Fourth-moment theorem
Lean 4A formalized proposition for the specific operator construction and fourth moment. Proof checking does not replace independent review of how the formal definitions correspond to the intended mathematical object.
Explore the theorem at the centre of the research programme, the higher-moment questions that remain open, the independent Phi-Genesis spectral audit, and the engineering systems built around invariant-first design.
Each link opens its own repository or workflow. Status badges report only the named workflow, not the whole research programme. Rift-L1 and Rift Network have separate source-available licensing notices.
The dissertation is the synthesis document for the research programme: the formally stated fourth-moment result, selected finite-level certificates for higher moments, numerical cross-checks, and the unresolved all-level recurrence.
The document is a research dissertation/monograph, not a claim of an awarded academic degree or a completed physical Theory of Everything. Mathematical evidence and downstream engineering claims remain separate.
The source theorem concerns a specific SU(2)-connected operator on Sierpiński-gasket graphs and its commuting control.
The normalized quantity is
Its limit is
At \(\theta=\frac{\pi}{2}\), the limiting value is exactly \(-\frac{8}{9}\).
Each category answers a different question. This page does not invent live counters; the source links lead to reports and workflows.
A formalized proposition for the specific operator construction and fourth moment. Proof checking does not replace independent review of how the formal definitions correspond to the intended mathematical object.
Selected finite-level Fourier coefficients have modular/CRT certificates, with numerical holdouts. The all-level recurrence and derivation of the exceptional first transition remain open.
Signed-flux spectral decimation and mass-index claims are audited separately. The full exceptional set and residual mismatches are not closed; selected patterns are not established physical laws.
Runtime invariants, fuzzing, audit findings, and deployment records support specific code paths and configurations. They are not a formal proof of every possible execution.
Select a stage to inspect its evidence obligation.
Start from the source statement and formalization. Keep the fourth-moment theorem separate from every conjectural extension.
Higher moments and signed-flux decimation have distinct proof obligations. Finite certificates and numerical patterns do not close all-level claims.
Runtimes, blockchain protocols, kernel stress tests, quantum architectures, and energy models each require their own validation.
Links show the relationship between programmes; they do not imply that a result in one repository proves claims in another.
Specified SU(2)/Sierpiński-gasket fourth-moment identity; Lean 4 formalization reported for stated scope.
Higher-moment recurrence and recursive-operator research; selected finite-level certificates; all-level recurrence open.
Signed-flux spectral decimation, boundary/corner corrections, inertia calculations, and mass-formula audit.
Invariant-first execution model, architecture coordination, and implementation-specific verification.
Pre-experimental gauge-covariant fractal quantum-processing architecture; no speed-up claim implied.
Exploratory invariant-driven energy-system scenarios with explicit modelling assumptions.
A curated map of public workstreams, with the original repository as the source of truth for each claim.
The dissertation brings together the fourth-moment identity, Lean formalization references, finite higher-moment certificates, numerical holdouts, and unresolved recurrence questions.
Separate implementation tracks cover the Rift Network protocol, Agave scheduler research, and ABIv2 memory contexts. Their results must be read against each project's own code, tests and deployment scope.
The report records a deterministic empirical stress experiment under the documented test environment. It is not a replacement for seL4's formal verification and does not prove all possible executions.
A distinct model-review repository examines invariant-oriented DeFi behavior. The presence of this research is not an endorsement or affiliation with Aave.
Signed-flux decimation, boundary and corner corrections, numerical inertia, and residual mismatches are tracked separately. Open exceptions remain part of the record.
Rift-L1, the Sierpiński QPU concept, and invariant-driven battery scenarios are separate implementation or exploratory tracks, each requiring its own validation.
Technical discussion, institutional proposals, licensing enquiries and contractual matters should be handled through the appropriate channel.
For a serious proposal, include your name, organization and role where relevant, the exact project or commit, the requested action, and any proposed scope or timeline. Institutional-domain email is preferred for messages claiming institutional authority, but an email domain alone does not prove identity or authorization.
No email address is invented or exposed here. Publish a dedicated monitored mailbox only after confirming it is the intended public contact. Confidential, legal or contractual material should not be posted in public issues.
This is a conceptual map of the programme. Use commit history for exact chronology and source-specific status at a given date.
Specify state constraints and require transitions to preserve them.
State the fourth-moment identity and formalization scope.
Build finite certificates and holdouts; retain the all-level open problem.
Test signed-flux claims; preserve failures and open residuals.
Explore systems and devices with separate engineering evidence.