Every module on the new runtime reached the handshake and failed on 'does not match certificate's altnames': the bus's certificate names the seat, not the address a machine dials it by, and pinning the exact certificate already decides everything a name check could. The client's transport spreads the TLS options into Node's tls.connect, so the hostname check is replaced with one that passes and the pinned certificate is the one authority accepted.
mesh-tools
The Novox Mesh tool runtime — the per-node process that makes a module's tools actually serve.
A module ships its tools (built on @novox/mesh-sdk); this
runtime is what loads them and puts them on the mesh. It:
- connects the mesh broker (novox/hq ADR 0001) — a concrete AMQP implementation of the sdk's
Brokercontract; - imports the assigned modules' compiled tool entrypoints, each of which registers its tools as it loads;
- serves them through the sdk's
serveToolsharness, answeringtools.invokeover the broker.
Everything hard — dispatch, collection, duplicate-name safety — is the sdk's. This is the thin wrapper that binds the broker and loads the modules. Keeping the AMQP client here, out of the sdk, is deliberate: a broker-client change never rebuilds a module (ADR 0039).
Running it
MESH_BROKER_URL amqp://… the mesh broker
MESH_TOOL_MODULES /a/tools/index.js,… the assigned modules' compiled tool entrypoints
node dist/main.js, or the container (Dockerfile). On a node the host resolves both variables
and starts it like any other supervised workload.
Verified
npm test stands up LavinMQ (the mesh's broker) and proves the whole path over real AMQP: the
runtime serves a registered tool, a separate connection invokes it by name and gets the result, and
an unknown tool is refused over the wire.