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170 results for “hyporheic”
FIGURE 13. Pseudocandona lordi n in Hyporheic ostracods (Crustacea, Ostracoda) from Texas (USA) with six new species
FIGURE 13. Pseudocandona lordi n. sp. (A) male LV and (B) LV external views, (C) dorsal view, (D) LV ventral view, (E) RV ventro-lateral view, (F) RV internal view with muscle scars area and nodes above, (G) Female LV external view. Scale bar: 100 µm.
FIGURE 12. Stenocypris sancari n in Hyporheic ostracods (Crustacea, Ostracoda) from Texas (USA) with six new species
FIGURE 12. Stenocypris sancari n. sp. Female. (A) T3, (B) Ur, (C) furcal attachment, (D) Rake-like organ, (E) genital organ. Scale bar: 50 µm for A–C, 30 µm for D and E.
FIGURE 22. Indocandona rusti n in Hyporheic ostracods (Crustacea, Ostracoda) from Texas (USA) with six new species
FIGURE 22. Indocandona rusti n. sp. (A) Zenker's organ of male, (B) Hemipenis of male, (C) A2 of female, (D) T1 of female, (E) Genital organ of female. Scale bar: 20 µm.
FIGURE 5. Bradleycypris foresteri n in Hyporheic ostracods (Crustacea, Ostracoda) from Texas (USA) with six new species
FIGURE 5. Bradleycypris foresteri n. sp. (A) T1, (B) T2, (C) T3, (D) Rake-like organ, (E) Ur with genital organ and furcal attachment. Triangle shows Triebel's loop. Scale bar: 20 µm.
FIGURE 8. Bradleystrandesia macula n in Hyporheic ostracods (Crustacea, Ostracoda) from Texas (USA) with six new species
FIGURE 8. Bradleystrandesia macula n. sp. (A) T1, (B) T2, (C) T3, (D) Rake-like organ, (E) Ur and attachment, (F) Uropodal attachment enlarged, (G) Genital organ. Arrows point to double Triebel loop in E and F. Scale bar: 20 µm.
Effect of combined subsurface structures and steps on hyporheic exchange
<p>HYPORHEIC FLOW: each file contains the values of downwelling velocity (column 2, in m/s) at each point of the streambed (column 1, in m). The hyporheic exchange flow was calculated through the integration of all downwelling fluxes 197 over the streambed boundary (see section 2.3 of the main manuscript).</p> <p>RTD: in each file, each row corresponds to one upwelling location of the streambed (x, in m) and contains the values of tracer flux (in mol/m^2/s) over time (in seconds). The RTD is obtained through the integration of the flux along the streambed (see section 2.3 of the main manuscript).</p>
A numerical exploration of hyporheic zone solute transport behavior estimated from electrical resistivity inversions
<p>1). We run the Comsol model (ER3D_cs300ws6ds20_Zxl1.m) with an electrical push-pull loop, and then the voltage at every electrode of each time is printed to model_name.out and resistivity to model_name.ro. </p> <p>2). superposition.m is used to create final voltage results for later use in R2 inversions.</p> <p>3). postproc_c_dual.m is used to create the pixel breakthrough curves of the simulated results.</p> <p>4). plot_c_comsol.m read the resistivity result from step (1), convert the resistivity to bulk EC, and plot the bulk EC contour map. </p> <p>5). protocal_pc.m is used to take the voltages, add some random noise, and make the input files and batch scripts for R2.</p> <p>6). runr2.bat and runr2_TL.bat are used to generate inverted bulk EC.</p> <p>7). plot_C_r2_dual.m is used to plot the inversed bulk EC.</p>
Effects of hyporheic exchange and settlement on the particle size distribution of colloids
<p>The files refer to the data set files used in the manuscript (txt and ew format), and the matlab files (mat and m format).</p>
FIG. 7. — Monchenkocyclops mehmetadami n in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 7. — Monchenkocyclops mehmetadami n. sp., allotype ♂: A, urosome, ventral view; B, urosome, dorsal view; C, P6, lateral view. Roman numerals indicating terminology proposed by Huys et al. (1996). Scale bars: A, B, 50 µm; C, 25 µm.
FIG. 9. — Monchenkocyclops mehmetadami n in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 9. — Monchenkocyclops mehmetadami n. sp., allotype ♂: A, antennule, dorsal view; B, antennule, anterior view; C, antennule, distal segments, ventral view. Roman numerals indicating segment homologies as proposed by Huys & Boxshall (1991). Scale bar: 50 µm.
FIG. 5. — Monchenkocyclops mehmetadami n in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 5. — Monchenkocyclops mehmetadami n. sp., holotype ♀, swimming legs: A, P1, anterior view, arrow indicating inner basal seta; B, P2, posterior view; C, P3, anterior view; D, P4, anterior view; E, P4, praecoxa, coxa and intercoxal sclerite posterior view. Scale bar: 50 µm.
FIG. 2 in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 2. — Scanning electron micrographs of Monchenkocyclops mehmetadami n. sp.: A, paratype ♀, habitus, ventral view; B, inset showing hyaline frills on the third abdominal somite; C, details of caudal ramus, ventral view; D, inset showing seta I; E, F, rostrum, arrow indicating a sensilla; G, paratype ♂, habitus, ventral view; H, paratype ♂, rostrum, anterior view. Scale bars: A, G, 20 µm; B, 2 µm; C, E, H, 4 µm; D, F, 1 µm.
FIG. 3. — Monchenkocyclops mehmetadami n in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 3. — Monchenkocyclops mehmetadami n. sp., holotype ♀: A, antennule, ventral view, roman numerals indicating segment homologies as proposed by Huys & Boxshall (1991); B, antenna, caudal view; C, labrum, anterior view; D, mandible, ventral view; E, mandible, anterior view; F, maxillule, posterior view; G, maxilla, anterior view; H, maxilliped, posterior view; I, maxillulary palp, anterior view; J, P5, ventral view. Scale bars: A-H, 50 µm; I-J, 25 µm.
FIG. 8 in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 8. — Scanning electron micrographs of Monchenkocyclops mehmetadami n. sp., paratype ♂: A, inset of caudal rami, detail of seta I; B, urosome,ventral view; C, plates of P6, arrow indicating setal elements of P6; D, details of P6 showing setal elements; E, P5 ventral view. Scale bars: A, D; 1 µm, B, 10 µm; C, 5 µm; D, 1 µm; E, 4 µm.
FIG. 4 in A new hyporheic Monchenkocyclops Karanovic, Yoo & Lee, 2012 (Crustacea: Copepoda) from Turkey with special emphasis on antennulary homology
FIG. 4. — Scanning electron micrographs of Monchenkocyclops mehmetadami n. sp., paratype ♀: A, mouth region, ventral view; B, mandible, exopod, ventral view; C, anterior end of maxilliped, ventral view. Scale bars: A, 5 µm; B, 1 µm; C, 3 µm.
FIGURE 20 in Water mites (Acari: Hydrachnidia) from the hyporheic waters of the Selwyn River (New Zealand), with descriptions of nine new species
FIGURE 20. Piotaturus bovalus Cook, male: A = IV-L. Scale bar = 100 μm.
FIGURE 2. A in Hyporheic zone, a blind spot: Discovery of the larva of Kisaura (Trichoptera: Philopotamidae) from Japan
FIGURE 2. A hole dug in the stream bank for a Karaman-Chappuis sample.
Figure 6 in A new species of hyporheic Corethrella Coquillett from North America (Diptera: Corethrellidae)
Figure 6. Photomicrograph of Corethrella kipferi female wing, dorsal view. Scale bar = 0.5 mm.
Figure 4 in A new species of hyporheic Corethrella Coquillett from North America (Diptera: Corethrellidae)
Figure 4. Photomicrograph of Corethrella kipferi female habitus, lateral view.
Supplementary material 9 from: Weigand AM, Macher J-N (2018) A DNA metabarcoding protocol for hyporheic freshwater meiofauna: Evaluating highly degenerate COI primers and replication strategy. Metabarcoding and Metagenomics 2: e26869. https://doi.org/10.3897/mbmg.2.26869
Table S6: Taxa identified based on morphology :
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Allen Brain Atlas
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