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Tytuł artykułu

Effect of pH, dissolved organic carbon and total phosphorus concentrations on selected life history traits of Luronium natans (L.) RAF.

Identyfikatory
Warianty tytułu
Języki publikacji
EN
Abstrakty
EN
A hypothesis has been put forward that low pH or high concentration of total phosphorus (TP) and dissolved organic carbon (DOC) in the lake water are the factors responsible for observed extinction of the population of Luronium natans (L.) Raf., protected macrophyte species from the group of isoetids. A study was performed on 525 generative individuals collected from 21 lakes in Pomeranian Lakeland (NW Poland) and a correlation between the biometric characteristics and environmental conditions in the lakes was tested. The following life history traits have been analysed: size of individuals, their fecundity and allocation of biomass. The greatest and most fecund individuals grow in the lake water of pH 6.1-7.0, poor in TP (10.1-20.0 [mi]g dm^-3) and DOC (3.5-6.0 mg C dm^-3). The allocation of biomass of the individuals growing in the optimum conditions is as follows 46-54% in the leaves, 22-31% in the roots and 20-27% in the rhizome. In the lakes with water of pH < 5.0 or of TP3 > 20.1 [mi]g dm^-3 and DOC > 6 mg C dm^3, a statistically significant decrease in the size of the individuals and unfavourable changes in the biomass allocation are found. The main environmental factor responsible for dying out local populations of Luronium natans is a decrease of pH below < 5.0.
Rocznik
Strony
191--200
Opis fizyczny
Bibliogr. 32 poz., rys., tab., wykr.
Twórcy
autor
  • University of Gdańsk, Department of Plant Ecology, Al. Legionów 9, 80-441 Gdańsk, Poland
autor
  • University of Gdańsk, Department of Plant Ecology, Al. Legionów 9, 80-441 Gdańsk, Poland
Bibliografia
  • [1] Arts G. H. P., Den Hartog C. 1990 – Phytogeographical aspects of the West European softwater macrophyte flora – Acta Botanica Neerlandica 39: 369-378.
  • [2] Boston H. L., Adams M. S. 1985 – Seasonal diurnal acid rythms in two aquatic crassulacean acid metabolism plants – Oecol. 65: 573-579.
  • [3] Boston H. L., Adams M. S. 1986 – The contribution of crassulacean acid metabolism to the annual productivity of two aquatic vascular plants – Oecol. 68: 615-622.
  • [4] Boston H. L., Adams M. S., Madsen J. D. 1989 – Photosynthetic strategies and productivity in aquatic systems – Aquat. Bot. 34: 27-57.
  • [5] Boston H. L., Adams M. S., Pienkowski T. P. 1987 – Models of the use of root-zone CO2 by selected North American isoetids – Ann. Bot. 60: 485-494.
  • [6] Collier K. J. 1987 – Spectral properties of some West Coast waters and their relationship with dissolved organic carbon – Mauri Ora 14.
  • [7] Dąmbska I. 1965 – Roślinność litoralu jezior lobeliowych Pojezierza Kartuskiego – PTPN, Prace Kom. Biol. 30: 1-53. (in Polish).
  • [8] Falińska K. 2002 – Przewodnik do badań biologii i ekologii populacji roślin [A guide to researches into the biology and ecology of plant populations] (In: Vademecum Geobotanicum 4, ed. J. B. Faliński] – PWN, Warszawa, 586 pp. (in Polish).
  • [9] Golterman H. J. 1975 – Physiological Limnology – Elsevier, Amsterdam, 489 pp.
  • [10] Górniak A. 1995 – Spektrofotometryczna metoda oznaczania stężeń i jakości rozpuszczonego węgla organicznego w wodach [A Spectrophotometric method for determining the concentrations and quality of dissolved organic carbon in waters] – Gosp. Wodna 2: 31-33. (in Polish).
  • [11] Greenberg A. E., Clesceri L. S., Eaton A. D. 1992 – Standard methods for the examination of the water and wastewater – American Public Health Association, 18th edition, Washington.
  • [12] Hermanowicz W., Dożańska W., Dojlido J., Koziorowski B. 1999 – Fizyczno-chemiczne badanie wody i ścieków [Physico-chemical studies of water and sewage] – Arkady, Warszawa, 847 pp. (in Polish).
  • [13] Hultén E., Fries M. 1986 – Atlas of north european vascular plants – Koeltz Scientific Books, Königstein, 1172 pp.
  • [14] Loczy S., Carignan R., Planas D. 1983 – The role of roots in carbon uptake by submersed macrophytes Myriophyllum spicatum, Vallisneria americana and Heteranthia dubia – Hydrobiologia, 98: 3-7.
  • [15] Moore T. R. 1985 – The spectrophotometric determination of dissolved organic carbon in peat waters – Soil Sci. Soc. Ann. J. 49: 1590-1592.
  • [16] Moore T. R. 1987 – An assessment of a simple spectrophotometric method for the determination of dissolved organic carbon in freshwaters – New Zeal. J. Mar. Fresh. Res. 21: 585-589.
  • [17] Rørslett B., Brettum P. 1989 – The genus Isoëtes in Scandinavia: an ecological review and perspectives – Aquat. Bot. 35: 223-261.
  • [18] Smits A. J. M., Laan P., Thier R. H., Van Der Velde G. 1990 – Root aerenchyma, oxygen leakage patterns and alcoholic fermentation ability of the roots of some nymphaeid and isoetid macrophytes in relations to the sediment type of their habitat – Aquat. Bot. 38: 3-17.
  • [19] Sokal R. R., Rohlf F. J. 1995 – Biometry. The principles and practice of statistics in biological research. II Edition – W. H. Freeman & Comp., New York.
  • [20] Szańkowski M., Kłosowski S. 2001 – Habitat conditions of the phytocoenoses dominated by Luronium natans (L.) Rafin in Poland – Hydrobiologia 455: 213-222.
  • [21] Szmeja J. 1987a – The structure of a population of Lobelia dortmanna L. along a gradient of increasing depth in an oligotrophic lake – Aquat. Bot. 28: 1-13.
  • [22] Szmeja J. 1987b – The ecology of Lobelia dortmanna L. I. The plasticity of individuals within a constant depth interval in oligotrophic lakes – Ekol. pol. 35: 497-522.
  • [23] Szmeja J. 1992 – Struktura, organizacja przestrzenna i demografia populacji isoetydów. Studium ekologiczne roślin podwodnych [Structure, Spatial Organization and Demography of Isoetid Populations. Ecological Studies of Submerged Aquatic Plants] – Uniwersytet Gdański. Rozprawy i Monografie, 175: 1-137. (in Polish).
  • [24] Szmeja J. 1994 – An individual’s status in populations of isoetid species – Aquat. Bot. 48: 203-224.
  • [25] Szmeja J. 2000 – Tendencies of changes in the flora and vegetation structure of Pomeranian lakes under the influence of humic substances (In: Mechanisms of anthropogenic changes of the plant cover, Eds.: B. Jackowiak, W. Żukowski) – Bogucki Wyd. Naukowe, Poznań, pp. 85-98.
  • [26] Szmeja J. 2001 – Luronium natans L. (Rafin). (In: Polska Czerwona Księga roślin [Polish Red Data Book of Plants] Eds.: K. Zarzycki, R. Kaźmierczakowa) – PAN, Kraków, pp. 395-396. (in Polish).
  • [27] Szmeja J., Bazydło E., Uruska A. 2001 – Role of humic substances in the determination of Sphagnum denticulatum Brid. and Myriophyllum spicatum L. habitat conditions – Pol. J. Ecol. 49, 2: 101-113.
  • [28] Szmeja J., Bociąg K. in press – The deterioration of populations of underwater plants in soft water lakes enriched with acidic organic matter – Acta. Soc. Bot. Pol.
  • [29] Szmeja J., Clément B. 1990 – Comparaison de la structure et du déterminisme des Littorelletea uniflorae en Poméranie (Pologne) et en Bretagne (France) – Phytocoenologia, 19: 123-148. (in French).
  • [30] Tennant D. 1975 – A test of modified line interest method of estimating root length – J. Ecol. 63: 995-1001.
  • [31] Weeda E. J., Westra R., Westra C., Westra T. 1991 – Nederlandse oecologische flora, deel 4 IVN (Dutch ecological flora) – VARA en Vewin, Amsterdam.
  • [32] Wium-Andersen S. 1971 – Photosynthetic uptake of free CO2 by roots of Lobelia dortmanna – Physiol. Plant 252: 245-248.
Typ dokumentu
Bibliografia
Identyfikator YADDA
bwmeta1.element.baztech-article-BGPK-0833-3298
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