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101 results for “Malpighiaceae”
FIGURE 8 in A new infrageneric classification for Amorimia (Malpighiaceae) based on morphological, phytochemical and molecular evidence
FIGURE 8. Pollen morphology of eleven species of Amorimia sampled in this study. Amorimia subg. Uncinae. A. A. amazonica; B. A. concinna; C. A. kariniana; D. A. pubiflora; E. A. septentrionalis. Amorimia subg. Amorimia - F. A. candidae; G. A. coriacea; H. A. exotropica; I. A. maritima; J. A. pellegrinii; K. A. rigida.
FIGURE 4 in A new infrageneric classification for Amorimia (Malpighiaceae) based on morphological, phytochemical and molecular evidence
FIGURE 4. Reconstruction of morphological characters (connation of stipules, occurrence of glands on bracts, occurrence of elaiophores, abaxial indumentum of petals and position of stigmas) and chemical traits (monofluoracetate) on the Bayesian tree (Fig. 3).
FIGURE 3 in A new infrageneric classification for Amorimia (Malpighiaceae) based on morphological, phytochemical and molecular evidence
FIGURE 3. Bayesian inference and maximum parsimony tree based on the combined dataset. Clade support above 50% bootstrap and 0.50 Bayesian posterior probabilities are indicated above/below branches.
FIGURE 7 in A new infrageneric classification for Amorimia (Malpighiaceae) based on morphological, phytochemical and molecular evidence
FIGURE 7. Reconstruction of morphological (colour of elaiophores, shape of petals at base, shape of petals, adaxial indumentum of petals, stamens symmetry and shape of the style apex) on the Bayesian tree (Fig. 3).
FIGURE 2 in A new infrageneric classification for Amorimia (Malpighiaceae) based on morphological, phytochemical and molecular evidence
FIGURE 2. Bayesian inference and maximum parsimony trees based on the ETS and ndhF datasets. Clade support above 50% bootstrap and 0.50 Bayesian posterior probabilities are indicated above/below branches.
FIGURE 5 in The hydrochorous Amazonian genus Glandonia (Malpighiaceae): new records, morphoanatomy updates and taxonomic contributions
FIGURE 5. Morphoanatomical floral characters of Glandonia species. A–C: Glandonia macrocarpa: A. General view of the flowers, B. Posterior petal margin (SEM image) and C. Posterior petal cleared. D–F: Glandonia prancei: D. General view of the flowers, E. Posterior petal margin (SEM image) and F. Posterior petal cleared; G–I: Glandonia williamsii: G. General view of the flowers H. Posterior petal margin (SEM image) and I. Posterior petal cleared. PP: Posterior petal. SG: Sepal glands. BG: Bracteole gland.
FIGURE 1. A in The hydrochorous Amazonian genus Glandonia (Malpighiaceae): new records, morphoanatomy updates and taxonomic contributions
FIGURE 1. A. Map showing the distribution of Glandonia macrocarpa (black triangles), G. prancei (black circles) and G. williamsii (black squares). B. Glandonia macrocarpa specimen (arrow) in terra firme forest. C. Glandonia williamsii specimen (arrow) in igapó. D. Hydrochorous fruit of G. prancei.
FIGURE 4 in The hydrochorous Amazonian genus Glandonia (Malpighiaceae): new records, morphoanatomy updates and taxonomic contributions
FIGURE 4. Anatomical characters of Glandonia species. A. Adaxial surface of G. macrocarpa showing indument scars (black arrow). B. Abaxial surface of G. prancei showing a stoma (black arrow) and sinuous outline of the anticlinal epidermal wall. Abaxial surface of G. williamsii C. papillae covering a stoma (black arrow), D. papillose surface (SEM image), a stoma (white arrow). E. Transversal section of leaf of G. williamsii, papillae (white arrow), F. Sclereids in midrib of G. macrocarpa (black arrow). Diagrammatic schemas of petiolar vascular systems G. a curved arc with invaginated ends in G. prancei and H. a concentric arc delimiting a central pith in G. macrocarpa, dot-filled areas: phloem, striped areas: xylem. Leaf blade cleared I. in G. williamsii and J. in G. prancei, note the laminar gland (arrow). Transversal view of bracteole gland K. convex surface in G. macrocarpa, L. truncate surface in G. prancei. M–O. Sclereids on posterior petal of G. williamsii, N. Macrosclereids, O. Brachysclereids.
FIGURE 3 in The hydrochorous Amazonian genus Glandonia (Malpighiaceae): new records, morphoanatomy updates and taxonomic contributions
FIGURE 3. Vegetative and reproductive characters of Glandonia species: A. keel-shaped leaves of G. williamsii, B. and C. general view of leaves and inflorescence of G. prancei. Basilaminar leaf glands: D. Glandonia macrocarpa, E. Glandonia prancei and F. Glandonia williamsii. Laminar leaf glands: G. Glandonia williamsii and H. Glandonia macrocarpa. Floral glands: I. bracteole gland (BG) of G. macrocarpa, J. bracteole and sepal glands of G. prancei (BG and SG, respectively), black arrow: pedicel joint. K. Posterior petal in bud of G. macrocarpa, note the petal glands (arrow) L. Helmet-shaped petal (HP) and reflexed limb of posterior petal (PP) in G. macrocarpa.
FIGURE 2 in The hydrochorous Amazonian genus Glandonia (Malpighiaceae): new records, morphoanatomy updates and taxonomic contributions
FIGURE 2. General view of Glandonia species: A and B Glandonia macrocarpa: A. Flowering branch, B. lateral and frontal view of fruit. C. Fruiting branch of G. williamsii. D. Fruiting branch of G. prancei. Drawing A from Guesdon 16 (INPA), B from Ducke 793 (INPA), C from Fróes 28782 (MG) and D from Prance et al. 20557 (INPA).
FIGURE 1. Acridocarpus taitensis A. Habit and habitat. B. Flowering branch. C in Acridocarpus taitensis (Malpighiaceae), a new species from Taita Hills in Kenya, Eastern Arc Mountains
FIGURE 1. Acridocarpus taitensis A. Habit and habitat. B. Flowering branch. C. Adaxial side of the leaf. D. Abaxial side of leaf. E. Bracts (arrow). F. Glands on the leaf lamina (arrows). G. Flower. H. Fruit. Scale bars: C, D = 5 cm, G, H = 1 cm.
FIGURE 2 in Stigmaphyllon caatingicola (Malpighiaceae), a new species from Seasonally Dry Tropical Forests in Brazil
FIGURE 2. Stigmaphyllon caatingicola: A. detail of the abaxial surface of entire leaves, B. detail of the adaxial surface of lobed leaves, C. flowering branches, D. detail of the inflorescence, E. detail of a sepal with oil glands, F. lateral and posterior petals, G. androecium with stamens connate at base and enlarged (androecium opened at the stamen opposite to the anterior sepal), H. detail of the gynoecium, I. detail of the samaroid mericarp (based on R.F.Almeida 577).
FIGURE 3 in Stigmaphyllon caatingicola (Malpighiaceae), a new species from Seasonally Dry Tropical Forests in Brazil
FIGURE 3. Map of the distribution of Stigmaphyllon caatingicola (circles) and Stigmaphyllon urenifolium (squares).
FIGURE 1 in Stigmaphyllon caatingicola (Malpighiaceae), a new species from Seasonally Dry Tropical Forests in Brazil
FIGURE 1. Stigmaphyllon caatingicola: A. adaxial leaf surface, B. detail of inflorescence, C. detail of flower, D. samaroid mericarp from S. urenifolium (left) and S. caatingicola (right, scale 1 cm), E. detail of stem surface, F. habitat within SDTF in anthropomorphically modified Caatinga (white arrow shows a tree with S. caatingicola climbing) (R.F.Almeida 577, holotype).
Figure 4 in Structure and composition of the insect community associated with flower buds and inflorescences of Byrsonima verbascifolia (Malpighiaceae)
Figure 4. Similarity of the abundance of floral visitors collected in the two flowering stages of B. verbascifolia. BUD = flower buds; IFL: inflorescences. (From ten plants sampled during 2 hours: 1 h in the morning and 1 h in the afternoon).
Figure 3 in Structure and composition of the insect community associated with flower buds and inflorescences of Byrsonima verbascifolia (Malpighiaceae)
Figure 3. Abundance, richness and diversity of flower visitors and ants collected in B. verbascifolia. BUD = flower buds; IFL: inflorescences. Error bars represent SE. (From ten plants sampled during 2 hours: 1 h in the morning and 1 h in the afternoon).
Figure 2 in Structure and composition of the insect community associated with flower buds and inflorescences of Byrsonima verbascifolia (Malpighiaceae)
Figure 2. (a) Venn diagram for specimens of flower visitors collected in B. verbascifolia. (b) Venn diagram for ant specimens collected in B. verbascifolia BUD = flower buds; IFL: inflorescences. (From ten plants sampled during 2 hours: 1 h in the morning and 1 h in the afternoon).
Figure 1 in Structure and composition of the insect community associated with flower buds and inflorescences of Byrsonima verbascifolia (Malpighiaceae)
Figure 1. Phenology of B. verbascifolia during 12 months. The number of leaves, flower buds, inflorescences and infructescences.
Figure 5 in Structure and composition of the insect community associated with flower buds and inflorescences of Byrsonima verbascifolia (Malpighiaceae)
Figure 5. Similarity of the abundance of ants collected in the two flowering stages of B. verbascifolia. BUD = flower buds; IFL: inflorescences. (From ten plants sampled during 2 hours: 1 h in the morning and 1 h in the afternoon).
FIGURE 5 in Lectotypification and neotypification of names related to Banisteriopsis caapi (Malpighiaceae): a contribution to understanding of Ayahuasca
FIGURE 5. Lectotype of Banisteria subcordata Gardner (Gardner 338, K000427263) (© copyright of the Board of Trustees of the Royal Botanica Gardens, Kew. Image available: http://specimens.kew.org/herbarium/K000427263).
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
ABODe is a University of Edinburgh DataShare dataset for behavior classification in group-housed mice using home-cage video, identities, bounding boxes, ground-plate positions, and annotator labels.
DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.