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234 results for “Mayotte”
Supplement data for the article "The impact of OTU sequence similarity threshold on diatom-based bioassessment: A case study of the rivers of Mayotte (France, Indian Ocean)", in preparation
<p>These are supplement data for the article "The impact of OTU sequence similarity threshold on diatom-based bioassessment: A case study of the rivers of Mayotte (France, Indian Ocean)", in preparation</p> <p>The folowing files are available:</p> <ul> <li>Supplement 1. Map of Mayotte with the sampling sites and the rivers.</li> <li>Supplement 2. <em>rbcL</em> primers, reaction mixture, and conditions used for the PCR of the 312-bp <em>rbcL</em> fragment. The information provided is for a single reaction with a final volume of 25µL.</li> <li>Supplement 3. The 20 fastq files containing the demultiplexed DNA reads.</li> <li>Supplement 4. Number of sequence reads for each sample before and after the trimming procedure.</li> <li>Supplement 5. The 20 OTU lists, corresponding to the 20 SSTs, including the number of DNA reads within the 90 samples and their assigned taxonomy.</li> <li>Supplement 6. Sampling site description with sample codes, names of rivers, year, number of raw DNA reads and GPS coordinates.</li> <li>Supplement 7. Values and summary statistics for the environmental variables.</li> <li>Supplement 8. The script used in Mothur for the bioinformatic analysis from trimming to the used OTU lists.</li> </ul> <p> </p>
Figure 7 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 7. – Temporal variation in total species richness in three mangrove habitats for catches (A) and UVC (B).
Figure 3 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 3. – Size frequency distribution of the main species that contributed 59% of the total fish sampled by both methods. Dashed line indicates median value for each method.
Figure 4 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 4. – Relative abundance of the five trophic categories among the three mangrove habitats for fyke-net and visual census.
Figure 6 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 6. – Canonical redundancy analyses (RDA) of fish abundance, environmental variables and sampling months for catches (A) and UVC (B). Species are coded by the two first letters of name of genus and the three first letters of species, these codes are given in table I.
Figure 5 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 5. – Hierarchical clustering analysis showing the spatial repartition of 13 sampling months based on fish abundance data for both methods. Sites are coded according to their abbreviation followed by month number, beginning in April (1) and finishing in April again (13). Clusters are separated using Ward algorithm.
Figure 1 in Are mangroves important for reef fish on Mayotte Island (Indian Ocean)?
Figure 1. – Location of the three sampling sites in the lagoon along the eastern coast and south-western coast of Mayotte Island. The numbers refer to the text where further information is found to describe each location.
Figure 2 in Composition et structure des peuplements ichtyologiques marins de l'île de Mayotte (sud-ouest de l'océan Indien)
Figure 2. - Classification hiérarchique des îles du sud-ouest de l'océan fonction de la structure trophique de leur ichtyofaune marine côtière. est basée sur l'indice de dissimilarité de Bray-Curtis (axe vertical). [clustering of the south-western Indian Ocean Islands in terms of munity structure of the coastal marine ichthyofauna. Hierarchical based on Bray-Curtis dissimilarities (vertical axis).]
Figure 1 in Composition et structure des peuplements ichtyologiques marins de l'île de Mayotte (sud-ouest de l'océan Indien)
Figure 1. - Distribution des principaux biotopes marins autour de l'île de Mayotte. [Spatial distribution of the main marine biotopes around Mayotte Island).] © Agence des aires marines protégées.
FIG. 4 in A new edible yam (Dioscorea L.) species endemic to Mayotte, new data on D. comorensis R.Knuth and a key to the yams of the Comoro Archipelago
FIG. 4. — Dioscorea mayottensis Wilkin and its tuber: A, habit; B, immature capsules; C, tubers and lower stem; D, close-up of tubers and crown, showing the tuber of the previous rainy season from which the plant is growing, and the new rainy season's tuber in early development. On the latter, the insertion of the crown (upper part) on the tuber (lower part) can be seen, with the thick roots emanating from the crown. Photos Fabien Barthelat.
FIG. 3 in A new edible yam (Dioscorea L.) species endemic to Mayotte, new data on D. comorensis R.Knuth and a key to the yams of the Comoro Archipelago
FIG. 3. — Female flowering and fruiting morphology in Dioscorea mayottensis Wilkin: A, leaf and female inflorescence, showing the lateral nodal spines; B, flower showing its insertion onto the inflorescence axis, the floral bract and bracteole, ovary and the floral stipe at its apex; C, flower with three tepals removed to show four of the staminodia, the styles and stigmas; D, half-flower showing the torus shape; E, infructescence with immature capsules, showing the persistent floral stipe forming an apical apiculus; F, a ba- sally winged seed. Drawn from Hladik et al. 6469 (A-D), Barthelat et al. 796 (E) and Hladik 6494 (F) by Lucy Smith. Scale bar: A, 3 cm; B, 4 mm; C, D, 0.9 mm; E, 3 cm; F, 1 cm.
FIG. 1. — Dioscorea comorensis R in A new edible yam (Dioscorea L.) species endemic to Mayotte, new data on D. comorensis R.Knuth and a key to the yams of the Comoro Archipelago
FIG. 1. — Dioscorea comorensis R.Knuth: A, female inflorescences with basal ovaries reflexed and enlarging; B, female inflorescence with more ovaries reflexed and enlarging; C, immature infructescence; D, part of male inflorescence showing the flowers in cymules; E, male inflorescences; F, male flowers. Photos Nicole Crestey (A, B, D, E) and Jean-Noël Labat (C, F).
FIG. 10. — Warneckea masoalae R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 10. — Warneckea masoalae R.D.Stone: A, leafy branchlet; B, part of trunk showing pulvinate inflorescence; C, detail of inflorescence with flower buds; D, open flower; E, fruit. Stone et al. 2407. Scale bars: A, 5 cm; B, 2 cm; C, 2 mm; D, 3 mm; E, 5 mm.
FIG. 9. — Memecylon mayottense R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 9. — Memecylon mayottense R.D.Stone: A, habit; B, leaf (adaxial view); C, inflorescence with flower buds; D, petal; E, stamen; F, fruit. A, Pascal 888; B, Pascal 449; C-E, Pignal 1216; F, Pascal 735. Scale bars: A, 5 cm; B, 2 cm; C, 3 mm; D, E, 1 mm; F, 5 mm.
FIG. 8. — Memecylon amplifolium R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 8. — Memecylon amplifolium R.D.Stone: A, habit; B, fruit. A, Andrianantoanina & Bezara 1065; B, Capuron SF-24729. Scale bars: A, 5 cm; B, 3 mm.
FIG. 7. — Memecylon interjectum R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 7. — Memecylon interjectum R.D.Stone: A, habit; B, infructescence. Stone et al. 2408. Scale bars: A, 5 cm; B, 5 mm.
FIG. 6. — Memecylon impressivenum R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 6. — Memecylon impressivenum R.D.Stone: A, habit; B, inflorescence with flower buds; C, petal; D, anther and part of filament. Stone et al. 2406. Scale bars: A, 3 cm; B, 2 mm; C, D, 1 mm.
FIG. 5. — Memecylon perditum R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 5. — Memecylon perditum R.D.Stone: A, habit; B, inflorescence with flower buds; C, open flower with stamens and two petals removed; D, anther and part of filament. Stone et al. 2402. Scale bars: A, 5 cm; B, C, 2 mm; D, 1 mm.
FIG. 4. — Memecylon xiphophyllum R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 4. — Memecylon xiphophyllum R.D.Stone: A, leafy branchlet; B, flowering branchlet; C, flower bud just before anthesis; D, same flower bud with petals and stamens removed; E, anther (side view); F, anther (oblique view of dorsal face). Stone et al. 2393. Scale bars: A, 10 cm; B, 5 cm; C, D, 2 mm; E, F, 1 mm.
FIG. 1. — Memecylon acrogenum R.D in New species of Memecylon L. and Warneckea Gilg (Melastomataceae) from Madagascar and Mayotte
FIG. 1. — Memecylon acrogenum R.D.Stone: A, habit; B, infructescence; C, fruit (apical view showing epigynous chamber). A, Lowry & Schatz 4266; B, C, SF-17940. Scale bars: A, 5 cm; B, 1 cm; C, 2 mm.
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