For example, our previous work shows that miRNAs are deregulated at different levels in patients suffering from temporal lobe epilepsy (TLE) and using a multidisciplinary approach (e.g. RNAseq, biotinIP, in vivo Ago IPs, epilepsy models etc) we deciphered how miRNAs contribute to the process of epileptogenesis and how these effects can be reversed. Circular RNAs are a recently (re)discovered class of long non-coding RNAs with a circular structure. circRNAs are enriched in the brain and in specific subcellular compartments in neurons and due to their circular structure very stable. Some circRNAs can act as miRNA sponges while the function of most other circRNAs remains to be determined.
We aim to determine which circRNAs are important for axonal development and how they affect this process. Similarly, we study deregulated circRNAs in neurological diseases. Fragments derived from tRNAs are implicated in different aspects of gene regulation. For example, some tRFs can function as miRNAs. We study the role of tRFs in neural circuit development and disease.
Finally, we investigate how RNA expression, localization and splicing are regulated in different subcellular compartments of motor and other neurons, and how these processes are altered in the context of motor neuron disease.
This work is in part supported by Stichting ALS Nederland, HORIZON Europe (Youth-GEMs), and JPND (ZonMW).