How insects survive the cold: molecular mechanisms-a review.

Melody S Clark, M Roger Worland
Author Information
  1. Melody S Clark: British Antarctic Survey, Natural Environment Research Council, High Cross, Madingley Road, Cambridge CB3 0ET, UK. mscl@bas.ac.uk

Abstract

Insects vary considerably in their ability to survive low temperatures. The tractability of these organisms to experimentation has lead to considerable physiology-based work investigating both the variability between species and the actual mechanisms themselves. This has highlighted a range of strategies including freeze tolerance, freeze avoidance, protective dehydration and rapid cold hardening, which are often associated with the production of specific chemicals such as antifreezes and polyol cryoprotectants. But we are still far from identifying the critical elements behind over-wintering success and how some species can regularly survive temperatures below -20 degrees C. Molecular biology is the most recent tool to be added to the insect physiologist's armoury. With the public availability of the genome sequence of model insects such as Drosophila and the production of custom-made molecular resources, such as EST libraries and microarrays, we are now in a position to start dissecting the molecular mechanisms behind some of these well-characterised physiological responses. This review aims to provide a state-of-the-art snapshot of the molecular work currently being conducted into insect cold tolerance and the very interesting preliminary results from such studies, which provide great promise for the future.

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MeSH Term

Acclimatization
Animals
Antifreeze Proteins
Body Temperature Regulation
Cell Survival
Cold Climate
Cold Temperature
Dehydration
Freezing
Gene Expression Regulation
Heat-Shock Proteins
Insect Proteins
Insecta
Membrane Lipids
Mitochondria
Species Specificity
Stress, Physiological

Chemicals

Antifreeze Proteins
Heat-Shock Proteins
Insect Proteins
Membrane Lipids

Word Cloud

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