; introduce calibration maps.
PN2_theorem_ru_v1.0 §12; journal §8Categorical no-go
Specify categories, functors, morphisms and the precise no-go: absence of a natural section, lift or joint estimator.
PN2_theorem_ru_v1.0 §10.3 / §12; PN2_journal_ru_v1.1 §5.3 / §8; synchronized C3.8M 2026-09-01Connection to PN.1
Construct a representation ρ in a Hilbert space and define self-adjoint X,P, their domains and the commutator.
PN2_theorem_ru_v1.0 §12, §14; journal §8–§9Examples and counterexamples
Four constructions: K=0; K≠0 with Δ_S=0; c=1; compact Ω with ε_-=3.
PN2_theorem_ru_v1.0 Appendix A A.1–A.5; journal §6Independent reproducibility
Certificate PN2-PO12-A2-v1.0, exact code, tests, values.tsv, results.json, SHA-256.
PN2_theorem_ru_v1.0 Appendix B B.0–B.9; journal §8 + Data availability