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Long-term competitive displacement of Typha latifolia by Typha angustifolia in a eutrophic lake
Oecologia, 1993 This study follows the outcome of long-term competition between a broad-leaved and a narrowleaved Typha species, T. latifolia and T. angustifolia respectively, in a eutrophic lake. The lake was bordered by a zone of T. latifolia, at one location interrupted by a T. angustifolia stand. Distributional changes of the T. angustifolia stand and the adjacent
Weisner, Stefan E.B.,
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Removal and Accumulation of As, Cd and Cr by Typha latifolia
Bulletin of Environmental Contamination and Toxicology, 2013The removal from the solution and the accumulation of As, Cd and Cr by Typha latifolia was studied. Small plants of T. latifolia, collected from a non-contaminated site, were exposed to individual concentrations of As, Cd and Cr for 10 days. The ability of T.
René Loredo-Portales +2 more
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Germination requirements in a population of Typha latifolia
Aquatic Botany, 1997 Abstract The physio-ecological requirements of germination and early achene growth of a population of Typha latifolia L. were studied. The effects of constant (10, 20 and 30°C) or alternating ( 10 20° , 20 30° and 10 30° C ) temperatures, photoperiod ( 12 12 , 8 16 , 6 18 , 4 20 , 2 22 and 0 24 h
LOMBARDI, TIZIANA +3 more
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Stigmasterols from Typha latifolia
Journal of Natural Products, 1990 Several free and acylglucosylated stigmasterols have been isolated from the aquatic plant Typha latifolia. The structures of three novel acylglucosylsterols have been assigned on the basis of spectroscopic data and by chemical modification studies ...
DELLA GRECA, MARINA +2 more
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Carotenoid-like Compounds from Typha latifolia
Journal of Natural Products, 1990 Blumenol A [1] and a new carotenoid-like compound, (3R,5 R,6S,9 ξ)-5,6-epoxy-3-hydroxy-β-ionol [2], were isolated from Typha latifolia. © 1990, American Chemical Society.
DELLA GRECA, MARINA +4 more
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Mycoflora associated with Typha latifolia
Transactions of the British Mycological Society, 1971The fungal succession on Typha latifolia L. has been followed from the time the leaves first appeared through the stages of senescence to their ultimate decay. The main colonizers of this substrate were shown to be Alternaria tenuis, Aureobasidium pullulans, Cladosporium herbarum, Epicoccum nigrum and Phoma typharum. The numbers of species increased as
G.J.F. Pugh, J.L. Mulder
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Inorganic pyrophosphatase from pollen of Typha latifolia
Plant and Cell Physiology, 1980An inorganic pyrophosphatase was purified about 3,800-fold from the pollen of Typha latifolia by chromatography on DEAE-Sephadex A-50, isoelectric focusing and gel filtration through Sephadex G-75. The enzyme had an optimum pH between 8.5-9.5 and required Mg(2+).
A, Hara, K, Kawamoto, T, Funaguma
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Liquefaction of Typha latifolia by supercritical fluid extraction
Bioresource Technology, 2012Milled Typha latifolia stalk mill was converted to liquid products by using organic solvents (methanol, ethanol, acetone and 2-butanol) with catalysts (10% NaOH or Na(2)CO(3)) and without catalyst in an autoclave at temperatures of 518, 538 and 558 K. The products were extracted by liquid-liquid extraction (benzene and diethyl ether).
Aysu, Tevfik +2 more
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Metalaxyl and Simazine Toxicity to and Uptake by Typha latifolia
Archives of Environmental Contamination and Toxicology, 2000This research focused on the potential use of common cattails (Typha latifolia) for removing metalaxyl and simazine residues from contaminated water. Specifically, it established toxicity thresholds to the herbicide simazine and characterized the uptake and distribution of simazine and metalaxyl by the plants.
P C, Wilson, T, Whitwell, S J, Klaine
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