Cargando…

Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity

The CORL family of CNS-specific proteins share a Smad-binding region with mammalian SnoN and c-Ski protooncogenes. In this family Drosophila CORL has two mouse and two human relatives. Roles for the mouse and human CORL proteins are largely unknown. Based on genome-wide association studies linking t...

Descripción completa

Detalles Bibliográficos
Autores principales: Dimitriadou, Agapi, Chatzianastasi, Nasia, Zacharaki, Panagiota I., O’Connor, MaryJane, Goldsmith, Samuel L., O’Connor, Michael B., Consoulas, Christos, Newfeld, Stuart J.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Genetics Society of America 2020
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7202012/
https://www.ncbi.nlm.nih.gov/pubmed/32161085
http://dx.doi.org/10.1534/g3.120.400648
_version_ 1783529655028940800
author Dimitriadou, Agapi
Chatzianastasi, Nasia
Zacharaki, Panagiota I.
O’Connor, MaryJane
Goldsmith, Samuel L.
O’Connor, Michael B.
Consoulas, Christos
Newfeld, Stuart J.
author_facet Dimitriadou, Agapi
Chatzianastasi, Nasia
Zacharaki, Panagiota I.
O’Connor, MaryJane
Goldsmith, Samuel L.
O’Connor, Michael B.
Consoulas, Christos
Newfeld, Stuart J.
author_sort Dimitriadou, Agapi
collection PubMed
description The CORL family of CNS-specific proteins share a Smad-binding region with mammalian SnoN and c-Ski protooncogenes. In this family Drosophila CORL has two mouse and two human relatives. Roles for the mouse and human CORL proteins are largely unknown. Based on genome-wide association studies linking the human CORL proteins Fussel15 and Fussel18 with ataxia, we tested the hypothesis that dCORL mutations will cause adult movement disorders. For our initial tests, we conducted side by side studies of adults with the small deletion Df(4)dCORL and eight control strains. We found that deletion mutants exhibit three types of behavioral plasticity. First, significant climbing defects attributable to loss of dCORL are eliminated by age. Second, significant phototaxis defects due to loss of dCORL are partially ameliorated by age and are not due to faulty photoreceptors. Third, Df(4)dCORL males raised in groups have a lower courtship index than males raised as singles though this defect is not due to loss of dCORL. Subsequent tests showed that the climbing and phototaxis defects were phenocpied by dCORL(21B) and dCORL(23C) two CRISPR generated mutations. Overall, the finding that adult movement defects due to loss of dCORL are subject to age-dependent plasticity suggests new hypotheses for CORL functions in flies and mammals.
format Online
Article
Text
id pubmed-7202012
institution National Center for Biotechnology Information
language English
publishDate 2020
publisher Genetics Society of America
record_format MEDLINE/PubMed
spelling pubmed-72020122020-05-09 Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity Dimitriadou, Agapi Chatzianastasi, Nasia Zacharaki, Panagiota I. O’Connor, MaryJane Goldsmith, Samuel L. O’Connor, Michael B. Consoulas, Christos Newfeld, Stuart J. G3 (Bethesda) Investigations The CORL family of CNS-specific proteins share a Smad-binding region with mammalian SnoN and c-Ski protooncogenes. In this family Drosophila CORL has two mouse and two human relatives. Roles for the mouse and human CORL proteins are largely unknown. Based on genome-wide association studies linking the human CORL proteins Fussel15 and Fussel18 with ataxia, we tested the hypothesis that dCORL mutations will cause adult movement disorders. For our initial tests, we conducted side by side studies of adults with the small deletion Df(4)dCORL and eight control strains. We found that deletion mutants exhibit three types of behavioral plasticity. First, significant climbing defects attributable to loss of dCORL are eliminated by age. Second, significant phototaxis defects due to loss of dCORL are partially ameliorated by age and are not due to faulty photoreceptors. Third, Df(4)dCORL males raised in groups have a lower courtship index than males raised as singles though this defect is not due to loss of dCORL. Subsequent tests showed that the climbing and phototaxis defects were phenocpied by dCORL(21B) and dCORL(23C) two CRISPR generated mutations. Overall, the finding that adult movement defects due to loss of dCORL are subject to age-dependent plasticity suggests new hypotheses for CORL functions in flies and mammals. Genetics Society of America 2020-03-11 /pmc/articles/PMC7202012/ /pubmed/32161085 http://dx.doi.org/10.1534/g3.120.400648 Text en Copyright © 2020 Dimitriadou et al. http://creativecommons.org/licenses/by/4.0/ This is an open-access article distributed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.
spellingShingle Investigations
Dimitriadou, Agapi
Chatzianastasi, Nasia
Zacharaki, Panagiota I.
O’Connor, MaryJane
Goldsmith, Samuel L.
O’Connor, Michael B.
Consoulas, Christos
Newfeld, Stuart J.
Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title_full Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title_fullStr Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title_full_unstemmed Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title_short Adult Movement Defects Associated with a CORL Mutation in Drosophila Display Behavioral Plasticity
title_sort adult movement defects associated with a corl mutation in drosophila display behavioral plasticity
topic Investigations
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC7202012/
https://www.ncbi.nlm.nih.gov/pubmed/32161085
http://dx.doi.org/10.1534/g3.120.400648
work_keys_str_mv AT dimitriadouagapi adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT chatzianastasinasia adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT zacharakipanagiotai adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT oconnormaryjane adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT goldsmithsamuell adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT oconnormichaelb adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT consoulaschristos adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity
AT newfeldstuartj adultmovementdefectsassociatedwithacorlmutationindrosophiladisplaybehavioralplasticity