Abstract
We conducted a mesocosm experiment to investigate nutrient effects on the seedling survival and growth of Typha angustifolia, along a nutrient gradient with considering phosphorus (P) content [low nutrients with phosphorus (LNP), intermediate nutrients with phosphorus (INP), intermediate nutrients without phosphorus (IN), high nutrients with phosphorus (HNP), high nutrients without phosphorus (HN)]. Under LNP conditions, all seedlings survived but grew poorly with an asymmetric biomass allocation into relatively more below-ground parts. Under high nutrient conditions, most seedlings died in a few weeks and all seedlings died under HN conditions, specifically. Seedlings under INP conditions showed the best growth and flowered only. Seedlings under INP conditions almost equally allocated their biomass to above- and below-ground parts. However, some seedlings died under IN conditions and the remaining seedlings showed relatively low growth compared to those grown under INP conditions. Similar to the seedlings grown under LNP conditions, the seedlings grown under IN conditions also showed an asymmetric biomass allocation, possibly indicating that a stoichiometric imbalance could negatively affect T. angustifolia seedlings. We concluded that, although T. angustifolia is a productive macrophyte, high nutrient conditions could be harmful to T. angustifolia seedlings and P-limited conditions could also be stressful for them.
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References
Anderson DM, Gilbert PM, Burkholder JM (2002) Harmful algal blooms and eutrophication: nutrient sources, composition, and consequences. Estuaries 25:704–726
Asaeda T, Hung LQ (2007) Internal heterogeneity of ramet and flower densities of Typha angustifolia near the boundary of the stand. Wetl Ecol Manag 15:155–164
Bah AM, Dai H, Zhao J, Sun H, Cao F, Zhang G, Wu F (2010) Effects of cadmium, chromium and lead on growth, metal uptake and antioxidative capacity in Typha angustifolia. Biol Trace Elem Res 142:77–92
Cary PR, Weerts PGJ (1984) Growth and nutrient composition of Typha orientalis as affected by water temperature and nitrogen and phosphorus supply. Aquat Bot 19:105–118
Castillo EG, Tuong TP, Ismail AM, Inubushi K (2007) Response to salinity in riche: comparative effects of osmotic and ionic stresses. Plant Prod Sci 10:159–170
Coops H, van der Velde G (1995) Seed dispersal, germination and seedling growth of six helophyte species in relation to water-level zonation. Freshw Biol 34:13–20
Dykyjová D, Véber K, Pribáň K (1971) Productivity and root/shoot ratio of reedswamp species growing in outdoor hydroponic cultures. Folia Geobot 6:105–232
Ervin GN, Wetzel RG (2000) Allelochemical autotoxicity in the emergent wetland macrophyte Juncus effusus (Juncuceae). Am J Bot 87:853–860
Grace JB (1987) The impact of preemption on the zonation of two Typha species along lakeshores. Ecol Monogr 57:283–303
Hong MG, Kim JG (2016) Effects of initial density, nutrient, and water level regime on the seedling survival and growth of Typha orientalis Presl. J Plant Biol 59:369–376
Hong MG, Son CY, Kim JG (2014) Effects of interspecific competition on the growth and competitiveness of five emergent macrophytes in a constructed lentic wetland. Paddy Water Environ 12(Supp. 1):S193–S202
Hong MG, Nam BE, Kim JG (2017) Effects of soil fertility on early development of wetland vegetation from soil seed bank: focusing on biomass production and plant species diversity. J Plant Biol 60:241–248
Hong MG, Park H, Nam BE, Kim JG (2019) Vegetational characteristics of abandoned paddy terraces in comparison with natural and constructed wetlands. J Wetl Res 21:199–206
Hopfensperger KN, Engelhardt KAM (2007) Coexistence of Typha angustifolia and Impatiens capensis in a tidal freshwater marsh. Wetlands 27:561–569
Johnson S (2004) Effects of water level and phosphorus enrichment on seedling emergence from marsh seed banks collected from northern Belize. Aquat Bot 79:311–323
Jordan TE, Whigham DF, Correll DL (1990) Effects of nutrient and litter manipulations on the narrow-leaved cattail, Typha angustifolia L. Aquat Bot 36:179–191
Keddy PA, Ellis TH (1985) Seedling recruitment of 11 wetland plant species along a water level gradient: shared or distinct response? Can J Bot 63:1876–1879
Keddy P, Gaudet C, Fraser LH (2000) Effects of low and high nutrients on the competitive hierarchy of 26 shoreline plants. J Ecol 88:413–423
Kuehn MM, Minor JE, White BN (1999) An examination of hybridization between the cattail species Typha latifolia and Typha angustifolia using random amplified polymorphic DNA and chloroplast DNA markers. Mol Ecol 8:1981–1990
Kwon GJ, Lee BA, Byun CH, Nam JM, Kim JG (2006) The optimal environmental ranges for wetland plants: I. Zizania latifolia and Typha angustifolia. Korea Soc Environ Restor Technol 9:72–88 (in Korean)
López-Arcos D, Gómez-Romero M, Lindig-Cisneros R, Zedler PH (2012) Fire-mobilized nutrients from hydrophyte leaves favor differentially Typha domingensis seedling growth. Environ Exp Bot 78:33–38
Macek P, Rejmánková E (2007) Response of emergent macrophytes to experimental nutrient and salinity additions. Funct Ecol 21:478–488
McNaughton SJ (1968) Autotoxic feedback in regulation of Typha population. Ecology 49:367–369
Min SJ, Kim H-T, Kim JG (2012) Assessment of genetic diversity of Typha angustifolia in the development of cattail stands. J Ecol Environ 35:27–34
Nam BE, Kim JG, Hong MG (2018) Vegetation and water characteristics of an eco-technological water purifying biotope in Yongin. J Wetl Res 20:432–445
Reddy KR, Portier KM (1987) Nitrogen utilization by Typha latifolia L. as affected by temperature and rate of nitrogen application. Aquat Bot 27:127–138
Sharma P, Asaeda T, Fusino T (2008) Effects of water depth on the rhizome dynamics of Typha angustifolia. Wetl Ecol Manag 16:43–49
Shih JG, Finkelstein SA (2008) Range dynamics and invasive tendencies in Typha latifolia and Typha angustifolia in eastern North America derived from herbarium and pollen records. Wetlands 28:1–16
Shipley B, Keddy PA (1988) The relationship between relative growth rate and sensitivity to nutrient stress in twenty-eight species of emergent macrophytes. J Ecol 76:1101–1110
Smith SG (1967) Experimental and natural hybrids in North American Typha (Typhaceae). Am Midl Nat 78:257–287
Stewart H, Miao SL, Colbert M, Carraher CE (1997) Seed germination of two cattail (Typha) species as a function of Everglandes nutrient levels. Wetlands 17:116–122
Weisner SEB (1993) Long-term competitive displacement of Typha latifolia by Typha angustifolia in a eutrophic lake. Oecologia 94:451–456
Wetzel PR, van der Valk AG (1998) Effects of nutrient and soil moisture on competition between Carex stricta, Phalaris arundinacea, and Typha latifolia. Plant Ecol 138:179–190
Xu J, Li C, Yang F, Dong Z, Zhang J, Zhao Y, Qi P, Hu Z (2011) Typha angustifolia stress tolerance to wastewater with different levels of chemical oxygen demand. Desalination 280:58–62
Acknowledgements
This research was supported by Basic Science Research Program (NRF-2015R1D1A1A01057373) through the National Research Foundation of Korea funded by the Ministry of Education and by the National Research Foundation of Korea grant (NRF-2018R1A2B2002267) funded by the Korea government of Ministry of Science and ICT.
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MGH designed the study and wrote the manuscript. HJP measured and analyzed the data. JGK edited the manuscript and gave conceptual advices.
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Hong, M.G., Park, H.J. & Kim, J.G. Nutrient Effects on Seedling Survival and Growth Performance of Typha angustifolia in a Mesocosm Experiment. J. Plant Biol. 63, 43–49 (2020). https://doi.org/10.1007/s12374-020-09228-8
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DOI: https://doi.org/10.1007/s12374-020-09228-8