07. Activity of sucrose phosphate synthase in lines of sugar beet (Beta vulgaris L.) with complex stability
https://doi.org/10.31073/agrovisnyk201903-07
Kliachenko O. L.
Pages: 45-49.
Full article:
Key words: sugar beet, salt and water stresses, sucrose phosphate synthase, plants-regenerants, sugariness.
Pages: 45-49.
Full article:
Abstract
The purpose. To determine activity of enzyme sucrose phosphate synthase in lines of sugar beet with complex stability to two stressful factors. Methods. Laboratory, vegetative, mathematical-statistical. Results. Processes of metabolism break during adaptation of plants to stressful factors. That is reflected in oppression of growth and decrease in photosynthetic activity. Experimental data on change of functional activity of enzyme sucrose phosphate synthase in conditions of action of water and salt stresses in leaves of plants-regenerants and sugariness of root crops of cellular lines of sugar beet with complex stability to drought and salinization are brought. At experiment the generated plants-regenerants of cellular lines of sugar beet of height 10–15 cm which had 6–10 true leaves were replanted in the open ground. Their survival made 68-80%. The revealed essential changes of functional activity of enzyme sucrose phosphate synthase in researched regenerants of cellular lines at influence of complex stress found confirmation in formation of sugariness of root crops. Thus especially perceptual was activation of enzyme in highly-stable cellular lines which size varied within the limits of 60-99%. That testified to their ability to adaptation in such conditions. It was established that sugariness of the received lines of sugar beet with complex stability against drought and salinization depending on their gradation was within the limits of 15,8–17,2% and decreased under these conditions concerning control plants on 0,2–0,7%. Conclusions. At complex stress there are essential changes in action of enzyme sucrose phosphate synthase in leaves and sugariness of root crops. Activity of enzyme can be used as biochemical marker of stability in conditions of primary diagnostics of plants-regenerants of sugar beet with potentially high adaptive potential.Key words: sugar beet, salt and water stresses, sucrose phosphate synthase, plants-regenerants, sugariness.
References
- Dubrovna O.V., Morhun B.V. (2009) Klitynna selektsiia pshenytsi na stiikist do stresovykh chynnykiv dovkillia [Cellular breeding of wheat for resistance to environmental stressors]. Fyzyolohyia y byokhymyia kulturnblkh rastenyi [Physiology and biochemistry of cultivated plants]. T. 41, № 6. pp. 463–475. [in Ukrainian].
- Lestari E.G. (2006) Review: In vitro selection and somaclonal variation for biotic and abiotic stress tolerance. Biodiversitas. V. 7, № 3. pp. 297–301.
- Mohd M., Khan Taqi A., Firoz M. (2011) Effect of abiotic stress on synthesis of secondary plant products: a critical review. Agricultural Reviews. V. 32 (3). pp. 172–182.
- Dubrovna O.V., Chuhunkova T.V., Bavol A.V., Lialko I.I. (2012) Biotekhnolohichni osnovy stvorennia roslyn, stiikykh do stresiv [Biotechnological fundamentals of stress-relieving plants]. Kyiv: Lohos, pp. 428. [in Ukrainian].
- Yildiz M., Telci C., Onol B., Ozcan S. (2011) Oxidative stress in sugar beet (Beta vulgaris L.) in vitro culture. Bioloji Bilimleri Arastirma Dergisi. V. 4 (2). pp. 113–117.
- Saad E., Raja A. (2003) In vitro micropropagation of spinach beet (Beta vulgaris L.) under effect of saltstress. Amer. Soc. Plant. Biol. (ASPB). V. 34, № 4. pp. 503.
- Chuhunkova T.V. (2009) Vykorystannia klitynnoi selektsii dlia stvorennia stiikykh form buriakiv [Use of cell breeding to create stable forms of beets]. Fiziologiya i biokhimiya kulturnykh rasteniy [Physiology and biochemistry of cultivated plants]. T. 41, № 6. pp. 509–515. [in Ukrainian].
- Lafta A.M., Lorensen I.H. (1995) Effect of high temperature o plant growth and carbogidrate metabolism in potato. Plant Phisiol. V. 109. pp. 637–643.
- Huber S.C. (1983) Role of sucrose phosphate synthetase in partitioning of carbon in leaves. Plant Physiol. V. 71, № 4. pp. 818–821.
- Roe J.H. (1954) A Colorimetric method for the determination of fructose in blood and urine. J. Biol. Chem. V. 107. pp. 15–22.
- Pochinok Kh.N. (1976) Metody biokhimicheskogo analiza rasteniy [Methods of biochemical analysis of plants]. Kiev: Naukova dumka, pp. 333. [In Russian]
- Yordanov I., Velikova V., Tsonev T. (2000) Plant responses to drought, acclimation and stress tolerance. Photosynthetica. V. 38, № 1. pp. 171–186.
- Ho S.-L., Chao Y.-C., Tong W.-F., Yu S.-M. (2001) Sugar coordinately and differentially regulates growthand stress-related gene expression via a complex signal transduction network and multiple control mechanism. Plant Physiol.. V. 125, № 2. pp. 877– 890.
- Kursanov A.L. (1988) Khloroplast kak datchik assimilyatov v rastenii [Chloroplast as a sensor of assimilates in a plant]. Moskva: Nauka, 277 p.
- Pavlinova O.A., Kholodova V.P. (1985) Biokhimicheskie i membrannye aspekty sakharonakopleniya. Novye napravleniya v fiziologii rasteniy. Moskva: Nauka, pp. 252–260. [In Russian]
- Sakalo V.D. (2002) Rol i regulyatsiya klyuchevogo fermenta biosinteza sakharozy — sakharozofosfatsintazy [The role and regulation of the key enzyme of sucrose biosynthesis - sucrose phosphate synthase]. Fiziologiya i biokhimiya kulturnykh rasteniy [Physiology and biochemistry of cultivated plants]. № 6. Vyp. 34. pp. 463–474. [In Russian]
- Avigad G. (1982) Sucrose and other disaccharides. Plant carbohydrates I. Encyclopedia of Plant Physiol. New series. V. 13A. pp. 217–348.