Normalize the topology so web/desktop/mobile clients communicate only with
Convex. Convex admits durable commands, dispatches private Flue turns through
FLUE_URL, and stores the product-facing result before clients observe it.
- Normalized relational schema: organizations, projects, conversations/turns/
messages/attachments, signals/sources/constraints, works/events/attachments.
- Conversation turns queued in Convex; the agent runAction dispatches to Flue
and persists assistant response, signals, and proposed work back into Convex.
- Browser chat moved off the Flue transport: use-chat-agent now reads reactive
Convex rows and sends through conversationMessages.send.
- Fixed signed-in blank screen: gate all product queries on useConvexAuth
(isAuthenticated && !isRefreshing) plus personal-org bootstrap.
- Pinned react/react-dom to 19.2.8 via catalog to fix SSR dual-React crash.
- Removed ~16.6k net lines: daemon, AgentOS/Orb, project issues/runs/artifacts,
todos, browser Flue transport, mobile execution views, smoke scripts.
Verified end-to-end on cheaptricks: connect repo, send actionable message,
Flue turn completes, Signal + proposed Work created with exact provenance,
persists across refresh.
- Archive dormant apps (daemon, desktop, native, tui) and superseded
packages/server into repos/ for reference
- Archive 21 dead web components (chat page shell, work-os cluster, strays)
into repos/web/; keep reused message-rendering primitives in components/chat
- Merge @code/work-os into @code/primitives; work.ts absorbed via ./work
subpath and barrel export; update all four importers
- Add docs/futures.md tracking audio/video (blocked at Flue + provider),
web layout cleanup, and message rendering quality
- Repoint dev:zopu script to @code/agents (the live Flue server)
- Note repos/ reference-code convention in AGENTS.md
A vertical slice to bootstrap the product loop on the canonical zopu-code repo.
Primitives (packages/primitives, all tested + lint/type clean):
- GitRemoteRuntime: Gitea REST client (createIssue, createBranch,
createPullRequest, listIssues, getIssue) as an Effect context service with
a fetch-backed transport. Live-verified against puter/zopu-code.
- GitLocalRuntime: clone, addWorktree, commit, push, currentBranch,
setRemoteUrl over a pluggable Shell (host subprocess now, AgentOS VM exec
later). Tested against real temp git repos.
- agent-os: Codex support via @agentos-software/codex-cli — codexSoftware
bundle (codex+git), makeCodexAgentOsConfig(), codexSessionEnv() for the
OpenAI base URL/key.
Env:
- GITEA_URL/GITEA_TOKEN wired into convex.ts and convex.config.ts.
- .env.example documents the self-hosted git section.
Agents (packages/agents):
- zopu-dev: development agent that creates issues on the canonical repo and
starts autonomous work runs. git-remote tools (create/list/branch/PR) wired
to GitRemoteRuntime; start_workflow tool enqueues a work run.
- flue run zopu-dev verified live (lists/creates issues on real Gitea).
Backend (packages/backend):
- workflows.startIssueWork mutation: fetches a Gitea issue server-side and
admits a queued work run. The Codex VM spawn body is the next step.
Extend the smoke harness with Orb execution-plane preflight probes
(Docker, OpenCode, Gitea reachability/creds/PR-creation, repository
writable) that report BLOCKED with exact reasons when dependencies are
absent. Add scripts/orb-project-run.ts as the missing connection point
between OrbProjectManager and the Orb/Git lifecycle. Write
docs/DOGFOOD_V0.md covering architecture, startup order, env vars,
local/server flows, demo procedure, health checks, failure recovery,
cleanup, known limitations, and next milestones.
The smoke harness now runs 18 preflight checks across control-plane and
Orb execution-plane layers, all with stable markers and sanitized JSON
reports. The orb:run script (ORB_RUN=1) drives one issue through the
full Orb project-manager lifecycle.
Project-manager orchestration over the merged Orb runtime: creates/resumes
Orb runs, assembles context packs, projects OrbEvents to project events,
handles needs-input and follow-ups, runs the Git/Gitea lifecycle on
completion. Port-and-adapter design with fake-testable boundaries. Never
auto-merges.
Add a thin orchestration layer that drives the existing Orb runtime to
progress issue-scoped work. OrbProjectManager creates/resumes Orb runs,
assembles context packs, projects OrbEvents into durable project events,
detects needs-input and work-complete conditions, forwards follow-up
messages, and runs the Git/Gitea lifecycle on completion.
Port interfaces (OrbAdapter, OrbRunPort, GitLifecyclePort) make the
orchestrator testable with fakes. The real adapters wrap OrbRuntime and
runPostRunGiteaLifecycle without reimplementing Docker, AgentOS, or
OpenCode.
Idempotency: duplicate starts reuse active runs, duplicate completion
returns cached results, cancel is idempotent. Never auto-merges.
88 tests pass (19 orchestration + 12 event-mapping + orb suite), 2 live
tests skipped; lint and type checks clean.
Single-node Zopu execution-plane deployment for a fresh Debian host:
Docker Engine, Bun, agent + daemon systemd services, health checks, disk
monitoring, update/rollback, and Caddy. The agent user is granted Docker
group access for Orb sandboxes. Independently verified including host-setup
corrections.
Orb runtime now routes the OpenCode ACP through the model gateway end to end.
Three-stage proof (Docker, AgentOS/OpenCode session, model turn) passes with
the echo token verified and zero leftover containers.
The in-process DockerSandboxClient could never satisfy AgentOS 0.2.10's
sandbox serialization contract: AgentOS serializes sandbox mounts through
getSerializableClientConfig, which reads client.baseUrl and passes it to the
sidecar. An in-process object has no network endpoint.
Replace the custom adapter with the supported boundary: SandboxAgent.start
with sandbox-agent/docker, which starts a sandbox-agent server inside a
Docker container with a dynamically mapped host port and returns a
SandboxAgent client whose baseUrl both the main process and the sidecar
subprocess reach over 127.0.0.1. Dispose calls destroySandbox so no
containers are left behind.
Remove 700+ lines of dead DockerSandboxClient infrastructure (PID tracking,
log files, signal handling) now handled natively by the sandbox-agent
server. Add a sqlite_file database descriptor to AgentOs.create so session
storage works. Wrap command execution in sh -c for the SandboxAgent API.
Apply chmod 600 to the real OpenCode config path containing the gateway key.
The real proof with the main .env now passes all three stages:
ORB_STAGE_DOCKER_OK, ORB_STAGE_AGENTOS_OK, ORB_STAGE_MODEL_TURN_OK,
ending ORB_PROOF_PASSED with zero leftover containers.
Update README to describe the real SandboxAgent + Docker topology and
remove the misleading 'missing sidecar' limitation.
Fix detached process startup in docker-sandbox.ts: capture the real process
group PID via setsid, redirect stdout/stderr to durable log files, refresh
status and exit code after natural completion, make getProcessLogs return real
logs, and implement bounded TERM/KILL cleanup with no leftover containers.
Switch the adapter to node:child_process (supported by Bun) so tests execute
under vitest, add -i to docker exec so staged files reach cat, and assert the
launcher is nonempty before launch.
Ensure Orb creation disposes the VM before its sandbox on partial failure
(AgentOS creation or OpenCode linking), and dispose the VM before its sandbox
in OrbHandle.dispose. Fix the Effect state callbacks (tapError/sync/asVoid) and
prepareRepository branch/base shell quoting.
Split normalizeSessionEvent to stay under the complexity limit without
suppressing the rule. Raw outbound prompts stay unchanged; only persisted and
logged event copies are redacted.
Rewrite scripts/orb-proof.ts to emit explicit stable stage markers for Docker,
AgentOS/OpenCode, and the model turn; ORB_GATEWAY_* fall back safely to
AGENT_MODEL_* without printing secrets; an unreachable gateway is BLOCKED not
passed; container removal is verified after disposal.
Strengthen tests: drop the any-failure createOrb test and add focused Docker
lifecycle coverage (PID, logs, status, exit code, stop/kill, removal) guarded
only when Docker is unavailable.
Add Convex backend tests for listLinkedSignalsForProject covering:
- Per-issue grouping with correct source counts
- Project membership/authz (denies non-member access)
- Cross-project signal suppression (project1 cannot see project2 signals)
- Multi-source signal source-count accuracy
- Empty project returns empty record
- Issues without linked signals are omitted from result
Make linked signals deterministically ordered newest-first within
each issue group via toSorted(createdAt descending).
Replace the deliberate signalCount of 0 with authenticated linked-Signal
data from the Lane A signalIssueAttachments relation.
- Add listLinkedSignalsForProject query (user-authenticated via
requireProjectMember) returning issue-grouped LinkedSignalView data
using the existing by_issue index. One query serves both card counts
and expanded detail.
- Update work-unit-projection builders to accept linkedSignals param;
LinkedSignal type with signalId, title, summary, sourceCount, createdAt.
- Feed real attachment data into collapsed card signalCount and expanded
detail linked-signal list with provenance (source count, relative time).
- Add signal.attached event handler to activity timeline projection.
- 32 tests including 4 linked-signal projection tests, 1 signal.attached
activity mapping test, and cross-issue signal isolation test proving
issue A cannot inherit issue B's linked signals.
Lane C implementation of the Zopu Web Work OS for dogfooding:
- Work Unit card/detail projections built from per-issue events only
(artifact counts from distinct artifact.updated paths, PR from
gitea events, activity timeline, agent summaries). Signal linkage
is explicitly 0/unavailable until Lane A relations are integrated.
- Persistent composer with Project and Work Unit mode switching.
Project mode sends to the global Zopu agent; Work Unit mode sends
to the issue-scoped project-manager agent identity.
- Collapsed Work Unit cards show title, summary, signal/step/artifact
counts, current activity, PR indicator, needs-input indicator.
- Expanded Work Unit detail shows objective, timeline, artifacts,
PR with directly usable link, needs-input alert, start action.
- Project-level Signals panel in the sidebar (not attributed to any
issue until a signal-to-issue relation exists).
- Dark theme with calm, Apple-like visual direction.
- 21 projection tests including 5 cross-issue isolation tests and
2 signal isolation tests proving one issue cannot inherit
another issue's artifacts, PR, summary, or project signals.
- Mobile-responsive: detail overlay on mobile, sidebar on desktop.
No backend or schema changes. Uses existing Convex contracts and
Flue agent transport throughout.
Six fixes addressing operational correctness on a real Debian host:
1. Ownership after git operations: chown -R zopu:zopu on the checkout
after clone/update/rollback before running bun install/build as the
service user. .env kept at 0600 with explicit chmod after each
operation.
2. sudo replaced with runuser: minimal Debian does not include sudo.
runuser is part of util-linux (essential) and always available.
All three scripts (bootstrap, update, rollback) now use runuser -u.
3. cron.d entry fixed: /etc/cron.d format requires a username field.
Added ${SERVICE_USER} between the time fields and the command path.
4. Firewall: added explicit `ufw allow in on tailscale0` rule so the
deny-incoming default does not block Tailscale private-overlay
reachability. Removed inaccurate claim that direct private IP works
by default; documented that an explicit per-interface rule is needed.
5. SupplementaryGroups=docker added to zopu-agent.service: the Orb
sandbox runtime lives in the agent process, not just the daemon.
6. zopu-health.service: added Environment=ENV_FILE=__INSTALL_DIR__/.env
so health-check.sh sources the correct .env at custom install paths.
Verified Flue build output: bun run build:agents produces
packages/agents/dist/server.mjs (confirmed by running the build).
Agent unit ExecStart path is correct.
Validated: bash -n on all 6 shell scripts; mocked health-check smoke
against live RivetKit engine on port 6420; systemd unit structural
checks. No JS/TS/agent files changed.
Add the complete project-scoped Zopu chat, Signal extraction, and
work-routing loop:
Backend (signalRouting.ts):
- Agent-token-gated functions for the full routing cycle: list evidence,
create signal, list signals, list active issues, attach signal to
issue, create issue from signal, begin issue, get project context,
list projects
- attachSignalToIssue requires signal.projectId to exist and equal
issue.projectId (org equality alone is insufficient)
- createIssueFromSignal is idempotent: queries existing attachments
before creating, returns created/reused flag
- Duplicate attach retries return existing relation without emitting a
duplicate event
- All functions deny-by-default with agent token validation
Schema:
- Add signalIssueAttachments table with indexes by signal, issue, and
the composite (signalId, issueId) for idempotent lookups
Agent tools (tools/signals.ts):
- Nine Flue tool definitions bound to the organization-scoped agent
instance ID, calling the agent-gated Convex functions
- Organization ID never accepted as free input; always from the bound
instance
Zopu agent (zopu.ts):
- Comprehensive routing-loop instructions: assess actionability, identify
project, create signal only when actionable, route via attach or create,
explain outcome, optionally begin
- Wiring of routing tools into the agent definition
Tests (signalRouting.test.ts):
- Authentication: invalid token rejected on every function
- Project scoping: evidence, signals, issues scoped correctly
- Idempotency: duplicate attach, duplicate create-from-signal, duplicate
signal creation
- Attach vs create: both paths verified
- Cross-project rejection: signal and issue must be in same project
- Org-scoped signal attach rejected (no projectId)
- Provenance: exact raw text preserved through routing loop
- Begin issue: transition and auth verification
Lane D deliverable: reproducible execution-plane deployment on a fresh
Debian dedicated server (~12 cores, 40 GB RAM, single-node).
Artifacts:
- bootstrap.sh: Docker Engine, Bun, repo clone, build, systemd install,
firewall (deny-by-default), optional Tailscale, disk monitor cron
- .env.template: all 8 environment groups documented (Convex, Gitea,
model gateway, AgentOS/RivetKit, Zopu agent, daemon, Docker sandbox,
service auth)
- systemd units: zopu-daemon, zopu-agent (both Restart=always),
zopu-health timer (60s), zopu-docker-cleanup timer (daily)
- scripts: health-check, update, rollback, docker-cleanup, disk-monitor
- Caddyfile: optional reverse proxy (documentation-only by default)
- README.md: full runbook with start/stop/log/update/rollback/cleanup
procedures, topology documentation, and boundary notes
Verified topology (from installed RivetKit source):
- registry.start() boots an in-process RivetKit engine (envoy mode) with
a native Rust sidecar at http://localhost:6420 (DEFAULT_ENDPOINT in
chunk-YDUQHING.js line 4751). createClient() connects back to it.
- No separate Rivet Engine process required for single-node operation.
- Linux x64 sidecar packages (@rivet-dev/agentos-sidecar-linux-x64-gnu)
are available as optional dependencies.
Docker / Orb boundary:
- Docker Engine installed and zopu user in docker group.
- No Docker-backed sandbox code wired; Orb lane contract not yet landed.
- Volume pruning omitted from docker-cleanup.sh to protect durable data.
Validated: bash -n on all 6 shell scripts; mocked health-check smoke
(nc-based TCP probes, mocked systemctl/docker); systemd unit structural
checks. No JS/TS/agent files changed.
Remove the OutOfOrderSource constraint from composeSignal. The agent's
selection order is authoritative for source ordinals; timestamps remain
as per-source provenance metadata. This resolves the contract conflict
where reversed message selections (valid agent compositions) were
rejected by the primitive.
Each source still retains its original createdAt, so chronological
provenance is preserved exactly. The sourceKey includes ordered message
IDs, so different orderings produce distinct signals with deterministic
idempotency.
Coverage added:
- Primitive: non-chronological order accepted, timestamps preserved
- Backend: reversed selection preserves ordinals and exact raw text
