长江中游浅水湖泊水生植物氮磷含量与水柱营养的关系

吴爱平, 吴世凯, 倪乐意

吴爱平, 吴世凯, 倪乐意. 长江中游浅水湖泊水生植物氮磷含量与水柱营养的关系[J]. 水生生物学报, 2005, 29(4): 406-412.
引用本文: 吴爱平, 吴世凯, 倪乐意. 长江中游浅水湖泊水生植物氮磷含量与水柱营养的关系[J]. 水生生物学报, 2005, 29(4): 406-412.
WU Ai-Ping, WU Shi-Kai, NI Le-Yi. STUDY OF MACROPHYTES NITROGEN AND PHOSPHORUS CONTENTS OF THE SHALLOW LAKES IN THE MIDDLE REACHES OF CHANGJIANG RIVER[J]. ACTA HYDROBIOLOGICA SINICA, 2005, 29(4): 406-412.
Citation: WU Ai-Ping, WU Shi-Kai, NI Le-Yi. STUDY OF MACROPHYTES NITROGEN AND PHOSPHORUS CONTENTS OF THE SHALLOW LAKES IN THE MIDDLE REACHES OF CHANGJIANG RIVER[J]. ACTA HYDROBIOLOGICA SINICA, 2005, 29(4): 406-412.

长江中游浅水湖泊水生植物氮磷含量与水柱营养的关系

基金项目: 

中国科学院知识创新工程项目(KZCX1SW12,KSCX2SW110)

国家基金面上项目(30270259)资助

STUDY OF MACROPHYTES NITROGEN AND PHOSPHORUS CONTENTS OF THE SHALLOW LAKES IN THE MIDDLE REACHES OF CHANGJIANG RIVER

  • 摘要: 水生植物组织内氮和磷(N和P)含量受到水体营养状况和植物生长状况影响。对长江中游江汉湖群不同营养水平湖泊中大型水生植物的N和P含量3个季度的研究表明,在不同生活型水生植物中,沉水植物主要分布在中营养到中富营养湖泊中,在富营养湖泊均无分布,浮叶和挺水植物在不同营养类型湖泊的沿岸带均有分布。N和P含量以沉水植物最高,浮叶植物次之,挺水植物最低。水生植物的N和P含量都达到或超过生长所需最低N和P阈值,代表性浮叶植物和沉水植物的N和P含量随着湖泊营养水平提高呈现规律性变化。湖泊5种常见的水生植物N和P含量与水柱中不同种类N和P浓度具有季节性相关:菱(TrapabispinosaRoxb.)春夏季P含量都与TP(总磷)和TDP(总溶解磷)明显相关,春季N含量与NH4—N(氨氮)明显相关;春季黄丝草(PotamogetonmaackianusA.Benn.)的P含量与TP明显相关,夏季与TDP明显相关,春季和夏季黄丝草和穗花狐尾藻(MyriophyllumspicatumL.)的N含量与TN(总氮)和TDN(总溶解氮)显著正相关,秋季成负相关;夏季芦苇(PhragmitescommunisTrin.)P含量与TP和TDP显著相关;春季芦苇和香蒲(TyphaorientalisPresl.)N含量与NH4N和NO2N(亚硝态氮)显著相关。
    Abstract: Content of tissue nitrogen and phosphorus of aquatic plant is affected by trophic statue of the waters and the plantgrowth condition.Nitrogen and phosphorus contents(N and P) of aquatic plantsof eighteen investigated lakes in the middle reaches of Changjiang River were comparative studied. The results showed that, among all life forms of aquatic plants, the submersedmainly distributed in mesotrophic to mesoeutrophic lakes, while the floating leaved and emergent in lake’ s littoral zone of different trophic levels. N and P contents were highest in the submersed and lowest in the emergent, intermediate in floating leavedplants. All aquatic plants reached or exceeded their least requirements of N and P content for maximum growth N and P contentsof the major submersed and floating leaved plants changed relative to increased trophic levels of the lakes. N and P content of 5aquatic plants showed significant correlations with different N and P species in different growth season. Among the plants of dif2ferent life form, P content of Trapa natans was related significantly to total phosphorus (TP) and total dissolved phosphorus(TDP) in water in the spring and the summer, its N content related to the ammonia (NH42N) in the spring. P content of Pota2mogeton maackianus was related to TP in the spring and to TDP in the summer. N contents of P. maackianus and Myriophyllumspicatum were positive related to total nitrogen (TN) and total dissolved nitrogen (TDN) in the water both in the spring and thesummer, and were negative related in autumn. P contents in shoot and root of Phragmites communis were significantly related toTP and TDP of the water in the summer; N contents in the shoot of P. communis and in Typha latiorlia in spring were relatedto ammonia (NH42N) and nitrite (NO22N). Sumersed and floating leaved plants are more correlatived with the nutrition level oflakes than emergent plants are, so it is better to choose the formers as the indicative species of the pollution degree of water quality.
  • [1]

    [J]. Aquatic Botany.2003,76:299-315

    [1]

    DucrotoyJ P. Indications of change in the marine flora of the NorthSea in the 1990s[J]. Mar. Pollut. Bull.1999,38:646-654

    [2]

    PokornyJ J, Kvet J, POndok. Functioningof the plant component indensely stocked fishponds[J]. Bull. Ecol..1990,21:44-48

    [3]

    Lzagurirr2Mayoval. ML O. Carballo, Egea R, Romano M. Respons2es of rhizobiumino culated and nitrogen2supplied cowpea plants to in2creasing phosphorus concentions in solution culture[J]. J. Plant Nu2trition.2002,25:2273-2387

    [4]

    Ni L Y. Stressof fertile sendiment on the growthof submersed macro2phytes in eutrophic waters [J]. Acat hydrobiologica Sinica. 2001,25(4):399-405[倪乐意. 富营养水体中肥沃底质对沉水植物的胁迫. 水生生物学报,2001,25(4):399-405]

    [5]

    Andreas K lumpp, K onrad Bauer, Charis Franz2Gersteinand Max deMenezes. Variation of nutrient and metal concentrations in aquaticmacrophytes along the Rio Cachoeira in Bahia(Brazil-[J]. Environ2ment International,2002,28:165-171

    [6]

    Zaranyika M F, Ndapwadza T, Uptake of Ni, Zn, Fe, Co, Cr,Pb,Cu and Cd by water hyacinth(Eichhornia crassipes-in Mukuvisi andManyame rivers, Zimbabwe [J]. J Environ Sci Health,1995,30:157-169

    [7]

    H G onzález, MLodenius and MOtero, Water hyacinth as indicator ofheavy metal pollution in the tropics[J]. Bull Environ Contam Toxi2col,1989,43:910-914

    [8]

    Jana S, Accumulationof Hg and Cr by three aquatic species and sub2sequent changes in several physiological and biochemical plant param2eters[J]. Water Air Soil Pollut,1988,38:105-109

    [9]

    Zhu YL, Zayed A.M.,QianJ. H.,et al. Phytoaccumulationof traceelements bywetland plants: Ⅱ. Water hyacinth[J]. J. Environ Qual,1999,28:339-344

    [10]

    Moore KA, Wetzel RL. Seasonal variations in eelgrass(Zostera ma2rina L. )responses to nutrient enrichment and reduced light availabili2ty in experimental ecosystems. [J]. J. Exp.Mar.Biol.Ecol..2000,244:1-28

    [11]

    Ni, L. Effects of water column nutrient enrichment on the growth ofPotamogeton maackianus A.Been. J. Aquat. Plant manage. 2001,39:83-87

    [12]

    Amy FGras, Marguerite S K och., Christopher J Madden. Phosphorusuptake kinetics of a dominant tropical seagrass Thalassia testudinum

    [13]

    Rattray M R, C Howard2Williams, BrownJ MA. Sediment and wateras sources of nitrogen and phosphorus for submerged rooted aquaticmacrophytes[J]. Aquatic Botany.1991,40(3):225-237

    [14]

    Short, F T. Effects of sediment nutrients on seagrasses: literature re2view and mesocosm experiment[J]. Aquat. Bot. 1987,27:41-57

    [15]

    Duare C M. Seagrass nutrient content[J]. Mar.Ecol.Prog. Ser.1990,67:201-207

    [16]

    Bulthuis D A, Axelrad D M, Mickelson MJ. Growth of the seagrassHeterozostera tasmanica limited by nitrogen in Port Philip Bay[J].Marf. Ecol. Prog. Ser.1992,89:269-275

    [17]

    R Azco’ n, E Ambrosano, C Charest. Nutrient acquistion in mycor2rhizal lettuce plants under differentphosphorus and nitrogen concentra2tion[J]. Plant Science.2003,165:1137-1145

    [18]

    Margaret Greenway. Nutrient content of wetland plants in constructedwetlands receiving municipal effluent in tropical Australia[J]. WaterScience and Technology.1997,35(5):135-142

    [19]

    Johannes2Gunter K ohl, Peter Woitke, Harald Kuhl, Marion Dewen2der, Gabriele K onig. Seasonal changes in dissolved amino acids andsugars in basal culm internodes asphysiologicalindicators of the CrN2balance of Phragmitesaustralis at littoral sites of different trophic sta2tus[J]. Aquatic Botany.1998,60:221-240

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出版历程
  • 收稿日期:  2004-06-09
  • 修回日期:  2005-03-13
  • 发布日期:  2005-07-24

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