shankar0123 9143003e95 auth-bundle-2 Phase 8: GUI auth surface (OIDC providers + group mappings + sessions + LoginPage IdP buttons + AuthState refactor + logout wiring)
Closes Phase 8 of cowork/auth-bundle-2-prompt.md. Every Bundle 2 endpoint
now has a permission-gated, data-testid-instrumented React surface.

Frontend changes
================

api/client.ts (Category H — AuthState refactor):
* fetchJSON now sends `credentials: 'include'` on every request so the
  HttpOnly session cookie + the JS-readable CSRF cookie ride along with
  Bearer-mode requests transparently. Mode is determined per call by
  what cookies are present, NOT by a state-machine — the same client
  works for Bearer-only deploys, session-only deploys, and the mixed
  upgrade path described in cowork/auth-bundles-index.md Category H.
* readCSRFCookie() + isStateChangingMethod() helpers auto-attach
  `X-CSRF-Token` to POST/PUT/PATCH/DELETE when the CSRF cookie exists.
  Bearer-only callers ride through unchanged (no CSRF cookie → no
  header → backend's CSRF middleware skips).
* AuthInfoResponse extended with optional `oidc_providers?:
  AuthInfoOIDCProvider[]` matching the Phase 6 server extension.
* New API helpers (1:1 with Phase 5 / 7.5 endpoints):
  - listOIDCProviders / createOIDCProvider / updateOIDCProvider /
    deleteOIDCProvider / refreshOIDCProvider
  - listGroupMappings / addGroupMapping / removeGroupMapping
  - listSessions(actorID?, actorType?) / revokeSession / logout
  - breakglassLogin / breakglassSetPassword / breakglassUnlock /
    breakglassRemove
  Permission gates fire server-side; the GUI predicates are UX only.

pages/auth/OIDCProvidersPage.tsx (NEW):
* Lists configured OIDC providers, gated on `auth.oidc.list`.
* Empty state + error state + loading state.
* Embedded Configure-Provider modal with form fields for name,
  issuer_url, client_id, client_secret, redirect_uri,
  groups_claim_path/format, fetch_userinfo, scopes. Modal hidden
  unless caller has `auth.oidc.create`.
* Unsaved-changes confirmation on cancel.

pages/auth/OIDCProviderDetailPage.tsx (NEW):
* Provider config dl + edit/delete/refresh action buttons.
* Edit and refresh require `auth.oidc.edit`. Delete requires
  `auth.oidc.delete`.
* Type-confirm-name delete dialog. Surfaces server's 409 Conflict
  ("ErrOIDCProviderInUse") inline so the operator knows to revoke
  the provider's active sessions first.
* Refresh discovery cache button → POST .../refresh → server re-runs
  RefreshKeys with the IdP-downgrade-attack defense from Phase 3.
* Group→role mappings link.

pages/auth/GroupMappingsPage.tsx (NEW):
* Per-provider group-claim → role-id mapping CRUD.
* Empty state explains the fail-closed semantics from Phase 3
  (no mappings ⇒ no users authenticate via this provider).
* Inline add form (group_name input + role_id select populated from
  `authListRoles`); add/remove gated on `auth.oidc.edit`.

pages/auth/SessionsPage.tsx (NEW):
* Default "My sessions" view available to anyone holding
  `auth.session.list`.
* "All actors (admin)" toggle exposed only when caller holds
  `auth.session.list.all`; renders an actor_id filter input that
  threads ?actor_id= through the GET.
* Self-pill marker on the caller's own rows.
* Revoke button is shown when (a) the row is the caller's own session
  (handler-side own-bypass) OR (b) caller holds `auth.session.revoke`.
* Confirms via window.confirm; surfaces revocation errors inline.

pages/LoginPage.tsx (MODIFIED):
* Fetches /v1/auth/info on mount; if `oidc_providers[]` is non-empty,
  renders one "Sign in with X" button per provider linking to the
  provider's `login_url` (the server-side handler in Phase 5 builds
  this URL with state + nonce + PKCE verifier sealed in the pre-login
  cookie; the GUI never touches those values).
* The API-key form remains as a fallback for Bearer-mode deploys and
  the Phase 7.5 break-glass path.
* All interactive elements carry data-testid:
  login-oidc-providers / login-oidc-button-{id} / login-api-key-form /
  login-api-key-input / login-api-key-submit.

components/AuthProvider.tsx (MODIFIED):
* logout() now also fires POST /auth/logout via the api/client helper
  before clearing local state. The endpoint is auth-exempt; the
  catch-and-swallow keeps the local logout flow working even if the
  cookie is already invalid (idempotent server-side as well).

components/Layout.tsx (MODIFIED):
* Two new nav entries under the Auth section: "OIDC Providers" + "Sessions".

main.tsx (MODIFIED):
* Four new routes:
  - /auth/oidc/providers
  - /auth/oidc/providers/:id
  - /auth/oidc/providers/:id/mappings
  - /auth/sessions

Vitest coverage
===============

Five new test files, 28 new test cases. Pattern matches Bundle 1
Phase 10's Vitest scaffold (vi.mock api/client, render with
QueryClient + MemoryRouter, authMe-driven permission shaping,
data-testid selectors).

* OIDCProvidersPage.test.tsx (5 tests): ErrorState w/o auth.oidc.list,
  empty state, list + create button render, hide-create-button
  without auth.oidc.create, submit-creates-via-API.
* OIDCProviderDetailPage.test.tsx (5 tests): ErrorState w/o list,
  full-perms render, hide edit/refresh/delete with only list,
  refresh button calls API, delete confirm-button stays disabled
  until typed text matches provider name.
* GroupMappingsPage.test.tsx (5 tests): ErrorState w/o list, empty
  fail-closed warning, mapping rows render, hide-form without
  auth.oidc.edit, submit-add-form-calls-API.
* SessionsPage.test.tsx (6 tests): ErrorState w/o list, own sessions
  + self-pill, hide All-actors toggle without list.all, show
  toggle with list.all, hide revoke on other-actor sessions without
  auth.session.revoke, click-revoke calls API after window.confirm.
* LoginPage.test.tsx (extended +2 tests): renders OIDC buttons when
  /auth/info reports providers; omits the OIDC block when none.

Verification
============

* `npx tsc --noEmit` — 0 errors.
* Vitest run across api/components/hooks/utils/auth/pages = 475 tests,
  all green.
* `npm run build` — green (980 KB bundle, no surprises vs Phase 7).
* No backend (Go) changes in this commit; Phase 5-7.5 surfaces
  consumed unchanged.

Not in this commit (deferred)
=============================

* "Test login flow" button on the provider detail page (prompt §Phase 8
  optional row). Requires a server-side test=true flag on the OIDC
  login handler — out of scope for the GUI commit.
* `web/src/__tests__/e2e/` Keycloak-via-testcontainers harness for the
  15 comprehensive flow checks. Tracked under Phase 10 of
  cowork/auth-bundle-2-prompt.md.
2026-05-10 07:23:41 +00:00

certctl logo

certctl — Self-Hosted Certificate Lifecycle Platform

License Go Report Card GitHub Release GitHub Stars

certctl is a self-hosted platform that automates the entire TLS certificate lifecycle, from issuance through renewal to deployment, with zero human intervention. It works with any certificate authority, deploys to any server, and keeps private keys on your infrastructure where they belong. Free, source-available under BSL 1.1, covers the same lifecycle that enterprise platforms charge $100K+/year for.

The CA/Browser Forum's Ballot SC-081v3 caps public TLS certificates at 200 days by March 2026, 100 days by 2027, and 47 days by 2029. At 47-day lifespans, a team managing 100 certificates is processing 7+ renewals per week, every week, forever. Manual workflows stop being a choice.

Status: Early-access. Production-quality core (Local CA, ACME, agent deployment, CRUD, audit, role-based authz with auditor split + day-0 bootstrap + four-eyes approval) with broader feature surface (intermediate CA hierarchy, ACME/SCEP/EST servers, network appliances) still maturing. Federated identity (OIDC/SAML/WebAuthn, server-side sessions, break-glass accounts, JIT elevation) is the next slice on the roadmap, not yet shipped. Lab and dev deployments encouraged; production deployments welcome with the understanding that customer-scale battle-testing is in progress. File GitHub issues for any rough edges.

Actively maintained, shipping weekly. Open an issue if something breaks. CI runs the full test suite with race detection, static analysis, and vulnerability scanning on every commit.

Ready to try it? Jump to the Quick Start. For the marketing site, see certctl.io.

Documentation

The full audience-organized index lives at docs/README.md. Top-level entry points:

Audience Start here
New to certctl ConceptsQuickstartExamples
Production operator ArchitectureSecurity postureDisaster recovery runbook
PKI engineer ACME serverSCEP serverEST serverCA hierarchy
Migrating from another tool from certbot / from acme.sh / cert-manager coexistence
Contributor ArchitectureTesting strategyCI pipeline

For the connector reference (12 issuers, 15 targets, 6 notifiers) see docs/reference/connectors/index.md.

Screenshots

Dashboard
Dashboard
Stats, expiration heatmap, renewal trends, issuance rate
Certificates
Certificates
Inventory with bulk ops, status filters, owner/team columns
Issuers
Issuers
Catalog with 10 CA types, GUI config, test connection
Jobs
Jobs
Issuance, renewal, deployment queue with approval workflow

See all screenshots →

Why certctl

Certificate lifecycle tooling has historically split into two camps. Enterprise platforms charge six-figure annual licenses, take months to deploy, and bill professional-services hours at $250 to $400 per hour to write integration code that should ship with the product. Single-purpose tools handle one slice of the problem and leave the operator to glue the rest together. certctl fills the gap — full lifecycle automation, self-hosted, free, CA-agnostic, target-agnostic. If you're stitching together cron jobs across a fleet, manually renewing certs, or writing custom integration scripts to bridge a commercial CLM platform to your actual infrastructure, certctl replaces all of that.

Built for platform engineering and DevOps teams managing 10 to 500+ certificates, security teams who need audit trails and policy enforcement, and small teams without enterprise budgets who need enterprise-grade automation for a 50-server environment. For the detailed positioning argument and when not to use certctl, see Why certctl?.

What it does

certctl handles the full certificate lifecycle in one self-hosted control plane:

  • Issue and renew from any CA. Let's Encrypt and any ACME provider, an embedded ACME server you can point cert-manager / certbot / lego at directly, a built-in local CA with sub-CA mode (chains under your enterprise root like ADCS), step-ca, Vault PKI, EJBCA, AWS ACM PCA, Google CAS, DigiCert, Sectigo, GlobalSign, Entrust, plus an OpenSSL / shell-script adapter for anything custom. Twelve native issuer connectors. See the connector reference.
  • Deploy automatically to NGINX, Apache, HAProxy, Caddy, Traefik, Envoy, IIS, Windows Cert Store, Java keystore, Kubernetes Secrets, AWS ACM, Azure Key Vault, SSH known-hosts, Postfix + Dovecot, F5 BIG-IP. Fifteen native target connectors. Every deploy goes through atomic-write + ownership-preservation + SHA-256 idempotency + per-target Prometheus counters + pre-deploy snapshot + on-failure rollback. See docs/reference/deployment-model.md.
  • Run as an ACME server so existing client tooling plugs in directly. RFC 8555 + RFC 9773 ARI, two per-profile auth modes (public-trust-style validation or trust_authenticated for internal PKI), doubly-signed key rollover, revoke-cert on both kid path and jwk path, per-account rate limiting. Cert-manager / certbot / lego all work pointed at it. See docs/reference/protocols/acme-server.md.
  • Run as a SCEP server for Microsoft Intune-managed phones, ChromeOS devices, network appliances. RFC 8894 native with full PKIMessage wire format, native Intune challenge dispatch with replay protection, per-profile dispatch with separate RA cert per profile. See docs/reference/protocols/scep-server.md.
  • Run as an EST server for HTTPS-based PKCS#10 enrollment. 802.1X / Wi-Fi authentication, IoT device enrollment, RFC 9266 channel binding. See docs/reference/protocols/est.md.
  • Manage multi-level CA hierarchies with name constraints, path-length enforcement, and end-to-end RFC 5280 path validation. Root → intermediate → issuing chains, admin-gated CRUD, drain-first retirement. Patterns documented for 4-level boundary CAs, 3-level policy CAs with per-BU PermittedDNSDomains, and 2-level internal PKI. See docs/reference/intermediate-ca-hierarchy.md.
  • Gate high-stakes issuance behind two-person-integrity approval. Flag a profile as RequiresApproval, the request lands in a queue, a non-requester approves, the scheduler dispatches. Profile-edit changes on approval-tier profiles route through the same gate so the flip-flop bypass is closed. See docs/operator/approval-workflow.md.
  • Authorize with role-based access control. Seven default roles (admin, operator, viewer, agent, mcp, cli, auditor) over a 33-permission canonical catalogue with global / per-profile / per-issuer scope. Auditor role is read-only on the audit trail (audit.read + audit.export, nothing else) so a regulator's key cannot read certificates or mutate config. Day-0 admin via a one-shot CERTCTL_BOOTSTRAP_TOKEN endpoint that closes itself the moment any admin lands. Privilege-escalation guard requires auth.role.assign to grant or revoke a role. See docs/operator/rbac.md, docs/operator/auth-threat-model.md, and the v2.0.x → v2.1.0 migration guide.
  • Discover existing certs across your fleet via filesystem scanning on agents, network TLS probing across CIDR ranges, and cloud secret manager imports (AWS Secrets Manager, Azure Key Vault, GCP Secret Manager). Triage workflow for claim / dismiss / investigate.
  • Revoke with full RFC 5280 reason codes, DER CRL generation per issuer (scheduler-pre-generated and ETag-cached), and an embedded RFC 6960 OCSP responder with dedicated per-issuer responder certs. Single + bulk revocation. See docs/reference/protocols/crl-ocsp.md.
  • Alert via Slack, Microsoft Teams, PagerDuty, OpsGenie, email, webhooks. Per-policy multi-channel routing matrix with severity tiers and fault-isolating per-channel dispatch. See docs/operator/runbooks/expiry-alerts.md.
  • Drive the platform from natural language via the bundled MCP (Model Context Protocol) server. The full REST API is exposed as MCP tools — ask your AI client "show me all expiring certificates", "revoke the VPN cert, key compromised", or "what agents are offline?" and it translates to API calls. Stateless stdio-transport binary at cmd/mcp-server/; same auth as the REST API; no extra attack surface. See docs/reference/mcp.md.

Architecture and security

Go 1.25 control plane with handler → service → repository layering. PostgreSQL 16 backend (35+ tables, idempotent migrations). Pull-only deployment model — the server never initiates outbound connections. Agents poll for work and generate ECDSA P-256 keys locally so private keys never touch the control plane. For network appliances and agentless servers, a proxy agent in the same network zone handles deployment via the target's API (WinRM, iControl REST, SSH/SFTP). See the Architecture Guide for full system diagrams.

Security: API-key authentication with SHA-256 hashing + constant-time comparison, then role-based authorization on every gated handler with global / per-profile / per-issuer scope. Auditor split keeps regulator-class actors strictly read-only on the audit trail. Day-0 admin via a one-shot bootstrap token; granting or revoking roles requires the dedicated auth.role.assign permission. CORS deny-by-default. Shell injection prevention on all connector scripts. SSRF protection (reserved IP filtering) on the network scanner. Issuer and target credentials encrypted at rest with AES-256-GCM. HTTPS-only control plane with TLS 1.3 pinned and a fail-closed startup gate that refuses to boot if the TLS bundle is unusable. Every API call recorded to an immutable audit trail with actor attribution, body hash, and latency tracking. CI runs race detection, 11 linters, and vulnerability scanning on every commit. See docs/operator/security.md for the full posture and docs/operator/auth-threat-model.md for what's defended vs deferred.

Quick Start

git clone https://github.com/certctl-io/certctl.git
cd certctl
docker compose -f deploy/docker-compose.yml -f deploy/docker-compose.demo.yml up -d --build

Wait ~30 seconds, then open https://localhost:8443 in your browser. The shipped demo overlay seeds 32 certificates across 10 issuers, 8 agents, and 180 days of realistic history. The certctl-tls-init init container self-signs an ECDSA-P256 cert on first boot — accept the browser warning for the demo, or feed the generated ca.crt to your client.

For a clean install without demo data, drop the -f deploy/docker-compose.demo.yml flag and run docker compose -f deploy/docker-compose.yml up -d --build. The four compose files (docker-compose.yml base, docker-compose.demo.yml overlay, docker-compose.dev.yml for PgAdmin + debug logging, docker-compose.test.yml for integration tests) are documented at deploy/ENVIRONMENTS.md.

curl --cacert $(docker compose -f deploy/docker-compose.yml exec -T certctl-server cat /etc/certctl/tls/ca.crt) https://localhost:8443/health
# {"status":"healthy"}

The control plane is HTTPS-only with TLS 1.3 pinned. See docs/operator/tls.md for cert provisioning patterns.

Agent install (one-liner)

curl -sSL https://raw.githubusercontent.com/certctl-io/certctl/master/install-agent.sh | bash

Detects your OS and architecture, downloads the binary, configures systemd (Linux) or launchd (macOS), and starts the agent. See install-agent.sh.

Helm chart (Kubernetes)

helm install certctl deploy/helm/certctl/ \
  --set server.apiKey=your-api-key \
  --set postgres.password=your-db-password

Production-ready chart with Server Deployment, PostgreSQL StatefulSet, Agent DaemonSet, health probes, security contexts (non-root, read-only rootfs), and optional Ingress. See values.yaml.

Container images

docker pull ghcr.io/certctl-io/certctl-server:latest
docker pull ghcr.io/certctl-io/certctl-agent:latest

Examples

Pick the scenario closest to your setup and have it running in 2 minutes:

Example Scenario
examples/acme-nginx/ Let's Encrypt + NGINX, HTTP-01 challenges
examples/acme-wildcard-dns01/ Wildcard certs via DNS-01 (Cloudflare hook included)
examples/private-ca-traefik/ Local CA (self-signed or sub-CA) + Traefik file provider
examples/step-ca-haproxy/ Smallstep step-ca + HAProxy combined PEM
examples/multi-issuer/ ACME for public + Local CA for internal, one dashboard

Each directory contains a docker-compose.yml and a README.md explaining the scenario, prerequisites, and customization.

Verifying a release

Every v* tag publishes signed, attested artefacts (Cosign keyless OIDC + SLSA Level 3 provenance + SPDX-JSON SBOMs). For the verification procedure, see docs/reference/release-verification.md.

Development

make build              # Build server + agent binaries
make test               # Run tests
make lint               # golangci-lint (11 linters)
govulncheck ./...       # Vulnerability scan
make docker-up          # Start Docker Compose stack

CI runs go vet, go test -race, golangci-lint, govulncheck, and per-layer coverage thresholds (service 55%, handler 60%, domain 40%, middleware 30%) on every push. Frontend CI runs TypeScript type checking, Vitest tests, and Vite production build.

For the full contributor guide see docs/contributor/ — testing strategy, test environment, CI pipeline, QA prerequisites.

License

Licensed under the Business Source License 1.1. The source code is publicly available and free to use, modify, and self-host. The one restriction: you may not use certctl's certificate management functionality as part of a commercial certificate-management offering to third parties. See the LICENSE file for the full Additional Use Grant.

For licensing inquiries: certctl@proton.me

Dependencies

go list -m all | wc -l   # total module count (direct + transitive)
go mod why <path>        # explain why a module is pulled in
govulncheck ./...        # vulnerability scan (CI runs this on every commit)

The release-time SBOM is published as an SPDX-JSON file alongside each release artifact.


If certctl solves a problem you have, star the repo to help others find it. Questions, bugs, or feature requests: open an issue.

S
Description
certctl is a self-hosted platform that automates the entire certificate lifecycle — from issuance through renewal to deployment — with zero human intervention. It works with any certificate authority, deploys to any server, and keeps private keys on your infrastructure where they belong.
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