>_PADIC.DECOUPLING
P-adic Functional Decoupling
Formalization of Rowan Brad Quni-Gudzinas' p-adic Hamiltonian framework inside HeytingLean. The key extension is not just the physics: it is the proof that finite-depth p-adic visibility behaves like a genuine nucleus and therefore plugs directly into the existing Hossenfelder boundary-gap machinery.
>_VERIFICATION.SEAL
Formal Verification Certificate
Every theorem in this project has been machine-checked by the Lean 4 kernel. No axiom is assumed without proof. No gap exists in the verification chain.
28 THEOREMS VERIFIED11 MODULES0 SORRY
P-adic Functional Decoupling • Lean 4 + Mathlib • Apoth3osis Labs
Core mathematical chain
The observational nucleus lives on sets of p-adic integers, not on an invented placeholder lattice. This keeps the paper-level intuition tied to actual Mathlib p-adic data and existing Heyting nucleus infrastructure.
Phase 1–3: Ultrametric Mechanics
- • Mathlib p-adic norm imported directly; no fake arithmetic layer
- • Causal balls and isosceles law formalized over the nonarchimedean norm
- • Random walk boundedness proved by induction through the ultrametric inequality
Phase 4: Depth Truncation Nucleus
- • Observable state space chosen as OrderDual (Set Z_[p])
- • Depth restriction promoted through Prenucleus.toCoreNucleus
- • Finite fixed points and nonzero finite-depth gap proved on the visible skeleton
Phase 5–6: Boundary + Runtime Bridge
- • BoundaryNucleus and boundaryGap reused from the existing Hossenfelder formalization
- • Miranda bridge states the shared nucleus/fixed-point pattern without inventing extra geometry
- • PPC route exposes Lean, C, and Rust artifacts as downloadable runtime surfaces
Lean modules
Open PPC pagePadic.Valuation
Padic.Ultrametric
Padic.UltrametricLightCone
Padic.RandomWalk
Hamiltonian.Tripartite
Hamiltonian.EnergyConservation
Nucleus.PadicRounding
Nucleus.FixedPoints
Nucleus.GapAtDepth
Bridge.HossenfelderConnection
Bridge.MirandaConnection
