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56 results for “Pelophylax”
Fig. 2 in Macrophages And Pigment Cells In The Liver Of Pelophylax Ridibundus (Anura)
Fig. 2. Mitosis in the precursor cell of the macrophage line (A) and macrophages of varying degrees of maturity (B, C, D, E, F) on the smears of the frog lake liver. Coloring according to Pappenheim, x900.
Fig. 3 in Size-At-Age Variability And Sexual Dimorphism Of Morphometric Characteristics In The Late Ontogenesis Of The Marsh Frog, Pelophylax Ridibundus (Anura, Ranidae), From Terrytory Of Crimea
Fig. 3. The differentiation of males (А) and females (B) of the marsh frog according to the absolute values of the body measurements.
Fig. 2 in Size-At-Age Variability And Sexual Dimorphism Of Morphometric Characteristics In The Late Ontogenesis Of The Marsh Frog, Pelophylax Ridibundus (Anura, Ranidae), From Terrytory Of Crimea
Fig. 2. Micrographs of cross- sections through the middle part of the diaphysis of the fifth phalange of the fourth toe of frogs: a, b, c, d, e — the arrow indicates the lines that correspond wintering 1–5.
Fig. 1 in Pecular Features Of Hematopoiesis In The Liver Of Mature And Immature Green Frogs (Pelophylax Esculentus Complex)
Fig. 1. Smear-imprint of the liver of immature green frog: a — pigment cells; b — erythroblasts; c — undifferentiated blast, erythroblast and eosinophilicmyelocyte; d — erythroblast and medullocell neutrophil. Pappenheim staining, ×200.
Fig. 2 in Variability Of Structural And Biomechanical Parameters Of Pelophylax Esculentus (Amphibia, Anura) Limb Bones
Fig. 2. Coefficients of variation (CV) of morphometric and biomechanical parameters of P. esculentus limbs' long bones (1 — humeral; 2 — forearm bone; 3 — femoral; 4 — crural bone).
Fig. 1 in Variability Of Structural And Biomechanical Parameters Of Pelophylax Esculentus (Amphibia, Anura) Limb Bones
Fig. 1. Shaft's cross-sectional shape of P. esculentus long bones: А — humeral; B — forearm; C — femoral; D — crural (d — dorsal mark; m — medial mark; Imax — maximum moment of inertia axis; Imin — minimum moment of inertia axis).
Figure 1. Frogs were collected from 3 in A procedure for taxon assessment based on morphological variation in European water frogs (Pelophylax esculentus complex)
Figure 1. Frogs were collected from 3 different localities in South Banat, Serbia: 1) Stevanove ravnice, within the Special Nature Reserve "Deliblatska peščara" (44°49′57.8″N 21°18′33.1″E, 44°50′14.3″N 21°18′14.0″E), 2) Canal Banatska Palanka – Novi Becej (44°51′14.4″N 21°18′17.8″E).; 3) Canal Jaruga in the peripheral zone of the protected natural landscape "Karaš-Nera" (44°52′30.8″N 21°28′16.0″E).
Figure 2b in A procedure for taxon assessment based on morphological variation in European water frogs (Pelophylax esculentus complex)
Figure 2b. Individual scores resulting from FAMD plotted on the first 2 dimensions. Clusters derived from the hierarchical clustering on principle components (HCPC) are superimposed onto the ordination.
Fig. 3 in Climate change and the fate of endemic Beyşehir Frog, Pelophylax caralitanus
Fig. 3. Current climatic habitat suitability map (A) and the eight RCP climatic change scenario maps for P. caralitanus based on RCP 2.6 (B–C), RCP 4.5 (D–E), RCP 6.0 (F–G), and RCP 8.5 (H–I) for either 2050 or 2070 as indicated.
Fig. 2 in Climate change and the fate of endemic Beyşehir Frog, Pelophylax caralitanus
Fig. 2. Variables with the highest contributions to the potential distribution of P. caralitanus according to MAXENT with the standard errors in blue. The Y-axis indicates the probability of presence (based on the Cloglog, or complementary log-log transform, values) and the X-axis shows the contribution of each variable.
Figure 1 in Histological and histochemical study on the mesonephric kidney of Pelophylax bedriagae (Anura: Ranidae)
Figure 1. Light microscopic view of the kidney of P. bedriagae. A) Simple squamous epithelium of the parietal layer of Bowman's capsule (black arrow), podocytes in the visceral layer of Bowman's capsule (red arrow), Bowman's space (*), glomerulus (G). B) Proximal tubule (PT), distal tubule (DT), glomerulus (G). C) Collecting duct (ellipse), melanomacrophages in the kidney parenchyma (black arrow). D) The localization of HA mainly in the interstitium surrounding the collecting ducts.
Figure 6 in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 6. Other erythrocytic abnormalities: A- IE; immature erythrocyte (arrow), B- ME; mitotic erythrocyte (arrow), C- EE; enucleated erythrocyte (arrow), D- PE; picnotic erythrocyte (arrow), Giemsa.
Figure 4 in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 4. Erythrocytic nuclear abnormalities (2. and 3. stations). A- Bud nucleus (arrow), B- Blebbed nuclei (arrows), C- Kidney shaped nuclei (arrows), D- Binucleated erythrocyte (arrow). Giemsa.
Figure 5 in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 5. Cellular abnormalities of P. ridibundus (3. Station) A- Vacuolized erythrocytes (arrows), B- Erythrocytes with distorted elliptical shape (arrows). Giemsa.
Figure 3 in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 3. The erythrocytes of P. ridibundus. A- Normal erythrocyte (arrow) (1. station), B–D- Erythrocytic nuclear abnormalities (2. and 3. stations); B- Micronucleus (arrow), C- Lobed nucleus (arrow), D- Notched nuclei (arrows). Giemsa.
Figure 2. A in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 2. A- Normal symmetry of the frogs, symmetry line (arrow), (1. station). B- Abnormal symmetry of the frogs, radioulna spot (a), dorsal spots (b), femur spots (c), and tibia spot (d) asymmetries, (2. station). C- Abnormal symmetry of the frogs, femur spot (a), dorsal spots (b), and tarsus spot (c) asymmetries, (3. station). D- Asymmetry in the frog's dorsal midline (arrow) (3. station). SVL: 6,2 cm.
Figure 1. The sampling stations. 1 in The morphometric and erythrometric analyses of Pelophylax ridibundus living in anthropogenic pollution resources
Figure 1. The sampling stations. 1st station (Dereboğazı); Erzurum-Dereboğazı Village, 28.6 km. 2nd Station (Adaçay); Erzurum- Adaçay, 15.7 km. 3rd station (Erzurum State Airport Square); Erzurum-Airport, 12 km (red square; centrum).
Figure 1 in Using of fluctuating asymmetry in adult Pelophylax ridibundus (Amphibia: Anura: Ranidae) meristic traits as a method for assessing developmental stability of population and environmental quality of their habitat: industrial area in southern Bulgaria
Figure 1. An indicative map of the sites in southern Bulgaria where P. ridibundus individuals were captured in 2019.
Figure 2 in Using of fluctuating asymmetry in adult Pelophylax ridibundus (Amphibia: Anura: Ranidae) meristic traits as a method for assessing developmental stability of population and environmental quality of their habitat: industrial area in southern Bulgaria
Figure 2. Photos of some asymmetric P. ridibundus individuals from site 1: the Chaya River in southern Bulgaria. Legend: a–d: asymmetric morphological traits on the back of the body and hind limbs of frogs, e–f: asymmetric morphological traits on the fingers of frogs. Trait 1 – number of stripes on the dorsal side of the thigh (femur); trait 2 – number of spots on the dorsal side of the thigh; trait 3 – number of stripes on the dorsal side of the shank (crus); trait 4 – number of spots on the dorsal side of the shank; trait 5 – number of stripes on the foot (pes); trait 6 – number of spots on the foot; trait 7 – number of stripes and spots on the back (dorsum); trait 8 – number of white spots on the ventral side of the second finger of the hind leg; trait 9 – number of white spots on the ventral side of the third finger of the hind leg; trait 10 – number of white spots on the ventral side of the fourth finger of the hind leg.
Figure 1 in Assessing population size and survival rate of Pelophylax bedriagae caralitanus, in a well-protected Nature Park in Türkiye
Figure 1. Location of Gölcük Nature Park Isparta, Türkiye and satellite view of Gölcük Lake, where Capture-Mark-Recapture studies were carried out.
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