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Secrets management

OpenClaw supports additive SecretRefs so supported credentials do not need to be stored as plaintext in configuration. Plaintext still works. SecretRefs are opt-in per credential.

Goals and runtime model

Secrets are resolved into an in-memory runtime snapshot.
  • Resolution is eager during activation, not lazy on request paths.
  • Startup fails fast when an effectively active SecretRef cannot be resolved.
  • Reload uses atomic swap: full success, or keep the last-known-good snapshot.
  • Runtime requests read from the active in-memory snapshot only.
  • Outbound delivery paths also read from that active snapshot (for example Discord reply/thread delivery and Telegram action sends); they do not re-resolve SecretRefs on each send.
This keeps secret-provider outages off hot request paths.

Active-surface filtering

SecretRefs are validated only on effectively active surfaces.
  • Enabled surfaces: unresolved refs block startup/reload.
  • Inactive surfaces: unresolved refs do not block startup/reload.
  • Inactive refs emit non-fatal diagnostics with code SECRETS_REF_IGNORED_INACTIVE_SURFACE.
Examples of inactive surfaces:
  • Disabled channel/account entries.
  • Top-level channel credentials that no enabled account inherits.
  • Disabled tool/feature surfaces.
  • Web search provider-specific keys that are not selected by tools.web.search.provider. In auto mode (provider unset), keys are consulted by precedence for provider auto-detection until one resolves. After selection, non-selected provider keys are treated as inactive until selected.
  • Sandbox SSH auth material (agents.defaults.sandbox.ssh.identityData, certificateData, knownHostsData, plus per-agent overrides) is active only when the effective sandbox backend is ssh for the default agent or an enabled agent.
  • gateway.remote.token / gateway.remote.password SecretRefs are active if one of these is true:
    • gateway.mode=remote
    • gateway.remote.url is configured
    • gateway.tailscale.mode is serve or funnel
    • In local mode without those remote surfaces:
      • gateway.remote.token is active when token auth can win and no env/auth token is configured.
      • gateway.remote.password is active only when password auth can win and no env/auth password is configured.
  • gateway.auth.token SecretRef is inactive for startup auth resolution when OPENCLAW_GATEWAY_TOKEN is set, because env token input wins for that runtime.

Gateway auth surface diagnostics

When a SecretRef is configured on gateway.auth.token, gateway.auth.password, gateway.remote.token, or gateway.remote.password, gateway startup/reload logs the surface state explicitly:
  • active: the SecretRef is part of the effective auth surface and must resolve.
  • inactive: the SecretRef is ignored for this runtime because another auth surface wins, or because remote auth is disabled/not active.
These entries are logged with SECRETS_GATEWAY_AUTH_SURFACE and include the reason used by the active-surface policy, so you can see why a credential was treated as active or inactive.

Onboarding reference preflight

When onboarding runs in interactive mode and you choose SecretRef storage, OpenClaw runs preflight validation before saving:
  • Env refs: validates env var name and confirms a non-empty value is visible during setup.
  • Provider refs (file or exec): validates provider selection, resolves id, and checks resolved value type.
  • Quickstart reuse path: when gateway.auth.token is already a SecretRef, onboarding resolves it before probe/dashboard bootstrap (for env, file, and exec refs) using the same fail-fast gate.
If validation fails, onboarding shows the error and lets you retry.

SecretRef contract

Use one object shape everywhere:

source: "env"

Validation:
  • provider must match ^[a-z][a-z0-9_-]{0,63}$
  • id must match ^[A-Z][A-Z0-9_]{0,127}$

source: "file"

Validation:
  • provider must match ^[a-z][a-z0-9_-]{0,63}$
  • id must be an absolute JSON pointer (/...)
  • RFC6901 escaping in segments: ~ => ~0, / => ~1

source: "exec"

Validation:
  • provider must match ^[a-z][a-z0-9_-]{0,63}$
  • id must match ^[A-Za-z0-9][A-Za-z0-9._:/-]{0,255}$
  • id must not contain . or .. as slash-delimited path segments (for example a/../b is rejected)

Provider config

Define providers under secrets.providers:

Env provider

  • Optional allowlist via allowlist.
  • Missing/empty env values fail resolution.

File provider

  • Reads local file from path.
  • mode: "json" expects JSON object payload and resolves id as pointer.
  • mode: "singleValue" expects ref id "value" and returns file contents.
  • Path must pass ownership/permission checks.
  • Windows fail-closed note: if ACL verification is unavailable for a path, resolution fails. For trusted paths only, set allowInsecurePath: true on that provider to bypass path security checks.

Exec provider

  • Runs configured absolute binary path, no shell.
  • By default, command must point to a regular file (not a symlink).
  • Set allowSymlinkCommand: true to allow symlink command paths (for example Homebrew shims). OpenClaw validates the resolved target path.
  • Pair allowSymlinkCommand with trustedDirs for package-manager paths (for example ["/opt/homebrew"]).
  • Supports timeout, no-output timeout, output byte limits, env allowlist, and trusted dirs.
  • Windows fail-closed note: if ACL verification is unavailable for the command path, resolution fails. For trusted paths only, set allowInsecurePath: true on that provider to bypass path security checks.
Request payload (stdin):
Response payload (stdout):
Optional per-id errors:

Exec integration examples

1Password CLI

HashiCorp Vault CLI

sops

Sandbox SSH auth material

The core ssh sandbox backend also supports SecretRefs for SSH auth material:
Runtime behavior:
  • OpenClaw resolves these refs during sandbox activation, not lazily during each SSH call.
  • Resolved values are written to temp files with restrictive permissions and used in generated SSH config.
  • If the effective sandbox backend is not ssh, these refs stay inactive and do not block startup.

Supported credential surface

Canonical supported and unsupported credentials are listed in: Runtime-minted or rotating credentials and OAuth refresh material are intentionally excluded from read-only SecretRef resolution.

Required behavior and precedence

  • Field without a ref: unchanged.
  • Field with a ref: required on active surfaces during activation.
  • If both plaintext and ref are present, ref takes precedence on supported precedence paths.
Warning and audit signals:
  • SECRETS_REF_OVERRIDES_PLAINTEXT (runtime warning)
  • REF_SHADOWED (audit finding when auth-profiles.json credentials take precedence over openclaw.json refs)
Google Chat compatibility behavior:
  • serviceAccountRef takes precedence over plaintext serviceAccount.
  • Plaintext value is ignored when sibling ref is set.

Activation triggers

Secret activation runs on:
  • Startup (preflight plus final activation)
  • Config reload hot-apply path
  • Config reload restart-check path
  • Manual reload via secrets.reload
Activation contract:
  • Success swaps the snapshot atomically.
  • Startup failure aborts gateway startup.
  • Runtime reload failure keeps the last-known-good snapshot.
  • Providing an explicit per-call channel token to an outbound helper/tool call does not trigger SecretRef activation; activation points remain startup, reload, and explicit secrets.reload.

Degraded and recovered signals

When reload-time activation fails after a healthy state, OpenClaw enters degraded secrets state. One-shot system event and log codes:
  • SECRETS_RELOADER_DEGRADED
  • SECRETS_RELOADER_RECOVERED
Behavior:
  • Degraded: runtime keeps last-known-good snapshot.
  • Recovered: emitted once after the next successful activation.
  • Repeated failures while already degraded log warnings but do not spam events.
  • Startup fail-fast does not emit degraded events because runtime never became active.

Command-path resolution

Command paths can opt into supported SecretRef resolution via gateway snapshot RPC. There are two broad behaviors:
  • Strict command paths (for example openclaw memory remote-memory paths and openclaw qr --remote) read from the active snapshot and fail fast when a required SecretRef is unavailable.
  • Read-only command paths (for example openclaw status, openclaw status --all, openclaw channels status, openclaw channels resolve, openclaw security audit, and read-only doctor/config repair flows) also prefer the active snapshot, but degrade instead of aborting when a targeted SecretRef is unavailable in that command path.
Read-only behavior:
  • When the gateway is running, these commands read from the active snapshot first.
  • If gateway resolution is incomplete or the gateway is unavailable, they attempt targeted local fallback for the specific command surface.
  • If a targeted SecretRef is still unavailable, the command continues with degraded read-only output and explicit diagnostics such as “configured but unavailable in this command path”.
  • This degraded behavior is command-local only. It does not weaken runtime startup, reload, or send/auth paths.
Other notes:
  • Snapshot refresh after backend secret rotation is handled by openclaw secrets reload.
  • Gateway RPC method used by these command paths: secrets.resolve.

Audit and configure workflow

Default operator flow:

secrets audit

Findings include:
  • plaintext values at rest (openclaw.json, auth-profiles.json, .env, and generated agents/*/agent/models.json)
  • plaintext sensitive provider header residues in generated models.json entries
  • unresolved refs
  • precedence shadowing (auth-profiles.json taking priority over openclaw.json refs)
  • legacy residues (auth.json, OAuth reminders)
Exec note:
  • By default, audit skips exec SecretRef resolvability checks to avoid command side effects.
  • Use openclaw secrets audit --allow-exec to execute exec providers during audit.
Header residue note:
  • Sensitive provider header detection is name-heuristic based (common auth/credential header names and fragments such as authorization, x-api-key, token, secret, password, and credential).

secrets configure

Interactive helper that:
  • configures secrets.providers first (env/file/exec, add/edit/remove)
  • lets you select supported secret-bearing fields in openclaw.json plus auth-profiles.json for one agent scope
  • can create a new auth-profiles.json mapping directly in the target picker
  • captures SecretRef details (source, provider, id)
  • runs preflight resolution
  • can apply immediately
Exec note:
  • Preflight skips exec SecretRef checks unless --allow-exec is set.
  • If you apply directly from configure --apply and the plan includes exec refs/providers, keep --allow-exec set for the apply step too.
Helpful modes:
  • openclaw secrets configure --providers-only
  • openclaw secrets configure --skip-provider-setup
  • openclaw secrets configure --agent <id>
configure apply defaults:
  • scrub matching static credentials from auth-profiles.json for targeted providers
  • scrub legacy static api_key entries from auth.json
  • scrub matching known secret lines from <config-dir>/.env

secrets apply

Apply a saved plan:
Exec note:
  • dry-run skips exec checks unless --allow-exec is set.
  • write mode rejects plans containing exec SecretRefs/providers unless --allow-exec is set.
For strict target/path contract details and exact rejection rules, see:

One-way safety policy

OpenClaw intentionally does not write rollback backups containing historical plaintext secret values. Safety model:
  • preflight must succeed before write mode
  • runtime activation is validated before commit
  • apply updates files using atomic file replacement and best-effort restore on failure

Legacy auth compatibility notes

For static credentials, runtime no longer depends on plaintext legacy auth storage.
  • Runtime credential source is the resolved in-memory snapshot.
  • Legacy static api_key entries are scrubbed when discovered.
  • OAuth-related compatibility behavior remains separate.

Web UI note

Some SecretInput unions are easier to configure in raw editor mode than in form mode.