The x25519 provider offers functionalities for handling Curve25519 keys, specifically for generating private and public keys. It facilitates the creation of private x25519 keys and the corresponding public keys, primarily designed for use in scenarios like generating WireGuard VPN keys.
It provides resources that enable the seamless integration of private x25519 keys and the associated public keys into your Terraform deployments.
Official documentation on how to use this provider can be found on the Terraform Registry.
git clone
this repository andcd
into its directorymake
will trigger the Golang build
The provided GNUmakefile
defines additional commands generally useful during development,
like for running tests, generating documentation, code formatting and linting.
Taking a look at it's content is recommended.
In order to test the provider, you can run
make testacc
to run provider acceptance tests
It's important to note that acceptance tests (testacc
) will actually spawn
terraform
and the provider. Read more about they work on the
official page.
This provider uses terraform-plugin-docs
to generate documentation and store it in the docs/
directory.
Once a release is cut, the Terraform Registry will download the documentation from docs/
and associate it with the release version. Read more about how this works on the
official page.
Use make generate
to ensure the documentation is regenerated with any changes.
If running tests and acceptance tests isn't enough, it's possible to set up a local terraform configuration to use a development builds of the provider. This can be achieved by leveraging the Terraform CLI configuration file development overrides.
First, use make install
to place a fresh development build of the provider in your
${GOBIN}
(defaults to ${GOPATH}/bin
or ${HOME}/go/bin
if ${GOPATH}
is not set). Repeat
this every time you make changes to the provider locally.
Then, setup your environment following these instructions to make your local terraform use your local build.
This project uses GitHub Actions to realize its CI.
Sometimes it might be helpful to locally reproduce the behaviour of those actions, and for this we use act. Once installed, you can simulate the actions executed when opening a PR with:
# List of workflows for the 'pull_request' action
$ act -l pull_request
# Execute the workflows associated with the `pull_request' action
$ act pull_request
The release process is automated via GitHub Actions, and it's defined in the Workflow release.yml.
Each release is cut by pushing a semantically versioned tag to the default branch.