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Autophagy-dependent filopodial kinetics restrict synaptic partner choice during Drosophila brain wiring
by
Hiesinger, Peter Robin
, Wernet, Mathias F.
, Mathejczyk, Thomas
, Linneweber, Gerit Arne
, Georgiev, Svilen Veselinov
, Hassan, Bassem A.
, Kiral, Ferdi Ridvan
, von Kleist, Max
in
14
/ 14/69
/ 631/136
/ 631/378
/ 631/80
/ 64
/ 64/24
/ Animal biology
/ Animals
/ Attention
/ Autophagy
/ Axons - physiology
/ Brain
/ Brain - physiology
/ Computational neuroscience
/ Construction materials
/ Degradation
/ Drosophila
/ Drosophila melanogaster - cytology
/ Drosophila melanogaster - physiology
/ Drosophila Proteins - metabolism
/ Filopodia
/ Green Fluorescent Proteins - metabolism
/ Humanities and Social Sciences
/ Insects
/ Invertebrate Zoology
/ Kinetics
/ Life Sciences
/ Molecular modelling
/ Mosaicism
/ multidisciplinary
/ Neurobiology
/ Neuroimaging
/ Neurons
/ Neurons and Cognition
/ Partnerships
/ Phagocytosis
/ Phagosomes
/ Photoreceptor Cells, Invertebrate - metabolism
/ Proteolysis
/ Pseudopodia - physiology
/ Science
/ Science (multidisciplinary)
/ Synapses
/ Synapses - physiology
/ Synaptic Transmission - physiology
/ Synaptogenesis
/ Wiring
2020
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Autophagy-dependent filopodial kinetics restrict synaptic partner choice during Drosophila brain wiring
by
Hiesinger, Peter Robin
, Wernet, Mathias F.
, Mathejczyk, Thomas
, Linneweber, Gerit Arne
, Georgiev, Svilen Veselinov
, Hassan, Bassem A.
, Kiral, Ferdi Ridvan
, von Kleist, Max
in
14
/ 14/69
/ 631/136
/ 631/378
/ 631/80
/ 64
/ 64/24
/ Animal biology
/ Animals
/ Attention
/ Autophagy
/ Axons - physiology
/ Brain
/ Brain - physiology
/ Computational neuroscience
/ Construction materials
/ Degradation
/ Drosophila
/ Drosophila melanogaster - cytology
/ Drosophila melanogaster - physiology
/ Drosophila Proteins - metabolism
/ Filopodia
/ Green Fluorescent Proteins - metabolism
/ Humanities and Social Sciences
/ Insects
/ Invertebrate Zoology
/ Kinetics
/ Life Sciences
/ Molecular modelling
/ Mosaicism
/ multidisciplinary
/ Neurobiology
/ Neuroimaging
/ Neurons
/ Neurons and Cognition
/ Partnerships
/ Phagocytosis
/ Phagosomes
/ Photoreceptor Cells, Invertebrate - metabolism
/ Proteolysis
/ Pseudopodia - physiology
/ Science
/ Science (multidisciplinary)
/ Synapses
/ Synapses - physiology
/ Synaptic Transmission - physiology
/ Synaptogenesis
/ Wiring
2020
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Autophagy-dependent filopodial kinetics restrict synaptic partner choice during Drosophila brain wiring
by
Hiesinger, Peter Robin
, Wernet, Mathias F.
, Mathejczyk, Thomas
, Linneweber, Gerit Arne
, Georgiev, Svilen Veselinov
, Hassan, Bassem A.
, Kiral, Ferdi Ridvan
, von Kleist, Max
in
14
/ 14/69
/ 631/136
/ 631/378
/ 631/80
/ 64
/ 64/24
/ Animal biology
/ Animals
/ Attention
/ Autophagy
/ Axons - physiology
/ Brain
/ Brain - physiology
/ Computational neuroscience
/ Construction materials
/ Degradation
/ Drosophila
/ Drosophila melanogaster - cytology
/ Drosophila melanogaster - physiology
/ Drosophila Proteins - metabolism
/ Filopodia
/ Green Fluorescent Proteins - metabolism
/ Humanities and Social Sciences
/ Insects
/ Invertebrate Zoology
/ Kinetics
/ Life Sciences
/ Molecular modelling
/ Mosaicism
/ multidisciplinary
/ Neurobiology
/ Neuroimaging
/ Neurons
/ Neurons and Cognition
/ Partnerships
/ Phagocytosis
/ Phagosomes
/ Photoreceptor Cells, Invertebrate - metabolism
/ Proteolysis
/ Pseudopodia - physiology
/ Science
/ Science (multidisciplinary)
/ Synapses
/ Synapses - physiology
/ Synaptic Transmission - physiology
/ Synaptogenesis
/ Wiring
2020
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Autophagy-dependent filopodial kinetics restrict synaptic partner choice during Drosophila brain wiring
Journal Article
Autophagy-dependent filopodial kinetics restrict synaptic partner choice during Drosophila brain wiring
2020
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Overview
Brain wiring is remarkably precise, yet most neurons readily form synapses with incorrect partners when given the opportunity. Dynamic axon-dendritic positioning can restrict synaptogenic encounters, but the spatiotemporal interaction kinetics and their regulation remain essentially unknown inside developing brains. Here we show that the kinetics of axonal filopodia restrict synapse formation and partner choice for neurons that are not otherwise prevented from making incorrect synapses. Using 4D imaging in developing
Drosophila
brains, we show that filopodial kinetics are regulated by autophagy, a prevalent degradation mechanism whose role in brain development remains poorly understood. With surprising specificity, autophagosomes form in synaptogenic filopodia, followed by filopodial collapse. Altered autophagic degradation of synaptic building material quantitatively regulates synapse formation as shown by computational modeling and genetic experiments. Increased filopodial stability enables incorrect synaptic partnerships. Hence, filopodial autophagy restricts inappropriate partner choice through a process of kinetic exclusion that critically contributes to wiring specificity.
The molecular mechanisms that restrict synapse formation with incorrect partners remain unclear. Here, authors use 4D imaging in developing Drosophila brains to show that filopodial kinetics are regulated by autophagy and this restricts inappropriate partner choice through a process of kinetic exclusion
Publisher
Nature Publishing Group UK,Nature Publishing Group,Nature Portfolio
Subject
/ 14/69
/ 631/136
/ 631/378
/ 631/80
/ 64
/ 64/24
/ Animals
/ Brain
/ Drosophila melanogaster - cytology
/ Drosophila melanogaster - physiology
/ Drosophila Proteins - metabolism
/ Green Fluorescent Proteins - metabolism
/ Humanities and Social Sciences
/ Insects
/ Kinetics
/ Neurons
/ Photoreceptor Cells, Invertebrate - metabolism
/ Science
/ Synapses
/ Synaptic Transmission - physiology
/ Wiring
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