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1,175 results for “Coating”
Coat of arms of Napoleon
Coat of arms of Napoleon Source: Objaverse 1.0 / Sketchfab
Functionalized ionic liquid coatings in the Pd-catalyzed selective hydrogenation of acetylene in ethylene-rich feeds
<p>Raw data and python script as well as instructions for data evaluation</p>
Pole Figures for Response to Technical Comment on "Spin Coating Epitaxial Films"
<p>Pole figures for spin coated films. In each figure <strong>(A)</strong> is the data as reported in <em>Science</em> <strong>364</strong>, 166-169 (2019), and <strong>(</strong><strong>B)</strong> is the data that is re-scaled with fewer contours so as to minimize that background intensity that is due primarily to the substrate.</p>
MRI Study of the Influence of Surface Coating Aging on the In Vivo Biodistribution of Iron Oxide Nanoparticles
<p>Dataset accompanying figures published in the publication DOI: 10.3390/bios8040127</p>
Simulating burial and compaction of clay grain coated sands in a modern marginal marine sedimentary system
Open the record for dataset details and reuse information.
FIGURE 5 in Three dominating hypocrealean fungi of the 'white mold spots' on acrylic varnish coatings of the murals in a Koguryo tomb in China
FIGURE 5. Sarocladium kiliense (CGMCC 3.19018). a Colonies on PDA after 14 days, forward (left), reverse (right). b–e Conidiophores with conidia f–i. Conidiogenous cells. j–m Conidia. Scale bars: b–d= 20 μm; e–i= 10 μm; k–m = 5 μm.
FIGURE 2 in Three dominating hypocrealean fungi of the 'white mold spots' on acrylic varnish coatings of the murals in a Koguryo tomb in China
FIGURE 2. Phylogeny of Hypocreales based on a combination of ITS and LSU sequence data. Xylaria hypoxylon, Xylaria arbuscula, and Xylaria polymorpha are selected as outgroup taxa. Bayesian posterior probabilities greater than 0.95 are indicated (BYPP) (left). Bootstrap values higher than 75% from RAxML (MLBS) (right) are given above the nodes. Asterisks indicate bootstrap values less than 50% or Bayesian posterior probability values lower than 0.95. T indicates ex-living type. NT indicates new ex-living type. Our taxa are in red font.
FIGURE 4 in Three dominating hypocrealean fungi of the 'white mold spots' on acrylic varnish coatings of the murals in a Koguryo tomb in China
FIGURE 4. Leptobacillium muralicola (HMAS 247818, holotype). a Colonies on PDA after 14 days, forward (left), reverse (right). b Mycelia. c, f Conidiophores with conidia. d, e. Conidiogenous cells. g, h. Conidia in chain. i–k Conidia. Scale bars: b = 1 cm; c = 100 μm; d–i = 10 μm; j, k = 5 μm.
FIGURE 3 in Three dominating hypocrealean fungi of the 'white mold spots' on acrylic varnish coatings of the murals in a Koguryo tomb in China
FIGURE 3. Acremonium camptosporum (CGMCC 3.19017) a Colonies on PDA after 14 days, forward (left), reverse (right). b–e Conidiophores with conidia. f–i Conidiogenous cells. j–m Conidia. Scale bars: b–h = 10 μm; i–m = 5 μm.
FIGURE 1 in Three dominating hypocrealean fungi of the 'white mold spots' on acrylic varnish coatings of the murals in a Koguryo tomb in China
FIGURE 1. 'Moldy spots' on the mural surface (A) and pattern of fungal taxa of 'moldy spots' in order level (B). Phylogenetic analyses.
Self-cleaning coatings for sand stones
<p>Datasets for manuscript Self-cleaning coatings for sand stones</p>
FIGURE 15. Righiella jamiesoni Omodeo and Coates 2001. A in A monograph of the Oligochaete family Alluroididae
FIGURE 15. Righiella jamiesoni Omodeo and Coates 2001. A. Scheme showing arrangement of genital organs and vascular commissures. B. Cross section through spermathecal duct; C. Cross section through prostate. Abbreviations: a, spermathecal ampulla, at, male atrium, cv, commissural vessels, d, spermathecal duct, md, male duct, os, egg sac, pr, prostate, sps, sperm sac. From Omodeo and Coates (2001), reproduced with permission.
Simultaneous Primer Coating for Fast Drying of Battery Electrodes
<p>Additional data to research article: "Simultaneous Primer Coating for Fast Drying of Battery Electrodes"</p> <p>Energy Technology, Nov 2024 (https://doi.org/10.1002/ente.202401668 ) </p> <p>David Burger*, Noah Keim, Junaid Shabbir, Yuhao Gao, Marcus Müller, Werner Bauer, Alexander Hoffmann, Philip Scharfer, Wilhelm Schabel</p> <p>D. Burger, J. Shabbir, Y. Gao, A. Hoffmann, Dr.-Ing. P. Scharfer, Prof. Dr.-Ing. W. Schabel Thin Film Technology (TFT) Karlsruhe Institute of Technology (KIT) Straße am Forum 7, D-76131 Karlsruhe, Germany E-mail: david.burger@kit.edu</p> <p>N. Keim, Dr. M. Müller, Dr. W. Bauer Institute for Applied Materials (IAM) – Energy Storage Systems (ESS) Karlsruhe Institute of Technology (KIT) Hermann-von-Helmholtz-Platz 1, D-76144 Eggenstein-Leopoldshafen, Germany</p>
Data from: Selection and microevolution of coat pattern are cryptic in a wild population of sheep
Understanding the maintenance of genetic variation in natural populations is a core aim of evolutionary genetics. Insight can be gained by quantifying selection at the level of the genotype, as opposed to the phenotype. Here, we show that in a natural population of Soay sheep which is polymorphic for coat pattern, recessive genetic variants at the causal gene, agouti signalling protein (ASIP), are associated with reduced lifetime fitness. This was due primarily to a reduction in juvenile survival of uniformly coloured (self-type) sheep, which are homozygous recessive, and occurs despite significantly higher reproductive success in surviving self-type adults. Consistent with their relatively low fitness, we show that the frequency of self-type individuals has declined from 1985 to 2008. Remarkably though, the frequency of the underlying self-allele has increased, because the frequency of heterozygous individuals (who harbour the majority of all self alleles) has increased. Indeed, the ratio of observed:expected heterozygous individuals has increased during the study, such that there is now a significant excess of heterozygotyes. By employing gene-dropping simulations, we show that microevolutionary trends in the frequency and excess of ASIP heterozygotes are too pronounced to be caused by genetic drift. Studying this polymorphism at the level of phenotype rather than underlying genotype would have failed to detect cryptic fitness differences. We would also have been unable to rule out genetic drift as an evolutionary force driving genetic change. This highlights the importance of resolving the underlying genetic basis of phenotypic variation in explaining evolutionary dynamics.
FIGURE 4 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 4: Seed coat anatomy in cross section of nine species of the genus Erysimum using the light microscope (200x). a: E. badghisi, b: E. crassicaule, c: E. sp., d: E. crassipes, e: E. griffithianum, f: E. ischnostylum, g: E. kerbabaevii, h: E. repandum, k: E. stocksianum.
FIGURE 3 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 3: Different layers in cross sections of seed coat of E. repandum using light microscope. Os: Osteosclereids, Ep: Epidermis layer, Se: Subepidermis layer, Pal: palisade layer, Par: Parenchymatous layer, Al: Aleurone.
FIGURE 6 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 6: UPGMA analysis of the species of the genus Erysimum in Northeast of Iran based on seed characters. The numbers above the branches are the groups discussed in the text. The species are labeled by the following symbols. cr: E. crassicaule, st: E. stocksianum, is: E. ischnostylum, ba: E. badghisi, ke: E. kerbabaevii, re: E. repandum, gr: E. griffithianum, cra: E. crassipes,: cr*: E. sp.
FIGURE 5 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 5: The diagram resulting of the PCA of nine species of Erysimum. A: Position of species based on the first and second principal components. B: Position of species based on the first and third principal components. C: Position of species based on the second and third principal component (number in the parenthesis indicates the percentage of variation along each axis). black square=E. crassicaule, white triangle=E. ischnostylum, black triangle =E. badghisi, diamond =E. stocksianum, star =E. sp., white square =E. kerbabaevii, white circle =E. repandum, black circle =E. griffithianum, and rectangle =E. crassipes.
FIGURE 2 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 2: Pictures of seed microsculpture of nine species of the genus Erysimum using the scanning electron microscope. 1: E. badghisi, 2: E. crassicaule, 3: E. sp., 4: E. crassipes, 5: E. griffithianum, 6: E. ischnostylum, 7: E. kerbabaevii, 8: E. repandum, 9: E. stocksianum (A: scale bar = 100 µm, B: scale bar = 10 µm).
FIGURE 1 in Seed-coat anatomy and microsculpturing of the genus Erysimum (Brassicaceae) in Northeast of Iran
FIGURE 1: Seed images of nine species of the genus Erysimum using the stereo microscope. a: E. badghisi, b: E. crassicaule, c: E. sp., d: E. crassipes, e: E. griffithianum, f: E. ischnostylum, g: E. kerbabaevii, h: E. repandum and k: E. stocksianum.
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Allen Brain Atlas
Allen Brain Atlas is an Allen Institute collection of brain map atlases, datasets, APIs, and analysis tools covering mouse, human, and non-human primate brain resources.
Annotated Behaviour and Observability Dataset (ABODe)
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DANDI Archive for NWB datasets
DANDI is a BRAIN Initiative archive for publishing and sharing neurophysiology data, including electrophysiology, optophysiology, and behavioral data packaged as NWB and related standards.
International Brain Laboratory public data
The International Brain Laboratory public data releases expose standardized mouse decision-making experiments, including Neuropixels recordings, widefield calcium imaging, behavior, and session metadata accessed through the ONE API.
OpenNeuro
OpenNeuro is a free, open platform for sharing neuroimaging datasets, with public search, dataset pages, and download paths for web, S3, DataLad, and the OpenNeuro CLI.