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Figure 11 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 11. Ligament microstructure in Pulvinites exempla (scanning electron microscopy; AMS C.129659, 45.2 mm). A, transverse section of the hinge plate made through a resilifer showing the arrangement of shell layers (scale bar = 1 mm). Enlargement of the squared area is presented in (B). B, widest area of the ligostracum making the roof of the resilifer (scale bar = 50 µm). C, magnified interface of the ligostracal and nacreous layer showing the irregular pattern of the ligostracum (scale bar = 15 µm). flg, fibrous ligamental sublayer; L, ligostracum; M, myostracum; Ni, inner nacreous layer; No, outer nacreous layer; P, prismatic layer. Figures were prepared by polishing and etching sections of epoxy-embedded left valve.
Figure 4 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 4. Surface features of prodissoconch 1 in Pulvinites exempla (scanning electron microscopy; NMNZ M.150090). A, overview of the interior of joined valves in lateral view showing the D-shaped outline and straight hinge (scale bar = 100 µm). B, exterior surface of a valve in lateral view; the close-up of the squared area (inset) shows a nodulose surface; the arrow indicates the commarginal fold demarcating the marginal rim (scale bar = 100 µm). C, exterior surface of a valve in dorsal view showing faint commarginal and radial striae; the arrow indicates the periostracal ligament (scale bar = 10 µm). D, lateral view of the inner surface showing the granular interior surface and smooth valve margin (scale bar = 2 µm).
Figure 6. Prodissoconch 2 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 6. Prodissoconch 2 (P2) of the left valve of Pulvinites exempla (juvenile, AMS C.129659, 3.91 mm). The orientation of P2 is given with regard to its placement in the dissoconch. A, dorsal view of the exterior showing the concentric sculpture of P2 and its opisthogyrate placement. The white arrows indicate the P1–P2 transition; the black arrow indicates the metamorphic line. The hinge axis is orientated horizontally with the anterior at the left. B, ventral view showing the interior surface of P2 and the initial crenulation of the hinge plate underlying the first resilium. The arrow indicates the border of confluent scars of the posterior adductor–posterior pedobyssal retractor muscles. C, lateral view of the exterior surface showing the extent of inflation of P2. The white arrow indicates the P1–P2 transition; the black arrow indicates the metamorphic line. lg, resilium of ligament.
Figure 1 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 1. The shell of Pulvinites exempla, major features (lectotype; AMS C.170923, 140 mm). The shells are arranged with the hinge axis orientated horizontally. A, exterior of the right valve (RV). B, exterior of the left valve (LV). C, interior of the LV. D, interior of the RV. E, byssus. arms, anterior (pedobyssal) retractor muscle scar; cf, commarginal folds; cl, calcitic lamellae; cti, impressions of ctenidia; fo, foramen; fog, foramen groove; hl, hinge line; mlg, multivincular ligament; nb, border of nacreouos layer; pams, posterior adductor muscle scar; pmg, prismatic margin; pmi, impressions of pallial retractor muscles; pms, pallial muscle scars; prms, posterior (pedobyssal) retractor muscle scar; su, suture; u, umbo.
Figure 12 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 12. Overview of the soft anatomy of Pulvinites exempla (AMS C.129659, 62.2 mm). A, right lateral view of the soft anatomy with the valves, byssus, right mantle lobe, and right ctenidium removed. B, right lateral view of the intact soft anatomy with the right valve removed. C, left lateral view of the soft anatomy with the byssus, valves, right mantle lobe, and right ctenidium removed. D, diagrammatic view of the soft anatomy showing the alimentary tract and musculature. E, diagrammatic posterior view of transverse section through midline showing relative arrangement of principle muscles. arm, anterior pedobyssal retractor muscle; by, byssus (cut); byf, byssal fissure; ct, ctenidium; f, foot; h, heart; in, intestine; k, kidney; lg, ligament; li, lips; lp, labial palp; LV, left valve; mi, mantle isthmus; ml, mantle lobe; mo, mouth; oe, oesophagus; pam, posterior adductor muscle; pm, pallial muscles; prm, posterior pedobyssal retractor muscle; psk, pallial skirt; RV, right valve; sm, suspensory membrane; ss, supramyal septum; st, stomach; vg, visceral ganglia; vm, visceral mass.
Figure 5 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 5. Morphology of the provinculum in prodissoconch 1 of Pulvinites exempla (scanning electron microscopy; NMNZ M.150090). A, interior view of the hinge plate of an articulated shell; the inset lettering refers to magnified views of outlined areas in corresponding figures (scale bar = 50 µm). B, transverse denticles (scale bar = 2 µm). C, D, terminal teeth and corresponding sockets (scale bar = 10 µm). The arrow indicates the periostracal ligament.
Figure 3 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 3. Juvenile specimen of Pulvinites exempla (AMS C.129659, 3.91 mm). A, exterior of the left valve (LV) in lateral view, with the arrow indicating the metamorphic line. B, exterior of the right valve (RV; fragment) in lateral view showing prodissoconch 2 and byssal-related structures. C, interior of the RV (fragment) in lateral view showing the interior of prodissoconch 2. fog, foramen groove; lg, resilium of ligament; su, suture.
Figure 2 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 2. The diversity of shell shape in Pulvinites exempla: right valve exterior. The shells are arranged with the hinge axis orientated horizontally. A, AMS C.037004 (paralectotype; 140 mm); B, AMS C.122000 (90 mm); C, NMNZ M.153627 (68.1 mm); D, AMS C.129659 (45.2 mm); E, AMS C.129659 (62.2 mm); F, AMS C.129659 (46.7 mm). Evidence of external physical damage is indicated by arrows.
Figure 9 in Anatomy, shell morphology, and microstructure of the living fossil Pulvinites exempla (Hedley, 1914) (Mollusca: Bivalvia: Pulvinitidae)
Figure 9. Myostracum in Pulvinites exempla (scanning electron microscopy; AMS C.129659, 45.2 mm). A, cross-section of shell showing the myostracum separating the inner and outer nacreous layers (scale bar = 100 µm). B, magnified crosssection of the interface of the myostracum and the outer nacreous layer showing the orientation of the irregular prismatic myostracum (scale bar = 5 µm). M, myostracum; Ni, inner nacreous layer; No, outer nacreous layer; P, prismatic layer. The figures were prepared by polishing and etching sections of epoxy-embedded left valve.
Figure 57. Live animals. A in A taxonomic revision of Paradoris sea slugs (Mollusca, Gastropoda, Nudibranchia, Doridina)
Figure 57. Live animals. A, sp. A, CASIZ 099299 (#1 or #2) or CASIZ 165833, total length (preserved) = 20 (#1), 17 (#2), or 16 (165833) mm. B, same as (A). C, sp. B, CASIZ 089053, total length (preserved) = 6 mm. D, sp. B, CASIZ 105261, total length (alive) = 12 mm. E, sp. B, CASIZ 099080, total length (alive) = 12 mm. F, sp. C, CASIZ 110387, total length (preserved) = 5 mm. Colour pictures by T.M. Gosliner (A, B), R. Bolland (C–E), and C. Carlson (F).
Fig. 6 in Live coral predation by parrotfishes (Perciformes: Scaridae) in the Abrolhos Bank, eastern Brazil, with comments on the classification of species into functional groups
Fig. 6. (a) Scars caused by large individuals (> 40 cm TL) and (b) scrapes caused by small individuals (20-40 cm TL) of Scarus trispinosus on crustose calcareous algae.
Fig. 4 in Live coral predation by parrotfishes (Perciformes: Scaridae) in the Abrolhos Bank, eastern Brazil, with comments on the classification of species into functional groups
Fig. 4. Bite scars of Sparisoma amplum (a and b) and Scarus trispinosus (c and d) on the corals Montastrea cavernosa (top) and Siderastrea spp. (bottom).
Fig. 3 in Live coral predation by parrotfishes (Perciformes: Scaridae) in the Abrolhos Bank, eastern Brazil, with comments on the classification of species into functional groups
Fig. 3. Focused biting behavior by Sparisoma amplum. (a) Initial-phase individual biting a colony of Mussismilia braziliensis; (b) partial and (c) almost complete coral colony mortality due to Sp. amplum predation; (d) a discrete group of excavated colonies of M. braziliensis on the edge of a Sp. amplum territory.
Figure 7 in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 7. Schrankia howarthi, Keamoku Cave, Hawaii Island, dark zone, slide 35787, chaetotaxy of late instar larva. A, lateral diagram of prothorax (T1), mesothorax (T2), and abdominal segments 1, 2, 6, 8, and 9. B, dorsal view of head. C, ventral view of head. D, lateral view of head. E, dorsal view of abdominal segments 8–10. F, dorsal view of labrum. G, ventral view of labrum. H, right mandible.
Figure 11. Maximum likelihood phylogram. Bootstrap values greater than 50 in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 11. Maximum likelihood phylogram. Bootstrap values greater than 50% are illustrated on tree as first value; Bayesian posterior probabilities are the second value. Values <50 are not labelled. Colours represent islands (black is Hawaii Island; red is Maui, blue is Oahu; green is Kauai). Asterisks denote flightless individuals. Black circles represent dark-zone morph Schrankia howarthi; grey circles represent twilight-zone individuals. Locality information for individual moths may be found in the Appendix.
Figure 3. Hawaiian Schrankia adults. A in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 3. Hawaiian Schrankia adults. A, Schrankia altivolans, ♀, Upper Waiakea Forest Reserve, Stainback Highway, 930 m, on tree trunk, Hawaii Island (8.8 mm). B, S. altivolans, ♂, Aaa Kukai Cave, twilight zone, Hawaii Island (8.6 mm). C, S. altivolans, paratype ♂, Kaumana Cave, dark zone, Hawaii Island (5.5 mm). D, S. altivolans, ♂, Kealakekua Ranch Shelter Cave, twilight-dark zone, Hawaii Island (8.0 mm). E, Schrankia howarthi, paratype ♂, Kealakekua Ranch Shelter Cave, twilight zone, Hawaii Island (7.5 mm). F, S. howarthi, paratype ♂, Kealakakua Ranch Stone Wall Cave, twilight zone, Hawaii Island (6.5 mm). G, S. howarthi, paratype ♂, Kazumura Cave, dark zone, Hawaii Island (7.0 mm); H, S. howarthi, paratype ♂, Kealakekua Ranch Shelter Cave, dark zone, Hawaii Island (5.5 mm); I, S. howarthi, holotype ♂, Keauhou Ranch, Keamoku Cave, dark zone, Hawaii Island (5.8 mm). J, S. howarthi, paratype ♂, Ulupalakua Cave, dark zone, Maui Island (5.3 mm). Forewing lengths shown in parentheses.
Figure 6 in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 6. Schrankia ♀ genitalia. A, Schrankia altivolans, slide 33867, Hawaii Island: Hawaii Volcanoes National Park, Field Research Center; B, Schrankia howarthi, slide 17505, Hawaii Island: Kealakekua Ranch Shelter Cave.
Figure 5 in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 5. Schrankia ♂ genitalia. A, Schrankia altivolans, slide 04a78, Maui Island: Haleakala National Park, Hosmer Grove; B, S. altivolans, slide 33088, Hawaii Island: Bird Park Cave; C, Schrankia howarthi, slide 33081, Hawaii Island: Kazumura Cave; D, S. howarthi, slide 33082, Hawaii Island: Keamoku Cave; E, S. howarthi, slide 4327, Hawaii Island: Stonewall Cave; F, S. howarthi, slide 32929, Maui Island: Ulupalakua Cave.
Figure 2 in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 2. Schrankia howarthi, habitat, larval feeding and pupation sites. A, dense concentration of tree roots from ceiling of Pahoa Cave, Hawaii Island. B, larva feeding on root, Kazumura Cave, Hawaii Island. C, adult resting on pupal cocoon, Kaumana Cave, Hawaii Island, twilight zone. D, adult resting on pupal cocoon, Pahoa Cave, Hawaii I., dark zone.
Figure 9. Schrankia howarthi, slide 28776, late instar larva. A in Evolution of cave living in Hawaiian Schrankia (Lepidoptera: Noctuidae) with description of a remarkable new cave species
Figure 9. Schrankia howarthi, slide 28776, late instar larva. A, apex of maxillary palpus (5 Mm). B, dorsal view of labial palpi and spinneret (20 Mm). C, ventral view of pro- and mesothorax (200 Mm). D, caudal detail of tactile vesicles in C (50 Mm). E, caudal view of metathoracic leg (100 Mm). F, lateral view of mesothoracic pretarsal claw (38 Mm). Scale lengths given in parentheses.
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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.