The Experts below are selected from a list of 9180 Experts worldwide ranked by ideXlab platform
L. Michael - One of the best experts on this subject based on the ideXlab platform.
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38. False Solomon’s Seal in flower
BC Digital Commons, 2019Co-Authors: L. MichaelAbstract:These are the showy flowers of the false Solomon seal, (Smilacina racemosa, Liliaceae) just outside my office window.https://digitalcommons.bridgewater.edu/shrum_garden/1037/thumbnail.jp
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36. Lemon daylily flower.
BC Digital Commons, 2019Co-Authors: L. MichaelAbstract:This is the lemon daylily (Hemerocallis flava, Liliaceae), a species I worked with in my Masters degree studies.https://digitalcommons.bridgewater.edu/shrum_garden/1035/thumbnail.jp
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39. Sessile Trillium outside Dr. Hill’s office window.
BC Digital Commons, 2019Co-Authors: L. MichaelAbstract:Of the various Trilliums, this sessile Trillium (Trillium sessile, Liliaceae) transplants well. It is common in our local woods.https://digitalcommons.bridgewater.edu/shrum_garden/1038/thumbnail.jp
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42. True Solomon’s Seal in flower.
BC Digital Commons, 2019Co-Authors: L. MichaelAbstract:Solomon’s seal (Polygonatum biflorum, Liliaceae) is another native that transplants well. It is one of the unique spring flowers of our woods.https://digitalcommons.bridgewater.edu/shrum_garden/1041/thumbnail.jp
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41. The flowers of Grape Hyacinth.
BC Digital Commons, 2019Co-Authors: L. MichaelAbstract:Grape hyacinth (Muscari armeniacum, Liliaceae) occurs in several ornamental forms. This is the more common species that can, as it spreads, form a nice understory of blue flowers in early spring.https://digitalcommons.bridgewater.edu/shrum_garden/1040/thumbnail.jp
Tamotsu Nikaido - One of the best experts on this subject based on the ideXlab platform.
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maltol glucosides from the tuber of smilax bockii
Phytochemistry, 2004Co-Authors: Kazuo Koike, Wei Li, Tamotsu NikaidoAbstract:Two maltol glucosides, bockiosides A and B, along with 10 known compounds, were isolated from the tuber of Smilax bockii (Liliaceae), and their structures were elucidated by spectral experiments, chemical analysis and comparison with literature data.
Yoshiya Shimamoto - One of the best experts on this subject based on the ideXlab platform.
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Variations in the breeding system and the population genetic structure of Trillium kamtschaticum (Liliaceae)
Heredity, 1996Co-Authors: Masashi Ohara, Haruko Takeda, Yoko Ohno, Yoshiya ShimamotoAbstract:Variations in the breeding system and the population genetic structure of Trillium kamtschaticum (Liliaceae)
Michael F. Fay - One of the best experts on this subject based on the ideXlab platform.
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Punctuated genome size evolution in Liliaceae.
Journal of evolutionary biology, 2007Co-Authors: Ilia J. Leitch, Jeremy M. Beaulieu, K. Cheung, Lynda Hanson, Martin A. Lysak, Michael F. FayAbstract:Most angiosperms possess small genomes (mode 1C = 0.6 pg, median 1C = 2.9 pg). Those with truly enormous genomes (i.e. ≥ 35 pg) are phylogenetically restricted to a few families and include Liliaceae – with species possessing some of the largest genomes so far reported for any plant as well as including species with much smaller genomes. To gain insights into when and where genome size expansion took place during the evolution of Liliaceae and the mode and tempo of this change, data for 78 species were superimposed onto a phylogenetic tree and analysed. Results suggest that genome size in Liliaceae followed a punctuated rather than gradual mode of evolution and that most of the diversification evolved recently rather than early in the evolution of the family. We consider that the large genome sizes of Liliaceae may have emerged passively rather than being driven primarily by selection.
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597. TULIPA SPRENGERI
Curtis's Botanical Magazine, 2007Co-Authors: Richard Wilford, Michael F. FayAbstract:Summary The distinctive Tulipa sprengeri Baker (Liliaceae) is illustrated and described. Its history, classification and cultivation requirements are discussed, including the results of recent research at Kew that establishes its position within the genus.
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Molecular phylogenetic evidence for the monophyly of Fritillaria and Lilium (Liliaceae; Liliales) and the infrageneric classification of Fritillaria.
Molecular phylogenetics and evolution, 2005Co-Authors: Nina Rønsted, Michael F. Fay, Steve Law, Hannah Thornton, Mark W. ChaseAbstract:We present phylogenetic analyses of 37 taxa of Fritillaria (Liliaceae), 15 species of Lilium, and several outgroup taxa from Liliaceae s.s. to investigate the generic delimitation of Fritillaria in relation to Lilium as well as infrageneric relationships within Fritillaria. We used DNA sequences from the maturase-coding plastid matK gene and the trnK intron, the intron of the ribosomal protein-coding rpl16 plastid gene, and the nuclear ribosomal internal transcribed spacers (ITS). Phylogenetic analysis using maximum parsimony defined Fritillaria and Lilium (the latter including Nomocharis) as sister taxa. Fritillaria sections Fritillaria and Liliorhiza are supported in part, and some of the most enigmatic species usually included in Fritillaria (sections Petilium and Theresia and the monotypic genus Korolkowia) are closely related. The results support the new classification of Fritillaria proposed by Rix. We postulate independent origins of the underground bulbils found in Fritillaria davidii and the remainder of subgenus Liliorhiza.
Yusuf Altıoğlu - One of the best experts on this subject based on the ideXlab platform.
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Tulipa cinnabarina subsp. toprakii (Liliaceae), a new subspecies from southwestern Anatolia.
PhytoKeys, 2016Co-Authors: İsmail Eker, Hasan Yildirim, Yusuf AltıoğluAbstract:A new subpecies, Tulipa cinnabarina subsp. toprakii subsp. nov. (Liliaceae) from Turkey is described. Diagnostic characters, descriptions, detailed illustrations, geographical distribution, conservation status and ecological observations on the new taxon are provided. It is also compared with the closely related Tulipa cinnabarina subsp. cinnabarina.