******************* General Information ******************* Basic features of RectiPy ------------------------- - Frontend: - implement models via the `PyRates `_ frontend - choose between `YAML` templates or `Python` classes to define your RNN - choose between various pre-implemented neuron models or implement your custom neuron model - add synaptic dynamics and/or delayed coupling - implement spiking or rate-based neuron models - full control over the RNN parameters that can be trained: Choose between synaptic weights, membrane time constants of neurons, ... - run pre-implemented training and testing workflows via a single function call, OR use any :code:`rectipy.Network` as a single unit/layer within your own, custom `torch` code - track any state variable of your model with any temporal resolution during training/testing/simulation procedures - Backend: - make full use of the `PyTorch `_ backend - full support of `autograd` for your parameter optimization - use any loss function and optimization algorithm available in `torch` - deploy your model on different hardware Reference --------- If you use `RectiPY`, please cite the most recent release: .. image:: https://zenodo.org/badge/523464500.svg :target: https://zenodo.org/badge/latestdoi/523464500 Contact ------- If you have questions, problems or suggestions regarding RectiPy, please contact `Richard Gast `_. Contribute ---------- RectiPy is an open-source project that everyone is welcome to contribute to. Check out our `GitHub repository `_ for all the source code, open issues etc. and send us a pull request, if you would like to contribute something to our software. Useful links ------------ `RectiPy` makes use of two essential Python tools: - Frontend: `PyRates `_ - Backend: `PyTorch `_ Each of these two Python tools comes with an extensive documentation that is complementary to the content covered on this documentation website.