Presentation
Developmental Brain Disorders Laboratory
Since his academic training, Vincent Cantagrel has been fascinated by two aspects: the molecular basis of brain development and genetic disease modeling. During his PhD, he used human genetics approaches to identify new gene defects causing intellectual disability and brain malformation. Then, during a 6 years postdoctoral training in the lab of Pr. J. Gleeson (UCSD; California), he worked on modeling pediatric cerebellar disorders using multiple approaches, based on mouse, zebrafish and even yeast. After joining, the Imagine institute in Paris in 2014, he could start his own group working on this topic.He has a strong interest in diseases caused by defects involving metabolic pathway (e.g., Protein glycosylation defect) or defects in key factors needed for cerebellar development (e.g., Cell specification factor). For him, these investigations have a strong potential to contribute to the basic understanding of human brain development, while providing direct translation for improved diagnosis of genetic disease and hints to improve treatments and patient care.
Over the past 10 years, our purpose has been to gain insight into the mechanisms leading to DBD. Thanks to our close links with the departments of Genetics, Neurology, Neuroradiology, Pediatrics and Child Psychiatrics at Necker as well as several reference centers, an ever-expanding collection of patients with unsolved neurodevelopmental diseases is being recruited. These patients are the corner stone of our studies. In addition, the local environment and context are both extremely relevant and efficient, with access to crucial platforms and core facilities for research including genomics, single-cell, imaging, induced pluripotent stem cells (iPSCs), bioinformatics, and animal models (mouse, and zebrafish). Lastly, our work relies on strong national and international collaborations with laboratories providing expertise in neurobiology, glycobiology, electrophysiology and bioinformatic analyses. The lab activities can be separated into three topics with a lot of cross-talks between each: (1) human genetic research projects; (2) basic science research projects and (3) transfer of knowledge to the diagnostic lab. The first topic is dedicated to the identification of new genetic defects involved in DBD with direct consequences on patients’ molecular diagnosis. The second aims to better understand normal brain development by dissecting disease mechanisms. For this aim, we focused mostly on DBD with structural cerebellar defect (SCD) to develop our own models. The last topic includes the development of improved diagnosis strategies using new sequencing or bioinformatic approaches.
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Resources & publications
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Journal (source)Cell Death Discov
Kremen1-induced cell death is regulated by homo- and heterodimerization.
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Journal (source)Curr. Opin. Neurobiol.
Cortical developmental death: selected to survive or fated to die.
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Journal (source)Evodevo
Neuronal fate specification by the Dbx1 transcription factor is linked to the...
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Journal (source)Curr. Biol.
Migration Speed of Cajal-Retzius Cells Modulated by Vesicular Trafficking Con...
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Journal (source)PLoS ONE
Dbx1-expressing cells are necessary for the survival of the mammalian anterio...
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Journal (source)PLoS Biol.
A novel role for Dbx1-derived Cajal-Retzius cells in early regionalization of...
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Journal (source)Cell Death Differ.
Kremen1 and Dickkopf1 control cell survival in a Wnt-independent manner.
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Journal (source)bioRxiv
Functional characterization of RELN missense mutations involved in recessive ...
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Journal (source)Development
The multiple facets of Cajal-Retzius neurons.
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Journal (source)Development
Single-cell transcriptomics of the early developing mouse cerebral cortex dis...
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Journal (source)Dev Cell
Repurposing of the multiciliation gene regulatory network in fate specificati...
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Journal (source)Curr Opin Neurobiol
Cajal-retzius cells: Recent advances in identity and function
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Journal (source)J Comp Neurol
Diversity within olfactory sensory derivatives revealed by the contribution o...
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Journal (source)Dev Cell
Repurposing of the multiciliation gene regulatory network in fate specificati...
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Journal (source)Dev Cell
Repurposing of the multiciliation gene regulatory network in fate specificati...
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Journal (source)J Clin Invest
De novo monoallelic Reelin missense variants act in a dominant-negative manne...
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Journal (source)J Clin Invest
De novo monoallelic Reelin missense variants cause dominant neuronal migratio...
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Journal (source)Development
Differential contribution of P73+ Cajal-Retzius cells and Reelin to cortical ...