Docker & Containers

Run ZeroClaw in Docker, Podman, Kubernetes, or any OCI runtime.

Official images

Pushed to GitHub Container Registry (ghcr.io) on every stable release:

• ghcr.io/zeroclaw-labs/zeroclaw:latest: latest stable
• ghcr.io/zeroclaw-labs/zeroclaw:v0.7.5: pinned
• ghcr.io/zeroclaw-labs/zeroclaw:debian: Debian-based image (larger, broader glibc support)

Multi-arch: linux/amd64, linux/arm64.

Note on shell access: The default latest image is intentionally distroless and does not include sh, ash, or bash. Use the debian tag if you need a shell inside the container (for example, to run docker exec for debugging).

Minimum run

docker run -d \
  --name zeroclaw \
  -v zeroclaw-data:/zeroclaw-data \
  -p 42617:42617 \
  ghcr.io/zeroclaw-labs/zeroclaw:latest

The official image already binds [::] with allow_public_bind = true and require_pairing = false baked into its default config, so the published port is reachable out of the box. The ZEROCLAW_gateway__allow_public_bind override below only matters if you bind-mount your own config (which replaces the baked one) that defaults to localhost.

The image expects persistent state at /zeroclaw-data. On first run, it bootstraps a default config: you still need to run quickstart before it’s useful:

docker exec -it zeroclaw zeroclaw quickstart

Running zerocode (the TUI)

The image ships the zerocode terminal interface alongside the zeroclaw binary. The default entrypoint is zeroclaw, so launch zerocode by overriding it with --entrypoint zerocode and an interactive TTY (-it). Both image variants carry it:

docker run -it --entrypoint zerocode ghcr.io/zeroclaw-labs/zeroclaw:latest

docker run -it --entrypoint zerocode ghcr.io/zeroclaw-labs/zeroclaw:debian

zerocode connects to a running ZeroClaw daemon, so point it at one:

• Same container’s daemon: run it against the container that already runs the daemon (docker exec -it zeroclaw zerocode), which reaches the daemon over the local IPC socket.
• A remote daemon: connect over WebSocket Secure with zerocode --connect wss://<host>:<port>; see Remote setup (WSS). This is the portable way to drive a containerized or remote daemon from your own terminal.

Persist /zeroclaw-data (as in Minimum run) so the config and identity zerocode reads are the same ones the daemon uses.

Compose

A minimal docker-compose.yml:

services:
  zeroclaw:
    image: ghcr.io/zeroclaw-labs/zeroclaw:latest
    restart: unless-stopped
    ports:
      - "42617:42617"      # gateway
    volumes:
      - ./data:/zeroclaw-data
    # The official image already enables public bind; only add an `environment:`
    # block with the override above if you bind-mount a localhost-default config.

After the container starts, run quickstart:

docker compose exec zeroclaw zeroclaw quickstart

With the official image you can omit the ZEROCLAW_gateway__allow_public_bind override entirely; it is already enabled in the baked config.

Rootless Compose with the Debian image

For rootless Docker or Podman Compose deployments that need shell tools inside the container, use the current Debian image and bind a host data directory:

services:
  zeroclaw:
    image: ghcr.io/zeroclaw-labs/zeroclaw:debian
    container_name: zeroclaw
    restart: unless-stopped
    ports:
      - "42617:42617"
    volumes:
      - ./data:/zeroclaw-data
    healthcheck:
      test: ["CMD", "zeroclaw", "status", "--format=exit-code"]
      interval: 60s
      timeout: 10s
      retries: 3
      start_period: 10s

The current Debian image carries the packaged dashboard outside /zeroclaw-data, so the bind mount does not hide it and no gateway.web_dist_dir override is needed. The official image also carries the container-friendly gateway bind defaults. Only add an environment: block if you bind-mount your own localhost-default config; use the schema-mirror env-var spelling shown by ZEROCLAW_gateway__allow_public_bind rather than the legacy all-uppercase aliases.

macOS: OrbStack vs Colima

macOS has no native Linux kernel, so every option (Docker Desktop, Podman, OrbStack, Colima) runs the container inside a lightweight Linux VM. For a Mac dev box, the two mac-native VMs worth comparing are OrbStack and Colima, both run the container with the same docker run/Compose commands above.

# Provides the docker CLI:
brew install --cask orbstack

# docker CLI talks to colima's VM:
brew install colima docker docker-compose   # docker-compose = the Compose v2 plugin; install if you need `docker compose`
colima start --cpu 4 --memory 8   # add --network-address to expose the VM IP to macOS

Performance is comparable for typical dev workloads; the real differentiators are licensing (commercial vs OSS) and UX preference, not raw speed; benchmark both on your own machine if idle RAM or build throughput matters. Either way you drive the engine inside the VM with docker; systemd quadlets (below) are a Linux-host feature and don’t apply on macOS.

Podman & systemd quadlets

On a Linux server, the cleanest way to run the container long-term is a Podman quadlet: a declarative unit file that systemd turns into a real service. You get systemctl lifecycle, journald logs, auto-restart, and boot ordering with no daemon and no --restart hack, and the unit file is config you commit to git. This is the recommended server pattern; docker run/Compose are fine for a laptop.

A quadlet is a *.container file (siblings: .pod, .volume, .network, .kube, .build, .image). Podman’s systemd generator reads it on every daemon-reload and writes a transient .service; you never author the .service yourself.

Rootful units live in /etc/containers/systemd/; rootless in ~/.config/containers/systemd/.

/etc/containers/systemd/zeroclaw.container:

[Unit]
Description=ZeroClaw agent runtime
After=network-online.target
Wants=network-online.target

[Container]
# Pin a release in production; :latest is distroless (no shell — use :debian to exec a shell).
Image=ghcr.io/zeroclaw-labs/zeroclaw:latest
ContainerName=zeroclaw
PublishPort=42617:42617
Volume=zeroclaw-data:/zeroclaw-data
# The official image already binds publicly; add an `Environment=` line with the
# allow-public-bind override only if you mount a localhost-default config.
# Optional rolling-upgrade path — re-pull a newer image on (re)start and opt into `podman auto-update`:
Pull=newer
AutoUpdate=registry

[Service]
Restart=always

[Install]
WantedBy=multi-user.target default.target

Deploy (idempotent, safe to re-run; re-applying converges the running container, never duplicates it):

sudo cp zeroclaw.container /etc/containers/systemd/
sudo systemctl daemon-reload      # generator turns .container into zeroclaw.service
sudo systemctl restart zeroclaw

Then onboard once, and manage it like any service:

sudo podman exec -it zeroclaw zeroclaw quickstart
systemctl status zeroclaw
journalctl -u zeroclaw -f

There is no systemctl enable step for generated units: the [Install] WantedBy= line is what brings it up on boot.

• Version pinning vs :latest. Pin a tag or digest (Image=ghcr.io/zeroclaw-labs/zeroclaw:v0.7.5 or ...@sha256:...) for reproducible, auditable deploys; upgrading is then a reviewable tag bump in the committed .container file. Pull=newer + AutoUpdate=registry instead give rolling upgrades, driven by podman-auto-update.timer (sudo systemctl enable --now podman-auto-update.timer). Pick reproducibility or currency; the deploy loop is the same either way.
• Rootless variant. Drop the file in ~/.config/containers/systemd/, use systemctl --user daemon-reload && systemctl --user restart zeroclaw, and run loginctl enable-linger $USER so it survives logout (same lingering note as Service & daemon).
• WSL2. Modern WSL2 runs systemd ([boot] systemd=true in /etc/wsl.conf, then wsl --shutdown), so this exact quadlet pattern works inside a WSL distro: no Windows-specific dialect.

Config inside containers

The image expects config under /zeroclaw-data/.zeroclaw/. Mount your local config in:

docker run -d --name zeroclaw \
  -v $(pwd)/my-config.toml:/zeroclaw-data/.zeroclaw/config.toml:ro \
  -v zeroclaw-state:/zeroclaw-data/workspace \
  -p 42617:42617 \
  ghcr.io/zeroclaw-labs/zeroclaw:latest

For container workloads, set uri on each providers.models.<type>.<alias> to a container-reachable address (e.g. http://host.docker.internal:11434 for an Ollama server on the Docker Desktop host). The generic env-override mechanism can set the same field at runtime without editing the config:

ZEROCLAW_providers__models__ollama__home__uri=http://ollama:11434 zeroclaw agent -a assistant

See Providers → Container-friendly overrides for the grammar.

Channels that poll (Telegram, email): just work

Outbound-initiated channels don’t need any special container configuration. Telegram polling, IMAP, MQTT, Nostr relays: all pull; the container only needs egress.

Channels that receive webhooks: need ingress

Discord, Slack, GitHub, and most webhook channels need inbound HTTP. Two options:

1. Expose the gateway: -p 42617:42617 + reverse proxy with TLS in front, point the webhook URL at the public address
2. Use a tunnel: ngrok, Cloudflare Tunnel, or Tailscale Funnel; set the tunnel URL as the webhook target

Configure a tunnel by setting the top-level [tunnel] tunnel_provider (override env var: ZEROCLAW_tunnel__tunnel_provider) to one of the supported providers and filling the matching tunnel.* block; the full provider list and per-provider fields are in the Config reference. The resulting public URL is what you point your webhook senders at.

Kubernetes

Helm chart templates are published to the zeroclaw-templates repo. Typical manifest fragment:

apiVersion: apps/v1
kind: Deployment
metadata:
  name: zeroclaw
spec:
  replicas: 1
  strategy:
    type: Recreate         # ZeroClaw is single-instance per workspace
  template:
    spec:
      containers:
        - name: zeroclaw
          image: ghcr.io/zeroclaw-labs/zeroclaw:v0.7.5
          ports:
            - containerPort: 42617
          volumeMounts:
            - name: data
              mountPath: /zeroclaw-data
          # The official image already binds publicly; add an `env:` entry for the
          # allow-public-bind override only if you mount a localhost-default config.
      volumes:
        - name: data
          persistentVolumeClaim:
            claimName: zeroclaw-data

Scaling: ZeroClaw is single-writer per workspace. Don’t scale horizontally; run one instance per agent.

Re-authenticating after logout

If you log out of the web UI while running in a container, the existing paircode becomes invalid. Generate a new one to log back in:

docker exec -it zeroclaw zeroclaw gateway get-paircode --new

For Compose deployments, use docker compose exec instead:

docker compose exec zeroclaw zeroclaw gateway get-paircode --new

Gotchas

• macOS hostname quirks (Docker Desktop, colima, Rancher Desktop). host.docker.internal works out of the box on Docker Desktop for macOS. On colima, it is only reachable if you installed with colima start --network-address (otherwise the container can’t see the host at all; connect via the VM’s gateway IP, usually 192.168.5.2, or tunnel through a shared network). Rancher Desktop behaves like Docker Desktop for recent versions but has had host.docker.internal resolve-failures on older releases. If provider calls fail with connection refused to host.docker.internal, verify with docker run --rm alpine getent hosts host.docker.internal: empty output means the hostname isn’t resolvable and you need an explicit IP.
• Host-side services. If a provider is Ollama on the host, uri = "http://host.docker.internal:11434" (under [providers.models.ollama.<alias>]) works on Docker Desktop. On Linux Docker you may need --add-host=host.docker.internal:host-gateway.
• Memory persistence. Agent memory (the SQLite brain.db) lives under the config directory at /zeroclaw-data/.zeroclaw/agents/<alias>/workspace/memory/, with shared instance databases under /zeroclaw-data/data/. Mounting /zeroclaw-data persists all of it; skip the volume and every restart loses conversation history.
• Bind-mounting /zeroclaw-data. A host bind mount on /zeroclaw-data replaces the entire image directory, including the default config and (previously) the dashboard bundle. The dashboard is now installed at /usr/share/zeroclawlabs/web/dist, outside the mount, so a bind mount no longer hides it. On first run, mount an empty host directory and the container bootstraps a fresh config; the gateway auto-detects the dashboard from its image path.
• No hardware passthrough by default. GPIO / USB need explicit --device flags (--device /dev/ttyUSB0), and the container user needs matching GID for dialout/gpio groups.

Next

• Service management
• Operations → Network deployment: tunnels, reverse proxies