Behavioral consequences of dopamine deficiency in the Drosophila central nervous system
The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila, we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA...
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Published in | Proceedings of the National Academy of Sciences - PNAS Vol. 108; no. 2; pp. 834 - 839 |
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Main Authors | , , , , , , , , , , , , |
Format | Journal Article |
Language | English |
Published |
United States
National Academy of Sciences
11.01.2011
National Acad Sciences |
Subjects | |
Online Access | Get full text |
ISSN | 0027-8424 1091-6490 1091-6490 |
DOI | 10.1073/pnas.1010930108 |
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Abstract | The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila, we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently "masochistic" tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor L-DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator. |
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AbstractList | The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila , we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently “masochistic” tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor l -DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator. The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila , we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently “masochistic” tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor l -DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator. The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila, we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently "masochistic" tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor l-DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator. [PUBLICATION ABSTRACT] The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila, we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently "masochistic" tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor L-DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator.The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in Drosophila, we generated mutant flies that lack tyrosine hydroxylase, and thus DA biosynthesis, selectively in the nervous system. We found that DA is absent or below detection limits in the adult brain of these flies. Despite this, they have a lifespan similar to WT flies. These mutants show reduced activity, extended sleep time, locomotor deficits that increase with age, and they are hypophagic. Whereas odor and electrical shock avoidance are not affected, aversive olfactory learning is abolished. Instead, DA-deficient flies have an apparently "masochistic" tendency to prefer the shock-associated odor 2 h after conditioning. Similarly, sugar preference is absent, whereas sugar stimulation of foreleg taste neurons induces normal proboscis extension. Feeding the DA precursor L-DOPA to adults substantially rescues the learning deficit as well as other impaired behaviors that were tested. DA-deficient flies are also defective in positive phototaxis, without alteration in visual perception and optomotor response. Surprisingly, visual tracking is largely maintained, and these mutants still possess an efficient spatial orientation memory. Our findings show that flies can perform complex brain functions in the absence of neural DA, whereas specific behaviors involving, in particular, arousal and choice require normal levels of this neuromodulator. |
Author | Kume, Kazuhiko Nash, Howard Birman, Serge Iché-Torres, Magali Strauss, Roland Neuser, Kirsa Coulom, Hélène Cassar, Marlène Preat, Thomas Hirsh, Jay Seugnet, Laurent Riemensperger, Thomas Isabel, Guillaume |
Author_xml | – sequence: 1 givenname: Thomas surname: Riemensperger fullname: Riemensperger, Thomas – sequence: 2 givenname: Guillaume surname: Isabel fullname: Isabel, Guillaume – sequence: 3 givenname: Hélène surname: Coulom fullname: Coulom, Hélène – sequence: 4 givenname: Kirsa surname: Neuser fullname: Neuser, Kirsa – sequence: 5 givenname: Laurent surname: Seugnet fullname: Seugnet, Laurent – sequence: 6 givenname: Kazuhiko surname: Kume fullname: Kume, Kazuhiko – sequence: 7 givenname: Magali surname: Iché-Torres fullname: Iché-Torres, Magali – sequence: 8 givenname: Marlène surname: Cassar fullname: Cassar, Marlène – sequence: 9 givenname: Roland surname: Strauss fullname: Strauss, Roland – sequence: 10 givenname: Thomas surname: Preat fullname: Preat, Thomas – sequence: 11 givenname: Jay surname: Hirsh fullname: Hirsh, Jay – sequence: 12 givenname: Serge surname: Birman fullname: Birman, Serge – sequence: 13 givenname: Howard surname: Nash fullname: Nash, Howard |
BackLink | https://www.ncbi.nlm.nih.gov/pubmed/21187381$$D View this record in MEDLINE/PubMed https://hal.science/hal-04795071$$DView record in HAL |
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Copyright | Copyright National Academy of Sciences Jan 11, 2011 Distributed under a Creative Commons Attribution 4.0 International License |
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Notes | SourceType-Scholarly Journals-1 ObjectType-Feature-1 content type line 14 ObjectType-Article-1 ObjectType-Feature-2 content type line 23 ObjectType-Article-2 Edited by Howard Nash, National Institutes of Health, Bethesda, MD, and approved November 30, 2010 (received for review August 3, 2010) Author contributions: S.B. designed research; T.R., G.I., H.C., K.N., L.S., K.K., M.I.-T., J.H., and S.B. performed research; T.R., H.C., L.S., K.K., M.C., R.S., T.P., J.H., and S.B. contributed new reagents/analytic tools; T.R., G.I., H.C., K.N., L.S., K.K., R.S., T.P., J.H., and S.B. analyzed data; and T.R., J.H., and S.B. wrote the paper. |
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Snippet | The neuromodulatory function of dopamine (DA) is an inherent feature of nervous systems of all animals. To learn more about the function of neural DA in... |
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SubjectTerms | adults Animal behavior Animals Behavior, Animal Biological Sciences Biosynthesis Brain Brain - metabolism Central nervous system Central Nervous System - physiology Cognitive science detection limit Detection limits Dopamine Dopamine - deficiency Dopamine - physiology Dopaminergic neurons Drosophila Drosophila - physiology Frameshift Mutation Homozygote Insects L-dopa Levodopa - chemistry longevity Memory Memory interference Movement mutants Mutation Nervous system Neurons Neuroscience Neurotransmitter Agents - metabolism Neurotransmitters Odors Phototaxis proboscis Proteins sleep Smell Sugar Sugars taste Time Factors tyrosine 3-monooxygenase Tyrosine 3-Monooxygenase - genetics visual perception Walking |
Title | Behavioral consequences of dopamine deficiency in the Drosophila central nervous system |
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