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FIGURE 3 in Description of new species of Phanodermopsis (Enoplida, Phanodermatidae) with key to genera of family Phanodermatidae and pictorial key to Phanodermopsis species
FIGURE 3. Phanodermopsis nana sp. n. A. Holotype male. Total body. B. Allotype female. Total body. C. Holotype male. Anterior end with amphid. D. Holotype male. Tail with spicules and gubernaculum. E. Spicules with gubernaculum. Scale bars: A, B = 500 µm; C = 20 µm; D = 100 µm; E = 50 µm.
FIGURE 2. Study area showing sampling stations. Point D2 in Description of new species of Phanodermopsis (Enoplida, Phanodermatidae) with key to genera of family Phanodermatidae and pictorial key to Phanodermopsis species
FIGURE 2. Study area showing sampling stations. Point D2 represents site where new species was found.
FIGURES 72–76 in Bees of the genus Sphecodes Latreille 1804 of Siberia, with a key to species (Hymenoptera: Apoidea: Halictidae)
FIGURES 72–76. Males: 72–75—metasoma; 76—hind tibia; 72—Sphecodes alternatus Smith, T4; 73—S. reticulatus Thomson, T4; 74—S. kozlovi Astafurova & Proshchalykin; 75—S. schwarzi sp. nov., T1–T3; 76—S. spinulosus Hagens.
FIGURE 1 in Description of new species of Phanodermopsis (Enoplida, Phanodermatidae) with key to genera of family Phanodermatidae and pictorial key to Phanodermopsis species
FIGURE 1. Schematic representation of the pharyngo-cephalic complexes among Phanodermatidae. All drawings redrawn from original description, not to scale. A: Type I, Mycoletzkyia kamchatica Fadeeva, Mordukhovich & Zograf, 2015. B: Type II, Phanodermopsis nana sp.n. C: Type III, Crenopharynx gracilis (Lintsov, 1900). D: Type IV, Paraphanoderma robynae Inglis, 1971. E: Type V, Phanoderma laticolle (Marion, 1870) de Man, 1865. F: Type VI, Metaphanoderma kamchaticum Platonova, 1984.
FIGURE 116 in Bees of the genus Sphecodes Latreille 1804 of Siberia, with a key to species (Hymenoptera: Apoidea: Halictidae)
FIGURE 116. Distribution of Sphecodes species in Siberia: a—S. pellucidus Smith, S. nippon Meyer; b—S. puncticeps Thomson, S. reticulatus Thomson; c—S. schwarzi, sp. nov., S. rufiventris (Panzer), S. scabricollis Wesmael; d— S. spinulosus Hagens, S. pinguiculus Pérez.
FIGURE 3 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 3. Distribution of 60 calls of five species of Euparkerella (males) along the first and second axes of a Principal Component Analysis (PCA) generated from six acoustical variables. Note the five distinct clusters corresponding to five recognized species.
FIGURE 2 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 2. Distribution of 84 specimens of five species of Euparkerella (males and females) along the first and second axes of a Principal Component Analysis (PCA) generated from six morphometric variables.
FIGURE 9 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 9. Euparkerella robusta from Mimoso do Sul, ES, Brazil. (A) Oscillogram and (B) audiospectrogram of an advertisement call (ASEC 17693) without frequency modulation. (C) Oscillogram of two pulses of an advertisement call (ASEC 17687) which presents the second amplitude peak and de periodic amplitude modulation at the end of the pulses. (D) Oscillogram, (E) audiospectrogram and (F) power spectrum of an advertisement call (ASEC 17684) which illustrates frequency modulation at the end of the pulses. Note the low number of pulses and their long duration. Audiospectrograms and power spectrums with Window function Hann, amplitude logarithmic, window size 512 samples, overlap 99%.
FIGURE 8 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 8. Distribution of the species of Euparkerella. Euparkerella brasiliensis (circle); E. cryptica sp. nov. (white star); E. cochranae (triangle); E. robusta (pentagon); E. tridactyla (square). White symbols represent type localities; black symbols indicate the provenances of the specimens examined from zoological collections; symbols marked with a cross indicate the provenances of the acoustically recorded specimens. The type locality of E. brasiliensis is not precisely known (Izecksohn 1988) and therefore, not shown.
FIGURE 7 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 7. (A–C) Euparkerella cryptica sp. nov. from Silva Jardim, RJ, Brazil. (A) Oscillogram, (B) audiospectrogram (C) and power spectrum of an advertisement call (ASEC 17678). Note the long duration and the presence of pulse clusters. (D–F) Euparkerella tridactyla from Santa Maria de Jetibá, ES, Brazil. (D) Oscillogram, (E) audiospectrogram (F) and power spectrum of an advertisement call (ASEC 17704). Note the long duration and high number of pulses. Audiospectrograms and power spectrums with window function Hann, amplitude logarithmic, window size 256 (B, C) and 512 (E, F) samples, overlap 99%.
FIGURE 1 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 1. Graphical illustration of terms used in the structural and temporal description of advertisement calls.
FIGURE 5 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 5. Euparkerella cryptica sp. nov. from Silva Jardim, RJ, Brazil, holotype (ZUFRJ 13281). Dorsal (A) and lateral (B) views of the head. Ventral views of the right hand (C) and foot (D).
FIGURE 4 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 4. Euparkerella cryptica sp. nov. from Silva Jardim, RJ, Brazil, holotype (ZUFRJ 13281, adult male, SVL 14.30 mm), in life. Frontal (A) and (B) dorsal views.
FIGURE 6 in A fifth species of the genus Euparkerella (Griffths, 1959), the advertisement calls of E. robusta Izecksohn, 1988 and E. tridactyla Izecksohn, 1988, and a key for the Euparkerella species (Anura: Brachycephaloidea: Craugastoridae)
FIGURE 6. (A–E) Euparkerella cryptica sp. nov. from Silva Jardim, RJ, Brazil. (A) Ventral view of the left hand, holotype (ZUFRJ 13281). The arrow indicates the presence of digital pad and partially overlapped subarticular tubercle. (B) Ventral view of the left hand (MNRJ 85756). The arrow indicates the presence of a single digital pad. (C) Ventral view right hand (ZUFRJ 12851). The arrow indicates the presence of a digital pad and a subarticular tubercle. (D) Ventral view of the left foot (ZUFRJ 12645). The arrow and dashed line indicate the tip of the Toe V reaching near the middle of proximal subarticular tubercle of the Toe IV. (E) Ventral view of the right foot (ZUFRJ 12852). The arrow and dashed line indicate the tip of the Toe V extending beyond the proximal subarticular tubercle of the Toe IV. (F) Euparkerella tridactyla from Santa Teresa, ES, Brazil. Ventral view of the left hand (ZUFRJ 1928). Hand greatly reduced, with triangular fingers; Finger IV vestigial; digital tubercles and pads weakly developed and planar.
FIGURE 4 in The hypogean Iberian genus Typhlopsychrosoma Mauriès, 1982 (Diplopoda, Chordeumatida, Vandeleumatidae): distribution map, key to species, first record in a Mesovoid Shallow Substratum (MSS) and detailed iconography of T. baeticaense (Mauriès, 2013)
FIGURE 4. Gonopods of all Typhlopsychrosoma species in lateral view: A) T. baeticaense from type locality; adapted from Mauriès (2013). B) T. baeticaense from Aitana Mountains. C) T. breuili; adapted from Mauriès (1971). D) T. tarraconense; adapted from Mauriès (1971). E) T. fadriquei from the type locality; adapted from Mauriès & Vicente (1978). F) T. fadriquei from Hoya La Madre cave (possibly an anomalous specimen according to Mauriés (1982); adapted from Mauriès (1982).
FIGURE 3 in The hypogean Iberian genus Typhlopsychrosoma Mauriès, 1982 (Diplopoda, Chordeumatida, Vandeleumatidae): distribution map, key to species, first record in a Mesovoid Shallow Substratum (MSS) and detailed iconography of T. baeticaense (Mauriès, 2013)
FIGURE 3. Gonopods of P. baeticaense from Aitana Mountains. A) Posterior view. B) Left lateral view. C) Inferior (apical) view. D) Anterior view. The syntelopodite T is coloured in blue, part K of the colpocoxite, including its final tip and the bundle of bristles ('lanières') in red, and part C of the colpocoxite in yellow. The labels indicate: C, c, K: parts of colpocoxite; f: bundle of bristles ('lanières'); T: basal part of syntelopodite; t: lateral process of syntelopodite. All scale bars 0.1 mm.
FIGURE 2 in The hypogean Iberian genus Typhlopsychrosoma Mauriès, 1982 (Diplopoda, Chordeumatida, Vandeleumatidae): distribution map, key to species, first record in a Mesovoid Shallow Substratum (MSS) and detailed iconography of T. baeticaense (Mauriès, 2013)
FIGURE 2. Habitus and body details of T. baeticaense from Aitana Mountains. A) Female in lateral view. Most dorsal setae were not preserved. Scale bar 0.5 mm. B) Body rings of male in lateral view. Scale bar 0.5 mm. C-E) Head and first rings of male in different views. Scale bars: C, E, 0.5 mm; D, 0.1 mm. F) Telson and last rings of male in lateroposterior view. Scale bar 0.5 mm.
FIGURE 1 in The hypogean Iberian genus Typhlopsychrosoma Mauriès, 1982 (Diplopoda, Chordeumatida, Vandeleumatidae): distribution map, key to species, first record in a Mesovoid Shallow Substratum (MSS) and detailed iconography of T. baeticaense (Mauriès, 2013)
FIGURE 1. Distribution map of the genus Typhlopsychrosoma and pictures from the site where T. baeticaense appeared in the MSS. A) Map of the Iberian Peninsula; scale bar 200 km and B) Map of Alicante region; Scale bar 20 km. The white stars correspond to the new localities of T. baeticaense: 1) MSS, Sierra de Aitana, Confrides, Alicante province; 2) MSS, Bernia Mountains, Xaló, Alicante province. White diamonds correspond to previous records of T. baeticaense: 3) Cueva de los Murciélagos, Zuheros, Córdoba province; 4) Cueva de las Golondrinas, Carcabuey, Córdoba province; 5) Cueva del Nacimiento de San Blás, Siles, Jaén province; 6) Complejo del Arroyo de la Rambla, PB-4, Peal de Becerro, Jaén province. White squares correspond to the localities of T. tarraconense: 7) Cova Cambra, Tortosa, Tarragona province; 8) Cova de Yerret, Alfara, Tortosa, Tarragona province; 9) Cova de Rabosa, Perelló, Tarragona province. Black circle with white margin corresponds to T. breuili: 10) Cueva Mayor, Atapuerca cave system, Ibeas de Juarros, Burgos. White circles correspond to the localities of T. fadriquei: 11) Cueva del Oro, Cornión, Asturias province; 12) Pozu Palomeru, Cornión, Asturias province; 13) Hoya la Madre Cave, ravine of Casaro River, 5 km from Lago Ercina, Picos del Cornión, Belbin, Asturias province; 14) Cueva de la Marniosa, Sobra Valley, Tresviso, Asturias province. C) Bare scree in Aitana Mountains where the MSS was sampled. D) Process of installation of the PVC cylinder. E) Aspect of the PVC cylinder once buried, and pitfall trap with the propylene glycol and the bait.
FIGURES 1–4. Male details. 1. Didineis clavimana, foretibia. 2–3. Antenna. 2. D. bucharica. 3. D. crassicornis. 4. D in The digger wasps of the genus Didineis Wesmael (Hymenoptera: Crabronidae: Bembicinae) of Russia and adjacent territories, with a key to species and new synonymies
FIGURES 1–4. Male details. 1. Didineis clavimana, foretibia. 2–3. Antenna. 2. D. bucharica. 3. D. crassicornis. 4. D. sibirica.
FIGURE 4 in Hypandrium as a key character in resolving species-level taxonomy on the example of Perisama oppelii (Latreille) (Lepidoptera: Nymphalidae, Biblidinae)
FIGURE 4. Male and female genitalia of P. bleuzeni stat. n. A, male genitalia with separated valvae (lateral view). B, valva (lateral view). C, valva (dorsal view). D, aedeagus (lateral view). E, hypandrium (dorsal view). F, female genitalia.
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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.