Find research datasets worth reusing
Search datasets from major research repositories and use ShareScore to quickly assess how well each record supports discovery, access, and reuse.
80
datasets available to search
ShareScore release 0.9.0
Dataset results
80 results for “Termination 1”
Ensemble Structure of the N-terminal Domain (1-267) of FUS in a Biomolecular Condensate
<p>Primary double electron-electron resonance (DEER) EPR data, restraint files, and weighted ensembles for the N-terminal domain (1-267) of the protein fused in sarcoma (FUS) in the denatured state (3 M urea), the dispersed state, and the condensed state after liquid-liquid phase separation. The dispersed and condensed state ensembles are based on measurements on the same biphasic samples. An unrestrained ensemble with 5000 conformers based on residue-specific Ramachandran angle distributions is included as well. Modelling was performed with MMMx (https://github.com/gjeschke/MMMx). </p>
Fig. 1 in Nyctereutes vulpinus comb. et stat. nov. (Mammalia, Carnivora, Canidae) du Pliocène terminal de Saint-Vallier (Drôme, France)
Fig. 1. Mammalian species richness in Middle and Late Miocene Europe. All species = all macromammals, small = small bodied omnivores, body mass <20 kg, medium = medium omnivores, 20–80 kg, large = large omnivores,>80 kg.
FIGURES 1–13. 1–6, Picicola striata. 1, Entire dorsoventral male. 2, Dorsoventral female terminal segments. 3 in Picicola Clay and Meinertzhagen (Phthiraptera: Philopteridae) from jacamars and puffbirds (Piciformes: Galbulidae, Bucconidae), with descriptions of five new species
FIGURES 1–13. 1–6, Picicola striata. 1, Entire dorsoventral male. 2, Dorsoventral female terminal segments. 3, Male tergites VIII–IX. 4, Female head outline. 5, Female subgenital plate and vulval margin. 6, Male subgenital plate. 7–8, P. galbulica. 7, Female head outline. 8, Male genitalia. 9–11, P. v a l q u i i. 9, Female head outline. 10, Male subgenital plate. 11, Male genitalia. 12–13, P. naokii. 12, Female head outline. 13, Male subgenital plate.
FIGURES 1–7. Otostigmus rugulosus. Fig.1. Forcipular coxosternal toothplates and left trochanteroprefemoral process. Syntype specimen 1. Fig. 2. Tergite 12. Syntype specimen 1. Fig. 3. Sternite 12. Syntype specimen 1. Fig. 4. Terminal segments ventral. Syntype specimen 1 in A revision of the rugulosus group of Otostigmus subgenus Otostigmus Porat, 1876 (Chilopoda: Scolopendromorpha: Scolopendridae)
FIGURES 1–7. Otostigmus rugulosus. Fig.1. Forcipular coxosternal toothplates and left trochanteroprefemoral process. Syntype specimen 1. Fig. 2. Tergite 12. Syntype specimen 1. Fig. 3. Sternite 12. Syntype specimen 1. Fig. 4. Terminal segments ventral. Syntype specimen 1 (coxopleural pores not shown). Fig. 5. Terminal segments ventral. Syntype specimen 2 (coxopleural pores not shown). Fig. 6. Ultimate leg prefemur ventral from a syntype. Fig. 7. Forcipular coxosternal toothplates and left trochanteroprefemoral process. Solitude, Rodrigues after Lewis (2002). Scale line = 0.5 mm.
FIGURE 1 in Three new species of Fergusonina Malloch gall-flies (Diptera: Fergusoninidae) from terminal leaf bud galls on Eucalyptus (Myrtaceae) in south-eastern Australia
FIGURE 1. Collection localities for Fergusonina thornhilli sp. nov. (˔), F. williamensis sp. nov. (․) and F. omlandi sp. nov. (♦).
FIGURE 1 in Revision of the Neotropical genus Eschatocerus Mayr (Hymenoptera, Cynipidae, Eschatocerini) with biological notes and the first description of the terminal larva
FIGURE 1. Head, anterior and posterior view of species of Eschatocerus: (A) Anterior view and (B) Posterior view of E. acaciae. (C) Anterior view and (D) Posterior view of E. niger. (E) Anterior view and (F) Posterior view of E. myriadeus.
FIGURES 1–14. Aeolothripidae species. Terminal antennal segments 1–8 in Ambaeolothrips: a new genus of Neotropical Aeolothripidae (Thysanoptera), with observations on the type-species from mango trees in Mexico
FIGURES 1–14. Aeolothripidae species. Terminal antennal segments 1–8: (1) Aeolothrips nitidus; (2) Ae. fasciatus; (3) Ae. bicolor; (4) Ae. nasturtii; (5) Desmothrips australis; (6) Ambaeolothrips microstriatus segments I–IX; (7) Am. pampeanus segments III–IX; (8) Am. romanruizi segments IV–IX. Meso and metanota 9–14: (9) Stomatothrips septenarius; (10) Aduncothrips?asiaticus; (11) Erythrothrips arizonae; (12) Lamprothrips miltoni; (13) Gelothrips cinctus; (14) Aeolothrips nitidus.
FIGURES 1–4. Coroichlorops yungas, holotype. 1. Head, dorsal view. 2. Head, lateral view. 3. Epandrium, terminal view. 4 in Revision of the Neotropical genus Coroichlorops Paganelli 2002 (Diptera: Chloropidae)
FIGURES 1–4. Coroichlorops yungas, holotype. 1. Head, dorsal view. 2. Head, lateral view. 3. Epandrium, terminal view. 4. Hypandrium, ventral view. Scale bar, 0.1 mm. (Modified from Paganelli 2002, figs. 100, 101, 104, 105).
FIGURES 1–16. 1–4. Atherigona bidens Hennig, male terminalia. 1. Hypopygial prominence, dorsal view. 2. Male hypopygial prominence, lateral view. 3. Male trifoliate process, posterior view. 4. Male trifoliate process, lateral view. 5– 8. Atherigona oryzae Malloch, male terminal. 5. Hypopygial prominence, dorsal view. 6. Hypopygial prominence, lateral view. 7. Trifoliate process, posterior view. 8. Trifoliate process, lateral view. 9–12 in The Muscidae (Diptera) of New Caledonia 2503
FIGURES 1–16. 1–4. Atherigona bidens Hennig, male terminalia. 1. Hypopygial prominence, dorsal view. 2. Male hypopygial prominence, lateral view. 3. Male trifoliate process, posterior view. 4. Male trifoliate process, lateral view. 5– 8. Atherigona oryzae Malloch, male terminal. 5. Hypopygial prominence, dorsal view. 6. Hypopygial prominence, lateral view. 7. Trifoliate process, posterior view. 8. Trifoliate process, lateral view. 9–12. Atherigona simplex (Thomson), male terminalia. 9. Hypopygial prominence, dorsal view. 10. Hypopygial prominence, lateral view. 11. Trifoliate process, posterior view. 12. Trifoliate process, lateral view. 13–16. Atherigona tibiseta Malloch, male terminalia. 13. Hypopygial prominence, dorsal view. 14. Hypopygial prominence, lateral view. 15. Trifoliate process, posterior view. 16. Trifoliate process, lateral view. Scale bar: 0.1mm
Fig. 1 in Structure of the Terminal Ampulla in Male Larvae of Canthon cyanellus LeConte (Coleoptera: Scarabaeidae: Scarabaeinae)
Fig. 1. Diagrams of Canthon cyanellus larvae. A) lateral view; I1) first instar; I2) second instar; I3) third instar; B) ventral view of the last abdominal segments of the male, showing the terminal ampulla; C) ventral view of the last abdominal segments of the female. Abbreviations: ta ¼ terminal ampulla;
FIGURE 1. Chrysopogon densipaniculatus. A. Habit. B. Branch bearing axillary and terminal inflorescence. C1. Panicle. C2. Sessile & Pedicelled spikelets. D1. Ligule. D2. Sheath without keel. E in Chrysopogon densipaniculatus (Poaceae: Andropogoneae): a new species from India
FIGURE 1. Chrysopogon densipaniculatus. A. Habit. B. Branch bearing axillary and terminal inflorescence. C1. Panicle. C2. Sessile & Pedicelled spikelets. D1. Ligule. D2. Sheath without keel. E. Basal portion with cataphylls (Photography by: Shahid Nawaz & Arjun Tiwari)
FIGURE 1. Meliosma chanchamayensis. A. Terminal sterile branch. B. Infructescence. C in Two new species of Meliosma (Sabiaceae) from the premontane and montane forests of the Selva Central of Peru
FIGURE 1. Meliosma chanchamayensis. A. Terminal sterile branch. B. Infructescence. C. Inflorescence, and detail of flowers at ends of inflorescence branchlet. D. Flower bud. E. Mature fruit. F. Flower bud with two petals and staminodes removed. G. Pistil. H. Sepal. I. Petal with adnate staminode. J. Stamen with adnate inner petal, frontal and posterior view. J. Inner petal. L. Staminode. A, C, D and F-L from T.D. Pennington & A. Daza 16505; B and E from T.D. Pennington & A. Daza 16506.
FIGURE 1. Agave infiernilloensis. A. Shaft with bracts and terminal spine. B. Flower buds. C. Open flowers. D. Habit. E-G in Agave infiernilloensis (sect. Choritepalae, Asparagaceae), a gigantic new species from the Balsas Basin in Western Mexico
FIGURE 1. Agave infiernilloensis. A. Shaft with bracts and terminal spine. B. Flower buds. C. Open flowers. D. Habit. E-G. Sequence from flower bud to mature flower. H. Node of four flowers about to start anthesis. I. Node of fully open flowers. J. Corneous leaf margin (upper portion). K. Denticulate leaf margin (lower portion). L. Leaf with printed margins. M. Rosette. Art illustration by Edgar Esau Vázquez-Verdejo.
Supplementary material 1 from: Gómez JF, Nieves MH, Gayubo SF, Nieves-Aldrey JL (2017) Terminal-instar larval systematics and biology of west European species of Ormyridae associated with insect galls (Hymenoptera, Chalcidoidea). ZooKeys 644: 51-88. https://doi.org/10.3897/zookeys.644.10035
Characters of Ormyrus larvae used for systematic study : Explanation note: Characters are listed by body region, for the body, head and under lip complex, which for the latter is subdivided between labrum, maxillae and mandibles.
FIGURE 1. Aphelandra almanegra. A. Flowering branch with axillary and terminal inflorescences B. Floral bract showing indumentum and contiguous glandular ocelli C. Bracteoles D in Aphelandra almanegra (Acanthaceae), a new species from the dry forests of the Cauca River canyon in Antioquia department, Colombia
FIGURE 1. Aphelandra almanegra. A. Flowering branch with axillary and terminal inflorescences B. Floral bract showing indumentum and contiguous glandular ocelli C. Bracteoles D. Calyx; from left to right: posterior lobe, pairs of lateral and anterior lobes E. Lateral view of flower with its lower lobe extended F. Interior view of flower. Note the hirtellous base of the filaments G. Stamen. H. Gynoecium. Note bilobed stigma and the base of the style with short, stout trichomes I. Dehiscing capsule J. Seed. (Illustration by Marcela Morales).
FIGURE 1. Carex procumbens, A. Habit, B. Inflorescence, C. Lateral pistillate spike, D. Staminate glume, E. Pistillate glume, F. Terminal staminate spike, G in Carex procumbens (Carex sect. Rhomboidales, Cyperaceae), a new species from Hainan, China
FIGURE 1. Carex procumbens, A. Habit, B. Inflorescence, C. Lateral pistillate spike, D. Staminate glume, E. Pistillate glume, F. Terminal staminate spike, G. Stigmas. Scale bars=1 mm. Photographs by Hu-Biao YANG.
FIGURE 1. Seychellaria barbata. A. Shoot with fruiting terminal and anthetic lateral inflorescences. B. Rhizome with roots. C. Female flower, side view. D. Female flower, view from the pedicel. E in Seychellaria barbata (Triuridaceae), a new species from Marojejy National Park, Madagascar
FIGURE 1. Seychellaria barbata. A. Shoot with fruiting terminal and anthetic lateral inflorescences. B. Rhizome with roots. C. Female flower, side view. D. Female flower, view from the pedicel. E. Uppermost node of the lateral inflorescence illustrated in (A) showing bract, flower pedicel and bracteole which subtends an axillary structure. All drawn from paratype Karpunina et al. 214 by A.Beer.
FIGURE 1. Carex concava, A. Inflorescence. B. Habit. C. Lateral pistillate spike. D. Terminal staminate spike. E. Perigynium with stigmas. F. Pistillate glume. G. Staminate glume. Scale A, B, D in Carex concava (Carex sect. Rhomboidales, Cyperaceae), a new species from Hainan, China
FIGURE 1. Carex concava, A. Inflorescence. B. Habit. C. Lateral pistillate spike. D. Terminal staminate spike. E. Perigynium with stigmas. F. Pistillate glume. G. Staminate glume. Scale A, B, D bars=1 cm; E, F, G bars=1 mm. Photographs by Hu-Biao YANG (Apr. 15th, 2014).
FIGURE 1 in Synflorescence morphology of grasses with reduced terminal inflorescences: a case study of Jouvea (Cynodonteae, Chloridoideae, Poaceae)
FIGURE 1. Synflorescence diagrams of Jouvea pilosa: A, Pistillate synflorescence showing the different internode zones. Dotted square indicates the terminal cluster. B, C, Other variations of pistillate synflorescences. D, Pistillate terminal cluster where the terminal inflorescence is associated with trophotagma enrichment axes. E, F, G, Variations of staminate synflorescences. References: LIZ, long internode zone; SIZ, short internode zone; tea, trophotagma enrichment axis of staminate synflorescences; tea1, trophotagma enrichment axis type 1; tea2, trophotagma enrichment axis type 2; tIn, terminal inflorescence.
FIGURE 1. Lachnagrostis filiformis. A. Plant. B. Ligule somewhat lacerated upwards. C. Spikelet. D in Lachnagrostis filiformis (Poaceae: Pooideae: Poeae: Agrostidinae) in México: known distribution and suppression of lemma awn development in terminal spikelets
FIGURE 1. Lachnagrostis filiformis. A. Plant. B. Ligule somewhat lacerated upwards. C. Spikelet. D. Ventral and dorsal view of awned lemmas. E. Ventral and dorsal view of awnless lemmas. E. Ventral and dorsal view of the caryopsis (Meagher 24-11-02 (IEB)). Illustrated by Alfonso Barbosa.
ScienceDex guides
Understand access before you commit
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.