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135 results for “Chenopodiaceae”
FIGURE 2 in Kali dodecanesicum (Chenopodiaceae, Salsoloideae) a new species from Greece
FIGURE 2. Diagnostic features of Kali dodecanesicum C. Brullo, Brullo, Ilardi & Giusso. A. open perianth with stamens. B. flower. C. flower with bract and bracteoles. D. pistil. E. embryo (below view). F. embryo (above view). G. embryo (lateral view). H. utricle (above view). I. utricle (lateral view). J. fruiting perianth (lateral view). K. fruiting perianth (above view). L. fruiting perianth with bract and bracteoles. Illustration by S. Brullo based on living material coming from the type locality (CAT).
FIGURE 3. Suaeda glauca, SEM micrographs. A. A in Restoration of Suaeda sect. Helicilla (Chenopodiaceae) and typification of its related taxa
FIGURE 3. Suaeda glauca, SEM micrographs. A. A regular, sub-spherical seed. B. Detail of seed coat. C. An irregular, disc-shaped seed. D. S. linifolia, detail of seed coat. E. S. glauca, distribution map: Most Chinese records from Qin Hai-Ning & Ma Ke-Ping (2016). Photos and map by M. Lomonosova.
FIGURE 2. Suaeda glauca. A in Restoration of Suaeda sect. Helicilla (Chenopodiaceae) and typification of its related taxa
FIGURE 2. Suaeda glauca. A. Habitat on sandy shore of the Sea of Japan, Southern Primoriye (Russian Far East), the species grows scattered among the predominant Phragmites australis var. humilis (De Not) Tzvelev. B. Habit and habitat (sandy pockets among lava rocks) near Seogwipo, Jeju island (S Korea). C. Flowering branch, note the carinate tepals; from greenhouse in Novosibirsk. D. Fruiting branches, note strongly carinate, flattened fruits bearing disc-shaped seeds; from Southern Primoriye. E. Cross section of stem. F. Cross section of a leaf. Photos by H. Freitag (B, F); M. Lomonosova (A, C, E); molbiol.ru (D).
FIGURE 1 in Restoration of Suaeda sect. Helicilla (Chenopodiaceae) and typification of its related taxa
FIGURE 1. Abbreviated ITS maximum likelihood tree of Suaedoideae / Salicornioideae including key species of the different sections, based on Schütze et al. (2003), Kapralov et al. (2006) and Schütze (2011). Tree computed by R. Brandt.
FIGURE 4 in Restoration of Suaeda sect. Helicilla (Chenopodiaceae) and typification of its related taxa
FIGURE 4. Lectotype of Suaeda stauntonii Moq., Herbarium Firenze (FI-017377, herb. Webb no. 157134). Photo by courtesy of the Herbarium Firenze.
FIGURE 2 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 2. Neighbour net analysis of nrITS sequences. The main clusters are shaded in color; (grey) A-genome diploids and Asian tetraploid C. sosnowskyi; (green) Eurasian diploids (B-genome), American and Asian tetraploids and Taiwan hexaploid C. formosanum; (yellow) two Asian diploids; (red) Asian diploid (C. acuminatum) and most of the Asian and Eurasian polyploids. Bootstrap values>80% are given only for the major groups of the analyzed accessions.
FIGURE 3 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 3. Neighbour net analysis of 5S rDNA NTS sequences. The main clusters are shaded in color; (grey) sequences from A-genome diploids and American allotetraploids; (green) sequences from Eurasian diploids (B-genome), American allotetraploids and all analyzed hexaploid; (red) sequences from Eurasian tetraploids (C. betaceum, C. striatiforme) and two Eurasian hexaploids; (orange) sequences of Eurasian tetraploids (C. betaceum, C. striatiforme) and three Eurasian hexaploids. Bootstrap values>80% are given only for the major groups of the analyzed accessions.
FIGURE 1 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 1. Neighbour net analysis of cpDNA sequences. The main clusters are shaded in color; (grey) A-genome diploids and American allotetraploids with AABB genome composition; (red) Eurasian tetraploids (C. betaceum and C. striatiforme) and Eurasian hexaploid species (C. pedunculare, C. album and C. giganteum); (green) Eurasian diploids (B-genome) and Taiwan hexaploid C. formosanum. Bootstrap values>80% are given only for the major groups of the analyzed accessions.
FIGURE 6 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 6. Evolution of rDNA loci and genome size in allohexaploids C. album, C. giganteum, C. pedunculare, C. formosanum and C. opulifolium. Putative diploid and tetraploid ancestors are indicated by green and grey arrows, respectively. Genome size (1C), subgenome B (green), chromosome carrying 35S (yellow), or 5S (magenta) loci and their putative provenance (♂ for paternal and ♀ for maternal parent), as well as a type of ITS and 5S rDNA non-transcribed spacer (NTS) sequences (♂ for paternal and ♀ for maternal parent) are shown.
FIGURE 4 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 4. Somatic metaphases of (a) C. album (BGG 4356), (b) C. pedunculare, (c) C. giganteum (PI 596372), (d) C. formosanum and (e) C. opulifolium after double GISH with gDNA isolated from C. ficifolium (green) and tetraploid C. betaceum (red). The scale bar=5 μm.
FIGURE 5 in Parental origin and genome evolution of several Eurasian hexaploid species of Chenopodium (Chenopodiaceae)
FIGURE 5. Distribution of 35S (yellow) and 5S rDNA (magenta) loci in chromosomes of Chenopodium species; (a) C. betaceum; (b) C. striatiforme; (c) C. giganteum (IPK Chen61), (d) C. pedunculare. Somatic metaphases of (e) C. album (UHBG 36), (f) C. pedunculare, (g) C. formosanum, (h–i) C. giganteum (PI 596372) and (j) C. opulifolium after GISH/FISH with gDNA isolated from C. ficifolium (green), 35S rDNA (yellow) and 5S rDNA (magenta). The scale bar=5 μm.
FIGURE 3. Fruits and a in Typification of the Linnaean name Corispermum squarrosum, with notes on C. hyssopifolium and nomenclatural implications for Agriophyllum (Chenopodiaceae: Corispermeae)
FIGURE 3. Fruits and a bract of the specimen LINN 12.3 (lectotype of Corispermum squarrosum L., here designated).
FIGURE 2 in Typification of the Linnaean name Corispermum squarrosum, with notes on C. hyssopifolium and nomenclatural implications for Agriophyllum (Chenopodiaceae: Corispermeae)
FIGURE 2. Fruits of the specimen LINN 12.2 (filed as Corispermum hyssopifolium L.), right-side plant. Taxonomic identity: Corispermum marschallii Steven.
FIGURE 2 in Nomenclature of Caroxylon imbricatum s.lat. (Amaranthaceae / Chenopodiaceae), with a new combination at variety rank
FIGURE 2. Isolectotype of Chenopodium baryosmon (≡ Salsola baryosma), eventually the only actual specimen of the species seen by Schultes (by courtesy of the Bayerische Staatssammlungen München, M).
FIGURE 1 in The holotype of Chenopodium baryosmon (Chenopodiaceae) rediscovered: just one of many type specimens from the private herbarium of Schultes, now in the Turczaninow herbarium at KW
FIGURE 1. Holotype of Chenopodium baryosmon (≡ Salsola baryosma, now treated as a synonym of Caroxylon imbricatum), KW001002885; the only actual specimen of the species seen by Schultes (courtesy of the National Herbarium of Ukraine, KW).
FIGURE 1 in Lectotypification of the name Chenopodium hircinum, a wild relative of the pseudocereal crop species C. quinoa (Chenopodiaceae)
FIGURE 1. Lectotype of the name Chenopodium hircinum Schrad. (LE00011694!, the right-hand specimen consisting of two plant fragments).
FIGURE 1 in Caroxylon (Chenopodiaceae s.str.) in continental southern Africa and Madagascar: a preliminary nomenclatural synopsis and biogeographical considerations
FIGURE 1. Representative taxa of the genus Caroxylon from southern Africa. A: C. tetramerum, South Africa, Knersvlakte, Moedverloor NR near Lutzville, local endemic of the quartz patches; B: C. verdoorniae, South Africa, Little Karoo, Groot Phesantefontein, local endemic of the quartz patches; C: C. contrariifolia, South Africa, Knersvlakte, loamy, shale-derived soil supporting succulent scrub, Lankverwag Farm near Vanrhynsdorp (inset: detail of fertile branch); D: C. zeyheri, South Africa, Knersvlakte, gannabosveld (succulent scrub dominated by gannabos, vernacular name for Salsola/Caroxylon) near Vanrhynsdorp; E: C. etoshensis, Namibia, Etosha National Parl, Okaukuejo, saline calcrete flats along edges of the large Etosha Pan; F: C. divaricatum, South Africa, Olifants River mouth, supratidal saline flats fringing an old estuary system; G: C. nollothensis, South Africa, Namaqualand, Port Nolloth, McDougalls Bay, shell-rich coastal dunes. All photos by L. Mucina.
Data from: Genetic diversity and multiple origins of polyploid Atriplex nummularia Lindl. (Chenopodiaceae).
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FIGURE 1 in Comparative study and genetic diversity of Salicornia persica (Chenopodiaceae) using SCOT molecular markers
FIGURE 1. Distribution map of the studied populations.
Fig. 1 in Effects of five species of Chenopodiaceae on the development and reproductive potential of Copitarsia decolora (Lepidoptera: Noctuidae)
Fig. 1. Survival curves of Copitarsia decolora insects fed diets containing 0.5% of essential oils extracted from 5 species of Chenopodiaceae.
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