The complete recipe, found across five runs: adopt BOTH the store (postgres) and broker (lavinmq) on the control-node — the broker's `listens` is what opens 5671 in the firewall for cross-node bus access; deliver the store's genesis superuser via `secret accept` (else the module mints a random one that cannot log in to the running store); inject the provider seal key (open hq issue 022 workaround); push the provider node again after the remote consumers (issue 057); and tolerate provisioner-runtime startup churn — a cross-node provisioner exits until the overlay tunnel is up, then settles. baserow and letta on the joined node get their databases from the one foundation store over the overlay. https://claude.ai/code/session_01D6qtiYU3P9jk3pnAXyAFyx
58 lines
2.7 KiB
YAML
58 lines
2.7 KiB
YAML
# The DB-consumer chain a single node cannot host, proved across two machines.
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#
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# The app-postgres provider and the mesh's own foundation store both want host port 5432, so they
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# cannot share a machine — the collision that blocked this chain single-node. Here the foundation
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# (store, broker, control) lives on `anchor` and NOTHING else; `laptop` runs the whole chain —
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# postgres and redis PROVIDERS plus the baserow and letta CONSUMERS that require them. Both
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# machines sit on one shared segment and enrol into the one mesh; only enrolment crosses to anchor,
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# over the underlay both machines already share. Provider and consumers are co-located on laptop, so
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# no cross-node module comms and no overlay are needed — and the 5432-vs-foundation conflict is gone
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# because the foundation store is on the OTHER node.
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scenario: two-node-db
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segments:
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hosting:
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kind: public
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cidr: [192.0.2.0/24]
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machines:
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# The foundation ONLY: store, broker, control — three containers. Four gigabytes is plenty for a
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# node that hosts no modules; the thrash the two-nodes bed warns of comes from stacking eleven
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# containers on a node, which this one never does.
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anchor:
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at: { segment: hosting, address: [192.0.2.10] }
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egress: true
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inbound: allow
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memory: 4GiB
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cpus: 4
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# The whole DB-consumer chain: postgres + redis providers, each a server and a broker-bound
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# runtime, plus the baserow and letta consumer services and their tools runtimes — a dozen
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# containers, two of them memory-hungry app servers (the Baserow all-in-one and the Letta server).
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# At the 2GiB the two-nodes bed gives this machine it would thrash — its own anchor comment says
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# so — and convergence would present as "the mesh hangs". Six gigabytes gives it room.
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laptop:
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at: { segment: hosting, address: [192.0.2.20] }
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egress: true
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inbound: allow
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memory: 6GiB
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cpus: 4
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# The runtime images (280MB–600MB each) plus the service images — two of them heavy app images
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# (Baserow ~1.5GB, Letta ~1.8GB) — are pulled from the internet over the uplink, so the
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# same bytes land on this node twice. The pool default root disk exhausts mid-apply ("no space
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# left on device"); sixty gigabytes holds the whole chain.
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disk: 60GiB
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images:
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- mesh-controller:development
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# The per-module runtimes, built by scripts/build-module-runtime.sh and stocked here. Each carries
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# its module's provisioner, so no separate mesh-provision-* image is listed — the runtime is the
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# provisioner (ADR 0048).
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- mesh-runtime-postgres:development
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- mesh-runtime-lavinmq:development
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- mesh-runtime-redis:development
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- mesh-runtime-baserow:development
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- mesh-runtime-letta:development
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place:
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all: [host, runtime]
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