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V.K. Kurets, E.G. Popov (1991)
Statisticheskoe modelirovanie sistemy svyazei rastenie-sreda
E.G. Popov, A.V. Talanov, V.K. Kurets, S.N. Drozdov (2003)
Effect of Temperature on Diurnal Changes in CO2 Exchange in Intact Cucumber PlantsFiziol. Rast., 50
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K. Mccree, S. Kresovich (1978)
Growth and Maintenance Requirements of White Clover as a Function of Daylength 1Crop Science, 18
W. Larcher (1977)
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O.A. Semikhatova, O.V. Zalenskii (1982)
Fiziologiya fotosinteza
A.V. Talanov, E.G. Popov, V.K. Kurets (1989)
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T.K. Golovko (1999)
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R. Brown (1996)
Effect of temperature
E. Popov, A. Talanov, V. Kurets, S. Drozdov (2003)
Effect of Temperature on Diurnal Changes in CO2 Exchange in Intact Cucumber PlantsRussian Journal of Plant Physiology, 50
B.I. Gulyaev, D.A. Kirizii, M.A. Milov (1982)
Dry Matter Accumulation and Gas Exchange in Sugar Beet under Different Intensities and Duration of IrradiationFiziol. Biokhim. Kul’t. Rast., 14
The coefficient of effectiveness (K e) of assimilated CO2 conversion into dry matter of cucumber (Cucumis sativus L.) plants at the stage of four leaves as dependent on a photoperiod (8, 12, and 16 h) at an irradiance of 220 W/m2 at the upper leaf level and the combinations of day and night temperatures: typical temperature of plant habitat (background temperature) of 25°C and heat- and cold-hardening temperatures (35 and 15°C, respectively) was determined in the multifactorial designed experiment. K e reduced insignificantly at shortening of a photoperiod and greater at its lengthening. At background temperatures, K e corresponded mainly to that of carbohydrate synthesis while the presence of cold-hardening temperatures in the thermoperiod increased K e and heat-hardening temperature reduced it.
Russian Journal of Plant Physiology – Springer Journals
Published: Apr 7, 2005
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