flower
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review · segments

Run agents in Proxmox worktrees via remote SSH

claude 576 events 27 segments master

segment 1 of 27

Investigate feasibility of running coding agents in Proxmox worktrees via SSH and Solo

Done

User asked how to run coding agents in worktrees on Proxmox rather than locally. Assistant launched a multi-agent reconnaissance workflow to gather ground truth on Solo remoting capabilities, Proxmox inventory, prior design artifacts, and flower's coupling to the Mac. Findings: Solo is fundamentally a macOS-local orchestrator with no remote host support; flower already exposes MCP over HTTP (Mcp::web('/mcp') in routes/ai.php) so remote agents can use recall_* tools without a local Laravel app; LXC containers are recommended for per-agent isolation; Tailscale can bridge Proxmox and the Mac for secure connectivity. The assistant recovered detailed coupling analysis from a failed agent sub-task and synthesized the architecture options.

outcome

Determined that remote agent execution on Proxmox is feasible via LXC containers and Tailscale, with flower's HTTP MCP enabling remote recall; Solo cannot natively drive remote hosts but SSH wrappers are possible.

next steps

  • Design detailed architecture for remote agent setup with LXC containers and flower HTTP MCP bridge
  • Implement SSH-based launch mechanism for agents on Proxmox
  • Configure Tailscale for secure Mac-Proxmox connectivity
  • Decide whether to proxy Solo tool calls through flower for agents not running inside Solo

key decisions

  • Solo cannot natively drive remote hosts; its API is local-only with no remote host field
  • Flower already exposes MCP over HTTP/SSE in routes/ai.php, enabling remote recall_* tools
  • LXC containers are the recommended primitive for per-agent isolation on Proxmox
  • Remote agents should use Tailscale to reach the Mac flower brain
  • Transcript-ingestion is host-local; remote agents need a bridge back to the Mac's Solo for Solo tool access

open questions

  • How will agent transcripts from remote sessions be ingested into flower?
  • Can Solo tool calls be proxied through flower for agents not running inside Solo?
  • What is the exact SSH command to launch an agent in a Proxmox LXC container?
  • Should the remote agent run with flower MCP over HTTP only, or also have local datastores?

16 hours ago → 16 hours ago

segment 2 of 27

Assess the feasibility of running remote Proxmox agents through Solo and determine the best integration approach

Done

The user questioned whether remote agents configured via Solo's UI and SSH command could receive Solo's toolset. The assistant analyzed Solo's spawn mechanism, noting the 'Command' field can carry SSH but the agent lacks Solo's tools due to macOS-specific transport (unix socket + Mach-O binary). After the user shared Discord evidence about token rotation issues and a successful Windows tunnel, the assistant launched a verification workflow. The workflow confirmed that Solo on macOS uses a unix domain socket and local SQLite, not the HTTP API, making remote tool access infeasible. The assistant concluded that flower should serve as the coordination layer for remote agents, proxying Solo's capabilities as needed, while Solo handles local PTY management.

outcome

Confirmed that remote Solo-tool access is infeasible on macOS; decided on flower-proxy/remote-flower architecture.

next steps

  • List and prioritize testable claims about the flower-proxy approach
  • Design the flower-as-proxy or remote-flower implementation plan

key decisions

  • Solo's agent toolset on macOS is bound to a unix socket and local SQLite, not tunnelable over SSH
  • Flower will serve as the MCP bridge for remote agents, handling token rotation and identity
  • DiGi's SSH tunnel approach works on Windows but not macOS due to different transport planes

open questions

  • Can flower re-expose all necessary Solo tools (e.g., kv, locks, timers) via MCP? Or does the remote agent only need flower's existing briefs/dispatch?
  • How will attribution (who performed an action) be handled when flower proxies Solo calls?
  • Is the flower-proxy approach truly more robust than a direct SSH tunnel with token sync?

16 hours ago → 16 hours ago

segment 3 of 27

Clarify flower's role in remote agent architecture

Done

User questioned whether flower holds the full lifecycle and whether remote agents are decoupled from Solo's MCP. Assistant explained the three-layer model: coordination (flower), process supervision (Solo), interactive PTY (Solo-only), concluding that flower is the brain and Solo is the hands, with remote and local symmetric under flower orchestration.

outcome

Conceptual model confirmed: flower coordinates work/state; Solo handles process launch and interactive terminal.

next steps

—

key decisions

  • Flower owns coordination and state; OS-process supervision remains delegated to Solo (or future flowerd).
  • Remote and local deployments are architecturally symmetric under flower.

open questions

—

15 hours ago → 15 hours ago

segment 4 of 27

Assess subscription auth feasibility for remote agents and decide local-first strategy

Done

The user asked two steering questions about using subscription auth for remote agents and whether to start with local decoupling first. The assistant launched an async agent to verify Claude Code headless auth details, then summarized findings: subscription auth works via `claude setup-token` for a 1-year token, Codex lacks headless subscription auth, and local-first is recommended. The user agreed to the local-first approach.

outcome

Confirmed subscription auth feasibility for Claude Code (env var token) and decided to pursue local-first decoupling before remote deployment.

next steps

  • Formalize the plan in flower briefs as per the user's request.

key decisions

  • Local-first approach: Phase 1 (local decoupling) before Phase 2 (remote deployment) to prove concept without auth/network unknowns.
  • Codex stays local due to lack of headless subscription auth; subscription auth for Claude Code via CLAUDE_CODE_OAUTH_TOKEN env var.

open questions

—

15 hours ago → 15 hours ago

segment 5 of 27

Define the decoupling epic and phase structure

Done

The assistant and user agreed on a phased approach: local-first then remote, with Track A (coordination decoupling) as critical path and Track B (process supervision) as parallel optional. Created three briefs in flower: epic #263, Phase 1 #264, and Phase 2 #265. Wrote full specs for each, set parent-child relationships, and added a dependency so Phase 2 is blocked until Phase 1 completes. All briefs initially in idea/draft status.

outcome

Epic #263, Phase 1 #264, and Phase 2 #265 created with full specs and dependency graph; Phase 2 blocks on Phase 1.

next steps

—

key decisions

  • Experimental per-stage approach rather than a monolithic blocker brief before proceeding
  • Phase 1 local-first, Phase 2 remote; Phase 2 depends on Phase 1
  • Solo stays as operator UI and process spawner but is no longer required for agent coordination
  • Track B (flowerd process supervision) is parallel and non-gating

open questions

—

15 hours ago → 15 hours ago

segment 6 of 27

Prove flower /mcp endpoint and assess auth/tailnet posture

Done

Executed Phase 1a live probes: initialized connection to flower's /mcp HTTP endpoint (HTTP 200, protocol 2025-06-18, 69 tools including recall_*, brief_*, daemon_checkin); verified auth is open (no Authorization header required); checked tailscale serve status (not configured); discovered R710 homelab node is tailnet-offline despite physically running. Recorded all findings as notes in briefs #264 and #265, and updated epic/phase statuses accordingly.

outcome

Flower /mcp proven working over HTTP with full tool surface; auth open; tailnet serve not yet configured; R710 offline for 102 days but physically running.

next steps

—

key decisions

—

open questions

  • R710 tailnet offline — when and how to bring it back online?
  • When to enable tailscale serve for flower.test?

15 hours ago → 15 hours ago

segment 7 of 27

Verify flower-only agent decoupling with a 6-step acceptance walk

Done

The assistant prepared a flower-only MCP config (HTTP only), created a throwaway brief (#267), spawned a Claude agent with --strict-mcp-config flower-only, handled the bypass permissions prompt, sent a 6-step test prompt, waited for completion via idle timer, then cross-checked from the orchestrator side confirming all steps succeeded. Two findings were recorded: (A) daemon_checkin roles are a fixed enum, (B) roster identity collapses by role. The throwaway brief was cancelled.

outcome

Phase 1 decoupling proof PASSED and independently verified; findings recorded on brief #264; brief #267 cancelled.

next steps

—

key decisions

  • Use flower-only HTTP MCP config (no Solo tools)
  • Use Solo spawn_agent with extra_args for strict MCP config
  • Use idle timer for non-polling wait
  • Record findings on brief #264 for Phase 2

open questions

  • How to handle distinct per-worker roster identities for multiple workers sharing same role (flagged for Phase 2)

14 hours ago → 14 hours ago

segment 8 of 27

Confirm identity collapse with a second flower-only worker

Done

Spawned a second flower-only worker (Solo process 1174, actor_ref flower-only-tester-2, role other) and had it check in via daemon_checkin. The worker reported it was assigned daemon id 44 with canonical actor_ref flower-other, the same daemon used by the first flower-only tester. Cross-verified from the orchestrator side via recall_roster, which showed exactly one role=other daemon (id 44) with audit_count=2 recording both check-ins. The collapse was confirmed and documented in the project brief (#265) along with the Phase 2 implication that the roster keys identity by role+project, not per-worker actor_ref.

outcome

Confirmed that two workers with distinct actor_refs but the same role collapse into a single roster slot (daemon id 44, canonical actor_ref flower-other). Individual identities survive only in meta.audit and on brief events.

next steps

—

key decisions

  • The roster's identity-by-role+project is a design choice, not a bug; per-worker identity within a role would be new functionality for Phase 2.
  • The DaemonRole::Lead enum constant is broken (crashes successor spawns) and should be filed as a bug.
  • A single remote worker for Phase 2 is unaffected by this collapse limitation.

open questions

—

14 hours ago → 14 hours ago

segment 9 of 27

Close test agents, file scoped bug, and probe R710

Done

Assistant closed two test agents (flower-only-tester and flower-only-tester-2), filed a bug about DaemonRole::Lead missing enum case (flower_feedback #141), attempted to delete the flower-other daemon row prematurely (blocked by safety classifier), and ran a read-only SSH probe on R710 at 192.168.1.161 which found the host reachable, tailscale installed but logged out.

outcome

Two agents closed; bug #141 filed; R710 detected alive with tailscale logged out; daemon row not deleted (auto-blocked pending user consent).

next steps

—

key decisions

  • Only file the DaemonRole::Lead bug (existing functionality) and not file the worker identity collapse (new functionality).
  • Do not delete daemon row without explicit user consent.

open questions

—

13 hours ago → 12 hours ago

segment 10 of 27

Record roster clarification as design direction

Done

According to operator instruction, appended a note to issue #265 in the flower brief, clarifying that workers should be first-class roster citizens, upgrading per-worker identity to a confirmed target-state requirement. The append was confirmed successful.

outcome

A design note was appended to issue #265 documenting the operator's intent that workers be on the roster as first-class citizens.

next steps

—

key decisions

  • Workers are now considered first-class roster citizens, requiring the roster key to evolve from role+project to include per-worker identity.

open questions

—

12 hours ago → 12 hours ago

segment 11 of 27

Delete flower-other daemon row and reclaim R710 tailscale connection

Done

Attempted to delete the flower-other daemon row (id=44) but initially targeted the wrong table 'daemons'. Found the correct table 'daemon_agents', deleted the row with operator consent, and confirmed the remaining roster. In parallel, ran tailscale up on the R710 (homelab) to re-authenticate; obtained a login URL that the operator clicked. Verified R710 came back online at its prior IP 100.72.163.53 with 2ms ping, and recorded the outcome in brief #265.

outcome

flower-other row removed from daemon_agents; R710 is back on the tailnet at 100.72.163.53 with subnet-router config restored.

next steps

  • Conduct the remote worker spike requested by the user

key decisions

  • Deleted only the operator-consented row (id=44) and left other dead rows to preserve history
  • R710 tailscale up required prior non-default flags (--accept-dns=false, --advertise-routes=192.168.1.0/24) to avoid error, so those were included

open questions

—

12 hours ago → 10 hours ago

segment 12 of 27

Prove remote MCP coordination via reverse SSH tunnel

Done

Set up local flower server on port 8899, established reverse SSH tunnel from R710 to localhost, ran a Python MCP client on the R710 that performed daemon_checkin, recall_roster, and brief_append, verified from Mac, then tore down. The smoke passed end-to-end.

outcome

Remote MCP coordination path de-risked; a scripted client on a separate machine successfully coordinated with flower over the network.

next steps

  • Remaining Phase 2 items: direct tailnet reach (tailscale-serve, #110) and real remote Claude agent (toolchain in LXC).

key decisions

  • Used SSH reverse tunnel as stand-in for tailscale-serve.
  • Used Python MCP client instead of full Claude agent for smoke.

open questions

—

10 hours ago → 10 hours ago

segment 13 of 27

Clean up daemon and wire briefs for flower-only pipeline and remote LXC

Done

Deleted the flower-other daemon (role 'other') from the roster, created priority brief #270 (Flower-only agent pipeline), updated its spec, set parent to epic #263, appended a concrete LXC provisioning recipe to brief #265 (Phase 2), linked #265 as depending on #270, marked brief #264 (Phase 1) as complete, and promoted #265 to planned. The epic now has a clean structure with #264 done, #270 in progress, and #265 gated on #270.

outcome

Daemon cleaned; briefs #264 complete, #270 in progress with full spec, #265 planned with LXC recipe and dependency on #270.

next steps

  • Implement the pipeline (flower-agent wrapper, MCP config template, provisioning script) — started in segment 2
  • After pipeline is ready, provision first LXC on homelab-desktop (CT 310) and test remote agent

key decisions

  • Deleted flower-other daemon id=46 to free the 'other' roster slot
  • Made #270 the priority (over #265) because it is reusable and infra-independent
  • Set #265 as depending on #270 so the LXC recipe consumes the pipeline once built
  • Marked #264 (local proof) complete, unblocking #270 and #265

open questions

—

10 hours ago → 10 hours ago

segment 14 of 27

Plan architecture and pivot to R710 for flower-agent base LXC

Done

Assessed homelab-desktop (99% full ZFS pool, ~5.6 GB free), decided not viable for workspace LXCs. Reconnoitred R710 (adequate free disk on LVM-thin), recorded the multi-harness vision (Claude + Pi initially, Codex backlogged), base image philosophy (mirror Mac minus Solo), and node version 24.16. Appended architecture notes to briefs #263 and #265.

outcome

Decision to build flower-agent base LXC on R710 using fresh Debian 12 template, with node 24.16, Claude + Pi (Solo excluded), Codex deferred.

next steps

  • Create and provision the base LXC on R710 (CT 310)

key decisions

  • Pivot from homelab-desktop to R710 because homelab-desktop local-zfs is 99.26% full
  • Base LXC will be a full multi-harness dev env (Claude, Pi) mirroring the Mac setup minus Solo
  • Node version 24.16 to satisfy both Claude Code (>=18) and Pi extension requirements (>=24.15)
  • Solo does not come over to the LXC — flower over tailnet replaces Solo's coordination role
  • homelab-desktop near-full ZFS flagged as an ops risk (potential contributor to AMD host lockups)

open questions

  • Whether to configure thin_pool_autoextend on R710 before creating many linked clones
  • Exact order for Pi installation and config replication (pass-2)

10 hours ago → 10 hours ago

segment 15 of 27

Create and provision base LXC on R710

Done

Based on the node-pivot decision (homelab-desktop disk full), created a new Debian 12 LXC (CT 310 flower-agent-base) on the R710 with 4 cores, 4 GB RAM, 20 GB thin rootfs, and nesting=1. Then ran credential-free pass-1 provisioning: installed node v24.18.0, Claude Code 2.1.201, tailscale 1.98.8, and git 2.39.5. Codex was backlogged per user instruction.

outcome

CT 310 created and provisioned with full toolchain (node, Claude Code, tailscale, git).

next steps

  • Set CLAUDE_CODE_OAUTH_TOKEN for headless Claude auth
  • Configure flower-only wrapper and MCP config
  • Install Pi extensions and config replication (pass-2)

key decisions

  • Use fresh Debian 12 template on R710 instead of homelab-desktop disk-constrained node
  • Codex backlogged; immediate base = Claude + Pi only
  • Node version 24.16+ to cover Pi/@spences10 extensions

open questions

—

10 hours ago → 10 hours ago

segment 16 of 27

Join CT 310 to the tailnet

Done

Added tun passthrough to the LXC configuration (lxc.cgroup2.devices.allow + mount entry), cold-restarted the container with pct stop/start, started tailscaled, and used the user-provided auth key to join the tailnet as flower-agent-base (IP 100.123.9.73). The LXC now sees the full tailnet including the Mac (100.107.33.8). The Claude OAuth token was provided but not yet applied inside the LXC.

outcome

CT 310 is a full tailnet node (100.123.9.73) with tun passthrough.

next steps

  • Set CLAUDE_CODE_OAUTH_TOKEN in CT 310 for Claude Code headless auth
  • Deploy flower-only wrapper and MCP config
  • Convert CT 310 to template for worktree cloning

key decisions

  • Use reusable/ephemeral Tailscale auth key for future clone convenience
  • Tun passthrough configuration for full tailnet node (like lounge-worker)

open questions

—

10 hours ago → 9 hours ago

segment 17 of 27

Prove direct tailnet reach from LXC to flower

Done

The assistant wrote an LXC smoke test script and served flower on the Mac's tailnet IP. After correcting a guardrail issue that denied binding to 0.0.0.0, the server was bound to 100.107.33.8:8899. The smoke test ran from CT 310 via scp + pct exec, performing initialize, daemon_checkin, and recall_roster, all returning HTTP 200 and confirming reachability over the direct tailnet link.

outcome

LXC CT 310 (100.123.9.73) reached flower on the Mac's tailnet IP (100.107.33.8:8899) without any tunnel.

next steps

—

key decisions

  • Binding flower server to specific tailnet IP (--host=100.107.33.8) instead of 0.0.0.0 to avoid exposing unauthenticated /mcp to the whole LAN.

open questions

—

9 hours ago → 9 hours ago

segment 18 of 27

Launch a headless Claude Code agent in CT 310 with flower-only tools over tailnet

Done

The assistant verified the roster caught the previous check-in, wrote a launch script that uses the flower-agent wrapper with --allowedTools limiting to daemon_checkin and recall_roster, and pushed the wrapper and token to CT 310. The first launch failed because flower-agent was not on PATH; the script was corrected to use /usr/local/bin/flower-agent. The second launch succeeded: the agent reported daemon_checkin succeeded, recall_roster returned 4 daemons, and it confirmed zero mcp__solo__ tools.

outcome

A real, subscription-authed Claude agent ran headless in CT 310, coordinated with flower over the tailnet, and had no access to Solo tools.

next steps

  • Convert CT 310 to a pct template for linked-clone per worktree.
  • Trim the wrapper prompt reference to daemon_checkin note param (does not exist).
  • Create standing reach via tailscale-serve + /mcp auth.

key decisions

  • Used scp + pct push to transfer files into the LXC via the Proxmox host.
  • Used --allowedTools in flower-agent wrapper to restrict agent to only flower-specific MCP tools.
  • Exported CLAUDE_CODE_OAUTH_TOKEN as environment variable with 0600 permissions.

open questions

  • Should the daemon_checkin tool add a note field for future agent self-identification?

9 hours ago → 9 hours ago

segment 19 of 27

Document Phase-2 milestone and tear down temporary server

Done

The assistant verified from the Mac that the agent's check-in appeared in the roster, appended a milestone note to brief #265 summarizing all proven layers, and stopped the temporary artisan serve bound to the tailnet IP. The background command failed with exit code 144 due to the kill, which was expected.

outcome

Milestone documented in brief #265; temporary server on port 8899 stopped.

next steps

—

key decisions

  • Tore down the temporary PHP server after the milestone to avoid leaking an unauthenticated /mcp endpoint.

open questions

—

9 hours ago → 9 hours ago

segment 20 of 27

Delete test daemon and create repeatable provisioning script

Done

User requested deletion of the flower-other test daemon and consideration of committing bin/flower-agent. Assistant deleted the daemon (row 48), created bin/provision-flower-agent-lxc.sh encoding the manual LXC build process, appended a note to brief #270 documenting progress, and decided not to commit directly to master to preserve the normal worktree/orchestrator merge workflow.

outcome

Daemon_agents row 48 deleted; bin/provision-flower-agent-lxc.sh created; scripts remain uncommitted in working tree.

next steps

  • Convert CT 310 to pct template and create per-worktree linked clones
  • Commit bin/flower-agent and bin/provision-flower-agent-lxc.sh to master via orchestrated flow

key decisions

  • Decided not to commit directly to master because master is the served env and commits should flow through the orchestrator merge point to avoid disrupting flower.test

open questions

—

9 hours ago → 9 hours ago

segment 21 of 27

Commit flower-agent scripts and create Proxmox template with first linked clone

Done

The assistant committed bin/flower-agent and bin/provision-flower-agent-lxc.sh to master (commit 3587ff3). Then, via SSH to the Proxmox host, cleaned the base container (CT 310) by removing tailscale state and machine-id, converted it to a template, created a linked clone (CT 311) named flower-wt1, started it, re-joined the tailnet as a distinct node (100.95.41.66), and verified node v24.18, claude, the flower-agent wrapper, and env file were present. The milestone was recorded in brief #265.

outcome

Scripts committed to master; template created from CT 310; linked clone CT 311 (flower-wt1) running independently on the tailnet with full toolchain and auth.

next steps

  • Finalize the base with Pi pass-2, config replication, PHP 8.4/composer, then re-template as v2
  • Implement standing reach (#110 tailscale-serve + /mcp auth) so clones reach flower without a temporary server
  • Add per-worker roster identity to avoid the flower-other collapse
  • Configure thin_pool_autoextend on the R710 before scaling many clones
  • Optionally run a flower-only worker in flower-wt1 to close the loop

key decisions

  • Commit directly to master as permitted by the user
  • Clean tailscale state and machine-id before templating to ensure each clone gets a unique tailnet identity
  • Use pct template to convert the container and linked clones for near-instant creation
  • Keep provision-flower-agent-lxc.sh as the source of truth; the template is just a fast-clone cache

open questions

—

8 hours ago → 8 hours ago

segment 22 of 27

Set up overnight auto-dispatch for /mcp HTTP auth and per-worker roster identity briefs

Done

The user requested that the assistant configure auto-dispatch so the orchestrator could build two safe code items overnight. The assistant examined the auto-dispatch mechanism, created briefs #277 (mcp HTTP auth bearer middleware) and #278 (per-worker roster identity), wrote full specs, parented both under epic #263, requested mandatory adversarial review via brief_request_review with force, set auto_dispatch_on_planned=1 directly in the database, and moved both briefs to planned status to enqueue auto-dispatch signals. The assistant also recorded a plan note on the epic and confirmed the fleet was live and capable of picking up the work.

outcome

Two briefs (#277, #278) were created, spec'd, mandatorily review-gated, flagged for auto-dispatch, and moved to planned; the orchestrator will auto-spawn workers on its next heartbeat.

next steps

—

key decisions

  • Only two safe, review-gated code briefs were auto-dispatched (mcp auth and roster identity); tasks requiring operator credentials or host-infra changes were excluded
  • Mandatory adversarial review was enforced via brief_request_review force to prevent blind merges overnight
  • Both briefs were parented under epic #263 for tracking

open questions

—

8 hours ago → 8 hours ago

segment 23 of 27

Review overnight progress and update operator on status

Done

Assistant gathered data on two overnight auto-dispatched briefs (#277 and #278), checked fleet health, roster, and migration pre-check, then provided a comprehensive morning status update via a brief append and message.

outcome

Operator received status update: #277 merged, #278 built with migration pre-check clean, fleet healthy, orchestrator reset cleanly.

next steps

—

key decisions

  • #277 (HTTP auth) merged and deployed.
  • #278 (per-worker roster) held for operator merge decision due to migration risk.
  • Migration pre-check shows zero violating dups on live daemon_agents table.

open questions

—

3 hours ago → 3 hours ago

segment 24 of 27

Investigate #278 merge status and orchestrator queue

Done

The user reported answering merge_now for #278. The assistant verified that #278 was not merged, the migration not run, and the orchestrator had consumed the wake signal but moved on to other tasks. After re-checking, it was confirmed the orchestrator had dropped the merge. The assistant proposed to execute it manually.

outcome

Determined #278 was not merged by the orchestrator; decision to execute manually.

next steps

  • Execute the merge and migration manually.

key decisions

  • The orchestrator's decision-to-action path failed; manual intervention required.

open questions

—

3 hours ago → 2 hours ago

segment 25 of 27

Merge flower/278 branch and run roster migration

Done

Merged flower/278 into master via --no-ff, ran migration 2026_07_05_120000_key_daemon_agents_by_actor_ref on live MySQL in 73ms, new unique key (project_id, actor_ref, solo_process_id) created, live daemon rows intact.

outcome

Branch merged, migration applied, new DB key active.

next steps

—

key decisions

  • Merge was done interactively after orchestrator failed to execute the approved decision.

open questions

—

2 hours ago → 2 hours ago

segment 26 of 27

Verify fleet health post-migration and report

Done

Called recall_roster twice to confirm all three daemons remained alive and checking in after migration. Appended a note to brief #278 documenting the merge and migration. Filed bug #147 about the orchestrator draining the wake signal without executing the approved merge action.

outcome

Fleet confirmed healthy post-migration, bug #147 filed, brief updated.

next steps

  • Address bug #147 orchestrator wake gap.

key decisions

  • Filed bug #147 to track orchestrator reliability issue.

open questions

—

2 hours ago → 2 hours ago

segment 27 of 27

Execute horizon-reload upon user request

Abandoned

User instructed to run horizon-reload and alert orchestrator. No evidence of execution in the transcript — action still pending.

outcome

User request received, horizon-reload not yet executed.

next steps

  • Run horizon-reload command on production.
  • Alert orchestrator daemon that horizon-reload was triggered.

key decisions

—

open questions

—

2 hours ago → 2 hours ago