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Fig. 4 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 4. (A) total evaporative water loss (TEWL) at TA = 0°C as function of body mass in Passeriformes and Non-Passeriformes (this study). (B) total evaporative water loss (TEWL) at TA TA = Tlc as function of body mass in Passeriformes and Non-Passeriformes (this study). (C) total evaporative water loss (TEWL) at TA TA = Tuc as function of body mass Passeriformes and Non-Passeriformes (this study).
Fig. 7 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 7. Synergus striatifrons Pujade-Villar and Lobato-Vila sp. nov.: (a) Female head in frontal view, (b) female head in ventral view, (c) female head in dorsal view, (d) male head in dorsal view, (e) tarsal claw, (f) female antenna, (g) last segments of female antenna, (h) F1 and F2 segments of male antenna, (i) mesosoma in dorsal view, (j) mesosoma in lateral view, (k) propodeum, (l) female metasoma in lateral view, (m) detail of the metasomal micropunctures.
Fig. 8 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 8. Detail of the pale halo around the mouth: (a) Synergus punctatus female (picture extracted from the online database of Hymenopteran Holotypes (Smithsonian Institution): http://bit.ly/2q3gV9G), (b) Synergus gilletti female. © 2017 Academia Sinica, Taiwan
Fig. 6. Synergus punctatus Gillette, 1896 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 6. Synergus punctatus Gillette, 1896: (a) Female head in frontal view, (b) male head and antennae in dorsal view, (c) female head in dorsal view, (d) mesosoma in dorsal view, (e) tarsal claw, (f) female antenna, (g) mesosoma in lateral view, (h) female metasoma in lateral view.
Fig. 5 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 5. Synergus longiscapus Pujade-Villar and Lobato-Vila sp. nov.: (a) Female head in frontal view, (b) female head in ventral view, (c) female head in dorsal view, (d) male head in dorsal view, (e) tarsal claw, (f) female antenna, (g) male antenna, (h) mesosoma in dorsal view, (i) mesosoma in lateral view, (j) propodeum, (k) female metasoma in lateral view, (l) detail of the metasomal micropunctures.
Fig. 4 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 4. Synergus longimalaris Pujade-Villar and Lobato-Vila sp. nov.: (a) Female head in frontal view, (b) female head in ventral view, (c) female head in dorsal view, (d) mesosoma in lateral view, (e) female antenna, (f) mesosoma in dorsal view, (g) propodeum, (h) tarsal claw, (i) female metasoma in lateral view, (j) detail of the metasomal micropunctures.
Fig. 2 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 2. Synergus gilletti Pujade-Villar and Lobato-Vila sp. nov.: (a) Female head in frontal view, (b) female head in ventral view, (c) female head in dorsal view, (d) male head in dorsal view, (e) tarsal claw, (f) female antenna, (g) F1 and F2 of male antenna. © 2017 Academia Sinica, Taiwan
Fig. 3 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 3. Synergus gilletti Pujade-Villar and Lobato-Vila sp. nov.: (a) Mesosoma in dorsal view, (b) mesosoma in lateral view, (c) propodeum, (d) female metasoma in lateral view. © 2017 Academia Sinica, Taiwan
Fig. 1 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 1. Synergus cibriani Pujade-Villar and Lobato-Vila sp. nov.: (a) Female head in frontal view, (b) mesosoma in dorsal view, (c) female head in dorsal view, (d) male head in dorsal view, (e) mesosoma in lateral view, (f) female antenna, (g) first segments of male antenna, (h) propodeum, (i) tarsal claw, (j) female metasoma in lateral view, (k) detail of the metasomal micropunctures (female), (l) detail of the metasomal micropunctures (male).
Fig. 6 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 6. Total evaporative water loss (TEWL) and share of heat dissipated by evaporation (%He) in Passeriformes at TA TA = Tlc and at TA TA = Tuc as function of body mass. © 2017 Academia Sinica, Taiwan
Fig. 2 in Microphysogobio zhangi Sun & Zhao 2022, n. sp.
Fig. 2. (A) energy expenditure at rest (SMR, BMR, kJ per day, left scales) and the energy equivalent of lost body mass (q, kJ per g, right scales) as the functions of ambient temperature (TA, °C). Each symbol is a mean for several measurements in several birds at a given TA, vertical bars are SD. (B) Evaporative heat loss (He, kJ per day, right scale), non-evaporative heat loss (Hs, kJ per day, right scales) as the functions of ambient temperature (TA, °C) and percentage of heat loss through evaporation (He, %, left scales) as the functions of ambient temperature (TA, °C) in the Goal Tits (Parus ater) in winter.
Fig. 4 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 4. Ratio of habitat usage in situ in each gastropterid species: zones (left) and substrata (right). No gastropterids were recorded on corals. Numbers in parentheses indicate the total number of individuals.
Fig. 1 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 1. (A) The map of Okinawajima Island indicating the study site. (B) The census route. Dotted lines indicate the approximate depths on the route. I-IV indicate the zones based on the depth and dominant substrata. © 2017 Academia Sinica, Taiwan
Fig. 3 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 3. Dorsal (A-C) and ventral (D-F) views of the skull of three species of Microcavia: M. australis (A, D; MACN-Ma 14.543), M. maenas (B, E; MACN-Ma 34.116) and Microcavia n. sp. (C, F; MACN-Ma 17333). Scale bars = 5 mm.
Fig. 6 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 6. Selected anatomical traits of three species of Microcavia (A, MACN-Ma 14543; B, MACN-Ma 36.72; C, MACN-Ma 17331; D, MACN-Ma 25.51; E, MACN-Ma 36.84; F MACN-Ma 17333), depicting the contour of the posterior border of the palate and size of sphenopalatine vacuities (epv). Abbreviations: fo = foramen oval; pc = palatal crista; ps = presphenoid; pt = pterygoid. Photographs are not in scale to facilitate comparisons among proportions.
Fig. 2 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 2. Skull of Microcavia indicating the measurements used in this study. Refer to the text for measurement acronyms.
Fig. 5 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 5. Representation of P-gp expression (intensity units per total protein content) in P. acuta snails versus water temperature. P-gp levels in total snail homogenates positively correlates with water temperature (Spearman rs = 0.47, p = 0.002, n = 8).
Fig. 2 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 2. Seasonal variation of water temperature at sampling site. Bars represent the average value of water temperature recorded each month over an 18-month field study. The accumulation of RB has been also assessed in the presence and absence of 30 μM verapamil for each month. The calculated R-values (control /verapamil) were plotted on the accessory y-axis. No significant variations were observed between R-values (p> 0.05).
Fig. 4 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 4. Inmunodetection of P-gp in P. acuta snails using the anti-P-gp C219 antibody. (A) Expression of ~170 kDa and 220-240 kDa bands of P-gp was analysed on collection day and following a depuration period of 7 days by Western blot. The relative level of P-gp using α-tubulin as the internal control is represented in the bar graph. Data are given in intensity units and represent a mean ± SD from three separate experiments. (B) Calibration curve for dot blot analysis using C219 antibody. Upper panel: labeling of monoclonal antibody to increasing amounts of total protein from P. acuta homogenates (0.22, 0.44, 0.88, 1.75, 3.50 and 7.00 µg.µl-1 of protein). Bottom panel: Standard curve of intensity of the label for each dot. Data represent a mean ± SD from six separate experiments. The X-axis (µg.µl-1 of proteins) is on a log scale.
Fig. 9 in Zavreliella shidai Han & Liu & Luo & Tang 2021, sp. n.
Fig. 9. Dendrogram of unweighted pair-group method of averages of Mahalanobis distances among 10 geographic samples of Microcavia. For the acronyms see Materials and Methods.
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)
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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.