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8,547 results for “Characterization”
Figure 3 in Two new species of Bonnetina tarantulas (Theraphosidae: Theraphosinae) from Mexico: contributions to morphological nomenclature and molecular characterization of types
Figure 3. Bonnetina tenuiverpis sp. n. Male holotype, left pedipalpal bulb, stereomicroscope images. (A) Prolateral view; (B) retrolateral view; (C) dorsal view; (D) ventral view. Scale line: 1 mm.
Figure 5 in Morphofunctional characterization and antibacterial activity of haemocytes from Octopus vulgaris
Figure 5. Micrograph of Octopus vulgaris cultured haemocytes showing phagocytic activity. Arrows indicate the phagocytosed yeast particles. Scale bar = 10 μm.
Figure 8 in Morphofunctional characterization and antibacterial activity of haemocytes from Octopus vulgaris
Figure 8. Bactericidal activity of Octopus vulgaris haemocyte crude methanolic acid extract (HMAE). The graph shows the inibition of E. coli growth in the presence of increasing concentrations of HMAE: at 0.2 μg/ml HMAE the bacterial growth is dramatically reduced, while at 0.8 μg/ml it is completely inhibited.
Figure 1 in Morphofunctional characterization and antibacterial activity of haemocytes from Octopus vulgaris
Figure 1. Differential interference contrast micrographs showing different types of haemocytes in culture plate: (A) haemoblast-like cell without pseudopodia; (B) two hyalinocytes connecting each other with pseudopodia; (C) well-attached granulocyte showing dendritic pseudopodia formation; (D) graph showing the ratio among the three haemocyte types. Scale bar = 5 μm.
Figure 4 in Morphofunctional characterization and antibacterial activity of haemocytes from Octopus vulgaris
Figure 4. Light microscopy micrographs of Octopus vulgaris haemocytes processed with enzymatic histochemistry analysis: (A) granulocytes showing a peroxidase activity localized as dark brown deposits; (B) haemoblast-like cells with phenol oxidase activity; (C) hyalinocytes with phenol oxidase activity; (D) granulocytes showing phenol oxidase activity. Scale bar = 5 μm.
Figure 3 in Morphofunctional characterization and antibacterial activity of haemocytes from Octopus vulgaris
Figure 3. Light microscopy micrographs of haemocytes stained with Giemsa/May–Grünwald stain: (A) acidophilic haemoblast-like cells (arrowheads) and granulocytes with acidophilic cytoplasm and cells (arrows); (B) hyalinocytes with basophilic nucleus and cytoplasm filled with vacuoles and few granules; (C) granulocytes cells with basophilic cytoplasm. Scale bar 5 μm.
Biochemical Characterization of Mouse Retina of an Alzheimer's Disease Model by Raman Spectroscopy
<p>Raman raw data for the paper "Biochemical Characterization of Mouse Retina of an Alzheimer’s Disease Model by Raman Spectroscopy"</p> <ul> <li>two datasets of Raman images from cross-sectional and en face mouse retinas without processing</li> </ul>
Characterization data for the manuscript "A data-driven perspective on the colours of metal-organic frameworks"
<p>Visualize the data in this dataset: <a href="https://www.c6h6.org/zenodo/record/4044212">open entry</a>. </p>
FIG. 15. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 15. — A, archaeological shells with use-wear traces on the edge (Cuccuru s'Arriu, Cabras, Italy); B, use-wear traces related to contact with plant matter. Scale bars: A, 5 cm; B, 100 µm.
FIG. 13 in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 13. — Archaeological shells with use-wear traces on the ventral face (Cuccuru s'Arriu, Cabras, Italy) related to contact with an indeterminate mineral matter. Scale bars: A, 5 cm; B, 100 µm.
FIG. 14. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 14. — A, archaeological shells with use-wear traces on the edge (Cuccuru s'Arriu, Cabras, Italy); B, valve with mineral colouring residue on the ventral face, near the upper edge; C, indeterminate use-wear traces; D, valve with use-wear traces (E-H) related to contact with plant matter. Scale bars: A, D, 5 cm; B, C, E-H: 100 µm.
FIG. 6. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 6. — A, working mode; B, results obtained; C, D, experimental shell surface used to process rushes (separation of the stems; 15 minutes); E, working conditions; F, results obtained; G, H, experimental shell surface used to process flax (crushing; 15 minutes). Scale bars: 100 µm.
FIG. 10. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 10. — A, Archaeological shell with use-wear traces (C-D) and red-dye traces (ochre?) (B) on the dorsal face (Cuccuru s'Arriu, Cabras, Italy) related to contact with a mineral matter, clay. Scale bars: A, 5 cm; B, C, D, 100 µm.
FIG. 5. — A, B in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 5. — A, B, working conditions (A, 45° inclination; B, 135° inclination); C, D, experimental shell surface used to process dry hide (scraping with the use of ochre; 15 minutes); E, F, experimental shell surface used to process boxwood (scraping; 15 minutes); G, H, experimental shell surface used to process basswood (scraping; 15 minutes). Scale bars: 100 µm.
FIG. 9. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 9. — A, Archaeological shell with use-wear traces of suspension (Cuccuru s'Arriu, Cabras, Italy); B-C, use-wear traces localized on the edge of natural perforation (B) and on the hinge (C). Scale bars: A, 5 cm; B, C, 100 µm.
FIG. 4. — A, B in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 4. — A, B, experimental shell surface used to process dry hide (softening; 15 minutes); C, D, working conditions (C, 45° inclination; D, 135° inclination); E, F, experimental shell surface used to process dry hide (scraping). Scale bars: 100 µm.
FIG. 1. — A, B in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 1. — A, B, Geographical data; C, Location of the site of Cuccuru s'Arriu (red point) and indication of beaches near the site with Glycymeris valves (Tharros West, San Giovanni di Sinis, Su Maimoni and Pesaria).
FIG. 12. — A in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 12. — A, archaeological shell with use-wear traces (B-D) on the ventral face (Cuccuru s'Arriu, Cabras, Italy) related to contact with a mineral matter: utilization as a container for mixing mineral substances. Scale bars: A, 5 cm; B, C, D, 100 µm.
FIG. 3. — A-D in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 3. — A-D, micro-polishes identified on the dorsal face of Glycymeris valves with different microtopography, texture, fabric and extension:A, absence of micropolish; B-D, presence of micro-polish becoming gradually more marked; E, F, scratches identified on the dorsal face of valves. Scale bars: 100 µm.
FIG. 8. — A, B in The shell industry in Final Neolithic societies in Sardinia: characterizing the production and utilization of Glycymeris da Costa, 1778 valves
FIG. 8. — A, B, use of shells as containers (mixing the crushed ochre with a sticky substance; 1 hour); C, D, experimental shell surface. Scale bars: 100 µm.
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Allen Brain Atlas
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International Brain Laboratory public data
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OpenNeuro
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