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1,723 results for “Alpine”
FIG. 1 in Rodents in grassland habitats: does livestock grazing matter? A comparison of two Alpine sites with different grazing histories
FIG. 1. — Simplified land use in the study area overlaid onto a topographic map. Sampling plots were located within the lightly grazed and in the intensively grazed areas. For the latter areas, in particular, plots were located in sites not used by cattle at present. Plot locations are approximate since we could not leave traps unattended between sessions, with the result that, for each session, plots were not exactly in the same locations as the one before.
Figure 2 in Comparisons of the alpine bird communities across habitats and between autumn and winter in the mid- Yalong Zangbo River valley, Tibet
Figure 2. Dominance–diversity curves of bird assemblages in different alpine habitats in a valley near Lhasa, Tibet.
Figure 1 in Comparisons of the alpine bird communities across habitats and between autumn and winter in the mid- Yalong Zangbo River valley, Tibet
Figure 1. The map shows the vegetation patterns of the study site, and its location and landscape type at a larger geographical scale.
Figure 3 in Comparisons of the alpine bird communities across habitats and between autumn and winter in the mid- Yalong Zangbo River valley, Tibet
Figure 3. Seasonal change of relative abundances of several selected species in alpine habitats (pooled data) in a valley near Lhasa, Tibet.
Speciation of a subterranean amphipod on the southern margin of the Alpine ice-shield
<p>Supplementary material comprising all the data used for the analyses in the "Speciation of a subterranean amphipod on the southern margin of the Alpine ice-shield " paper by Delić et al. 2021</p>
FIG. 7 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 7. — "Coluber" cf. caspioides from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a in lateral (l), dorsal (d), ventral (v), cranial (cr) and caudal (ca) views: A, cervical vertebra (BSPG 1997 XIII 520); B, middle trunk vertebra (BSPG 1997 XIII 533). Abbreviations: dia, diapophysis; pa, parapophysis; pctf, paracotylar foramen; pp, parapophyseal process; for other abbreviations, and see Figures 4 & 6. Scale bars: 2 mm.
FIG. 12 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 12. — Micrurus cf. gallicus from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a; trunk vertebra (BSPG 1997 XIII 642), in lateral (l), dorsal (d), ventral (v), and caudal (ca) views. Abbreviations: see Figures 4 & 6.
FIG. 11 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 11. — Natrix sp. (small form) from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a, in lateral (l), dorsal (d), ventral (v), and cranial (cr) views: A, anterior trunk vertebra (BSPG 1997 XIII 570); B, posterior trunk vertebra (BSPG 1997 XIII 578); C, trunk vertebra (BSPG 1997 XIII 592). Abbreviations: other abbreviations: see Figures 4, 6 & 7. Scale bars: 2 mm.
FIG. 2 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 2. — Digital elevation model of southern Germany (from Kuhlemann et al. 2006), indicating the geographic position of Griesbeckerzell.
FIG. 5 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 5. — cf. Bavarioboa sp. from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a. Anterior trunk vertebra (BSPG 1997 XIII 502) in lateral (l), dorsal (d), ventral (v), and cranial (cr) views. Abbreviations: see Figure 4. Scale bar: 2 mm.
FIG. 4 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 4. — Bavarioboa aff. hermi from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a in lateral (l), dorsal (d), ventral (v), cranial (cr), and caudal (ca) views: A, middle trunk vertebra (BSPG 1997 XIII 499); B, cloacal vertebra (BSPG 1997 XIII 501). Abbreviations:cd, condyle; ct, cotyle; hae, haemapophysis; hk, haemal keel; lf, lateral foramen; na, neural arch; nc, neural canal; ns, neural spine; pr, prezygapophysis; prf, prezygapophyseal articular facet; prp, prezygapophyseal process; po, postzygapophysis; pof, postzygapophyseal articular facet; scf, subcentral foramen; scr, subcentral ridge; syn, synapophysis; zy, zygosphene; zyg, zygantrum. Scale bar: 2 mm.
FIG. 10 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 10. — Texasophis cf. meini from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a; middle trunk vertebra (BSPG 1997 XIII 554), in lateral (l), dorsal (d), ventral (v), and cranial (cr) views. Abbreviations: see Figures 4 & 7. Scale bar: 2 mm.
FIG. 14.— A in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 14.— A, Vipera sp. ("Oriental vipers" group) or Daboia sp. from the Middle Miocene (late MN 5) of Griesbeckerzell 1b; trunk vertebra (BSPG 1997 XIII 646) in lateral (l), dorsal (d), ventral (v), cranial (cr), and caudal (ca) views; B, Vipera sp. ("Oriental vipers" group) from the Middle Miocene (MN 6, base) of the Griesbeckerzell 1a; trunk vertebra (BSPG 1997 XIII 656) in dorsal (d) ventral (v), and cranial (cr) views. Abbreviations: see Figures 4, 6, 7 & 13.
FIG. 13 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 13. — Elapidae indet. from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a; trunk vertebra (BSPG 1997 XIII 643) in lateral (l), dorsal (d), ventral (v), and caudal (ca) views. Abbreviations: scg, subcentral groove; other abbreviations: see Figure 4.
FIG. 8 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 8.— Coluber hungaricus (Bolkay, 1913) from the Middle Miocene (MN 6, base) of Griesbeckerzell 1a, in lateral (l), dorsal (d), ventral (v), cranial (cr) and caudal (ca) views: A, posterior cervical vertebra (BSPG 1997 XIII 541); B, middle trunk vertebra (BSPG 1997 XIII 547); C, posterior trunk vertebra (BSPG 1997 XIII 549). Abbreviations: see Figures 4, 6 & 7. Scale bars: 2 mm.
FIG. 3 in Snakes from Griesbeckerzell (Langhian, Early Badenian), North Alpine Foreland Basin (Germany), with comments on the evolution of snake faunas in Central Europe during the Miocene Climatic Optimum
FIG. 3. — Synoptical chart of the chronology for the Early to Middle Miocene lithostratigraphic units in the Bavarian part of the NAFB (modified from Abdul Aziz et al. 2010) and stratigraphic position of the Griesbeckerzell localities (*): 1, Marine Molasse; 2, Grimmelfingen beds; 3, Albstein; 4, Kirchberg Formation; 5, Sand-Kalkmergel-Serie and untere Bunte Mergel Serie; 6, Limnische Untere Serie; 7, NÖrdlicher Vollschotter, lower part; 8, Fluviatile Untere Serie; 9, NÖrdlicher Vollschotter, upper part; 10, Fluviatile Untere Serie; 11, Zwischenmergel; 12, NÖrdlicher Vollschotter, upper part; 13, GerÖllsand Serie; 14, Brock-horizon; 15, Sand-Mergel-Decke; 16, dated volcanic ash; 17, undated volcanic ash; 18, Lower Laimering Series, Ubergangsschichten; 19, Steinbalmensande.
Fig. 3 in Vegetation of Paektu Mt. alpine tundra and changes of species composition in its ecotone
Fig. 3. Numerical classification of 42 relevés (20 ✕ 20m) of alpine tundra and adjacent larch forest vegetation from Paektu Mt. (North Korea). JACCARD's coefficient and β-flexible clustering method was used (β= -0.25). Explanations: see page 7–8.
Fig. 6 in Vegetation of Paektu Mt. alpine tundra and changes of species composition in its ecotone
Fig. 6. Light-park larch forest (Rhododendro aurei-Laricetum olgensis) – ground layer contents species of alpine tundra, e.g. Rhododendron aureum, Bupleurum euphorbioides, and Juniperus sibirica (photo I. Jarolímek).
Fig. 5 in Vegetation of Paektu Mt. alpine tundra and changes of species composition in its ecotone
Fig. 5. Timber-line on Paektu Mt. – contact zone of alpine tundra and light-park larch forest (Rhododendro aurei-Laricetum olgensis) (photo I. Jarolímek).
Farm and regional levels' database used to test the effectiveness of slope and distance from buildings in approximating the pastoral site-use intensity of alpine pastures
<p>The excel file contains the two databases used in the paper “Slope and distance from buildings are easy-to-retrieve proxies for estimating livestock site-use intensity in alpine summer pastures” to test the effectiveness of slope and distance from buildings in approximating the pastoral site-use intensity of alpine pastures.</p> <p>The database in the ‘farm level’ sheet has been used to assess if slope and distance from buildings were good predictors of site-use intensity at farm level, i.e. the number of GPS locations counted within sample units was modelled as a function of the two proxies. Moreover, this database has been used to evaluate if the expected transition of Vegetation Ecological Groups (VEGs) from the shrub-encroached to the nitrophilous ones corresponded to a real site-use intensity gradient as represented by the stocking rates measured through GPS locations, i.e. by modelling the total number of GPS locations within sample units in function VEGs.</p> <p>The database in the ‘Regional level’ sheet has been used to evaluate if the five VEGs were effectively discriminated by distance from buildings and slope. Two models were performed by specifying either slope and distance from buildings as response variables and VEG as fixed factor.</p>
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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.
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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
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