Author
Daniel Müller‐Komorowska
Okinawa Institute of Science and Technology Graduate UniversityORCID 0000-0002-2789-6068Unclaimed ORCID profile · follow to get notified of new preprints
Biology Disciplines
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2020-2026 · peak 2/yrCo-Author Collaboration Network
10 top collaborators · 13 mutual co-author links6 papers
Recent·Most cited
Recurrent Interneuron Connectivity does not Support Synchrony in a Biophysical Dentate Gyrus Model
Daniel Müller‐Komorowska, Temma Fujishige, Tomoki Fukai
This study tests if recurrent inhibitory interneuron connectivity can generate synchrony in a biophysical dentate gyrus model and finds it insufficient.
eNeuro · Apr 1, 2025Peer-reviewedNeuroscience
Deciphering the astrocytic contribution to learning and relearning
Lorenzo Squadrani, Carlos Wert-Carvajal, Daniel Müller‐Komorowska, Kirsten Bohmbach, Christian Henneberger, Pietro Verzelli, Tatjana Tchumatchenko
The paper shows that astrocyte-mediated regulation of D-serine aligns with the BCM model of synaptic plasticity, explaining behavioral effects in mice and predicting new learning mechanisms.
bioRxiv · Jan 12, 2024 · PreprintNeuroscience
A novel theoretical framework for simultaneous measurement of excitatory and inhibitory conductances
Daniel Müller‐Komorowska, Ana Parabucki, Gal Elyasaf, Yonatan Katz, Heinz Beck, Ilan Lampl
This paper introduces a method to simultaneously measure excitatory and inhibitory conductances in neurons using current clamp recordings and sinusoidal current injection.
PLoS Computational Biology · Dec 28, 2021Peer-reviewedNeuroscience
Unspecific expression in limited excitatory cell populations in interneuron-targeting Cre-driver lines can have large functional effects
Daniel Müller‐Komorowska, Thoralf Opitz, Shehabeldin Elzoheiry, Michaela Schweizer, Eleonora Ambrad Giovannetti, Heinz Beck
The paper shows that unspecific expression in Cre-driver lines can lead to large functional effects, using SST-Cre mice to demonstrate excitatory current in non-target cells.
Frontiers in Neural Circuits · Apr 27, 2020Peer-reviewedNeuroscience
Quantitative properties of a feedback circuit predict frequency-dependent pattern separation
Oliver Braganza, Daniel Müller‐Komorowska, Tony Kelly, Heinz Beck
The paper quantifies how feedback inhibition in the mouse dentate gyrus contributes to frequency-dependent pattern separation of temporally structured inputs.
eLife · Feb 20, 2020Peer-reviewedNeuroscience