Abstract

Abstract: In the pot culture experiment, winter wheat (Triticum aestivum L.) c.v. Yanmai 5 was selected to study the effect of long term water logging, which was conducted from jointing stage to 20 days after anthesis, on grain weight and membrane lipid peroxidation,and on enzyme activities involving membrane lipid peroxide elimination of wheat leaf and root. The content of MDA (malondialdehyde), the product of membrane lipid peroxidation in flag leaf and root under waterlogging increased significantly, while the activities of SOD (super oxide dismutase) and CAT (catalase), two key enzymes involving in membrane lipid peroxide elimination decreased severely. Thereafter, the wheat flag leaf and root under waterlogging senesced much earlier than those under control. Therefore, the grain filling rate of wheat grown under water logging condition decreased significantly, and subsequently, its grain weight decreased obviously.

Key words: precipitation reduction, molecular level, biomarker, soil organic matter

CLC Number:

S512.01

JIANG Dong, TAO Qinnan, ZHANG Guoping . [J]. Chinese Journal of Applied Ecology, 2002, (11): 1519-1521.

References

[1] Cao Y(曹),Wu Z-S(吴兆苏).1990.Influence of wet damage on morphological physiology and yield characters of different varieties of wheat boot stage.Heilongjiang Agric Sci(黑龙江农业科学),(4):6～10(in Chinese)
[2] Chance B.1955. Methods on Enzymology. Vol.2. New York : Academic Press.764～765
[3] Dhindsa RS,Plumb-Dhindsa P, Thorpe TA. 1981. Leaf senescence:Correlation with increased levels of membrane permeability and lipid peroxidation and decreased levels of superoxide dismutase and catalase.J Exp Bot,32:93～101
[4] Dong J-G(董建国),Yu S-W(余叔文).1984.Effects of cytokinin on senescence and ethylene production in water-logged wheat plants.Acta Phytophysiol Sin(植物生理学报),10(1):55～61(in Chinese)
[5] Li J-C(李金才),Chang J(常江),Wei F-G(魏凤珍).1997.Relationship between water-logging physiology and production in winter wheat.Plant Physiol Comm(植物生理学通讯),33(4):304～312(in Chinese)
[6] Li L(李琳),Jiao X-Z(焦新之).1980. Method of protein determination by Coomassie Brilliant Blue G 250.Plant Physiol Comm(植物生理学通讯), (6):52～55(in Chinese)
[7] Lu D-Z(陆定志).1983.Senescence and its regulation of leaf.Adv Plant Physiol Biochem(植物生理生化进展),(2):20～52(in Chinese)
[8] Lu J(吕军).1994.The injury to winter wheat growth by soil water logging and its mechanism.Acta Phytophysiol Sin(植物生理学报),20(3):221～226(in Chinese)
[9] Shangdong Agricultural College(山东农学院).1980.Experimental Instruction of Plant Physiology.Jinan: Shandong Science and Technology Press.187～190(in Chinese)
[10] Spiertz JHJ.1974.Grain growth and distribution of dry matter in the wheat plant as influenced by temperature, light energy and ear size.Netherlands J Agric Sci, 22:207～220
[11] Wardlaw IF.1971.The early stages of grain development in wheat: Response to water stress in a single variety. Aust J Biol Sci,24:1047～1055
[12] Wu J-G(吴建国),Liu S-Z(刘淑芝),Li F-Y(李芳荣).1991.Reactions of growth physiology of winter wheat on wet injury.Acta Agric Univ Henan(河南农业大学学报),26(1):31～37(in Chinese)
[13] Xiang H-W(向厚文),Chu Y-S(褚瑶顺),Liang S-C(梁少川).1993.Identification on waterlogging-tolerance of wheat and its prevention of water-logging damage.Hubei Agric Sci(湖北农业科学),(5):13～16(in Chinese)
[14] Yan J-M(严建民),Cao Y(曹),Cai S-B(蔡示宾).1993.Effects of water-logging on leaf RuBPC activity in wheat.J Jiangsu Agric Sci(江苏农业学报),9(2),17～21(in Chinese)
[15] Yan J-M(严建民),Zhu X-D(朱献玳),Cai S-B(蔡示宾).1993.Identification of water-logging tolerance of wheat varieties by trace technique.Acta Agric Nucl Sin(核农学报),7(4):193～197(in Chinese)
[16] Zhu S-T(朱旭彤),Hu Y-Z(胡业正),Ma P-F(马平福).1993.Study on water-logging resistance of wheatⅠ. Critical period of wheat to water logging.Hubei Agric Sci(湖北农业科学),(9):3～7(in Chinese)
[17] Zhu Y-J(朱云集),Ma Y-X(马元喜),Wang C-Y(王晨阳).1994.Effects of soil water environmental stress on some morphological, anatomical and ultrastructural characteristics in wheat roots.Acta Agric Univ Henan(河南农业大学学报),28(3):224～229(in Chinese)

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