Plane security hardening guide

Why Plane security hardening starts before the first user signs in

A team that is about to run Plane for real project work needs to lock down the instance before anyone creates a workspace, invites a member or imports a backlog. The order matters: first the administrative surface and sign-up path, then the transport and data services underneath, then backups and the patch process that keeps all of it current. A default install gets Plane running quickly, but it does not decide who can reach the admin console, who can create accounts, how traffic is encrypted between components, or where project data sits and how it is recovered. Those decisions belong to the team operating the instance, and they should be made and checked before production data arrives.

Plane is not one service. A self-hosted deployment runs a web app, an API, PostgreSQL, Redis or Valkey, RabbitMQ and S3-compatible object storage such as MinIO. Each of these holds or moves project data, credentials or session state, so hardening spans every layer rather than the web front end alone. When an external managed database or object store is used, the team also owns the security settings of those services, including network reachability, credentials, encryption and access policies. The Kubernetes method documents the option to point PostgreSQL, Redis or Valkey, RabbitMQ and object storage at external services, which moves responsibility for those controls outward but does not remove it. Confirm with your platform team which layers are managed by you and which by a provider.

The difficulty is that the controls are spread across several configuration surfaces. Instance administration, sign-up and workspace creation settings, and the connection settings for each external service are all set in different places, and none of them is a single checkbox. A change to one service can leave another exposed, and a review of the web app alone will miss gaps in the data tier. Plan to write down each surface, its owner and the setting you chose, so that a later upgrade or a new administrator does not silently reopen a door you closed.

Patching adds a second dimension. Plane's self-hosted editions are built on distinct codebases and run separate release cycles, so a security fix in one edition does not automatically reach the others. The Community Edition is published on GitHub with its own release history, while the Commercial and Airgapped editions follow their own versions. Your patch process must therefore track each edition you actually run, record which release is deployed, and define who reviews release notes and applies updates. Confirm the release channel for each edition with Plane before you commit to a schedule, and make sure backups are taken before each change so that a failed update can be reversed.

Which Plane components carry security risk

A self-hosted Plane instance is several services working together, and each one holds a different kind of data or secret. The cards below name the layers a hardening plan has to cover, what each one holds, and why it needs its own control rather than being treated as part of the application.

Plane application and admin surface

The Plane web and API services handle sign-in, workspace roles and project data for every user. The instance administrator console, including God Mode, sits on the same application and can change instance-wide settings such as sign-up rules and authentication. Check who holds instance admin rights, whether those accounts use strong authentication, and whether the admin paths are reachable only from networks your administrators use.

Reverse proxy or ingress

The proxy or ingress controller terminates TLS for every browser and API client, so it decides which protocol versions and certificates users receive and which paths reach the application. Misconfiguration here exposes everything behind it. Confirm the certificate source and renewal process, the minimum TLS version, the header forwarding rules, and whether the admin paths are restricted or blocked at this layer.

PostgreSQL database

PostgreSQL stores work items, comments, pages, cycles and user records, which makes it the system of record for project data. Hardening covers network reachability (the database should accept connections only from Plane services), credential storage, encryption at rest and in transit as your platform supports them, and role separation between the application account and administrative accounts. Confirm who operates the database and where its backups are kept.

Redis or Valkey cache and queue

Redis or Valkey supports caching and background work for Plane. It usually holds short-lived session and job data rather than the system of record, but it still contains data about active users. Check that it is not reachable from outside the application network, that authentication is enabled, and that its memory and persistence settings match what you are willing to lose on a restart.

RabbitMQ message broker

RabbitMQ passes messages between Plane services, so messages can contain work item and user details while in transit. Its management interface and default accounts are common weak points. Confirm that default credentials are replaced, the management console is not exposed publicly, inter-service connections use authenticated accounts with limited permissions, and queue contents are covered by the same retention rules as the rest of your data.

S3-compatible object storage

Attachments, uploaded files and exported content are stored in S3-compatible object storage such as MinIO. Buckets are the most common source of accidental public exposure, so bucket policies, access keys and public read settings need explicit review. Also confirm that object access goes through Plane's signed access path, that access keys are scoped to the Plane bucket only, and that versioning or object lock is set according to your retention policy.

Docker Compose and Helm configuration

Compose files and Helm values carry the database passwords, object storage keys, application secrets and broker credentials that connect the other layers. A plaintext value in a repository or a shared values file exposes all of them at once. Check that secrets come from an approved secret store or sealed values, that configuration files are excluded from version control, and that the Helm chart is set to use an external managed database, cache, broker or storage service where your policy requires it. Each external service moves operational ownership of that layer to the provider or to your platform team, so record who patches and backs up each one.

Which hardening decisions to make before the build

This table compares the choices that shape a hardened Plane deployment and the operational cost each one carries. Read each row as a decision to settle with your security and platform teams before any configuration starts. The main takeaway is that edition choice and deployment method constrain the other options, so settle those first.

Decision	Options	Trade-off and operational cost	When each option fits
Edition	Community (AGPL-3.0) or Commercial	Community matches the Free tier feature set. Kubernetes guide installs the Commercial Edition, so confirm which security settings each edition exposes before committing.	Community suits teams that accept its feature set and AGPL-3.0 terms. Commercial suits teams needing license-key plans or Commercial-only controls.
Deployment method	Docker Compose or Kubernetes with Helm	Compose is fewer moving parts to patch and back up. Helm adds cluster hardening, network policy and upgrade tooling that your platform team must operate.	Compose fits small and mid-size teams with a single host. Helm fits teams already running hardened clusters that need high availability.
PostgreSQL	In-cluster or external managed service	In-cluster keeps data inside the release but makes your team own backups, patching and encryption. External moves those duties to the provider but adds network and credential paths to secure.	In-cluster fits small Compose installs. External fits regulated teams with an existing managed database standard and audited backup policy.
Redis or Valkey	In-cluster or external	Used for caching and queues. Confirm authentication, network reachability and persistence settings for your chosen engine before go-live.	In-cluster fits single-cluster installs. External fits teams that already run a managed cache with access controls they can audit.
RabbitMQ	In-cluster or external	Carries background work between services. It adds a separate credential set and queue data to protect, back up and monitor.	In-cluster fits low-volume installs. External fits teams with a shared, monitored messaging platform.
Object storage	S3-compatible service such as MinIO or an external provider	Stores attachments and uploads. Bucket policies, encryption at rest and access keys become your responsibility, and key rotation must be planned.	Self-managed MinIO fits air-gapped or on-premises estates. External S3-compatible storage fits teams with existing encryption and retention controls.
TLS termination	Ingress controller or reverse proxy in front of Plane	Terminating at an ingress centralizes certificate rotation and policy, but traffic inside the cluster must still be reviewed. A reverse proxy on the host is simpler to audit but is another component to patch.	Ingress fits Kubernetes installs with existing certificate automation. A reverse proxy fits Compose installs on a single host.
Sign-up and God Mode access	Open or restricted sign-up; limit who holds God Mode	Open sign-up widens the account population and needs active monitoring. God Mode grants instance-wide administration, so each named holder adds review, rotation and offboarding work.	Restricted sign-up and a short named God Mode list fit regulated teams. Open sign-up only fits internal instances with a clear joiner process.

How to sequence Plane security hardening from network to backups

This sequence moves from knowing what runs and where data flows, through network exposure and access controls, to secrets, external services, backups and patching. Each step ends with a check so the team can show the instance is hardened in a defined order.

Inventory services and data flows
Start by listing every component of the Plane deployment: the web, API and worker services, PostgreSQL, Redis or Valkey, RabbitMQ, S3-compatible object storage, the reverse proxy and any SSO connection. For each one, record where it runs, which services connect to it, which users or networks reach it, and where sensitive project data and attachments are stored. Your platform or security engineers own this step, with input from the application owner. It is done when the team has a diagram and table that match the running environment and that every component has a named owner. Confirm the component list against the Plane self-hosting documentation for the method and edition you chose, because a Docker Compose install and a Helm install expose different parts.
Restrict network exposure of data stores
Only the edge endpoint that users reach should be exposed outside the cluster or private network. PostgreSQL, Redis or Valkey, RabbitMQ and object storage should accept connections only from the Plane services that need them. Platform engineers apply network policies, security groups or firewall rules and then test from outside the boundary. The check is a scan or connection test from an external network that shows the data store ports are unreachable, plus a test from inside that shows the application can still connect. Ask your Plane or Helm chart documentation which ports each component uses in your version so the rules are complete and not guessed.
Terminate TLS at the edge
Terminate TLS at the reverse proxy or ingress, using certificates issued by your certificate authority, and disable outdated protocol versions and weak cipher suites at that layer. Internal traffic between services should be encrypted where your architecture and the Plane configuration allow it, and any gap should be recorded as a known risk. The network or platform engineer completes this step. It is done when an external TLS scan shows only current protocol versions, the certificate chain is valid and trusted by your users, and the certificate renewal process is written down. Confirm the exact configuration keys for TLS and internal encryption against the Plane docs for your version.
Restrict sign-up and invitations
Decide who may create an account on the instance and who may invite others. Disable open sign-up so that new accounts come only from an administrator or from your identity provider, and limit invitations to named workspace administrators. The application owner approves the list of users who may invite others. The check is a test with an unlisted email address that confirms the instance refuses self-registration, and a review of the invitation settings with a named approver for each change. Confirm the instance setting names and their defaults in the Plane documentation for your edition, because they can differ between releases.
Confirm and limit God Mode access
God Mode is the instance-level administration area in self-hosted Plane, so it carries the highest privilege. Identify every account that can reach it, remove any that do not need it, and require a named individual for each remaining account rather than a shared login. Record the access path used to reach God Mode for the version in use, including the URL, the login method and who approves changes, because the path changes between releases. The security lead signs off on the list. The check is a dated access review that matches the accounts in the instance against the approved list. Confirm the current access path and any admin setting names against the Plane docs for your version before you write the procedure.
Move credentials into the secrets system
Database, cache, queue and object storage credentials, along with the application secret keys, should be held in your team's secrets manager and injected at deploy time rather than kept in plain environment files on hosts or in version control. Platform engineers update the deployment definitions to read these values from the secrets store, rotate the existing credentials after the move, and remove the old files from hosts and repositories. The check is a search of the repositories and host file systems for the old credentials returning nothing, plus a successful redeploy that reads the new values. Confirm which variables each Plane component expects in your version.
Harden external managed services
If PostgreSQL, Redis or Valkey, RabbitMQ or object storage run as external managed services, apply the provider's network rules so that only the Plane network path can connect, enable encryption in transit, and enable encryption at rest where the service supports it. Restrict the storage bucket policy so only the Plane service identity can read and write its objects. The cloud or data platform owner completes this step. The check is a review of each managed service's network rules and encryption settings against a written list, with the results saved as evidence. Confirm the connection and encryption options for each service against both the provider documentation and the Plane Helm chart settings.
Configure and test backups
Schedule regular backups of the PostgreSQL database and the object storage bucket that holds attachments, and keep them in a location separate from the production data store with access restricted to the backup operator. Set retention in line with your policy. Then restore the backup into an isolated environment, start Plane against it, and check that projects, work items and attachments are present and readable. The operations team owns this step. It is done when a restore test has been completed and recorded with the date, the backup used and the result. Because Redis and queue data are usually treated as transient, confirm with the Plane documentation which of them must be backed up for your version.
Set a patch process for each edition
Plane publishes Community, Commercial and Airgapped editions on separate release cycles, so the patch process must cover each edition the team runs. Record the edition and version in use, subscribe to the release notes for that edition, and set a review cadence agreed with the application owner. For each patch, take a backup first, apply the update in a staging environment, run the restore and smoke tests, and then promote it to production. The check is a written patch calendar and a completed record for the most recent update. Confirm the upgrade path for your edition in the Plane editions and versions documentation before you set the cadence.

What drives Plane security hardening effort and cost

This table lists the main factors that change how much work Plane security hardening takes, how each one raises effort, and what keeps it contained. Read each row against your own environment, then ask for a quote built from the written scope. Effort rises with the number of components outside your team's control, and it falls when templates and decisions are documented early.

Driver	How it raises effort	How to keep it down
Services inside versus outside your control	Each component run by a managed provider, such as an external PostgreSQL service, Redis or Valkey, RabbitMQ or S3-compatible storage, needs its own access, encryption and backup review before it can be hardened or verified.	Confirm early which services your provider controls, and agree in writing which settings the team owns and which the provider must evidence.
Deployment model	Docker Compose on a single node has fewer moving parts to harden. A Kubernetes high availability deployment with Helm adds cluster RBAC, network policy, secrets management and ingress configuration to review.	Choose the deployment model based on availability requirements, and reuse one hardened baseline across any future clusters.
Number of environments	Each environment, such as development, staging and production, repeats configuration, secret rotation and verification work, and drift between them creates findings.	Keep environments built from the same templates and limit variation to values files or environment variables that are recorded in version control.
Identity provider integration and plan requirements	SAML and OIDC on self-hosted Plane are listed on the Pro plan and above, and LDAP is listed as an Enterprise feature. Each protocol adds configuration, certificate handling, role mapping and testing of sign-in and deprovisioning paths.	Confirm the plan that matches your identity protocol before scoping, and limit the first release to one protocol with documented role mapping.
Compliance evidence needs	Assessors may ask for configuration records, access reviews, change history and proof of backup restores. Collecting and organizing this evidence adds work beyond the technical hardening itself. DeployOpen prepares evidence, but independent auditors and certification bodies issue any audit result.	Agree the control set and evidence format at the start, and ask whether your auditor has specific requirements for the evidence they will accept.
Custom network policies	Restricting traffic between Plane services, databases, storage and ingress requires mapping every required connection, then testing that both allowed and blocked paths behave as intended. Each custom rule adds test cases.	Start from a default deny baseline with a documented list of required flows, and add exceptions only with a recorded reason.
Backup and recovery targets set by the business	Recovery point and recovery time targets decide how often backups run, where copies are stored, how encryption keys are managed and how often restores are tested. Stricter targets mean more infrastructure, more tests and more monitoring.	Ask the business owner to set targets in writing before design begins, and test restores on a schedule that matches the targets rather than on every change.
Admin access through God Mode and sign-up controls	Restricting instance administration and sign-up requires documenting who holds administrative access, how it is granted and removed, and how changes are logged. Unclear ownership of these accounts extends review cycles.	Name a small set of administrators, record the approval process for changes, and confirm the handling of sign-up restrictions with your identity owner.

How hardening changes for Docker Compose, Kubernetes and air-gapped installs

On a single host, most hardening stays on one machine, so the host operating system and the Compose file carry most of the load. The platform layer is thin: Compose decides which containers can reach each other, which ports are published to the host and where data volumes live. Your team still owns the host firewall, the reverse proxy, disk encryption and access to the server.

Published ports: Only the reverse proxy should publish ports to the host. Database, Redis or Valkey, RabbitMQ and object storage should stay on the internal Compose network.
Network segmentation: Where the file allows it, separate the web tier from the data services so the proxy cannot reach the database directly.
Volumes and permissions: Named volumes or bind mounts hold the database and attachments. Set host directory ownership and file modes explicitly, and encrypt the disk beneath them.
Secrets: Keep environment values in a restricted file that is excluded from version control, not inline in a shared Compose file.
Host controls: Firewall rules, operating system patching, SSH access and log shipping remain with your team.

TLS terminates at the reverse proxy in front of the stack. Certificate issuance and renewal run on the host, so a renewal failure is a host failure that someone must monitor. Confirm with the Plane self-hosting documentation which Compose settings and environment variables apply to your release, and whether you run Plane with Podman instead, since Plane documents Podman as a separate method with its own setup.

Which access controls and secrets controls Plane needs

These six controls cover who can administer the instance, who can join it, how traffic and credentials are protected, and how admin actions are recorded. Several depend on your edition or plan, so confirm each one against the Plane documentation for the version you run before you mark it complete.

God Mode admin access

God Mode is the instance-level administration area of self-hosted Plane, separate from workspace roles. Keep a short, documented list of holders, grant access through a written request, and review that list on a fixed schedule. Write a break-glass procedure that names who can restore access during an outage and how that use is logged and reported afterward. Confirm with the Plane documentation how God Mode is enabled and assigned in your version.

Sign-up and invitation restriction

Decide whether anyone can create an account on your instance and whether invitations can go to any email address. Limit both to the people you intend to admit, then test the setting with an address outside your approved list. Assign a role to every invitee so new accounts start with the access their work needs. On the Commercial Edition, seats are counted by users with paid roles, so review invitations against that count. Confirm the sign-up and invitation settings for your edition in the Plane documentation.

TLS on every browser and API path

Terminate TLS for the web app, the API, file uploads and any webhook or integration callback, so credentials and work item data never travel in plain text. Check the ingress or reverse proxy in front of the containers, and confirm which internal connections your deployment method can encrypt. Test the certificate chain, the renewal process and the redirect from HTTP to HTTPS. Record who owns certificate renewal so an expired certificate does not stop access.

Secrets for database, cache, queue and storage

A self-hosted Plane uses PostgreSQL, Redis or Valkey, RabbitMQ and S3-compatible object storage, and each one has its own credentials. Keep those values out of source control and chat, store them in your secrets manager or Kubernetes secrets, and give each service only the account it needs. Plan rotation for each credential and document which deployment values change when you rotate. Confirm each setting name in the Plane self-hosting documentation for your version.

Network isolation of data stores

Place PostgreSQL, Redis or Valkey, RabbitMQ and object storage on private network segments that only the Plane application services can reach. Block direct access from user networks and the internet, and allow administrators in through a bastion host or a private endpoint. Verify the result with a scan run from outside the application network. If you use a managed service, confirm its firewall and private endpoint options with the provider.

Logging of admin actions

Record God Mode activity, role changes, invitations and configuration edits in a log that your security team can search outside the Plane instance. Forward container and reverse proxy logs to a central store with retention that matches your policy. Plane's pricing page lists API-enabled audit logs as an Enterprise feature, so confirm whether your plan includes them before you depend on them. Test by making a sample admin change and confirming it appears in the central log.

How to test that Plane security hardening holds and fails safely

Each hardening control needs a test that tries to break it from the position an attacker or a careless user would occupy, and a written description of what failure looks like before the test runs. Start with access. From an address outside your allowed email domains, attempt sign-up and accept an invitation link. The expected result is a refusal, with no new account appearing in the instance admin list. Then sign in as an ordinary workspace member and try to open God Mode pages and call admin endpoints directly. Those requests should be denied, and the denial should appear in your logs. Repeat the member test for each role you use, because a control that holds for one role can still fail for another.

Next, test the transport and network boundary from outside the private network. Request the public hostname over plain HTTP. A correct result is a redirect to HTTPS or a refused connection, never a page served over HTTP that carries session cookies. From the same outside host, check the certificate presented on the HTTPS listener, including its chain and expiry date. For data stores, run a port check against PostgreSQL, Redis or Valkey, RabbitMQ and the S3-compatible storage endpoint from outside the private network. The expected result for every one is a refused or filtered connection. Only test the listed ports and hosts that you own, and get the scope in writing from the network owner before scanning.

Secrets are the control most often broken quietly. Pull the images you deployed and search their filesystem layers, build history and environment definitions for database passwords, storage keys, the Django secret and API tokens. Then trigger a sign-in, an invitation and a deliberate error, and search the application, proxy and worker logs for the same values. A pass means no credential appears in any image layer or log line, and that each secret is injected at runtime from your secret store. Confirm the setting names and log formats against the Plane release you run, since they can change between releases.

The restore test proves that your backups are usable, which a successful backup job does not show. Restore the most recent PostgreSQL dump and the matching object storage bucket into a separate environment that has no route to production. Start a test instance against them using the same Plane version that produced the backup. Then open a sample of attachments, confirm each one downloads intact, and check that work items keep their comments, states, cycles and modules. Record how long each step took, and compare the result with the recovery time and recovery point your business owners have approved. If the restored data does not match, treat the backup as failed.

Decide in advance what the platform does when a component fails, and test that it does so. For an expired certificate, use a staging certificate with a short validity period to confirm that expiry alerts fire before the date, and that the proxy stops serving sessions rather than continuing silently on an invalid certificate. For a failed backup job, force a failure and confirm that the alert reaches a named on-call owner and the security lead, and that the next upgrade or change is held until a good backup exists. Write the alert recipients, the escalation path and the hold rules into the runbook, and rehearse them once before go-live.

What to monitor, back up, patch and document after hardening

Hardening settings only stay secure if someone checks them over time. The four areas below cover what the operating team watches, how project data is recovered, how the platform stays current, and which records show that the approved configuration is still in place. Alerts, backup results and patch decisions should all land in the same operations register so that one owner can follow each item to closure.

Monitoring security-relevant signals

Route alerts for TLS certificate expiry on the public address, failed sign-in attempts, and every God Mode access event to a named owner. Add checks for backup job results and for disk use on object storage and PostgreSQL, because a full volume can stop uploads or writes before any application error is visible. Ask the team to confirm its alert thresholds, log retention period and who receives out-of-hours notices in its own environment.

Backups with tested restores

Scope backups to every stateful component: the PostgreSQL database, the S3-compatible object storage that holds attachments and uploads, and the configuration and secret values needed to rebuild the stack. Set the schedule from the recovery point and recovery time targets the business has agreed for project data. Keep at least one copy off the host running Plane, and run restore tests into a separate environment on a fixed cadence, recording how long the restore took and whether attachments opened correctly.

Patching by edition

Track each edition on its own release stream. Community, Commercial and Airgapped use separate codebases and release cycles, so a fix published for one does not automatically reach the others. The latest Community Edition release at the time of writing was v1.4.2, published in August 2026, but your edition and version may differ, so check the release notes for your own edition before each decision. Read every release for security fixes, test the update in a non-production copy, then roll it out. The mechanics are covered on the separate upgrade page.

Access records and runbooks

Keep an access register that lists every person holding God Mode access, the reason for it, who approved it and when it was last reviewed. Maintain a configuration baseline that records the hardened settings for sign-up restrictions, TLS, and external database and object storage connections, along with the versions deployed, so that drift shows up during review. Write runbooks for certificate renewal, credential rotation, restore and patch rollback, and have someone other than the author walk through each one before it is needed.

What buyers ask before hiring help with Plane security hardening

How much does Plane security hardening cost?

The cost is set by the written scope, and DeployOpen does not publish a price list. The main drivers are how many components are in scope (the application, PostgreSQL, Redis or Valkey, RabbitMQ and S3-compatible object storage if any run as external services), whether the deployment uses Docker Compose or Kubernetes with Helm, how many hosts, clusters and environments change, and how much identity and backup tooling must be documented or integrated. Most of the work is one-time, such as the baseline review, configuration changes, TLS and access setup and handover. Patching, backup checks and upgrades recur if you add a retainer. Plane's own subscription is a separate line item: its pricing page lists Pro at 6 to 8 US dollars and Business at 13 to 15 US dollars per user per month, and those apply only if you buy a paid plan. Ask for a quote that lists each component, each environment and each exclusion.

How long does Plane security hardening take to complete?

The timeline is set in the written scope, and it depends on your environment rather than on a fixed duration. The biggest factors are the deployment method, whether PostgreSQL, the cache and object storage already run as managed external services, how many environments such as test and production need the same controls, how many access decisions need your sign-off, and how quickly your team can provide hosts, cluster access and change windows. Changes to God Mode access, TLS, sign-up restrictions and backup or patching routines each need testing in a non-production copy before production. Delays usually come from waiting on decisions or approvals, more than from the configuration work itself. Ask for a plan with milestones and a list of client dependencies for each one.

What does the client team need to provide for hardening?

The client team needs to name owners and provide access. Name one owner each for the Plane workspace, the infrastructure, the identity provider, the database and object storage, and backups. Provide access to the Kubernetes cluster or Docker hosts, and to the consoles or admin interfaces for PostgreSQL, the cache and object storage. If SAML or OIDC is in scope, provide identity provider details such as metadata, application registration and group mappings. Your team also signs off on access decisions, including who holds God Mode access, which sign-up paths stay open and who approves exceptions. Finally, provide your backup retention and recovery expectations and the change windows you allow for testing and cutover.

Can our internal team harden Plane without a partner?

A team with Linux, container or Kubernetes, PostgreSQL, object storage and identity experience can do much of this work internally. The work is mostly configuration, testing and documentation, and it becomes harder when several components and environments change at once. Plan for three areas that teams often underestimate. First, identity integration needs the right plan level, because SAML and OIDC on self-hosted Plane are listed for Pro and above. Second, backup restores need testing, not just scheduled jobs. Third, every access decision needs a record that someone can review later. A partner is useful when the deadline is tight, the scope spans several systems or you need an independent review of your configuration.

Does Plane security hardening make our instance compliant?

No single hardening project makes an instance compliant. Hardening can put controls in place and produce evidence that an assessor can review, but an independent auditor or certification body issues any audit report, attestation or certification. DeployOpen prepares systems, controls and evidence for compliance assessments and does not issue reports itself. Your compliance scope comes from the framework you are assessed against and from your organization's own boundaries, and Plane is one component within that scope. Ask your assessor early which evidence they expect for access control, encryption in transit, logging, backup and change management, then map each item to a configuration setting or a documented procedure. Keep dated records of admin access grants and sign-up setting changes.

What does a fixed-scope Plane hardening engagement cover?

A fixed-scope engagement covers the work listed in the written scope, and deliverables and timelines are agreed in writing before work starts. For this topic, scope items commonly include a baseline review of the current instance, changes to God Mode access and admin accounts, TLS configuration, sign-up restrictions, access controls for external PostgreSQL and S3-compatible object storage, backup and restore checks, a patching routine and documentation for your team. Work outside the written scope, such as data migration, a new identity integration or edition changes, needs its own agreement. Ongoing support, upgrades and continuous testing are available as retainers. Before signing, confirm which environments, components and handover materials the scope names.

Which Plane edition should we harden, Community or Commercial?

The edition decides which features and release cycle you harden, so confirm it before scoping. Plane Community Edition is licensed under AGPL-3.0 and matches the feature set of the Plane Cloud Free tier. The Commercial and Airgapped editions are proprietary, and each has its own codebase and release cycle. Moving a Community install to a paid plan requires switching to the Commercial Edition, which uses a license key and counts seats by users with paid roles. The Kubernetes guide installs the Commercial Edition. LDAP support and API-enabled audit logs are listed as Enterprise features. Ask for the hardening plan for your chosen edition, and check its release notes before each upgrade.

How DeployOpen scopes, builds, hands over and supports Plane hardening

DeployOpen hardens self-hosted Plane inside your own cloud accounts, data centers or air-gapped network, so the instance, its database, object storage and backups stay under your control. Each engagement starts from a written scope that names the edition, deployment method and components in play.

How we scope

Confirm which Plane edition runs in your environment, since Community, Commercial and Airgapped are separate codebases with their own release cycles.
Record the deployment method, whether Docker Compose or Kubernetes with Helm, and every external PostgreSQL, Redis or Valkey, RabbitMQ and S3-compatible storage dependency.
Agree in writing which hardening areas are in scope, such as God Mode access, TLS, sign-up restrictions, storage security, backups and patching.

How we build

Review the current configuration against the agreed scope and document the baseline before changing anything.
Apply changes to admin access, TLS termination, sign-up controls and external database and object storage settings in a staging copy first.
Test each control after it is applied, then record the result, the setting changed and the rollback step in the engagement evidence.

How we hand over

Deliver a written hardening record that lists each setting, its value, its owner and the reason it was chosen.
Provide backup and restore procedures for the database and object storage, including a test restore that your team can repeat.
Walk your administrators through the patching process, including how to check release notes before upgrading each edition.

How we support

Engagements are fixed-scope, and ongoing support, upgrades and continuous testing are available as a retainer.
Retainer work can cover re-checking hardening settings after each Plane release and reviewing backup job results.
Ask any provider to confirm in the quote which upgrades, patch reviews and backup checks are included and how they are billed.