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60 results for “intertidal mudflats”
Sediment temperature at three depths below sediment surface in intertidal mudflats in Virginia, 2013-2014
We logged the sediment temperature at three intertidal mudflat sites between September, 2013 and September, 2014. At each site, three submersible temperature loggers (HOBO Pendant UA-002; Onset Computer Corporation) were buried at 3 cm, 10 cm and 20 cm below the sediment surface. Temperature was recorded in ten minute intervals. Each site was unvegetated with muddy sediment. For sites 1 and 2, data was recorded in two time series. Time series 1 from 09/02/2013 - 12/16/2013 and time series 2 from 12/19/2013 - 09/18/2014. At site 2, 20 cm depth, no data was recorded after 12/16/2013. At site 3, data was recorded at all depths continuously from 09/2/2013 to 08/28/2014. Date and time was recorded as GMT offset by -5 hours (Eastern Standard Time).
Benthic invertebrates from intertidal mudflats at the on the coast of Virginia, 2016
We surveyed benthic invertebrates, primarily infauna, during the summer of 2016 on several intertidal mudflats using wet- sieved sediment cores. Infauna cores (25 cm diameter, 10 cm deep) were taken along 100 meter transects (4 sites; 2-4 transects per site; 4 cores per transect). Polychaete individuals were identified to family, while other taxa were identified to phylum or lower. Some groups were counted together, as follows: Gastropods (sea slugs, nudibranchs, snails); small crustaceans (amphipods, isopods and shrimp); large crustaceans (crabs); bivalves (clams). The cnidaria group here is composed of burrowing anemones, Enteropneusta is the acorn worm and Diptera here is burrowing fly larvae. Data Table 1 provides the numbers of different taxa from each core taken along each transect at each site. Additionally, the AFDW (ash free dry weight) of the infauna sampled is included. Data Table 2 provides a summary of the polychaete biodiversity data presented in Spreadsheet 1, with the total counts for each polychaete family found at the four different sites. Samples were collected during May of 2016. Polychaetes were identified using Polychaete Key for Chesapeake Bay and Coastal Virginia (Bartholomew 2001).
Biodiversity of mudflat intertidal viromes along the Chinese coasts
<p>The study dataset contains 21,964 viral contigs (Intertidal_viruses.fa), 20,102 vOTUs (Intertidal_vOTUs.fa), 238,445 vPCs (Intertidal_vPCs.gene and Intertidal_vPCs.protein), and 2,259 mOTUs (Intertidal_mOTUs.zip) obtained from 96 intertidal sediment metagenomes spanning 12 coastal regions from southmost to northmost in China. In addition, DOM tables (DOM_scaled_int_tab.csv) used in this study can also be obtained here.</p> <p>If this study dataset is useful, please cite: Ji et al. Biodiversity of mudflat intertidal viromes along the Chinese coasts. <em>Nat Commun</em> <strong>15</strong>, 8611 (2024). https://doi.org/10.1038/s41467-024-52996-x</p> <p>For any other dataset/analysis inquiries, please contact me: jimengzhi@mail.sdu.edu.cn.</p> <p>The R code for this manuscript can be obtained from https://github.com/MengzhiJ.</p>
Impact of chronic and massive resuspension mechanisms on the microphytobenthos dynamics in a temperate intertidal mudflat
<p><em>In situ</em> data along with input/output files and code of the model used in the manuscript by Savelli et al. submitted to Journal of Geophysical Research: Biogeosciences</p> <p>Savelli, R., Bertin, X., Orvain, F., Gernez, P., Dalle, A., Coulombier, T., Pineau, P., Lachaussée, N., Polsenaere, P., Dupuy, D., Le Fouest, V., submitted. Impact of chronic and massive resuspension mechanisms on the microphytobenthos dynamics in a temperate intertidal mudflat. <em>Journal of Geophysical Research: Biogeosciences</em></p> <p>See the readme.txt file for explicit details on the repository.</p>
Potential impact of photoinhibition on microphytobenthic primary production on a large intertidal mudflat
<p>SImulations data from the NoPhoto and Photo runs.</p>
Figure 4 in Simple and complex burrow morphology in two Macrophthalmus species on the intertidal mudflats of Barr Al Hikman, Sultanate of Oman
Figure 4. Relationship between crab carapace width and burrow size at entrance for the two studied crab species. The dashed red line gives the significant linear model relating Macrophthalmus sulcatus carapace width to burrow size at entrance. Symbols within the points refer to burrows in which more than one crab was encountered; similar symbols refer to the same burrow.
Figure 3 in Simple and complex burrow morphology in two Macrophthalmus species on the intertidal mudflats of Barr Al Hikman, Sultanate of Oman
Figure 3. Drawing of a typical cast of the burrow of the two crabs studied. The ends of the burrow of Macrophthalmus depressus are open as the burrows were more extensive than our casts.
Figure 2 in Simple and complex burrow morphology in two Macrophthalmus species on the intertidal mudflats of Barr Al Hikman, Sultanate of Oman
Figure 2. Cast of a burrow of Macrophthalmus depressus. Note that the two casts were originally connected but broke during excavation.
Figure 1 in Simple and complex burrow morphology in two Macrophthalmus species on the intertidal mudflats of Barr Al Hikman, Sultanate of Oman
Figure 1. (a) The Arabian Peninsula, with Barr Al Hikman in the red square. (b) Barr Al Hikman. The red square indicates the boundaries of the map given in c. (c). Bathymetry map showing part of the intertidal mudflats of Barr Al Hikman, based on Bom et al. (2020). The locations of burrow excavation and the shore profile are also given. (c) Shore profile (tidal height) as a function of distance to the coast at the sampling locations (see d). The sampling locations and the zone in which Macrophthalmus depressus and M. sulcatus can be found are indicated (see Bom et al. (2020) for a detailed distribution map of M. sulcatus). The high and low tide waterlines for both spring tides and neap tides are also given. They correspond with the highest high tide during spring tide and the lowest high tide, highest low tide and lowest low tide in November 2012.
FIGURE 37 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 37. Nannopus bulbiseta sp. nov., SEM photographs, A & C, paratype ♂2; B & D, paratype ♂3: A, surface ornamentation of prosomites, dorsal; B, surface ornamentation of prosomites, lateral; C, caudal ramus, dorsal; D, caudal ramus, lateral.
FIGURE 33 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 33. Nannopus bulbiseta sp. nov., SEM photographs, A & D, paratype ♀4; B & C, paratype ♀5: A, surface ornamentation of somites (transverse row of frill on P2-bearing somite arrowed), dorsal; B, urosome, ventral; C, caudal ramus, ventral; D, caudal seta V arrowed, dorsal.
FIGURE 35 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 35. Nannopus bulbiseta sp. nov., line drawings, holotype ♀: A, anal somite and caudal ramus, lateral; B, anal somite and caudal rami, dorsal; C, urosome, P5-bearing somite and caudal rami, ventral; D, P5; E, right P6.
FIGURE 34 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 34. Nannopus bulbiseta sp. nov., line drawings, A–B, paratype ♀1; C, holotype ♀; D, paratype ♀2; E, paratype ♀3: A, P1; B, P2; C, P3; D, P4; E, right P4 exp-3.
FIGURE 32 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 32. Nannopus bulbiseta sp. nov., line drawings, holotype ♀: A, habitus, dorsal; B, habitus, lateral.
FIGURE 30 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 30. Nannopus parvus sp. nov., SEM photographs, A, paratype ♂4; B & D, paratype ♂3; C, paratype ♂2: A, rostrum, ventral; B, rostrum, ventral; C, second segment of the antennule (triarticulate seta and two bulbiform seta arrowed), dorsal; D, P3 endopod.
FIGURE 27 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 27. Nannopus parvus sp. nov., SEM photographs, A–B, paratype ♀6; C, paratype ♂2: A, copulatory pore and urosome ornamentations, ventral; B, caudal rami, ventral; C, caudal ramus, dorsal.
FIGURE 26 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 26. Nannopus parvus sp. nov., line drawings, paratype ♀1: A, anal somite and caudal rami, dorsal; B, anal somite and caudal ramus, lateral; C, urosome, P5-bearing somite omitted and caudal rami, ventral; D, P5; E, right P6.
FIGURE 25 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 25. Nannopus parvus sp. nov., line drawings, A–B, paratype ♀1; C, paratype ♀3; D–F, paratype ♀2: A, antennule (triarticulate seta and two bulbiform setae on second segment arrowed), dorsal; B, antenna; C, mandible; D, maxillule; E, maxilla; F, maxilliped.
FIGURE 29 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 29. Nannopus parvus sp. nov., line drawings, A, allotype ♂; B–D, paratype ♂1: A, habitus, dorsal; B, urosome, P5- bearing somite and caudal rami, ventral; C, anal somite and caudal rami, dorsal; D, anal somite and caudal ramus, lateral.
FIGURE 31 in Five new species of the genus Nannopus (Copepoda: Harpacticoida: Nannopodidae) from intertidal mudflats of the Korean West Coast (Yellow Sea)
FIGURE 31. Nannopus parvus sp. nov., line drawings, paratype ♂1: A, antennule (triarticulate seta on second segment arrowed), dorsal; B, fifth segment of the antennule, lateral; C, P3; D, left P3 endopod; E, right P3 endopod, another view; F, P5 (sexual dimorphisms arrowed); G, P6.
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