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FIGURE 6 in Taxonomic implications of leaf epidermal characteristics in subfamily Caesalpinioideae (Leguminosae)
FIGURE 6. Dendrogram obtained by UPGMA based on the presence and absence of qualitative leaf epidermal anatomical characters in Caesalpinioideae species.
FIGURE 3. 37–54 in Taxonomic implications of leaf epidermal characteristics in subfamily Caesalpinioideae (Leguminosae)
FIGURE 3. 37–54 light micrographs representing anticlinal wall, shape of epidermal cell, stomata and stomatal pore of adaxial surface of 37. Delonix regia; 38. Guilandina bonduc; 39. Hardwickia binata; 40. Libidibia coriaria; 41. Lysiphyllum hookeri; 42. Parkinsonia aculeata; 43. Peltophorum pterocarpum; 44. Phanera retusa; 45. Phanera vahlii; 46. Saraca asoca; 47. Senna alata; 48. Senna obtusifolia; 49. Senna siamea; 50. Senna occidentalis; 51. Senna pallida; 52. Senna tora; 53. Tamarindus indica and abaxial surface of 54. Bauhinia acuminata.
FIGURE 2. 19–36 in Taxonomic implications of leaf epidermal characteristics in subfamily Caesalpinioideae (Leguminosae)
FIGURE 2. 19–36 light micrographs of non-glandular trichomes of abaxial surface of 19. Delonix regia; 20. Guilandina bonduc; 21. Parkinsonia aculeata; 22. Peltophorum pterocarpum; 23. Phanera retusa; 24. Phanera vahlii; 25. Senna alata; 26. Senna obtusifolia; 27. Senna occidentalis; 28. Senna siamea; 29. Senna sophera and anticlinal wall, shape of epidermal cell, stomata and stomatal pore of adaxial surface of 30. Bauhinia acuminata; 31. Bauhinia purpurea; 32. Bauhinia tomentosa; 33. Caesalpinia pulcherrima; 34. Cassia fistula; 35. Cassia javanica; 36. Cassia roxburghii.
Grain size and angularity of fault gouges of the Median Tectonic Line in Shikoku, southwestern Japan: Implications for fault-rock evolution
<p>This file is the all measurement data set of grain size and grain angularity for the "Grain size and angularity of fault gouges of the Median Tectonic Line in Shikoku, southwestern Japan: Implications for fault-rock evolution".</p>
Fig. 3 in Isosteroidal alkaloids of Fritillaria taipaiensis and their implication to Alzheimer's disease: Isolation, structural elucidation and biological activity
Fig. 3. Key NOESY () correlations for compounds 1–4 [some hydrogens were removed for a clearer exhibition of their 3D structures].
Ecosystem management policy implications based on Tonga main tuna species catch data 2002–2018
<p>From 2002 to 2018, the Tongan Long Line fishery collected and compiled catch data (limited to presence records) for Albacore, Bigeye, Skipjack, and Yellowfin. The Tonga Ministry of Fishery and the South Pacific Community (SPC) Office in New Caledonia provided this data. To ensure adherence to regulations, at least two fisheries offices cross-verified the entire fish catch. The data consists of daily fishing positions (latitude and longitude) and date (day, month, and year), organized in a 1^0 spatial grid. Our study utilized catch per unit effort (CPUE), a standardized metric indicating fishing efficiency and effort, calculated by dividing the weight of the catch in metric tons by the number of hooks deployed per fishing record. To align with the temporal scales of the predictor variables, we aggregated the CPUE data into monthly and annual datasets using Microsoft Excel.</p>
Supplementary material 1 from: Sasakawa K, Mitsuduka Y (2023) A morphology-based revision and phylogenetic analysis of the Pterostichus macrogenys species group (Coleoptera, Carabidae) and implications for differentiation of the species group. Deutsche Entomologische Zeitschrift 70(2): 291-310. https://doi.org/10.3897/dez.70.107322
Proposed Japanese name for species treated in the present study and BLc (mm) of each taxon, compiled from published literature and the authors' unpublished data
Fig. 3 in Diterpenoids from Gutierrezia sarothrae and G. microcephala: Chemical diversity, chemophenetics and implications to toxicity in grazing livestock
Fig. 3. Chemical structures of isolated diterpenoids. Previously unreported compounds are marked with an asterisk. Key NOESY correlations depicted with double arrow.
Fig. 2 in Diterpenoids from Gutierrezia sarothrae and G. microcephala: Chemical diversity, chemophenetics and implications to toxicity in grazing livestock
Fig. 2. Representative GC-MS chromatograms of the 8 different chemotypes with GC retention times (min) and corresponding chemical structure number (bold number). *This is not the TMSi derivative but the free alcohol of 15. ** Compound 5 and 17 are susceptible to injection port conditions and were only observed by injection of pure compound.
Fig. 1 in Diterpenoids from Gutierrezia sarothrae and G. microcephala: Chemical diversity, chemophenetics and implications to toxicity in grazing livestock
Fig. 1. Graphical map of snakeweed collection sites marked as to species identified (A) and assigned chemotypes (B) from the states of Utah, Wyoming, Colorado, Oklahoma, Texas and New Mexico. Chemotype 0 ¼ unidentified.
Comparison of Acidity and Chemical Composition of Summertime Cloud Water and Aerosol at an Alpine Site in Northwest China: Implication for Elevated pH of Cloud
<p>Low molecular weight organic acids and water-soluble ion data of Cloud water and PM2.5 samples in Mt. Hua</p>
Data and model code: Assessing the Implications of Hydrogen Blending on the European Energy System towards 2050
<p>Dataset for <em>Assessing the Implications of Hydrogen Blending on the European Energy System towards 2050</em></p>
FIGURE 6 in The reinstatement of Rafflesia banaoana (Rafflesiaceae), and implications for assessing species diversity and conservation requirements of the world's largest flowers
FIGURE 6. Photos of Rafflesia banaoana from different localities. A–B. Mt. Cabcabulao. C. Mt. Ab-abaka. D. Kulaju Forest, Tinglayan Municipality. E–I. Mt. Magadgad. Photo Credits: A—P.L.Malabrigo Jr.; B, C, E–I—A.B.Tobias; D—R.A.Ogsar
FIGURE 5. Rafflesia leonardi. A1. Mature flower bud. A2. Dissected male flower bud. B1 in The reinstatement of Rafflesia banaoana (Rafflesiaceae), and implications for assessing species diversity and conservation requirements of the world's largest flowers
FIGURE 5. Rafflesia leonardi. A1. Mature flower bud. A2. Dissected male flower bud. B1. Flower found in Calabagan Watershed Forest Reserve. B2. Flower found in Amro River Protected Landscape. C. Dissected female flower showing the characters of the processes, disk column, annulus structure and ovary. D. Enlarged view of the column of female flower showing short hairs on the surface of annulus interior. E1. Annulus structure of male flower showing white hairs on the surface of the annulus interior. E2. Disk under-surface of male flower. F1. View from above the disk of male flower bud. F2. Disk of mature flower. Photo credits: A1, A2, C, D, E1, E2, F1, F2— A.B.Tobias; B1—E.Agbayani; B2.—M.Aguan
FIGURE 4 in The reinstatement of Rafflesia banaoana (Rafflesiaceae), and implications for assessing species diversity and conservation requirements of the world's largest flowers
FIGURE 4. Habitat of Rafflesia banaoana and R. leonardi. A. Overlooking view of mountains in Banao Protected Landscape (BPL). B. Mature flower of R. banaoana (~43 cm across) in Mt. Magadgad. C. Habitat of R. banaoana in Mt. Mapga. D. R. banaoana with the park rangers of BPL. E. Habitat of R. leonardi in Calabgan Watershed Forest Reserve (CWFR) with the locals and staff of the protected area. F. Flower buds of R. leonardi in CWFR. G. Habitat of R. leonardi in Amro River Protected Landscape. H. Vegetation in the type locality of R. leonardi in Mt. Rabuaran, Sitio Kanapawan, Barangay Bolos Point.—Photos by A.B.Tobias
FIGURE 2. Rafflesia banaoana. A. Female flower. B in The reinstatement of Rafflesia banaoana (Rafflesiaceae), and implications for assessing species diversity and conservation requirements of the world's largest flowers
FIGURE 2. Rafflesia banaoana. A. Female flower. B. Cross section showing the processes, annulus structure and ovary. C. Annulus interior of female flower. D. Disk undersurface of male flower. E. Processes. F. Ramenta near the base of perigone tube. Drawn from Tobias 2019-1 (LBC) and Tobias 2019-2 (PNH) by C.J.Thorogood
FIGURE 3. Rafflesia banaoana. A1. Dissected male flower bud. A2. Flower bud. B in The reinstatement of Rafflesia banaoana (Rafflesiaceae), and implications for assessing species diversity and conservation requirements of the world's largest flowers
FIGURE 3. Rafflesia banaoana. A1. Dissected male flower bud. A2. Flower bud. B. Lateral view of the perigone lobes with bracts. B. Female flower. d1. Enlarged view of the surface of perigone lobes with warts. d2. Enlarged view of the diaphragm's surface. E1. Dissected perigone tube showing filiform ramenta. E2. Simple filiform with few lobed ramenta in the lower perigone tube. E3. Shallowly and deeply-bilobed and multi-lobed with few merged ramenta in the middle perigone tube. E4. Multi-lobed, merged and fence-like ramenta in the upper perigone tube and near the diaphragm's aperture. F. Dissected female flower showing the characters of the processes, disk, column, annulus structure and ovary. G1. Annulus structure of male flower.' G2. Disk under surface showing anthers embedded in sulci. G3. Annulus structure of female flower. G4. Stigmatic surface. H1. Column of male flower showing conspicuous processes pointed towards the margin of the disk. H2. Top view of the processes. H3 and H4. Processes of female flower with apical hairs. H5. Enlarged view of the column showing short hairs on disk's rim and bristles on the disk's undersurface and annulus interior. and I. Tetrastigma cf. sepulchrei, host of R. banaoana. Photo credits: A1, A2, B, C, E1, E2, E3, E4, F, G3, G4, I—A.B. Tobias. D1, D2, G1, G2, H1-H4—G.K. Penetrante
Model outputs associated with "Comprehensive multiphase chlorine chemistry in the box model CAABA/MECCA: Implications to atmospheric oxidative capacity"
<p>Model outputs associated with "Comprehensive multiphase chlorine chemistry in the box model CAABA/MECCA: Implications to atmospheric oxidative capacity”.</p>
FIGURE 1 in Implications of stipe and midrib morpho-anatomy on the taxonomy of Polypodiaceous ferns
FIGURE 1. Anatomical details of studied Polypodiaceae. A: T.S. of stipe of A. wallichiana B: Enlarged view in cross section C: Portion of midrib in P. heteractis showing prominent cuticle D – F: VB of stipe in A. wallichiana, L. involuta, P. heteractis G – I: Enlarged view of midrib section in A. wallichiana, L. involuta. P. heteractis, with indications of xylem (x), phloem (f), endodermis (en), pericycle (p), cortex (c), hypodermis (h), epidermis (ep), circumendodermal band (cb), vascular bundle (vb), cuticle (cu). Bar = 200 µm.
High-Pressure Single-Crystal Elasticity of Corundum: Implication for Multiple Seismic Structure of 660-km Discontinuity
<p>Here are the experimental data.</p>
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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.