Skip to main content
News Beck 10.2019
An interneuron (bright, with long appendages) from the hippocampus of the rat. The finely branched axon (top left cloud) surrounds the cell bodies of pyramidal cells and can inhibit these effectively.
© Leonie Pothmann/Uni Bonn

News categories: Publication

Epilepsy: Function of "brake cells" disrupted

In some forms of epilepsy, the function of certain "brake cells" in the brain is presumed to be disrupted. This may be one of the reasons why the electrical malfunction is able to spread from the point of origin across large parts of the brain. A current study by the University of Bonn with members of the cluster of excellence ImmunoSensation2, in which researchers from Lisbon were also involved, points in this direction. The results are published in the renowned "Journal of Neuroscience".

Publication

Leonie Pothmann, Christian Klos, Oliver Braganza, Sarah Schmidt, Oihane Horno, Raoul-Martin Memmesheimer and Heinz Beck: Altered dynamics of canonical feed-back inhibition predicts increased burst transmission in chronic epilepsy; The Journal Of Neuroscience; https://doi.org/10.1523/JNEUROSCI.2594-18.2019

Related news

The human P2X4 receptor

News categories: Publication

A starting point for the development of new pain and cancer drugs

The human P2X4 receptor plays an important role in chronic pain, inflammation and some types of cancer. Researchers at the University of Bonn and the University Hospital Bonn (UKB) have now discovered a mechanism that can inhibit this receptor. The results were recently published in the scientific journal Nature Communications and open up a pathway for the development of new drugs. A study carried out by the University of Bonn and the University Hospital Bonn throws light on how P2X2 can be inhibited. The results have recently been published in Nature Communications.
View entry
Kato research group

News categories: Publication

Ominous false alarm in the kidney

Bonn researchers have discovered how a small, naturally occurring RNA molecule in the kidney activates a mutated immune receptor, triggering a chain reaction. In cooperation with Nanyang Technological University Singapore and the University Hospital Würzburg, among others, the study provides an explanation for how a point mutation in the immune receptor RIG-I transforms the body's defense system into a self-destructive force and causes severe organ-specific autoimmune diseases. The results have now been published in the journal Science Immunology.
View entry
News_Proebstel

News categories: Publication

Unique immune signatures to distinguish MOGAD from MS

Myelin oligodendrocyte glycoprotein antibody-associated disease (MOGAD) is a rare autoimmune condition in which the body’s immune system mistakenly attacks the protective myelin sheath of nerve fibers in the central nervous system. Although MOGAD induces symptoms similar to multiple sclerosis (MS), its underlying biology appears to be fundamentally different. Understanding these distinctions is crucial for developing effective, disease-specific treatments. A new international study now sheds light on these immune differences.
View entry

Back to the news overview