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Effects of Reduced Sunlight on Water Stargrass (Heteranthera dubia)

Published online by Cambridge University Press:  12 June 2017

Robert E. Wilkinson*
Affiliation:
Crops Research Division, Agricultural Research Service, U. S. Dept. of Agriculture, Delta Substation, Clarkedale, Arkansas
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Extract

Water stargrass (Heteranthera dubia (Jacq.) Mac. M.) is a perennial, rooted, aquatic plant indigenous in the shallow lakes, ponds, and slow rivers of the eastern United States. It thrives in the drainage canals of northeastern Arkansas. This area is basically a reclaimed swamp with intermingled soils ranging from pure sand to heavy clay, and the water table is very close to the surface. Water stargrass reduces the carrying capacity of the drainage ditches, resulting in a rise in the soil water table and in flooded or waterlogged soils. Water stargrass makes its greatest growth in the spring during the season of heaviest load on the drainage canals.

Type
Research Article
Copyright
Copyright © 1961 Weed Science Society of America 

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References

Literature Cited

1. Arens, K. Physiologisch Polarisierter Massenaustauch und Photosynthese bei Submersen Wasserpflanzen. II. Die Ca (HCO3)2 Assimilation. Jahr. Wiss. Botan. 83:513560. 1936.Google Scholar
2. Gessner, F. Die Beziehung zwischen Lichtintensität und assimilation bei Submersen Wasserpflanzen. Jahr. Wiss. Botan. 86:491526. 1938.Google Scholar
3. Lowenhaupt, B. Active cation transport in submerged aquatic plants. II. Effect of aeration upon the equilibrium content of calcium in Potamogeton cripus (L) leaves. J. Cell. Comp. Physiol. 51:209219. 1958.Google Scholar
4. Manning, W. C., Juday, C., and Wolk, M. Photosynthesis of aquatic plants at different depths in Trout Lake, Wisc., Wisconsin Acad. Sci., Trans. 31:377410. 1938.Google Scholar
5. Meyer, B. S., Bell, F. B., Thompson, L. C., and Clay, E. I. Effect of depth of immersion on apparent photosynthesis in submersed vascular aquatics. Ecology 24:393399. 1943.Google Scholar
6. Steemann-Nielsen, E. Passive and active ion transport during photosynthesis in water plants. Physiol Plant. 4:189198. 1951.Google Scholar
7. Van der Veen, R. Induction phenomena in photosynthesis. I. Physiol. Plant. 2:217234. 1949.CrossRefGoogle Scholar