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Figure 5. Protoparamisophria biforaminis n. gen., n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 5. Protoparamisophria biforaminis n. gen., n. sp., female (holotype). (A) Antenna; (B) mandibular cutting edge; (C) mandibular palp; (D) maxillule, slightly stretched; (E) maxilla; (F) maxilliped. Scale bars in mm.
Figure 11. Sarsarietellus suluensis n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 11. Sarsarietellus suluensis n. sp., male (holotype). (A) Habitus, lateral; (B) habitus, dorsal; (C) anterolateral papilla of cephalosome; (D) rostrum, anterior, filaments missing; (E) genital double-somite, ventral; (F) genital double-somite, right lateral; (G) genital double-somite, left lateral; (H) antennule; (I) terminal segments of antennule; (J) antenna; (K) mandibular cutting edge. Scale bars in mm.
Figure 4. Protoparamisophria biforaminis n. gen., n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 4. Protoparamisophria biforaminis n. gen., n. sp., female (holotype). (A) Habitus, dorsal; (B) habitus, lateral; (C) rostrum, lateral; (D) rostrum, anterior; (E) genital double-somite, left lateral, gonopore and copulatory pore indicated by large and small arrowhead, respectively; (F) genital double-somite, ventral, spermatophore remnant omitted, symbols same as in (E); (G) spermatophore remnant on genital double-somite; (H) left antennule; (I) terminal segments of left antennule; (J) right antennule. Scale bars in mm.
Figure 8. Paraugaptiloides mirandipes n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 8. Paraugaptiloides mirandipes n. sp., male (holotype). (A) First to 12th segments of left geniculate antennule; (B) 13th to 19th segments of left antennule; (C) proximal spiniform element on antennulary segment XIX; (D) distal spiniform element on left geniculate antennulary segment XIX; (E) anterior spiniform element on left geniculate antennulary segment XX; (F) terminal segments of left geniculate antennule; (G) mandible; (H) maxillule. Scale bars in mm.
Figure 10. Paraugaptiloides mirandipes n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 10. Paraugaptiloides mirandipes n. sp., male (holotype). (A) Leg 5, anterior; (B) leg 5, posterior; (C) tip of proximal element on third exopodal segment of left leg 5. Scale bars in mm.
Figure 3. Metacalanalis hakuhoae n. gen., n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 3. Metacalanalis hakuhoae n. gen., n. sp., female (holotype). (A) Leg 1, posterior; (B) third exopodal segment of leg 1, posterior; (C) outer lateral margin of endopod of leg 1, posterior; (D) inner basal seta of left leg 1; (E) inner basal seta of right leg 1; (F) right leg 2, anterior; (G) third exopodal segment of left leg 2; (H) phoront of apostome ciliates (?) on intercoxal sclerite of leg 2; (I) right leg 3, anterior; (J) second and third exopodal segments of left leg 3, anterior; (K) left leg 4, posterior; (L) first exopodal segment of right leg 4, posterior, second and third segments missing; (M) leg 5, posterior. Phoronts of apostome ciliates (?) indicated by arrowheads. Scale bars in mm.
Figure 7. Paraugaptiloides mirandipes n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 7. Paraugaptiloides mirandipes n. sp., male (holotype). (A) Habitus, dorsal; (B) habitus, lateral; (C) rostrum, anterior, right rostral filament missing; (D) right distal corner of prosome, dorsal; (E) left distal corner of prosome, dorsal; (F) right distal corner of prosome, lateral; (G) left distal corner of prosome, lateral; (H) left caudal ramus, dorsal; (I) antenna; (J) antennary exopod, setae omitted; (K) terminal portion of antennary endopod. Scale bars in mm.
Figure 9. Paraugaptiloides mirandipes n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 9. Paraugaptiloides mirandipes n. sp., male (holotype). (A) Maxilla; (B) basal spine of maxilla; (C) maxilliped, some setae on endopod omitted; (D) fourth endopodal segment of maxilliped; (E) fifth endopodal segment of maxilliped; (F) leg 1, anterior; (G) leg 2, anterior; (H) leg 3, anterior; (I) leg 4, anterior. Scale bars in mm.
Figure 15 in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 15. Cladogram depicting main habitats and colonization routes for arietellid genera and their presumed ancestors. D, deep-water hyperbenthic; S, shallow-water hyperbenthic (including cavernicolous and epipelagic); P, deep-water planktonic. In the Metacalanus–Metacalanalis–Pilarella-clade there are two possibilities for colonization routes (right: habitat transition from deep-sea to shallow-water hyperbenthos occurred in this clade with re-invasion of Metacalanalis to deep-water hyperbenthos; left: habitat shift from deep-sea to shallow-water hyperbenthos occurred independently in Metacalanus and Pilarella. (O) Habitat shift from deep-sea hyperbenthic to shallow-sea hyperbenthos; (.) habitat shift from shallow-water hyperbenthos to deep-sea hyperbenthos (see text and Figure 14).
Figure 2. Metacalanalis hakuhoae n. gen., n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 2. Metacalanalis hakuhoae n. gen., n. sp., female (holotype). (A) Antenna; (B) mandible; (C) maxillule; (D) maxilla; (E) basal spine of maxilla; (F) maxilliped; (G) fourth endopodal segment of maxilliped, largest seta omitted; (H) fifth endopodal segment of maxilliped, largest seta omitted. Scale bars in mm.
Figure 6. Protoparamisophria biforaminis n. gen., n in Systematics and zoogeography of the deep-sea hyperbenthic family Arietellidae (Copepoda: Calanoida) collected from the Sulu Sea
Figure 6. Protoparamisophria biforaminis n. gen., n. sp., female (holotype). (A) Leg 1, anterior; (B) endopod of leg 1, anterior; (C) exopod of leg 1, anterior; (D) leg 2, anterior; (E) leg 3, anterior; (F) leg 4, posterior; (G) leg 5, posterior. Scale bars in mm.
Figure 1 in Contributions of Walter G. Ridewood to systematic comparative anatomy, especially of the osteology of ''lower'' vertebrates
Figure 1. Photograph to show how Ridewood disarticulated a fish skull in order to preserve the maximum amount of original articulation as well as to reveal the greater part of the internal skeleton. This is a skull of Scleropages leichardti (Günther 1864). Top: braincase and the right palate, hyomandibular, preopercle and lower jaw shown in medial view. Middle: left palate, hyomandibular and opercular bones in lateral view. Bottom: the ventral gill arches seen in dorsal view. This specimen (The Natural History Museum registration number BMNH 1905.3.20.6) was prepared and used by Ridewood (1905a) in his description of osteoglossid fishes.
Figure 3 in Systematics, variation, and developmental instability: analysis of spine patterns in ancestrulae of a common bryozoan
Figure 3. Seasonal trends in frequencies of 3:3:1 (black) and variant (grey) spine patterns for the first-generation ancestrulae over the course of the 7-week sampling period from 14 July to 25 August. The ratio of variants to 3:3:1 and % variants are included.
Figure 1 in Systematics, variation, and developmental instability: analysis of spine patterns in ancestrulae of a common bryozoan
Figure 1. (A) SEM of an ancestrula of Bugula stolonifera: this ancestrula has a spine pattern of 4:3:1 (see Figure 2); (B) diagram of the position of left and right distal margins and position of the proximal spine.
Figure 2 in Systematics, variation, and developmental instability: analysis of spine patterns in ancestrulae of a common bryozoan
Figure 2. Some common spine pattern formulae and views of the frontal membrane of ancestralae of Bugula stolonifera. All spine patterns are recorded from the viewpoint of the ancestrula right:left:proximal. (A) Diagram of an ancestrula with the typical 3:3:1 spine pattern cited in the text; (B) 3:3:0 variant spine pattern resulting from a loss of the proximal spine: this spine pattern was the most abundant variant spine pattern accounting for 54% of the variant spine patterns; (C) 3:2:1 variant spine pattern resulting from a loss on the left distal margin; (D) 4:3:1 variant spine pattern resulting from a spine gain on the right distal margin.
(open) data literacy as barrier and enabler of open government data enhancement. A systematic review of the literature.
<p>This systematic review of the literatu was conducted with the PRISMA method, to explore the contexts in which the use of open government data germinates, identifying barriers to its use and identifying, the role of data literacy among those barriers to use; and the role of open data in promoting informal learning that supports the development of critical data literacy. This file includes a codebook of the main characteristics that were studied in a systematic literature review, where data from 66 articles related to Open Data Usage were identified and coded. Also, the file includes an analysis of Cohen's Kappa, a concordance statistic used to measure the level of agreement among researchers in classifying articles on the characteristics defined in the Codebook. Finally, it includes main tables of the results' analysis.</p>
Figure 9 in A new genus of Atlantic octocorals (Octocorallia: Gorgoniidae): systematics of gorgoniids with asymmetric sclerites
Figure 9. Holotype of Tobagogorgia hardyi, gen. et sp. nov. (A) Preserved alcohol colony, detail and a dry colony paratype; (B) spiny bent spindles from the surface layer; (C) polyp sclerites; (D) capstans from the inner layer; (E) spindles from the inner layer. Scale bars: 0.02 mm (B–E).
Figure 7 in A new genus of Atlantic octocorals (Octocorallia: Gorgoniidae): systematics of gorgoniids with asymmetric sclerites
Figure 7. SEM stereopairs of Pinnigorgia flava (Nutting). (A–C) C11661, scales; (D–F) P. USNM 92320. Scale bars: 0.02 mm (A–C, E, F); 0.01 mm (D).
Figure 10 in A new genus of Atlantic octocorals (Octocorallia: Gorgoniidae): systematics of gorgoniids with asymmetric sclerites
Figure 10. Colony of Tobagogorgia hardyi, gen. et sp. nov. off Bobby Island, 30 m, Tobago, Trinidad and Tobago, March 2006. Inset: complete colony.
Figure 6 in A new genus of Atlantic octocorals (Octocorallia: Gorgoniidae): systematics of gorgoniids with asymmetric sclerites
Figure 6. SEM stereopairs of Muriceopsis sulphurea Donovan (USNM 5298), Brazil. (A) Detail from (C) of the warts from sclerites of the surface coenenchyme; (B–H) different forms from the sclerites of the surface. Scale bars: 0.01 mm (A); 0.1 mm (B–D, F, H); 0.02 mm (E, G).
ScienceDex guides
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These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
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.