# E2e Windows > Test NanoClaw's public setup wizard in a fresh Windows WSL2 distribution using the local Docker Desktop engine. Verify Linux bind mounts, a retained agent's real reply and the service, while preserving sanitized evidence. Includes a Proxmox Windows preparation reference. - Skill: `nanocoai/e2e-windows` (Agent Skill, multi-file: 4 files) - Install (CLI): `npx skillmds@latest add nanocoai/e2e-windows` - Raw SKILL.md: https://api.skillmd.com/api/skills/nanocoai/e2e-windows/raw - Safety review: pending - Works with: Claude Code, Claude.ai, OpenAI Codex - Category: DevOps & Infra - License: MIT - Author: nanocoai (https://skillmd.com/u/nanocoai) - Updated: 2026-09-17 - Page: https://skillmd.com/skills/nanocoai/e2e-windows --- # Test NanoClaw on Windows through WSL2 For each unexpected failure, preserve the test evidence, then follow the companion [e2e-triage](../e2e-triage/SKILL.md) at a safe checkpoint and include its findings and next actions in the final E2E report. Research each distinct failure once, including when another E2E skill delegates here; do not delay active prompts, change acceptance results or submit public issues/comments without authorization. Install `e2e-triage` alongside this skill. If its relative link is unavailable, resolve it by skill name in the agent's installed catalog; if absent, report that triage was unavailable and continue the authorized test/report without installing anything implicitly. Run this skill inside a **fresh, disposable WSL2 Linux distribution**, as its regular Linux user, from the NanoClaw checkout under test. Windows owns Docker Desktop; Ubuntu reaches its Linux engine through Docker Desktop's WSL integration. The checkout, home and test evidence belong on the Linux filesystem. Use the [Windows preparation reference](references/windows-proxmox.md) when a Windows VM, WSL distribution or Docker integration still needs preparation. The runner does not create VMs, change Windows settings, import credentials, or install another Docker daemon. A Windows template is separate from a WSL distribution containing an installed NanoClaw. ## Prepare and run Install this skill and [e2e-wizard](../e2e-wizard/SKILL.md) as sibling folders. The latter supplies the unchanged PTY driver, scenario and artifact validator. Keep the skill installation outside the NanoClaw checkout under test. The Linux distribution needs Git, Python 3.10+, venv, Bash, sudo, build tools, an active systemd user session and Windows interoperability (`powershell.exe`). Docker Desktop must already be running in the Windows account that owns this distribution, with integration enabled for that distribution. Use an authorized provider credential in a private Linux file, normally `~/.nanoclaw-e2e/anthropic_key`, owned by the test user with mode `0600`. Before a full wizard run reads that file or starts setup, resolve the exact commit and inspect the shared public picker's provider choices: ```bash COMMIT="$(git rev-parse --verify 'HEAD^{commit}')" PROVIDER_HELPER=/absolute/path/to/installed/e2e-wizard/scripts/provider-options.py python3 "$PROVIDER_HELPER" --root "$PWD" --revision "$COMMIT" python3 "$PROVIDER_HELPER" --root "$PWD" --revision "$COMMIT" --provider claude ``` Show the first result to the operator and ask for a provider, then show the selected provider's exact auth prompt/options and ask for an auth method. For an installable provider, fetch its one `nc:copy from-branch:` payload from its owning remote and pass that fetched ref as `--payload-ref` to discovery and the runner. Record the NanoClaw and auth-source SHAs. The unattended WSL wizard can use only a discovered `credential-file` method, such as Claude `api`/`oauth` or Codex `api`. Browser, subscription, and device methods require a separately authorized live handoff and stop before setup here. `skip` cannot pass. Read the credential only after its matching method is selected. From a clean NanoClaw checkout on Linux ext4: ```bash E2E_WINDOWS_DIR=/absolute/path/to/installed/e2e-windows mkdir -p "$HOME/e2e-results" python3 "$E2E_WINDOWS_DIR/scripts/windows-run.py" \ --ref HEAD --provider claude --auth-method api \ --credential-file "$HOME/.nanoclaw-e2e/anthropic_key" \ --result-file "$HOME/e2e-results/windows.json" ``` `--ref` resolves to an exact local commit and must match the checkout's HEAD. Tracked changes and existing product state are rejected. The runner does not fetch, switch branches or copy local edits. `--root` selects another checkout; `--key-file` selects another private credential file. The result and artifact parent directories must already exist. To qualify just the environment, without reading a credential or starting NanoClaw: ```bash python3 "$E2E_WINDOWS_DIR/scripts/windows-run.py" \ --preflight-only --result-file "$HOME/e2e-results/windows-environment.json" ``` This runs a small disposable Alpine container with a read-only Linux-home mount and may pull its image. Its result is **`qualified`**, never a NanoClaw `pass`. It can inspect an existing checkout without running the fresh-install scenario. ## Required proof Before invoking the public wizard, the runner verifies: - Actual WSL2 Linux execution as a regular user, ext4 paths, systemd and the user's active service session. - The Linux Docker context uses `/var/run/docker.sock`, with no Docker endpoint environment overrides or separate Linux `dockerd` executable. - The Windows CLI reaches Docker Desktop through its local named pipe, and the Linux client reports the same engine identity and local WSL2 kernel. - A container reads a unique marker bind-mounted from the Linux home directory. It then drives **`bash nanoclaw.sh`** through the shared wizard harness. NanoClaw performs its own Node/pnpm bootstrap, local agent image build, authentication, agent creation and service setup. Do not preinstall Node or patch PATH to conceal a public bootstrap failure in a fresh test. A `pass` requires the shared scenario's completed public wizard, recorded choices, a computed answer from the retained terminal agent, final `VERIFY` success, the tested checkout's service process and a reachable CLI socket. The shared collector also validates the sanitized manifest, exact commit, run identity, exit code and credential redaction before the Windows report can pass. `--wizard-timeout` sets the total PTY deadline (default 1200 seconds, range 1–2100); the shared driver also enforces its idle timeout. Unknown prompts, product failures, cancellation and invalid exports remain failures. Preserve the distribution and evidence; do not inject setup repairs behind the wizard. ## Evidence and retention The top-level result combines Windows/WSL/Docker evidence with the validated wizard result. Sanitized evidence is written to `.artifacts`; `--artifacts-dir` selects another new directory. Raw product logs and credentials stay in the retained Linux distribution. The runner's private working directory is also retained and named in the report. Copy only the collector-validated artifact directory and final report when sharing results. No VM, distribution, product container or service is removed. The temporary bind-test container uses `--rm`; its image can remain cached. Environment qualification does not establish Docker Desktop support for the underlying hypervisor, and a generalized Windows Evaluation template retains its licensing limits. After validated artifacts and the report are stored outside the distribution, offer cleanup for a pass only when the operator identifies the WSL distribution or enclosing VM as a disposable clone owned by this run. Recommend retaining an unexpected failure until triage and requested inspection finish. Before cleanup, recheck clone ownership and that no wizard/controller is active; never infer ownership from a distribution name. If evidence export, redaction, checksums, local persistence, triage, ownership, or controller checks fail, do not remove anything. Verify the selected distribution or VM is absent afterward and write a teardown receipt beside the preserved report. Cleanup never includes the Windows host, Docker Desktop, templates, or unrelated WSL distributions. ## Source and compatibility The initial Windows qualification uses NanoClaw [`705c6b9e627ac36a8b4bbc280e5804c6debf9a25`](https://github.com/nanocoai/nanoclaw/commit/705c6b9e627ac36a8b4bbc280e5804c6debf9a25), the same public-wizard contract as `e2e-wizard`: `nanoclaw.sh`, `setup/auto.ts`, `setup/logs.ts`, `setup/verify.ts`, `setup/service.ts` and `scripts/chat.ts`. Recheck the shared scenario when those source contracts change. On 2026-09-11, Windows 11 Enterprise Evaluation 25H2 on Proxmox VE 9.2.18 executed Ubuntu 24.04.4 under WSL 2.7.13. Docker Desktop 4.90.0 / Docker 29.7.2 passed both a Windows `hello-world` run and a regular-user WSL Linux-home bind-mount test against the same local engine. A clean Windows template was generalized and cloned; first boot still required one Windows recovery-screen confirmation. The unchanged public wizard then passed in about 10 minutes: bootstrap and local image build completed, the retained agent answered `42263 * 38` with `1605994`, final verification succeeded, and the systemd user service and CLI socket were independently verified. No product step failed or was repaired. The complete sanitized export passed local identity, checksum, credential and acceptance validation. The packaged adapter's `--preflight-only` mode also passed against this real Windows/WSL engine. Its orchestration and export failure cases have offline coverage; these checks do not imply a second fresh Windows installation. The installed service survived the setup terminal closing. A separate `wsl --terminate Ubuntu-24.04` / normal-session restart test failed: the Docker socket was absent and the enabled NanoClaw service repeatedly exited. Preserve that result separately from the fresh installation pass. After a separate Windows reboot, Docker Desktop did not start automatically within 109 seconds. Launching it normally restored the Docker socket, the existing NanoClaw service and CLI socket without a product repair. However, a new request to the retained agent timed out (CLI exit 3): model inference after reboot is **not qualified**. The packaged environment preflight passed in that state, demonstrating why its `qualified` status is separate from an installation or inference pass. Keep the failed recovery evidence. Redacted logs and path inspection identified an empty root-owned directory at `/tmp/onecli-proxy-ca.pem`; SDK 2.2.1 raises `EISDIR` while writing the certificate. OneCLI and PostgreSQL were healthy. This is related to [issue 2513](https://github.com/nanocoai/nanoclaw/issues/2513), which reports a CA bind-mount directory problem on Colima. The directory-creation mechanism in this Windows run remains unproven. A release requalification on 2026-09-14 used current NanoClaw [`3f9ed607b7e7a4872747295f75286f1c377d7c33`](https://github.com/nanocoai/nanoclaw/commit/3f9ed607b7e7a4872747295f75286f1c377d7c33) and dev-tools candidate [`075f74285d8e0cc3f54a84e7012d0d09c1e36646`](https://github.com/nanocoai/nanoclaw-oss-dev-tools/commit/075f74285d8e0cc3f54a84e7012d0d09c1e36646). On a fresh clone of the same Windows template, Ubuntu 24.04.4 ran under WSL 2.7.14 with the same kernel and Docker versions. The unchanged public wizard passed in about 10 minutes using Claude OAuth; its retained agent replied, final verification succeeded, and the systemd user service and CLI socket were independently verified. No product step failed or was repaired. The fresh environment and a separately repeated post-reboot environment both passed the packaged `--preflight-only` qualification. The complete sanitized export was checksum-matched and revalidated locally into 20 artifacts by the exact candidate collector. The retained agent also replied after the setup terminal closed. Terminating only `Ubuntu-24.04` still left its service/socket unavailable after 60 seconds, with no repair applied. A later full Windows reboot logged the test account in, but Docker Desktop had not started 132 seconds after boot. Launching Docker Desktop normally restored the same engine ID, passed a Windows `hello-world`, restored WSL integration and the existing service/socket, and the retained agent returned a fresh exact reply. This qualifies manual full-reboot recovery for the tested configuration. WSL-only recovery and automatic Docker Desktop startup remain unqualified.