Cell signalling mechanisms for insect stress tolerance

Insects successfully occupy most environmental niches and this success depends on surviving a broad range of environmental stressors including temperature, desiccation, xenobiotic, osmotic and infection stress. Epithelial tissues play key roles as barriers between the external and internal environme...

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Veröffentlicht in:Journal of experimental biology 2014-01, Vol.217 (Pt 1), p.119-128
Hauptverfasser: Davies, Shireen A, Cabrero, Pablo, Overend, Gayle, Aitchison, Lorraine, Sebastian, Sujith, Terhzaz, Selim, Dow, Julian A T
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container_end_page 128
container_issue Pt 1
container_start_page 119
container_title Journal of experimental biology
container_volume 217
creator Davies, Shireen A
Cabrero, Pablo
Overend, Gayle
Aitchison, Lorraine
Sebastian, Sujith
Terhzaz, Selim
Dow, Julian A T
description Insects successfully occupy most environmental niches and this success depends on surviving a broad range of environmental stressors including temperature, desiccation, xenobiotic, osmotic and infection stress. Epithelial tissues play key roles as barriers between the external and internal environments and therefore maintain homeostasis and organismal tolerance to multiple stressors. As such, the crucial role of epithelia in organismal stress tolerance cannot be underestimated. At a molecular level, multiple cell-specific signalling pathways including cyclic cAMP, cyclic cGMP and calcium modulate tissue, and hence, organismal responses to stress. Thus, epithelial cell-specific signal transduction can be usefully studied to determine the molecular mechanisms of organismal stress tolerance in vivo. This review will explore cell signalling modulation of stress tolerance in insects by focusing on cell signalling in a fluid transporting epithelium--the Malpighian tubule. Manipulation of specific genes and signalling pathways in only defined tubule cell types can influence the survival outcome in response to multiple environmental stressors including desiccation, immune, salt (ionic) and oxidative stress, suggesting that studies in the genetic model Drosophila melanogaster may reveal novel pathways required for stress tolerance.
doi_str_mv 10.1242/jeb.090571
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subjects Animals
Calcium - metabolism
Cyclic AMP - metabolism
Cyclic GMP - metabolism
Dehydration
Drosophila melanogaster - metabolism
Environment
Homeostasis
Malpighian Tubules - cytology
Malpighian Tubules - physiology
Mucous Membrane - physiology
Osmotic Pressure - physiology
Oxidative Stress - physiology
Signal Transduction
title Cell signalling mechanisms for insect stress tolerance
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