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FIGURE 2 in Additional morphological information on Dipteropeltis hirundo Calman, 1912, and a description of Dipteropeltis campanaformis n. sp. (Crustacea: Branchiura) from two characiform benthopelagic fish hosts from two Northern rivers of the Brazilian Amazon
FIGURE 2. Scanning electron micrographs of an egg bearing female Dipteropeltis hirundo (Paratype INPA 430i). (A) Ovoid respiratory area located on the ventral surface of the carapace. Dashed line drawn slightly outside of the structure, indicates the outline of the respiratory area. (B) Maxillule zone 1 (z1) consisting of folds in an erratic pattern. (C) Maxillule zone 2 (z2) round sclerites. (D) Sclerite of zone 2 with finite setules arranged on the surface. Scale bars: A, 500 µm; B, 10 µm; C, 20 µm; D, 5 µm.
FIGURE 1. Dipteropeltis hirundo. Paratype female BMNH 1892.10. 24. 2 in Additional morphological information on Dipteropeltis hirundo Calman, 1912, and a description of Dipteropeltis campanaformis n. sp. (Crustacea: Branchiura) from two characiform benthopelagic fish hosts from two Northern rivers of the Brazilian Amazon
FIGURE 1. Dipteropeltis hirundo. Paratype female BMNH 1892.10. 24. 2. (A) Dorsal view. AL = abdomen length, ASL = abdomen split length, ce = compound eye, CSL = carapace split length, ir = inter-ocular rods, ne = nauplius eye. (B) Ventral view. fr = furcal rami, HC = head to carapace lobe end, ma = maxilla, mo = mouth, mx = maxillule, SD = sucker diameter, sp = spermatheca. (C) The right maxillae. 1 = first segment, 2 = second segment, 3 = third segment, 4 = fourth segment, 5 = fifth segment, 6 = sixth segment. (D) The fourth left leg showing the natatory lobe. bp = basopodite, cx = coxa, en = endopodite, ex = exopodite, pc = precoxa, nl = natatory lobe. Scale bars: A, B, 2 mm; C, 400 µm; D, 200 µm.
Figure 5 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 5. Composition (% from abundance) of harpacticoids life forms in pelagic zone in different months (A), on different depths and shores of Prostor Bay (B).
Figure 2 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 2. Average intermonthly dynamics of weather conditions in the Prostor Bay 2013–2015 (sea surface temperature (SST) and storminess).
Figure 1. A in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 1. A. Map of Russian Far East with position of the Iturup Island; B. Map of Iturup Island with location of the Prostor Bay; C. four sampling transects in south-west part of the Prostor Bay. Black points – zooplankton sampling stations; white points – station of catching salmon fry.
Figure 4 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 4. Variations of harpacticoids species richness (A) and diversity (B) in pelagic zone at different depths and near different shores of Prostor Bay.
Figure 7 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 7. Composition (% of abundance) of diatoms from different life forms in harpacticoids diet in pelagic zone.
Figure 6 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 6. Harpacticoids dominance structure (% of abundance) in pelagic zone near southern (A) and western (B) shores of Prostor Bay.
Figure 3 in Harpacticoida (Copepoda) from the pelagic zone of the Sea of Okhotsk: diversity, spatiotemporal distribution, and role in benthopelagic coupling
Figure 3. The abundance of adults harpacticoids and copepodites in pelagic zone in different months (A) and on different depths (B).
FIGURE 9 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 9. Bathyconchoecia sp. nov. Atlantic "B" A and B, carapace in lateral and ventral views (detail of Fig. 3 in Angel & Graves 2013: Fig. 3E Bathyconchoecia n. sp. B, redrawn from Angel 2010, Fig. 1); C, scanning electron microscope image of one of the undescribed species of Bathyconchoecia captured during Cruise 0603 of the R.V. Ronald H. Brown. The length of this female specimen is 3.68 mm. Discovery station 9541#18 (from Angel 2010: Fig. 2); D, Bathyconchoecia n. sp. Atlantic 'B' Discovery Station 9541#22 (Fig. 11, G in Angel & Graves 2013).
FIGURE 8 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 8. Schornikovoecia eugenyi sp. nov. Carapace of A-1 juvenile (3.03 mm) in ventral view (St. 223/008-12; see Table).
FIGURE 7 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 7. Schornikovoecia eugenyi sp. nov. (Adult male: A–D, paratype MIMB 18357/4; E, F, paratype MIMB 18357/5). A, mandible; B, masticatory pad of mandible coxale; C, sixth limb; D, precoxal endite of sixth limb; E, caudal furca (claws are broken) and copulatory appendage (without microglass).
FIGURE 6 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 6. Schornikovoecia eugenyi sp. nov. (Adult male: A, B, D–F, H, J, paratype MIMB 18357/4; C, G, I, paratype MIMB 18357/5). A, left valve of carapace in lateral view; B, carapace in ventral view; C, first antenna; D, shaft of first antenna; E, distal part of first antenna; F and G, second and third (clasping organ) segments of endopodites of right and left second antenna; H, another view of right clasping organ (without setae); I, coxal endite of mandible; J, tooth edge and fused tooth lists of coxal endite of mandible.
FIGURE 5 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 5. Schornikovoecia eugenyi sp. nov. (Adult female: A–I, holotype). A, basal segment of fifth limb; B, endopodite of fifth limb; C, endopodite of fifth limb (most setae are not shown, except for the longest one (vestige of the exopodite) on the basal segment and the terminal setae); D, sixth limb; E, precoxal endite of sixth limb; F and G, right and left seventh limbs; H and I, right lamella of caudal furca and part of left one.
FIGURE 4 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 4. Schornikovoecia eugenyi sp. nov. (Adult female: A, B, D–F, holotype; C, paratype MIMB 18357/3). A and B, basal endite of mandible from inside and outside; C and D, coxal endite of mandible; E, maxilla (endites are not shown); F, proximal part of fifth limb.
FIGURE 2 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 2. Schornikovoecia eugenyi sp. nov. (Adult female: SO223/001-11, length 4.0 mm). A, carapace; B, sculpture pattern of carapace.
FIGURE 3 in Schornikovoecia eugenyi, a novel species and genus of deep benthopelagic halocyprids (Ostracoda, Myodocopa) from the North-west Pacific
FIGURE 3. Schornikovoecia eugenyi sp. nov. (Adult female: A, paratype MIMB 18357/2; B–G, holotype). A, right valve of carapace in lateral view; B and C, details of carapace: posterior dorsal corners in interior and exterior views; D, first antenna; E, distal part of first antenna; F, endopodite and first exopodite segment of second antenna; G, distal part of endopodite of second antenna.
Figure 3 in A new deep-sea benthopelagic chaetognath of the genus Bathyspadella (Chaetognatha) with ecological and molecular phylogenetic remarks
Figure 3. Molecular phylogenetic trees of chaetognaths based on (A) nuclear 18S rRNA and (B) mitochondrial 16S rRNA. Scale is units of expected substitution per site. Support values on each clade are Bayesian posterior probabilities. Accession numbers: Aidanosagitta crassa, D14363; Eukrohnia hamata (E. bathypelagica), DQ351886; Eukrohnia fowleri, DQ351889; Eukrohnia hamata, DQ351887, AB617779; Flaccisagitta enflata, DQ351877, AP011547; Krohnitta pacifica, DQ351879, DQ351891; Mesosagitta decipiens, DQ351881, AP011545; Parasagitta megalophthalma, DQ351878; Parasagitta setose, DQ351900; Parasagitta elegans, Z19551; Paraspadella gotoi, D14362, AY619710; Pseudosagitta lyra, DQ351880; DQ351892; Zonosagitta nagae, AP011545; Pterosagitta draco, DQ351885; Sagitta bipunctata, DQ351894, DQ351890; Serratosagitta tasmanica, DQ351893; Spadella cephaloptera, DQ351884, AY545549; Spadella ledoyeri, DQ351883, DQ351899; Xenokrohnia sorbei, DQ351888; Heterokrohnia davidi, AB617780, AB617781; Heterokrohnia longidentata, AB617782, AB617783; Bathyspadella oxydentata, AB617784, AB617785.
Figure 1 in A new deep-sea benthopelagic chaetognath of the genus Bathyspadella (Chaetognatha) with ecological and molecular phylogenetic remarks
Figure 1. Bathyspadella oxydentata sp. nov.: (A) Dorsal view; (B) dorsal view of head; (C) eye structure (arrow and arrowhead show boundary of eye structure; asterisk indicates the lens of the eye.); (D) seminal receptacle; (E) seminal vesicle; (F) spermatic duct. VG, ventral ganglion; SR, seminal receptacle; SD, spermatic duct; AG, apical grand cell complex; GC, gland canals.
Proteomic profiles of benthopelagic deep-sea copepods
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