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Fig. 7 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 7. Halirages spongiae sp. nov. Lörz, Nack & Tandberg, paratype, ♂ (ZMH K-64213).A. Pereiopod 1, palm. B. Defining characters such as the posterodorsal ornamentation and pleon, the extension of the first coxa and the crenulation of the third epimeral plate mentioned in the text and Table 2 discussing the Halirages Boeck, 1871 OTUs. Scale bars: A = 100 μm; B = 1 cm.
Fig. 8 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 8. Distribution of Halirages Boeck, 1871, opperational taxonomic units discussed in the present paper. Circles indicate specimens used in phylogenetic analysis, stars indicate type localities for the indicated taxa. (Apart from Halirages aff. fulvocinctus, from Canada, all specimens have been sampled by the authors.)
Fig. 6 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 6. Halirages spongiae sp. nov. Lörz, Nack & Tandberg, holotype, ♂ (NHMW-CR-28125). A. Epimeral plate 1. B. Epimeral plate 2. C. Epimeral plate 3. D. Uropod 1. E. Uropod 2. F. Uropod. 3. G. Telson dorsal view. H. Telson lateral view. Scale bars = 1 mm.
Fig. 4 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 4. Halirages spongiae sp. nov. Lörz, Nack & Tandberg, holotype, ♂ (NHMW-CR-28125). A. Head and beginning of left antennae. B. Antenna 1. C. Antenna 2. D. Labium. E. Labrum. F. Mandible. G. Maxilliped. H. Maxilla 1. Scale bars: A = 2 mm; B–C, G = 1 mm; D–F, H = 0.5 mm
Fig. 5 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 5. Halirages spongiae sp. nov. Lörz, Nack & Tandberg, holotype, ♂ (NHMW-CR-28125). A. Pereiopod 1. B. Pereiopod 2. C. Pereiopod 3. D. Pereiopod 4. E. Pereiopod 5. F. Pereiopod 6. G. Pereiopod 7. Scale bars = 1 mm.
Fig. 3 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 3. Habitus of Halirages spongiae sp. nov. Lörz, Nack & Tandberg, holotype, ♂ (NHMW- CR-28125). Scale bar = 5 mm.
Fig. 2 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 2. Photos of live Halirages spongiae sp. nov. Lörz, Nack & Tandberg taken on board shortly after sampling. A. Holotype, ♂ (NHMW–CR-2812). B. Paratype, ♂ (ZMH K-64213). Scale bars = 1 cm.
Fig. 1 in A new deep-sea species of Halirages Boeck, 1871 (Crustacea: Amphipoda: Calliopiidae) inhabiting sponges
Fig. 1. Examples of ROV Kiel 6000 images at 3500 m depth northwest of Iceland at a water temperature of minus 1°C. A–D. Sponge aggregations of Caulophacus arcticus (Hansen, 1885) provide a habitat for caridean shrimp (Bythocaris cf. leucopis G.O. Sars, 1879) and Halirages spongiae sp. nov. Lörz, Nack & Tandberg. E–F. On a rusted can (rubbish) during the same transect the same amphipod was found, next to anemones and Pycnogonida.
F I G U R E 1 in Pelagic observations of the midwater scorpionfish Ectreposebastes imus (Setarchidae) suggests a role in trophic coupling between deep-sea habitats
F I G U R E 1 Ectreposebastes imus (a) observed by submersible JAGO in midwater at 350 m off the island of Santo Ant~ ao, Cabo Verde. Side view of the fish in vertical position with head up, as it was observed when encountered by submersible, (b) observed by PELAGIOS in the horizontal position and (c) observed by PELAGIOS in the vertical position
Figure 1. Gigantocypris dracontovalis Cannon, 1940 in A Pulsing-Mirror Eye in a Deep-Sea Ostracod
Figure 1. Gigantocypris dracontovalis Cannon, 1940, whole animal, lateral view; muscles (yellow) behind parabolic mirrors of left eye evident (dorsal left-centre).
Figure 27 in The Annelid Community of a Natural Deep-sea Whale Fall off Eastern Australia
Figure 27. Phylogeny of the siboglinid genus Osedax based on Bayesian analysis of a combined dataset of the genes COI, 16S and 18S. Numbers adjacent to nodes indicate posterior probabilities, and taxa for which sequences have been contributed by the present study are indicated in bold. Clades containing individuals with nude, pinnulate or no palps are also highlighted.
Figure 17 in The Annelid Community of a Natural Deep-sea Whale Fall off Eastern Australia
Figure 17 (facing page). Nereis sp., specimen NHMUKANEA 2022.436. (A) Complete preserved specimen, dorsal view, scale bar is 1 mm; (B) detail of prostomium in dorsal view, scale bar is 500 µm; (C) partially everted pharynx, scale bar is 500 µm; (D) anterior parapodium (number 6), scale bar is 250 µm; (E) mid-body parapodium (number 20), scale bar is 250 µm; (F) parapodium from near posterior (number 36), scalebaris 250 µm. G–Q, chaetal types; A–D from 6th parapodium, E–H from 20th parapodium, I–K from 36th parapodium; (G) notopodial homogomph spiniger, scale bar is 25 µm; (H) neuropodial supra-acicular homogomph spiniger, scale bar is 25 µm; (I) neuropodial supra-acicular heterogomph falciger, scale bar is 50 µm; (J) neuropodial sub-acicular heterogomph falciger, scale bar is 25 µm; (K) notochaetal bundle, scale bar is 50 µm; (L) neurochaetal supra-acicular bundle, scale bar is 50 µm; (M) neuropodial sub-acicular heterogomph falcigers, scale bar is 50 µm; (N) neuropodial sub-acicular heterogomph spinigers, scale bar is 50 µm; (O) notopodial homogomph falcigers, scale bar is 50 µm; (P) neuropodial supra-acicular homogomph spinigers, scale bar is 50 µm; (Q) neuropodial sub-acicular heterogomph spinigers and falcigers, scale bar is 50 µm.
Figure 15 in The Annelid Community of a Natural Deep-sea Whale Fall off Eastern Australia
Figure 15 (facing page). Neanthes visicete sp. nov., holotype specimen AMW.53704. (A) Living complete individual, scale bar is 5 mm; (B) detail of prostomium, scale bar is 1 mm; (C) detail of parapodia from middle of body, scale bar is 500 µm; (D) detail of ventral side of pygidium, scale bar is 500 µm; (E) anterior parapodium (number 13), scale bar is 250 µm; (F) mid-body parapodium (number 28), scale bar is 100 µm; (G) parapodium from near posterior (number 67), scale bar is 200 µm; (H) notopodial homogomph spinigers, scale bar is 50 µm; (I) neuropodial homogomph spinigers and homogomph falcigers, dorsal fascicle, scale bar is 50 µm; (J) neuropodial homogomph spinigers and homogomph falcigers, ventral fascicle, scale bar is 50 µm; (K) neuropodial supra-acicular homogomph spinigers, scale bar is 20 µm; (L) neuropodial sub-acicular long and short-bladed spinigers, scale bar is 20 µm. Abbreviations: hos, homogomph spiniger; hof, homogomph falciger.
Compilations of Palaeogene deep-sea diatom-bearing sediments and associated data
<p><strong>deep_sea_diatoms.xls</strong> contains a compilation of Palaeogene deep-sea diatom-bearing sediments and associated cherts.</p> <p><strong>rads_from_smear_slides.csv</strong> is an update on the radiolarian dataset reported in Renaudie (2016).</p> <p><strong>ageprofiles_tab.csv</strong> contains a compilation of deep-sea drilling sites containing sediments of specific ages.</p>
Fig. 2 in Holistic description of new deep sea megafauna (Cephalopoda: Cirrata) using a minimally invasive approach
Fig. 2 (See legend on next page.) (See figure on previous page.) Fig. 2 Grimpoteuthis imperator sp. nov. ZMB MOLL 240160. a Habitus prior to MRI following several months in 10% formalin solution showing a right lateral view, anterior facing right. The overlay of a lateral view of the surface-rendered 3D model (Additional file 2) illustrates relative size and position of the reconstructed organ systems. b Oblique anterior view of the entire 3D model of selected internal organs. c Virtual section through the left white body, anterior facing left. d Central nervous system and selected sensory organs, dorsal view, anterior facing up. e Volume rendering of the left stellate ganglion, anterior facing left. f Digestive tract with associated organs, right lateral view, anterior facing right. g Specimen prior to μCT following several months in 70% ethanol solution, dorsal view, anterior facing up. Stippled frame denotes the μCT region of interest. h Virtual section through the 3D μCT dataset, anterior facing right. The asterisk denotes ingested sediment. i, j Right lateral and oral views of the surface-rendered 3D model of the upper beak (Additional file 3). k, l Left lateral and oral views of the lower beak. m Virtual section through the 3D μCT dataset showing the anterior part of the radula in sagittal section. n Volume rendering of the radula, oral view. The asterisk denotes ingested sediment, arrow points to the rhachidian tooth. o, p Dorsal and right lateral views of the shell, anterior facing down. Stippled line denotes the fin cartilage insertion. q, r Dorsal and left lateral views of the male reproductive system, anterior facing left
Fig. 3 in Holistic description of new deep sea megafauna (Cephalopoda: Cirrata) using a minimally invasive approach
Fig. 3 Geographic distribution of identified and unidentified specimens of Grimpoteuthis in the Pacific Ocean. See Table 3 for a list of the respective type localities
Fig. 4 in Elpidia soyoae, a New Species of Deep-sea Holothurian (Echinodermata) from the Japan Trench Area
Fig. 4. SEM images of ossicles from dorsal body wall of Elpidia soyoae sp. nov. (NSMT E-12635: paratype). A, rods with straight axis, well developed horizontal arms, and vertical apophyses; B, wheel from convex side and obliquely lateral side. Abbreviations: ax, axis; bt, brim teeth; ccp, central connecting portion; cr, central rays; ha, horizontal arms; sp, spokes; va, vertical apophyses.
Fig. 3 in Elpidia soyoae, a New Species of Deep-sea Holothurian (Echinodermata) from the Japan Trench Area
Fig. 3. Calcareous ring of Elpidia soyoae sp. nov. (holotype). A, entire ring in dorsal view; B, variation of isolated pieces; C, branched inside posterior arm. Black arrowheads show five pieces surrounding pharynx. Abbreviations: ba, branched arm of inside posterior arms; iaa, inside anterior arms; ipa, inside posterior arms; oaa, outside anterior arms; opa, outside posterior arms.
Fig. 2 in Elpidia soyoae, a New Species of Deep-sea Holothurian (Echinodermata) from the Japan Trench Area
Fig. 2. Papillae arrangements of Elpidia soyoae sp. nov. A, left side view; B, right side view; C–F, dorsal side. A–B, holotype; C, NSMT E-12635: paratype; D, NSMT E-12636: paratype; E, NSMT E-12637: paratype; F, NSMT E-12639: paratype. Abbreviations: lp, paired papillae on dorsal left radius; lu, unpaired papillae on dorsal left radius; rp, paired papillae on dorsal right radius; ru, unpaired papillae on dorsal right radius.
Fig. 1 in Elpidia soyoae, a New Species of Deep-sea Holothurian (Echinodermata) from the Japan Trench Area
Fig. 1. Fresh specimen of Elpidia soyoae sp. nov. (NSMT E-12635: paratype). A, dorsal view; B, ventral view.
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.