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Metabolite accumulation during ice encasement of timothy grass (Phleum pratense L.)

Published online by Cambridge University Press:  05 December 2011

Bjarni E. Gudleifsson
Bjarni E. Gudleifsson
Affiliation:
Agricultural Research Institute, Mödruvellir Experimental Station, IS-603 Akureyri, Iceland
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Synopsis

Plants are killed by prolonged ice encasement at slightly subzero temperatures and under these anoxic conditions a number of metabolites are accumulated. Timothy grass plants encased in ice at −2°C can survive these conditions for many weeks and accumulate mainly CO2 and ethanol and lower levels of malate, oxalate, citrate, fumarate and pyruvate. While the accumulation of most of the metabolites increases towards the end of the encasement period the amount of malate decreases, indicating utilisation. Late in the encasement period lactate, butyrate, and traces of malonate, formate and tartarate were detected which might be of bacterial origin. The bacteria most commonly isolated from ice-encased plants is Pseudomonas fluorescens (Trevisan) which in most cases is saprophytic. All of the above-mentioned metabolites were also detected from thaw water in the field after long duration of ice encasement, butyrate attaining the highest concentration.

Type
Research Article
Information
Proceedings of the Royal Society of Edinburgh, Section B: Biological Sciences , Volume 102: Oxygen and Environmental Stress in Plants , 1994 , pp. 373 - 380
Copyright
Copyright © Royal Society of Edinburgh 1994

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References

Andrews, C. J. 1988. The increase in survival of winter cereal seedlings due to light exposure during ice encasement. Canadian Journal of Botany 66, 409–13.CrossRefGoogle Scholar
Andrews, C. J. & Gudleifsson, B. E. 1983. A comparison of cold hardiness and ice encasement tolerance of timothy grass and winter wheat. Canadian Journal of Plant Science 63, 429–35.CrossRefGoogle Scholar
Andrews, C. J. & Pomeroy, M. K. 1975. Survival and cold hardiness of winter wheats during partial and total ice immersion. Crop Science 15, 561–6.CrossRefGoogle Scholar
Andrews, C. J. & Pomeroy, M. K. 1989. Ice-encasement injury at the cellular and membrane level. Icelandic Agricultural Sciences 2, 57–61.Google Scholar
Andrews, C. J. & Pomeroy, M. K. 1990. Low temperature anaerobiosis in ice encasement damage to winter cereals. In Jackson, M. B., Davies, D. D. & Lambers, H. (Eds) Plant life under oxygen deprivation, pp. 85–99. The Hague: SPS Academic Publishing.Google Scholar
Andrews, C. J., Pomeroy, M. K. & De la Roche, I. A. 1974. Changes in cold hardiness of overwintering winter wheat. Canadian Journal of Plant Science 54, 9–15.CrossRefGoogle Scholar
ap Rees, T., Jenkin, L. E. T., Smith, A. M. & Wilson, P. M. 1987. The metabolism of flood-tolerant plants. In Crawford, R. M. M. (Ed.) Plant life in aquatic and amphibious habitats, pp. 227–38. Oxford: Blackwell Scientific Publication.Google Scholar
Baadshaug, O. H. 1973. Effect of soil type and soil compaction on the wintering of three grass species under different wintering conditions. Acta Agriculturae Scandinavica 23, 77–86.CrossRefGoogle Scholar
Bolton, J. L. & McKensie, R. E. 1946. The effect of early spring flooding on certain forage crops. Scientific Agriculture 26, 99–105.Google Scholar
Gudleifsson, B. E. 1977. Ice encasement damages and smell from damaged fields (Svellkal og kallykt). Arsrit Raktunarfelags Nordurlands 74, 70–6.Google Scholar
Gudleifsson, B. E. 1989. Extent and importance of ice-encasement damages on gramineous plants in the Nordic countries. Icelandic Agricultural Sciences 2, 7–14.Google Scholar
Gudleifsson, B. E. & Larsen, A. 1993. Ice encasement as a component of winterkill in herbage plants. In Li, P. H. & Christersson, L. (Eds) Advances in plant cold hardiness, pp. 229–49. Boca Raton, Florida: CRC Press.Google Scholar
Mitropolenko, A. I. 1986. Influence of ice crust attached to soil on overwintering and yield of winter wheat. Soviet Meteorology and Hydrology 12, 85–93.Google Scholar
Noshiro, M. 1982. Freezing resistance of grasses encased in ice. Journal of Japanese Society of Grassland Science 28, 339–41.Google Scholar
Pomeroy, M. K. & Andrews, C. J. 1978. Metabolic and ultrastructural changes in winter wheat during ice encasement under field conditions. Plant Physiology 61, 806–11.CrossRefGoogle ScholarPubMed
Pomeroy, M. K. & Andrews, C. J. 1979. Metabolic and ultrastructural changes associated with flooding at low temperature in winter wheat and barley. Plant Physiology 64, 635–9.CrossRefGoogle ScholarPubMed
Pomeroy, M. K. & Andrews, C. J. 1983. Responses of winter cereals to various low temperature stresses. In Randall, D. D., Blevins, D. G., Larson, R. L. & Rapp, B. J. (Eds) Current topics in plant biochemistry and physiology 2, pp. 96–106. Columbia: University of Missoury.Google Scholar
Reggiani, R., Cantu', C. A., Brambilla, I. & Bertani, A. 1988. Accumulation and interconversion of amino acids in rice roots under anoxia. Plant Cell Physiology 29, 981–7.Google Scholar
Rakitina, Z. G. 1967. Effect of the gaseous composition of the atmosphere on the frost-resistance of winter wheat plants. Soviet Plant Physiology 14, 278–84.Google Scholar
Woehrle, T. 1963. Ice sheet damage. The Golf Course Reporter 31, 22–24, 26.Google Scholar
Zemlianukhin, A. A. & Ivanov, B. F. 1978. Metabolism of organic acids of plants in the condition of hypoxia. In Hook, D. D. & Crawford, R. M. M. (Eds) Plant life in anaerobic environments. Michigan: Ann Arbor Science.Google Scholar