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Factors on the Mesozoic transition from flat to steep subduction of the Paleo-Pacific Plate beneath South China: Thickened oceanic crust and subduction rate
<p>This dataset contains simulation results used for visualizing Figures in "Factors on the Mesozoic transition from flat to steep subduction of the Paleo-Pacific Plate beneath South China: Thickened oceanic crust and subduction rate"</p>
FIGURE. Petalidium parvifolium, flower and leaf morphology. A. Branchlet showing leaves that are not succulent; blade ± flat and margins without long, robust, multi-cellular trichomes and isolated, robust, stalked glandular trichomes. B. Flower in front view. C. Flower in lateral view. Scale bar = 5 mm. Photographs by W. Swanepoel. in Petalidium mannheimerae (Acanthaceae), a new species from Namibia and South Africa, with notes on the taxonomic identity of P. parvifolium
FIGURE. Petalidium parvifolium, flower and leaf morphology. A. Branchlet showing leaves that are not succulent; blade ± flat and margins without long, robust, multi-cellular trichomes and isolated, robust, stalked glandular trichomes. B. Flower in front view. C. Flower in lateral view. Scale bar = 5 mm. Photographs by W. Swanepoel.
Small bowl with flat base and flaring rim
It concerns a type 1bis bowl in the typology of the El Argar culture by the Siret brothers, excavated in the southeast of Spain. These hand shaped recipients are associated with funerary contexts. This type of ceramic is characterized by a dark, polished, metallic surface. In this case the cup was almost entirely reconstructed. (Argaric culture, 2300 BC - 1600 BC). Inv n.: PG.41.1.099 Find this object in the museum's online catalog [Carmentis](https://www.carmentis.be:443/eMP/eMuseumPlus?service=ExternalInterface&module=collection&objectId=198478&viewType=detailView) Source: Objaverse 1.0 / Sketchfab
FIGURE 6 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 6. Habitats of Afroedura gorongosa sp. nov. on Mount Gorongosa (a–c); a) edge of rainforest on Mount Gorongosa, the holotype was collected in a rock-crack of an isolated boulder in an open area close to the rainforest at 1038 m a.s.l. (b) and in rocky areas of the Murombodzi river (c; compare Fig. 7); d) rocky habitat on the top of Bunga Inselberg, Gorongosa National Park, Mozambique (photos: M.-O. Rödel).
FIGURE 5 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 5. Afroedura gorongosa sp. nov. female paratype (PEM R22229, previously ZMB 83291, Mount Gorongosa, Mozambique; photos: P. Naskrecki); a) general habitus and dorsal coloration; b) close up of nasal region showing diagnostic features of: presence of internasal granules, and posterior projection of rostral to border the nostril; c) close up of lower side of left forelimb; and d) close up of right hind foot showing two paired scansors.
FIGURE 7 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 7. Habitat of Afroedura gorongosa sp. nov. paratypes around Murombodzi waterfall, Mount Gorongosa; inset figure: J.A. Guyton collecting one of the paratypes (photos: J. Poole).
FIGURE 1 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 1. Afroedura loveridgei (EI 0189) and its rocky habitat along the Zambezi River, just downstream of the Cahora Bassa Dam, Tete Province, Mozambique (Photos: L. Verburgt).
FIGURE 2 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 2. Distribution of the Afroedura transvaalica-complex in south-eastern Africa (excluding the Angolan A. bogerti- complex); orange circles: A. loveridgei; green squares: A. transvaalica; red triangle: Mount Gorongosa, the type locality of A. gorongosa sp. nov.; blue triangle: Bunga Inselberg, the location of additional A. gorongosa sp. nov. specimens. Localities plotted only depict voucher and genetic material examined; additional localities for A. transvaalica can be found in: Broadley (1966), Bauer (2014), and Jacobsen et al. (2014). The inset map shows in brown the African countries included in the distribution map.
FIGURE 4 in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 4. Afroedura gorongosa sp. nov. a) male holotype (ZMB 83293, Mount Gorongosa, Mozambique; photo: M.-O. Rödel); b) female paratype (ZMB 83292, Mount Gorongosa, Mozambique; photo: P. Naskrecki) showing dorsal pattern and regenerated tail; c) Afroedura gorongosa (ZMB 83289, Bunga Inselberg, Gorongosa National Park, Mozambique; photo: C. Dorse).
FIGURE 3. Phylogenetic tree topology for the 16S in Description of a new flat gecko (Squamata: Gekkonidae: Afroedura) from Mount Gorongosa, Mozambique
FIGURE 3. Phylogenetic tree topology for the 16S gene (identical for Bayes and ML) using Afroedura hawequensis as outgroup. Support values for posterior probabilities and bootstraps are indicated by circles (PP:>0.95 / ML:>70%): full black circles indicated support by both methods and full open circles indicate no strong support by either method.
Emergent flat band and topological Kondo semimetal driven by orbital-selective correlations
Open the record for dataset details and reuse information.
Human-wildlife interactions on the tidal flats of the Bijagós archipelago: does shellfishing affect migratory shorebirds?
<p>The Bijagós archipelago in West Africa is home to an ethnic group with a rich cultural heritage that is tightly linked to nature. The Bijagós people have a shared cultural identity, but across islands, there are different resource management regimes stemming from island-specific context with regards to socio-political organization and strength of cultural heritage. Across the archipelago, bivalves harvested manually from the mudflats are an important part of the Bijagós people's diet, economy, and culture. Thousands of migratory shorebirds share the use of these mudflats during their non-breeding season, consuming macrobenthos such as crustaceans and bivalves, including those harvested by local people. At the end of their stay in the Bijagós, shorebirds need to fuel for their migratory flight in order to return to their breeding areas, being particularly important during this period that they have access to undisturbed feeding areas with suitable food resources.</p> <p>In this study, we start by exploring shellfishing patterns across different management regimes, then assess seasonal variation in the direct impact of shellfishing on shorebirds (through competition for resources and space), and finally quantify the indirect impact of sediment disturbance due to shellfishing upon shorebird prey availability. Results indicate that bivalve resources are better managed in areas with formal protection, while traditional management based on cultural beliefs results in poorer stock conditions. Interestingly, across islands shellfishing activity is concentrated in mid-winter, decreasing towards shorebirds' fuelling period, when they benefit the most from reduced disturbance on the mudflats. No direct competition for resources was detected, as collected bivalves were significantly larger than those consumed by shorebirds, regardless of the season. Indirect impacts caused by sediment disturbance during shellfishing were also mostly absent, causing only a small reduction on shorebirds prey density, but with no effect on the available biomass.</p>
FIGURE 23 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 23. Hubrechtella kimuraorum sp. nov. Holotype, male, ZIHU3127. A, transverse section through the cerebral sensory organ (CO). B, transverse section through the foregut region; arrowhead indicates the ventral branch of the lacunar connective. C, transverse section through the foregut region showing the appearance of the lacunar network below the foregut (indicated by the arrowheads). D, transverse section through the intestinal region showing the arrangement of the testes. E, higher magnification of part of D showing basophilic cells (indicated by the arrowhead) in the intestinal wall around the middorsal vessel. CL, cephalic blood lacuna; DV, middorsal vessel; IN, intestine; LL, lateral blood lacuna; LV, lateral blood vessel; PR, proboscis; RM, proboscis retractor muscle; TS, testis.
FIGURE 21 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 21. Hubrechtella kimuraorum sp. nov. Holotype, male, ZIHU3127, drawing of a transverse section through the foregut region showing the well developed lacunar connection below the alimentary canal. BM, basement membrane; DV, middorsal vessel; EP, epidermis; FG, foregut, LM, bodywall longitudinal muscle layer; LN, lateral nerve cord; OC, bodywall outer circular muscle layer; PR, proboscis; UB, Ushaped blood lacuna below gut; UD, upper middorsal nerve.
FIGURE 20 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 20. Hubrechtella kimuraorum drawing based on a photograph taken in life to show the general shape of the body.
FIGURE 22 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 22. Hubrechtella kimuraorum sp. nov. Holotype, male, ZIHU3127. A, transverse section through the precerebral region; white arrowhead indicates a dorsoventral muscle fibre in the cephalic lacuna (CL), black arrowheads indicate innervation from the subepidermal neuroglandular layer to the rhynchodaeum (RD). B, transverse section through the first region of the proboscis. C, transverse section through the second region of the proboscis; arrowhead indicates an acidophilic spherical body. D, transverse section through the third region of the proboscis; arrowheads indicate acidophilic spherules. PE, proboscis epithelium; PI, proboscis inner circular muscle layer; PL, proboscis longitudinal muscle layer; PN, nervous layer of proboscis; PO, proboscis outer circular muscle layer.
FIGURE 17 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 17. Hubrechtella ijimai (Takakura, 1922) comb. nov., ZIHU3122, female. A, transverse section through the precerebral region; arrowhead indicates innervation from the subepidermal neuroglandular layer to the rhynchodaeum (RD). B, transverse section near the proboscis insertion, showing the inner (IB) and outer (OB) basement membranes, the former is about to disappear, while the latter become thicker, posteriorly. C, transverse section through the foregut region showing the arrangement of the neurofibrous layer (NF) against the basement membrane (BM). D, transverse section through the intestinal region showing the arrangement of the neurofibrous layer (NF) against the basement membrane (BM). E, transverse section through the precerebral region; arrowhead indicates a connective tissue process from the inner to the outer basement membranes. AG, acidophilic glandular cell; BG, basophilic glandular cell; CL, cephalic blood lacuna; DM, diagonal muscle layer; EP, epidermis; RC, rhynchocoel; UD, upper middorsal nerve.
FIGURE 18 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 18. Hubrechtella ijimai (Takakura, 1922) comb. nov., ZIHU3122, female. A, transverse section through the first region of the proboscis. B, transverse section through the second region of the proboscis; arrowheads indicate spherical bodies. C, enlargement of the muscle cross in B. D, transverse section through the third region of the proboscis. E, transverse section through the fourth region of the proboscis; arrowheads indicate acidophilic spherules. MC, muscle cross in proboscis; PE, proboscis epithelium; PI, proboscis inner circular muscle layer; PL, proboscis longitudinal muscle layer; PN, nervous layer in proboscis; PO, proboscis outer circular muscle layer.
FIGURE 15 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 15. Hubrechtella ijimai (Takakura, 1922) comb. nov. A, photograph of a body fragment containing the head, taken in life (ZIHU3122, female). B, photograph of a body fragment containing the tail, taken in life (ZIHU3123, female). C, transverse section through the anterior intestinal region showing some of the epidermal glandular cell types (ZIHU3122, female). D, transverse section showing the lateral nerve cord; arrowhead indicates the giant fibre (ZIHU3122, female). BM, basement membrane; EP, epidermis; LN, lateral nerve cord; NF, neurofibrous layer; OC, bodywall outer circular muscle layer; T1, type 1 glandular cell; T2, type 2 glandular cell; T3, type 3 glandular cell; T5, type 5 glandular cell.
FIGURE 14 in Four palaeonemerteans (Nemertea: Anopla) from a tidal flat in middle Honshu, Japan
FIGURE 14. Callinera nishikawai sp. nov. Holotype, female, ZIHU3133. A, transverse section through the intestinal region showing the circular muscle layer around the intestine (indicated by the arrowhead). B, transverse section through an intestinal sphincter. C, higher magnification of part of B. D, transverse section showing the nephridial gland in the lateral vessel (indicated by the arrowhead). E, transverse section showing the excretory collecting tubule. F, transverse section through the nephridiopore. G, transverse section through an ovary; arrowheads indicate acidophilic granules around the gonopore. CT, connective tissue; DP, intestinal diaphragm; EP, epidermis; EX, excretory collecting tubule; GP, gonopore; IC, bodywall inner circular muscle layer; IN, intestine; IS, intestinal sphincter; LM, bodywall longitudinal muscle layer; LN, lateral nerve cord; LO, lateral sensory organ; LV, lateral blood vessel; NP, nephridiopore; OV, ovum.
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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.