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Fig. 1 in NC-Clustering demonstrates heterospecificity of the cryptic ant species Temnothorax luteus (FOREL, 1874) and T. racovitzai (BONDROIT, 1918) (Hymenoptera: Formicidae)
Fig. 1: NC-Ward clustering of 64 worker nest samples of Temnothorax luteus (FOREL, 1874) and T. racovitzai (BONDROIT, 1918) considering 18 unselected morphometric characters. Arrows point to three nest samples of T. luteus erroneously placed in the T. racovitzai cluster.
Fig. 2 in NC-Clustering demonstrates heterospecificity of the cryptic ant species Temnothorax luteus (FOREL, 1874) and T. racovitzai (BONDROIT, 1918) (Hymenoptera: Formicidae)
Fig. 2: NC-Ward clustering of 64 worker nest samples of Temnothorax luteus (FOREL, 1874) and T. racovitzai (BONDROIT, 1918) considering 7 selected morphometric characters.
Fig. 9 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 9. Light micrographs of cuticles from paratypes and hologenophores mounted after DNA extraction and COI sequencing. (A–B) Echinoderes horni, NHMD- 1176472, GenBank Acc. No. OP617666. (C–D) Echinoderes wilberti sp. nov., NHMD- 1176460, GenBank Acc. No. OP617672. (A) Dorsal overview. (B) Segments 1 to 6, dorsal view. (C) Dorsal overview. (D) Segments 1 to 6, dorsal view. Arrows indicate subdorsal tubes on segment 2.
Fig. 3 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 3. Diagram of mouth cone (grey area), introvert and placids in Echinoderes abeli sp. nov., outer oral styles (diamonds), primary scalids (triangles), spinoscalids (open circles), and trichoscalids (stars), with positions of trichoscalid plates and placids indicated. Table shows the scalid arrangement by sector; single-lined boxes mark quincunxes, double-lined boxes mark "double diamonds", question mark indicates unknown information.
Fig. 1 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 1. Maps showing (A) the position of areas of study in Mexico (B) sampling stations at Islas Marias with asterisks marking St. 8 y St.12, and (C) sampling stations in Quintana Roo with inset showing zoom of stations in Xcalak.
Fig. 6 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 6. Line art illustrations of Echinoderes wilberti sp. nov. (A) Female, dorsal view. (B) Female, ventral view. (C) Segments 10 to 11 in male, dorsal view. (D) Segments 10 to 11 in male, ventral view. Abbreviations: lat, lateral accessory tube; ldss, laterodorsal sensory spot; ldt, laterodorsal tube; ltas, lateral terminal accessory spine; lts, lateral terminal spine; lvgco1, lateroventral glandular cell outlet type 1; lvs, lateroventral spine; lvt, lateroventral tube; mdgco1, middorsal glandular cell outlet type 1; mlss, midlateral sensory spot; pdgco1, paradorsal glandular cell outlet type 1; pe, penile spines; pvb, paraventral bristles; sdss, subdorsal sensory spot; sdt, subdorsal tube; vlss, ventrolateral sensory spot; vmgco1, ventromedial glandular cell outlet type 1; vmss, ventromedial sensory spot.
Fig. 5 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 5. Scanning electron micrographs showing overviews and details of Echinoderes abeli sp. nov. (A) Dorsal overview. (B) Ventral overview. (C) Mouth cone, dorsal view. (D) Introvert sector 2 (paraventral). (E) Segments 1 to 2, dorsal view. (F) Segment 1 to 2, ventral view. (G) Segments 7 to 8, lateral view. (H) Segments 2 to 4, lateral view; inset shows close-up of glandular cell outlet type 2. (I) Segments 10 to 11, dorsal view, showing female sexual dimorphism. (J) Segments 10 to 11, ventral view, showing female sexual dimorphism. (K) Segments 10 to 11, laterodorsal view, showing female sexual dimorphism; inset shows close-up of laterodorsal tube. Abbreviations: ldss, laterodorsal sensory spot; ldt, laterodorsal tube; ltas, lateral terminal accessory spine; lts, lateral terminal spine; lvt, lateroventral tube; mdss, middorsal sensory spot; mlt, midlateral tube; oos, outer oral styles; pdss, paradorsal sensory spot; pr, protuberance; psp, primary spinoscalid; sdgco2, subdorsal glandular cell outlet type 2; sdss, subdorsal ss; slt, sublateral tube; sp, spinoscalid followed by introvert ring number; tr, trichoscalid; vlss, ventrolateral sensory spot; vmss, ventromedial sensory spot. Digit after abbreviation in lvt refer to segment number.
Fig. 10 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 10. Line art illustrations of Echinoderes horni Higgins, 1983. (A) Female, dorsal view. (B) Female, ventral view. (C) Segments 10 to 11 in male, dorsal view. (D) Segments 10 to 11 in male, ventral view. Abbreviations: lat, lateral accessory tube; ldss, laterodorsal sensory spot; ldt, laterodorsal tube; ltas, lateral terminal accessory spine; lts, lateral terminal spine; lvgco1, lateroventral glandular cell outlet type 1; lvs, lateroventral spine; lvt, lateroventral tube; mdgco1, middorsal glandular cell outlet type 1; mlss, midlateral sensory spot; pdgco1, paradorsal glandular cell outlet type 1; pe, penile spines; pvb, paraventral bristles; sdss, subdorsal sensory spot; vlss, ventrolateral sensory spot; vmgco1, ventromedial glandular cell outlet type 1; vmss, ventromedial sensory spot.
Fig. 12 in New Echinoderes (Kinorhyncha: Cyclorhagida) from Mexico: Molecular barcoding demonstrate species delimitation between highly similar morphospecies
Fig. 12. Confocal laser micrographs of Echinoderes horni (NHMD-1176472) showing focal overview sections, from most dorsal in (A) and a deeper focus through (B) to (C). Sensory spots are indicated by full circles, and glandular cell outlets type 1 by dashed circles.
Demonstration of fault-tolerant Steane quantum error correction
<p>Source data underlying the graphical representations used in the figures and corresponding executed quantum circuits.</p>
FIGURE 6. Photis geniculata a in A benefit to biodiversity assessment: An Indian survey demonstrates that Cheiriphotis geniculata is a misidentification of the valid species Photis geniculata Barnard, 1935 (Crustacea: Amphipoda)
FIGURE 6. Photis geniculata a) male habitus; b) head with extended cepalic lobe, dorsal view; c) antenna 1 without accessory flagellum.
FIGURE 3 in A benefit to biodiversity assessment: An Indian survey demonstrates that Cheiriphotis geniculata is a misidentification of the valid species Photis geniculata Barnard, 1935 (Crustacea: Amphipoda)
FIGURE 3. Photis geniculata. Male habitus (3.3 mm length). Scale bar 0.3 mm for Hd; 0.1 mm for A1, A2; 0.05 mm for Lbr, Lb, Mx1, Mx2, Mxp.
FIGURE 5 in A benefit to biodiversity assessment: An Indian survey demonstrates that Cheiriphotis geniculata is a misidentification of the valid species Photis geniculata Barnard, 1935 (Crustacea: Amphipoda)
FIGURE 5. Photis geniculata. Male habitus (3.3 mm length). Scale bar 0.2 mm for P6, P7; 0.08 mm for U1, U2, U3, T.
FIGURE 4 in A benefit to biodiversity assessment: An Indian survey demonstrates that Cheiriphotis geniculata is a misidentification of the valid species Photis geniculata Barnard, 1935 (Crustacea: Amphipoda)
FIGURE 4. Photis geniculata. Male habitus (3.3 mm length). Scale bar 0.05 mm for Md; scale bar 0.2 mm for Gn 1, Gn 2 (♂), Gn 2 (♀), P3, P4, P5; scale 0.3 mm for Ep1,2,3.
FIGURE 8. Photis geniculata a in A benefit to biodiversity assessment: An Indian survey demonstrates that Cheiriphotis geniculata is a misidentification of the valid species Photis geniculata Barnard, 1935 (Crustacea: Amphipoda)
FIGURE 8. Photis geniculata a) uropod 1; b) pereopod 7 with geniculate dactylus; c) uropod 2; d) uropod 3.
Example Data for a Demonstration of showyourwork
Open the record for dataset details and reuse information.
Video demonstration of the use of the neuroglancer interface to explore the H01 dataset.
<p><strong>Video demonstration of the use of the neuroglancer interface to explore the H01 dataset. </strong>Methods demonstrated include 3D navigation within neuroglancer, controlling neuroglancer layers, selecting segments, viewing synapses associated with segments, and filtering for segments by keywords.</p>
Code produced by the study "Advantages of assimilating multi-spectral satellite retrievals of atmospheric composition: A demonstration using MOPITT carbon monoxide products".
<p>This is the code used in the manuscript entitled "Advantages of assimilating multi-spectral satellite retrievals of atmospheric composition: A demonstration using MOPITT carbon monoxide products".</p>
Fig. 7 in Camel spider trait evolution demonstrates repeated patterns of convergence (Arachnida: Solifugae: Eremobatidae)
Fig. 7. Ancestral state estimation and mapping of binary states of male A) male flagellar groove and B) fondal notch. Absent = no flagellar groove/no fondal notch, present = flagellar groove/fondal notch.
Fig. 4 in Camel spider trait evolution demonstrates repeated patterns of convergence (Arachnida: Solifugae: Eremobatidae)
Fig. 4. Maximum likelihood topology of Eremobatidae inferred using IQ-TREE 2 and the 75% occupancy concatenated UCE matrix with taxa that rendered>10 UCE loci with outgroups removed. Nodal support for major clades refer to maximum likelihood bootstrap values (ML) on the left and local posterior probabilities estimated based on gene tree quartet frequencies in ASTRAL (MSC) on the right.Tip colors illustrate generic designations as per current eremobatid taxonomy. Male (left column) and female (right column) structures of eremobatid species are shown on the right of the topology. Images are ordered phylogenetically. A) Eremochelis andreasana (♂, DMNS ZA.41919; ♀, DMNS ZA.40822). B) Hemerotrecha marathoni (♂, CNAN loan; ♀, CNAN loan). C) Hemerotrecha xena (♂, DMNS ZA.16469; ♀, DMNS ZA.42101). D) Eremochelis bilobatus (♂, DMNS ZA.17629; ♀, DMNS ZA.17359). E) Horribates spinigerus (♂, DMNS ZA.40086; ♀, AMNH_ Holotype). F) Chanbria regalis (♂, DMNS ZA.25443; ♀, DMNS ZA.25442). G) Hemerotrecha serrata (♂, DMNS ZA.16059; ♀, DMNS ZA.22169). H) Eremochelis flexacus (♂, DMNS ZA.16134; ♀, DMNS ZA.23593). I) Hemerotrecha parva (♂, DMNS ZA.42131; ♀, DMNS ZA.42131). J) Eremochelis larreae (♂, CASENT9033550; ♀, DMNS ZA.33721). K) Eremochelis insignatus (♂, DMNS ZA.28260; ♀, DMNS ZA.26390). L) Eremochelis striodorsalis (♂, DMNS ZA.31773; ♀, DMNS ZA.23593). M) Hemerotrecha californica (♂, DMNS ZA.18288; ♀, DMNS ZA.32217). All scale bars represent 1 mm.
ScienceDex guides
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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.