We aim to define whether there is a distinction between the information quality which is sent out from the medial PFC (mPFC) via certain thalamic routes and how this relates to the flexible formation of task-dependent and output-dependent ensembles in mPFC.
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SPP1926 Project (DFG)
We will provide and optimize genetically encoded light-regulated actuators and neural probes that in combination will serve to elucidate the neural circuitry underpinning movement control triggered by internal and external cues.
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European School of Network Neuroscience (euSNN)
The project aims at elucidating the role of outgoing projections of the PFC subsections to their subcortical targets with a focus on network analyses. For this, we will combine in vivo extracellular recordings with optogenetic manipulation of the projections, connectivity analysis and modeling.
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Interneuron Synaptic Plasticity
Using different approaches, the proposed project will provide detailed information on the impact of PVI-specific synaptic plasticity and PVI activity on cognitive movement control and learning and thereby bridge the gap between synaptic plasticity, neuronal activity, and behaviour.
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Neuro-Stim
We aim to develop paradigms which allow powerful interactions with the brain with clinical relevance.
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Deep-Tracking
We apply artificial neural networks (Deep Learning) for automatic object recognition and precise behavior tracking. (Collaboration with Professor Thomas Brox, Computer Vision Laboratory, University of Freiburg, Germany)
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Deep-Decode
We develop ways to predict body motion from neural recordings (decoding) and vice-versa (encoding) using latest deep learning methods.
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Opto-Computation
How does the local organization of motor cortex look like in terms of encoding of different movement types? We address this question with a combination of experimental and computational tools.
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Opto-Control
What makes us start or stop a movement? Prefrontal areas are executively involved in this process. In this project, we investigate the impact of prefrontal input on motor cortex activity.