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opencc-by-4.0Oct 2011View details →

Fig. 2 in Relationship Between Grazing Intensity, Vegetation Structure And Survival Of Nests In Semi-Natural Grasslands

Fig. 2. Grass height and vegetation cover (mean±SE) around predated and not predated (intact) artificial ground nests in Hungarian grasslands. (**: P <0.01; ***: P <0.001)

Figure 8 in Efficacy of a topical formulation containing esafoxolaner, eprinomectin and praziquantel (NexGard Combo ) against natural infestations with the cat louse, Felicola subrostratus under field conditions

Figure 8. Average score for clinical signs associated with lice in cats from Group 1 (NexGard Combo®).

Figure 9 in Efficacy of a topical formulation containing esafoxolaner, eprinomectin and praziquantel (NexGard Combo ) against natural infestations with the cat louse, Felicola subrostratus under field conditions

Figure 9. Average score for clinical signs associated with lice in cats from Group 2 (Frontline Combo®).

Figure 3 in Efficacy of a topical formulation containing esafoxolaner, eprinomectin and praziquantel (NexGard Combo ) against natural infestations with the cat louse, Felicola subrostratus under field conditions

Figure 3. Number of cats according to the clinical score for pruritus in Group 2 (Frontline Combo®).

Figure 5 in Efficacy of a topical formulation containing esafoxolaner, eprinomectin and praziquantel (NexGard Combo ) against natural infestations with the cat louse, Felicola subrostratus under field conditions

Figure 5. Number of cats according to the clinical score for hair loss in Group 2 (Frontline Combo®).

Figure 1 in Efficacy of a topical formulation containing esafoxolaner, eprinomectin and praziquantel (NexGard Combo ) against natural infestations with the cat louse, Felicola subrostratus under field conditions

Figure 1. Infestation with Felicola subrostratus in domestic cats. (a) Note the adult louse; (b) presence of adult louse and nits.

Fig. 2 in The Impacts of Crustacean Zooplankton on a Natural Ciliate Community: a Short-term Incubation Experiment

Fig. 2. The abundance and biomass of ciliate taxa in the four treatments. The samples were collected on days 1, 5, 10, and 15.

Fig. 5 in The Impacts of Crustacean Zooplankton on a Natural Ciliate Community: a Short-term Incubation Experiment

Fig. 5. Dynamics of some dominant ciliate species during the experiment. The samples were collected on days 1, 5, 10, and 15. *Padj <0.008333, **Padj <0.001667

Fig. 6 in The Impacts of Crustacean Zooplankton on a Natural Ciliate Community: a Short-term Incubation Experiment

Fig. 6. Microphotographs of some common ciliates stained with the QPS approach during the experiment. (a) Askenasia acrostomia, (b) Askenasia chlorelligera, (c) Balanion planctonicum, (d) and (e) Codonella cratera, (f) Pseudostrombidium planctonticum, (g) and (i) Rimostrombidium lacustris, (h) Tintinnidium pusillum, (j) Rimostrombidium hyalinum, (k) Rimostrombidium brachykinetum, (l) Urotricha farcta, (m) Halteria sp., (n) Cyclidium sp., (o) Pelagostrombidium mirabile, (p) Limnostrombidium viride. All photographs were taken with an Olympic DP73 digital camera mounted on an Olympic BX51 light microscope. Scale bar equals 10 μm.

Fig. 3 in The Impacts of Crustacean Zooplankton on a Natural Ciliate Community: a Short-term Incubation Experiment

Fig. 3. Ciliate abundance and biomass by classification of body size. Small, medium, and large ciliates refer to a ciliate biovolume of <3000, 3000–5000, and> 5000 μm3, respectively.

Fig. 1 in The Impacts of Crustacean Zooplankton on a Natural Ciliate Community: a Short-term Incubation Experiment

Fig. 1. The initial (d1) and final (d15) biomass of algae (a) and final abundance of rotifers (b) in the four treatments.

opencc-by-4.0Dec 2021View details →

Fig. 2 in Multi-Year Dynamics Of Faunistic Complexes Of Amphibian And Reptile In Natural And Transformed Ecosystems In Belarus

Fig. 2. Changes in the species composition and number of faunistic complexes of amphibians and reptiles in the long-term monitoring points on the site of a low-land bog transformed into farmland (drainage reclamation work was implemented in 2000) Notes: R.a. – Rana arvalis, R.t. – Rana temporaria, B.b. – Bufo bufo, P.e.c. – Pelophelaх esculentus complex, B.v. – Bufotes viridis, P.f. – Pelobates fuscus, L.v. – Lissotriton vulgaris, Z.v. – Zootoca vivipara, N.n. – Natrix natrix, V.b. – Vipera berus, L.a. – Lacerta agilis

opencc-by-4.0Dec 2021View details →

Fig. 1 in Multi-Year Dynamics Of Faunistic Complexes Of Amphibian And Reptile In Natural And Transformed Ecosystems In Belarus

Fig. 1. Options of long-term dynamics of herpetocomplex species diversity in regular monitoring sites in Belarus Notes: a-upland bog, natural reserve (stable state), b-floodplain meadow, poorly transformed territory (fluctuating dynamics), c-mixed coniferous-small-leaved forest, transformed landscape (unstable state)

opencc-by-4.0Dec 2018View details →

Fig. 3 in Naturalization Of Melanoides Tuberculata And Tarebia Granifera (Thiaridae, Gastropoda) M O L L U S K S U N D E R T H E H Y D R O E C O L O G I C A L Conditions Of Zaporizhzhya Npp Cooling Pond

Fig. 3. Percentage ratio of Thiaridae mollusks on concrete walls of the outflow channels of Zaporizhzhya NPP.

opencc-by-4.0Dec 2018View details →

Fig. 1 in Naturalization Of Melanoides Tuberculata And Tarebia Granifera (Thiaridae, Gastropoda) M O L L U S K S U N D E R T H E H Y D R O E C O L O G I C A L Conditions Of Zaporizhzhya Npp Cooling Pond

Fig. 1. Melanoides tuberculata and Tarebia granifera (Thiaridae, Gastropoda) in and its localities in Ukraine: 1 – the cooling pond of the Zaporizhzhya NPP (47°50'42″N; 35°56'89"E); 2 – cluster of mollusks on concrete walls of the channel of the nuclear power plant; 3 – accumulation of M. tuberculata on a stony substrate in the region of the discharge channel of the nuclear power plant, September 15, 2017; 4 – accumulation of M. tuberculata and T. granifera on reed roots.

opencc-by-4.0Dec 2018View details →

Fig. 1 in Bryophytes In The Southern Part Of Lielie Kangari Nature Reserve, Central Latvia

Fig. 1. The studied area in the southern part (marked) of Lielie Kangari Nature Reserve (delimited with a black line). Black point is studied area in Latvian map (upper left).

Fig. 2 in The Flora Of Vascular Plants In The Nature Reserve "Pašuliene Forest"

Fig. 2. Territory of the nature reserve "Pašuliene Forest" and vicinity in two-verst map published in 1833, issued in Russia (left), and in tophographical map of 1925, issued in Latvia (right).

opencc-by-4.0Dec 2016View details →

Fig. 6 in The First Experience In New Technologies Of Breeding And Semi-Natural Eggs Incubation Of Northern Emys Orbicularis In Glass-House Aquaculture In Latvia

Fig. 6. Temperature condition and different forms of behaviour, observed in the experiment for the first time.

opencc-by-4.0Dec 2016View details →

Fig. 1 in The First Experience In New Technologies Of Breeding And Semi-Natural Eggs Incubation Of Northern Emys Orbicularis In Glass-House Aquaculture In Latvia

Fig. 1. Scheme of the construction of the experimental glass-house: 1 – building of the Centre; 2 – filter and air compressor part; 3, 4, 5 – unused in the experiment parts of the basin; 6, 7 – experimental parts of the basin; 8, 9 – places for eggs-laying; two small red-yellow circles – A and B points of measurement of temperature on concrete shore and in water.