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84 results for “Holothuria”
FIGURE 4 in Holothuria (Lessonothuria) insignis Ludwig, 1875 (formally resurrected from synonymy of H. pardalis Selenka, 1867) and Holothuria (Lessonothuria) lineata Ludwig, 1875-new additions to the sea cucumber fauna of Pakistan, with a key to the subgenus Lessonothuria Deichmann (Echinodermata: Holothuroidea)
FIGURE 4. Holothuria (Lessonothuria) lineata Ludwig, 1875. Holo. 23. A. Ventral view; B. Dorsal view; C. Calcareous ring with tentacles; D. Tables of dorsal body wall; E. Buttons from body wall; F. End-plate from anal papillae; G. Plate from podium; H. Tentacle rods; I. Perforated rods from podia; J. Part of calcareous ring (single dorsal radial and adjoining interradial plates).
FIGURE 3 in Holothuria (Selenkothuria) carere, a new species of sea cucumber (Echinodermata: Holothuroidea) from the Mexican Pacific
FIGURE 3. Holothuria (Selenkothuria) carere n. sp. A. Rods from dorsal papillae; B. Rods from papillae at the base of the tentacles; C. Rods from anal papillae; D. Rods from tentacles.
FIGURE 1 in Holothuria (Selenkothuria) carere, a new species of sea cucumber (Echinodermata: Holothuroidea) from the Mexican Pacific
FIGURE 1. Holothuria (Selenkothuria) carere n. sp. Holotype, UNAM-ICML 5.179.0. Lateral view, dorsal papillae are evident. Total length 90 mm.
FIGURE 2. A. Madreporite and C. Calcareous ring from the holotype UNAM-ICML 5.179.0 in Holothuria (Selenkothuria) carere, a new species of sea cucumber (Echinodermata: Holothuroidea) from the Mexican Pacific
FIGURE 2. A. Madreporite and C. Calcareous ring from the holotype UNAM-ICML 5.179.0. Scale in A and B = 1 mm.
FIGURE 3 in Holothuria (Semperothuria) roseomaculata n. sp. (Aspidochirotida: Holothuriidae), a coral-reef inhabiting sea cucumber from the western Pacific Ocean
FIGURE 3. Global distribution of Holothuria (Semperothuria) roseomaculata n. sp. (red circles) and its sister species, H. (S.) flavomaculata (yellow circles). Grey circles indicate that at least one of these species has been reported from the locality, but that papillae colour has not been noted.
FIGURE 2 in Holothuria (Semperothuria) roseomaculata n. sp. (Aspidochirotida: Holothuriidae), a coral-reef inhabiting sea cucumber from the western Pacific Ocean
FIGURE 2. Ossicles of Holothuria (Semperothuria) roseomaculata n. sp. Holotype: (A) dorsal body wall tables, lateral and apical views; (B) ventral body wall tables, lateral and apical views; (C) dorsal body wall spiny rods; (D) ventral body wall spiny rods; (E) dorsal papillae smooth rod; (F) ventral tubefeet rods. Paratype: (G) dorsal body wall tables, lateral and apical views; (H) ventral body wall tables, lateral and apical views; (I) dorsal body wall spiny rods; (J) ventral body wall spiny rod; (K) dorsal papillae perforated rods; (L) ventral tubefeet plates. Scale bar = 100 μm. Photos by C. Brunson.
FIGURE 1 in Holothuria (Semperothuria) roseomaculata n. sp. (Aspidochirotida: Holothuriidae), a coral-reef inhabiting sea cucumber from the western Pacific Ocean
FIGURE 1. Holothuria (Semperothuria) roseomaculata n. sp. (A) Holotype UF5850 in situ. (B) Characteristic appearance when preserved. (C) U-shaped posture when disturbed. (D) Semi-cryptic habit with only anterior exposed. (E) Detail of anterior end. (F) Detail of fully extended dorsal papilla. Photos B and C by R. Clouse, D and E by E. Tardy.
FIGURE 3. A in Holothuria (Selenkothuria) parvispinea n. sp. (Echinodermata, Hololthuroidea, Holothuriidae) with key to the sub-genus Selenkothuria
FIGURE 3. A Calcareous ring (r: radial; ir: interradial); B: rods of dorsal body wall; C: rods of ventral body wall; D: rods of tentacles; E: rods from the retractor muscles of the cloaca.
Holothuria glaberrima SPAdes preassembly
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Holothuria glaberrima decontaminated FSCR
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Metis holothuriae decontaminated FSCR
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FIGURE 6 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 6. BI phylogenetic analysis for H. polii, H. sanctori, and different Mediterranean holothuroids is based on partial sequences of the 28S rDNA gene. Four Markov Chains Monte Carlo (MCMC) samples were analyzed for 10 million (ngen=10,000,000) generations. Bootstrap values are shown above the branches. Bold labels refer to sequences obtained in the current study for H. polii and H. sanctori.
FIGURE 3 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 3. Distribution of 28S rDNA-based genetic pairwise distances among different Mediterranean species obtained in the current study and available in the GenBank. (a): H. polii vs. Mediterranean holothuroids, (b) H. sanctori vs. the Mediterranean holothuroids.
FIGURE 5 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 5. BI phylogenetic analysis for H. polii, H. sanctori, and different Mediterranean holothuroids is based on partial sequences of the 16S rDNA gene. Four Markov Chains Monte Carlo (MCMC) samples were analyzed for 10 million (ngen=10,000,000) generations. Bootstrap values are shown above the branches. The abbreviation "Hap" denotes haplotype. Bold labels refer to sequences obtained in the current study for H. polii and H. sanctori.
FIGURE 2 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 2. Distribution of 16S rDNA-based genetic pairwise distances among different Mediterranean species obtained in the current study and available in the GenBank. (a): H. polii vs. Mediterranean holothuroids, (b) H. sanctori vs. the Mediterranean holothuroids. For the 28S rDNA, the genetic distance for H. polii was the lowest with H. forskali (0.01) but the highest with H. sanctori (1.08) (Fig. 2A). For H. sanctori, the lowest pairwise distance was with H. polii (1.08), while the highest was with P. longicauda (1.163) (Fig. 2B).
FIGURE 4 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 4. Distribution of H3-based genetic pairwise distances among different Mediterranean species obtained in the current study and available in the GenBank. (a): H. polii vs. Mediterranean holothuroids, (b) H. sanctori vs. the Mediterranean holothuroids.
FIGURE 7 in Comparing genetic markers' efficiencies for discrimination between two commercially important holothuroids in the Mediterranean Sea, Holothuria polii and Holothuria sanctori
FIGURE 7. BI phylogenetic analysis for H. polii, H. sanctori, and different Mediterranean holothuroids, based on partial sequences of H3 gene. Four Markov Chains Monte Carlo (MCMC) samples were analyzed for 10 million (ngen=10,000,000) generations. Bootstrap values are shown above the branches. Bold labels refer to sequences obtained in the current study for H. polii and H. sanctori.
Holothuria glaberrima decontaminated gx
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Metis holothuriae decontaminated gx
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FIGURE 10 in A revision of Holothuria (Halodeima) kefersteinii (Selenka, 1867) and the revival of Holothuria inornata Semper, 1868 from sea cucumbers collected in Mexico and Central America
FIGURE 10. Bayesian inference tree of the 16S mitochondrial gene of the specimens obtained for the present study. Numbers in nodes refer to posterior probability.
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