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Рис. 1–11. Mimela spp., имаго и ΔетаΛи строения. 1–6 – M. cupidinea sp. n., гоΛотип, самец; 7–8 – M. anopunctata, самец («Tenasserim»); 9 – M. nigrosellata, гоΛотип, самец (о. Ява, «Java coll. Nonfried»); 10–11 – M. gressitti comb. n., паратип, самка. 1, 10 – общий виΔ; 2, 11 – простернаΛьный отросток; 3 – переΔняя Λапка; 4, 7, 9 – эΔеагус, виΔ сбоку; 5, 8 – парамеры, виΔ сверху, 6 – парамеры и базаΛьная пΛастинка, виΔ снизу. Масштабные Λинейки: 1, 4–10 – 2 мм (Λинейка общая ΔΛя 4–9), 2 – 0.2 мм, 3 – 1 мм, 11 – 0.5 мм. Figs 1–11. Mimela spp., imagoes and details of structure. 1–6 – M. cupidinea sp. n., holotype, male; 7–8 – M. anopunctata, male ("Tenasserim"); 9 – M. nigrosellata, holotype, male ("Java coll. Nonfried"); 10–11 –M. gressitti comb. n., paratype, female.1, 10 – habitus; 2, 11 – prosternal process; 3 – fore protarsus; 4, 7, 9 – aedeagus, lateral view; 5, 8 – parameres, dorsal view; 6 – parameres and basal plate, ventral view. Scale bars: 1, 4–10 – 2 mm (common for 4–9), 2 – 0.2 mm, 3 – 1 mm, 11 – 0.5 mm. in A new species of Mimela Kirby, 1825 from Laos with comments on M. gressitti (Frey, 1970), comb. n. (Coleoptera: Scarabaeidae: Rutelinae)
Рис. 1–11. Mimela spp., имаго и ΔетаΛи строения. 1–6 – M. cupidinea sp. n., гоΛотип, самец; 7–8 – M. anopunctata, самец («Tenasserim»); 9 – M. nigrosellata, гоΛотип, самец (о. Ява, «Java coll. Nonfried»); 10–11 – M. gressitti comb. n., паратип, самка. 1, 10 – общий виΔ; 2, 11 – простернаΛьный отросток; 3 – переΔняя Λапка; 4, 7, 9 – эΔеагус, виΔ сбоку; 5, 8 – парамеры, виΔ сверху, 6 – парамеры и базаΛьная пΛастинка, виΔ снизу. Масштабные Λинейки: 1, 4–10 – 2 мм (Λинейка общая ΔΛя 4–9), 2 – 0.2 мм, 3 – 1 мм, 11 – 0.5 мм. Figs 1–11. Mimela spp., imagoes and details of structure. 1–6 – M. cupidinea sp. n., holotype, male; 7–8 – M. anopunctata, male ("Tenasserim"); 9 – M. nigrosellata, holotype, male ("Java coll. Nonfried"); 10–11 –M. gressitti comb. n., paratype, female.1, 10 – habitus; 2, 11 – prosternal process; 3 – fore protarsus; 4, 7, 9 – aedeagus, lateral view; 5, 8 – parameres, dorsal view; 6 – parameres and basal plate, ventral view. Scale bars: 1, 4–10 – 2 mm (common for 4–9), 2 – 0.2 mm, 3 – 1 mm, 11 – 0.5 mm.
Рис. 1–3. ЭнΔофаΛΛус Valgus hemipterus (Linnaeus, 1758). 1 – энΔофаΛΛус в ΛатераΛьной проекции (Турция, провинция Амасья, СарайΔжик); 2 – спираΛевиΔный и ΛанцетовиΔный скΛериты; 3 – копуΛятивная пΛастинка. Figs 1–3. Endophallus of Valgus hemipterus (Linnaeus, 1758). 1 – endophallus, laterally (Turkey, Amasya Province, Saraycık); 2 – lamella spiraliformis and lamella lanceolata; 3 – lamella copulatrix. in Morphology of the endophallus of Valgus hemipterus (Linnaeus, 1758) (Coleoptera: Scarabaeidae)
Рис. 1–3. ЭнΔофаΛΛус Valgus hemipterus (Linnaeus, 1758). 1 – энΔофаΛΛус в ΛатераΛьной проекции (Турция, провинция Амасья, СарайΔжик); 2 – спираΛевиΔный и ΛанцетовиΔный скΛериты; 3 – копуΛятивная пΛастинка. Figs 1–3. Endophallus of Valgus hemipterus (Linnaeus, 1758). 1 – endophallus, laterally (Turkey, Amasya Province, Saraycık); 2 – lamella spiraliformis and lamella lanceolata; 3 – lamella copulatrix.
Рис. 16–20. Lixus pulverulentus, гоΛова Λичинки и ротовые органы. 16 – виΔ сверху; 17 – усик; 18 – максиΛΛоΛабиаΛьный компΛекс; 19 – Λабрум и кΛипеус; 20 – эпифаринкс. Figs 16–20. Lixus pulverulentus, larval head and mouth parts. 16 – dorsal view; 17 – antenna; 18 – maxillolabial complex; 19 – labrum and clypeus; 20 – epipharynx. at – antenna, cl – clypeus, stp – stipes, ma – mala, plb – praelabium, plsb – postlabium; setae: als – anteriolateral, ams – anteriomedial, cls – clypeal, des – dorsal epicranial, dms – dorsal marar, fs – frontal, les – lateral epicranial, mbs – malabasiventral, mds – mandibular dorsal, mes – median, pfs – palpiferal, pslbs – postlabial, vms – ventral malar. in Description of the preimaginal stages and biology of the weevil Lixus (Dilixellus) pulverulentus (Scopoli, 1763) (Coleoptera: Curculionidae: Lixini)
Рис. 16–20. Lixus pulverulentus, гоΛова Λичинки и ротовые органы. 16 – виΔ сверху; 17 – усик; 18 – максиΛΛоΛабиаΛьный компΛекс; 19 – Λабрум и кΛипеус; 20 – эпифаринкс. Figs 16–20. Lixus pulverulentus, larval head and mouth parts. 16 – dorsal view; 17 – antenna; 18 – maxillolabial complex; 19 – labrum and clypeus; 20 – epipharynx. at – antenna, cl – clypeus, stp – stipes, ma – mala, plb – praelabium, plsb – postlabium; setae: als – anteriolateral, ams – anteriomedial, cls – clypeal, des – dorsal epicranial, dms – dorsal marar, fs – frontal, les – lateral epicranial, mbs – malabasiventral, mds – mandibular dorsal, mes – median, pfs – palpiferal, pslbs – postlabial, vms – ventral malar.
FIGURE 4 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 4 | Images of CT scan of the head of Electrophorus varii. A. dorsal and B. left lateral views of the cranium show the ossification of the lateral-line canals. The ossified segments of canals are marked by colors. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; red: otic pit ossicles. ANG-AR: Angulo-articular; CLT: cleithrum; DT: dentary; ENT: entopterygoid; FR: frontal bone; HYO: Hyomandibular; IOP: interopercle; MET: mesethmoid; MTP: metapterygoid; OP: opercle; PAR: parietal; PMX: premaxila; POP: preopercle; PTO: pterotic; QU: quadrate; SP: sphenotic; SYM: sympletic. Specimen size = 82 cm TL.
FIGURE 1 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 1 | Sampling areas (Adolpho Ducke Reserve and Purupuru Lake, Amazonas, Brazil) where individuals of Electrophorus varii were captured. The white stars represent the exact sampling spots.
FIGURE 3 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 3 | Organization of the cephalic lateral-line canals in adult Electrophorus varii. Arrangement of all canals in A. dorsal, B. lateral and C. ventral views. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; grey: posterior lateral-line canal of the trunk; red: otic pit (OP) between cephalic and trunk canals. The photographs are from a juvenile that completed the development and is morphologically similar to an adult. The drawings are from an individual of 148 cm TL.
FIGURE 2 in Organization of the cephalic lateral-line canals in Electrophorus varii de Santana, Wosiacki, Crampton, Sabaj, Dillman, Mendes-Júnior & Castro e Castro, 2019 (Gymnotiformes: Gymnotidae)
FIGURE 2 | Ontogenetic development of the lateral-line canals in larvae and juveniles of Electrophorus varii, in lateral and dorsal views. A. 1.9 cm TL; B. 2.5 cm TL; C. 3.0 cm TL; D. 5.0 cm TL; E. 9.0 cm TL; F. 38 cm TL. Types of dashes indicate the (1) shallow and short grooves on the skin; (2) deep grooves; (3) segments of grooves start enclosure; (4) pores of canals on the skin. Yellow: infraorbital canal; navy blue: mandibular canal; green: otic canal; purple: pre-opercular canal; pink: supraorbital canal; light blue: supratemporal canal; grey: posterior lateral-line canal of the trunk and; red: otic pit between cephalic and trunk canals. Arrows indicate short grooves of the presumptive infraorbital and mandibular canals.
FIGURE 3. Rodentia incisor fragments from the Clarno Formation, Oregon. JODA 16822, 3.1. anterior view, 3.2. lateral view, 3.3. distal view. UOMNH F-28304, 3.4. anterior view, 3.5. lateral view, 3.6. distal view. Scale bar equals 1 in The first Eocene rodents from the Pacific Northwest, USA
FIGURE 3. Rodentia incisor fragments from the Clarno Formation, Oregon. JODA 16822, 3.1. anterior view, 3.2. lateral view, 3.3. distal view. UOMNH F-28304, 3.4. anterior view, 3.5. lateral view, 3.6. distal view. Scale bar equals 1 mm.
GEOLAB-InstaLatPile-Deltares: Small-scale experiments on Influence of installation effects on the performance of laterally loaded pile groups
<h2>InstaLatPile</h2> <p>This dataset includes measurements from six small-scale tests on a 3x3 pile group with fixed-headed conditions, conducted in the Deltares laboratory. The aim of the test program is to quantify the impact of the pile group installation effects on the performance of laterally loaded groups. Therefore, two types of piles were modelled, replacement piles and displacement piles.</p>
Fig.. 3. Simocyon batalleri, MNCN B−3458, Batallones−1, Madrid Province, Spain, cranium in left lateral view. A. Photograph. B. Schematic drawing showing the main anatomical features of this view (artwork by M. Antón). in Ailurid carnivoran mammal Simocyon from the late Miocene of Spain and the systematics of the genus
Fig.. 3. Simocyon batalleri, MNCN B−3458, Batallones−1, Madrid Province, Spain, cranium in left lateral view. A. Photograph. B. Schematic drawing showing the main anatomical features of this view (artwork by M. Antón).
Figure 27. - Lateral scutes. A in Guide for the identification of archaeological sea sturgeon (Acipenser sturio and A. oxyrinchus) remains
Figure 27. - Lateral scutes. A: Complete right lateral row from a modern A. sturio (NHM 2015.2.18.1, 160.5 cm TL); B: Archaeological right lateral scutes from the back of the row; C, D: Right and left lateral scute from the front or middle of the row; E: Right lateral scute with the possible measurements for size reconstruction: M1: B-D; M2: F-C; M3: A-E; M4: B-E; M5: B-C; M6: B-F (caudal edge of the dorsal part); M7: D-E; M8: D-C; M9: D-F (caudal edge of the ventral part). Arrow 1: caudal point; arrow 2: frontal edge of the ridge; Arrow 3: dorsally pointed thickened fold. Scale bars: A = 10 cm; B, C, D = 1 cm.
Figure 14. Acritohippus isonesus skull, JODA 1316. A. Dorsal view. B. Lateral view. C in The fauna and chronostratigraphy of the middle Miocene Mascall type area, John Day Basin, Oregon, USA
Figure 14. Acritohippus isonesus skull, JODA 1316. A. Dorsal view. B. Lateral view. C. Ventral view. Scale bar=3cm.
Frasnian, lateral (B1), ventral (B2), anterior (B3), posterior (B4), and dorsal (B5) views of a rounded exfoliated shell, 27.7 mm wide, 25.6 mm long, and about 14.5 mm thick. C. PUM05008, sample PY4, Panxi section, probably Middle Frasnian, lateral (C1), dorsal (C2), and ventral (C3) views of the sectioned specimen (Fig. 6). D. PUM05009, sample PY5, Panxi section, probably Middle Frasnian, ventral beak broken, showing small conjunct deltidial plates (note that true foramen (approximately dashed line) takes up only a small part at the bottom of the seen later enlarged hole). E. PUM05010, sample PY5, Panxi section, probably Middle Frasnian, posterior (E1), lateral (E2), anterior (E3), ventral (E4), and dorsal (E5) views, 26.7 mm wide, 27.7 mm long, 18.5 mm thick, adpressed ventral beak. F. PUM05011, sample GC22, Caiziyan section, Early Frasnian, dorsal view. in Early and Middle Frasnian brachiopod faunas and turnover on the South China shelf
Frasnian, lateral (B1), ventral (B2), anterior (B3), posterior (B4), and dorsal (B5) views of a rounded exfoliated shell, 27.7 mm wide, 25.6 mm long, and about 14.5 mm thick. C. PUM05008, sample PY4, Panxi section, probably Middle Frasnian, lateral (C1), dorsal (C2), and ventral (C3) views of the sectioned specimen (Fig. 6). D. PUM05009, sample PY5, Panxi section, probably Middle Frasnian, ventral beak broken, showing small conjunct deltidial plates (note that true foramen (approximately dashed line) takes up only a small part at the bottom of the seen later enlarged hole). E. PUM05010, sample PY5, Panxi section, probably Middle Frasnian, posterior (E1), lateral (E2), anterior (E3), ventral (E4), and dorsal (E5) views, 26.7 mm wide, 27.7 mm long, 18.5 mm thick, adpressed ventral beak. F. PUM05011, sample GC22, Caiziyan section, Early Frasnian, dorsal view.
Figures 115–122. Aedeagus, lateral. 115 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 115–122. Aedeagus, lateral. 115) Ctenognathus xanthomelus. 116) C. intermedius. 117) C. colensonis. 118) C. otagoensis. 119) C. earlyi new species. 120) C. davidsoni new species. 121) C. oreobius. 122) C. hoarei new species.
Figures 80–86. Aedeagus, lateral. 80 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 80–86. Aedeagus, lateral. 80) Platynus macropterus. 81) Notagonum chathamense. 82) N. lawsoni. 83) N. feredayi. 84) N. submetallicum. 85) Prosphodrus mangamuka new species. 86) P. waltoni.
Figures 108–114. Aedeagus, lateral. 108 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 108–114. Aedeagus, lateral. 108) Ctenognathus takahe new species. 109) C. arnaudensis. 110) C. marieclaudiae new species. 111) C. edwardsii. 112) C. kaikoura new species. 113) C. sandageri. 114) C. helmsi.
Figures 101–107. Aedeagus, lateral. 101 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 101–107. Aedeagus, lateral. 101) Ctenognathus tepaki new species. 102) C. urewera new species. 103) C. cardiophorus. 104) C. adamsi. 105) C. pictonensis. 106) C. tawanui new species. 107) C. perumalae new species.
Figures 94–100. Aedeagus, lateral. 94 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 94–100. Aedeagus, lateral. 94) Kupeplatynus crenatus. 95) K. lucifugus. 96) Tuiplatynus sophronitis. 97) T. libitus. 98) Ctenognathus novaezelandiae. 99) C. elevatus. 100) C. garnerae new species.
Figures 87–93. Aedeagus, lateral. 87 in Synopsis of the tribe Platynini in New Zealand (Coleoptera: Carabidae)
Figures 87–93. Aedeagus, lateral. 87) Prosphodrus sirvidi new species. 88) P. waimana new species. 89) P. occultus. 90) Maoriplatynus marrisi new species. 91) Kiwiplatynus bidens. 92) K. taranaki new species. 93) Kupeplatynus sulcitarsis.
Figures 84–90. Dorsal and lateral images S in Recharacterization of Stenaspis Audinet-Serville, 1834 with a new species from Mexico (Coleoptera: Cerambycidae: Cerambycinae: Trachyderini)
Figures 84–90. Dorsal and lateral images S. lingafelteri sp. nov., holotype, male, Chiapas, MEX., 24 mm, and characteristics of head, pronotum and sternum. 84–85) Dorsal and lateral images. 86) Genae large, quadrate, margin of lower eye lobes well separated from mandibles. 86: 86a) Dorsal anterior margin of genae ridged. 87) Frons perpendicular, recessed between "anteocular space" (i.e., between dorsal anterior margins). 88) Pronotum with sides rounded; disc glabrate, coarsely punctate. 89) Proepisternum, inflated, finely, densely punctate, clearly demarcated from coarsely punctate pronotal disc. 90) Gradually sloping and protuberant prosternal intercoxal process, ridged between coxae, and vertical behind; mesoternum with intercoxal process level with top of coxae.
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.