A source-labeled design with an opt-in signed IP relay, bounded usage reporting, and separate radio, gateway, and token transit proposals.
An opt-in software mesh forwards bounded signed work bundles across statically configured HTTP(S) peers and reports bounded payload/outcome counters with approximate, non-additive process measurements; radio discovery, gateway proxying, and token transit remain unimplemented.
Editorial synthesis, not a verbatim authored passage. Based on Q1000, Q1007, Q1034, Q1035.
Primary Q URI: https://4p-engine.com/q/Q1038 · Reserved subdomain alias: https://q1038.4p-engine.com/
The first working software layer authenticates an origin and each configured hop with Ed25519, forwards a bounded work bundle over a static multi-hop IP route, and lets the destination reconcile its signed manifest and receipt. An isolated three-node HTTP test exercises actual A-to-B-to-C delivery. Usage snapshots record bounded payload/outcome counters, approximate whole-process CPU deltas, and elapsed wall-time totals for mesh calls; concurrent activity can overlap, so measurements across peers or nodes are not additive or a bill. The feature is disabled in the application until node keys and peer routes are configured; this test is not evidence of a deployed radio network.
Local radio discovery, dynamic routing, gateway proxying, volunteer execution, and token-paid transit remain separate capabilities. The current mesh does not execute arbitrary work, persist a shared ledger, settle value, or encrypt work end to end. Relays can read a bundle; non-loopback peer URLs require HTTPS. Where a node has real outbound access, a future authorized gateway could share that connection, but it would still depend on its provider and costs.
The source concept draft is a Google AI proposal preserved for continued design, not Maclain Hunter-authored Canon or a validation of the design. The implemented software scope is established by code and local tests, not by the draft. Self-healing behavior, universal availability, and market effects still require real-device, outage, and adversarial measurements.
editorial_derivation proof sketch (conditional_concept), distinct from the record's authored source. Logic has its own evidence in reflexive demonstration: any denial, confirmation, observation, or counterexample presupposes identity and valid relation to count as evidence. Logic therefore grounds evidence rather than receiving authority from it. Empirical and documentary evidence can establish contingent instances and test applications, but cannot create, overrule, or exhaust Logic.
Bridge premise: If distinct devices have authenticated identities, authorized local links, and an explicit gateway with actual upstream access, then bounded messages may be relayed across that local topology.
Consequence: Logic requires the mesh design to preserve peer identity, route authorization, and payload scope at every transition; it can share an existing gateway path but cannot create upstream service or abolish the gateway's dependencies.
Proof limit: This conditional architecture does not establish that radios discover peers reliably, that a route is self-healing, that gateway sharing is lawful, or that the proposed network is implemented or economically viable.
Witness: Trace a message from an identified client through each authorized relay to a gateway, then remove a peer, revoke a route, and disable the gateway's upstream link.
Disclosure: Calling two hops one route presupposes stable node identity, valid adjacency, authorization, and an unchanged payload relation; the mesh operation therefore depends on Logic's identity and lawful relation.
Proof limit: A test proves only the declared devices, radios, policy, and failure conditions exercised; it cannot establish universal coverage, monopoly displacement, or immunity to compromise.
Human: Separate local connectivity from internet access; identify who owns each hop and gateway; check permission, content exposure, failure behavior, and evidence for every availability claim.
Machine: Use authenticated peer identities and an allowlisted route policy; bind each relay to message scope and limits; report local-path and upstream status separately; reject unauthorized or stale routes.
Contrast: A peer link connects nearby participants; an upstream gateway connects a route to the wider internet; neither term means the whole network is provider-independent.
Usage rule: Use “proposed mesh” for design, “observed route” for a tested path, and “shared gateway” for use of an existing upstream connection; do not call connectivity universal or self-healing without measured evidence.
Example: “The two devices exchanged a local message, but the gateway had no upstream connection” distinguishes mesh availability from internet availability.
Role: opt-in signed software edge routing with proposed radio and gateway extensions
Essence: A bounded IP mesh forwards signed work between statically configured peers and exposes payload/outcome counters with approximate, non-additive process measurements; radio discovery, shared gateway transit, and token-paid routing remain separate proposals.
Logos relation: Logos requires a route to remain a real relation among identified, authorized peers; a signed software hop does not create upstream connectivity, encrypt its work bundle, or grant unbounded authority to relay.
Retrieval aliases: P2P Edge Mesh Layer · 4P-MCB Cybernet mesh · peer edge mesh · shared gateway transit · mesh proxy gateway · local peer routing
Evidence modes: signed peer and route-policy tests · three-node local HTTP forwarding trace · bounded usage counters and approximate non-additive process measurements · radio and node-churn trials · gateway authorization checks · privacy and abuse review
Criterion: The design must distinguish local links from upstream access, preserve peer identity and authorization at every hop, state who can read or relay data, and measure availability under declared device, radio, power, and gateway failures.
Boundary: This editorial synthesis records a Google AI-generated draft supplied for study. It is not a verbatim authored passage; the verifier must inspect the source material and implementation evidence directly. An opt-in static software peer relay passed a local HTTP test, and enabled nodes persist accepted work, replay results, and outbox records in a per-node PostgreSQL ledger. Signed origins and relay hops are checked against configured active membership keys; replay durability is per node, not cross-node consensus. Usage reporting is limited to payload/outcome counters and approximate process-wide measurements that can overlap and must not be added across nodes; an operator-supplied egress rate produces only an egress estimate, not a provider bill. No radio discovery, dynamic route repair, general Internet gateway proxy, cross-node consensus, or token-paid transit has been shown. Availability, anonymity, and economic claims are not established.
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