The official re-implementation of the Neurips 2021 paper, "Targeted Neural Dynamical Modeling".

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Deep Learning tndm
Overview

Targeted Neural Dynamical Modeling

Python Tests codecov TensorFlow Requirement: 2.x

Note: This is a re-implementation (in Tensorflow2) of the original TNDM model. We do not plan to further update the original model, but to view it, please check out the following repo: https://github.com/HennigLab/tndm_paper. We find that the outputs for the two models are very similar when given similar parameters.

Latent dynamics models have emerged as powerful tools for modeling and interpreting neural population activity. Recently, there has been a focus on incorporating simultaneously measured behaviour into these models to further disentangle sources of neural variability in their latent space. These approaches, however, are limited in their ability to capture the underlying neural dynamics (e.g. linear) and in their ability to relate the learned dynamics back to the observed behaviour (e.g. no time lag). To this end, we introduce Targeted Neural Dynamical Modeling (TNDM), a nonlinear state-space model that jointly models the neural activity and external behavioural variables. TNDM decomposes neural dynamics into behaviourally relevant and behaviourally irrelevant dynamics; the relevant dynamics are used to reconstruct the behaviour through a flexible linear decoder and both sets of dynamics are used to reconstruct the neural activity through a linear decoder with no time lag. We implement TNDM as a sequential variational autoencoder and validate it on recordings taken from the premotor and motor cortex of a monkey performing a center-out reaching task. We show that TNDM is able to learn low-dimensional latent dynamics that are highly predictive of behaviour without sacrificing its fit to the neural data.

Installing the package

In a virtual environment, install all the dependencies and the package using the following commands:

pip install -e .

Getting started

python tndm -r <your-settings>.yaml
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Comments
  • Refactor models and losses

    Refactor models and losses

    This refactoring is necessary if we want to work with different likelihoods for neural and behavioral data.

    Before this commit: every loss function was receiving everything (all initial conditions, latents, rates, etc.), including unnecessary data; Now: loss functions only get what they need as inputs, loss terms are explicitly written in models

    1. Make inputs to loss functions explicit (no getters with magic numbers)
    2. model.call() does not return inputs anymore, which was confusing and potentially misleading
    3. Behavioral scale added: this parameter should make the model invariant to the scale of behavioral data
    4. Add 'full' and 'causal' decoders (like in the old code)
    5. Fix TNDM model saving: now decoder dimensions are saved
    opened by NinelK 3
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