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18 results for “Isohypsibius”
FIGURE 1. A–E in Isohypsibius taibaiensis sp. nov. (Tardigrada, Hypsibiidae) from China
FIGURE 1. A–E, Isohypsibius taibaiensis sp. nov.: A, habitus showing the claws (holotype); B, habitus showing the buccopharyngeal apparatus (holotype); C, buccopharyngeal apparatus (holotype); D, claws on the third pair of legs (holotype); E, claws on the fourth pair of legs (holotype). (A–B: phase contrast). AB, scale bars =50µm; C–E, scale bars =10µm.
FIGURES 1–3. Thulinius itoi comb. nov. 1 in Thulinius itoi comb. nov. a new systematic position for Isohypsibius itoi (Tsurusaki, 1980) (Tardigrada: Eutardigrada: Hypsibiidae)
FIGURES 1–3. Thulinius itoi comb. nov. 1—buccal apparatus (lateral view, arrow indicates the peribuccal lamellae, note also the crest-shaped apophyses for the insertion of the stylet muscles), 2 —claws III (note lunules and accessory points), 3—claws III (arrowhead indicates the cuticular bar below the claws).
FIGURES 5–6 in Thulinius saltursus comb. nov.: a new systematic position for Isohypsibius saltursus Schuster, Toftner & Grigarick, 1978 (Eutardigrada: Hypsibiidae) and a key for the genus Thulinius
FIGURES 5–6. Thulinius saltursus comb. nov. (holotype). 5–6. III pair of legs; 7. IV pair of legs. Black arrows show the knob on the main branches of claws.
FIGURES 3–4 in Thulinius saltursus comb. nov.: a new systematic position for Isohypsibius saltursus Schuster, Toftner & Grigarick, 1978 (Eutardigrada: Hypsibiidae) and a key for the genus Thulinius
FIGURES 3–4. Thulinius saltursus comb. nov. (holotype). 3. Oral cavity armature; 4. Buccal-pharyngeal apparatus.
FIGURE 5. Isohypsibius baicalensis, A in A new species of Isohypsibiid (Eutardigrada) from Sicily
FIGURE 5. Isohypsibius baicalensis, A, Detail of the cuticular ornamentation. B, Bucco-pharyngeal apparatus. C, Claws of the second pairs of legs. D, Claws of the hind legs. Scale bars = 10 µm. The photographs of Isohypsibius baicalensis, were kindly furnished by Prof. Roberto Bertolani, from a specimen in the Ramazzotti Collection preserved in the Museum of Natural His- tory of Verona, who had kindly gave permission for the examination and photography.
FIGURE 1 in Isohypsibius qinlingensis sp. nov. (Tardigrada, Hypsibiidae) from China
FIGURE 1. Isohypsibius qinlingensis sp. nov.: A–B, habitus from dorsal view showing the gibbosities (holotype); C, buccopharyngeal apparatus (holotype); D, doubleclaws on the 2nd pair of legs (holotype); E, doubleclaws on the 4th pair of legs (holotype); F, stylet furca (paratype, slide number QL05002); G, cuticular sculpture (holotype). (A: phase contrast). A–B, scale bars = 30µm; C, scale bar = 10µm; D–G, scale bars = 5µm.
FIGURES 2932. Isohypsibius prosostomus Thulin, 1928. 29 – habitus. 30 in Water Bears (Tardigrada) of the Bieszczady Mountains (Poland, West Carpathians)
FIGURES 2932. Isohypsibius prosostomus Thulin, 1928. 29 – habitus. 30 – claws of IV pair of legs. 31 – buccal apparatus. 32 – exuvium with eggs.
Figure 1 in Establishment of an isogenic strain of the desiccationsensitive tardigrade Isohypsibius myrops (Parachela, Eutardigrada) and its life history traits
Figure 1. Graphical experimental scheme of the desiccation assay. In total, 29 or 30 tardigrades were dropped onto the filter paper and placed in the sealed desiccation chamber. The humidity in the chamber was controlled by the presence of saturated salt solution or water, which had no contact with the animals.
Figure 3 in Establishment of an isogenic strain of the desiccationsensitive tardigrade Isohypsibius myrops (Parachela, Eutardigrada) and its life history traits
Figure 3. Sensitivity of the Im1 strain to desiccation. Survival rates after exposure to various humidity conditions for 1 or 2 days. Mean ƚ SD (N = 4; 30 tardigrades each).
Figure 4 in Establishment of an isogenic strain of the desiccationsensitive tardigrade Isohypsibius myrops (Parachela, Eutardigrada) and its life history traits
Figure 4. Life history traits of Im1 strain. A, longevity of Im1 strain. B, hatching time after oviposition.
Figure 5 in Establishment of an isogenic strain of the desiccationsensitive tardigrade Isohypsibius myrops (Parachela, Eutardigrada) and its life history traits
Figure 5. Simulation of population change started with a single newly hatched juvenile of Im1 strain. Theoretical change in the population was simulated based on mean values of life history traits, such as hatching time = 3.6 days; first oviposition = 10.3 days; interval of ovipositions = 2.5 days; lifespan = 18.8 days; number of eggs per clutch = 19; hatchability = 83%.
Figure 2 in Establishment of an isogenic strain of the desiccationsensitive tardigrade Isohypsibius myrops (Parachela, Eutardigrada) and its life history traits
Figure 2. Specimens of cultured Im1 strain. A, live differential interference contrast (DIC) image of an adult individual. The specimen was largely transparent, making it easy to inspect the internal structures. B, dorsal view of the head region. Arrowheads indicate two fatty droplets. C, exuviae containing five embryos. The eggshell has a smooth surface. D, DIC image of the pharyngeal apparatus. Three macroplacoids were visible (ma1, ma2, ma3). No microplacoids were observed. E, DIC image of flattened preparation of the pharyngeal apparatus clearly showing separation of macroplacoids (ma1, ma2, ma3). Scale bars = 100 µm (A, C) and 20 µm (B, D, E). Anterior is left in all panels.
Figure 3 in First detailed observations on tardigrade mating behaviour and some aspects of the life history of Isohypsibius dastychi Pilato, Bertolani & Binda 1982 (Tardigrada, Isohypsibiidae)
Figure 3. Posterior half of male body. In all structures (indicated by arrows) spermatozoa are visible. A, testis; B, spermatic duct (second one not visible); C and D, seminal vesicles in the two spermatic ducts; E, cloaca.
Figure 2 in First detailed observations on tardigrade mating behaviour and some aspects of the life history of Isohypsibius dastychi Pilato, Bertolani & Binda 1982 (Tardigrada, Isohypsibiidae)
Figure 2. Mating position of Isohypsibius dastychi. The male (left) held the female (right) in the moulting stage, with eggs (in this case three) clearly visible in her ovary.
Figure 4 in First detailed observations on tardigrade mating behaviour and some aspects of the life history of Isohypsibius dastychi Pilato, Bertolani & Binda 1982 (Tardigrada, Isohypsibiidae)
Figure 4. Cloaca (indicated by arrow) of two individuals of Isohypsibius dastychi. The cuticle opens anteriorly. A, cuticle covering the cloaca is pushed towards posterior end of the animal. B, cuticle in the natural state. Scale bar = 10 µm.
Figure 1. A in First detailed observations on tardigrade mating behaviour and some aspects of the life history of Isohypsibius dastychi Pilato, Bertolani & Binda 1982 (Tardigrada, Isohypsibiidae)
Figure 1. A, average procedure of life events and generation time of Isohypsibius dastychi at two different temperatures, 12 and 20 °C (N12 °C = 21, N20 °C = 25). Squares and dotted lines indicate average hatching events at 12 and 20 °C, respectively. B, cumulative events of individual tardigrades becoming adults in dependence of age (days after egg deposition) at two different temperatures, 12 and 20 °C (N12 °C = 21, N20 °C = 25). C, comparison of age at sexual maturity of males and females from different clutches at two different temperatures (12 and 20 °C). Each dot stands for one animal reaching sexual maturity.
FIGURE 2 in Thulinius saltursus comb. nov.: a new systematic position for Isohypsibius saltursus Schuster, Toftner & Grigarick, 1978 (Eutardigrada: Hypsibiidae) and a key for the genus Thulinius
FIGURE 2. Thulinius saltursus comb. nov. (holotype). Habitus.
FIGURE 1 in Thulinius saltursus comb. nov.: a new systematic position for Isohypsibius saltursus Schuster, Toftner & Grigarick, 1978 (Eutardigrada: Hypsibiidae) and a key for the genus Thulinius
FIGURE 1. Map with distribution of all species of the genus Thulinius.
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