湿地中的藻类生态学研究进展

摘要/Abstract

摘要： 从湿地中藻类的种群结构、藻类在湿地中的功能、湿地中的藻类生产力及其影响因素等方面综述了天然湿地中的藻类生态学研究进展.湿地植物区系主要有附泥藻类、附植藻类、后周丛藻类和浮游植物4种类型,其中常见的是附泥藻类的硅藻、绿藻和蓝藻.藻类最显著的作用是作为湿地食物网中的初级生产者,也作为湿地环境污染的生物指示物.影响藻类生产力的因素有水力学因素、营养、温度、光、大型植物及草食动物和其它动物.未来对藻类的研究应侧重于湿地藻类生物多样性、藻类生物量、生产力、种群组成的环境控制及其相互关系,以及藻类作为水环境及湿地污染程度指标的研究,“基因治藻”也将是未来研究的新方向.

关键词: 湿地, 藻类生态学

Abstract: The research advance in algae ecology in wetland was introduced in this paper,which included the algae population structure and its function,and the algae productivity and its affecting factors. Almost all kinds of algae occured in wetland,including four assemblages: epipelon, epiphyton, metaphyton and phytoplankton, among which, diatom, green and blue algae were the predominant species. Algae were the fundamental players in the physical, chemical and biological processes that characterized wetland ecosystems. Most obvious was their role as primary producers and their place in the wetland food web. Algae were an important food resource for herbivores, and contributed to wetland nutrient cycle as the sources of dissolved organic matter and N. They could also be used as biomarkers for monitoring environment pollution. The affecting factors on algae's productivity were hydraulic factor, nutrition, temperature, illumination,herbivores and some other animals,and so on. Because of their functions in wetland, future research on algae in wetland should expand our knowledge of the environmental controls on algal biomass, productivity, and species composition in wetlands, with particular in areas for which knowledge was incomplete. Included among these,may be a detailed evaluation of the proportionate contributions by epipelon, epiphyton, metaphyton, and phytoplankton to food web dynamics in wetlands,and a further study of the genetic technique in controlling hazardous algae.

Key words: Wetland, Algae ecology

中图分类号:

Q894
Q948

熊丽, 谢丽强, 生秀梅, 吴振斌, 夏宜琤. 湿地中的藻类生态学研究进展[J]. 应用生态学报, 2003, (6): 1007-1011.

XIONG Li, XIE Liqiang, SHENG Xiumei, WU Zhenbin, XIA Yicheng. A review on algae ecology in wetland[J]. Chinese Journal of Applied Ecology, 2003, (6): 1007-1011.

参考文献

[1] Barica J. 1990. Seasonal variability of N: P ratios in eutrophic lakes. Hydrobiologia, 191:97～103
[2] Batt BDJ, Anderson MG, Anderson CD, et al. 1989. The use of prairie potholes by North American ducks. In: van der Valk A, eds. Northern Prairie Wetlands. Iowa: Iova State University Press.204～207
[3] Bazely DR and Jefferies RL. 1989. Lesser snow geese and the ni trogen economy of a grazel salt marsh. J Ecol, 77: 24～34
[4] Bosserman RW. 1983. Elemental composition of Utricularia-peri phyton ecosystems from Okefenokee Swamp. Ecology, 64: 1637～1645
[5] Brix H. 1994. Functions of macrophytes in constructed wetlands. Water SCi Technol, 29: 71～78
[6] Browder JA, Gleason PJ, Swift DR. 1994. Periphyton in the ever glades: Spatial variation, environmental correlates, and ecological implication. In: Davis SM, Ogden JC, eds. Everglades: The Ecosys tem and Its Restoration. Boca Raton: St. Lucie Press. 379～418
[7] Campeau S, Murkin HR, Tilman RD. 1994. Relative importance of algae and emergent plant litter to freshwater marsh invertebrates. Can J Fish Aquat Sci, 51:681～692
[8] Carper GL and Bachman RW. 1984. Wind resuspention of sedi ments in a prairie lake. Can J Fish Aquat Sci, 41: 1763～1767
[9] Chen M(陈美). 2002. The species and biological characters of algae toxin in fresh water and test method. J AnhuiAgric SCi(安徽农业科学),30(2):821～822(in Chinese)
[10] Chen Y-Y(陈宜瑜)1995.China Wetland Survey.Changchun:Jilin Science Press. (in Chinese)
[11] Cronk JK and Mitsch WJ. 1994. Periphyton productivity in fournewly constructed freshwater wetlands under different hydraulicregimes. Aquat Bot, 48: 325～341
[12] Cui B-S(崔保山). 1999. A study on changes of ecological charac-ters and sustainability on wetland ecosystem. Chin J Ecol (生态学杂志), 18(2) :43～49 (in Chinese)
[13] Dadds WK. 1991. Community interactions between the filamen tous alga Cladophora glomerata (L.) Kutzing, its epiphytes, and epiphitic grazers. Oecologia, 85: 572～580
[14] Duthie HC. 1965. A study of the distribution and periodicity ofsome algae in a bog pool. JEcol,53:343～359
[15] Eaton JW and Moss B. 1966. The estimation of numbers of pigment content in epipelic algal populations. Limnol Oceanogr, 11: 584～585
[16] Eiseltova G and Pokomy J. 1994. Filamentous algae in fish ponds of the trehon biosphere resarve-ecophysiological study. Vegetatio, 11: 155～170
[17] Elakovich SD and Wooten JW. 1989. Allelopathic potential of six teen aquatic and wetlands plants. J Aquat Plant Manag, 27: 78～84
[18] Flensburg T and Sparling JH. 1973. The algal microflora of a string mire in relation to the chemical composition of the water. Can JBot, 51: 743～749
[19] Goldsborough LG. 1993. Diatom ecology in the phyllosphere of the common duckweed (Lemma minor L.). Hydrobiologia, 279: 463～471
[20] Grant J, Mills El, Hopper CM. 1986. A chlorophyll budget of the sediment-water interface and the effect of stabilizing biofilms on particle fluxes. Ophelia, 26: 207～219
[21] Grimshaw HJ, Rosen M and Swift DR, et al. 1993. Marsh phos phorus concentrations, phosphorus content and species compositionof Everglades periphyton communities. Arch Hydrobiol, 128: 257～276
[22] Haines DW, Rogers KH, Rogers FE. 1987. Loose and firmly at tached epiphyton, their relative contributions to algal and bacteria carbon productivity in a Phragmites marsh. Aquat Bot, 29: 169～176
[23] Hann BJ. 1991. Invertebrate grazer-periphyton interactions in aeutrophic marsh pond. Freshwater Biol, 26: 87～96
[24] Hanson MA and Butler MG. 1994. Early responses of plankton and turbidity to blomanipulation in a shallow prairie lake. Hydrobiologia, 279/280: 457～466
[25] Kadlec JA. 1986. Effect of flooding on dissolved and suspended nutrients in small diked marshes. Can J Fiah Aquat Sci, 43:1999～2008
[26] Klarar DM and Millie DF. 1992. Aqutic macrophytes and algae at old women creek estuary and other great lakes coastal wetlands. J Great Lakes Res, 18: 622～633
[27] Landers DH. 1982. Effects of naturally senescing aquatic macro phytes on nutrient chemistry and chlorophyll a of surrounding wa ters. Limnol Oceanogr, 27: 428～439
[28] Li X-P(李小平)2002.Lake eutrophication research and control in USA.JNat(自然杂志),24(2):63～68(in Chinese)
[29] Miao L(缪莉),Zheng Z-H(郑忠辉),Su W-J(苏文金).2002. Research development of bioactive substance of symbiotic and epibiotic marine microorganisms. Mar Sci Bull (海洋通报), 21 (3): 62～68 (in Chinese)
[30] Mitcsh WJ and Gossilink JG. 1993. Wetlands. 2nd. New York:Van Nostrand-Reinhold.
[31] Moraghan JT. 1993. Loss and assimilation of 15N-nitrate added to a North Dakota cattail marsh. Aquat Bot, 46: 225～234
[32] Moas B. 1976. The effect of fertilization and fish on community structure and biomass of aquatic macrophyte and epiphytic algal populations: An ecosystem experiment. J Ecol, 64: 313～342
[33] Murkin EJ, Murkin HR, Titman RD. 1992. Nectonicinvertebrate abundance and distribution at the emergent vegetation-open water interface in the Delta Marsh, Manitoba, Canada. Wetlands, 12:45～52
[34] Neely RK. 1994. Evidence for positive interactions between epi phytic algae and heterotrophic decomposers during the decomposi tion of Typha latifolia. Arch Hydrobiol, 280:483～495
[35] Pakulski JD. 1992. Folia release of soluble reactive phosphorusfrom Spartina alterniflora in a Georgia (USA) salt marsh. Mar Ecol Prog Ser, 90: 53～60
[36] Pinckney J and Zingmark RG. 1993. Modeling the annual produc tion of intertidal benthic microalgae in estuarine ecosystems. J Phycol, 29: 396～407
[37] Robinson GC, Gurney SE, Goldborough LG. 1996. The primary production of algal associations of a prairie wetland under controlled water-leval regimes. Wetlands, 16: 35～47
[38] Sand-Jenson K and Borum J. 1984. Epiphyte shading and its effect on photosynthesis and diel metabolism of Lobelia dortrmanma L, during the spring bloom in a Danish lake. Aqut Bot, 20:109～119
[39] Shamess JJ, Robinson GC, Goldsborough LG. 1985. The structure and comparison of periphytic algal communities in two eutrophic prairie lakes. Arch Hydrobiol, 103: 99～116
[40] Stanley DW. 1976. Productivity of epipelic algae in tundra ponds and a lake near barrow, Alaska Ecol, 57: 1015～1024
[41] Steward KK and Ornes WH. 1975. Assessing a marsh environment for wastewater renovation. J Water Poll Contr Fed, 47: 1880～1891
[42] Suthers IM and Gee JH. 1986. Role of hypoxia in limiting diel spring and summer distribution of juvenile yellow perch (Perca flavescenes) in a prairie marsh. Can J Fish Aqua Sci, 43:1562～1570
[43] van Meter-Kasanof N. 1973. Ecology of the microalgae of the Florida Everglades 1. Environment and some aspects of freshwater periphyton, 1959-1963. Nova Hedwigia, 24: 619～664
[44] Wang R-Q(王仁卿),Liu C-H(刘纯慧),Cao-M(晁敏).1997.Research and protection of wetland.ChinJEcol(生态学杂志),16 (5):72～76(in Chinese)
[45] Wang X-L(王宪礼),Li X-Z(李秀珍).1997.Advances of wetl wndin home and abroard.Chin JEcol(生态学杂志),16(1):58～62(in Chinese)
[46] Weaks TE. 1988. Allelopathic interference as a factor influencing the periphyton community of a freshwater marsh. Arch Hydrobiol,111: 369～382
[47] Wrubleski DA. 1991. Chironomidae (Diptera) community devel opment following experimental manipulation of water levels and aquatic vegetation. Ph. D. thesis. Alberta:University of Alberta
[48] Zhao Y-B(赵怡冰),Xu D-W(许武德),Guo Y-X(郭宇欣).2002.Biological indicative function and water environment.Protec Water Environ(水资源保护),68(2):11～16(in Chinese)