Summary
The thermostability of protoplasmic streaming, the capacity for plasmolysis and reduction of tetrazolium salt, and the thermostability of acid phosphatase and peroxidase were compared in two species of Zostera, Z. marina L. and Z. noltii Hornem. which were growing in Sevastopal Bay on the Black Sea. The thermostability of studied functions and enzymes in Z. noltii is approximately 4° or 5° C higher than that in Z. marina and this is consistent with the greater thermophily of Z. noltii, which has a more southerly habitat and which is a less deep-water form than Z. marina. The adaptive significance of the correlation between function and protein thermostability and the environmental temperature is regarded as the adjustment of the level of protein flexibility to a prevailing ambient temperature.
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References
Alexandrov VYa (1967) Protein thermostability of a species and habitat temperature. In: CL Prosser (ed) Molecular mechanisms of temperature adaptation. Washington: Am Ass Advan Sci, pp 53–59
Alexandrov VYa (1977) Cells, molecules and temperature. Springer, Berlin, Heidelberg, New York
Bauer H, Larcher W, Walker RB (1975) Influence of temperature stress on CO2-gas exchange. In: Photosynthesis and productivity in different environments. Cambr Univ Press, pp 557–586
Berry JA, Fork DC, Garrison S (1975) Mechanistic studies of thermal damage of leaves. Carnegie Inst Wash Yearbook, 74:751–759
Bessey OA, Lowry OH, Brock MJ (1946) A method for rapid determination of alkaline phosphatase with five cubic millilitres of serum. J biol chem 164:321–329
Biebl R (1962) Protoplasmatische Ökologie der Pflanzen. Wasser und Temperatur. Springer Verlag, Wien
Björkman O (1975) Thermal stability of the photosynthetic apparatus in intact leaves. Carnegic Inst Wash Yearbook 74:748–751
Björkman O, Badger M (1977) Thermal stability of photosynthetic enzymes in heat- and cold-adapted C4-species. Carnegie Inst Wash Yearbook 76:346–354
Björkman O, Nobs MA, Hiessey WH (1970) Growth, photosynthetic and biochemical responses of contrasting Mimulus clones to light intensity and temperature. Carnegie Inst Wash Yearbook 68:614–620
Feldman NL (1969) Thermostability of acid phosphatase from leaves of two species of Leucojum with different periods of vegetation. Tsitologia (russ.) 11:592–599
Feldman NL (1973) The temperature dependence of enzymatic activity and Km of acid phosphatase from the leaves of spring and summer species of Leucojum. Tsitologia (russ), 15:170–176
Feldman NL, Kamentseva IE (1971) Thermostability of cells and intracellular proteins in spring and summer snowflakes (Leucojum). Tsitologia (russ.), 13:479–483
Feldman NL, Konstantinova MF (1979) Comparison of thermoresistance of the main fraction of proteins and isozymes of esterase from leaves of two species of Leucojum. Bot Zh (russ), 64:890–892
Feldman NL, Lutova MI (1962) Studies on the heat stability of the cells of some marine grasses. Bot Zh (russ) 47:542–546
Hartog C (1970) The sea-grasses of the world. Verhandl Nederl Akad Wetensch, Afd Nat Tweide Reeks 59:1, 1–275
Kislyuk IM, Denko EI (1976) Thermostability of cells in arctic and boreal plants and its significance for adaptation to the conditions of the north. Bot Zh (russ), 61:488–498
Kulikova NM (1970) The growth of Zostera in Sevastopol region. In: Ecologo-morphologycal studies of benthos organisms. Kiev: Naukovi dumka (russ), pp 168–185
Larcher W (1976) Ökologie der Pflanzen. Verlag Eugen Ulmer, Stuttgart
Liu EH, Sharitz RR, Smith MH (1978) Thermal sensitivity of malate dehydrogenase isozymes in Typha. Amer J Bot 65:214–220
Mooney HA, Wright RD, strain BR (1964) The gas exchange capacity of plants in relation to vegetation zonation in the White Mountains of California. Amer Mid Natur 72:281–297
Morozova-Vodyanitskaya NV (1959) Plant associations in the Black Sea. Trudy Sevastopol biol. station Akad. Nauk SSSR (russ), 11:3–28
Mukhin EH, Gins VK, Kulikov AV, Lichtenstein GI (1973) Heat resistance of ferredoxin of higher plants: their activity in NADP photoreduction. Fiziol rasteni (russ) 20:1007–1012
Mukhin EN, Gins VK, Red'ko TP (1978) Characterization of plastocyanin of maize (Zea mays L.) and pea (Pisum sativum L.) leaves. Izv Akad Nauk SSSR ser biol (russ) 3:399–404
Phillips PJ, McWilliam JR (1971) Thermal responses of the primary carboxylation enzymes from C3 and C4 plants adapted to contrasting environments. In: MD Hatch, CB Osmond, RO Slatyer (eds) Photosynthesis and photorespiration. Wiley, New-York, pp 97–104
Pütter J (1974) Peroxidases. In: HU Bergmeyer (ed) Methods enzymatic analysis. Vol 2, Academic Press, New York-London
Semikhatova OA, Ivanova TI, Leina GD, Vaskovsky MD (1976) The effect of temperature on the respiration of plants of Wrangel island Bot Zh (russ) 61:848–858
Tieszen LL, Sigurdson DC (1973) Effect of temperature on carboxylase activity and stability in some Calvin cycle grasses from the arctic. Arctic Alpine Res 5:59–66
Treharne KJ, Cooper JP (1969) Effect of temperature on the activity of carboxylases in tropical and temperate Gramineae. J Exp Bot 20:170–175
Voznesensky VL (1977) Photosynthesis of desert plants. Izd Akad Nauk SSSR (russ), Leningrad
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Lutova, M.I., Feldman, N.L. Genotypic temperature adaptations of cellular functions and proteins in two Zostera species. Oecologia 49, 92–95 (1981). https://doi.org/10.1007/BF00376904
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DOI: https://doi.org/10.1007/BF00376904