Literature DB >> 20362449

Light and temperature control the contribution of specific DN1 neurons to Drosophila circadian behavior.

Yong Zhang1, Yixiao Liu, Diana Bilodeau-Wentworth, Paul E Hardin, Patrick Emery.   

Abstract

The brain of Drosophila melanogaster contains approximately 150 circadian neurons [1] functionally divided into morning and evening cells that control peaks in daily behavioral activity at dawn and dusk, respectively [2, 3]. The PIGMENT DISPERSING-FACTOR (PDF)-positive small ventral lateral neurons (sLN(v)s) promote morning behavior, whereas the PDF-negative sLN(v) and the dorsal lateral neurons (LN(d)s) generate evening activity. Much less is known about the approximately 120 dorsal neurons (DN1, 2, and 3). Using a Clk-GAL4 driver that specifically targets a subset of DN1s, we generated mosaic per(0) flies with clock function restored only in these neurons. We found that the Clk4.1M-GAL4-positive DN1s promote only morning activity under standard (high light intensity) light/dark cycles. Surprisingly, however, these circadian neurons generate a robust evening peak of activity under a temperature cycle in constant darkness. Using different light intensities and ambient temperatures, we resolved this apparent paradox. The DN1 behavioral output is under both photic and thermal regulation. High light intensity suppresses DN1-generated evening activity. Low temperature inhibits morning behavior, but it promotes evening activity under high light intensity. Thus, the Clk4.1M-GAL4-positive DN1s, or the neurons they target, integrate light and temperature inputs to control locomotor rhythms. Our study therefore reveals a novel mechanism contributing to the plasticity of circadian behavior.

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Year:  2010        PMID: 20362449      PMCID: PMC2862552          DOI: 10.1016/j.cub.2010.02.044

Source DB:  PubMed          Journal:  Curr Biol        ISSN: 0960-9822            Impact factor:   10.834


  37 in total

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2.  A self-sustaining, light-entrainable circadian oscillator in the Drosophila brain.

Authors:  Shobi Veleri; Christian Brandes; Charlotte Helfrich-Förster; Jeffrey C Hall; Ralf Stanewsky
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3.  DN1(p) circadian neurons coordinate acute light and PDF inputs to produce robust daily behavior in Drosophila.

Authors:  Luoying Zhang; Brian Y Chung; Bridget C Lear; Valerie L Kilman; Yixiao Liu; Guruswamy Mahesh; Rose-Anne Meissner; Paul E Hardin; Ravi Allada
Journal:  Curr Biol       Date:  2010-04-01       Impact factor: 10.834

4.  Temporally regulated nuclear entry of the Drosophila period protein contributes to the circadian clock.

Authors:  K D Curtin; Z J Huang; M Rosbash
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5.  Morning and evening peaks of activity rely on different clock neurons of the Drosophila brain.

Authors:  Brigitte Grima; Elisabeth Chélot; Ruohan Xia; François Rouyer
Journal:  Nature       Date:  2004-10-14       Impact factor: 49.962

6.  Coupled oscillators control morning and evening locomotor behaviour of Drosophila.

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Journal:  Nature       Date:  2004-10-14       Impact factor: 49.962

7.  Sequential nuclear accumulation of the clock proteins period and timeless in the pacemaker neurons of Drosophila melanogaster.

Authors:  Orie T Shafer; Michael Rosbash; James W Truman
Journal:  J Neurosci       Date:  2002-07-15       Impact factor: 6.167

8.  The neuropeptide pigment-dispersing factor coordinates pacemaker interactions in the Drosophila circadian system.

Authors:  Yiing Lin; Gary D Stormo; Paul H Taghert
Journal:  J Neurosci       Date:  2004-09-08       Impact factor: 6.167

9.  Drosophila doubletime mutations which either shorten or lengthen the period of circadian rhythms decrease the protein kinase activity of casein kinase I.

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Journal:  Mol Cell Biol       Date:  2004-01       Impact factor: 4.272

10.  A temperature-dependent timing mechanism is involved in the circadian system that drives locomotor rhythms in the fruit fly Drosophila melanogaster.

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  86 in total

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2.  Circadian pacemaker neurons change synaptic contacts across the day.

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3.  A Conserved Bicycle Model for Circadian Clock Control of Membrane Excitability.

Authors:  Matthieu Flourakis; Elzbieta Kula-Eversole; Alan L Hutchison; Tae Hee Han; Kimberly Aranda; Devon L Moose; Kevin P White; Aaron R Dinner; Bridget C Lear; Dejian Ren; Casey O Diekman; Indira M Raman; Ravi Allada
Journal:  Cell       Date:  2015-08-13       Impact factor: 41.582

Review 4.  Identifying behavioral circuits in Drosophila melanogaster: moving targets in a flying insect.

Authors:  Leslie C Griffith
Journal:  Curr Opin Neurobiol       Date:  2012-01-27       Impact factor: 6.627

5.  Synchronous Drosophila circadian pacemakers display nonsynchronous Ca²⁺ rhythms in vivo.

Authors:  Xitong Liang; Timothy E Holy; Paul H Taghert
Journal:  Science       Date:  2016-02-26       Impact factor: 47.728

6.  Identification of a circadian output circuit for rest:activity rhythms in Drosophila.

Authors:  Daniel J Cavanaugh; Jill D Geratowski; Julian R A Wooltorton; Jennifer M Spaethling; Clare E Hector; Xiangzhong Zheng; Erik C Johnson; James H Eberwine; Amita Sehgal
Journal:  Cell       Date:  2014-04-24       Impact factor: 41.582

7.  A Longer Siesta? DN1s in Control!

Authors:  Wesley A Leigh; Yong Zhang
Journal:  Neurosci Bull       Date:  2016-11-05       Impact factor: 5.203

8.  Temperature integration at the AC thermosensory neurons in Drosophila.

Authors:  Xin Tang; Michael D Platt; Christopher M Lagnese; Jennifer R Leslie; Fumika N Hamada
Journal:  J Neurosci       Date:  2013-01-16       Impact factor: 6.167

9.  GW182 controls Drosophila circadian behavior and PDF-receptor signaling.

Authors:  Yong Zhang; Patrick Emery
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10.  Reorganization of Sleep by Temperature in Drosophila Requires Light, the Homeostat, and the Circadian Clock.

Authors:  Katherine M Parisky; José L Agosto Rivera; Nathan C Donelson; Sejal Kotecha; Leslie C Griffith
Journal:  Curr Biol       Date:  2016-03-10       Impact factor: 10.834

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