lisagwresponse 3.0.2

Compute the LISA link responses to gravitational waves in the time domain

LISA GW Response

LISA GW Response is a Python package computing the instrumental response to gravitational-waves, and produce a gravitational-wave (GW) file compatible with LISA Instrument and LISANode.

Contributing

Report an issue

We use the issue-tracking management system associated with the project provided by Gitlab. If you want to report a bug or request a feature, open an issue at https://gitlab.in2p3.fr/lisa-simulation/gw-response/-/issues. You may also thumb-up or comment on existing issues.

Development environment

Start by cloning the project repository,

git clone [e-mail]:lisa-simulation/gw-response.git
cd gw-response

This project uses Poetry 2 to manage dependencies and packaging. Poetry can prepare a virtual environment for developement, and is used to build the package.

To run a command inside the project development environement, use

poetry run <YOUR-COMMAND>

You can also explicitely create a virtual environement with

poetry install

You can then activate your environement or setup VS Code to use it.

Remember to synchronize your environement whenever the dependencies change, using the command

poetry sync

Refer to the Poetry documentation for more information.

Pre-commit hooks

We recommend you install pre-commit hooks to detect errors before you even commit.

poetry run pre-commit install

You can then run the pre-commit hooks manually with

poetry run pre-commit run --all-files

Syntax

We enforce PEP 8 (Style Guide for Python Code) with Pylint syntax checking, and code formatting with Black. Both are implemented in the continuous integration system, and merge requests cannot be merged if it fails. Pre-commit hooks will also run Black before you commit.

You can run them locally with

poetry run pylint lisaorbits
poetry run mypy lolipops
poetry run black --check .

Note that VS Code can be configured to run Black when saving a file, and to display Pylint errors in the editor.

Unit tests

Correction of the code is checked by the pytest testing framework. It is implemented in the continuous integration system, but we recommend you run the tests locally before you commit, with

poetry run pytest

Note that VS Code can be configured to run the tests easily.

VS Code tasks

Convenient scripts are available to run in VS Code for common developement or maintenance tasks, such as running the pre-commit hooks, formatting with Black, building the documentation or building the package.

They are located in ".vscode/tasks.json". In VS Code, you can run them by opening the command palette (Cmd + Shift + P) and choosing "Tasks: Run Task...".

Workflow

The project's development workflow is based on the issue-tracking system provided by Gitlab, as well as peer-reviewed merge requests. This ensures high-quality standards.

Issues are solved by creating branches and opening merge requests. Only the assignee of the related issue and merge request can push commits on the branch. Once all the changes have been pushed, the "draft" specifier on the merge request is removed, and the merge request is assigned to a reviewer. He can push new changes to the branch, or request changes to the original author by re-assigning the merge request to them. When the merge request is accepted, the branch is merged onto master, deleted, and the associated issue is closed.

Use policy

The project is distributed under the 3-Clause BSD open-source license to foster open science in our community and share common tools. Please keep in mind that developing and maintaining such a tool takes time and effort. Therefore, we kindly ask you to

• Cite the DOI (see badge above) in any publication
• Acknowledge the authors (below)
• Acknowledge the LISA Simulation Expert Group in any publication

Do not hesitate to send an email to the authors for support. We always appreciate being associated with research projects.

Authors

• Jean-Baptiste Bayle ([e-mail])
• Quentin Baghi ([e-mail])
• Arianna Renzini ([e-mail])
• Maude Le Jeune ([e-mail])