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woodpecker-ci.org

Woodpecker is a simple, yet powerful CI/CD engine with great extensibility.

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What is Woodpecker CI?

Woodpecker CI is an open-source continuous integration and delivery (CI/CD) engine that runs your build, test, and deployment pipelines inside Docker containers. It is designed to be simple to set up but extensible: when a plain Docker image isn't enough for a pipeline step, you can write plugins to add functionality.

The container-based approach is the key design choice. Each pipeline step executes in its own container, which keeps builds isolated and reproducible, and means anything you can package as a Docker image can become a step in your workflow. Woodpecker also supports multiple workflows per project, and those workflows can depend on one another, so you can model sequences like "build, then test, then deploy" or fan out into parallel jobs.

Who it tends to suit

  • Teams that already think in Docker and want CI configuration that maps cleanly onto containers.
  • Self-hosters who want to run CI on their own infrastructure rather than a hosted service.
  • Projects that need custom pipeline behavior and are willing to build small plugins for it.

Trade-offs to weigh

  • Because it is self-hosted and open-source, you (or your team) are responsible for running and maintaining the server and runners.
  • Plugin-based extensibility is powerful but means non-standard steps require extra work compared with a large marketplace of ready-made actions.
  • If you want a fully managed service with zero operational overhead, a hosted CI product will usually be less effort.

A useful next step

Pick one small repository and try modeling its current build as a single Woodpecker workflow with two or three container steps. If the steps map cleanly to images you already use, Woodpecker is likely a good fit; if you find yourself needing many custom plugins for basic tasks, that's a signal to compare it against alternatives such as GitHub Actions or GitLab CI/CD before committing.

How does Woodpecker CI compare to other CI/CD tools like Jenkins or GitLab CI?

Woodpecker CI positions itself as a lightweight, container-native alternative to heavier CI/CD platforms. Its own description emphasizes three things: it is open-source and free, it executes pipeline steps in Docker containers, and it supports plugins and multiple interdependent workflows. Compared with Jenkins and GitLab CI, the main differences are in setup effort, ecosystem breadth, and how tightly the tool is bound to a code-hosting platform.

How the three differ in practice

Aspect Woodpecker CI Jenkins GitLab CI
Execution model Docker containers for pipeline steps Agents with plugins; containers optional Runners executing jobs, often in containers
Extensibility Plugins built as container images Very large plugin ecosystem CI/CD components, templates and integrations
Configuration Pipeline defined per project, supports multiple workflows Jobs defined in Jenkinsfiles or UI .gitlab-ci.yml in the repository
Platform fit Standalone, works with common Git hosts Standalone, host-agnostic Deepest integration with GitLab itself
Typical trade-off Simpler and lighter, smaller ecosystem Maximum flexibility, more maintenance Convenient if you already use GitLab

What this means for different teams

For a small team already comfortable with Docker, Woodpecker's container-based steps and plugin model keep pipelines portable and easy to reason about. The multi-workflow support is useful when a project needs separate pipelines that depend on one another, such as build, then test, then deploy.

Jenkins remains the choice when you need to orchestrate unusual environments, legacy build tools, or a very specific plugin that only exists there. The cost is operational: someone has to maintain the controller and agents.

GitLab CI is strongest when your repositories already live on GitLab, because configuration, runners and permissions are managed in one place. If you use GitLab but want a lighter runner model, comparing Woodpecker's container steps against GitLab runners is a reasonable exercise.

A practical next step

Pick one real pipeline from your current setup, such as "build, run tests, push an image." Rewrite it in Woodpecker's model and note how many plugins or custom scripts you needed. If the answer is "one or two container images," Woodpecker is likely a good fit; if it is "a dozen third-party plugins," Jenkins or GitLab CI may save you more time. You can review the project and its documentation at Woodpecker CI.

How do I install and set up Woodpecker CI for my project?

Woodpecker CI is a self-hosted, container-based CI/CD engine, so "installation" means two things: running the Woodpecker server and agent on a machine you control, then connecting it to your Git repository. It is free and open source, and pipeline steps run as Docker containers, which is what makes setup feel familiar if you already write Dockerfiles or Compose files.

The setup path

  1. Pick a host. A small VPS or an internal server is typical. You need Docker (or a compatible container runtime) available, since pipeline steps execute in containers.
  2. Choose your Git forge. Woodpecker integrates with Git hosting providers; you enable OAuth on the forge side and give Woodpecker the client ID and secret so it can read repositories and report build status.
  3. Run the server. The server handles the web UI, API, and scheduling. You expose it on a domain with TLS, and configure the forge connection and a shared secret for agents.
  4. Run at least one agent. The agent does the actual work: it receives pipeline jobs from the server and launches the container steps. You can run agents on the same machine or add more later for capacity.
  5. Activate a repository. In the Woodpecker UI, enable the repo you want to build. From that point, pushes and pull requests trigger pipelines.
  6. Add a pipeline file. Commit a .woodpecker.yml (or the equivalent file name in your chosen configuration) to the repository root describing your steps, for example install dependencies, run tests, build an image.

A concrete first pipeline

A minimal starting point for a typical web project looks like this in shape: a step that pulls a language runtime image, a step that installs dependencies, and a step that runs the test command. Once that is green, add a step that builds and pushes a container image, and a deploy step that runs only on your main branch. Woodpecker's multi-workflow support lets you split these into separate workflows that can depend on one another, so a deploy workflow can wait for a test workflow to succeed.

Decisions worth making early

Decision Why it matters
Where the server runs Public reachability is needed for forge webhooks; internal-only hosts require extra networking work
How many agents One agent is fine to start; more agents mean parallel jobs and less queueing
Docker socket access Steps that build images often need it, but it widens what a pipeline can do on the host
Secrets handling Registry credentials and deploy keys belong in Woodpecker secrets, not in the pipeline file

When this fits, and when it doesn't

Woodpecker suits teams that want CI on their own hardware, want to avoid per-minute billing, and are comfortable running a service. The trade-off is that you own upgrades, backups, agent capacity, and uptime. If nobody on the team wants to maintain a server, a hosted CI service will be less work.

For exact commands, environment variables, and forge-specific OAuth steps, follow the official documentation at Woodpecker CI rather than adapting instructions written for other CI systems.

How do I create and configure a pipeline in Woodpecker CI?

A Woodpecker pipeline is defined in a YAML file named .woodpecker.yml (or .woodpecker.yaml) placed in the root of your repository. Each step in the pipeline runs inside a Docker container, so configuring a pipeline mostly means choosing an image and listing the commands that step should execute.

The basic shape of a pipeline

A minimal pipeline has a pipeline block, one or more named steps, and for each step an image and a commands list:

pipeline:
  test:
    image: node:20
    commands:
      - npm install
      - npm test

Woodpecker reads this file when a relevant event occurs in the repository, then schedules each step as a container. Steps run in the order you list them; if a command fails, the pipeline stops by default.

Events, conditions and multiple workflows

You control when a pipeline runs with conditions rather than a separate config file per branch. A step or whole pipeline can be limited to events such as push, pull_request, tag or manual. This is the usual way to separate "run tests on every pull request" from "build and publish an image only on tags."

Woodpecker also supports multiple workflows in one file. Each workflow is its own block with its own steps, and workflows can depend on each other, so you can express things like "deploy only after both the test and lint workflows succeed." That is the feature to reach for when a single linear list of steps becomes hard to read.

Extending steps with plugins

If a plain Docker image is not enough, you can use or write a plugin. Plugins are themselves container images that receive settings from your YAML, which keeps common tasks (publishing, notifications, caching, deployments) short in the pipeline file instead of a long shell script. This is the main extensibility path described for the project.

A practical first setup

  1. Add .woodpecker.yml to the repository root with one step that installs dependencies and runs your test command.
  2. Push a branch and open a pull request to confirm the pipeline is triggered and the container runs.
  3. Add a condition so heavier steps (builds, deploys) only run on tags or on the default branch.
  4. Split unrelated concerns into separate workflows once the file grows, and use workflow dependencies to keep ordering correct.
  5. Move repeated shell logic into a plugin or a shared script when the same block appears in several pipelines.

Choosing between approaches

Approach Best for Trade-off
Single pipeline, several steps Small projects, one clear build-and-test path Gets long and slow as the project grows
Conditions on steps Branch- or tag-specific behaviour Conditions can become hard to trace in a large file
Multiple workflows with dependencies Parallel jobs, staged deploys More structure to maintain and reason about
Plugins Reusable tasks across projects You depend on the plugin's image and its settings

If you are evaluating whether Woodpecker fits your team, the deciding factor is usually how much you value a lightweight, container-based engine you can self-host and extend, versus a hosted service with a larger built-in marketplace. For the exact syntax of conditions, workflow dependencies and plugin settings, check the project's documentation at Woodpecker CI before writing a large config, since these details are version-sensitive.

How can I write a custom plugin for Woodpecker CI?

Write a plugin as a Docker container that reads Woodpecker's environment variables, does one job, and exits with a status code: 0 for success, non-zero for failure. Woodpecker runs each pipeline step as a container, so anything you can package as an image can be a plugin.

What a Woodpecker plugin actually is

There is no separate plugin SDK or registration step described on Woodpecker CI. A plugin is a Docker image your pipeline calls as a step. Woodpecker injects configuration through environment variables, so your container's entrypoint reads those variables and performs the task.

Practical steps

  1. Write a small program or shell script that reads its settings from environment variables (for example PLUGIN_MESSAGE, PLUGIN_WEBHOOK_URL).
  2. Package it in a Dockerfile with an ENTRYPOINT that runs your script.
  3. Publish the image to a registry your Woodpecker instance can pull from.
  4. Reference it in .woodpecker.yml as a step, passing settings as settings: keys, which Woodpecker maps to PLUGIN_* variables.
  5. Test with a dry run or a throwaway branch, and make failures loud via exit codes and stderr output.

Design decisions that matter

  • Statelessness: keep the container self-contained; don't rely on files persisting between steps unless you use a shared workspace volume.
  • Secrets: read tokens from Woodpecker secrets rather than baking them into the image.
  • Idempotency: a retried step should be safe to run twice, especially if it posts comments or deploys.
  • Log clarity: log the action and the outcome, but never the secret values.
  • Image size: a slim base image speeds up every pipeline run that uses the plugin.

Example shape

steps:
  - name: notify
    image: your-registry/woodpecker-notify:1.0.0
    settings:
      webhook_url: https://example.com/hook
      message: "Build finished"

Woodpecker turns webhook_url into PLUGIN_WEBHOOK_URL inside the container.

When this is the right approach

Build a custom plugin when an existing image doesn't cover your task, when you need your own credentials or API logic, or when several projects should share the same step. If a shell command in a standard image already does the job, a one-line step is simpler and easier to maintain.

Next step: scaffold the smallest possible plugin — a container that prints its PLUGIN_* variables — run it once, then add real logic.

How does Woodpecker CI handle multiple workflows and dependencies between them?

Woodpecker CI supports multiple workflows per project, and those workflows can be set to depend on one another. The project describes this as a core capability: you can “easily create multiple workflows for your project” and they “can even depend on each other.” That means a pipeline can be split into separate units rather than one long sequence, with execution order controlled where needed.

In practice, this matters when a project has distinct stages that should not all run together or all block each other. A typical setup might separate build, test, and deploy into different workflows, then let deploy wait on the earlier ones. Because Woodpecker runs pipeline steps in Docker containers, each workflow can use the image and tooling its stage needs, and plugins can extend what a step does when a plain image is not enough.

A useful way to think about the trade-off:

  • One workflow: simplest to read and debug, but every step runs in one chain, so a slow or failing early step holds up everything after it.
  • Multiple independent workflows: faster feedback because they can run in parallel, but you must manage more configuration and decide what happens when one fails.
  • Multiple dependent workflows: gives you ordered stages and clear gates, but adds coordination complexity and can lengthen total run time when dependencies are strict.

For a concrete scenario: a small web app might use one workflow for linting and unit tests that run in parallel, then a separate deploy workflow that depends on both. If the tests fail, deploy never starts. If you only need a quick check on a pull request, independent workflows give you results sooner.

Next step: sketch your pipeline as stages, mark which stages truly must wait for others, and group only those into dependent workflows. Keep everything else parallel. The Woodpecker docs are the right place to confirm the exact syntax for defining workflows and their dependencies before you commit to a structure.

Related questions

More questions →
What is Woodpecker CI?

Woodpecker CI is an open-source, free CI/CD engine that runs pipeline steps inside Docker containers. It fits teams or individuals who want a self-hostable continuous integration system that stays simple to operate but can be extended through plugins and multiple interdependent workflows. If you need a hosted-only service or a system that does not rely on Docker for step execution, Woodpecker is not the direct match.

Core characteristics

Open source and free

Woodpecker is and always will be totally free, and its source code is open-source, so you can contribute to help evolve the project. This matters if licensing cost or vendor lock-in is a deciding factor for your CI choice.

Docker-based pipeline execution

Woodpecker uses Docker containers to execute pipeline steps. Each step runs in a container, which means the environment for a step is defined by the image you choose rather than by the host machine's installed tooling.

Extensibility through plugins

If you need more than a normal Docker image, you can create plugins to extend pipeline features. Plugins are the mechanism for packaging custom behavior so it can be reused across pipelines.

Multiple workflows with dependencies

Woodpecker allows you to easily create multiple workflows for a project, and those workflows can even depend on each other. This is useful when a project has distinct stages or targets that should run in a defined order rather than as one flat pipeline.

What problem it solves

Need How Woodpecker addresses it
Avoid CI licensing costs Free and open-source
Reproducible build environments Steps execute in Docker containers
Custom pipeline behavior Plugins extend pipeline features beyond standard images
Multi-stage or multi-target projects Multiple workflows, optionally dependent on each other
Simplicity without losing power Described as simple yet powerful, with extensibility

When to consider it

  • You want a CI/CD engine you can run and inspect yourself, built on Docker.
  • Your pipelines benefit from containerized steps and you are comfortable defining steps as container images.
  • You have project structures that map naturally to several workflows with ordering between them.
  • You may need custom step behavior and are willing to build a plugin rather than only use off-the-shelf images.

When to look elsewhere

  • You require a fully managed CI service and do not want to operate the engine.
  • Your environment cannot use Docker containers for pipeline steps.
  • You need capabilities that are neither covered by standard Docker images nor by writing a plugin.

Next step

To evaluate it concretely, start from the official site and docs: review how a pipeline step is defined as a container, then check the plugin mechanism and the multi-workflow documentation to confirm they match your project's structure.

How does Woodpecker CI use Docker and plugins?

Woodpecker CI runs every pipeline step inside a Docker container, and when a standard image can't do what you need, you extend the pipeline by building a plugin. That design is the core of how the engine executes work: instead of running commands directly on the host, each step is isolated in a container, and plugins are just containers with a defined interface that Woodpecker calls. This applies to any project where you want reproducible, isolated build steps and reusable custom logic.

Docker as the execution model

Woodpecker is based on Docker containers and uses them to execute pipeline steps. The practical consequence is that a step isn't a shell command running on the agent host — it's a container started from an image you specify, with your commands or the image's entrypoint running inside it.

This gives you a few concrete properties:

  • Isolation per step. Each step gets its own container, so tool versions, environment variables, and filesystem changes don't leak between steps unless you explicitly share them (for example through a workspace volume).
  • Reproducibility. The image tag pins the environment. A step that passes on one agent should behave the same on another, because the container is the unit of execution rather than the host's installed toolchain.
  • Image choice as configuration. Selecting a language runtime, a database client, or a build tool is mostly a matter of picking the right image for that step.

A typical pipeline therefore looks like a sequence of steps, each naming an image and the commands to run inside it. The agent pulls the image, starts the container, executes the step, and reports the result back.

When a normal Docker image isn't enough

The documented boundary is explicit: if you need more than a normal Docker image, you can create plugins to extend the pipeline features. So the decision point is whether an existing image plus a command list covers your need.

Use a plain image when:

  • The task is "run these commands with this toolchain" (build, test, lint, package).
  • The behavior is fully described by the image's contents and the commands you pass.
  • You don't need to react to Woodpecker's pipeline metadata in a structured way.

Build a plugin when:

  • You want reusable logic that other pipelines can call with parameters rather than copy-pasted commands.
  • The step needs to integrate with Woodpecker's execution context in a defined way.
  • You're packaging a capability (deploy target, notification channel, artifact handler) that should behave consistently across projects.

How plugins extend the pipeline

A plugin in Woodpecker is essentially a container with a defined contract: Woodpecker runs it as a step and passes configuration in, and the plugin performs its work and returns a result. Because the mechanism is container-based, anything you can package into an image can become a plugin.

The practical workflow is:

  1. Identify the repeated or specialized task that a plain image plus commands handles awkwardly.
  2. Package it as a container image that reads its configuration from the environment or step settings.
  3. Reference it as a step in the pipeline, supplying the settings for that particular use.
  4. Verify by running the pipeline and checking that the plugin step receives its inputs and produces the expected effect (artifact, deployment, message, exit status).

The benefit of this over inlining commands is reuse and consistency: the logic lives in one image, and every pipeline that needs it calls the same versioned artifact.

Multi-workflow pipelines

Woodpecker also allows you to easily create multiple workflows for your project, and they can even depend on each other. Combined with container-based steps, this means you can structure a pipeline as several workflows — for example separate build, test, and deploy flows — with explicit dependencies between them, each workflow made of containerized steps and plugin steps.

What this buys you

  • Portability. The execution environment travels with the pipeline definition as image references, not as host setup.
  • Extensibility without forking. Plugins let you add capability through images rather than modifying the engine.
  • Composability. Multiple workflows with dependencies let you model real delivery stages instead of one long linear script.

Choosing between an image and a plugin

Situation Use
Run standard commands with a known toolchain A normal Docker image
Need behavior beyond a normal image A plugin
Logic reused across many projects A plugin
One-off commands specific to a single repo A normal Docker image
Multiple related stages with ordering Multiple workflows with dependencies

If your step is "install dependencies and run tests," an image is enough. If your step is "publish to our internal system in a standard way that every repo should follow," that's the case the docs point to for building a plugin.

Woodpecker is open source and free, and because the source is open you can contribute to help evolve the project — which also means you can inspect how the container and plugin execution actually works if you need to go deeper than the documented behavior.

Is Woodpecker CI free and open source?

Yes. Woodpecker CI is open source and, according to its website, "is and always will be totally free." That statement covers the software itself: you can download, run, modify, and contribute to it without paying a license fee. It does not mean your total CI/CD cost is zero, because you still supply the infrastructure the pipelines run on.

What "free" actually covers

The project's own framing is straightforward: the source code is open source, and the software is free to use. In practice that means:

  • No license cost. You are not buying seats, build minutes, or a subscription from the project.
  • You can contribute. Because the code is open source, you can help evolve the project — bug fixes, features, docs, or plugins.
  • You can inspect and modify it. Open source means the implementation is available to read and change, which matters if you need to audit behavior or adapt it to your setup.

What it does not cover

Free software is not the same as free hosting. Woodpecker runs your pipeline steps in Docker containers, so the compute, storage, and network come from wherever you deploy it. If you self-host on your own machine or a server you already pay for, the marginal cost can be near zero. If you rent a VPS or cloud instance to run it, that bill is yours.

The same logic applies to maintenance: no vendor is charging you, but someone has to run upgrades, manage secrets, and keep the server healthy.

Open source and extensibility

The open-source nature connects directly to how you extend Woodpecker. Pipelines execute as Docker containers, and when a plain Docker image is not enough, you can write plugins to add pipeline features. Because the engine is open source, plugin and pipeline behavior is something you can verify rather than take on faith — useful when a step needs to do something unusual.

Woodpecker also supports multiple workflows for a project, and those workflows can depend on each other. That lets you split a large pipeline into stages that run in a controlled order instead of one long job.

How this differs from commercial CI/CD services

Dimension Woodpecker CI Typical commercial CI/CD service
Software cost Free, per the project Usually subscription or usage-based
Source code Open source, contributable Usually closed
Where pipelines run Your Docker environment Vendor-hosted runners (often with paid tiers)
Cost driver Your infrastructure and upkeep Seats, build minutes, or plan tier
Extension model Docker images and custom plugins Vendor-defined integrations and marketplace

The practical takeaway: choose Woodpecker when you want no license fee, control over where builds run, and the ability to read and modify the engine. Choose a commercial service when you would rather pay someone else to host runners and handle operations.

Before you decide

Two things are worth confirming for your own situation, since the project page does not spell them out:

  1. Where you will host it. Self-hosting shifts cost from a subscription to servers and maintenance.
  2. What your pipelines need. If your steps fit standard Docker images, setup is simpler; if not, plan for plugin work.

If you want to check current capabilities, workflow configuration, or contribution paths, the project's documentation is the authoritative source.

How Multiple Workflows Work in Woodpecker CI

Woodpecker CI lets you define more than one workflow for a single project, and those workflows can depend on each other. That means you can split a pipeline into separate units — for example, a build workflow and a deploy workflow — and control the order in which they run instead of forcing everything into one linear sequence. This is useful when different parts of your pipeline have different triggers, different execution needs, or should only run after another part succeeds.

What a "workflow" means in Woodpecker

Woodpecker executes pipeline steps inside Docker containers. A workflow is a named group of those steps. When you define multiple workflows, each one is its own unit with its own steps, and Woodpecker runs them according to the dependencies you declare.

The practical consequence: instead of one long pipeline where every step waits on the previous one, you get several pipelines that can run independently or in a defined order.

How dependencies between workflows work

The key capability is that workflows "can even depend on each other." In practice this means you express a relationship such as "workflow B runs only after workflow A completes." Woodpecker then schedules them accordingly rather than starting everything at once.

This matters because:

  • Ordering is explicit. You decide which workflow gates which, instead of relying on step position inside a single pipeline.
  • Failure is contained. If a dependency fails, the dependent workflow does not proceed, which keeps a broken build from triggering a deploy.
  • Independent work stays independent. Workflows without a dependency relationship are not forced to wait on each other.

Typical scenarios for multiple workflows

Multiple workflows fit situations where a single pipeline would be awkward:

Scenario Why multiple workflows help
Build then deploy Deploy depends on a successful build, so it runs only after build passes
Separate concerns (lint, test, build) Each concern is its own workflow with its own steps and container images
Different triggers per task A workflow can be scoped to the events it should respond to
Reusable structure across projects Workflows can be composed rather than duplicated as one large pipeline

For example, a project might have a test workflow that runs on every push and a release workflow that depends on test and only proceeds once tests pass.

How to configure it

Woodpecker's own documentation is the authoritative place to configure multi-workflow setups, including how dependencies are declared. The site points readers to "Check out the docs" for this. Because the exact syntax and available options live in the docs and can change, treat the documentation as the source of truth rather than copying a config from a blog post.

A reasonable approach:

  1. Read the Woodpecker docs section on workflows and dependencies.
  2. Define your first workflow with its steps.
  3. Add a second workflow and declare its dependency on the first.
  4. Push and confirm in the Woodpecker UI that the second workflow waits for the first.

What to keep in mind

  • Woodpecker is open source and, per its site, "is and always will be totally free," so there is no paid tier gating multi-workflow features.
  • Steps run in Docker containers; if a normal image is not enough, you can build plugins to extend pipeline behavior.
  • The dependency behavior is a scheduling relationship, not a merge of the workflows — each remains a distinct unit.

If your pipeline is growing into a single long chain of steps, splitting it into dependent workflows is the intended way to keep it organized.

Where to Find Woodpecker CI Documentation and How to Contribute

Woodpecker CI's official documentation is reachable from its website, woodpecker-ci.org, which links to the docs and describes the project as an open-source, free CI/CD engine. The site states that Woodpecker "is and always will be totally free," that its source code is open-source so you can contribute, and that pipelines run in Docker containers with plugins available for extending pipeline features. If you want to start using it or help build it, the site itself is the entry point; the sections below cover what you'll find there and what to do next.

What Woodpecker CI Is

Woodpecker is a CI/CD engine built around Docker containers. Each pipeline step executes in a container, and when a normal Docker image isn't enough, you can write plugins to extend what a pipeline can do. The site also highlights multi-workflow support: you can define several workflows for one project, and they can depend on each other.

That combination — container-based steps, a plugin mechanism, and interdependent workflows — is the core of what the project offers, and it shapes both how you'd use it and how you'd contribute to it.

Finding the Documentation

The website is the starting point. From woodpecker-ci.org you can reach the project's docs, which cover how pipelines, plugins, and multi-workflow setups work. The site explicitly points readers to the docs for details on multiple workflows, so that's the place to go when you need configuration specifics rather than a general overview.

A practical path:

  1. Open woodpecker-ci.org.
  2. Follow the link to the documentation.
  3. Read the pipeline and plugin sections first if you plan to run builds, or the workflow section if you need several pipelines that depend on each other.

Getting the Source and Contributing

Because Woodpecker's source code is open-source, contributing is a stated option on the site — the project invites you to "contribute to help evolving the project." The site doesn't spell out a contribution process in the material available here, so the concrete steps (where the repository lives, how to open issues or pull requests, coding conventions) come from the docs and the repository itself rather than the landing page.

If you want to contribute, the realistic sequence is:

  • Read the docs to understand how pipelines, plugins, and workflows are structured.
  • Locate the source repository through the links on the site.
  • Start with the contribution guidance in the docs or repository before submitting changes.

What to Do Next

Goal Where to start
Understand the product woodpecker-ci.org overview
Configure pipelines and plugins The docs linked from the site
Set up multiple, interdependent workflows The docs section on multi workflows
Contribute code or fixes The open-source repository, reached via the site

The site confirms three things you can rely on: Woodpecker is free and open-source, pipelines run on Docker containers, and plugins extend pipeline features. Anything beyond that — installation steps, exact configuration syntax, contribution rules — lives in the documentation and repository, which is where you should go next.

Website Overview

Page metadata, canonical configuration and social previews work together to provide more consistent search and sharing presentation. An active inbound-mail setup with incomplete authentication may leave the domain more open to impersonation. Provider hosting alone does not close that gap.

Domain and Registration

Transfer-protection status is present, helping reduce the risk of unauthorized domain transfers. The domain has about 5 years of registration history; its current configuration provides more context than age alone. The registrar is Porkbun LLC, a widely used domain service provider. The domain uses the common .org extension, which is not an independent safety signal.

DNS and Email

MX records exist, but SPF, DKIM and DMARC were not detected. Protection against domain impersonation may be incomplete. Nameservers are provided by hetzner.de, indicating managed DNS hosting. MX records point to the porkbun.com email service. No CNAME was found; the observed records resolve directly to addresses. DNSSEC signatures were not detected, so this additional DNS authenticity protection is not confirmed.

TLS and Certificates

The certificate uses an RSA 2048-bit public key, offering broad client compatibility. The server supplied a complete certificate chain. No organization name is present in the certificate; the available fields are consistent with domain validation. The certificate was issued by Let's Encrypt, commonly associated with automated certificate services. The certificate's total validity is about 89 days, consistent with a short renewal cycle.

HTTP and Browser Security

The checked browser-security headers were not detected, leaving fewer explicit browser-side safeguards. CORS permits any origin to read this response. This is common for public resources; sensitive responses need narrower handling. No X-Powered-By header was found, reducing one common source of backend fingerprinting information. The x-cache, x-served-by, via response header indicates a CDN or caching proxy in the delivery path. No obvious internal addresses or debug information were found in the headers.

Technology Stack Analysis

The public page identifies Fastly without precise versions, leaving fewer clues for version-specific scanning.

Search and Social Sharing

The Generator tag identifies Docusaurus v3.10.2, making the publishing system easier to fingerprint. Open Graph is partially configured; og:image, og:type is missing. Twitter Card metadata is configured. The page declares 2 language or regional alternatives using hreflang. The title has 13 characters, within a common display range.

Hosting and Email

DNShetzner.de
HostingFastly
Emailporkbun.com
Approximate IP geolocation (inferred; a CDN or proxy may differ from the origin server) United States flagUnited States Inferred 185.199.110.153

Registration details

RDAP / WHOIS

RegistrarPorkbun LLC
Registered2021-09-19
Expires2027-09-19
Domain statusclient delete prohibited、client transfer prohibited
Nameservershelium.ns.hetzner.de、hydrogen.ns.hetzner.com、oxygen.ns.hetzner.com
DNSSECunsigned

DNS records

DNS

TypeNameValueTTLPriority
Awoodpecker-ci.org185.199.110.153300—
AAAAwoodpecker-ci.org2606:50c0:8002::153300—
MXwoodpecker-ci.orgfwd1.porkbun.com3001
MXwoodpecker-ci.orgfwd2.porkbun.com3001
NSwoodpecker-ci.orghelium.ns.hetzner.de300—
NSwoodpecker-ci.orghydrogen.ns.hetzner.com300—
NSwoodpecker-ci.orgoxygen.ns.hetzner.com300—

TLS and certificates

TLS / SSL

AssessmentNormal configuration
Supported protocolsTLSv1.2、TLSv1.3
Negotiated protocolTLSv1.3
Certificate subjectwoodpecker-ci.org
IssuerLet's Encrypt
Valid until2026-11-29T04:02 · Remaining when checked: 59 days
Verification detailsCertificate trust: Passed · Hostname match: Passed

HTTP response headers

HTTP

HeaderValue
content-typetext/html; charset=utf-8
cache-controlmax-age=600
serverGitHub.com
access-control-allow-origin*

Identified technologies

Fastly

Pages, Search and Sharing

Meta descriptionWoodpecker is a simple, yet powerful CI/CD engine with great extensibility.
Canonical URLhttps://woodpecker-ci.org/
LanguageEnglish (default)
Twitter Cardsummary_large_image

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