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Fig. 4. Male morphology. A–C. Abdominal sternum IX in Contributions to the knowledge of Formicidae (Hymenoptera, Aculeata): a new diagnosis of the family, the first global male-based key to subfamilies, and a treatment of early branching lineages
Fig. 4. Male morphology. A–C. Abdominal sternum IX in ventral view. B. Oblique. D–E. Petiole in lateral view. F. Forewing in dorsal view. G–H. Propodeum in lateral view. — A. Aenictogiton indet. (Zambia, CASENT0106126, M. Branstetter). B. Cerapachys "parasyscia" lineage (Kenya, B. Boudinot). C. Emeryopone buttelreepeni (Thailand, CASENT0278779, B. Boudinot). D. Paraponera clavata (?Panama, B. Boudinot). E. Cerapachys lividus (Madagascar, CASENT0138502, D. Raharinjanahary). F. Phaulomyrma indet. (Thailand, UCRENT150358, A. Nobile). G. Leptanillinae indet. (Thailand, CASENT0156249, B. Boudinot); arrow indicates dorsal margin of petiolar foramen. H. Adelomyrmex dentivagans; arrow indicates propodeal lobe. All scale bars = 0.2 mm, except D–E = 1.0 mm.
Fig. 1 in Periotic Morphology in the Trichosurin Possums Strigocuscus celebensis and Wyulda squamicaudata (Diprotodontia, Phalangeridae) and a Revised Diagnosis of the Tribe Trichosurini
Fig. 1. Tympanic view of a generalized phalangerid petrosal, with a line showing the crest of the rostral tympanic process (RTTP). The cupula cochleae (CUC) intrudes into the RTTP, splitting it into two portions, which Norris (1994) identified as the rostral and ectotympanic processes (''RTTP'' and ''ECTP''). In fact, both structures are part of the RTTP.
Fig. 3 in Periotic Morphology in the Trichosurin Possums Strigocuscus celebensis and Wyulda squamicaudata (Diprotodontia, Phalangeridae) and a Revised Diagnosis of the Tribe Trichosurini
Fig. 3. Periotic of AMNH 196920, Wyulda squamicaudata. A. Tympanic face. B. Cerebellar face. Abbreviations: DL, dorsal lamella; MCF, exposure of periotic in middle cranial fossa. Other abbreviations as for figure 2. Approximately 10× life size.
Figure 11 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 11. Right manus, ventral view, with some left elements in the Paris (Canjuers) specimen of Compsognathus longipes NMNH CNJ 79, largely preserved as impressions. Identifiable elements labelled in drawing are as follows: 1, r. mc I; 2, r. mc II; 3, r. mc III; 4, r. ph I-1; 5, r. ph I-2; 6, r. ph II-1; 7, r. ph III-1?; 8, l. mc II; 9, l. mc III; 10, l. ph II-1; 11, l. ph III-1?; 12, r. dc1 +2?; 13, r. radiale; 14, r. radius; 15, r. ulna; 16, l. ulna.
Figure 8 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 8. Unguals preserved on Compsognathus slab. A, left digit I ungual, showing robust, deep flexor tubercle. B, right digit I ungual (in articulation) showing deep, robust flexor tubercle as in A. C, left digit II ungual (in articulation) showing more gracile flexor tubercle. D, right digit II ungual medial impression (mirrored for comparison) showing shallow, gracile flexor tubercle as in C.
Figure 12 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 12. Comparison of hands of various coelurosaurs. A, Allosaurus fragilis (reconstructed from Madsen, 1976); B, Scipionyx samnictus; C, Nqwebisaurus thwazi (after DeKlerk et al., 2000); D, Huaxiagnathus orientalis (after Hwang et al., 2004); E, Sinosauropteryx sp. NGMC 21124; F, Sinosauropteryx prima (reconstructed from Currie & Chen, 2001); G, Compsognathus longipes.
Figure 7. A, left digit II phalanges 2 and 3 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 7. A, left digit II phalanges 2 and 3 (ungual) shown in near articulation. Arrow shows subcircular articular condyles typical of theropod II-2. B, right digit II, phalanx 2 lateral impression.
Figure 6. A in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 6. A, left second digit, first phalanx ventral impression. B, right second digit first phalanx lateral impression.
Figure 3 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 3. Left first digit, first phalanx shown in proximal oblique view. Arrowheads in drawing show articular facets, highlighted in grey.
Figure 2 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 2. Right first digit, first and second (ungual) phalanges. Hash marks in drawing represent broken surface; stipples, obscured bone. Arrow shows flattened proximoventral extension of articular condyles typical of theropod I-1.
Figure 1 in On the manual morphology of Compsognathus longipes and its bearing on the diagnosis of Compsognathidae
Figure 1. Overview of the preserved manual material in the Munich holotype of Compsognathus longipes, drawing isolates manual elements with lines representing preserved bone and dotted lines representing element impressions (inset: metacarpal I from top of slab, shown in preserved orientation relative to other manual elements). Differing author's interpretations of element identity labelled as follows: 1, l. metacarpal I (this paper), mystery bone (Ostrom, 1978); 2, l. metacarpal II (this paper; von Huene, 1925), l. metacarpal I (Ostrom, 1978), l. metacarpal III (Gauthier et al., 1988); 3, l. metacarpal III (this paper; von Huene, 1925; Ostrom, 1978), l. metacarpal IV (Gauthier et al., 1988); 4, l. ph I-1 (this paper), l. metacarpal II (von Huene, 1925), l. metacarpal II (Ostrom, 1978; Gauthier et al., 1988); 5, l. ph I-2 (this paper), r. ph II-2 (Ostrom, 1978), r. ph II-3 (von Huene, 1925); 6, l. ph II-1 (this paper; von Huene, 1925), l. ph I-1 (Ostrom, 1978); 7, l. ph II-2 (this paper), l. ph I-1 (von Huene, 1925), l. ph II-1 (Ostrom, 1978); 8, l. ph II-3 (this paper), l. ph I-2 (von Huene, 1925), l. ph II-2 (Ostrom, 1978); 9, ph III-1?; 10, r. metacarpal II (this paper; von Huene, 1925; Ostrom, 1978), r. metacarpal III (Gauthier et al., 1988); 11, r. metacarpal III (this paper; von Huene, 1925; Ostrom, 1978); r. metacarpal IV (Gauthier et al., 1988); 12, r. ph I-1 (this paper; von Huene, 1925), r. mc I (Ostrom, 1978); 13, r. ph I-2 (this paper; von Huene, 1925; Ostrom, 1978); 14, r. ph II-1 (this paper; von Huene, 1925), r. ph I-1 (Ostrom, 1978); 15, r. ph II-2 (this paper; von Huene, 1925), r. ph II-1 (Ostrom, 1978); 16, r. ph II-3 (this paper), l. ph I-1 (Ostrom, 1978), l. ph II-3 (von Huene, 1925); 17, l. dc 1?.
Fig. 5 in Morphology and distribution of the cave knifefish Eigenmannia vicentespelaea Triques, 1996 (Gymnotiformes: Sternopygidae) from Central Brazil, with an expanded diagnosis and comments on subterranean evolution
Fig. 5. Preserved specimen of Eigenmannia vicentespelaea with no visible eyes and pale aspect (LEA: 67.6 mm). a. Entire individual. Scale bar, 10 mm; b. Detail of head with no visible eyes. Scale bar, 5 mm. Photos: M. E. Bichuette.
Fig. 3 in Morphology and distribution of the cave knifefish Eigenmannia vicentespelaea Triques, 1996 (Gymnotiformes: Sternopygidae) from Central Brazil, with an expanded diagnosis and comments on subterranean evolution
Fig. 3. Ocular diameter:head length proportions, standard deviations and confidence intervals for Eigenmannia vicentespelaea (n = 25) and Eigenmannia sp. (n = 15) from São Domingos karst area, Central Brazil. *outliers; 1, E. vicentespelaea; 2, Eigenmannia sp. collected in epigean river; 3, Eigenmannia sp. collected in subterranean stream reaches; horizontal bars, medians.
Fig. 2 in Morphology and distribution of the cave knifefish Eigenmannia vicentespelaea Triques, 1996 (Gymnotiformes: Sternopygidae) from Central Brazil, with an expanded diagnosis and comments on subterranean evolution
Fig. 2. Length (LEA) medians (horizontal bars), standard deviations and confidence intervals for Eigenmannia vicentespelaea (n = 25) and Eigenmannia sp. (n = 15) from São Domingos karst area, Central Brazil. *outliers; 1, E. vicentespelaea; 2, Eigenmannia sp. collected in epigean river; 3, Eigenmannia sp. collected in subterranean stream reaches.
Fig. 1 in Morphology and distribution of the cave knifefish Eigenmannia vicentespelaea Triques, 1996 (Gymnotiformes: Sternopygidae) from Central Brazil, with an expanded diagnosis and comments on subterranean evolution
Fig. 1. Sinkhole of São Vicente Cave System, São Domingos karst area, Goiás State, Central Brazil – type locality of Eigenmannia vicentespelaea Triques, 1996. Photo: E. M. Bichuette.
Figure 10 in Neurostigma xanthopterum New, 1980 (Psocodea: Psocoptera: Epipsocidae): updated diagnosis, description of a female specimen, morphological variations and a checklist of all known species of the genus
Figure 10. Type of variations in the forewing veins of the Neurostigma xanthopterum: (A) Type 1; (B) Type 2; (C) Type 3; (D) Type 4; (E) Type 5; (F) Type 6; (G) Type 7. Scales in mm.
Figure 3 in Neurostigma xanthopterum New, 1980 (Psocodea: Psocoptera: Epipsocidae): updated diagnosis, description of a female specimen, morphological variations and a checklist of all known species of the genus
Figure 3. Neurostigma xanthopterum (Female I): (A) Lateral view; (B) Zoom of lateral view of head; (C) Zoom of dorsal view of head; (D) Eggs; (E) Zoom of an egg. Scales in mm.
Figure 2 in Neurostigma xanthopterum New, 1980 (Psocodea: Psocoptera: Epipsocidae): updated diagnosis, description of a female specimen, morphological variations and a checklist of all known species of the genus
Figure 2. Neurostigma xanthopterum (Holotype male): (A) Front view of head; (B) Right forewing; (C) Left forewing; (D) Right antenna; (E) Pterostigma of right forewing; (F) Pterostigma of left forewing; (G) Right hindwing; (H) Right hindleg; (I) Hypandrium; (J) Phallosome. Scales in mm.
Figure 5 in Neurostigma xanthopterum New, 1980 (Psocodea: Psocoptera: Epipsocidae): updated diagnosis, description of a female specimen, morphological variations and a checklist of all known species of the genus
Figure 5. Mouthparts of Neurostigma xanthopterum (Females): (A) Rigth maxillary palp of FI; (B) Labrum of FI; (C) Labium of FI; (D) Right mandible of FI; (E) Left mandible of FI; (F) Rl of FI; (G) Ll of FI; (H) Rl of FII; (I) Ll of FII;(J) Rl of FIII; (K) Rl of FIV; (L) Ll of FIV. Scales in mm. Abbreviations: FI…FIV: female I…female IV; Rl: right lacinia; Ll: Left lacinia.
Figure 11 in Neurostigma xanthopterum New, 1980 (Psocodea: Psocoptera: Epipsocidae): updated diagnosis, description of a female specimen, morphological variations and a checklist of all known species of the genus
Figure 11. Type of variations in the hindwing veins of the Neurostigma xanthopterum: (A) Type 8; (B) Type 9; (C) Type 10; (D) Type 11; (E) Type 12; (F) Type 13. Scales in mm.
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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.