Find research datasets worth reusing

Fig. 19. A-P in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 19. A-P Crassostrea rhizophorae morphological variation (Cont.). Shell specimens: A: C. Tureck IdM- 58; B: C. Tureck PdC-81; C: Alfredo O. G´alvez LSb3- 77; D–E: Angela P. Legat 189a-02; F: Alfredo O. G´alvez ZEa2-119; G: Alfredo O. G´alvez ZEc2-14; H: Miguel Accioly ZSc2-05; I: C. Tureck IdM-61; J: Miguel Accioly PEa3-39; K: Angela P. 193c-04; L–M: Angela P. Legat 189-08; N: Miguel Accioly PEa1-40; O: Miguel Accioly ZEa1-45; P: Angela P. Legat 190- 04; Q: Standard cultivar specimen 01. Photo by Jo˜ao Paulo Ramos Ferreira.

Fig. 7 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 7. Mean (± standard deviation) shell characters from measurements (SH, SL, SW, SH/SL, RVH/SH). Frequency of C. gasar and C. rhizophorae individuals for each category of SF (p <0.05).

Fig. 4 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 4. Shell range of colors. Left valve: a – (Brownish; Bwn), b – (Yellowish; Ylw), c – (White with purple stripes; WP), d – (Whitish; Wht); Right valve: e and f – (Brownish; Bwn), g – (Yellowish; Ylw), h – (Whitish; Wht). Scale: 10 mm. Illustration by Leandro Lopes de Souza. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)

Fig. 2 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 2. Conchological aspects of the left valve. Internal color: a – (purple), b – (Faintly pigmented), c and d – (white); Internal margin color: c – (purple), d – (white); Outter ornamentation of shells: e and g – (merged scales, "g" with longitudinal costae), f – (imbricate scales); A conspicuous projection of the left shell valve: h – (branchitellum). Color of adductor muscle scar: i – (white), j – (faintly pigmented), k – (purple). Scale; 10 mm. Illustration based on mangrove oysters collected in this study. Illustration by Leandro Lopes de Souza. (For interpretation of the references to color in this figure legend, the reader is referred to the Web version of this article.)

Fig. 3 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 3. Shell formats: a – (Circle), b – (Obovoid), c – (Ellipsoid), d – (Elongate). Scale: 10 mm. Illustration by Leandro Lopes de Souza.

Fig. 13 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 13. The χ2 test of independence of Species, MSF and MSC, based on the permutation distribution.

Fig. 21 in A historical and integrative taxonomic account of mangrove oyster species native to the Atlantic American coast: A re-evaluation of Brazilian Crassostrea species

Fig. 21. The χ2 test of independence of Species, SF, MSF and UCC, based on the permutation distribution. Legends for MSF (E Elongate, O - Ovate, R – Reniform) and UCC (S – Shallow, D – Deep).

opennotspecifiedMay 2020View details →

Figure 3 in Historical review and redescription of three poorly known species of the catfish genus Trichomycterus from south-eastern Brazil (Siluriformes: Trichomycteridae)

Figure 3. Geographical distribution of the Trichomycterus nigricans species group: diamonds, T. santaeritae; square, T. caipora; stars, T. immaculatus; triangles, T. nigricans.

opennotspecifiedMay 2020View details →

Figure 1 in Historical review and redescription of three poorly known species of the catfish genus Trichomycterus from south-eastern Brazil (Siluriformes: Trichomycteridae)

Figure 1. Live specimens, left lateral view, of: a, Trichomycterus nigricans, UFRJ 10,996, 69.7 mm SL; b, Trichomycterus immaculatus, UFRJ 12,050, 62.9 mm SL; c, Trichomycterus santaeritae, UFRJ 12,592, 56.8 mm SL. All were photographed a few hours after collection.

opennotspecifiedMay 2020View details →

Figure 2 in Historical review and redescription of three poorly known species of the catfish genus Trichomycterus from south-eastern Brazil (Siluriformes: Trichomycteridae)

Figure 2. Osteological features of Trichomycterus nigricans (a–c), T. immaculatus (d–f), and T. santaeritae (g–i): A, D, G, mesethmoidal region and adjacent structures, middle and left portion, dorsal view; B, E, H, left suspensorium and opercular apparatus, lateral view; C, F, I, middle and left portion of brachial arches, ventral view of dorsal elements on left, dorsal view of ventral elements on right. Larger stippling represents cartilage. Abbreviations: aip, anterior interopercular projection; b2–3, basibranchials 2–3; bc4, cartilaginous basibranchial 4; c1–5, ceratobranchials 1–5; e1–4, epibranchials 1–4; ec5, epibranchial 5 cartilage (= accessory element of ceratobranchial 4); h1–3, hypobranchials 1– 3; hdb, hypobranchial anterior branching; pmp, posterior maxillary process; p3, pharyngobranchial 3; pt4, pharyngobranchial 4 tooth-plate.

opencc-by-4.0Mar 2024View details →

Figure S4. Presence of Japanese Kanji ideograms on rubber bales found in 2021 along the Brazilian coastline. This historical evidence from 2021 supports the hypothesis of a new wreck as the 2018 and 2019 event had different language entries from the former French Indo-China (Teixeira et al., 2021).

Open the record for dataset details and reuse information.

opencc-by-4.0Apr 2024View details →

Potentially harmful elements (As, Sb, Cd, Pb) in soil polluted by historical smelting operation in the Upper Silesian area (Southern Poland)

Table S1: Elements concentration in the studies samples (ICP-MS); Table S2: Minerals and minerals phases in studied soils and slags; Table S3. Minerals and minerals phases in studied soils and slags.

Fig. 6 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 6. Verteilung der wichtigsten physiologischen Pflanzengruppen in den Vegetationsgebieten der Erde [Division of the important physiological plant groups in the vegetation of the earth] (Engler 1882, p. 387).

Fig. 9 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 9. Takhtajan's floristic kingdoms and regions of the earth (Takhtajan 1978, separate map). Red solid and dashed lines indicate the boundaries of kingdoms; green solid and dashed lines indicate the boundaries of the regions.

Fig. 3 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 3. Zoogeographic regions recognised by Wallace (1876a, 1876b) in The Geographical Distribution of Animals.

Fig. 13 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 13. Map of the terrestrial zoogeographic realms and regions of the world (Holt et al. 2013a, fig. 1).

Fig. 2 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 2. Tabula mundi geographico zoologica sistens quadrupedes hucusque notos sedibus suis adscriptos, second edition (Zimmermann 1783). The revised map in the 1783 German edition contains the newly discovered Sandwich Islands (Hawai'i) and the Seychelles, which were absent in the original 1777 edition (Ebach 2015, p. 31; source: National Library of Australia).

Fig. 5 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 5. Outline map of the world, showing the six regions of the geographical distribution of mammals (Sclater and Sclater 1899, map opposite p. 16).

Fig. 1 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 1. Representation of the distribution of mammals according to their zones and provinces by Wagner (1844). The southern boundary of the northern polar province is indicated by a line of a different colour, drawn somewhat further south than the equatorial border of the Arctic fox ([Vulpes] lagopus), although not so far in some places as the reindeer may descend there on their summer migrations. The southern polar province is not included in this map, because it is only in the process of discovery and, according to all previous experience, it does not harbour land mammals (Wagner 1846b, p. 241; Table 1).

Fig. 14 in Toward a terrestrial biogeographical regionalisation of the world: historical notes, characterisation and area nomenclature

Fig. 14. World biogeographical regionalisation, with indication of the regions and transition zones. (1) Nearctic region; (2) Palearctic region; (3) Neotropical region; (4) Ethiopian region; (5) Oriental region; (6) Andean region; (7) Australian region; (8) Antarctic region; (9) Mexican transition zone; (10) Chinese transition zone; (11) Saharo-Arabian transition zone; (12) South American transition zone; (13) Indo-Malayan transition zone.