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Fig. 5 in Systematic relationships of the blind phacopine trilobite Trimerocephalus, with a new species from Causses-et-Veyran, Montagne Noire
Fig. 5. Scatter diagram of length (cm) versus width (cm) of cephalon and glabella in specimens of Trimerocephalus (Trifoliops) trifolius (Osmólska, 1958) subgen. nov, Trimerocephalus (Trifoliops) nigritus subgen. et sp. nov. and Trimerocephalus? trifolius, the specimen ilustrated (ZPAL Tr. D. I/16) by Osmólska in 1963.
Fig. 1 in Systematic relationships of the blind phacopine trilobite Trimerocephalus, with a new species from Causses-et-Veyran, Montagne Noire
Fig. 1. Location map of the old quarry of Concours−le−Haut at Causses−et−Veyran, in Montagne Noire, southern of the France.
Fig. 6 in Systematic relationships of the blind phacopine trilobite Trimerocephalus, with a new species from Causses-et-Veyran, Montagne Noire
Fig. 6. Trimerocephalus (Trifoliops) nigritus subgen. et sp. nov. Concours−le−Haut, Causses−et−Veyran, Montagne Noire, Famennian, Upper Devonian. Samples housed in the collection USTL/CC of the Laboratory of Paleontology of Montpellier (France). Photographs of calcareous shells. A. Cephalon, USTL/CC018, in dorsal (A1), frontal (A2), lateral (A3), and ventral (A4) views; × 3. B. Cephalon, USTL/CC019, in dorsal (B1) and lateral (B2) views; × 5. C. Cephalon, USTL/CC020, in dorsal (C1), ventral (C2), and lateral (C3) views; × 5. D. Cephalon, USTL/CC021, in dorsal (D1) and lateral (D2) views; × 10. E. Cephalon, USTL/CC022, in ventral view, × 5. F. Cephalon, USTL/CC023, in ventral view, × 5. G. Pygidium, USTL/CC024, in frontal (G1) and dorsal (G2) views; × 7. H. Pygidium, USTL/CC025, in dorsal (H1) and frontal (H2) views; × 5.
FIGURE 3 in A new species of Dactylolabis (Idiolabis) Alexander, 1931 from the Eocene Baltic amber and its relationships among Dactylolabinae (Diptera: Limoniidae)
FIGURE 3. Dactylolabis (Idiolabis) ryszardi sp. nov., No. MP/3321 (male), holotype (ISEA PAS). 1, head with palpi and basal segments of antennae; 2, hypopygium, dorsal view.
FIGURE 5 in A new species of Dactylolabis (Idiolabis) Alexander, 1931 from the Eocene Baltic amber and its relationships among Dactylolabinae (Diptera: Limoniidae)
FIGURE 5. Strict consensus tree of subgenera of the genus Dactylolabis. Filled circles indicate synapomorphies or autapomorphies; open circles indicate homoplasies or plesiomorphies. Extant taxa marked in grey, extinct taxa marked in black, new species noted in dark grey. Number of characterabove the circles, state of character below the circles. Range of clades marked in gray boxes on the right. Bootstrap values are given at the nodes.
FIGURE 2 in A new species of Dactylolabis (Idiolabis) Alexander, 1931 from the Eocene Baltic amber and its relationships among Dactylolabinae (Diptera: Limoniidae)
FIGURE 2. Dactylolabis (Idiolabis) ryszardi sp. nov., No. MP/3321 (male), holotype (ISEA PAS). 1, the body, latero-ventral view; 2, head and thorax with appendages.
FIGURE 4 in A new species of Dactylolabis (Idiolabis) Alexander, 1931 from the Eocene Baltic amber and its relationships among Dactylolabinae (Diptera: Limoniidae)
FIGURE 4. Preferred relationships tree of subgenera of the genus Dactylolabis. Filled circles indicate synapomorphies or autapomorphies; open circles indicate plesiomorphies. Extant taxa marked in grey, extinct taxa marked in black, new species noted in dark grey. Number of character above the circles, state of character below the circles. Range of clades marked in gray boxes on the right. Bootstrap values are given at the nodes.
FIGURE 1 in A new species of Dactylolabis (Idiolabis) Alexander, 1931 from the Eocene Baltic amber and its relationships among Dactylolabinae (Diptera: Limoniidae)
FIGURE 1. Dactylolabis (Idiolabis) ryszardi sp. nov., No. MP/3321 (male), holotype (ISEA PAS). 1, hypopygium (dorsal view); 2, palpus; 3, antenna; 4-5, wing venation; 4, well visible part of wing; 5, recontruction. Abbreviation of male hypopygium: gx – gonocoxite, gn – gonostylus, aed – aedeagus, p – paramere.
Fig. 5 in Diet and ecomorphological relationships of four cichlid species from the Cuiabá River basin
Fig. 5. Projections of the scores on axes 1 (PC1) and 2 (PC2) of the principal components analysis performed with values of the morphological attributes and food size consumed by four species of cichlids from the Cuiabá River basin, Mato Grosso, Brazil. Variance explained: PC1= 68.55%; PC2= 26.73%. Abbreviations are in Table 2. C. australis = Chaetobranchopsis australis; C. dimerus = Cichlasoma dimerus; C. vittata = Crenicichla vittata; S. pappaterra = Satanoperca pappaterra.
Fig. 4 in Diet and ecomorphological relationships of four cichlid species from the Cuiabá River basin
Fig. 4. Position and shape of the mouth, and first pair of gill raker of cichlids from the Cuiabá River basin, Mato Grosso, Brazil. Scale = 1 cm. (drawing by Gisele C. Novakowski).
Fig. 3 in Diet and ecomorphological relationships of four cichlid species from the Cuiabá River basin
Fig. 3. Dendrogram of Bray-Curtis dissimilarity for the trophic matrix (percentage of IAi of the food resources versus species) and morphologic matrix (RHM, SRGR, NGR, PM, RWM, DRG, OM versus species) of the cichlids of the Cuiabá River basin, Mato Grosso, Brazil. IAi = Feeding Index; RHM = Relative height of the mouth; SRGR = Relative size of the gill rakers; NGR = Number of gill rakers; PM = Protrusion of the mouth; RWM = Relative width of the mouth; DRG = Distance between gill rakers; OM = Orientation of the mouth. C. australis = Chaetobranchopsis australis; C. dimerus = Cichlasoma dimerus; C. vittata = Crenicichla vittata; S. pappaterra = Satanoperca pappaterra.
Fig. 1 in Diet and ecomorphological relationships of four cichlid species from the Cuiabá River basin
Fig. 1. Location of the Cuiabá River basin, Mato Grosso, Brazil, and the sampling sites: lotic (2, 3 and 4) and lentic (1, 5 and 6).
Fig. 2 in Diet and ecomorphological relationships of four cichlid species from the Cuiabá River basin
Fig. 2. Representation of ecomorphological measurements taken for four species of cichlids of the Cuiabá River basin, Mato Grosso, Brazil. OM = orientation of the mouth opening; HM = height of the mouth; WM = width of the mouth; DMO = distance from the anterior end of the jaw to anterior border of the eye, with the mouth open; DMC = distance from the end of the jaw to anterior border of the eye, with the mouth closed; LG = length of the gill; DGR = distance between the gill rakers; SL = standard length.
Fig. 10 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 10. Proximal tarsal bones of Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. Right calcaneus in lateral view (A) and stereopair in anterior view (B). Right astragalus in anterodorsal view (C) and stereopair in posterior view (D).
Fig. 11 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 11. Partial right tarsus of Dissacus zanabazari sp. nov., holotype, MAE− BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. A1, anterior view, A2, explanatory drawing of the same; B1, medial view, B2, explanatory drawing of the same.
Fig. 9 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 9. Anterior views of right femur (A) and right tibia and fibula (B) of Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene.
Fig. 8 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 8. Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. A. Lateral view of pelvis with lumbar and sacral vertebrae. B. Right femur in distal view.
Fig. 4 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 4. Mandible and lower dentition of Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. A. Anterior view of the lower canines and incisors. Note the weakly trilobed morphology, most evident on i2. B. Stereopair of the left mandible in dorsal view. C. Medial view of the left mandible. D. Lingual view of the left p4 through m3.
Fig. 3. A. Right P4 in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 3. A. Right P4 to M3 of Dissacus zanabazari sp. nov., holotype, MAE−BU−97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. B. Explanantory drawing of the same. Hatched areas in B indicate crushed and distorted enamel, and shading denotes missing enamel, with features reconstructed from left dentition.
Fig. 2. A in A new species of mesonychian mammal from the lower Eocene of Mongolia and its phylogenetic relationships
Fig. 2. A. Stereopair of the right basicranium of Dissacus zanabazari sp. nov., holotype, MAE−BU− 97−13786, Tsagaan Khushuu, Gobi Desert, Mongolia, early Eocene. B. Explanatory drawing of the same.
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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.