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6,170 results for “european”
Figure 6 in Taxonomy and morphology of European pea crabs (Crustacea: Brachyura: Pinnotheridae)
Figure 6. Pinnotheres pectunculi from the dog cockle Glycymeris glycymeris. (A) Left chliped of female. Arrow points on small triangular tooth on the fixed finger; (B) pleon of male; (C) ventral view on left male first gonopod; (D) dorsal view on left male first gonopod.
Figure 3 in Taxonomy and morphology of European pea crabs (Crustacea: Brachyura: Pinnotheridae)
Figure 3. Female Nepinnotheres pinnotheres. (A) Dorsal view on female, carapace setose; (B) left cheliped with setose surface; (C) exterior surface of left maxilliped.
Figure 5 in Taxonomy and morphology of European pea crabs (Crustacea: Brachyura: Pinnotheridae)
Figure 5. Female of Pinnotheres pisum. (A) Dorsal view on female; (B) left cheliped with comb of setae; (C) exterior of left maxilliped.
Figure 2 in Taxonomy and morphology of European pea crabs (Crustacea: Brachyura: Pinnotheridae)
Figure 2. Male of Nepinnotheres pinnotheres. (A) dorsal view on male; (B) pleon, margin fringed with setae; (C) ventral view on left first gonopod; (D) dorsal view on left first gonopod.
Data from: Thermal differences between juveniles and adults increased over time in European forest trees
<p><span>Woody species' requirements and environmental sensitivity change from seedlings to adults, a process referred to as ontogenetic shift. Such shifts can be increased by climate change. To assess the changes in the difference of temperature experienced by seedlings and adults in the context of climate change, it is essential to have reliable climatic data over long periods that capture the thermal conditions experienced by the individuals throughout their life cycle. </span></p> <p><span>Here we used a unique cross-European database of 2195 pairs of resurveyed forest plots with a mean intercensus time interval of 37 years. We inferred macroclimatic temperature (free-air conditions above tree canopies – representative of the conditions experienced by adult trees) and microclimatic temperature (representative of the juvenile stage at the forest floor, inferred from the relationship between canopy cover, distance to the coast, and below-canopy temperature) at both surveys. We then address the long-term, large-scale, and multitaxa dynamics of the difference between the temperatures experienced by adults and juveniles of 25 temperate tree species.</span></p> <p><span>We found significant, but species-specific, variations in the perceived temperature (calculated from presence/absence data) between life stages during both surveys. Additionally, the difference of the temperature experienced by the adult versus juveniles significantly increased between surveys for eight of 25 species. We found evidence of a relationship between the difference of temperature experienced by juveniles and adults over time and one key functional trait (i.e. leaf area). Together, these results suggest that the temperatures experienced by adults vs juveniles became more decoupled over time for a subset of species, probably due to the combination of climate change and a recorded increase of canopy cover between the surveys resulting in higher rates of macroclimate than microclimate warming. </span></p> <p><span>Synthesis: We document warming and canopy-cover induced changes in the difference of the temperature experienced by juveniles and adults. These findings have implications for forest management adaptation to climate change such as the promotion of tree regeneration by creating suitable species-specific microclimatic conditions. Such adaptive management will help to mitigate the macroclimate changes in the understory layer.</span></p>
FIGURES 7–8 in The first indigenous species of the millipede genus Eurygyrus C.L. Koch, 1847 from the European mainland, with remarks on E. nicarius (Verhoeff, 1901) and E. euboeus (Verhoeff, 1901), and a key to the species of the genus (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 7–8. Eurygyrus euboeus (Verhoeff, 1901): 7—Head and anterior pleurotergites, lateral view; 8—telson, posterior view. Figs 9–10. Eurygyrus nicarius (Verhoeff, 1901): 9—Head and anterior pleurotergites, lateral view; 10—telson, posterior view.
FIGURES 1–6 in The first indigenous species of the millipede genus Eurygyrus C.L. Koch, 1847 from the European mainland, with remarks on E. nicarius (Verhoeff, 1901) and E. euboeus (Verhoeff, 1901), and a key to the species of the genus (Diplopoda: Callipodida: Schizopetalidae)
FIGURES 1–6. Eurygyrus peloponnesius sp.n.: 1—Head and anterior pleurotergites, lateral view; 2—7th leg, posterior view; 3—telson, posterior view; 4—gonopod, mesal view; 5—gonopod, lateral view; 6—apical part of gonopod, posterior view. Abbreviations, see text.
FIGURE 4 in Genetic and shell-shape analyses of Orlitia borneensis (Testudines: Geoemydidae) reveal limited divergence among founders of the European zoo population
FIGURE 4. PCA for plastron shape. Specimens are marked according to haplotype group. A—haplotype group 1, B—group 2, C—group 3, D—haplotype 61, U—unknown. The first axis PC1 explains 29.79% and second axis PC2 explains 14.14% of the total variance in the shapes.
FIGURE 3 in Genetic and shell-shape analyses of Orlitia borneensis (Testudines: Geoemydidae) reveal limited divergence among founders of the European zoo population
FIGURE 3. Bayesian skyline plot demonstrating changes in effective population size in Orlitia borneensis based on mitochondrial data. Thick solid line represents median of the estimate, borders of grey area delineate the highest 95% posterior density interval.
FIGURE 2 in Genetic and shell-shape analyses of Orlitia borneensis (Testudines: Geoemydidae) reveal limited divergence among founders of the European zoo population
FIGURE 2. Median-joining network indicating relationships among haplotypes of Orlitia borneensis based on cytochrome b sequences. Haplotypes are denoted as circles, their size is proportional to number of individuals carrying respective haplotype. Numbers at branches represent numbers of mutational steps (displayed for n> 1). Three main haplogroups are marked by ovals.
FIGURE 10 in Dichrorampha dinarica, new species, a century of confusion in European lepidopterology (Lepidoptera: Tortricidae) resolved by combining morphology and DNA barcoding
FIGURE 10. Neighbor Joining tree (Kimura 2 parameter, built with MEGA 5; cf. Tamura et al. 2011), only sequences (>600 bp) considered. Width of triangles represent sample size, depth the genetic variation within the cluster. Source: DNA Barcode data from BOLD (Barcode of Life Database, cf. Ratnasingham & Hebert 2007).
FIGURES 7–8 in Dichrorampha dinarica, new species, a century of confusion in European lepidopterology (Lepidoptera: Tortricidae) resolved by combining morphology and DNA barcoding
FIGURES 7–8. Male genitalia (everted vesica/cornuti) of Dichrorampha. 7, D. rilana Drenowsky; 8, D. dinarica sp. n., paratype. a, dorsal view of phallus; b, lateral (right) view of phallus; c, lateral view of cornutus; d, dorsal view of cornutus.
FIGURE 33. Notomasticola frondosus n. gen. et n in Copepods associated with polychaete worms in European seas
FIGURE 33. Notomasticola frondosus n. gen. et n. sp., holotype female. A, leg 2; B, leg 3; C, leg 4. Paratype female, D, habitus; E, F, maxillipeds. Scale bars: A, B, 0.05 mm; C, E, F, 0.02 mm; D, 0.5 mm.
FIGURE 32. Notomasticola frondosus n. gen. et n in Copepods associated with polychaete worms in European seas
FIGURE 32. Notomasticola frondosus n. gen. et n. sp., holotype female. A, habitus, dorsal; B, urosome, dorsal; C, left caudal ramus, dorsal; D, rostrum; E, antennule; F, antenna; G, labrum; H, mandible; I, maxillule; J, maxilla; K, leg 1. Scale bars: A, 0.5 mm; B, 0.1 mm; C, D, K, 0.05 mm; E–J, 0.02 mm.
FIGURE 30. Spiophanicola atlanticus n in Copepods associated with polychaete worms in European seas
FIGURE 30. Spiophanicola atlanticus n. sp. female. A, habitus, dorsal; B, posterior part of body, ventral; C, antennule; D, antenna; E, labrum, ventral; F, mandible, paragnath and maxillule; G, maxilla; H, maxilliped; I, leg 1; J, leg 5. Scale bars: A. 0.2 mm; B, 0.1 mm; C, D, H, J, 0.05 mm; E–G, I, 0.02 mm.
FIGURE 31. Spiophanicola atlanticus n in Copepods associated with polychaete worms in European seas
FIGURE 31. Spiophanicola atlanticus n. sp. female. A, leg 2, B, leg 3; C, leg 4. Scale bars: 0.02 mm for all.
FIGURE 27. Anomopsyllus geminus n in Copepods associated with polychaete worms in European seas
FIGURE 27. Anomopsyllus geminus n. sp., holotype female. A, habitus, dorsal; B, urosome, ventral; C, antennule; D, antenna; E, labrum; F, mandible; G, maxillule; H, maxilla; I, maxilliped; J, leg 1; K, leg 2; L, leg 3. Paratype female, M–O, legs 1–3. Scale bars: A, 0.2 mm; B, 0.05 mm; C–O, 0.02 mm.
FIGURE 25 in Copepods associated with polychaete worms in European seas
FIGURE 25. Sigecheres concinna (T. Scott, 1902) new combination, female. A, habitus, dorsal; B, abdomen, ventral; C, right caudal ramus, ventral; D, anterior part of cephalothorax, ventral; E, antennule; F, antenna; G, labrum, ventral; H, mandible; I, maxillule; J, maxilla; K, maxilliped. Scale bars: A, 0.2 mm; B, 0.1 mm; C, E–K, 0.02 mm; D, 0.05 mm.
FIGURE 24. Vivgottoia garwoodi n. gen. et n in Copepods associated with polychaete worms in European seas
FIGURE 24. Vivgottoia garwoodi n. gen. et n. sp., holotype female. A, leg 1; B, leg 2; C, leg 3; D, leg 4; E, leg 5. Scale bars: A–E, 0.02 mm.
FIGURE 26. Anomopsyllus bifurcus n in Copepods associated with polychaete worms in European seas
FIGURE 26. Anomopsyllus bifurcus n. sp., female. A, habitus, dorsal; B, cephalothorax, dorsal; C, urosome, ventral; D, antennule; E, antenna; F, mandible; G, maxillule; H, maxilla; I, maxilliped; J, leg 1; K, leg 2; L, leg 3. Scale bars: A, 0.2 mm; B, C, 0.1 mm; D–L, 0.02 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.