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Dataset results
16 results for “Rhacochelifer”
Fig. 4 in Rhacochelifer maculatus
Fig. 4. Bray-Curtis similarity plotted by two-dimensional non-metric multidimensional scaling (NMDS) showing the similarity in larval fish species diversity among all four stations of the Merbok River identified using the COI and 12S rRNA genes.
Fig. 1 in Rhacochelifer maculatus
Fig. 1. Merbok River with six sampling stations, divided into three zones: upper [St1: Lalang River (5°42'00.1"N 100°30'17.2"E), St2: Semeling River (5°41'14.0"N 100°28'41.6"E)], middle [St3.1: Keluang River (5°39'17.8"N 100°26'45.0"E) and St3.2: Teluk Wang River (5°38'00.9"N 100°25'56.6"E)] and lower [St4.1: Gelam River (5°38'38.4"N 100°25'00.0"E) and St4.2: Terus River (5°38'11.2"N 100°23'52.4"E)].
Fig. 3 in Rhacochelifer maculatus
Fig. 3. Venn diagram showing the families of bacteria shared between sharks. Blacktip sharks are represented in gray, bull sharks are represented in blue, and tiger sharks are represented in orange.
Fig. 1 in Rhacochelifer maculatus
Fig. 1. Location of all sampled sharks within the study. Bull (blue), tiger (orange), and blacktip (white) sharks were all encountered off the coast of Miami, Florida, United States. Map created with ArcGIS Pro.
Fig. 2 in Rhacochelifer maculatus
Fig. 2. Depiction of bacteria families found across tissue sites of each species: blacktip sharks (A), bull sharks (B), and tiger sharks (C). Pie charts are not proportional and only indicate presence of bacteria identified through DNA sequencing. (Blacktip shark animation from Wikimedia commons, bull and tiger animations by Kelly Quinn).
Fig. 2 in Rhacochelifer maculatus
Fig. 2. Egg production rate (EPR) of Acartia amboinensis fed with natural food and different concentrations of C. muelleri at different temperature regimes. Data from all five replicates are shown. The curves represent the best-fitting functional response model (Holling type II).
Fig. 5 in Rhacochelifer peculiaris
Fig. 5. Predicted future (suitable/stable – green, lost – red and gained – blue) habitats for Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in Eurasia. Future predictions under all four RCP scenarios (+2.5, +4.5, +6.0 and +8.5 W/m2) for the 2050s and 2070s.
Fig. 2 in Rhacochelifer peculiaris
Fig. 2. Model result of the potentially suitable ecological niches for Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in Eurasia during the last interglacial. The colour scale shows the probability of a suitable ecological niche.
Fig. 4 in Rhacochelifer peculiaris
Fig. 4. Model result of the potentially suitable ecological niches for Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in Eurasia during the Mid-Holocene. The colour scale shows the probability of a suitable ecological niche.
Fig. 1 in Rhacochelifer peculiaris
Fig. 1. Model result of a potentially suitable ecological niche for Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in Eurasia at present. Diamonds represent the currently known sites of occurrence of species. The colour scale shows the probability of a suitable ecological niche. Table 1. Model results of the AUC values for different periods
Fig. 3 in Rhacochelifer peculiaris
Fig. 3. Model result of the potentially suitable ecological niches for Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in Eurasia during the last glacial maximum. The colour scale shows the probability of a suitable ecological niche. The bright area shows the boundaries of the ice sheet.
Fig. 6 in Rhacochelifer peculiaris
Fig. 6. The percentage share of the representatives of Polymerus (Pachycentrum) carpathicus (Horváth, 1882) in the different biomes.
Fig. 7 in Rhacochelifer peculiaris
Fig. 7. Dorsal habitus and distribution of the examined species in Poland.
FIGURES 26–33. Rhacochelifer gaeli n in New species of Pseudoscorpiones (Arachnida) from tree hollows in a Mediterranean oak forest in Spain
FIGURES 26–33. Rhacochelifer gaeli n. sp., male holotype. 26, right chelicera; 27, right posterolateral corners of carapace and tergites I–IV; 28, right pedipalp, minus chela, dorsal view; 29, right chela, dorsal view; 30, right chelal fingers, antiaxial view (teeth omitted); 31, apex of fixed finger of right chela; 32, basal dentition of right chela; 33, tibia and tarsus of right leg I, antiaxial view. Abbreviations: gp, glandular pore; lms, lateromedial seta.
FIGURES 34–40. Rhacochelifer nonidezi n in New species of Pseudoscorpiones (Arachnida) from tree hollows in a Mediterranean oak forest in Spain
FIGURES 34–40. Rhacochelifer nonidezi n. sp., male holotype. 34, left chelicera; 35, galea of movable cheliceral finger of right chelicera, antiaxial view; 36, left hemitergites VI, with detail of seta ls; 37, left pedipalp, minus chela, dorsal view, with details of setae; 38, left chela, dorsal view; 39, fingers of left chela, antiaxial view; 40, tibia and tarsus of right leg I, antiaxial view. Abbreviations: ds, discal seta; gp, glandular pore; ls, lateral seta; ms, medial seta.
FIGURE 41. Rhacochelifer nonidezi n in New species of Pseudoscorpiones (Arachnida) from tree hollows in a Mediterranean oak forest in Spain
FIGURE 41. Rhacochelifer nonidezi n. sp., male holotype, genital area, ventral view. Abbreviations: fs, forked seta; is, internal seta; sc, statumen convolutum.
ScienceDex guides
Understand access before you commit
These curated guides explain access requirements, typical timelines, costs, and reuse considerations for widely used research datasets.
Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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