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Physiological and biochemical responses to cold and drought in the rock-dwelling pulmonate snail, Chondrina avenacea
V. Koštál, J. Rozsypal, P. Pech, H. Zahradníčková, P. Šimek,
Language English Country Germany
Document type Journal Article, Research Support, Non-U.S. Gov't
Grant support
NT11513
MZ0
CEP Register
Digital library NLK
Full text - Article
Source
NLK
ProQuest Central
from 2003-02-01 to 1 year ago
Medline Complete (EBSCOhost)
from 2000-02-01 to 1 year ago
Health & Medicine (ProQuest)
from 2003-02-01 to 1 year ago
- MeSH
- Acclimatization physiology MeSH
- Anaerobiosis physiology MeSH
- Hibernation MeSH
- Snails physiology MeSH
- Estivation MeSH
- Metabolomics MeSH
- Cold Temperature * MeSH
- Droughts * MeSH
- Seasons MeSH
- Oxygen Consumption physiology MeSH
- Environment MeSH
- Animals MeSH
- Check Tag
- Animals MeSH
- Publication type
- Journal Article MeSH
- Research Support, Non-U.S. Gov't MeSH
The pulmonate snail Chondrina avenacea lives on exposed rock walls where it experiences drastic daily and seasonal fluctuations of abiotic conditions and food availability. We found that tolerance to dry conditions was maintained at a very high level throughout the year and was mainly based on the snails' ability to promptly enter into estivation (quiescence) whenever they experienced drying out of their environment. Snails rapidly suppressed their metabolism and minimized their water loss using discontinuous gas exchange pattern. The metabolic suppression probably included periods of tissue hypoxia and anaerobism as indicated by accumulation of typical end products of anaerobic metabolism: lactate, alanine and succinate. Though the drought-induced metabolic suppression was sufficient to stimulate moderate increase of supercooling capacity, the seasonally highest levels of supercooling capacity and the highest tolerance to subzero temperatures were tightly linked to hibernation (diapause). Hibernating snails did not survive freezing of their body fluids and instead relied on supercooling strategy which allowed them to survive when air temperatures dropped to as low as -21 °C. No accumulation of low-molecular weight compounds (potential cryoprotectants) was detected in hibernating snails except for small amounts of the end products of anaerobic metabolism.
References provided by Crossref.org
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- $a The pulmonate snail Chondrina avenacea lives on exposed rock walls where it experiences drastic daily and seasonal fluctuations of abiotic conditions and food availability. We found that tolerance to dry conditions was maintained at a very high level throughout the year and was mainly based on the snails' ability to promptly enter into estivation (quiescence) whenever they experienced drying out of their environment. Snails rapidly suppressed their metabolism and minimized their water loss using discontinuous gas exchange pattern. The metabolic suppression probably included periods of tissue hypoxia and anaerobism as indicated by accumulation of typical end products of anaerobic metabolism: lactate, alanine and succinate. Though the drought-induced metabolic suppression was sufficient to stimulate moderate increase of supercooling capacity, the seasonally highest levels of supercooling capacity and the highest tolerance to subzero temperatures were tightly linked to hibernation (diapause). Hibernating snails did not survive freezing of their body fluids and instead relied on supercooling strategy which allowed them to survive when air temperatures dropped to as low as -21 °C. No accumulation of low-molecular weight compounds (potential cryoprotectants) was detected in hibernating snails except for small amounts of the end products of anaerobic metabolism.
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