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101 results for “Malpighiaceae”
FIGURE 3 in Lectotypification and neotypification of names related to Banisteriopsis caapi (Malpighiaceae): a contribution to understanding of Ayahuasca
FIGURE 3. Lectotype of Banisteria membranifolia A. Jussieu (A. de Saint-Hilaire s.n, MPU020073) (© Université de Montpellier - Herbier MPU. Image available: https://collections.umontpellier.fr/collections/botanique/herbier-mpu/base-herbier-mpu).
FIGURE 2 in Lectotypification and neotypification of names related to Banisteriopsis caapi (Malpighiaceae): a contribution to understanding of Ayahuasca
FIGURE 2. Neotype of Banisteria adenopoda f. subrotunda Niedenzu (H. Makino 130, ESA 87748) (School of Agriculture "Luiz de Queiroz" - University of S"o Paulo. Image available: speciesLink)
FIGURE 1 in Lectotypification and neotypification of names related to Banisteriopsis caapi (Malpighiaceae): a contribution to understanding of Ayahuasca
FIGURE 1. Lectotype of Banisteria adenopoda A. Jussieu (A. de Saint-Hilaire s.n, MPU020068) (© Université de Montpellier - Herbier MPU. Image available: https://herbier.umontpellier.fr/hv/wakka.php?wiki=PagePrincipale/iframe&action=recherche&genre=banisteriop sis&espece=adenopoda).
FIGURE 4 in Lectotypification and neotypification of names related to Banisteriopsis caapi (Malpighiaceae): a contribution to understanding of Ayahuasca
FIGURE 4. Lectotype of Banisteria membranifolia f. subglabrata Niedenzu (Glaziou 18950, C10014199). (Reproduced with permission of the Natural History Museum of Denmark).
FIGURE 1 in Contributions of leaf morphoanatomy to the taxonomy of Bronwenia (Malpighiaceae Juss.)
FIGURE 1. Morphology of the outer leaf glands of Bronwenia ferruginea (F), B. megaptera (A, B and E) and B. wurdackii (C and D): A. External gland on the petiole, B. Gland at the base of the leaf blade, C. Glands scattered in the leaf blade, D. Gland at the margin on the leaf blade, E. Gland with a convex surface, F. Gland with a concave surface. Abbreviation: arrow = Glands.
FIGURE 4 in Contributions of leaf morphoanatomy to the taxonomy of Bronwenia (Malpighiaceae Juss.)
FIGURE 4. Details of leaf architecture in Bronwenia acapulcensis (D), B. cornifolia (A) and B. megaptera (B and C). A—Primary venation, B—Secondary and tertiary veins with marginal termination, C—Tertiary reticular veins, D—Quaternary and quinternary veins. Abbreviations: 1st = Primary Vein; 2nd = Secondary vein; 3rd = Tertiary vein; 4th = Quaternary vein; 5th = quinternary vein L; "Loops"; VM = Marginal Vein.
FIGURE 3 in Contributions of leaf morphoanatomy to the taxonomy of Bronwenia (Malpighiaceae Juss.)
FIGURE 3. Leaf anatomy of Bronwenia acapulcensis (A, E, F and G), B. cineracens (B), B. mathiasiae (D), B. megaptera (C) and B. wurdackii (H and I): A. Drusae, B. Idioblast and prismatic crystals, C. Idioblasts, D. Biconvex contour, E. Open arch conformation with convoluted ends, F. Cross section, G. Parenchymatous sheath extension, H. Laticifers (longitudinal section), I. Laticifers (cross section). Abbreviations: BE = non-continuous bistratified epidermis of the adaxial surface; C = prismatic crystal; D = Druse; Id = Internal secretory structures; La = Laticifer; P = Phloem; PP = palisade parenchyma; Sc = sclerenchymatic fibers; SP = spongy parenchyma; UE = unistratified epidermis; X = xylem; * = stomata.
FIGURE 2 in Contributions of leaf morphoanatomy to the taxonomy of Bronwenia (Malpighiaceae Juss.)
FIGURE 2. Details of leaf glands and leaf anatomy of Bronwenia acapulcensis (F and G), B. cineracens (A), B. ferruginea (D), B. mathisiae (E), B. megaptera (B) and B. wurdackii (C): A, B and C. Gland anatomy, D. Concave-convex contour, E. Plane-convex petiole contour, F. T-shaped trichome, G. Conformation of the vascular system in an open arch. Abbreviations: arrow = accessory bundle; P = phloem; PE = palisade epidermis; Sc = sclerenchymatic fibers; SC= Secretory cavity, VS = vascular system; X = xylem.
FIGURE 5 in Contributions of leaf morphoanatomy to the taxonomy of Bronwenia (Malpighiaceae Juss.)
FIGURE 5. Similarity Analysis (UPGMA) of Bronwenia species. Baca—B. acapulcensis; Bcin—B. cineracens; Bcor- B. cornifolia; Bfer—B. ferruginea; Bmat—B. mathiasiae; Bmeg—B. megaptera; Bwur—B. wurdackii.
Historical biogeography and character-mapping of Hiptage (Malpighiaceae) corroborate Indochina's rainforests as one of the main sources of plant diversity in Southeastern Asia
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A new species of Hiptage (Malpighiaceae) from Nujiang Gorge of Southwest China
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Figure 4 from: Tan K, Zheng H-L, Dong S-P, Ren M-X (2019) Molecular phylogeny of Hiptage (Malpighiaceae) reveals a new species from Southwest China. PhytoKeys 135: 91-104. https://doi.org/10.3897/phytokeys.135.37011
Figure 4 Distribution map of the new species Hiptage incurvatum and the other 12 species of the genus known in China and nearby regions.
Figure 2 from: Tan K, Zheng H-L, Dong S-P, Ren M-X (2019) Molecular phylogeny of Hiptage (Malpighiaceae) reveals a new species from Southwest China. PhytoKeys 135: 91-104. https://doi.org/10.3897/phytokeys.135.37011
Figure 2 Hiptage incurvatum K.Tan & M.X.Ren, sp. nov. A, B habit C flowering branch D flower in frontal view E flower with petals removed in sideview F flower with petals removed in dorsal view showing two large glands on the dorsal sepals) G flowers in sideview H detached petals I young leaf in adaxial view J young samaras K mature samaras L leaf branch in adaxial view. Photos A–C by M. X. Ren, J, K by H. L. Zheng and D–I, L by K. Tan.
Figure 3 from: Tan K, Zheng H-L, Dong S-P, Ren M-X (2019) Molecular phylogeny of Hiptage (Malpighiaceae) reveals a new species from Southwest China. PhytoKeys 135: 91-104. https://doi.org/10.3897/phytokeys.135.37011
Figure 3 Line drawing of Hiptage incurvatum K.Tan & M.X.Ren, sp. nov. A flowering branches B flower (in sideview) C sepals showing two large glands on the dorsal sepals and small glands on the remaining sepals D samara in dorsal view, showing the curved lateral wings E samara in sideview. Drawings by Ya-Jing Zhang based on K. Tan and M.X. Ren 2019033109 (HUTB).
Figure 1 from: Tan K, Zheng H-L, Dong S-P, Ren M-X (2019) Molecular phylogeny of Hiptage (Malpighiaceae) reveals a new species from Southwest China. PhytoKeys 135: 91-104. https://doi.org/10.3897/phytokeys.135.37011
Figure 1 Molecular phylogeny for 17 species of Hiptage and two Neotropical outgroups based on ITS sequences. Bayesian posterior probability (PP) and MP bootstrap values (BS) are showed above branches as PP/BS (only shown if BS > 50%). H. incurvatum was shown in grey. The red, blue, black clades indicate reflexed petals, erect petals, and unknown, respectively. Inserted photos indicate petal-reflexed flowers (red branches) and petal-plat flowers (blue branches). Black branches represent the unclear mode.
Fig. 3 in Check-list de Malpighiaceae do estado de Mato Grosso do Sul
Fig. 3. Municípios do Mato Grosso do Sul classificados quanto ao número de coletas de espécimes de Malpighiaceae em seu território.
Figure 2 from: Yang B, Ding H-B, Li J-W, Tan Y-H (2018) Two new species of Hiptage (Malpighiaceae) from Yunnan, Southwest of China. PhytoKeys 110: 81-89. https://doi.org/10.3897/phytokeys.110.28673
Figure 2 Hiptageferruginea Y.H. Tan & Bin Yang, sp. nov. A, B Habit C Flowering branch D, E Inflorescence F Flower (lateral view) G Flower (dorsal view) H Flower (frontal view) I Petals J Flower (picked petals) K, L Samaras M Leaf (abaxial view) N Leaf (adaxial view) O Leaf base (showing the marginal glands). Photographed by B. Yang.
Figure 1 from: Yang B, Ding H-B, Li J-W, Tan Y-H (2018) Two new species of Hiptage (Malpighiaceae) from Yunnan, Southwest of China. PhytoKeys 110: 81-89. https://doi.org/10.3897/phytokeys.110.28673
Figure 1 Hiptagepauciflora Y.H.Tan & Bin Yang, sp. nov. A, B Habit C Inflorescence (lateral view) D Inflorescence (frontal view) E Flowering branch F Flower bud G Flowers (lateral view) H Flower (frontal view) I Flower (I1 Petals; I2 the longest stamen; I3 the 9 short stamens; I4 Pedicel; I5 Calyx; I6 Style) J Samaras (lateral view and showing calyx gland) K Samaras (vertical view) L Samaras (dorsal view) M Leaves (adaxial view). Photographed by Y.H. Tan, H.B. Ding and B. Yang.
Figure 7 from: Almeida RF, Guesdon IR, Pace MR, Meira RMS (2019) Taxonomic revision of Mcvaughia W.R.Anderson (Malpighiaceae): notes on vegetative and reproductive anatomy and the description of a new species. PhytoKeys 117: 45-72. https://doi.org/10.3897/phytokeys.117.32207
Figure 7 Mcvaughiapiauhiensis. A seasonally dry forests from Serra das Confusões, Piauí, Brazil B abaxial surface of a leaf C detail of epipetiolar stipules D inflorescence E rehydrated flower showing the stamens (white arrows= reduced stamens) and styles. A by S.E. Martins B–E by R.F. Almeida.
Figure 3 from: Almeida RF, Guesdon IR, Pace MR, Meira RMS (2019) Taxonomic revision of Mcvaughia W.R.Anderson (Malpighiaceae): notes on vegetative and reproductive anatomy and the description of a new species. PhytoKeys 117: 45-72. https://doi.org/10.3897/phytokeys.117.32207
Figure 3 Leaf morphoanatomy of Mcvaughia species. A patterns of leaf glands distribution on the abaxial leaf surface of M.bahianaB patterns of leaf glands distribution on the abaxial leaf surface of M.piauhiensisC patterns of leaf glands distribution on the abaxial leaf surface of M.sergipanaD transverse section of leaf base showing the basilaminar pair of stalked glands (white arrows) E basilaminar leaf gland with a stalk (black arrow) in M.piauhiensisF basilaminar gland in M.sergipana showing a sessile position (SE= anatomical arrangement with secretory epidermis, SP= vascularized secretory parenchyma) G–H laminar glands on the apex of cleared leaves of M.sergipana and M.bahiana respectively, note the apical tooth (G) I sessile laminar glands in M.sergipanaJ stalked laminar gland in M.piauhiensisK–L transverse sections of the leaf blade; mesophyll with uniserial palisade-like parenchyma and spongy parenchyma composed by several or few layers in M.sergipana and M.bahiana, respectively; note the idioblast with druse crystals at the mesophyll (white arrow) and the stomata distribution at the abaxial leaf surface (black arrow) M–N adaxial epidermis surface of M.piauhiensis and M.sergipana, showing scars of malpighiaceous trichomes O abaxial epidermis surface of trichomes abundance in M.bahianaP–Q outline of the anticlinal epidermal cell walls: straight in M.sergipana (P) and sinuous in M.bahiana (Q). Laminar scale bars: 1 cm (A–C), 100 μm (D, F–K, N–O), 150 μm (E), 50 μm (L–M, P–Q).
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Allen Brain Atlas
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Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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