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Fig. 5 in Eight Species Of Anuran Amphibians (Amphibia, Anura) Found In Ukraine: Comparative Morphology And Classification Of Larval Development Stages

Fig. 5. Stages defined according to the development of fingers and hind limb joints: 14 — the leg is in the shape of a shovel; 15 — embryos of two fingers; 16 — embryos of three fingers; 17 — embryos of four fingers; 18 — embryos of five fingers; 19 — embryos of three fingers are segregated; 20 — embryos of five fingers

Fig. 4 in Eight Species Of Anuran Amphibians (Amphibia, Anura) Found In Ukraine: Comparative Morphology And Classification Of Larval Development Stages

Fig. 4. Stages defined according to limb bud's length and diameter correlation: 9–l <1/2d; 10–l ≥ 1/2d; 11–l ≥ 1d; 12– l ≥ 11/2d; 13–l = 2d.

Fig. 3 in Eight Species Of Anuran Amphibians (Amphibia, Anura) Found In Ukraine: Comparative Morphology And Classification Of Larval Development Stages

Fig. 3. Stages of operculum's development: 6 — operculum touches the belly skin or accretes it, gills can be seen from both sides; 7 — operculum completely covers gills from one (right) side; 8 — external gills are completely covered by operculum.

Fig. 1 in Eight Species Of Anuran Amphibians (Amphibia, Anura) Found In Ukraine: Comparative Morphology And Classification Of Larval Development Stages

Fig. 1. Stages of external gills' development: 1 — external gills ridges get separated; 2 — gills branches embryos; 3 — emergence of gills filaments on external gills branches (filaments development may vary; operculum has not started developing yet).

Fig. 4 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas

Fig. 4. Ordination of 56 bird species on the first two canonical axes with biplot for key environmental variables derived from Euclidean distance. The ordination showed altitude, tree density, shrub density, canopy cover, and disturbance to be the environmental variables influencing distribution of bird in the study area.

Fig. 3 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas

Fig. 3. Species accumulation patterns of birds in five different habitat types of Sainj Valley, Himachal Pradesh. Estimated species richness Jackknife 1 is shown.

Fig. 1 in Hydro Power Development And Its Impacts On The Habitats And Diversity Of Montane Birds Of Western Himalayas

Fig. 1. Location map: a — location map of sampling sites in Sainj Valley of Western Himalayas; b — land use and land cover map of Sainj Valley-2010 (Jolli, 2014).

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Fig. 3 in Development Stability And Cytogenetic Homeostasis Of Perca Fluviatilis (Perciformes, Percidae) In The Rivers Of Rivne Region

Fig. 3. Comparison of Morphological and Cytogenetic Homeostasis Samples of P. fluviatilis in the Rivers of Rivne Region.

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Fig. 1 in Possible Ways Of Development Of The Breeding Bird Communities Of The Lower Dnipro

Fig. 1. The active coastal erosion and the initial stage of formation of the sandy beach (the upper reaches of the Kakhovka Reservoir, 2012).

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Fig. 1 in Development Stability And Cytogenetic Homeostasis Of Perca Fluviatilis (Perciformes, Percidae) In The Rivers Of Rivne Region

Fig. 1. Frequency of Nuclear Damages of P. fluviatilis Peripheral Blood Erythrocytes in the Rivers in Rivne Region: 1 — Styr River; 2 — Sluch River; 3 — Horyn River; 4 — Ustia River; 5 — Zamchysko River; 6 — Stubelka River; 7 — Ikva River.

Fig. 3 in An Investigation Of Embryo And Eggshell Development In Trichuris Suis (Nematoda, Trichuridae0 Under Laboratory Conditions

Fig. 3. Eggs of Trichuris suis at bean-like embryo stage of development: а — sampled from nematode gonads, 25th day of cultivation (×400); b — sampled from faeces of infected pigs, 20th day of cultivation (×450).

Fig. 5 in An Investigation Of Embryo And Eggshell Development In Trichuris Suis (Nematoda, Trichuridae0 Under Laboratory Conditions

Fig. 5. Infectious Trichuris suis egg: а — sampled from nematode gonads, 40th day of cultivation (×350); b — sampled from faeces of infected pigs, 30th day of cultivation (×450).

Fig. 1 in An Investigation Of Embryo And Eggshell Development In Trichuris Suis (Nematoda, Trichuridae0 Under Laboratory Conditions

Fig. 1. Eggs of Trichuris suis at the protoplast stage of development: a — sampled from nematode gonads: 1 — unformed, 2 — formed (×350); b — sampled from faeces of sick pigs (×450).

Fig. 2 in An Investigation Of Embryo And Eggshell Development In Trichuris Suis (Nematoda, Trichuridae0 Under Laboratory Conditions

Fig. 2. Eggs of Trichuris suis at blastomere cleavage stage of development: а — sampled from nematode gonads, 15th day of cultivation (×400); b — sampled from faeces of infected pigs, 10th day of cultivation (×500).

Fig. 4 in An Investigation Of Embryo And Eggshell Development In Trichuris Suis (Nematoda, Trichuridae0 Under Laboratory Conditions

Fig. 4. Eggs of Trichuris suis at the stage of developing larvae: а — sampled from nematode gonads, 30th day of cultivation (×300); b — sampled from faeces of infected pigs, 20th day of cultivation (×450).

Fig. 4 in The Development Of Olfactory Organ Of Lissotriton Vulgaris (Amphibia, Caudata)

Fig. 4. Cross-section of mature L. vulgaris head at the level of the anterior part of the nasal cavity. Legends: oc — nasal cavity; oe — olfactory epithelium; bc — buccal cavity; ld — lateral diverticulum; re — respiratory epithelium; nac — olfactory capsule; img — intermaxillary gland; Bg — Bowman's glands.

Fig. 5 in The Development Of Olfactory Organ Of Lissotriton Vulgaris (Amphibia, Caudata)

Fig. 5. Cross-section of mature L. vulgaris head at the level vomeronasal gland. L e g e n d s: oc — nasal cavity; oe — olfactory epithelium; ld — lateral diverticulum; re — respiratory epithelium; nac — olfactory capsule; nld — nasolacrimal duct, img — intermaxillary gland; Bg — Bowman's glands.

Fig. 6 in The Development Of Olfactory Organ Of Lissotriton Vulgaris (Amphibia, Caudata)

Fig. 6. Temporal morphogenesis of the L. vulgaris olfactory analyzer structures. L e g e n d s: OP — olfactory placode; OPI — olfactory pits; OS — olfactory sac; NC — nasal cavity; VNO — vomeronasal organ; RE — respiratory epithelium; VNG — vomeronasal gland; BG — Bowman's glands.

Fig. 3 in The Development Of Olfactory Organ Of Lissotriton Vulgaris (Amphibia, Caudata)

Fig. 3. Cross-section of the L. vulgaris larva head at the level of the nasal cavity (a) and vomeronasal organs (b): a — stage 47; b — stage 52. L e g e n d s: oc — nasal cavity; oe — olfactory epithelium; bc — buccal cavity; vno — vomeronasal organ; ct — trabecular lamina.

Fig. 1 in The Development Of Olfactory Organ Of Lissotriton Vulgaris (Amphibia, Caudata)

Fig. 1. Cross-section of the L. vulgaris larvae head at the level of the olfactory placode (a) and choanae (b): a — stage 33; b — stage 41. L e g e n d s: op — olfactory pits; e — eyes; nt — neural tube; nec — neurocoel; p — olfactory placode; ch — choanae; oe — olfactory epithelium; bc — buccal cavity; b — brain.