We aim to advance our understanding of biological computation and harness it for building better artificial brains. We are thus mainly interested in functional physical neuronal networks, i.e., networks that (learn to) do something useful, and that can be efficiently embedded in a physical substrate. A key ingredient is the closeness between network and substrate dynamics - emulation trumps simulation. Along with pure performance at their respective tasks, we consider robustness to be an essential aspect of model functionality, as any physical implementation that is both effective and efficient will ultimately needs to deal with real-world imperfections, regardless of whether it has evolved over eons or has been designed by our own hands.
The Bernstein Network has picked up on our recent work on spike-based computation using photons and electrons!
Our work on backpropagation through space, time and the brain has been picked up by the Bernstein Network!
Biology computes with spikes. Can we replicate that in photonic and electronic substrates? Here's a highlight from EBRAINS about our work on these topics!
How can our brains learn complex spatio-temporal dependencies in real time? Our recent work on online deep learning through space and time has been highlighted by the EBRAINS consortium!
Our recent work on Nanolasers has been highlighted by the web Magazine t3n.de! Click on the image above for a direct link to the t3n News website.
We had the pleasure of receiving our colleagues from the Universities of Heidelberg for the first ELiSe symposium! They will be collaborating with the NeuroTMA team in testing our theory against state-of-the-art experimental measurements. As part of the visit, we enjoyed two special talks in our Neuroscience Lectures series: Dr. Martin Both from the University of Heidelberg presented "Adaptive Dynamics of Single Neurons in Small Networks". Dr. Andrey Formozov from Medical Faculty Mannheim, University of Heidelberg presented "Neurobiological computing: a bridge between computational and experimental neurobiology".
6. February 2026