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Commits
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9070b537d2 |
feat(oidc): add RFC 7592 dynamic client management (#12315)
# Which Problems Are Solved #12313 lets clients register themselves as OIDC applications (RFC 7591), but a dynamically registered client has no way to manage itself afterwards: - The registration response returns no `registration_access_token` and no `registration_client_uri`, which RFC 7591 and 7592 clients (including the MCP SDKs) expect in order to manage their own registration. - There is no way to read back, update or delete a registration without an operator acting on the client's behalf through the Console or the Management API. A client that needs to rotate a redirect URI has to ask a human. # How the Problems Are Solved Implement the [OAuth 2.0 Dynamic Client Registration Management Protocol (RFC 7592)](https://datatracker.ietf.org/doc/html/rfc7592): `GET`, `PUT` and `DELETE` on `/oauth/v2/register/{client_id}`, wired through the same `op.WithSetRouter` hook as the registration endpoint. ## Control plane: the same security settings, no new switch The management endpoints are gated on the `DynamicClientRegistrationSettings.enabled` introduced in #12313. No new setting, no feature flag: a client that may register may manage what it registered. When registration is disabled the endpoints answer `404`, exactly as `POST /oauth/v2/register` does. `allow_unauthenticated` selects the registration mode and does not apply here, because the registration access token authorizes these endpoints in both modes. ## Authorization: the registration access token, and nothing else RFC 7592 §3 defines the credential as the registration access token issued at registration and bound to a single client, not a user credential. So a client manages only itself, proving it with the token it was handed: | | Registration (`POST`) | Management (`GET` / `PUT` / `DELETE`) | | --- | --- | --- | | Credential | Access token, or none in open mode | Registration access token | | Permission | `project.app.register_dynamic` in token mode | None | Neither `project.app.register_dynamic`, which governs who may *create* clients, nor `project.app.write` applies to the management endpoints. One authorization path per endpoint is easier to reason about than two, and there is no user identity to check against in the first place. Operators keep managing dynamically registered clients through the Management API and the Console, like any other application; they cannot obtain a client's registration access token, by design. Status codes: a missing, malformed or non matching token is `401`; a client that no longer exists is `404`. The token's `client_id` is checked against the path before any lookup, so a token bound to another client is rejected without touching the database. ## The token itself - **Stored like a client secret.** Only its passwap hash is persisted, through a new `project.application.config.oidc.registration_token.changed` event; the plain token leaves the server exactly once, in the response that issues it. - **Bound to its client and organization** through authenticated encryption with the instance key, the same mechanism as refresh tokens. The opaque token handed to the client encrypts `client_id:org_id:secret`, so the endpoint recovers the binding before checking the secret against the stored hash. - **Verified in O(1)** against the hash on the projection, folded into the client lookup the handler already does, with a strongly consistent fallback to the eventstore so a token that was just rotated is accepted before it is projected. - **Rotated on update** (RFC 7592 §4.4) and invalidated implicitly when the client is deleted. A read does not rotate it. Every update rotates, including one that changes no metadata, so a client always gets a usable token back. ## Reusing the existing persistence A small refactor extracts the shared OIDC application creation and update logic (`pushOIDCApplication` gains a variadic `extraEvents`, and `oidcApplicationChangeEvent` is lifted out of `UpdateOIDCApplication`), so the dynamic commands reuse it without the permission check. The registration token event is pushed atomically with the application, so a registered client is never left unmanageable. # Additional Changes - Setup step **74** adds the `registration_token` column to the `apps7_oidc_configs` projection, with a reducer for the new event modelled on the client secret. Applications are not part of the relational storage projection, so there is no second write path to keep in sync. - The registration response (`POST`) now also carries `registration_access_token` and `registration_client_uri`. - Docs: a "Manage a registration" section in the dynamic client registration guide covering the three operations, the authorization model, token rotation and the new limitations, plus the management endpoints on the OIDC endpoints page. - Unit tests for the command layer (issue, verify, rotate, update, delete), the projection reducer, and the token binding and response mapping. An integration test covers the full lifecycle (register, read, update with rotation, delete, read again with `404`), a token bound to another client, and the endpoints not being served when registration is disabled. None of the integration calls carries a user access token, which pins down that the management endpoints require no permission of their own. # Additional Context - Part of the MCP authorization effort in #9810. Follow-up to #12313 (RFC 7591), which is now merged; this branch has been rebased on `main` and carries the settings and authorization model agreed there. - **Open question for the review**: the authorization model above (registration access token only, no operator path through these endpoints) is the one I proposed when #12313 was reviewed, but it was never explicitly confirmed. If you would rather have `project.app.write` also grant access to a client in the operator's own organization, that is a contained change in `authorizeClientManagement`. - Rotation is eventually consistent: right after an update the previous token may keep working for a brief moment until the rotation is projected, while the new token works immediately through the eventstore fallback. This matches how ZITADEL validates access tokens, where revocation is likewise eventually consistent. It is documented in the guide and asserted as such in the integration test. - A database migration is introduced for the new projection column. No proto change and no new feature flag. - Verified locally: full build, `go vet` including `-tags integration`, `golangci-lint` with 0 issues, and the unit suites for every touched package. As before, I cannot run the integration suite here, so CI remains the check on it. |
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50d2b26a28 |
feat: specify login UI version on instance and apps (#9071)
# Which Problems Are Solved To be able to migrate or test the new login UI, admins might want to (temporarily) switch individual apps. At a later point admin might want to make sure all applications use the new login UI. # How the Problems Are Solved - Added a feature flag `` on instance level to require all apps to use the new login and provide an optional base url. - if the flag is enabled, all (OIDC) applications will automatically use the v2 login. - if disabled, applications can decide based on their configuration - Added an option on OIDC apps to use the new login UI and an optional base url. - Removed the requirement to use `x-zitadel-login-client` to be redirected to the login V2 and retrieve created authrequest and link them to SSO sessions. - Added a new "IAM_LOGIN_CLIENT" role to allow management of users, sessions, grants and more without `x-zitadel-login-client`. # Additional Changes None # Additional Context closes https://github.com/zitadel/zitadel/issues/8702 |
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041af26917 |
feat(OIDC): add back channel logout (#8837)
# Which Problems Are Solved Currently ZITADEL supports RP-initiated logout for clients. Back-channel logout ensures that user sessions are terminated across all connected applications, even if the user closes their browser or loses connectivity providing a more secure alternative for certain use cases. # How the Problems Are Solved If the feature is activated and the client used for the authentication has a back_channel_logout_uri configured, a `session_logout.back_channel` will be registered. Once a user terminates their session, a (notification) handler will send a SET (form POST) to the registered uri containing a logout_token (with the user's ID and session ID). - A new feature "back_channel_logout" is added on system and instance level - A `back_channel_logout_uri` can be managed on OIDC applications - Added a `session_logout` aggregate to register and inform about sent `back_channel` notifications - Added a `SecurityEventToken` channel and `Form`message type in the notification handlers - Added `TriggeredAtOrigin` fields to `HumanSignedOut` and `TerminateSession` events for notification handling - Exported various functions and types in the `oidc` package to be able to reuse for token signing in the back_channel notifier. - To prevent that current existing session termination events will be handled, a setup step is added to set the `current_states` for the `projections.notifications_back_channel_logout` to the current position - [x] requires https://github.com/zitadel/oidc/pull/671 # Additional Changes - Updated all OTEL dependencies to v1.29.0, since OIDC already updated some of them to that version. - Single Session Termination feature is correctly checked (fixed feature mapping) # Additional Context - closes https://github.com/zitadel/zitadel/issues/8467 - TODO: - Documentation - UI to be done: https://github.com/zitadel/zitadel/issues/8469 --------- Co-authored-by: Hidde Wieringa <[email protected]> |
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d01bd1c51a |
fix: correctly check app state on authentication (#8630)
# Which Problems Are Solved In Zitadel, even after an organization is deactivated, associated projects, respectively their applications remain active. Users across other organizations can still log in and access through these applications, leading to unauthorized access. Additionally, if a project was deactivated access to applications was also still possible. # How the Problems Are Solved - Correctly check the status of the organization and related project. (Corresponding functions have been renamed to `Active...`) |
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6a51c4b0f5 |
feat(oidc): optimize the userinfo endpoint (#7706)
* feat(oidc): optimize the userinfo endpoint * store project ID in the access token * query for projectID if not in token * add scope based tests * Revert "store project ID in the access token" This reverts commit 5f0262f23988e7f62d415d0e4a02a705f6ad5197. * query project role assertion * use project role assertion setting to return roles * workaround eventual consistency and handle PAT * do not append empty project id |