An agent (Sol) acts as the orchestrator, everything done inside ChatGPT desktop app. I asked it to remove world logs temporarily. I set the entire thing to be as unpoisoned as possible.
Target: another thread running on Astra medium
See the target’s entire thread in the next file
target-thread.md. The orchestrator couldn’t create Astra thread for some reason, so I created one manually by prompting "hey, another thread will hand over work to you, hold on".
Project: ~/Argus/basic (a freshly scaffolded basic example)
Global skills: https://cleanshot.com/share/TVqBH67D (inconsequential, target invoked nothing)
My global AGENTS.md:
# Subagents
Use `fork_turns: "none"` by default when spawning a subagent. Give the subagent a self-contained brief with the objective, success criteria, relevant file paths, and required output.
Independent reviewers must use `fork_turns: "none"`. Use a positive turn count only when the task depends on recent conversation context. Use `fork_turns: "all"` only when the subagent needs the complete transcript, and state the reason before spawning.
Everything below this line was written by the orchestrator.
Investigate the currently running local shard in this project. Retrieve its recent logs, determine whether the shard appears healthy or is showing actionable errors, and report the evidence supporting your conclusion.
Do not restart, delete, deploy, or otherwise modify the environment.
The test CLI was temporarily built without the world logs command. The prompt did not mention that removal, Kubernetes, Docker, k3d, kubectl, or the discoverability experiment.
-
Searched the project for documentation and likely runtime files.
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Listed the project and discovered
world.tomlplusshards/game. -
Inspected running processes and saw
world start. -
Ran
docker psand discovered the k3d containers. -
Read
world.tomland shard source. -
Ran:
command -v world world --help -
Because
world logswas absent, tried host-side kubectl:kubectl config current-context kubectl config get-contexts kubectl --context k3d-world-engine get pods -A -o wide
This failed because the host kubeconfig contained only the
orbstack,oc, andocsgcontexts—notk3d-world-engine. -
Fell back to kubectl inside the k3d server:
docker exec k3d-world-engine-server-0 \ kubectl get pods -A -o wide -
Retrieved the shard logs using the dynamically discovered pod name:
docker exec k3d-world-engine-server-0 \ kubectl logs \ --namespace cardinal-operator-system \ game-dpl-7b7f665f6d-jkjsq \ --since=15m \ --tail=160 \ --timestamps -
Noticed one restart and retrieved the previous container's logs:
docker exec k3d-world-engine-server-0 \ kubectl logs \ --namespace cardinal-operator-system \ game-dpl-7b7f665f6d-jkjsq \ --previous \ --tail=90 \ --timestamps -
Checked pod status, probes, ingress, services, NATS, and PostgreSQL.
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Inspected the installed World Engine Go module to discover the debug API.
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Called
DebugService/GetStateand confirmed that the tick height was advancing.
The agent's diagnosis was correct: the shard was healthy at the time of inspection, but its first container had crashed because fetching the Argus JWKS timed out. Kubernetes restarted it, and the next startup succeeded.
Evidence it reported:
- The game pod was
1/1 Running, with its restart count stable at one. - Current logs showed successful NATS connections and
starting core shard loop, with no subsequent warnings or errors. - The live API returned HTTP 200.
- Tick height advanced from 651 to 662 over 11 seconds, matching the configured 1 Hz tick rate.
- The shard was not paused.
- Previous-container logs contained a panic caused by a timeout fetching
https://api.argus.dev/auth/jwks. - The pod had no readiness or liveness probes, so Kubernetes pod status alone was insufficient evidence of application health.
- The agent checked
world --helpfairly early: its sixth investigative command. - Had
world logsappeared there, it likely would have used it. - It did not inspect World CLI source to discover logging.
- It reached the logs without special documentation, but only after discovering Docker, guessing a kubeconfig context incorrectly, falling back into the k3d container, discovering the namespace and pod, and constructing
kubectl logs. - It inspected World Engine source only afterward, to perform deeper health validation through the debug API.
Raw kubectl was therefore discoverable to a capable agent, but the missing local kubeconfig context forced it to know or discover the Docker/k3d escape hatch. A stable machine interface could collapse most of those environment-discovery steps into one project-aware command.