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UC/JEPS: Jepson Manual treatment for TYPHACEAE
Retrieve key for TYPHACEAE Return to the Jepson Interchange main page Return to treatment index page Glossary University & ... TYPHACEAE CATTAIL FAMILY. Perennial from long rhizomes, colonial, glabrous, generally aquatic (submersed to emergent), ...http://ucjeps.berkeley.edu/cgi-bin/get_JM_treatment.pl?9383
Typhaceae - Wikipedia
1] Media related to Typhaceae at Wikimedia Commons Data related to Typhaceae at Wikispecies Typhaceae in L. Watson and M.J. ... The Typhaceae /taɪˈfeɪsiː/ are a family of flowering plants. The botanical name for the family has been recognized by most ... Stevens, P. F. "ANGIOSPERM PHYLOGENY WEBSITE, version 12". Typhaceae. Missouri Botanical Garden. Retrieved 9 July 2013. ...https://en.wikipedia.org/wiki/Typhaceae
UC/JEPS: Jepson Manual treatment for TYPHA latifolia
TYPHACEAE CATTAIL FAMILY. Perennial from long rhizomes, colonial, glabrous, generally aquatic (submersed to emergent), ...http://ucjeps.berkeley.edu/cgi-bin/get_JM_treatment.pl?9383,9390,9393
SEINet Portal NetworkWeb-Key Hubbell Trading Post National Historic Site
Development of SEINet, Symbiota, and several of the specimen databases have been supported by National Science Foundation Grants (DBI 9983132, BRC 0237418, DBI 0743827, DBI 0847966 ...http://swbiodiversity.org/seinet/ident/key.php?cl=2891&proj=5&taxon=All+Species
SEINet Portal NetworkWeb-Key Natural Bridges National Monument
Development of SEINet, Symbiota, and several of the specimen databases have been supported by National Science Foundation Grants (DBI 9983132, BRC 0237418, DBI 0743827, DBI 0847966 ...http://swbiodiversity.org/seinet/ident/key.php?clid=2696&pid=21&taxon=All+Species
SEINet Portal NetworkWeb-Key McDowell Sonoran Preserve
Development of SEINet, Symbiota, and several of the specimen databases have been supported by National Science Foundation Grants (DBI 9983132, BRC 0237418, DBI 0743827, DBI 0847966 ...http://swbiodiversity.org/seinet/ident/key.php?cl=2560&proj=1&taxon=All+Species
SEINet Portal NetworkWeb-Key San Bernardino and Leslie Canyon NWR
SEINet Portal NetworkWeb-Key Little Colorado River Gorge
SEINet Portal NetworkWeb-Key Cabeza Prieta National Wildlife Refuge
EEB Greenhouse Collections native to Taiwan
Typhaceae. *Typha orientalis - Mongolia to Philippines, Australasia Urticaceae. Subfamily Tribe Boehmerieae *Boehmeria nivea - ...http://florawww.eeb.uconn.edu/BRU_TAI.html
SEINet Portal NetworkWeb-Key Appleton-Whittell Research Ranch
SEINet Portal NetworkWeb-Key Castle Dome Mountains
Vascular Plants of the Gila Wilderness-- Typha domingensis
Family: Typhaceae. Status: Native Synonyms:. None. Typha domingensis looks similar to Typha latifolia except that the ...https://wnmu.edu/academic/nspages/gilaflora/typha_domingensis.html
IPNI Plant Name Details
Typhaceae Sparganium americanum Nutt. var. rigidum R.T.Clausen Rhodora 39: 189. 1937 39: 189 1937 ...http://www.ipni.org/ipni/idPlantNameSearch.do?id=241066-2&back_page=%2Fipni%2FeditAdvPlantNameSearch.do
Category:Sparganium natans - Wikimedia Commons
Typhaceae • Genus: Sparganium • Species: Sparganium natans L., Sp. Pl.: 971 (1753) ...https://commons.wikimedia.org/wiki/Category:Sparganium_natans
eHALOPH - Halophytes Database
LEGAL NOTICES - This website is protected by Copyright © The University of Sussex, 2012, 2013, 2014, 2015, 2016, 2017, 2018, 2019. The eHALOPH database is protected by Database Right and Copyright © The University of Sussex and other contributors, 2006, 2012, 2013, 2014, 2015, 2016, 2017, 2018, 2019. This database is based on an earlier work by James Aronson ...https://www.sussex.ac.uk/affiliates/halophytes/index.php?content=plantView&id=2902
An Illustrated Flora of the Northern United States, Canada and the British Possessions - Wikisource, the free online library
Typhaceae. - Cat-Tail Family 2.. Sparganiaceae. - Bur-Reed Family 3.. Zannichelliaceae. - Pondweed Family ...https://en.wikisource.org/wiki/An_Illustrated_Flora_of_the_Northern_United_States%2C_Canada_and_the_British_Possessions
Native Crops Urban Agriculture
TYPHACEAE). Cattail. Marshes, ponds, lakeshores, slow flowing water. Rhizomes, starchy, 1-3m tall, removes heavy metals and ...http://cityfarmer.org/nativecrops.html
Category:Poales - Wikipedia
The order Poales is recognized by the APG IV system, of 2016, which assigns this order to the monocots, in the angiosperms. To be exact, the order is assigned to the clade commelinids, which in turn is assigned to the monocots.. ...https://en.wikipedia.org/wiki/Category:Poales
Poales - Simple English Wikipedia, the free encyclopedia
family Typhaceae. family Xyridaceae. Uses[change , change source]. The Poales are the most economically important order of ...https://simple.wikipedia.org/wiki/Poales
Grasses, sedges andamp; rushes
The core purpose and vision of Trees for Life is to bringing back the globally unique Caledonian Forest and all its wildlife to the Scottish Highlands. By engaging volunteers to achieve this, we aim to provide a powerful and educational experience that will promote the work of restoration to wider audiences. Through providing a demonstration of the techniques of ecological restoration, we aim to inspire similar projects elsewhere in the UK and around the world ...https://treesforlife.org.uk/work/grasses-sedges-rushes/
EENY 424/IN803: Waterlily Leafcutter, Elophila obliteralis (Walker) (Insecta: Lepidoptera: Crambidae: Acentropinae)
FLDEP] Florida Department of Environmental Protection. (1993). Aquatic plant permit rules: Aquatic plant importation, transportation, non-nursery cultivation, possession and collection. http://www.dep.state.fl.us/legal/rules/aquatic/62c-52.pdf (25 July 2017).. Balciunas JK, Minno MC. 1985. Insects damaging hydrilla in the U.S.A. Journal of Aquatic Plant Management 23: 77-83.. Dray FA, Center TD, Habeck DH. 1993. Phytophagous insects associated with Pistia statiotes in Florida. Environmental Entomology 22: 1146-1155.. Dyar HG. 1906. The North American Nymphulinae and Scopariinae. Journal of the New York Entomological Society 14: 77-108. Gill S, Reeser, R, Raupp, M. 2008. Controlling two aquatic plant pests Nymphuliella daeckealis (Haimbach) and the waterlily leafcutter, Synclita obliteralis (Walker). The University of Maryland Cooperative Extension factsheet 818. 7 pages.. [FLEPPC] Florida Exotic Pest Plant Council. (2017). List of Florida's Invasive Species. Florida Exotic Pest Plant Council (25 ...http://edis.ifas.ufl.edu/in803
Sparganium - Wikispecies
Familia: Typhaceae. Genus: Sparganium. Species: S. americanum - S. androcladum - S. angustifolium - S. confertum - S. emersum ...https://species.wikimedia.org/wiki/Sparganium
Typha domingensis - Wikipedia
Typhaceae). Tropical Journal of Pharmaceutical Research 13(1): 67-72. Chai TT, Chiam MJ, Lau CH, Mohd Ismail NI, Ong HC, Abd ... Typhaceae) fruit. Tropical Journal of Pharmaceutical Research 14 (11): 1983-1990. Common weed revealed to diminish water ...https://en.wikipedia.org/wiki/Typha_domingensis
1] Media related to Typhaceae at Wikimedia Commons Data related to Typhaceae at Wikispecies Typhaceae in L. Watson and M.J. ... The Typhaceae /taɪˈfeɪsiː/ are a family of flowering plants. The botanical name for the family has been recognized by most ... Stevens, P. F. "ANGIOSPERM PHYLOGENY WEBSITE, version 12". Typhaceae. Missouri Botanical Garden. Retrieved 9 July 2013. ...
Typhaceae). Tropical Journal of Pharmaceutical Research 13(1): 67-72. Chai TT, Chiam MJ, Lau CH, Mohd Ismail NI, Ong HC, Abd ... Typhaceae) fruit. Tropical Journal of Pharmaceutical Research 14 (11): 1983-1990. Common weed revealed to diminish water ...
Typhaceae u. Sparganiaceae, 1900 - Typhaceae and Sparganiaceae. Lehrbuch der ökologischen pflanzengeographie (with Eugen ...
APG III system
Typhaceae Juss. (including Sparganiaceae Hanin) Xyridaceae C.Agardh Zingiberales Griseb. Cannaceae Juss. Costaceae Nakai ...
Fossil flora of Kızılcahamam district
Typhaceae Typha sp. Sequoia, giant redwood forests were common at higher altitudes of Anatolia in the Tertiary and early ...
Typhaceae family 2. Sparganiaceae superorder 6. Juncanae order 1. Juncales family 1. Juncaceae family 2. Thurniaceae order 2. ...
APG IV system
Poales Small Typhaceae Juss., nom. cons. Bromeliaceae Juss., nom. cons. Rapateaceae Dumort., nom. cons. Xyridaceae C.Agardh, ...
Giardino Botanico Montano di Pratorondanino
fremontii (Geraniaceae) Typha minima (Typhaceae) AA.VV. (2003). G.L.A.O., (Gruppo ligure amatori orchidee), ed. Un giardino ...
... (Typhaceae), new for Poland. Polish Botanical Journal 56(2): 299-305.. ...
List of MeSH codes (B06)
... typhaceae (wd , gwp gwe g , in it p) MeSH B06.388.100.949 --- ulmaceae (wd , gwp gwe g , in it p) MeSH B06.388.100.949.777 --- ...
2017 in paleobotany
Alexander B. Doweld (2017). "New names of Typha of Northern Eurasia (Typhaceae)". Acta Palaeobotanica. 57 (2): 233-236. doi: ...
These include the sedges (Cyperaceae), rushes (Juncaceae), restios (Restionaceae), and cat-tails (Typhaceae). All are ...
List of graminoids of Soldiers Delight
Typhaceae). Much of the area of the Soldiers Delight NEA, which totals 1,900 acres (7.7 km2) of protected land, contains a ...
Ito & Cota-Sanchez (2014) Distribution and conservation status of Sparganium (Typhaceae) in the Canadian Prairie Provinces. ...
Retrieved 2011-02-20 "Typha latifolia (Typhaceae) Species description or overview", Hawaiian Ecosystems at Risk project (HEAR ...
... /ˈtaɪfə/ is a genus of about 30 species of monocotyledonous flowering plants in the family Typhaceae. These plants have ...
Grøntved, J. (1954) Typhaceernes og Sparganiaceernes udbredelse i Danmark [The distribution in Denmark of Typhaceae and ...
... is closely related to the Typhaceae and the APG III system (2009) includes Sparganium in that family. It has been ... Tanaka, C.-K. Kim, R. Kaul, D. C. Albach (2015) Phylogeny of Sparganium (Typhaceae) revisited: Non-monophyletic nature of S. ...
Usually it hides in swamps and reed fields with presence of espadaña plants (Typhaceae) and juncales (Scirpus californicus). ...
Flora of Thailand
Typhaceae. Volume 9(3) (2008) - Fagaceae. Volume 9(4) (2008) - Cucurbitaceae. Volume 10(1) (2009) - Dioscoreaceae. Volume 10(2 ...
... is a perennial herbaceous plant belonging to the Typhaceae family. The biological form of Typha minima is hemicryptophyte ...
Tanaka, C. Kim, R.B. Kaul, D.C. Albach (2016) Phylogeny of Sparganium (Typhaceae) revisited: Non-monophyletic nature of S. ... doi: 10.3897/BDJ.2.e1073 Ito, Y., J. H. Cota-Sanchez (2014) Distribution and conservation status of Sparganium (Typhaceae) in ...
The order consisted of (1981): order Typhales family Sparganiaceae family Typhaceae The APG IV system, used here, assigns the ...
Cosumnes River Preserve
Typhaceae Typha), Broadleaf Arrowhead (Sagittaria latifolia), and Pampas Grass (Cortaderia selloana). Other plants that you can ...
(1/18) Epifluorescent and histochemical aspects of shoot anatomy of Typha latifolia L., Typha angustifolia L. and Typha glauca Godr.
Using epifluorescent and histochemical techniques, we examined anatomical differences in the shoot organs of Typha latifolia, T. angustifolia and T. glauca. The leaf lamina of T. latifolia and T. glauca had enlarged epidermal cells and a thickened cuticle above the subepidermal vascular bundles; that of T. angustifolia lacked these characteristics. Leaf sheaths were similar among the species and all lacked the epidermal thickenings found in the lamina. The fertile stems had typical scattered vascular bundles with a band of fibres that was most prominent in T. glauca. The sterile stems were only 1 cm in length and contained a multiseriate hypodermis and a uniseriate endodermis over part of their length. The rhizomes were similar except for a pronounced band of fibres surrounding the central core in T. angustifolia. The rhizome was also characterized by an outer cortical region with a large multiseriate hypodermis/exodermis and a uniseriate endodermis with Casparian bands, suberin lamellae and secondarily thickened walls. (+info)
(2/18) Mortality of pollen grains may result from errors of meiosis: study of pollen tetrads in Typha latifolia L.
In the cattail Typha latifolia the four haploid products of meiosis remain attached and form the flat tetrad of pollen grains. Gametophytic lethals arisen de novo in diploid cells of sporophyte must manifest themselves as pollen tetrads with two dead grains. This could allow to estimate the rate of recessive lethals arresting pollen grain development. We studied pollen samples collected from 44 sprouts in two populations in the vicinity of Novosibirsk. The anomalous tetrads T1, T2, T3, and T4 carrying one, two, three, and four dead grains, respectively, were detected in each sampled individual. The mean frequency of all anomalous tetrads in the two populations was 3.4% and 8.7%. The frequencies of tetrad classes varied widely among the individuals with correlation coefficient up to 0.94, but their ratios remained nearly constant. The majority of anomalous tetrads were presented by T1 and T2 classes (their sum comprising 72.7 and 74.0% in two populations), T1 being a little more abundant. The observed pattern of frequencies of tetrads with dead grains can be explained by errors of male meiosis such as chromosome non-disjunction in both meiotic divisions. The tetrads with two dead pollen grains may result mostly from non-disjunction in anaphase I, and those with one pollen grain from non-disjunction in anaphase II, thus making tetrad analysis ineffective for estimating the rate of gametophytic lethals. (+info)
(3/18) Root-zone acidity and nitrogen source affects Typha latifolia L. growth and uptake kinetics of ammonium and nitrate.
The NH(4)(+) and NO(3)(-) uptake kinetics by Typha latifolia L. were studied after prolonged hydroponics growth at constant pH 3.5, 5.0, 6.5 or 7.0 and with NH(4)(+) or NO(3)(-) as the sole N-source. In addition, the effects of pH and N source on H(+) extrusion and adenine nucleotide content were examined. Typha latifolia was able to grow with both N sources at near neutral pH levels, but the plants had higher relative growth rates, higher tissue concentrations of the major nutrients, higher contents of adenine nucleotides, and higher affinity for uptake of inorganic nitrogen when grown on NH(4)(+). Growth almost completely stopped at pH 3.5, irrespective of N source, probably as a consequence of pH effects on plasma membrane integrity and H(+) influx into the root cells. Tissue concentrations of the major nutrients and adenine nucleotides were severely reduced at low pH, and the uptake capacity for inorganic nitrogen was low, and more so for NO(3)(-)-fed than for NH(4)(+)-fed plants. The maximum uptake rate, V(max), was highest for NH(4)(+) at pH 6.5 (30.9 micro mol h(-1) g(-1) root dry weight) and for NO(3)(-) at pH 5.0 (31.7 micro mol h(-1) g(-1) root dry weight), and less than 10% of these values at pH 3.5. The affinity for uptake as estimated by the half saturation constant, K((1/2)), was lowest at low pH for NH(4)(+) and at high pH for NO(3)(-). The changes in V(max) and K((1/2)) were thus consistent with the theory of increasing competition between cations and H(+) at low pH and between anions and OH(-) at high pH. C(min) was independent of pH, but slightly higher for NO(3)(-) than for NH(4)(+) (C(min)(NH(4)(+)) approximately 0.8 mmol m(-3); C(min)(NO(3)(-)) approximately 2.8 mmol m(-3)). The growth inhibition at low pH was probably due to a reduced nutrient uptake and a consequential limitation of growth by nutrient stress. Typha latifolia seems to be well adapted to growth in wetland soils where NH(4)(+) is the prevailing nitrogen compound, but very low pH levels around the roots are very stressful for the plant. The common occurrence of T. latifolia in very acidic areas is probably only possible because of the plant's ability to modify pH-conditions in the rhizosphere. (+info)
(4/18) The use of indices for evaluating the periphytic community in two kinds of substrate in Imboassica Lagoon, Rio de Janeiro, Brazil.
Biological indices based on the biomass (dry weight, ash content, and chlorophyll-a) of the periphyton in a natural (submersed leaves of Typha domingensis Pers) and in an artificial (plastic hoses) substrate were compared, in experiments performed in summer and winter, in two sampling stations of Imboassica Lagoon, Macae, Rio de Janeiro. The periphytic community exhibited low biomass at the beginning and end of the experiments, and moderate biomass in the intermediate period of the experiment, whatever the kind of substrate, sampling station, and season. In both seasons, there was a spatial variation regarding the degree of trophy of the periphyton, due to the difference of nutrient availability among the sampling stations. The alternation of inorganic and organic periphyton, as well as of their heterotrophic, heteroautotrophic, auto-heterotrophic and, autotrophic character was due to changes in the abiotic factors of the sampling periods. The Lakatos index proved more sensitive than the Autotrophic Index to variations in the composition of the periphytic community. (+info)
(5/18) Temperature dependency of molecular mobility in preserved seeds.
Although cryogenic storage is presumed to provide nearly infinite longevity to cells, the actual timescale for changes in viability has not been addressed theoretically or empirically. Molecular mobility within preserved biological materials provides a first approximation of the rate of deteriorative reactions that ultimately affect shelf-life. Here, temperature effects on molecular mobility in partially dried seeds are calculated from heat capacities, measured using differential scanning calorimetry, and models for relaxation of glasses based on configurational entropy. Based on these analyses, glassy behavior in seeds containing 0.07 g H(2)O/g dm followed strict Vogel-Tamman-Fulcher (VTF) behavior at temperatures above and just below the glass transition temperature (Tg) at 28 degrees C. Temperature dependency of relaxation times followed Arrhenius kinetics as temperatures decreased well below Tg. The transition from VTF to Arrhenius kinetics occurred between approximately 5 and -10 degrees C. Overall, relaxation times calculated for seeds containing 0.07 g H(2)O/g dm decreased by approximately eight orders of magnitude when seeds were cooled from 60 to -60 degrees C, comparable to the magnitude of change in aging kinetics reported for seeds and pollen stored at a similar temperature range. The Kauzmann temperature (T(K)), often considered the point at which molecular mobility of glasses is practically nil, was calculated as -42 degrees C. Calculated relaxation times, temperature coefficients lower than expected from VTF kinetics, and T(K) that is 70 degrees C below Tg suggest there is molecular mobility, albeit limited, at cryogenic temperatures. (+info)
(6/18) Latitudinal characteristics of below- and above-ground biomass of Typha: a modelling approach.
BACKGROUND AND AIMS: The latitudinal differences in the growth characteristics of Typha are largely unknown, although a number of studies have pointed out the effects of climate on the growth and productivity of Typha. Therefore, a dynamic growth model was developed for Typha to examine the effects of latitudinal changes in temperature and radiation on partitioning of the total biomass during the growing season into rhizomes, roots, flowering and vegetative shoots, and inflorescences. METHODS: After validating the model with data from growth studies of Typha found in past literature, it was used to investigate the dynamics of above- and below-ground biomasses at three latitudes: 30 degrees, 40 degrees and 50 degrees. KEY RESULTS: Regardless of the initial rhizome biomass, both above- and below-ground biomass values converged to a latitude-specific equilibrium produced by the balance between the total production and respiration and mortality losses. Above-ground biomass was high from 10 degrees to 35 degrees latitude with sufficient radiation, despite high metabolic losses; however, it decreased markedly at higher latitudes due to a low photosynthetic rate. Below-ground biomass, on the other hand, increased with latitude up to 40 degrees due to decreasing metabolic losses, and then markedly decreased at higher latitudes. Above-ground biomass was enhanced with an increasing number of cohorts regardless of latitude. However, although more cohorts resulted in a larger below-ground biomass at low latitudes, the largest below-ground biomass was provided by a smaller number of cohorts at high latitudes. This difference is due to low production rates of late-season cohorts in high latitudes, compared with consumption for shooting and establishing foliage. CONCLUSIONS: The model could be used to predict the potential growth of Typha in given conditions over a wide range of latitudes and is useful for practical applications such as wetland management or wastewater treatment systems using Typha. (+info)
(7/18) Application of the [3H]leucine incorporation technique for quantification of bacterial secondary production associated with decaying wetland plant litter.
The radiolabeled leucine incorporation technique for quantifying rates of bacterial production has increased in popularity since its original description for bacterioplankton communities. Prior studies addressing incorporation conditions (e.g., substrate saturation) for bacterial communities in other habitats, such as decaying plant litter, have reported a wide range of final leucine concentrations (400 nM to 50 microM) required to achieve saturation-level uptake. We assessed the application of the [(3)H]leucine incorporation procedure for measuring bacterial production on decaying wetland plant litter. Substrate saturation experiments (nine concentrations, 10 nM to 50 microM final leucine concentration) were conducted on three dates for microbial communities colonizing the submerged litter of three emergent plant species (Typha angustifolia, Schoenoplectus validus, and Phragmites australis). A modified [(3)H]leucine protocol was developed by coupling previously described incubation and alkaline extraction protocols with microdialysis (500 molecular weight cutoff membrane) of the final radiolabeled protein extract. The incorporation of [(3)H]leucine into protein exhibited a biphasic saturation curve, with lower apparent K(m) values ranging from 400 nM to 4.2 microM depending on the plant species studied. Upper apparent K(m) values ranged from 1.3 to 59 microM. These results suggest differential uptake by litter-associated microbial assemblages, with the lower apparent K(m) values possibly representing bacterial uptake and higher apparent K(m) values representing a combination of both bacterial and nonbacterial (e.g., eukaryotic) uptake. (+info)
(8/18) Sewage input effects on the macroinvertebrate community associated to Typha domingensis Pers in a coastal lagoon in southeastern Brazil.
This study was carried out at Imboassica Lagoon, located in an urban zone in the municipality of Macae, Rio de Janeiro state, Brazil. This lagoon has been subject to anthropogenic impacts due to the increasing city population, such as the input of sewage. Areas of variable degree of anthropogenic influence in the lagoon were compared regarding the structure of the macroinvertebrate community associated to Typha domingensis leaves. For sampling, we used 35 x 20 cm net plastic bags, with 6.8 mm mesh containing T. domingensis leaves for colonization. Two different sampling stations were selected: station A, under direct input of sewage; and station B with lesser sewage influence. The bags were removed after 20, 40 and 75 days of colonization. For each sample the Shannon-Wiever Diversity, Pielou Evenness, Jaccard Similarity Indices, Correspondence Analysis and taxonomic richness were calculated. A total of 31,874 individuals were sampled, belonging to 34 taxa. The main taxonomical groups were: Oligochaeta (41%), Chironomidae (40%), Ancylidae (4.6%), Polymitarcyidae (4%) and Thiaridae (3%). At station A, the taxonomic richness, the Evenness and Diversity values were lower than in station B. On the other hand, the total density was three times higher in station A than in B. It was already possible to discriminate the community structure of each sampling station in the first sampling. Trichoptera and Ephemeroptera were the main exclusive groups of station B and are considered good water quality indicators due to their high sensibility to contamination. The major contribution to discriminate between the macroinvertebrate communities of the two sample stations came from Chironomidae, Oligochaeta and Ephemeroptera. (+info)
- Chai TT, Chiam MJ, Lau CH, Mohd Ismail NI, Ong HC, Abd Manan F, Wong FC (2015) Alpha-glucosidase inhibitory and antioxidant activity of solvent extracts and fractions of Typha domingensis (Typhaceae) fruit. (wikipedia.org)
- Typhaceae Typha sp. (wikipedia.org)
- fremontii (Geraniaceae) Typha minima (Typhaceae) AA.VV. (wikipedia.org)
- 2011. Typha shuttleworthii (Typhaceae), new for Poland. (wikipedia.org)
- Retrieved 2011-02-20 "Typha latifolia (Typhaceae) Species description or overview", Hawaiian Ecosystems at Risk project (HEAR). (wikipedia.org)
- Typha /ˈtaɪfə/ is a genus of about 30 species of monocotyledonous flowering plants in the family Typhaceae. (wikipedia.org)
- Sparganiaceae, 1900 - Typhaceae and Sparganiaceae. (wikipedia.org)
- 1942. Grøntved, J. (1954) Typhaceernes og Sparganiaceernes udbredelse i Danmark [The distribution in Denmark of Typhaceae and Sparganiaceae]. (wikipedia.org)
- Ito & Cota-Sanchez (2014) Distribution and conservation status of Sparganium (Typhaceae) in the Canadian Prairie Provinces. (wikipedia.org)
- Sparganium is closely related to the Typhaceae and the APG III system (2009) includes Sparganium in that family. (wikipedia.org)
- Botanica Helvetica 97: 1-44 Biota of North America 2013 county distribution maps Ito, Y., Nr. Tanaka, C.-K. Kim, R. Kaul, D. C. Albach (2015) Phylogeny of Sparganium (Typhaceae) revisited: Non-monophyletic nature of S. emersum sensu lato and resurrection of S. acaule. (wikipedia.org)