Transcriptional diversity in specific synaptic gene sets discriminates cortical neuronal identity
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Published:2023-05-09
Issue:1
Volume:18
Page:
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ISSN:1745-6150
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Container-title:Biology Direct
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language:en
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Short-container-title:Biol Direct
Author:
Roig Adam AmparoORCID, Martínez-López José A., van der Spek Sophie J. F., Achsel TilmannORCID, Andres-Alonso MariaORCID, Bagni ClaudiaORCID, Bayés ÀlexORCID, Biederer ThomasORCID, Brose NilsORCID, Chua John Jia EnORCID, Coba Marcelo P.ORCID, Cornelisse L. NielsORCID, de Juan-Sanz JaimeORCID, Goldschmidt Hana L.ORCID, Gundelfinger Eckart D.ORCID, Huganir Richard L.ORCID, Imig CordeliaORCID, Jahn ReinhardORCID, Jung HwajinORCID, Kaeser Pascal S.ORCID, Kim EunjoonORCID, Koopmans FrankORCID, Kreutz Michael R.ORCID, Lipstein NoaORCID, MacGillavry Harold D.ORCID, McPherson Peter S.ORCID, O’Connor VincentORCID, Pielot RainerORCID, Ryan Timothy A.ORCID, Sala CarloORCID, Sheng MorganORCID, Smalla Karl-HeinzORCID, Thomas Paul D.ORCID, Toonen Ruud F.ORCID, van Weering Jan R. T.ORCID, Verpelli ChiaraORCID, Sullivan Patrick F., Smit August B.ORCID, Verhage MatthijsORCID, Hjerling-Leffler JensORCID,
Abstract
AbstractSynapse diversity has been described from different perspectives, ranging from the specific neurotransmitters released, to their diverse biophysical properties and proteome profiles. However, synapse diversity at the transcriptional level has not been systematically identified across all synapse populations in the brain. To quantify and identify specific synaptic features of neuronal cell types we combined the SynGO (Synaptic Gene Ontology) database with single-cell RNA sequencing data of the mouse neocortex. We show that cell types can be discriminated by synaptic genes alone with the same power as all genes. The cell type discriminatory power is not equally distributed across synaptic genes as we could identify functional categories and synaptic compartments with greater cell type specific expression. Synaptic genes, and specific SynGO categories, belonged to three different types of gene modules: gradient expression over all cell types, gradient expression in selected cell types and cell class- or type-specific profiles. This data provides a deeper understanding of synapse diversity in the neocortex and identifies potential markers to selectively identify synapses from specific neuronal populations.
Funder
Broad Synapse 3 project Simons foundation SFARI director's grant Vetenskapsrådet,Sweden HORIZON EUROPE European Research Council Karolinska Institute
Publisher
Springer Science and Business Media LLC
Subject
Applied Mathematics,General Agricultural and Biological Sciences,General Biochemistry, Genetics and Molecular Biology,Modeling and Simulation,Ecology, Evolution, Behavior and Systematics,Immunology
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