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11 results for “pelagic larvae”
Карта-схема района исследований. 1А, 1Б, 1В – станции раЗреЗа 1; 2А, 2Б, 2В – станции раЗреЗа 2; 3А, 3Б, 3В – станции раЗреЗа 3. A schematic map of the research area. 1A, 1Б, 1В – stations of line 1; 2A, 2Б, 2В – stations of line 2; 3A, 3Б, 3В – stations of line 3. in Pelagic larvae of bivalve mollusks in meroplankton in the coastal waters of Aniva Bay (southern Sakhalin, Sea of Okhotsk)
Карта-схема района исследований. 1А, 1Б, 1В – станции раЗреЗа 1; 2А, 2Б, 2В – станции раЗреЗа 2; 3А, 3Б, 3В – станции раЗреЗа 3. A schematic map of the research area. 1A, 1Б, 1В – stations of line 1; 2A, 2Б, 2В – stations of line 2; 3A, 3Б, 3В – stations of line 3.
Fig. 2 in The Pelagic Larva of the Midnight Snapper, Macolor macularis (Teleostei: Lutjanidae)
Fig. 2. Relationship between standard length and ratio of length of dorsal-fin spine 2 to that of dorsal-fin spine 3 in larvae and settled individuals of Macolor macularis and M. niger. Spine length ratio for only one settled M. macularis from Leis (2007) is plotted because the other specimens did not have intact second dorsal-fin spines.
Suppl. figures of otoliths of pelagic shorefish larvae captured over the Galapagos Rift for Victor, B.C. (2023) Rapid long-distance multispecies transport of shorefish larvae to the oceanic tropical eastern Pacific, revealed by DNA-barcodes and otolith aging of larvae captured over the Galapagos Rift
<p>Supplementary figures of otoliths of pelagic shorefish larvae captured over the Galapagos Rift</p> <p>Victor, B.C. (2023)</p> <p><strong>Rapid long-distance multispecies transport of shorefish larvae to the oceanic tropical eastern Pacific, revealed by DNA-barcodes and otolith aging of larvae captured over the Galapagos Rift</strong></p> <p>in volume: Early Life History and Biology of Marine Fishes: Research inspired by the work of H Geoffrey Moser</p> <p>Figure Sup A1 Sagittal otolith of 5.9 mm SL Stegastes sp. fish larva (Pomacentridae) captured over the Galapagos Rift, age since hatching is 23 days.</p>
Suppl. figures of pelagic shorefish larvae captured over the Galapagos Rift for Victor, B.C. (2023) Rapid long-distance multispecies transport of shorefish larvae to the oceanic tropical eastern Pacific, revealed by DNA-barcodes and otolith aging of larvae captured over the Galapagos Rift
<p>Supplementary figures of pelagic shorefish larvae captured over the Galapagos Rift</p> <p>Victor, B.C. (2023)</p> <p><strong>Rapid long-distance multispecies transport of shorefish larvae to the oceanic tropical eastern Pacific, revealed by DNA-barcodes and otolith aging of larvae captured over the Galapagos Rift</strong></p> <p>in volume: Early Life History and Biology of Marine Fishes: Research inspired by the work of H Geoffrey Moser</p> <p>Figure S1 Gobioid fish larvae captured over the Galapagos Rift.</p> <p>Figure S2 Labrid fish larvae captured over the Galapagos Rift.</p> <p>Figure S2. Pomacentrid fish larvae captured over the Galapagos Rift.</p> <p>Figure S4 Lythrypnus sp 5.4 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S4a Lythrypnus sp 5.4 mm SL fish larva (head) captured over the Galapagos Rift.</p> <p>Figure S5 Abudefduf troschelii 7.3 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S6 Chaetodon humeralis 8.9 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S7 Gerreidae 10.6 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S8 Neoniphon suborbitalis 6.8 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S9 Ophioblennius steindachneri 10.6 mm SL fish larva captured over the Galapagos Rift.</p> <p>Figure S9a Ophioblennius steindachneri 10.6 mm SL fish larva (head) captured over the Galapagos Rift.</p> <p>Figure S9b Ophioblennius steindachneri 10.6 mm SL fish larva (ventral) captured over the Galapagos Rift.</p> <p>Figure Sup10 Sphoeroides lobatus 12.0 mm SL fish larva captured over the Galapagos Rift.</p>
Fig. 1 in The Pelagic Larva of the Midnight Snapper, Macolor macularis (Teleostei: Lutjanidae)
Fig. 1. Larva of Macolor macularis, 6 mm SL (NSMT-PL 369) from the southwest Pacific Ocean near
Data from: Crypsis in the pelagic realm: evidence from exceptionally preserved fossil fish larvae from the Eocene Stolleklint Clay of Denmark
<p>Marine deposits of earliest Eocene age in northern Jutland, Denmark, are renowned for yielding diverse teleost assemblages that have proved central for enhancing our understanding of the early evolution of many extant actinopterygian clades. In this study, we investigate diminutive larval fish fossils from the Stolleklint Clay<b>,</b> Ølst Formation, that retain multiple soft-tissue features preserved as distinct dark-coloured stains. In order to examine the elemental and molecular composition of these soft parts, we employed a combination of time-of-flight secondary ion mass spectrometry (ToF-SIMS), scanning electron microscopy (SEM) and energy-dispersive X-ray spectroscopy (EDS). Our analyses revealed that the preserved structures contain chemically identifiable eumelanin intimately associated with densely aggregated microbodies that are morphologically consistent with melanosome organelles. Thus, we conclude that the carbonaceous structures represent traces of originally melanized body parts, including the eyes and peritoneum. Comparable pigmentation patterns are seen in many extant teleost larvae that use semi-transparency as a means of camouflage in pelagic environments, to suggest a similar visual appearance of the Stolleklint Clay fish fossils. This in turn suggests that adaptations for concealment and UV-protection had evolved already by the beginning of the Eocene, notably during a time interval characterized by an extreme greenhouse climate, when the global fish fauna become increasingly modern in composition.</p>
Data from: Crypsis in the pelagic realm: evidence from exceptionally preserved fossil fish larvae from the Eocene Stolleklint Clay of Denmark
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FIGURE 3 in The taxonomic position of the pelagic 'staurozoan' Tessera gemmaria as a ceriantharian larva
FIGURE 3. Mesenterial arrangement diagram of cerinula larva collected in this study. ac—acontioids, d—directive mesenteries, m— mesenteries, t—tentacles, ap—aboral pore.
FIGURE 1 in The taxonomic position of the pelagic 'staurozoan' Tessera gemmaria as a ceriantharian larva
FIGURE 1. Cerinula larva collected in this study; arrows show that mesenteries almost reach the aboral end. Scale bar = 0.5 mm.
FIGURE 4 in The taxonomic position of the pelagic 'staurozoan' Tessera gemmaria as a ceriantharian larva
FIGURE 4. Phylogenetic hypothesis (ML) based on mitochondrial 16S for the specimens similar to 'Tessera gemmaria' and other representatives of Anthozoa and Medusozoa. Numbers associated to branches are bootstrap proportions after 1,000 replicates. Arrow indicates the material studied.
FIGURE 2 in The taxonomic position of the pelagic 'staurozoan' Tessera gemmaria as a ceriantharian larva
FIGURE 2. Histological preparations: a—Detail of the gastrovascular cavity with four mesenteries. b—Detail of the gastrovascular cavity with 8 mesenteries and folded mesenterial filaments. c—Detail of actinopharynx and two mesenteries being formed. d—Detail of hollow tentacles and the tentacle tip with a button of cnidocysts. e—Spirocyst in the aboral pore. f—Detail of acontioids. ac—acontioids, bc—terminal buttons of cnidocysts, m—mesenteries, mf—mesenterial filaments, ph—actinopharynx, si—siphonoglyph, sp— spirocyst, t—tentacles, vc—vacuolated cells. Scale bar a-d = 0.05 mm, e = 10 µm, f = 20 µm.
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