Dual research program
The Æther Flow Project
Start here to orient yourself: the project pairs a proposed Æther-Flow physics ontology with a governed AI research system. This site explains the routes and boundaries; source files, registries, and reviewed records remain the authority.
The project is a dual-track research program. The physics research track asks whether a General Relativity (GR) derivation can be built from the Æther / Æther-Flow ontology: a proposed source-side vocabulary for a deeper substrate, ordered flow, observed space, S-time, expansion, and gravity-language. The AI research-system track governs how bounded tasks, validators, handoffs, memory discipline, and human review are used to pursue and audit that work. The ontology orients the model but does not prove it; the GR derivation remains open and claim-gated.
Two first-class tracks
Two research tracks, one authority boundary.
The Home route separates the physics research track from the AI research system while keeping both downstream from reviewed source records.
Physics Research
Understand the physics proposal without treating it as proved.
The physics category starts with ontology, exact-GR benchmark boundaries, the open derivation roadmap, and claim-status discipline.
- Æther / Æther-Flow ontology
- Exact-GR benchmark package
- Open GR-derivation problem
- No-go and obstruction record
- Public language preserves the distinction between interpretation, benchmark compatibility, open derivation work, and obstruction records.
AI Research System
Inspect the governed workflow used to pursue the research.
The AI research system category explains bounded tasks, roles, validators, handoffs, memory preflight, and human-gated promotion.
- AI research-agent workflow
- Role contracts and governed skills
- Claim gates, review, and refutation discipline
- Source-first memory, wiki, and registries
- Public copy explains the system in plain language before internal terms such as AgentJobs, registries, and role contracts become necessary.
Static diagram
Read Home as two tracks under one source-authority boundary.
The diagram keeps the physics research lane, AI research-agent workflow, and source-authority spine visible before readers choose a deeper route.
Reader capability routes
Choose the route that matches your question.
The greenfield navigation model gives readers three practical choices: inspect the physics research, inspect the AI research system, or use the resources layer for source authority and supporting materials.
01
Start with physics
Begin with ontology, benchmark boundaries, derivation roadmap, flow geometry, claim status, and open burdens.
Open route02
Check physics claim status
Separate stated ideas, benchmark compatibility, open derivation work, obstructions, and blocked overreads.
Open route03
Understand the AI system
See how bounded tasks, roles, schemas, memory, validators, handoffs, and review discipline organize the work.
Open route04
Inspect validation and handoffs
Understand why a validator PASS is bounded to a checked state and why handoffs do not expand authority.
Open route05
Check source authority
Learn how website pages, source records, registries, generated surfaces, and derivatives differ.
Open route06
Use resources
Find source-authority guidance, registries, generated derivatives, reading paths, documents, and diagrams.
Open routeThese routes help readers follow the project, inspect documents, and understand workflow. They do not create scientific authority, prove a GR derivation, adopt a physics candidate, or replace upstream source records.
Physics status
Ontology and GR
The ontology page gives vocabulary and model orientation for Æther / Æther-Flow. The GR derivation roadmap remains an open-burden map, not a completed proof or benchmark promotion.
Æther / Æther-Flow ontology
Plain vocabulary for Æther, Æther-Flow, observed space, S-time, expansion, and gravity-language, with boundaries around what those terms do not prove.
Open routeGR derivation roadmap
A burden map for the still-open derivation path: effective geometry, matter coupling, field equations, and benchmark promotion each require source-side evidence.
Open route