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677 results for “coastal waters”
Supplementary material, Figure S7 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p>Supplementary material, Figure S7 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</p> <p>Figure S7. Morphological abundance of particles in surface waters collected in the Santos Basin in the period 2020-2021 during winter and summer.<br>Caption: SB, Santos Basin. S, Summer. W, Winter.</p>
Supplementary material, Figure S5 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p>Supplementary material, Figure S5 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</p> <p>Figure S5. Volume distribution of microparticles in surface water samples collected in the Santos Basin in the period 2020-2021 by sampling point.<br>Caption: SB, Santos Basin.</p>
Supplementary material, Figure S4 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p>Supplementary material, Figure S4 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</p> <p>Figure S4. Number of microparticles by sampling stations in surface waters collected in the Santos Basin in the period 2020-2021.<br>Caption: SB, Santos Basin.</p> <p> </p>
Supplementary material, Figure S3 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Figure S3 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Figure S3. Wave direction and height recorded during microplastic collections in surface waters in the Santos Basin.<br>Caption: (A) Wave direction; (B) Wave Height. SB, Santos Basin.<br></span></p> <p> </p>
Supplementary material, Table S5 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Table S5 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Table S5. Comparison between studies on the presence of microplastics in coastal and oceanic waters.<br>Captions: Mps - microplastics; Mp/L - microplastics per liter; Mp/m2 - microplastics per square meter; Mp/m³ - microplastics per cubic meter; n.d. - Not determined; μm - microns; mm - millimeters.<br></span></p>
Supplementary material, Figure S2 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Figure S2 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Figure S2. Drift current conditions recorded during microplastics collections in surface waters in the Santos Basin.<br>Caption: (A) current drift direction and speed 2020; (B) current drift direction and speed 2021.<br></span></p>
Supplementary material, Table S4 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p>Supplementary material, Table S4 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</p> <p>Table S4. Most common types of microplastics.<br>Source: adapted from Gago et al. (2019).</p>
Supplementary material, Figure S1 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p>Supplementary material, Figure S1 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</p> <p>Figure S1. Wind conditions recorded during microplastics collections in surface waters in the Santos Basin.</p> <p>Caption: (A) 2020 wind direction and speed; (B) 2021 wind direction and speed.</p>
Supplementary material, Table S1 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Table S1 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Table S1. Sampled and unsampled seasons over the summer and winter of 2020-2021.<br>Caption: SB, Santos Basin.<br></span></p>
Supplementary material, Table S2 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Table S2 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Table S2. Size ranges of marine anthropogenic litter.<br>Source: adapted from Gago et al. (2019).<br></span></p>
Supplementary material, Table S3 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.
<p><span>Supplementary material, Table S3 from Hudson Carvalho Ferreira and Gisele Lôbo-Hajdu (accepted) Preliminary assessment of microplastic pollution in surface waters of the Santos Basin: abundance and diversity in the most important oil and gas exploration hub in Brazil. Ocean and Coastal Research.</span></p> <p><span>Table S3. Most common colors of microplastics.<br>Source: adapted from Gago et al. (2019).<br></span></p> <p> </p>
FIGS. 12–19 in Morphological studies on a new species of Orthodonella, with redescription of O. gutta (Cohn, 1866) Kahl, 1931 (Protozoa: Ciliophora: Synhymeniida) from coastal water off Qingdao, China
FIGS. 12–19. Orthodonella gutta (12, from Cohn, 1866); O. hamatus (13, from Gruber, 1884; 14, from Ozaki and Yagiu, 1941; 15, 18, from Wilbert, 1986; 19, from Jankowski, 1968) and O. shenae (16, 17, from Song and Wilbert, 2002). Scale bars: 40 Mm.
FIGS. 1–11 in Morphological studies on a new species of Orthodonella, with redescription of O. gutta (Cohn, 1866) Kahl, 1931 (Protozoa: Ciliophora: Synhymeniida) from coastal water off Qingdao, China
FIGS. 1–11. Morphology and infraciliature of Orthodonella apohamatus nov. spec. (1, 2, 4, 8, 9) and O. gutta (3, 5–7, 10, 11) from life (1, 3, 5–7) and after protargol impregnation (2, 4, 8, 9–11). (1) Ventral view of a typical individual. (2) Ventral view, to show the synhymenium (arrows) and nuclear apparatus. (3) To demonstrate the form-transfiguration of the same individual. (4) To show different body shapes and sizes among individuals. (5) Cortical granules. (6) Oil globules. (7) Ventral view of an extended individual. (8, 9) Dorsal and ventral view of the same specimen, to show the general infraciliature, arrow indicates the synhymenium and arrowheads show the 'broken' kineties. (10, 11) Dorsal and ventral view of the same specimen, to show the general infraciliature, arrow indicates the synhymenium and arrowheads show the 'broken' kineties. CV, contractile vacuole; Cyst, cytostome; Ma, macronucleus; Mi, micronucleus. Scale bars: 40 Mm.
FIGS. 20–28 in Morphological studies on a new species of Orthodonella, with redescription of O. gutta (Cohn, 1866) Kahl, 1931 (Protozoa: Ciliophora: Synhymeniida) from coastal water off Qingdao, China
FIGS. 20–28. Photomicrographs of Orthodonella apohamatus nov. spec. from life (20–22, 25) and after protargol impregnation (23, 24, 26–28). (20) Ventral view of a typical individual, arrow marks the cytostome. (21, 22, 25) To show the form-transfiguration among different individuals, arrows show the cytostome. (23) To show the macronucleus and micronucleus (arrow). (24) To indicate the pharyngeal rods (arrow). (26–28) To show the infraciliature, arrow indicates the synhymenium. Scale bars: 40 Mm.
FIGURE 11 in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 11. Diagnostic characters of genera Cryptodius Moore, 1992 and Odius Liljeborg, 1865 species: a, h, o, u—Cryptodius unguidactylus Moore, 1992 (from Moore 1992), b, i, p, v—Cryptodius kelleri (Brüggen, 1907) (from Moore 1992, Kim & Hong 2014), c, j, q, w—Cryptodius sakhalinensis sp. nov., d, k, r, x—Odius carinatus (Spence Bate, 1862) (from Sars 1895), e, l, s, y—Odius cassigerus Gurjanova, 1972 (from Labay, 2010), f, m, t, z—Odius oclairi (Moore, 1992) (from Moore 1992), g, n, u, aa—Odius polarsterni (Brandt & Vassilenko, 1995) (from Brandt & Vassilenko 1995); a–g—maxilliped, h–n—coxa 1; o–u—pereopod 7, u–z, aa—telson.
FIGURE 9. a in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 9. a—Cryptodius kelleri (Brüggen, 1907), female (4.4 mm), Lake Ptich'e, b—Cryptodius sakhalinensis sp. nov., holotype, female (7.3 mm), the shelf of north-eastern Sakhalin Island; scale: 1 mm.
FIGURE 6 in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 6. Cryptodius sakhalinensis sp. nov., holotype, female: a—propodus and dactylus of pereopod 1, b—pereopod 2, inner side, c—pereopod 3, d, e—pereopod 4; scales: a—0.1 mm, b–e—1 mm.
FIGURE 10 in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 10. Diagnostic characters of genera Cryptodius Moore, 1992 and Odius Liljeborg, 1865 species: a, h, o—Cryptodius unguidactylus Moore, 1992 (from Moore 1992), b, i, p—Cryptodius kelleri (Brüggen, 1907) (from Moore 1992, Kim & Hong 2014), c, j, q—Cryptodius sakhalinensis sp. nov., d, k, r—Odius carinatus (Spence Bate, 1862) (from Sars 1895), e, l, s—Odius cassigerus Gurjanova, 1972 (from Labay, 2010), f, m, t—Odius oclairi (Moore, 1992) (from Moore 1992), g, n, u—Odius polarsterni (Brandt & Vassilenko, 1995) (from Brandt & Vassilenko 1995); a–g—carination of abdomen, arrow marks the keel of epimeron 3, urosomite 1 and urosomite 3, h–n—incisor of mandible; o–u—maxilla 1, the arrow shown setae of the palp.
FIGURE 5 in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 5. Cryptodius sakhalinensis sp. nov., holotype, female: a—pereopod 1, outer side, b—pereopod 1, inner side, cpereopod 2; scale: 1 mm.
FIGURE 2 in Review of amphipods of the genus Cryptodius Moore, 1992 (Amphipoda: Ochlesidae) from the coastal waters of Sakhalin Island (Far East of Russia)
FIGURE 2. Cryptodius sakhalinensis sp. nov., holotype, female: a—lateral view, b—cephalon, c—urosome segments 2 and 3 dorsally, d—antenna 1, e—accessory flagellum of antenna 1, f—antenna 2; scales: a, b, c, d, f—1 mm; e—0.01 mm.
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Allen Brain Atlas
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DANDI Archive for NWB datasets
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International Brain Laboratory public data
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OpenNeuro
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