Team
Team manager: Pinto Teixeira Filipe
Presentation
We study how neural circuits are assembled during development, and how changes in neuronal circuity wiring impinge on neuronal function and behavior when development goes wrong.
Brain function relies on the communication between millions of neurons comprising numerous subtypes, which are precisely connected in discrete networks where each is devoted to specific tasks.
We use the fruit fly Drosophila melanogaster visual system as a model to understand the gene regulation, molecular and cellular mechanisms that regulate brain wiring, from development to circuit function.
We foresee that insights from our research will inform real-world translation applications, including the induction of stem cells to differentiate into specific neuronal types, potentially advancing cell replacement therapy.
Read more about our research here.
– Yannick Carrier#, Laura Quintana Rio#, Nadia Formicola, Vicente de Sousa-Xavier, Maha Tabet, Yu-Chieh David Chen, Aicha Haji Ali, Lisa Orts, Maeva Wislez, Alexander Borst, Filipe Pinto-Teixeira. Developmental Cell 2024 doi: https://doi.org/10.1016/j.devcel.2024.10.019 Biased cell adhesion organizes the Drosophila visual motion integration circuit
– Pinto-Teixeira F., Koo C., Rossi AM., Neriec N., Bertet C., Li X., Del-Valle-Rodriguez A., Desplan C., Development of Concurrent Retinotopic Maps in the Fly Motion Detection Circuit. Cell. 2018 2: 485-498. PMID:29576455.
Funding
Affiliation