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884 results for “Israel”
Figure 1 in The Eldari tick Ixodes eldaricus (Acari: Ixodidae) in Israel: its occurrence, morphometric and biological characteristics
Figure 1. No of ticks collected in the survey area (vertical axis – No of ticks).
mR-PODCAST 2: Mit Philipp Oswalt zur Architekturmoderne in Israel und Palästina
<p>Der Nahe Osten gilt als Experimentierfeld der Moderne. Zwischen Bauhaus und Brutalismus entstanden hier bemerkenswerte Bauten. Ausgehend von den deutschen Wurzeln und der Entwicklung der Kibbuzim spricht der Architekt Philipp Oswalt – bis 2014 Direktor der Stiftung Bauhaus Dessau, heute Professor an der Universität Kassel – über die Besonderheiten der Nahost-Moderne. (Karin Berkemann, 30.8.23)</p> <p><em>Das Gespräch führte Karin Berkemann im Juli 2023 für den Tag des offenen Denkmals 2023.</em></p>
Masada Fortress - ISRAEL
Masada (Hebrew: מצדה metsada, "fortress") is an ancient fortification in the Southern District of Israel situated on top of an isolated rock plateau, akin to a mesa. It is located on the eastern edge of the Judaean Desert, overlooking the Dead Sea 20 km (12 mi) east of Arad. Herod the Great built two palaces for himself on the mountain and fortified Masada between 37 and 31 BCE. According to Josephus, the siege of Masada by Roman troops from 73 to 74 CE, at the end of the First Jewish–Roman War, ended in the mass suicide of the 960 Sicarii rebels who were hiding there. However, the archaeological evidence relevant to a mass suicide event is ambiguous at best and rejected entirely by some scholars. +Info : https://en.wikipedia.org/wiki/Masada Source: Objaverse 1.0 / Sketchfab
Safety, Immunogenicity and Efficacy of Shigella Conjugate Vaccines in 1-4 Year Olds in Israel
ClinicalTrials.gov study NCT00368316. IPD Sharing: Not stated. Countries: 1. Publications: 7.
Immunogenicity Trial of Recombinant Influenza Vaccine Among HCP in Israel
ClinicalTrials.gov study NCT04523324. IPD Sharing: NO. Countries: 1. Publications: 2.
Study of Ataluren for Previously Treated Participants With Nonsense Mutation Duchenne/Becker Muscular Dystrophy (nmDBMD) in Europe, Israel, Australia, and Canada
ClinicalTrials.gov study NCT01557400. IPD Sharing: NO. Countries: 10. Publications: 3.
A Study to Understand the Treatment Patterns and Patients and Their Clinical Outcomes Who Are Taking Palbociclib in a Real Life Setting in Israel.
ClinicalTrials.gov study NCT04671615. IPD Sharing: NO. Countries: 1. Publications: 1.
Subspecies and Distribution. . p. perforatus E. Geoffroy Saint-Hilaire, 1818 — Nile Valley in Egypt and N Sudan. . p. haedinusThomas, 1915 - Middle East (Israel, Arabian Peninsula, and S Iran) E to India, and E Africa from Djibouti to Kenya (including Lamu I) and Tanzania; it may also occur in Eritrea. . p. senegalensis Desmarest, 1820 - scattered localities in W Africa, from S Mauritania, Senegal, and Guinea-Bissau E to NW Nigeria and W Cameroon; it may occur in Guinea and Ivory Coast. . p. sudani Thomas, 1915 — C & S Sudan, South Sudan, Uganda, and S through the Congo Basin to N & E Botswana, S Zimbabwe, and NE South Africa in Emballonuridae
Subspecies and Distribution. . p. perforatus E. Geoffroy Saint-Hilaire, 1818 — Nile Valley in Egypt and N Sudan. . p. haedinusThomas, 1915 - Middle East (Israel, Arabian Peninsula, and S Iran) E to India, and E Africa from Djibouti to Kenya (including Lamu I) and Tanzania; it may also occur in Eritrea. . p. senegalensis Desmarest, 1820 - scattered localities in W Africa, from S Mauritania, Senegal, and Guinea-Bissau E to NW Nigeria and W Cameroon; it may occur in Guinea and Ivory Coast. . p. sudani Thomas, 1915 — C & S Sudan, South Sudan, Uganda, and S through the Congo Basin to N & E Botswana, S Zimbabwe, and NE South Africa
Subspecies and Distribution. R m. mehelyi Matschie, 1901 - S Europe (S Iberian Peninsula, Sardinia, E Sicily, SE Italy, S Albania, E Serbia, S Romania, E North Macedonia, Bulgaria, and Greece), SW Asia (Caucasus, Anatolia, N Iraq, and Zagros Mts in W Iran), and N Africa (N Morocco, N Algeria, and N Tunisia); possibly a record from SE France, and there are apparently records from Afghanistan, although exact localities are uncertain. R m. judaicus K. Andersen & Matschie, 1904 - Levant in Cyprus, N Syria, W Jordan, Israel, NE Egypt (including NW Sinai based on echolocation), and NE Libya. in Rhinolophidae
Subspecies and Distribution. R m. mehelyi Matschie, 1901 - S Europe (S Iberian Peninsula, Sardinia, E Sicily, SE Italy, S Albania, E Serbia, S Romania, E North Macedonia, Bulgaria, and Greece), SW Asia (Caucasus, Anatolia, N Iraq, and Zagros Mts in W Iran), and N Africa (N Morocco, N Algeria, and N Tunisia); possibly a record from SE France, and there are apparently records from Afghanistan, although exact localities are uncertain. R m. judaicus K. Andersen & Matschie, 1904 - Levant in Cyprus, N Syria, W Jordan, Israel, NE Egypt (including NW Sinai based on echolocation), and NE Libya.
FIGURE 4 in To be or not to be tchernovi: a taxonomic revision of the snake genus Micrelaps (Squamata: Serpentes), in Israel
FIGURE 4. Histograms of A. the number of dark bands and B. the mean ratio of width of dark to light bands for Israeli Micrelaps. Histograms are coloured based on classified morphologies: M. muelleri in black, M. tchernovi in yellow, and mixed pattern in blue. Horizontal dashed lines represent the positions of type specimens.
FIGURE 7 in To be or not to be tchernovi: a taxonomic revision of the snake genus Micrelaps (Squamata: Serpentes), in Israel
FIGURE 7. Phylogenetic trees of Micrelaps based on cytb sequences. Support values are indicated near the nodes (Bayesian posterior probabilities and ML bootstrap). Sample codes correlate to specimens in Table S2. Colours correspond to four classified colour patterns: M. muelleri in black, M. tchernovi in yellow, mixed in blue, and striped in green.
FIGURE 2 in To be or not to be tchernovi: a taxonomic revision of the snake genus Micrelaps (Squamata: Serpentes), in Israel
FIGURE 2. Examples of variability in morphology between Micrelaps specimens in the Steinhart Museum of Natural History. Colour pattern terminology after Werner et al. (2006): (A) specimen TAU.R19002, Ringed-Dark; (B) TAU.R18862, Other (semi-striped); (C) TAU.R16733, Ringed-Medium; (D) TAU.R1865, Saddled; (E) TAU.R9636, Saddled; Paratype of M. tchernovi; (F) TAU.R14647, Ringed-Medium; (G) TAU.R9544, Striped; (H) TAU.R15700, Ringed-Dark; (I) TAU.R16426, Striped. Not to scale: (J) HUJ.R16864, holotype of Micrelaps tchernovi; (K) NMBA 2129 paralectotype of M. muelleri.
FIGURE 1 in To be or not to be tchernovi: a taxonomic revision of the snake genus Micrelaps (Squamata: Serpentes), in Israel
FIGURE 1. The known distribution of M. muelleri (black) and M. tchernovi (yellow). The Northern part of M. muelleri's range is not shown. It is poorly understood, resting only on a single vague 1880's verbal report from Latakia, in western Syria (Lortet 1883), a 1952 specimen From "Syria… Tripolis" (presumably Tripoli, NW Lebanon; Battersby 1953), and a 1995 specimen from "10 km W of Qal'at al Hosn – Crac des Chevaliers; 300 m a.s.l." in SW Syria near the Lebanese border (Bischoff & Schmidtler 1997). The map is drawn based on our own observations, the scientific literature, and specimens in the collections of the Hebrew University of Jerusalem and the Steinhardt Museum of Natural History, Tel Aviv University.
FIGURE 5 in To be or not to be tchernovi: a taxonomic revision of the snake genus Micrelaps (Squamata: Serpentes), in Israel
FIGURE 5. Micrelaps colour patterns in Israel and the West Bank according to A. classification based on the descriptions in Werner et al. (2006) and our observations, and B. hierarchical clustering with k=3 clusters. Colours are based on classified colour pattern: M. muelleri in black, M. tchernovi in yellow, mixed pattern in blue, and in green striped or partially striped conforming to neither morphology (note this category only exists in panel A). Type specimens are marked as stars with a red outline.
Data from: Predicting the maximum earthquake magnitude from seismic data in Israel and its neighboring countries
This paper explores several data mining and time series analysis methods for predicting the magnitude of the largest seismic event in the next year based on the previously recorded seismic events in the same region. The methods are evaluated on a catalog of 9,042 earthquake events, which took place between 01/01/1983 and 31/12/2010 in the area of Israel and its neighboring countries. The data was obtained from the Geophysical Institute of Israel. Each earthquake record in the catalog is associated with one of 33 seismic regions. The data was cleaned by removing foreshocks and aftershocks. In our study, we have focused on ten most active regions, which account for more than 80% of the total number of earthquakes in the area. The goal is to predict whether the maximum earthquake magnitude in the following year will exceed the median of maximum yearly magnitudes in the same region. Since the analyzed catalog includes only 28 years of complete data, the last five annual records of each region (referring to the years 2006–2010) are kept for testing while using the previous annual records for training. The predictive features are based on the Gutenberg-Richter Ratio as well as on some new seismic indicators based on the moving averages of the number of earthquakes in each area. The new predictive features prove to be much more useful than the indicators traditionally used in the earthquake prediction literature. The most accurate result (AUC = 0.698) is reached by the Multi-Objective Info-Fuzzy Network (M-IFN) algorithm, which takes into account the association between two target variables: the number of earthquakes and the maximum earthquake magnitude during the same year.
Data from: Mitochondrial and morphological variation of Tilapia zillii in Israel
BACKGROUND: Tilapia zillii is widespread in the East Levant inland aquatic systems as well as in artificial water reservoirs. In this study we explore the genetic and morphological variation of this widespread species, using mitochondrial control-region sequences and meristic characters. We examine the hypothesis that T. zilli's population structure corresponds to the four Israeli aquatic systems. RESULTS: Out of seven natural water bodies, only two were found to possess genetically divergent populations of T. zillii. In addition to its presence in fish farms, the species was found in two artificial recreational ponds which were supposed to have been stocked only with other fish species. In these two artificial habitats, the haplotype frequencies diverged significantly from those of natural populations. Finally, fish from the Dead Sea springs of Ne'ot HaKikar appear to differ both genetically and morphologically from fish of the same aquatic system but not from fish of other water systems. CONCLUSIONS: Our results show that the population structure of T. zillii does not match the geography of the Israeli water-basins, with the exception of the Dead Sea and Kishon River, when considering natural populations only. The absence of a significant divergence between basins is discussed. Our results and observations suggest that the Ne'ot HaKikar Dead Sea population and those of artificial ponds could have originated from the "hitchhiking" of T. zillii, at the expense of some other cultivated tilapiine species.
Figure 5 in A survey of spider taxa new to Israel (Arachnida: Araneae)
Figure 5. Habitus and epigyne of Neon rayi from Turkey. – a. female habitus, dorsal; b. epigyne, ventral; c‒d. male habitus, dorsal and lateral.
Figure 4 in A survey of spider taxa new to Israel (Arachnida: Araneae)
Figure 4. Female of Phyxelida anatolica. – a. habitus, lateral; b. abdomen, ventral. Scale = 0.2 mm if not otherwise indicated.
Figure 3. Aulonia kratochvili from Azerbaijan. – a in A survey of spider taxa new to Israel (Arachnida: Araneae)
Figure 3. Aulonia kratochvili from Azerbaijan. – a. male palp, ventral; b. bulbus, anterior; c. epigyne, ventral. Scale = 0.1 mm.
Figure 1 in A survey of spider taxa new to Israel (Arachnida: Araneae)
Figure 1. Female of Maculoncus parvipalpus (a‒d) and expanded male palp of Ero flammeola (e‒g). – a. habitus, lateral; b. prosoma, anterior; c. abdomen, dorsal; d. epigyne, ventral; e. dorsal; f. lateral; g. ventral. Scale = 0.2 mm if not otherwise indicated.
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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.