University of Bonn to Host New Research Training Group Around €6.1 million is being made available to fund research into drug-resistant epilepsy.
The German Research Foundation (DFG) is setting up...
Biopsy slide from epilepsy surgery, showing a focal dysplasia consisting of significantly enlarged, malformed nerve cells (black arrow) and “balloon cells,” whose nucleus is not located in their center (white arrow). Illustration: Annika Breuer/Department of Epileptology, University Hospital Bonn
Prof. Frank Bradke Inducted into the North Rhine–Westphalia Academy of Sciences and Arts
Prof. Dr. Frank Bradke—Senior Group Leader at the ...
Frank Bradke Elected to the Berlin-Brandenburg Academy of Sciences and Humanities
Prof. Dr. Frank Bradke, neurobiologist at the Germ...
Tobias Ackels receives Paul Ehrlich and Ludwig Darmstaedter Early Career Award 2025
We warmly congratulate our group leader Dr. Tobias...
Und plötzlich feuert das Gehirn: Erinnerung
Wie entsteht Erinnerung? Unser Kollege Florian Mor...
Paul Ehrlich and Ludwig Darmstaedter Early Career Award 2025 Goes to Tobias Ackels
Tobias Ackels awarded for pioneering research on s...
Genetic and environmental risk factors cooperate to affect autistic like neuronal phenotypes
Researchers at the University of Bonn have reveale...
Exome sequencing of 20,979 individuals with epilepsy reveals shared and distinct ultra-rare genetic risk across disorder subtypes
New insights from the Epi25 Collaborative highligh...
Region-specific spreading depolarization drives aberrant post-ictal behavior
Bonn researchers uncover how seizure-related focal...
Single-neuron representations of odors in the human brain
Bonn researchers unveil how the brain encodes and ...
New study on "Phase to rate recoding " in Nature Communications

A new study by AG Beck was just published in Nature Communications. In it, Daniel Müller-Komorowska and collegues describe a novel compuatational function of feedback inhibitory circuits, namely „phase to rate recoding“. Specifically, the study, led by Oliver Braganza finds that the dentate gyrus feedback microcircuit translates an incoming phase code into a sparse synchronous population-rate code. The benefits of this compuation are

i) an improved information content,

ii) increased synchrony and

iii) improved plasticity in CA3.

These properties should improve the storage of associative memories in the hippocampus. Furthermore, since both phase codes and feedback circuits are ubiquitous in the brain, this research raises the question if phase to rate recoding might be a canonical compuational motif which operates throughout the brain. Read more at: https://www.nature.com/articles/s41467-023-41803-8