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Seasonal changes in leaf water relations and cell membrane stability in orchardgrass (Dactylis glomerata)

Published online by Cambridge University Press:  27 March 2009

G. S. Premachandra ,
H. Saneoka ,
K. Fujita  and
S. Ogata
G. S. Premachandra
Affiliation:
Faculty of Applied Biological Science, Hiroshima University, Higashi-Hiroshima 724, Japan
H. Saneoka
Affiliation:
Faculty of Applied Biological Science, Hiroshima University, Higashi-Hiroshima 724, Japan
K. Fujita
Affiliation:
Faculty of Applied Biological Science, Hiroshima University, Higashi-Hiroshima 724, Japan
S. Ogata
Affiliation:
Faculty of Applied Biological Science, Hiroshima University, Higashi-Hiroshima 724, Japan
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Summary

Fifteen cultivars of orchardgrass (Dactylis glomerata L.) were grown in the field at Hiroshima University, Japan, to investigate seasonal changes in leaf water relations and cell membrane stability (CMS) measured by the polyethylene glycol (PEG) test. Leaf water potential and osmotic potential were measured from August 1988 to August 1989. Solute concentration in leaf cell sap was also estimated.

Cell membrane stability increased, leaf water potential and osmotic potential decreased and turgor potential increased with decreasing environmental temperatures during autumn and winter. The significant increases observed in CMS may enable plants to tolerate freezing temperatures during winter. Decrease in leaf water potential may be a result of water-deficit effects due to soil freezing at low temperatures and the decrease in osmotic potential may help plants to maintain turgor and tolerate freezing conditions. Plants maintained higher turgor as the osmotic potential decreased to values as low as – 3·98 MPa during winter; the maintenance of turgor helps to maintain water uptake under water deficit conditions at low temperatures.

Sugar and K were the major osmotic contributors in orchardgrass leaves. Sugar and Ca concentrations increased and Mg and P concentrations decreased at cold temperatures. K concentration increased in six cultivars and decreased in nine others at cold temperatures. Sugar concentration in cell sap was negatively correlated with osmotic potential. It was concluded that seasonal changes in CMS may be mainly associated with the osmotic potential of the leaf tissues.

Type
Crops and Soils
Information
The Journal of Agricultural Science , Volume 121 , Issue 2 , October 1993 , pp. 169 - 175
Copyright
Copyright © Cambridge University Press 1993

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References

REFERENCES

Arcioni, S., Falcinelli, M. & Mariotti, D. (1985). Ecological adaptation in Lolium perenne L.: physiological relationships among persistence, carbohydrate reserves and water availability. Canadian Journal of Plant Science 65, 615–624.Google Scholar
Blum, A. & Ebercon, A. (1981). Cell membrane stability as a measure of drought and heat tolerance in wheat. Crop Science 21, 43–47.CrossRefGoogle Scholar
Eagles, C. F. (1967). Variation in the soluble carbohydrate content of climatic races of Dactylis glomerata (cocksfoot) at different temperatures. Annals of Botany 31, 645–651.CrossRefGoogle Scholar
Fitter, A. H. & Hay, R. K. M. (1981). Environmental Physiology of Plants. New York: Academic Press.Google Scholar
Kacperska-Palacz, A. (1978). Mechanisms of cold acclimation in herbaceous plants. In Plant Cold Hardiness and Freezing Stress (Eds Li, P. H. & Sakai, A.), pp. 139–152. New York: Academic Press.CrossRefGoogle Scholar
Kozlowski, T. T. (1983). Reduction in yield of forest and fruit trees by water and temperature stress. In Crop Reactions to Water and Temperature Stresses in Humid Temperate Climates (Eds Raper, C. P. & Kramer, P. J.), pp. 67–88. Boulder, Colorado: Westview Press.Google Scholar
Levitt, J. (1956). The Hardiness of Plants. New York: Academic Press.Google Scholar
Levitt, J. (1972). Factors related to freezing tolerance. In Responses of Plants to Environmental Stresses (Ed. Levitt, J.), pp. 110–167. New York: Academic Press.Google Scholar
Levitt, J. (1980). Responses of Plants to Environmental Stresses Vol I, Chilling, Freezing and High Temperature Stresses. New York: Academic Press.Google Scholar
McWilliam, J. R. (1983). Physiological basis for chilling stress and the consequences for crop production. In Crop Reactions to Water and Temperature Stress (Eds Raper, C. P. & Kramer, P. J.), pp. 113–132. Boulder, Colorado: Westview Press.Google Scholar
Pollock, C. J. (1982). Patterns of turnover of fructans in leaves of Dactylis glomerataL. New Phytologist 90, 645–650.Google Scholar
Pollock, C. J., Eagles, C. F. & Sims, I. M. (1988). Effect of photoperiod and irradiance changes upon development of freezing tolerance and accumulation of soluble carbohydrate in seedlings of Lolium perenne grown at 2 °C. Annals of Botany 62, 95–100.CrossRefGoogle Scholar
Premachandra, G. S. & Shimada, T. (1987 a). The measurement of cell membrane stability using polyethylene glycol as a drought tolerance test in wheat. Japanese Journal of Crop Science 56, 92–98.CrossRefGoogle Scholar
Premachandra, G. S. & Shimada, T. (1987 b). Measurement of drought tolerance in orchardgrass (Dactylis glomerata L.) I. Polyethylene glycol test of measuring cell membrane stability. Japanese Journal of Grassland Science 33, 140–148.Google Scholar
Premachandra, G. S. & Shimada, T. (1987 c). Measurement of drought tolerance in orchardgrass (Dactylis glomerata L.) II. Evaluation of polyethylene glycol test. Japanese Journal of Grassland Science 33, 149–156.Google Scholar
Premachandra, G. S., Saneoka, H. & Ogata, S. (1989). Nutrio-physiological evaluation of the polyethylene glycol test of cell membrane stability in maize. Crop Science 29, 1287–1292.CrossRefGoogle Scholar
Premachandra, G. S., Saneoka, H., Kanaya, M. & Ogata, S. (1991). Cell membrane stability and leaf surface wax content as affected by increasing water deficits in maize. Journal of Experimental Botany 42, 167–171.CrossRefGoogle Scholar
Sakai, A. & Larcher, W. (1987). Cold acclimation in plants. In Ecological Studies Vol. 62 (Eds Billings, W. D., Golley, F., Lange, O. L., Olson, J. S. & Remmert, H.), pp. 97–137. Berlin: Springer-Verlag.Google Scholar
Steponkus, P. L. & Wiest, S. C. (1978). Plasma membrane alterations following cold acclimation and freezing. In Plant Cold Hardiness and Freezing Stress: Mechanisms and Crop Implications (Eds Li, P. H. & Sakai, A.), pp. 75–92. New York: Academic Press.CrossRefGoogle Scholar
Sullivan, C. Y. (1972). Mechanisms of heat and drought resistance in grain sorghum and methods of measurements. In Sorghum in the Seventies (eds Rao, N. G. P. & House, L. R.), pp. 247–264. New Delhi, India: Oxford and IBH Publishing Company.Google Scholar
Yelonosky, G. (1978). Freeze survival of citrus trees in Florida. In Plant Cold Hardiness and Freezing Stress: Mechanisms and Crop Implications (Eds Li, P. H. & Sakai, A.), pp. 297–311. New York: Academic Press.Google Scholar
Yoshida, S., Forno, D. A., Cock, J. H. & Gomez, K. A. (1976). Laboratory Manual for Physiological Studies of Rice, 3rd edn.Los Baños, Philippines: International Rice Research Institute.Google Scholar