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Figure 14 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 14. Interclavicles of Whatcheeria. SUI 52088 interclavicle plate in external (A) and internal (B) views; C, FMNH PR 4999 in external view; D, FMNH PR 1740 interclavicle in external view; FMNH PR 1957 interclavicle mounted in resin in external (E) and internal (F) views; FMNH PR 1743 interclavicle in external (G) and internal (H) views. In all specimens, anterior is at the top and posterior is at the bottom.
Figure 16 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 16. Cleithra and scapulocoracoids of Whatcheeria. A, FMNH PR 5005 left scapulocoracoid in external view; FMNH PR 1789 left scapulocoracoid in external (B) and internal (C) views; SUI 52027 left scapulocoracoid in internal (D) and external (E) views; F, FMNH PR 1703 left scapulocoracoid and cleithrum in internal view; FMNH PR 5004 right scapulocoracoid and cleithrum in external view, specimen photo (G) and interpretive drawing (H); FMNH PR 5006 right scapulocoracoid and cleithrum in internal view, specimen photo (I) and interpretive drawing (J); FMNH PR 1766 partial right scapulocoracoid and cleithrum in external (K) and internal (L) views; FMNH PR 5003 partial left cleithrum in internal view (M); FMNH PR 5002 partial left cleithrum in external view (N).
Figure 13 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 13. FMNH PR 4998, articulated and associated Whatcheeria material. A, specimen photo; B, interpretive drawing with labels. Arrows point anteriorly.
Figure 10 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 10. The atlas/axis of Whatcheeria. A, FMNH PR 1634, skull with jaws, cervical vertebrae, and partial shoulder girdle; B, FMNH PR 1700, skull with jaws; C, FMNH PR 1701, parasphenoid, basioccipital and partial atlas/axis complex; D, FMNH PR 1635, skull with jaws and cervical material. Areas where atlas/axis material is likely preserved are circled in A, B and D. E, interpretive drawing of possible atlas/axis material in FMNH PR 1634; F, interpretive drawing of possible atlas/ axis material in FMNH PR 1700; G, interpretive drawing of possible atlas/axis material in FMNH PR 1635; H, atlas/axis of Acanthostega modified from (Coates, 1996: fig. 7); I, atlas/axis of Pederpes modified from (Clack & Finney, 2005: fig. 18A); J, reconstructed atlas/axis of Whatcheeria in left-lateral view.
Figure 12 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 12. Sacral ribs of Whatcheeria. FMNH PR 4997 sacral rib specimen photo (A) and interpretive drawing (B); FMNH PR 1816 sacral rib specimen photo (C) and interpretive drawing (D); FMNH PR 1875 sacral rib specimen photo (E) and interpretive drawing (F). Arrows point distally (in the direction of the articulation with the ilium).
Figure 11 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 11. Isolated anterior trunk ribs of Whatcheeria. A, SUI 52036; B, FMNH PR 4991; C, FMNH PR 4992; D, FMNH PR 4993; E, FMNH PR 4990; F, FMNH PR 4994; G, FMNH PR 4995; H, FMNH PR 4996. Note the proximal notch in FMNH PR 4991 and FMNH PR 4990. In all specimens, proximal is on the left and distal is on the right.
Figure 8 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 8. Vertebral components of Whatcheeria. FMNH PR 1886 intercentrum in dorsal (A) and ventrolateral (B, C) views; FMNH PR 1712 pleurocentra in anterior (D, E) and posterior (F, G) views; FMNH PR 4989 neural spine in anterior (H) and posterior (I) views; FMNH PR 2000 neural spine and pleurocentrum in right-posterior (J), anterior (K), and left-posterior (L) views.
Figure 7 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 7. Articulated cervical vertebrae and ribs of Whatcheeria. A, cervical region of FMNH PR 1816 in ventrolateral view; B, cervical region of FMNH PR 1700 in dorsal view. Arrows point anteriorly. Scale bar in here and in following figures equals 1 cm unless otherwise noted.
Figure 2 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 2. Whatcheeria deltae, full-body reconstruction in left lateral view. A, standing posture; B, floating posture. The reconstruction is meant to depict an anatomically mature individual of approximately 1m body length.
Figure 4 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 4. FMNH PR 1700, articulated holotype of Whatcheeria (skull removed for study). A, specimen photo; B, interpretive drawing with labels. Arrows point anteriorly.
Figure 1 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 1. Location of the Jasper Hiemstra Quarry. A, map of the contiguous United States with a rectangle highlighting the relevant area; B, simplified map of Iowa showing major cities and Delta, rectangle highlighting Keokuk County; C, partial map of Keokuk County, Iowa showing the Jasper Hiemstra Quarry in relation to Delta and other nearby towns. Keokuk County map modified from (Snyder, 2006).
Figure 5 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 5. FMNH PR 1816, articulated specimen of Whatcheeria. A, specimen photo; B, interpretive drawing with labels. Arrows point anteriorly.
Figure 3 in The postcranial anatomy of Whatcheeria deltae and its implications for the family Whatcheeriidae
Figure 3. Whatcheeria deltae, reconstruction of axial skeleton with ribs (A), without ribs (B), ribs, colour-coded by region (C).
FIGURE 20. Delta esuriens esuriens. a in To the knowledge of Vespidae (Hymenoptera) of Pakistan
FIGURE 20. Delta esuriens esuriens. a, habitus; b, head, frontal view; c, head and mesosoma, dorsal view; d, metasoma, lateral view.
FIGURE 19. Delta dimidiatipenne. a in To the knowledge of Vespidae (Hymenoptera) of Pakistan
FIGURE 19. Delta dimidiatipenne. a, habitus; b, head, frontal view; c, head and mesosoma, dorsal view; d, metasoma, dorsal view.
FIGURE 21. Delta pyriforme. a in To the knowledge of Vespidae (Hymenoptera) of Pakistan
FIGURE 21. Delta pyriforme. a, habitus; b, head, frontal view; c, head and mesosoma, dorsal view; d, metasoma, lateral view.
two-slope Gilbert and hyperpycnal deltas - experimental conditions and parameter values used
<p>Experimental conditions and parameter values used for two-slope Gilbert and hyperpycnal deltas</p>
Impacts of tectonic subsidence on basin depth and delta lobe building
<p>Data here include:</p> <ol> <li>Selenga Delta shoreline coordinates from 1862-2019 and a NWOF map</li> <li>Bathymetry data of Lake Baikal, Proval and Cherkalovo Bays.</li> <li>shapefiles of Selenga Delta channel network and avulsion</li> </ol>
Pearl River Delta FVCOM model mangrove forests scenarios
<p>Model data presented in: De Dominicis, M., Wolf, J., van Hespen, R., Zheng, P., Hu. Z. "Mangrove forests can be an effective coastal defence in the Pearl River Delta, China", <em>Communications Earth & Environment</em> (2023).</p> <p>To explore the effects of vegetation on storm surge dynamics and currents, we used a Finite Volume Community Ocean Model implementation for the South China Sea and the Pearl River Delta and simulated Typhoon Hato (2017) one of the strongest typhoons to affect the coastal areas of the Pearl River Delta in recent decades. We numerically modelled the protection capability of the mangrove wetlands in Shenzhen Bay and in the upper estuary river branches close to Guangzhou to determine their ability to mitigate coastal flooding. Additionally, we analyzed how the effectiveness of mangroves changes under different sea level rise scenarios. </p> <p>The dataset consists of water elevation and horizontal currents for 40 model experiments (see Table 1 in De Dominicis et al, 2023).</p>
Reproduction ecology of an emerging fishery resource, the amphibious mudskipper Periophthalmus chrysospilos, in the Mekong Delta
<p>The Gold-Spotted mudskipper<i> Periophthalmus chrypsospilos</i> is a potential aquarium pet living in the mudflats in coastal and estuarine regions, but populations of this mudskipper within the Mekong Delta are facing extirpation risks due to indiscriminate harvesting for the growing aquarium and food-fish trade. Consequently, this research aims to provide first reproductive references such as spawning type and season, length at first mature, batch fecundity, being used in conservation and artificially propagation research. Analysis results from 1,031 individuals (523 males and 508 females) reveal that the sex ratio of total individuals recorded is 1:1 (523 males and 508 females) (<i>c<sup>2</sup></i>=0.22, <i>p</i>=0.64). The <i>GSI</i> values are found to exhibit a non-normal distribution (Shapiro-Wilk Test, NJ=0.87, <i>p</i><0.01) and change by gender (Mann-Whitney U, <i>Z</i>=27.04, <i>p</i><0.01), season (<i>Z</i>=6.17, <i>p</i><0.01) and site (Kruskal-Wallis H, <i>c<sup>2</sup></i>=40.72,<i> p<</i>0.01). A combination of <i>GSIs</i> and the monthly appearance of mature gonads suggest that this species reproduces throughout the year, with a peak from July to October. This species exhibits sexual and spatial variation in the size at first maturity (<i>L<sub>m</sub></i>) as <i>L<sub>m</sub></i> is 6.2-8.6 cm in males and 6.4-7.3 cm in females. The batch fecundity (<i>F</i>=2,614 to 23,465 eggs/female) exhibits non-normal distribution (Shapiro-Wilk Test, NJ=0.96, <i>p</i><0.01) and varies with site (Kruskal-Wallis H, <i>c<sup>2</sup> </i>=35.55,<i> p<</i>0.01), reaching the highest point at Dam Doi, Ca Mau (13,336±1,279 SE) and the lowest point at Tran De, Soc Trang (6,654±851 SE). In addition, <i>F</i> is directly proportional to body size due to high determination values of relationships between <i>F</i> and fish size (<i>r<sup>2</sup></i>>0.64 for all cases). Information derived on the reproductive biology of this species can inform its conservation, sustainable exploitation, and ex-situ propagation.</p>
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