A monocot family within the order Liliales. This family is divided by some botanists into other families such as Convallariaceae, Hyacinthaceae and Amaryllidaceae. Amaryllidaceae, which have inferior ovaries, includes CRINUM; GALANTHUS; LYCORIS; and NARCISSUS and are known for AMARYLLIDACEAE ALKALOIDS.
A plant family of the order Liliales, subclass Liliidae, class Liliopsida (monocotyledon).
A plant genus of the family LILIACEAE. Members contain anemarans (POLYSACCHARIDES), hinokiresinol, mangiferin (a xanthone), and timosaponin (a steroidal saponin).
A plant genus in the family LILIACEAE generally growing in temperate areas. The word lily is also used in the common names of many plants of other genera that resemble true lilies. True lilies are erect perennial plants with leafy stems, scaly bulbs, usually narrow leaves, and solitary or clustered flowers.
A plant genus of the family LILIACEAE. Members contain steroidal saponins.
A plant genus of the family LILIACEAE. Members contain the cardiotonic PROSCILLARIDIN. The common name of squill is also used for URGINEA.
Cholestane derivatives containing a fused lactone ring at the 16,17-position and a spiroglycosidic linkage at C-22. Members include sarsaponin, DIOSGENIN and yamogenin.
Any compound that contains a constituent sugar, in which the hydroxyl group attached to the first carbon is substituted by an alcoholic, phenolic, or other group. They are named specifically for the sugar contained, such as glucoside (glucose), pentoside (pentose), fructoside (fructose), etc. Upon hydrolysis, a sugar and nonsugar component (aglycone) are formed. (From Dorland, 28th ed; From Miall's Dictionary of Chemistry, 5th ed)

A method for estimating nucleotide diversity from AFLP data. (1/119)

A method for estimating the nucleotide diversity from AFLP data is developed by using the relationship between the number of nucleotide changes and the proportion of shared bands. The estimation equation is based on the assumption that GC-content is 0.5. Computer simulations, however, show that this method gives a reasonably accurate estimate even when GC-content deviates from 0.5, as long as the number of nucleotide changes per site (nucleotide diversity) is small. As an example, the nucleotide diversity of the wild yam, Dioscorea tokoro, was estimated. The estimated nucleotide diversity is 0.0055, which is larger than estimations from nucleotide sequence data for Adh and Pgi.  (+info)

Interaction of plant chimeric calcium/calmodulin-dependent protein kinase with a homolog of eukaryotic elongation factor-1alpha. (2/119)

A chimeric Ca2+/calmodulin-dependent protein kinase (CCaMK) was previously cloned and characterized in this laboratory. To investigate the biological functions of CCaMK, the yeast two-hybrid system was used to isolate genes encoding proteins that interact with CCaMK. One of the cDNA clones obtained from the screening (LlEF-1alpha1) has high similarity with the eukaryotic elongation factor-1alpha (EF-1alpha). CCaMK phosphorylated LlEF-1alpha1 in a Ca2+/calmodulin-dependent manner. The phosphorylation site for CCaMK (Thr-257) was identified by site-directed mutagenesis. Interestingly, Thr-257 is located in the putative tRNA-binding region of LlEF-1alpha1. An isoform of Ca2+-dependent protein kinase (CDPK) phosphorylated multiple sites of LlEF-1alpha1 in a Ca2+-dependent but calmodulin-independent manner. Unlike CDPK, CCaMK phosphorylated only one site, and this site is different from CDPK phosphorylation sites. This suggests that the phosphorylation of EF-1alpha by these two kinases may have different functional significance. Although the phosphorylation of LlEF-1alpha1 by CCaMK is Ca2+/calmodulin-dependent, in vitro binding assays revealed that CCaMK binds to LlEF-1alpha1 in a Ca2+-independent manner. This was further substantiated by coimmunoprecipitation of CCaMK and EF-1alpha using the protein extract from lily anthers. Dissociation of CCaMK from EF-1alpha by Ca2+ and phosphorylation of EF-1alpha by CCaMK in a Ca2+/calmodulin-dependent manner suggests that these interactions may play a role in regulating the biological functions of EF-1alpha.  (+info)

Pulsatile influxes of H+, K+ and Ca2+ lag growth pulses of Lilium longiflorum pollen tubes. (3/119)

Fluxes of H+, K+ and Ca2+ were measured with self-referencing ion-selective probes, near the plasma membrane of growing Lilium longiflorum pollen tubes. Measurements from three regions around short, steady-growing tubes showed small, steady influx of H+ over the distal 40 microm and a region of the tube within 50-100 microm of the grain with larger magnitude efflux from the grain. K+ fluxes were immeasurable in short tubes. Measurements of longer tubes that were growing in a pulsatile manner revealed a pulsatile influx of both H+ and K+ at the growing tip. The average fluxes at the cell surface during the peaks of the H+ and K+ pulses were 489+/-81 and 688+/-144 pmol cm-2 second-1, respectively. Growth was measured by tracking the pollen tips with a computer vision system that achieved a spatial resolution of approximately 1/10 pixel. The high spatial resolution enabled the detection of growth, and thus the changes in growth rates, with a temporal sampling rate of 1 frame/second. These data show that the H+ and K+ pulses have a phase lag of 103+/-9 and 100+/-11 degrees, respectively, with respect to the growth pulses. Calcium fluxes were also measured in growing tubes. During steady growth, the calcium influx was relatively steady. When pulsatile growth began, the basal Ca2+ influx decreased and a pulsatile component appeared, superimposed on the reduced basal Ca2+ flux. The peaks of the Ca2+ pulses at the cell surface averaged 38.4+/-2.5 pmol cm-2 second-1. Longer tubes had large pulsatile Ca2+ fluxes with smaller baseline fluxes. The Ca2+ influx pulses had a phase lag of 123+/-9 degrees with respect to the growth pulses.  (+info)

Nucleotide sequence analysis of the 3'-terminal region of two Korean isolates of lily symptomless Carlavirus and expression of the coat protein in E. coli. (4/119)

The 3'-terminal regions of the genomic RNAs of two Korean isolates of the lily symptomless Carlavirus (LSV), LSV-Ko and LSV-KII, were cloned and their nucleotide sequences were determined. The nucleotide sequence analysis and protein analysis by the Western blot revealed that E. coli expressed a 32-kDa protein that is the viral coat protein (CP) for the LSV. The two Korean strains share 98.4% and 98.3% sequence identities at the nucleotide and amino acid levels, respectively. The CP gene of LSV-Ko showed 99.1% and 87.0% nucleotide sequence identities, and 99.0% and 96.6% amino acid sequence identities with those of the Netherlands and the Japanese LSV strains, respectively. A pairwise amino acid sequence comparison revealed a sequence similarity of 29.6% to 69.8% between LSV-Ko and other species of the carlavirus. The 16 kDa protein of LSV-Ko shares 17.6% to 42.7% amino acid similarity with those of 8 other the carlaviruses, and they are variable in the N-terminal region. The Cys repeated zinc finger nucleic acid binding domain was found in the 16 kDa protein for all of the LSV strains. Sequence comparisons of the 7 kDa protein of LSV in the strain level showed significant identities from 100.0% to 98.4%. LSV-Ko shares 21.9% to 42.2% amino acid similarity with those of 8 other carlaviruses, 4 members of the potexviruses, and a closterovirus. LSV is closely related to blueberry scorch virus (BISV) based upon the phylogenetic tree analyses of the three proteins, indicating LSV to be a quite distinct member of the genus Carlavirus.  (+info)

Effect of Yucca schidigera on ruminal fermentation and nutrient digestion in heifers. (5/119)

In a replicated 3 x 3 Latin square experiment, six heifers (443 +/- 6.1 kg) fed a 61% barley grain:39% alfalfa silage diet (DM basis) were given intraruminal doses of powdered Yucca schidigera (YS). Doses of 0 (control), 20, or 60 g/d were given at 0800 daily. Ruminal content was sampled 0, 2, 4, and 6 h after dosing. Acidity, concentrations of reducing sugars, free amino acids, and peptides in the rumen were not affected (P > .05) by YS. Relative to control, ruminal ammonia concentration was reduced (P < .05) 2 h after YS dosing. Ruminal propionate concentration was increased (P < .05) by YS. Protozoal numbers in the rumen were lower (P < .05) with YS than without. Yucca did not affect (P > .05) rate or extent of in situ DM degradability. Fibrolytic, amylolytic, and proteolytic activities in ruminal contents were similar among treatments (P > .05). Dry matter intake, apparent digestibilities of DM, NDF, and CP, nitrogen balance, and microbial protein synthesis in the rumen were not affected (P > .05) by treatment. The effect of YS on ruminal ammonia concentration likely resulted from a decreased concentration of protozoa and, presumably, from ammonia binding by YS. The effect on ruminal propionate was probably a result of a selective inhibitory effect of YS on rumen microbial species.  (+info)

A lipid transfer-like protein is necessary for lily pollen tube adhesion to an in vitro stylar matrix. (6/119)

Flowering plants possess specialized extracellular matrices in the female organs of the flower that support pollen tube growth and sperm cell transfer along the transmitting tract of the gynoecium. Transport of the pollen tube cell and the sperm cells involves a cell adhesion and migration event in species such as lily that possess a transmitting tract epidermis in the stigma, style, and ovary. A bioassay for adhesion was used to isolate from the lily stigma/stylar exudate the components that are responsible for in vivo pollen tube adhesion. At least two stylar components are necessary for adhesion: a large molecule and a small (9 kD) protein. In combination, the two molecules induced adhesion of pollen tubes to an artificial stylar matrix in vitro. The 9-kD protein was purified, and its corresponding cDNA was cloned. This molecule shares some similarity with plant lipid transfer proteins. Immunolocalization data support its role in facilitating adhesion of pollen tubes to the stylar transmitting tract epidermis.  (+info)

High genetic diversity, distant phylogenetic relationships and intraspecies recombination events among natural populations of Yam mosaic virus: a contribution to understanding potyvirus evolution. (7/119)

To evaluate the genetic diversity and understand the evolution of Yam mosaic virus (YMV), a highly destructive pathogen of yam (Dioscorea sp.), sequencing was carried out of the C-terminal part of the replicase (NIb), the coat protein (CP) and the 3'-untranslated region (3'-UTR) of 27 YMV isolates collected from the three main cultivated species (Dioscorea alata, the complex Dioscorea cayenensis-Dioscorea rotundata and Dioscorea trifida). YMV showed the most variable CP relative to eight other potyviruses. This high variability was structured into nine distant molecular groups, as revealed by phylogenetic analyses and validated by assessment of the molecular evolutionary noise. No correlation was observed between the CP and 3'-UTR diversities and phylogenies. The most diversified and divergent groups included isolates from Africa. The remaining groups clustered in a single clade and a geographical distinction between isolates from the Caribbean, South America and Africa was observed. The role of the host in the selection of particular isolates was illustrated by the case of a divergent cultivar from Burkina Faso. Phylogenetic topological incongruence and complementary statistical tests highlighted the fact that recombination events, with single and multiple crossover sites, largely contributed to the evolution of YMV. We hypothesise an African origin of YMV from the yam complex D. cayenensis-D. rotundata, followed by independent transfers to D. alata and D. trifida during virus evolution.  (+info)

Structural characterisation of the native fetuin-binding protein Scilla campanulata agglutinin: a novel two-domain lectin. (8/119)

The three-dimensional structure of a 244-residue, multivalent, fetuin-binding lectin, SCAfet, isolated from bluebell (Scilla campanulata) bulbs, has been solved at 3.3 A resolution by molecular replacement using the coordinates of the 119-residue, mannose-binding lectin, SCAman, also from bluebell bulbs. Unlike most monocot mannose-binding lectins, such as Galanthus nivalis agglutinin from snowdrop bulbs, which fold into a single domain, SCAfet contains two domains with approximately 55% sequence identity, joined by a linker peptide. Both domains are made up of a 12-stranded beta-prism II fold, with three putative carbohydrate-binding sites, one on each subdomain. SCAfet binds to the complex saccharides of various animal glycoproteins but not to simple sugars.  (+info)

I'm sorry for any confusion, but "Liliaceae" is not a medical term. It is a taxonomic category in botany, specifically it is the family name for plants that include lilies, tulips, and related species. In a medical context, you might be referring to the specific plant species themselves, or possibly the allergic reactions some people can have to the pollen of these plants. If you have any more specific questions about botanical terms in a medical context, I'd be happy to try and help further.

Smilacaceae is not a medical term, but a botanical term referring to a family of flowering plants known as the greenbriar family. The plants in this family are primarily found in tropical and subtropical regions around the world. Some members of Smilacaceae have been used in traditional medicine in various cultures, although more research is needed to confirm their effectiveness and safety.

If you're looking for a medical definition related to greenbriar or Smilacaceae plants, I would need more context to provide an accurate answer.

Anemarrhena is a plant genus that belongs to the family Asphodelaceae. It includes several species, but the most commonly referenced one in medical contexts is Anemarrhena asphodeloides, also known as Zhong Wei Zi in traditional Chinese medicine.

The root of Anemarrhena asphodeloides has been used in traditional Chinese medicine for centuries to treat various health conditions, such as fever, cough, and diabetes. The active components of this plant include steroidal saponins, which have been shown to possess anti-inflammatory, antioxidant, and immunomodulatory properties. However, more research is needed to fully understand the potential medical applications and safety profile of Anemarrhena.

"Lilium" is not a term with a medical definition. It is the genus name for the flowering plants that are commonly called "true lilies." These plants belong to the family Liliaceae and are native to the temperate regions of the Northern Hemisphere. Some examples of species in this genus include the Easter lily, tiger lily, and Madonna lily.

There is no direct medical relevance to the term "Lilium." However, some compounds derived from plants in the Liliaceae family have been used in traditional medicine or as ingredients in pharmaceuticals. For example, certain species of Lilium contain alkaloids that have been studied for their potential medicinal properties. But it is important to note that these studies are still in the early stages and more research is needed before any conclusions can be drawn about the potential medical uses of these compounds.

I'm sorry for any confusion, but "Hosta" is not a medical term. It is the name of a genus of plants commonly known as plantain lilies or hostas. They are popular ornamental plants in gardens due to their attractive foliage. If you have any questions about botanical or horticultural topics, I'd be happy to try and help with those!

"Scilla" is a term that refers to a genus of plants in the family Asparagaceae, specifically within the subfamily Scilloideae. These plants are commonly known as "squills" and are native to Mediterranean regions, South Africa, and parts of Asia. They are perennial herbs with linear leaves and bell-shaped flowers that can be blue, white, or pink.

In a medical context, the term "scilla" may also refer to a medication derived from the dried bulb of Scilla maritima (also known as European Squill), which contains cardiac glycosides such as scillaren A and B. This medication has been used in the past as an expectorant, diuretic, and heart stimulant, although its use is not widespread in modern medicine due to the availability of safer and more effective alternatives.

It's important to note that "scilla" should not be confused with "skullcap," which is a different plant species (Scutellaria lateriflora) used in herbal medicine for its sedative and anxiolytic properties.

I'm sorry for any confusion, but "Spirostans" is not a recognized term in medical terminology. It seems like it might be a reference to a specific chemical compound or class of compounds, possibly related to steroids, based on the prefix "spiro-" and the suffix "-stan." However, I cannot provide a precise definition without more context.

If you're referring to a specific medical or scientific concept, could you please provide more information or check the spelling? I'm here to help, and I want to make sure I give you the most accurate and helpful response possible.

Glycosides are organic compounds that consist of a glycone (a sugar component) linked to a non-sugar component, known as an aglycone, via a glycosidic bond. They can be found in various plants, microorganisms, and some animals. Depending on the nature of the aglycone, glycosides can be classified into different types, such as anthraquinone glycosides, cardiac glycosides, and saponin glycosides.

These compounds have diverse biological activities and pharmacological effects. For instance:

* Cardiac glycosides, like digoxin and digitoxin, are used in the treatment of heart failure and certain cardiac arrhythmias due to their positive inotropic (contractility-enhancing) and negative chronotropic (heart rate-slowing) effects on the heart.
* Saponin glycosides have potent detergent properties and can cause hemolysis (rupture of red blood cells). They are used in various industries, including cosmetics and food processing, and have potential applications in drug delivery systems.
* Some glycosides, like amygdalin found in apricot kernels and bitter almonds, can release cyanide upon hydrolysis, making them potentially toxic.

It is important to note that while some glycosides have therapeutic uses, others can be harmful or even lethal if ingested or otherwise introduced into the body in large quantities.

The closest sister family to the Liliaceae are the Smilacaceae with the Liliaceae separating 52 million years ago. Liliaceae ... Liliaceae fossils have been dated to the Paleogene and Cretaceous eras in the Antarctic. The Liliaceae probably arose as shade ... The Liliaceae are ecologically diverse. Species of Liliaceae bloom at various times from spring to late summer. The colorful ... "Liliaceae". eMonocot. Archived from the original on 30 October 2013. Retrieved 15 January 2014. "Liliaceae". Belles fleurs de ...
ITIS 2015, Liliaceae. GRIN 2015, Liliaceae. WCLSPF 2015, Liliaceae. NCBI 2015, Liliaceae. Watson & Dallwitz 2015, Liliaceae ... The Liliaceae were one of the major families in the Cronquist system which included 22 families in addition to Liliaceae in the ... Liliaceae fossils have been dated to the Paleogene and Cretaceous eras in the Antarctic. The Liliaceae probably arose as shade ... Current members of Liliaceae are shown in bold. List of disposition of genera previously included in Liliaceae The more modern ...
The family Liliaceae consists of fifteen genera and approximately 600 species in all. Stevens 2015, Liliaceae. Peruzzi, Leitch ... The current taxonomy of Liliaceae treats the family Liliaceae as having three subfamilies, with the Liliodeae being further ... The List of Liliaceae genera has been much reduced by modern molecular phylogenetic based taxonomy. ... Articles with short description, Short description is different from Wikidata, Liliaceae genera, Lists of plant genera ( ...
ISBN 978-0-9560144-0-5. A. R. Clapham, T. G. Tutin & E. F. Warburg (1981). "Liliaceae". Excursion Flora of the British Isles ( ...
He placed the Liliaceae within the Liliales, but saw it as a paraphyletic ("catch-all") family, being all Liliales not included ... This kept the Liliaceae. separate from the Amaryllidaceae, which was divided into four tribes (with 68 genera), yet both his ... Liliaceae. Part II. p. 42. Jussieu 1789. Jaume Saint-Hilaire 1805, Amaryllidées vol. 1. pp. 134-142. Brown 1810, Prodromus. ... In 1810 Brown proposed that a subgroup of Liliaceae be distinguished on the basis of the position of the ovaries (inferior) and ...
H. non-scripta (L.) Chouard ex Rothm.: H. × massartiana Geerinck (Liliaceae)". Belgian Journal of Botany. 129 (1): 83-85. JSTOR ... P. D. Sell; G. Murrell (1996). "Liliaceae". Butomaceae-Orchidaceae. Flora of Great Britain and Ireland. Vol. 5. Cambridge: ...
Liliaceae). Taxon 57:1201-1214 (Articles with short description, Short description is different from Wikidata, Articles with ' ...
Liliaceae). III. New karyological data from the central Mediterranean area". Caryologia. 61 (1): 92-106. doi:10.1080/ ...
... is a species of flowering plant in the lily family Liliaceae. It is the only species of Clintonia native to ... Liliaceae)". Botanical Gazette. 134 (4): 268-274. doi:10.1086/336714. S2CID 84243942. Wikimedia Commons has media related to: ...
Liliaceae Flora of China 24: 73-263 2000 Chase, M. W.; Fay, M. F.; Devey, D. S.; Maurin, O; Rønsted, N; Davies, T. J; Pillon, Y ... Tamura is a specialist in the taxonomy of the family Liliaceae who has significantly contributed to the "Flora of China" and ... efloras Flora of China: Liliaceae 12th Flora of Thailand Meeting Archived 2011-06-02 at the Wayback Machine International Plant ... Tamura, M. N. (1998). "Liliaceae". Flowering Plants · Monocotyledons. pp. 343-353. doi:10.1007/978-3-662-03533-7_41. ISBN 978-3 ...
Stevens 2015, Liliaceae. Buxbaum, F. (1936). "Die Entwicklungslinien der Lilioideae. I. Die systematische Stellung der gattung ... Engler and Prantl included it as one of the eleven subfamilies of Liliaceae. In 1927, Buxbaum's treatment of the subfamily ... Engler 1903, Liliiflorae - Liliaceae - Lilioideae p. 96. Buxbaum 1936. Buxbaum 1937. Tamura 1998a, Lilioideae p. 350. Patterson ... Tamura, M. N. (1998-08-27). "Liliaceae". Flowering Plants · Monocotyledons. pp. 343-353. doi:10.1007/978-3-662-03533-7_41. ISBN ...
The genus Sypharissa (Liliaceae). Bothalia 13: 111-114. Obermeyer, A.A. 1981a. A new species of Strumaria (Amarvllidaceae). ... Liliaceae). Bothalia 15: 77-88. Obermeyer, A.A. 1985a. The genus Protasparagus (Asparagaceae) in southern Africa. Bothalia 15: ... Two new species of Bulbine (Liliaceae). Bothalia 9: 342-344. Obermeyer, A.A. 1968a. Dietes vegeta. The Flowering Plants of ...
The family Liliaceae was first described by Michel Adanson in 1763, placing Fritillaria in section Lilia of that family, but ... gracilis (Liliaceae), a new record for the Italian flora (S Italy)". Phytotaxa. 307 (2): 167. doi:10.11646/phytotaxa.307.2.11. ... Liliaceae): A review". Plant Diversity. 39 (5): 245-262. doi:10.1016/j.pld.2017.09.002. PMC 6112302. PMID 30159518. S2CID ... Liliaceae): A Review". Plant Diversity. 39 (5): 245-262. doi:10.1016/j.pld.2017.09.002. PMC 6112302. PMID 30159518. Khourang, ...
ISBN 1-4398-4924-2. Stevens, P. F. (2001-2012). "Liliaceae". Angiosperm Phylogeny Website. Version 12, September 28, 2013. ... Liliaceae. The Medeoleae are characterised by rhizomatous stems, inconspicuous flowers, the formation of berries that are ... Liliaceae, Monocot subfamilies, All stub articles, Liliales stubs). ...
Liliaceae)". Kew Bulletin. 41 (1): 58-58. doi:10.2307/4103027. ISSN 0075-5974. Christie, Bill; Vanden Bon, Alice; Laius, Al ( ...
Liliaceae. Part II. p. 42 Adanson 1763, VIII. Liliaceae Section IV. Cepae Part II. p. 50 Jussieu 1789, ordo VII Narcissi. pp. ... de Candolle reverted the family name back to Liliaceae from Asphodeli. He divided the Liliaceae into a series of Ordres, and ... Caloscordum (Liliaceae) from China". Acta Phytotax. Sin. (in Chinese). 34: 288-295. Li, Qin-Qin; Zhou, Song-Dong; Huang, De- ... The 'Alliaceae' have been treated as Allieae within the family Liliaceae (or Aspholecaceae, a partial synonym) by most ...
Liliaceae); Pachypodium rutenbergianum (Apocynaceae); Pandanus sp. (Pandanaceae); Uncarina sakalava Uncarina perrieri ( ...
By 1981 Liliaceae had grown to about 280 genera and 4,000 species. As it became clearer that the very large version of ... Initially the Trillium genus was placed in the family Liliaceae. In the nineteenth and early twentieth centuries it was ... Utech, Frederick H. (2002). "Liliaceae". In Flora of North America Editorial Committee (ed.). Flora of North America North of ... Ohara, Masashi; Kawano, Shoichi (1986). "Life History Studies on the Genus Trillium (Liliaceae) IV. Stage Class Structures and ...
Liliaceae). Taxon 26(1):131-137. "Dianella". APNI. Retrieved 29 November 2021. Jussieu, Antoine L. (1789). Antonii Laurentii de ...
Taxonomy of Liliaceae Tulipeae Stevens 2017. Huang et al 2018. Patterson & Givnish 2002. Vinnersten & Bremer 2001. Peruzzi, ... Peruzzi, L.; Leitch, I.J.; Caparelli, K.F. (2009). "Chromosome diversity and evolution in Liliaceae". Annals of Botany. 103 (3 ... The evolutionary and phylogenetic relationships between the genera currently included in Liliaceae are shown in this cladogram ... ISBN 978-1-4398-4924-8. Meerow, A.W. (2012-09-17). Taxonomy and Phylogeny: Liliaceae. pp. 17-55. ISBN 9781439849248. In ...
Liliaceae)". Bulletin of the Torrey Botanical Club. Torrey Botanical Society. 107 (2): 181-188. doi:10.2307/2484223. JSTOR ...
Liliaceae). A. Dafni and Y. Ivri, Oecologia, 1981, Vol. 49, No. 2, pages 229-232, (article at jstor.org) Wikimedia Commons has ...
Tulipa (Liliaceae). Pl. Syst. Evol. 195:40. Rechinger, K. H., ed. 1963-. Flora iranica. Walters, S. M. et al., eds. 1986-2000. ... Tiptoe through the tulips - cultural history, molecular phylogenetics and classification of Tulipa (Liliaceae). Bot. J. Linn. ... Liliaceae)". Botanical Journal of the Linnean Society. 172 (3): 280-328. doi:10.1111/boj.12061. Marasek Ciolakowska, Agnieszka ...
Tulipa (Liliaceae). Pl. Syst. Evol. 195:41. Walters, S. M. et al., eds. 1986-2000. European garden flora. (Articles with short ... "Liliaceae Tulipa kaufmanniana Regel". ipni.org. Retrieved 19 September 2017. McIntosh, Jamie (21 March 2020). "14 Tulip ... Tiptoe through the tulips - cultural history, molecular phylogenetics and classification of Tulipa (Liliaceae). Bot. J. Linn. ...
Tulipa (Liliaceae). Tulipa hungarica has a chromosome count: 2n=2x=24. It's somatic (cellular) DNA 2C value (2C) was calculated ... Tulipa hungarica, the Danube tulip, Banat tulip or Rhodope tulip, is a species of flowering plant in the family Liliaceae. It ... Zonneveld, Ben J. M. (2009). "The systematic value of nuclear genome size for all species of Tulipa L. (Liliaceae)". Plant Syst ... Tulipa (Liliaceae)". Plant Systematics and Evolution. 195 (1/2): 13-44. doi:10.1007/BF00982313. JSTOR 23643085. S2CID 20898836 ...
Tulipa (Liliaceae). Pl. Syst. Evol. 195:40. Walters, S. M. et al., eds. 1986-2000. European garden flora. Media related to ... Tulipa alberti, or Albert's tulip, is a species of flowering plant in the family Liliaceae. It has long reddish, orange or pink ... Liliaceae)". Plant Systematics and Evolution. 281 (1-4): 217-245. doi:10.1007/s00606-009-0203-7. S2CID 28406617. "Tulipa ...
Liliaceae, Liliaceae genera, Taxa named by Stephan Endlicher, All stub articles, Liliales stubs). ... Liliaceae)". Plant Species Biology. 21 (3): 201-207. doi:10.1111/j.1442-1984.2006.00166.x. Pelkonen, Veli-Pekka; Pirttilä, Anna ... Liliaceae): insights into the evolutionary history of endemic genera distributed across the Sino-Japanese floristic region". ... Liliaceae) Species: Comparative Genomic and Phylogenetic Analyses". Frontiers in Plant Science. 7: 2054. doi:10.3389/fpls. ...
Kurohimensis (Liliaceae)". International Journal of Plant Sciences. 154 (4): 467-472. doi:10.1086/297130. JSTOR 2995623. S2CID ...
pages 5-6. In: "Liliaceae". pages ??. In: Flora of North America Editorial Committee. Flora of North America vol. 26. Oxford ... Liliaceae at: Volume 26 at: FNA at: eFloras.org NCBI Taxonomy Browser links at CSDL, Texas (Articles with short description, ... Liliaceae, or Melanthiaceae. Tofieldiaceae is recognized by the Angiosperm Phylogeny Group in their APG III system of plant ...
Liliaceae. In Flora of Guatemala - Part III. Fieldiana, Bot. 24(3): 59-100. Moore, H. E. Jr. 1953. The genus Milla ( ...

No data available that match "liliaceae"


  • or ÷ P3+3 A3+3 G(3) The lily family, Liliaceae, consists of about 15 genera and 610 species of flowering plants within the order Liliales. (wikipedia.org)
  • Liliaceae Lily Family Flower: 1" white flowers with 3 sepals and 3 petals identical in size and color. (floralibrary.com)
  • Traditionally, Pleea, Triantha, Isidrogalvia Ruíz & Pavón (5 species, South America), Tofieldia, and Harperocallis have been included in the tribe Tofieldieae Horaninow within a polyphyletic Melanthiaceae or Liliaceae sensu lato. (swbiodiversity.org)
  • As defined by A. Cronquist (1981), the Liliaceae contained 'about 280 genera and nearly 4000 species. (swbiodiversity.org)
  • A phylogenetic analysis of the wild Tulipa species (Liliaceae) of Kosovo based on plastid and nuclear DNA sequence. (cam.ac.uk)
  • For the genera of Cronquist´s Liliaceae that are present in the flora, Table 1 summarizes their dispositions among the maximum number of segregate families in recent use. (swbiodiversity.org)
  • A number of Liliaceae genera are popular cultivated plants in private and public spaces. (wikipedia.org)
  • Many Liliaceae are important ornamental plants, widely grown for their attractive flowers and involved in a major floriculture of cut flowers and dry bulbs. (wikipedia.org)
  • The Liliaceae are characterised as monocotyledonous, perennial, herbaceous, bulbous (or rhizomatous in the case of Medeoleae) flowering plants with simple trichomes (root hairs) and contractile roots. (wikipedia.org)
  • Liliaceae floral morphology The diversity of characteristics complicates any description of the Liliaceae morphology, and confused taxonomic classification for centuries. (wikipedia.org)
  • Consequently, many sources and descriptions labelled "Liliaceae" deal with the broader sense of the family. (wikipedia.org)
  • belongs to the plant family Liliaceae . (floralibrary.com)
  • How is the floral diagram of family Liliaceae constructed? (biologydiscussion.com)
  • The Liliaceae Table Lamp evokes a stylized note of lush botanical water gardens that instantly elevates a bedroom, living room or hallway. (filamentlighting.com)
  • Liliaceae are widely distributed, mainly in temperate regions of the Northern Hemisphere and the flowers are insect pollinated. (wikipedia.org)
  • Si vous continuez à utiliser ce site, nous supposerons que vous en êtes satisfait. (amazonaws.com)
  • For the purpose of the Euro+Med Project, Liliaceae are defined in the traditional Englerian sense. (bioone.org)
  • 2012. Exine Ultrastructure of Fritillaria (Liliaceae Juss). (innspub.net)
  • 1990. Possible trends of evolution of pollon grains wall with special reference to the genus Tulipa (Liliaceae).Botanical Journal of the Linnean. (innspub.net)
  • 2008. on the taxonomy of Gagea and Calochortus (Liliaceae).Research Journal of Agriculture and Biological Sciences 4(1), 1-15. (innspub.net)
  • Traditionally, Pleea, Triantha, Isidrogalvia Ruíz & Pavón (5 species, South America), Tofieldia, and Harperocallis have been included in the tribe Tofieldieae Horaninow within a polyphyletic Melanthiaceae or Liliaceae sensu lato. (asu.edu)
  • Pollon Morphologe of genus Fritilllaria (Liliaceae) Botanical Journal of the Linnean 76, 1201-1210. (innspub.net)
  • Michael Mesler , Robin Bencie , and Bianca Hayashi "A Resurrection for Siskiyou bells, Prosartes parvifolia (Liliaceae), a Rare Siskiyou Mountains Endemic," Madroño 57(2), 129-135, (1 April 2010). (bioone.org)
  • The results showed that in Liliaceae had various shapes of pollen grains, i.e., prolate (1.33-2 μm) and per-prolate (≥ 2 μm), as well as the pollen grains size, from minuta (10-25 μm in diameter) to medium (25-50 μm in diameter). (ui.ac.id)