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FIGURES 24–26 in Two new «nosed» species of the genus Megalothorax (Collembola: Neelidae) from Russia
FIGURES 24–26. Megalothorax processus sp. nov. and M. roseus sp. nov.: 24–25—antenna, dorsal (24) and ventral (25) views; 26—diagram of the chaetotaxy of the antenna for M. roseus and M. processus. Abbreviations as in Fig. 8.
FIGURES 2–6 in Two new «nosed» species of the genus Megalothorax (Collembola: Neelidae) from Russia
FIGURES 2–6. Megalothorax roseus sp. nov.:2—forehead, front view; 3—chaetae of labrum, front view; 4—labrum, labium, postlabial area, and maxillary palp; 5—head, dorsal view; 6—forehead, lateral view. Ant. —antenna, ia—inter-antennal position, a0—unpaired chaetae on forehead, sf—sensory field, pr.l.—pre-labral, pr.a.—pre-antennal, cl.a.—clypeal anterior, cl.m.—clypeal median, cl.p.—clypeal posterior, f.p.—frontal posterior, f.m.—frontal median, f.a.—frontal anterior, pa.p.p— postantennal posterior, pa.a.—postantennal anterior, mol—maxillary outer lobe, sh—possible location of sublobal hair, A–E: labial papillae, b,d,e—accessory papillae, H, h1, h2—hypostomal chaetae, f.p.w.—four papilla wart.
FIGURE 1 in Two new «nosed» species of the genus Megalothorax (Collembola: Neelidae) from Russia
FIGURE 1. Records of the two new species: black circles—M. roseus sp. nov., quadrates—M. processus sp. nov.
FIGURES 18–23 in Two new «nosed» species of the genus Megalothorax (Collembola: Neelidae) from Russia
FIGURES 18–23. Megalothorax processus sp. nov.: 18—chaetotaxy of forehead, front view; 19—maxillary outer lobe (mol) with one sublobal hair (sh); 20—labrum, front view; 21—labial palp; 22—head, dorsal view;23—forehead, lateral view. c.p.— cuticular process. Other abbreviations, as in Figs 2–6.
Habitat heterogeneity affects the thermal ecology of the federally endangered blunt-nosed leopard lizard 2019 data
<p>Global climate change is already contributing to the extirpation of numerous species worldwide, and sensitive species will continue to face challenges associated with rising temperatures throughout this century and beyond. It is especially important to evaluate the thermal ecology of endangered ectotherm species now so that mitigation measures can be taken as early as possible. A recent study of the thermal ecology of the federally endangered Blunt-Nosed Leopard Lizard (Gambelia sila) suggested that they face major activity restrictions due to thermal constraints in their desert habitat, but that large shade-providing shrubs act as thermal buffers to allow them to maintain surface activity without overheating. We replicated this study and also included a population of G. sila with no access to large shrubs to facilitate comparison of the thermal ecology of G. sila in shrubless and shrubbed populations. We found that G. sila without access to shrubs spent more time sheltering inside rodent burrows than lizards with access to shrubs, especially during the hot summer months. Lizards from a shrubbed population had higher midday body temperatures and therefore poorer thermoregulatory accuracy than G. sila from a shrubless population, suggesting that greater surface activity may represent a thermoregulatory tradeoff for G. sila. Lizards at both sites are currently constrained from using open, sunny microhabitats for much of the day during their short active seasons, and our projections suggest that climate change will exacerbate these restrictions and force G. sila to use rodent burrows for shelter even more than they do now, especially at sites without access to shrubs. The continued management of shrubs and of burrowing rodents at G. sila sites is therefore essential to the survival of this endangered species.</p>
Identifying volatile metabolite signatures for the diagnosis of bacterial respiratory tract infection using electronic nose technology: a pilot study
<p>Datasets for the <strong>Identifying volatile metabolite signatures for the diagnosis of bacterial respiratory tract infection using electronic nose technology: a pilot study. </strong></p>
Data and code for whole group tracking reveals that relatedness drives consistent subgrouping patterns in white-nosed coatis
<p>Three groups of wild white-nosed coatis were tracked with GPS collars between 2021 and 2023. Two groups (Galaxy and Trago) were tracked in Soberania National Park (SNP) (9° 12’ N, -79° 70’ W) and one group (Presidente) were tracked on Barro Colorado Island (BCI) (9° 16’ N, -79° 83’ W), Panama. Almost all group members were equipped with GPS collars that recorded one GPS fix every 10 minutes from 0600-1800 and 1 fix every hour from 1800-0600. Collars collected data for 15-21 days depending on the group. Adult males and one adult female from a different group were also collared during the Presidente collar period.</p> <p>Analysis was done in R, all scripts are in the coati_subgrouping_code folder, where there is a README file describing the code in more detail. Data are in the coati_subgrouping_data folder where there is a README describing the how the data are organised and structured. </p>
GC-MS Combined with Fast GC e-nose for the Analysis of Volatile Components of Chamomile (Matricaria chamomilla L.) - Supplementary Materials
Open the record for dataset details and reuse information.
Fig. 7 in Evolutionary and developmental aspects of phalangeal formula variation in pig-nose and soft-shelled turtles (Carettochelyidae and Trionychidae)
Fig. 7 Individual straight shell length versus phalangeal formula for the studied specimens of Pelodiscus sinensis
Fig. 4 in Evolutionary and developmental aspects of phalangeal formula variation in pig-nose and soft-shelled turtles (Carettochelyidae and Trionychidae)
Fig. 4 Phalangeal formula versus straight shell length for trionychid specimens analyzed (all species lumped together; only specimens with known straight shell length considered; data for manus and pes from 120 and 141 specimens, respectively). Horizontal wide lines =
Fig. 3 in Evolutionary and developmental aspects of phalangeal formula variation in pig-nose and soft-shelled turtles (Carettochelyidae and Trionychidae)
Fig. 3 Hyperphalangy charac- terizes trionychid but not carettochelyid turtles. Adult Carettochelys insculpta (MTD 30761) show elongated phalanges and the formula 2-3- 3-3-3 for both manus (a) and pes (b). In Cyclanorbis senegalensis the formula for the manus is 2-3-3-6-5 (c; MTD 44951) or 2-3-3-5-4 (d; MTD 39162). (e) Manus of Pelodiscus sinensis (MTD 30740), formula 2-3-3-5-5. The phalangeal formula for the pes is less variable; Lissemys punctata (MTD 32372) exhibits the formula most frequent in trionychids, 2-3-3-4-3 (f). Note that the trionychid phalanges of digits I and II are much more robust than those of the other digits, and that the terminal phalanges of digits IV and V can be very small. Roman numerals denote digits, Arabic numerals the number of phalanges of the labelled digit
FIGURE 2 in First record of Gauguin's blunt-nose lizardfish, Trachinocephalus gauguini Polanco, Acero & Betancur 2016 (Teleostei: Synodontidae) outside the Marquesas Archipelago
FIGURE 2. Distribution records of Trachinocephalus gauguini. Circle, occurrence described in Polanco et al. (2016); triangle, new record from Papua New Guinea (this study).
FIGURE 1 in First record of Gauguin's blunt-nose lizardfish, Trachinocephalus gauguini Polanco, Acero & Betancur 2016 (Teleostei: Synodontidae) outside the Marquesas Archipelago
FIGURE 1. Three Trachinocephalus specimens collected from Papua New Guinean waters. (A) T. gauguini, NTUM 11085, SL = 51.3 mm (B) T. gauguini, NTUM 11212, SL = 76.4 mm (C) T. trachinus, NTUM 11201, SL = 40.6 mm. (Photographed by J.-N. Chen).
FIGURE 4 in of patch-nosed snake (Colubridae: Salvadora Baird and Girard, 1853) from Oaxaca, Mexico
FIGURE 4. Geographic distribution of Salvadora gymnorhachis sp. nov. The star indicates the type locality, circles localities for paratypes.
FIGURE 5 in of patch-nosed snake (Colubridae: Salvadora Baird and Girard, 1853) from Oaxaca, Mexico
FIGURE 5. Molecular phylogenetic relationships of the genus Salvadora, based on ND4 mitochondrial gene, under the criterion of Maximun Likelihood (HKY+G model). Numbers under the nodes represent Maximum likelihood bootstrap support values.
FIGURE 3 in of patch-nosed snake (Colubridae: Salvadora Baird and Girard, 1853) from Oaxaca, Mexico
FIGURE 3. Habitat of Salvadora gymnorhachis sp. nov. A, type locality, pine-oak vegetation at 2060 m elevation. B, general view of the area at the type locality with habitat degradation (deforested areas, corn field and road), San Pedro y San Pablo Ayutla, Distrito Mixe, Oaxaca.
Research data supporting "Surface Enhanced Raman Scattering Artificial Nose for High Dimensionality Fingerprinting"
<p>Experimental raw research data supporting the publication: Kim N., Thomas M.R. et al., 2019, Nature Communications.</p>
Figure 2 in First record of Great Himalayan leaf-nosed bat, Hipposideros armiger (Hipposideridae) from Bangladesh
Figure 2: Image showing the supplementary nose-leaf and fleshy outgrowth of Hipposideros armiger captured from the cave in the Sadar Upazila subdistrict of Bandarban district, Bangladesh.
Figure 1 in First record of Great Himalayan leaf-nosed bat, Hipposideros armiger (Hipposideridae) from Bangladesh
Figure 1: Location of the cave in the Sadar Upazila subdistrict of Bandarban district, Bangladesh and global range of Hipposideros armiger according to Bates et al. (2020).
Figure 1 in First record of albinism in long-nosed mongoose Xenogale naso documented with camera traps in the Yoko Council Forest, Centre Cameroon
Figure 1: Map showing the camera trap stations with mongoose species in the Yoko Council Forest, Cameroon.
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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.