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58 results for “Remipedia”
FIGURE 2. Speleonectes cokei n in Speleonectes cokei, new species of Remipedia (Crustacea: Speleonectidae) from a submerged ocean cave near Caye Chapel, Belize
FIGURE 2. Speleonectes cokei n. sp. A. Maxilla 1. B. Claw complex on terminus of maxilla 2. C. Maxilla 2. D. Endite on segment 1, maxilla 2.
FIGURE 1. Speleonectes cokei n in Speleonectes cokei, new species of Remipedia (Crustacea: Speleonectidae) from a submerged ocean cave near Caye Chapel, Belize
FIGURE 1. Speleonectes cokei n. sp. A. Maxilliped. B. Antenna 1. C. Antenna 2. D. Left mandible. E. Right mandible.
Fig. 6 in How might sea level change affect arthropod biodiversity in anchialine caves: a comparison of Remipedia and Atyidae taxa (Arthropoda: Altocrustacea)
Fig. 6 Profile of cave networks in a karst platform with a steep shelf at left and shallow shelf at right. (a) Past glacial maximum (18 kya), (b) current sea level. Double arrows represent vertical connections between horizontal cave passages. Dashed lines represent upper layers of meteoric groundwater and marine layers, which change as sea level rises from (a) -120 m to (b) 0 m, creating variation in connectivity of cave passage. On the edges of continental plates (left side of diagram), passages remain vertically connected throughout the rock profile as sea level falls. On more gradual slopes (right side of diagram), vertical connections are less common, causing breaks in anchialine cave networks as sea level falls
Fig. 1 in How might sea level change affect arthropod biodiversity in anchialine caves: a comparison of Remipedia and Atyidae taxa (Arthropoda: Altocrustacea)
Fig. 1 Remipede species richness in (a) the Caribbean, (b) Canary Islands, (c) Western Australia, and (d) global richness. Species richness by cave correlates with size of white circles. For (d), only the caves with the highest richness in the region are shown. The present-day coastlines are outlined in black, and the land masses exposed 18 kya are illustrated
FIGURE 7 in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 7. Vertical profiles in Cenote Crustacea. The dashed line represents the eastern (Speleonectes tulumensis Yager, 1987) side of Cenote Crustacea and the solid line the western (S. fuchscockburni n. sp.) side. A, salinity. B, temperature. C, pH. D, dissolved oxygen. Individual measurements were taken at two-second intervals between the surface and maximum depth.
FIGURE 6. Speleonectes fuchscockburni n in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 6. Speleonectes fuchscockburni n. sp. A–B, paratype 3, SEM micrographs. A, ventrolateral view of head. B, terminal claw complex of maxilla. Adr = antennule, dorsal ramus; Avr = antennule, ventral ramus; d = denticles of terminal claw; ff = frontal filaments; hs = head shield; htc = horseshoe-type terminal claw; mx = maxilla; mxl = maxillule; mxp = maxilliped; sp = sternal plate; tp = thumb-like pad with setae.
FIGURE 3. Speleonectes fuchscockburni n in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 3. Speleonectes fuchscockburni n. sp. A, holotype, B–E, paratype 1 (12 mm). A, dorsal view of head shield and trunk segments 1–4. B, natatory limb of trunk segment 1. C, short serrate corner seta of trunk limbs (freehand drawing). D, natatory limb of trunk segment 14. E, anal somite with caudal rami. Scale bars: A = 0.3 mm; B–D, E = 0.1 mm. Continuous lines were used to outline articulated structures such as segments and setae, dotted lines to indicate covered structures, and dashed lines for the reconstruction of structures that were damaged during dissection.
FIGURE 5. Speleonectes fuchscockburni n in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 5. Speleonectes fuchscockburni n. sp. A–F, paratype 1 (12 mm). A, maxillule. B, maxilla. C, maxilliped. D, slender serrate seta of endite of maxillular segment 1. E, stout, rasp-like seta of endite of maxillular segment 3. F, terminal claw complex of maxilla. Scale bars: A–C = 0.1 mm. See Fig. 3 for details regarding different line types.
FIGURE 2. Speleonectes fuchscockburni n in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 2. Speleonectes fuchscockburni n. sp. Living animal. A, habitus. B, head region. Photographs by Brett C. Gonzalez.
FIGURE 1. A in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 1. A, map of the northeastern region of the Yucatán Peninsula (shown on insert), with locations of cenotes from which Mexican speleonectids have been reported: 1 = Cenote Crustacea; 2 = Cenote Chac Mool; 3 = Cenote Ponderosa; 4 = Cenote Tajama Ha; 5 = Cenote Carwash; 6 = Cenote Vaca Ha; 7 = Cenote Temple of Doom; 8 = Cenote Najaron; 9 = Cenote Mayan Blue. B, map of the Sistema Crustacea cave showing the main cenote entrance pool, underwater cave passages, and the approximate regions within the cave inhabited by: 1 = Speleonectes tulumensis Yager, 1987b; 2 = S. fuchscockburni n. sp.
FIGURE 4. Speleonectes fuchscockburni n in Molecular taxonomy of Speleonectes fuchscockburni, a new pseudocryptic species of Remipedia (Crustacea) from an anchialine cave system on the Yucatán Peninsula, Quintana Roo, Mexico
FIGURE 4. Speleonectes fuchscockburni n. sp. A–B, D, paratype 1 (12 mm). C, E–G, paratype 2 (16 mm). A, antennule. B, antenna. C, frontal filament. D, labrum. E, right mandible. F, processus incisivus (left) and lacina mobilis (right) of right mandible. G, processus incisivus (left) and lacina mobilis (right) of left mandible. Scale bars: A–E = 0.1 mm. See Fig. 3 for details regarding different line types.
Fig. 5 in Xibalbanus cozumelensis, a new species of Remipedia (Crustacea) from Cozumel, Mexico, and a molecular phylogeny of Xibalbanus on the Yucatán Peninsula
Fig. 5. Xibalbanus cozumelensis sp. nov., paratype (ZMUC-CRU-4792). Cephalon and cephalic structures. Scanning electron microscopy. A. Cephalon with cephalic shield and appendages. B. Antenna 1, right side, proximal parts of dorsal and ventral branches. C–D. Unidentified suctorians attached at the proximo-ventral parts of antenna 1. E. Labrum, frontal filaments, and parts of antennae 1 and 2, right side. F. Frontal filaments. G. Antenna 2, left side from anterior. H. Mandible, left side from anterior. I. Mandible, left side from posterior. J. Mandible, left side, apical view on gnathal edge. K. Mandible, left side, apical view on molar process.
Fig. 3 in Xibalbanus cozumelensis, a new species of Remipedia (Crustacea) from Cozumel, Mexico, and a molecular phylogeny of Xibalbanus on the Yucatán Peninsula
Fig. 3. Xibalbanus cozumelensis sp. nov., light microscopy. A. Holotype, adult specimen, lateral view (ZMUC-CRU-4791). B. Holotype, cephalon, lateral view. C. Paratype, cephalon, dorsal view (ZMUC- CRU-4793).
Fig. 10 in Xibalbanus cozumelensis, a new species of Remipedia (Crustacea) from Cozumel, Mexico, and a molecular phylogeny of Xibalbanus on the Yucatán Peninsula
Fig. 10. Xibalbanus cozumelensis sp. nov., paratype (ZMUC-CRU-4792), cephalon, body segments, and trunk limbs, scanning electron microscopy. A. Cephalon, cephalic shield, and head appendages from lateral. B. Trunk segments 5–10. C. Trunk limb 2, right side. D. Close-up of serrated setae in latero-distal corner of exopod segment 1. E. Close-up of serrated setae in latero-distal corner of exopod segment 2. F–G. Two unidentified suctorians attached to exopod of trunk limb 3. H–I. Posterior body segments, trunk limbs, and caudal rami from ventral and lateral.
FIGURE 1. Kaloketos pilosus n. gen., n in Kaloketos pilosus, a new genus and species of Remipedia (Crustacea) from the Turks and Caicos Islands
FIGURE 1. Kaloketos pilosus n. gen., n. sp. Photo of 29 mm holotype.
FIGURE 1. Speleonectes williamsi n in Speleonectes williamsi, a new species of Remipedia (Crustacea) from the Bahamas
FIGURE 1. Speleonectes williamsi n. sp. Photograph of paratype 1 (10.2 mm), dorsal view.
Fig. 5 in How might sea level change affect arthropod biodiversity in anchialine caves: a comparison of Remipedia and Atyidae taxa (Arthropoda: Altocrustacea)
Fig. 5 Scatterplot of the distances of cave openings from the current coastline and the coastline 18,000 years ago during the last glacial maximum. Analysis limited to caves in regions where both remipedes and atyid shrimp co-occur (Table 2). Box in the lower corner of (a) is enlarged to show finer scale remipede distributions in (b). Regressions. (a) Shrimp: y = 0.2376x+10.0617, r 2 =0.4297; Neither: y =0.2610x +9.0827, r 2 = 0.4568. (b) Remipede: y =- 0.3130x+0.3040, r 2 =0.6379
Fig. 2 in How might sea level change affect arthropod biodiversity in anchialine caves: a comparison of Remipedia and Atyidae taxa (Arthropoda: Altocrustacea)
Fig. 2 Atyid species richness in (a) the Yucatan Peninsula, (b) the Caribbean, (c) southern Europe, (d) Australia, and (e) global species richness. Species richness by cave correlates with the size of white circles. For (e), only the caves with the highest richness in the region are shown. The present-day coastlines are outlined in black, and the
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