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Wiley InterScience

Insect Molecular Biology

Insect Molecular Biology

Volume 12 Issue 6, Pages 641 - 650

Published Online: 18 Nov 2003

Journal compilation © 2009 Royal Entomological Society



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Molecular characterization of arrestin family members in the malaria vector mosquito, Anopheles gambiae
C. E. Merrill , R. J. Pitts and L. J. Zwiebel
  Department of Biological Sciences, Program in Developmental Biology and Center for Molecular Neuroscience, Vanderbilt University, Nashville, TN 37235, USA
 Correspondence: L. J. Zweibel, VU Station B 3582, Nashville, TN 37235–3582, USA. Tel.: +1 615 343 1894; fax: +1 615 936 0129; e-mail: l.zwiebel@vanderbilt.edu
Copyright © 2003 The Royal Entomological Society
KEYWORDS
Anopheles • olfactory • arrestin • malaria

Abstract

AbstractIntroductionResultsDiscussionExperimental proceduresAcknowledgementsReferences

Olfaction influences many insect behaviours including mate seeking and host selection. The molecular machinery underlying insect olfactory systems is a G protein-coupled receptor pathway that, in addition to activation, requires adaptation for olfactory sensitivity and discrimination. We have previously identified ARR1 (henceforth AgARR1), a sensory arrestin from the malaria vector mosquito Anopheles gambiae that has been postulated to modulate olfactory adaptation. This report describes three additional arrestin family members including ARR2 (henceforth AgARR2), which is similar to previously characterized insect sensory arrestins and is expressed at significantly higher levels in the antennae of male vs. female A. gambiae mosquitoes. This finding is consistent with the hypothesis that AgARR2 may be important for the regulation of olfactory-driven behaviours particular to male mosquitoes.


Received 26 March 2003; accepted after revision 5 August 2003.

DIGITAL OBJECT IDENTIFIER (DOI)
10.1046/j.1365-2583.2003.00450.x About DOI

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