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    Portrait of Dominic Gonschorek

    Dominic Gonschorek

    Computational & Systems Neuroscientist

    Postdoctoral Researcher
    Euler Lab, University of Tübingen

    • Tübingen, Germany
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    News

    • Oct 2026
      Our paper on the functional organization of retinal input to the mouse superior colliculus has been accepted in Current Biology. Imaging more than 200,000 retinal ganglion cell axon boutons in vivo and combining the data with deep learning models, we find that nearly the full diversity of retinal ganglion cell types reaches the colliculus, organized in systematic functional gradients. Preprint · Code
    • Aug 2026
      Our All-GCL dataset paper is out in Scientific Data: two-photon recordings from more than 80,000 neurons in the mouse ganglion cell layer, with standardized metadata, pretrained cell-type classifiers, tutorials and analysis code. Paper · Code · Dataset
    • Jul 2026
      The openretina Project is now an eLife Reviewed Preprint. openretina is an open-source Python package for training, evaluating and comparing deep learning models of the retina across datasets and species. Code
    • Jun 2026
      Presented a poster on our superior colliculus project at the FASEB Retinal Neurobiology and Visual Processing Conference in Sacramento, California, supported by a FASEB travel grant.
    • Jun 2026
      New preprint: Eyewire II, a connectomic resource for the mouse retina that combines large-scale electron microscopy reconstructions with functional recordings to resolve retinal cell types and circuits.
    • May 2026
      New preprint: On-Off coding is latent in vertebrate visual circuits. We show that the separation of On and Off signals is not a fixed circuit property but is shaped by inhibition and sensory context across the visual system.
    • May 2026
      TRACE, our NeurIPS 2025 paper, is now in the proceedings. TRACE is a self-supervised contrastive learning method that uses repeated stimulus trials to learn representations of large-scale neural recordings.
    • Apr 2026
      New preprint on the functional organization of retinal input to the mouse superior colliculus. Combining large-scale in vivo imaging with deep learning, we find that nearly the full diversity of retinal ganglion cell types reaches the colliculus, organized in systematic functional gradients. Code · Colab

    © 2026 Dominic Gonschorek · dominic.gonschorek@cin.uni-tuebingen.de

    Last updated October 2026 · Built with Jekyll and Academic Pages