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150 results for “Apennines”
Figure 1 in Cryptic diversity of Italian bats and the role of the Apennine refugium in the phylogeography of the western Palaearctic
Figure 1. Minimum (pmin, light) and maximum (pmax, dark) genetic distances of mitochondrial sequence marker detected between bat populations from Italy and the rest of their western Palaearctic ranges measured as uncorrected p-distances. Species codes are as follows: MSC, Miniopterus schreibersii; MAL, Myotis alcathoe; NLE, Nyctalus leisleri; PKU, Pipistrellus kuhlii; REU, Rhinolophus euryale; MEM, Myotis emarginatus; RFE, Rhinolophus ferrumequinum; TTE, Tadarida teniotis; MMS, Myotis mystacinus; PAU, Plecotus auritus; PPI I, Pipistrellus pipistrellus clade I; ESE, Eptesicus serotinus; BBA, Barbastella barbastellus; HSA, Hypsugo savii; MDA, Myotis daubentonii; MBR, Myotis brandtii; MPU, Myotis punicus; MCA, Myotis capaccinii; MMY, Myotis myotis/blythii; MNA I, Myotis nattereri clade I; PPI II, Pipistrellus pipistrellus clade II; MBE, Myotis bechsteinii; MNA II, Myotis nattereri clade II (see also Fig. 2).
Distribution. Disjunct range, W fragment encompasses the Western Alps (Switzerland, NW Italy, and SE France) and the Apennine Mts of Italy as far S as Sila Massif; in the Balkans, E portion covers topographically broken landscape in SE Bosnia and Herzegovina, adjacent Dalmatia (Croatia), Montenegro, Kosovo, W Macedonia, Albania, and W Greece. in Talpidae
Distribution. Disjunct range, W fragment encompasses the Western Alps (Switzerland, NW Italy, and SE France) and the Apennine Mts of Italy as far S as Sila Massif; in the Balkans, E portion covers topographically broken landscape in SE Bosnia and Herzegovina, adjacent Dalmatia (Croatia), Montenegro, Kosovo, W Macedonia, Albania, and W Greece.
Subspecies and Distribution. M. m. marmota Linnaeus, 1758 — Alps in Germany, Austria, Switzerland, France, and Italy. M. m. latirostris Kratochvil, 1961 — High Tatra Mts of Slovakia and Poland. Nominate subspecies reintroduced to Romania (Carpathian Mts) and Slovenia (Julian Alps), and introduced into the Black Forest (Germany), the Massif Central, Jura, and Vosgues (France), the Pyrenees (France, Spain, and Andorra), E Austria, Apennine Mts (Italy), N Serbia, Montenegro. in Sciuridae
Subspecies and Distribution. M. m. marmota Linnaeus, 1758 — Alps in Germany, Austria, Switzerland, France, and Italy. M. m. latirostris Kratochvil, 1961 — High Tatra Mts of Slovakia and Poland. Nominate subspecies reintroduced to Romania (Carpathian Mts) and Slovenia (Julian Alps), and introduced into the Black Forest (Germany), the Massif Central, Jura, and Vosgues (France), the Pyrenees (France, Spain, and Andorra), E Austria, Apennine Mts (Italy), N Serbia, Montenegro.
On following pages: 4. Greater Striped Shrew (Sorex cylindricauda); 5. Lesser Striped Shrew (Sorex bedfordiae), 6. Radde's 9. Azumi Shrew (Sorex hosonoi): 10. Slender Shrew (Sorex gracillimus); 11. Laxmann's Shrew (Sorex caecutiens); 12. Shinto Shrew (Sorex sinalis): 16. Common Shrew (Sorex araneus); 17. Iberian Shrew (Sorex granarius); 18. Valais Shrew (Sorex Shrew (Sorex daphaenodon); 22. Gansu Shrew (Sorex cansulus); 23. Tundra Shrew (Sorex tundrensis); 24. Tian Shan Shrew (Sorex maritimensis): 28. Eurasian Pygmy Shrew (Sorex minutus); 29. Caucasian Pygmy Shrew (Sorex volnuchini); 30. 33. Trowbridge's Shrew (Sorex trowbridgii); 34. Arizona Shrew (Sorex arizonae); 35. Merriam's Shrew (Sorex merriami) 39. San Cristobal Shrew (Sorex cristobalensis); 40. McCarthy's Shrew (Sorex mccarthy); 41. Salvin's Shrew (Sorex salvini Shrew (Sorex raddei); 7. Flat-skulled Shrew (Sorex roboratus); 8. Eurasian Least Shrew (Sorex minutissimus); Shrew (Sorex shinto); 13. Taiga Shrew (Sorex isodon); 14. Long-clawed Shrew (Sorex unguiculatus); 15. Chinese antinori); 19. Crowned Shrew (Sorex coronatus); 20. Caucasian Shrew (Sorex satunini); 21. Siberian Large-toothed (Sorex aspen; 25. Apennine Shrew (Sorex samniticus); 26. Arctic Shrew (Sorex arcticus); 27. Maritime Shrew Buchara Shrew (Sorex buchariensis), 31. Tibetan Shrew (Sorex thibetanus); 32. Kashmir Shrew (Sorex planiceps);; 36. Alto Shrew (Sorex altoensis); 37. Jalisco Shrew (Sorex mediopua); 38. Saussure''s Shrew (Sorex saussurel);); 42. Sclater's Shrew (Sorex sclateri), 43. Pale-toothed Shrew (Sorex stizodon). in Soricidae
On following pages: 4. Greater Striped Shrew (Sorex cylindricauda); 5. Lesser Striped Shrew (Sorex bedfordiae), 6. Radde's 9. Azumi Shrew (Sorex hosonoi): 10. Slender Shrew (Sorex gracillimus); 11. Laxmann's Shrew (Sorex caecutiens); 12. Shinto Shrew (Sorex sinalis): 16. Common Shrew (Sorex araneus); 17. Iberian Shrew (Sorex granarius); 18. Valais Shrew (Sorex Shrew (Sorex daphaenodon); 22. Gansu Shrew (Sorex cansulus); 23. Tundra Shrew (Sorex tundrensis); 24. Tian Shan Shrew (Sorex maritimensis): 28. Eurasian Pygmy Shrew (Sorex minutus); 29. Caucasian Pygmy Shrew (Sorex volnuchini); 30. 33. Trowbridge's Shrew (Sorex trowbridgii); 34. Arizona Shrew (Sorex arizonae); 35. Merriam's Shrew (Sorex merriami) 39. San Cristobal Shrew (Sorex cristobalensis); 40. McCarthy's Shrew (Sorex mccarthy); 41. Salvin's Shrew (Sorex salvini Shrew (Sorex raddei); 7. Flat-skulled Shrew (Sorex roboratus); 8. Eurasian Least Shrew (Sorex minutissimus); Shrew (Sorex shinto); 13. Taiga Shrew (Sorex isodon); 14. Long-clawed Shrew (Sorex unguiculatus); 15. Chinese antinori); 19. Crowned Shrew (Sorex coronatus); 20. Caucasian Shrew (Sorex satunini); 21. Siberian Large-toothed (Sorex aspen; 25. Apennine Shrew (Sorex samniticus); 26. Arctic Shrew (Sorex arcticus); 27. Maritime Shrew Buchara Shrew (Sorex buchariensis), 31. Tibetan Shrew (Sorex thibetanus); 32. Kashmir Shrew (Sorex planiceps);; 36. Alto Shrew (Sorex altoensis); 37. Jalisco Shrew (Sorex mediopua); 38. Saussure''s Shrew (Sorex saussurel);); 42. Sclater's Shrew (Sorex sclateri), 43. Pale-toothed Shrew (Sorex stizodon).
Historical snowfall precipitation data in the Apennine Mountains, Italy
<p>This database includes a large collection of quality-controlled and homogenized historical snow records measured in the 1951-2001 period in the Central and Southern Apennine Mountains (Italy). Such data have been manually digitized from the Hydrological Yearbooks of the Italian National Hydrological and Mareographic Service (hereafter, NHMS), the institution that managed the hydro-meteorological data collection in Italy from 1917 to 2002. More specifically, the rescued dataset includes the monthly observations of three different variables:</p> <p>· The snow cover duration (SCD), which is defined as total number of days in a given month with snow depth on the ground >=1 cm. This variable is available for 110 stations between 288 and 1430 m above the sea level (ASL).</p> <p>· The number of days with snowfall (NDS), which is total number of days in a given month on which the accumulated snowfall (i.e. the amount of fresh snow with respect to the previous observations) is at least 1 cm. This variable is available for 114 stations between 288 and 1430 m ASL.</p> <p>· The height of new snow (HN), which is defined as the monthly amount of fresh snow (expressed in cm). The monthly value is intended as the sum of daily HN data observed in a determined month. This variable is available for 120 stations between 288 and 1750 m ASL.</p> <p>Note that for HN variable, the data availability is restricted to the period 1971-2001.</p> <p>The considered dataset has been subjected to an accurate quality control consisting of several statistical tests: the gross error test, which flags the data that are above or below acceptable physical limits, the consistency test, which involves an inter-variable check, and the tolerance test, which is focused on the outlier detection. In addition, the homogeneity of the rescued time series has been checked using Climatol method (Guijarro, 2018). The latter is based on the Standard Normal Homogeneity Test (Alexandersson, 1986) for the identification of the breaks and on a linear regression approach for the adjustments (Easterling and Peterson, 1995). Climatol has been also employed for the filling of missing values.</p> <p>The database is structured into three different folders (one for each variable). In a determined folder, the user finds two files, one containing the main information regarding the available stations (code, station name, latitude and longitude (in decimal degrees) and altitude ASL (in m)), the other one the monthly time series for the considered variable.</p> <p>Note that the original data sources of this database, the Hydrological Yearbooks of the NHMS, are freely accessible in printed version (i.e. as scanned images in portable document format) through the Italian Institute for Environmental Protection and Research (ISPRA) website (http://www.bio.isprambiente.it/annalipdf).</p> <p>Additional information about the data rescue processing can be found in the preprint “Historical snowfall measurements in the Central and Southern Apennine Mountains: climatology, variability and trend”, open for discussion in The Cryosphere journal (https://doi.org/10.5194/egusphere-2024-1056).</p> <p> </p> <p><strong>References</strong></p> <p>Alexandersson, H.: A homogeneity test applied to precipitation data, J. Climatol., 6, 661–675, 1986.</p> <p>Easterling, D. R. and Peterson, T.C.: A new method for detecting and adjusting for undocumented discontinuities in climatological time series, International Journal Climatol.,15, 369–377, https://doi.org/10.1002/joc.3370150403, 1995.</p> <p>Guijarro, J. A.: Homogenization of climatic series with Climatol, Climatol manual, https://www.climatol.eu/homog_climatolen.pdf (last access: 15 February 2024), 2018.</p>
Millennial slip-rates variability of along-strike active faults in the Italian Southern Apennines revealed by cosmogenic 36Cl dating of fault scarps
<p>Supporting information for "<span>Millennial slip-rates variability of along-strike active faults in the Italian Southern Apennines revealed by cosmogenic <sup>36</sup>Cl dating of fault scarps"</span></p>
FIGURE 6. A. Oxytropis ocrensis. B in A new species of Oxytropis (Fabaceae) from Central Apennines (Italy)
FIGURE 6. A. Oxytropis ocrensis. B. Inflorescence and leaf of O. ocrensis. C. O. ocrensis in the locus classicus.
FIGURE 3 in A new species of Oxytropis (Fabaceae) from Central Apennines (Italy)
FIGURE 3. Principal Component Analysis of flower features. O. ocrensis green and rhombus symbol; O. xerophila red and round symbol; O. halleri blue and square symbol; O. korabensis purple and triangle symbol.
FIGURE 1. Box plot for leaf and stem variables with p-value less than 0.0001 in A new species of Oxytropis (Fabaceae) from Central Apennines (Italy)
FIGURE 1. Box plot for leaf and stem variables with p-value less than 0.0001 in Kruskal-Wallis test. O.o.: Oxytropis ocrensis, O.h.: O. halleri, O.k.: O. korabensis; O.x.: O. xerophila.
FIGURE 4 in A new species of Oxytropis (Fabaceae) from Central Apennines (Italy)
FIGURE 4. Graph of Discriminant Analysis with representation of the first two factors. O. ocrensis green and rhombus symbol; O. xerophila red and round symbol; O. halleri blue and square symbol; O. korabensis purple and triangle symbol.
FIGURE 2. Box plot for leaf and stem variables with p-value less than 0.0001 in A new species of Oxytropis (Fabaceae) from Central Apennines (Italy)
FIGURE 2. Box plot for leaf and stem variables with p-value less than 0.0001 in Kruskal-Wallis test. O.o.: Oxytropis ocrensis, O.h.: O. halleri, O.k.: O. korabensis; O.x.: O. xerophila.
FIGURE 8 in New taxa of Hieracium (Asteraceae) from Mount Lesima and adjacent regions (Northern Apennine, Italy)
FIGURE 8. Single capitula of a: H. lesimanum, b: H. scopolii, c: H. scopolioides, d: H. umbrophilum, e: H. lachenalii subsp. zerbanum, f: H. prenanthoides subsp. penicense.
Figure 2 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 2. Skull of Pietraroiasuchus ormezzanoi (Lower Albian of Pietraroia, Italy) specimen PC-1 exposed in ventral aspect. A, photograph. B, illustration of the skull based on photographs of the specimen and drawn using Adobe Illustrator. Bottom left, magnified cervical centrum in posterior view.
Figure 10 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 10. Schematic drawing of the nuchal shield and dorsal armour of Pietraroiasuchus ormezzanoi up to the IXth dorsal row, based on specimen PC-2.
Figure 1. A in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 1. A, Pietraroiasuchus ormezzanoi from the Lower Albian of Pietraroia Plattenkalk (specimen PC-1). B, illustration of the skeleton based on photographs of the specimen and drawn using Adobe Illustrator. Fractures have been filled in grey. Fracture 1 is original; fracture 2 is a broken area that fits perfectly in the specimen, so the centrum on both sides of the fracture is the same element. Scale bar = 150 mm. Ant, anterior; post, posterior. The cartilaginous sternal ribs are depicted in light grey. Thoracic vertebrae 1–10.
Figure 4 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 4. Skull of Pietraroiasuchus ormezzanoi from the Lower Albian of Pietraroia (specimen PC-2). A, photograph. B, illustration of the skull based on photographs of the specimen and drawn using Adobe Illustrator.
Figure 8 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 8. Axial column of Pietraroiasuchus ormezzanoi. A, biconvex first caudal. B, lumbar vertebrae. C, thoracic vertebrae. Scale bar is in centimetres.
Figure 5 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 5. Photograph and interpretation of quadrate and quadratojugal in Pietraroiasuchus ormezzanoi.
Figure 9. A in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 9. A, anterior appendicular skeleton and pectoral girdle, composite figure photograph, and illustration of Pietraroiasuchus ormezzanoi. Coracoid is in internal view; humerus in ventral aspect; and scapula in internal view and note that its posterior edge is rectilinear. B, posterior appendicular skeleton and pelvic girdle, composite photograph and illustration.
Figure 11 in Early eusuchia crocodylomorpha from the vertebrate-rich Plattenkalk of Pietraroia (Lower Albian, southern Apennines, Italy)
Figure 11. Ventral osteoderms of Pietraroiasuchus ormezzanoi, specimen PC-1. The arrow points cranially.
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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)
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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OpenNeuro
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