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Fig. 1 in Assessing specialized metabolite diversity of Alnus species by a digitized LC-MS/MS data analysis workflow
Fig. 1. LC–MS base peak ion (BPI) chromatograms of 15 Alnus extracts. Gaps between chromatogram were added to visualize their difference, so y-axis values do not equal to the absolute intensities.
Fig. 2 in Assessing specialized metabolite diversity of Alnus species by a digitized LC-MS/MS data analysis workflow
Fig. 2. The MS/MS spectral network of specialized metabolites contained in the bark, twigs, leaves, and fruits of A. japonica, A. firma, A. hirsuta, and A. hirsuta var. sibirica. Spectral nodes are colored according to the mean precursor ion intensity per different plant parts: bark, twigs, leaves, and fruits. Molecular families A–I are highlighted.
FIGURES 20–26. Some habitats from Brazil where Spirotania species were collected. 20–22 in New insights into the diversity and distribution of the genus Spirotaenia (Mesotaeniaceae, Streptophyta) in the Neotropics, including the description of S. tetrahelica sp. nov.
FIGURES 20–26. Some habitats from Brazil where Spirotania species were collected. 20–22. Puddles from the Chapada Diamantina region (Spirotaenia tetrahelica, S. erythrocephala); 23–24. Bromeliad phytotelm from Serra da Jiboia (Spirotaenia endospira, S. closteridia, S. filiformis); 25. Temporary Pond from "Parque das Dunas, Salvador" (Spirotaenia condensata); 26. Pond from "Parque Estadual Serra do Conduru" (Spirotaenia beijerinckii).
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
FIGURE 5. Padina pavonicoides. A in Re-examination of the distribution and species diversity of the genus Padina (Dictyotales, Phaeophyceae) in the Mediterranean Sea
FIGURE 5. Padina pavonicoides. A. Habitus of P. pavonicoides. B. Lower surface with sporangial sori in patches above hair lines, arranged at equal distance C. Section of tetrasporangial sori covered with an indusium (pointed by the arrow). D. Longitudinal section of the rolled apical portion of the thallus showing 2 layers of cells. E. Cross section of the median portion of the thallus showing 3 layers of cells. F. Cross section of the basal portion of the thallus showing 3 layers of cells. G. Cross section of Vauganiella stage. Photos A, D, and F refer to the sample of Brucoli (SR), photo G refers to the sample of Martingana—Pantelleria, and photos B, C and E refer to the sample of Scauri—Pantelleria. Scale bars: A, 1 cm; B, 0,5 cm; C–G, 50 μm. Photos by G. Marletta.
FIGURE 6. Padina tetrastromatica. A in Re-examination of the distribution and species diversity of the genus Padina (Dictyotales, Phaeophyceae) in the Mediterranean Sea
FIGURE 6. Padina tetrastromatica. A. Herbarium sheet (CAT 1730) showing habitus. B. Lower surface with continuous lines of sporangial sori above hair lines and discontinuous lines below the hair lines. C. Longitudinal section of the rolled part of the apical portion of the thallus. D. Cross section of the median portion of the thallus showing 4 layers of cells. E. Cross section of the basal portion of the thallus showing 4 layers of cells. All photos refer to the herbarium sheet sample. Scale bars: A, 1 cm; B, 110 μm C–E, 50 μm. Photos by G. Marletta.
FIGURE 3. Padina gymnospora. A in Re-examination of the distribution and species diversity of the genus Padina (Dictyotales, Phaeophyceae) in the Mediterranean Sea
FIGURE 3. Padina gymnospora. A. Herbarium sheet (CAT 1735) showing the habitus. B. Longitudinal section of the rolled part of the apical portion of the thallus shows 2 cell layers in the rolled part and the transition to 3 cells (pointed by the arrow). C. Cross section of the median portion of the thallus showing 4 layers of cells. D. Cross section of the basal portion of the thallus showing 6–8 layers of cells. All photos refer to the herbarium sheet sample. Scale bars: A, 1,5 cm; B–D, 50 μm. Photos by G. Marletta.
FIGURE 2. Padina ditristromatica. A in Re-examination of the distribution and species diversity of the genus Padina (Dictyotales, Phaeophyceae) in the Mediterranean Sea
FIGURE 2. Padina ditristromatica. A. Herbarium sheet (CAT 1110) showing the habitus. B. Upper surface with hair lines distributed in unequal distance C. Longitudinal section of the rolled part of the apical portion of the thallus showing 2 layers of cells. D. Cross section of the middle portion, showing a mixture of 2 (pointed by the arrows) to 3 layers (pointed by the arrowheads). E. Cross section of the basal portion of the thallus showing 2–3 layers of cells (pointed by the arrows). Photo A refers to the herbarium sheet sample. Photos B to E refer to the Santa Tecla (CT) sample. Scale bars: A, B, 1 cm; C–E, 50 μm. Photos by G. Marletta.
FIGURE 4. Padina pavonica. A in Re-examination of the distribution and species diversity of the genus Padina (Dictyotales, Phaeophyceae) in the Mediterranean Sea
FIGURE 4. Padina pavonica. A. Habitus of P. pavonica with the Vauganiella stage (pointed by the arrow). B. Lower surface with broad sori above the hair lines and narrow below the hair lines; in the lower part of the picture to the right is a detail of the section of tetrasporangial sori covered with an indusium. C. Longitudinal section of the rolled part of the apical portion of the thallus showing 2 layers of cells. D. Cross section of the median portion of the thallus showing 3 layers of cells. E. Cross section of the basal portion of the thallus showing 4 layers of cells. F. Cross section of the Vauganiella stage. All photos refer to the sample of Pantelleria except for the photo of the sporangial sori, which refers to the herbarium sheet (CAT1734). Scale bars: A, 1 cm; B (section of tetrasporangial sori)—F, 50 μm; B (inset), 1,5 mm. Photos by G. Marletta.
FIGURE 10 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 10. Metrichia quechua sp. nov. 10A, abdominal segments IV–VII, dorsal. 10B–10F, male genitalia: 10B, left lateral; 10C, dorsal; 10D, ventral; 10E, phallus, dorsal; 10F, phallus, left lateral. Abbreviations: IV = tergum IV; V = tergum V; VI = tergum VI; VII = tergum VII.
FIGURE 16 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 16. Rhyacopsyche yungas sp. nov. 16A, head, dorsal. 16B, thorax, dorsal. Abbreviations: msc = mesoscutellum; mtc = metascutellum; o.s.w = ocellar setal wart (paired); p.s.w = posterior setal wart (paired).
FIGURE 17 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 17. Rhyacopsyche yungas sp. nov., male genitalia. 17A, left lateral; 17B, dorsal; 17C, ventral; 17D, phallus, left lateral.
FIGURE 7 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 7. Metrichia major sp. nov. 7A, abdominal segments V–VII, dorsal. 7B–7F, male genitalia: 7B, left lateral; 7C, dorsal; 7D, ventral; 7E, phallus, dorsal; 7F, phallus, left lateral. Abbreviations: V = tergum V; VI = tergum VI; VII = tergum VII.
FIGURE 1 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 1. Maps of Ochrotrichiinae species localities in Peru. 1A, Occurrence map of Ochrotrichiinae (Trichoptera: Hydroptilidae) species found in Peru based on literature records as well as recent collections. 1B, Occurrence map of new records and new species.
FIGURE 8 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 8. Metrichia peruana sp. nov. 8A, abdominal segments V–VII, dorsal. 8B–8F, male genitalia: 8B, left lateral; 8C, dorsal; 8D, ventral; 8E, phallus, dorsal; 8F, phallus, left lateral. Abbreviations: V = tergum V; VI = tergum VI; VII = tergum VII.
FIGURE 12 in Taxonomic diversity of Ochrotrichiinae (Trichoptera: Hydroptilidae) from Peru with the description of ten new species, a new distributional record, and an updated checklist
FIGURE 12. Ochrotrichia lapuki sp. nov. 12A, head, dorsal. 12B, right forewing, dorsal. 12C, right hind wing, dorsal. Abbreviations: o.s.w = ocellar setal wart (paired); p.s.w = posterior setal wart (paired).
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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.