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2,118 results for “Metal”
FIGURES 1–10 in Aglaotilla, a new genus of Australian Mutillidae (Hymenoptera) with metallic coloration
FIGURES 1–10. Aglaotilla submetallescens (Turner, 1916), comb. nov. 1–5, ♀; 1. Habitus: dorsal view; 2. Habitus: lateral view; 3. Head: frontal view; 4. Metasoma: dorsal view; 5. Metasoma (posterior region of T4, T5, T6): dorsal view. 6–10, ♂; 6. Habitus: dorsal view; 7. Habitus: lateral view; 8. Metasoma: dorsal view; 9. Head: frontal view; 10. Left wings: dorsal view. Scales = 1 mm.
FIGURES 19–26 in Aglaotilla, a new genus of Australian Mutillidae (Hymenoptera) with metallic coloration
FIGURES 19–26. Aglaotilla submetallescens (Turner, 1916), comb. nov., ♂, genitalia (drawings omit setae). 19–20. Genitalia: dorsal views (19 = left half only); 21–22. Genitalia: ventral views (22 = left half only); 23–24. Genitalia, left half minus penis valve: sagittal view; 25–26. Left penis valve: lateral view. Scales = 0.5 mm.
Metal Binding to Amyloid Beta 1-42: A Ligand Field Molecular Dynamics Study
<p>DL_POLY Classic inputs and trajectories (PDB format) for 3 x free, Cu and Pt simulations</p>
In situ fracture of Cu/Nb ARB metallic multilayered beam 2
<p>Supplementary Video of the <em>in situ</em> fracture of Cu/Nb ARB metallic multilayered clamped beam 2 inside the JEOL JSM-7600F FESEM. Hysitron PI-85 picoindenter was used to perform this experiment under displacement control with a conical flat tip. </p>
In situ fracture of Cu/Nb PVD metallic multilayered beam 2
<p>Supplementary Video of the <em>in situ</em> fracture of Cu/Nb PVD metallic multilayered clamped beam 2 inside the JEOL JSM-7600F FESEM. Hysitron PI-85 picoindenter was used to perform this experiment under displacement control with a conical flat tip. </p>
In situ fracture of Al/Nb 25 nm metallic multilayered Beam 1
<p>Supplementary Video of the in situ fracture of Al/Nb 25 nm metallic multilayered clamped beam 1 inside the JEOL JSM-7600F FESEM. Hysitron PI-85 picoindenter was used to perform this experiment under displacement control with a conical flat tip. </p>
In situ fracture of Cu/Nb PVD metallic multilayered beam 1
<p>Supplementary Video of the <em>in situ</em> fracture of Cu/Nb PVD metallic multilayered clamped beam 1 inside the JEOL JSM-7600F FESEM. Hysitron PI-85 picoindenter was used to perform this experiment under displacement control with a conical flat tip. </p>
In situ fracture of Cu/Nb ARB metallic multilayered beam 1
<p>Supplementary Video of the <em>in situ</em> fracture of Cu/Nb ARB metallic multilayered clamped beam 1 inside the JEOL JSM-7600F FESEM. Hysitron PI-85 picoindenter was used to perform this experiment under displacement control with a conical flat tip. </p>
Metal−Organic Frameworks as Efficient Oral Detoxifying Agents
<p>Poisoning and accidental oral intoxication are<br> major health problems worldwide. Considering the insufficient<br> efficacy of the currently available detoxification treatments, a<br> pioneering oral detoxifying adsorbent agent based on a single<br> biocompatible metal−organic framework (MOF) is here<br> proposed for the efficient decontamination of drugs commonly<br> implicated in accidental or voluntary poisoning. Furthermore, the<br> in vivo toxicity and biodistribution of a MOF via oral<br> administration have been investigated for the first time. Orally<br> administered upon a salicylate overdose, this MOF is able to<br> reduce the salicylate gastrointestinal absorption and toxicity more<br> than 40-fold (avoiding histological damage) while exhibiting exceptional gastrointestinal stability (<9% degradation), poor<br> intestinal permeation, and safety.</p>
Computation-Ready, Experimental Metal–Organic Frameworks
<p>Experimentally refined crystal structures for metal–organic frameworks (MOFs) often include solvent molecules and partially occupied or disordered atoms. This creates a major impediment to applying high-throughput computational screening to MOFs. To address this problem, we have constructed a database of MOF structures that are derived from experimental data but are immediately suitable for molecular simulations. </p> <p>The development of the CoRE MOF 2014 database is described in “Computation-ready, experimental metal-organic frameworks: A tool to enable high-throughput screening of nanoporous crystals” Chung, Y.G. et al., Chem. Mater. 2014, 26, 6185-6192 (DOI: <a href="https://doi.org/10.1021/cm502594j">10.1021/cm502594j</a>). The CoRE MOF 2014 database was developed through a collaboration of research groups participating in the Nanoporous Materials Genome Center that is supported by the U.S. Department of Energy, Office of Basic Energy Sciences, Division of Chemical Sciences, Geosciences and Biosciences under Award DE-FG02-12ER16362.</p>
Kemmelberg (Belgium) condition images metal objects (2019-08-20)
<p>ENGLISH<br> =======</p> <p>The digital recordings, 13 metal objects from the Kemmelberg (K) excavations (Belgium), present visually their physical condition in August 2019:</p> <p>1. captures with the Phase One IQ3 100MP camera, with a Schneider-Kreuznach Macro LS 120 mm f/4.0 lens<br> 2. meets the FADGI 4 stars en Metamorfoze (Full) standards (i.e. Color Encoding (∆E1976), Total Noise, Illuminance Uniformity)<br> 3. processed with Capture One software (version 11.1.1.11)<br> 4. all are 1500 dpi; verifiable on the color-scale target included on each image<br> 5. written in JPEG sRGB IEC61966-2.1 color space (consultation copy) and in TIFF eciRGB v2 color space (preservation copy)</p> <p>6. recordings by Hendrik Hameeuw<br> 7. recorded at "Imaging Lab, KU Leuven Libraries"</p> <p>Recordings made for V.O.B.o.W. vzw.</p> <p>When used in publications (offline and/or online and/or projection), please refer to the lab (7) and photographer (8), and when possible also the technical info of (1) and (2).</p> <p><br> NEDERLANDS<br> ==========</p> <p>De digitale opnames, 13 metalen objecten van de opgravingen Kemmelberk (K) (België), geven visueel hun fisieke conditie in augustus 2019:</p> <p>1. gemaakt met de camera Phase One IQ3 100MP, en met de Schneider-Kreuznach Macro LS 120 mm f/4.0 lens<br> 2. voldoen aan de FADGI 4 sterren en Metamorfoze (Full) standaarden (i.e. Color Encoding (∆E1976), Total Noise, Illuminance Uniformity)<br> 3. verwerkt door Capture One software (versie 11.1.1.11)<br> 4. allen aan 1500 dpi; steeds verifieerbaar met het bijgefotografeerde kleur-schaal target<br> 5. in JPEG sRGB IEC61966-2.1 kleurenruimte en TIFF eciRGB v2 kleurenruimte geschreven </p> <p>6. Opname door Hendrik Hameeuw<br> 7. Opname te "Digitaal Labo (Imaging Lab), KU Leuven Bibliotheken"</p> <p>Opnames voor V.O.B.o.W. vzw.</p> <p>Bij gebruik in publicaties (offline en/of online en/of projectie), gelieve naam van labo (7) en fotograaf (8) te vermelden, en zo ver als mogelijk de technische info onder (1) en (2) te vermelden.<br> </p>
Descriptors for Electron and Hole Charge Carriers in Metal Oxides: Calculations Dataset
<p>Calculation dataset required in order to carry out the full analysis in <a href="http://github.com/FaradayInstitution/charge_carriers_data">This repository</a>. Outputs from hybrid Density Functional Theory calculations using the Vienna Ab-initio Simulation Package (VASP) are provided. See the main repository for details on analysis steps. </p>
Intermediate bosonic metallic state in the superconductor-insulator transition
<p>Whether a metallic ground state exists in a two-dimensional system beyond Anderson localization remains an unresolved question. Here, we study how quantum phase coherence evolves across superconductor-metal-insulator transitions via magneto-conductance quantum oscillations in nanopatterned high-temperature superconducting films. We tune the degree of phase coherence by varying the etching time of our films. Between the superconducting and insulating regimes, we detect a robust intervening anomalous metallic state characterized by saturating resistance and oscillation amplitude at low temperatures. Our measurements suggest that the anomalous metallic state is bosonic and that the saturation of phase coherence plays a prominent role in its formation.</p>
parallelpro/numax: Source code for "Realistic Uncertainties for Fundamental Properties of Asteroseismic Red Giants and the Interplay Between Mixing Length, Metallicity and Numax" by Li, Yaguang et al. (2024)
<p>This repository contains the datasets and Python scripts used in the paper "Realistic Uncertainties for Fundamental Properties of Asteroseismic Red Giants and the Interplay Between Mixing Length, Metallicity, and Numax" by Yaguang Li et al. (2024). The stellar models used in this project are available on <a href="https://doi.org/10.5281/zenodo.12815718">Zenodo</a>.</p>
FIGURE 16 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 16. Epilithic diatoms from Cascavel River micro-watershed in SEM. A–B. Nitzschia clausii. C–D. N. inconspicua, external and internal views. E–F. N. perminuta. G–H. Iconella curvula. I. I. delicatissima. Scale bars: 2 µm (Figs B–H), 5 µm (Fig. A), 10 µm (Fig. I).
FIGURE 15 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 15. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Pinnularia acoricola. B. Chamaepinnularia brasilianopsis. C–D. Sellaphora nigri, internal and external views. E. S. saugerresii. F. Navicula cryptocephala. G. N. salinicola. H–I. N. symmetrica, external and internal views. Scale bars: 2 µm (Figs A–E, G), 5 µm (Figs F, H–I).
FIGURE 10 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 10. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Capartogramma crucicula. B. Gyrosigma acuminatum. C. G. obtusatum. D–E. Navicula eichhorniaephila. F–I. N. cryptocephala. G–I. Teratological valves. J. N. angusta. K. N. leptostriata. L–M. N. cryptotenella. M. Teratological valve. N. N. radiosa. O–P. N. tenelloides. Q. N. symmetrica. R. N. schwabei. S. N. rostellata. T–U. N. salinicola. V–W. Craticula submolesta. W. Teratological valve. X. C. ambigua. Y–Z. C. riparia. Z. Teratological valve. AA–AB. Stauroneis smithii. AC. S. gracilis. AD. S. neohyalina. AE. S. phoenicenteron. AF–AG. Chammaepinnularia brasilianopsis. AH. Pseudofallacia monoculata. AI–AJ. Kobayasiella parasubtilissima. AK. Halamphora montana. AL. H. normanii. AM. Amphora copulata. Scale bars: 10 µm.
FIGURE 13 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 13. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Eunotia bilunaris, teratological valve with constriction in the median portion of the valve (arrow). B–C. E. botulitropica. C. Girdle view. D–E. E. rhomboidea. E. Internal view. F–G. E. desmogonioides, internal views. H. E. georgii. I. Geissleria punctifera. J. Gomphonema lagenula, teratological valve with bent apex (arrow). K–L. G. pumilum. K. Internal view. Scale bars: 2 µm (Figs A–G, I–K), 5 µm (Fig. H), 1 µm (Fig. L).
FIGURE 12 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 12. Epilithic diatoms from Cascavel River micro-watershed in SEM. A. Cyclotella kingstonii. B–C. Discostella stelligera. C. Internal view. D. Aulacoseira ambigua. E–F. A. tenella. F. Internal view. G. A. pusilla. H–I. Fragilaria radians. H. Internal view. J–K. F. pectinalis. Scale bars: 2 µm (Figs A–H, K), 5 µm (Figs I–J).
FIGURE 11 in Taxonomy of epilithic diatoms and teratological forms under the presence of metals in surface sediment
FIGURE 11. Epilithic diatoms from Cascavel River micro-watershed in LM. A. Hantzschia amphioxys. B. Nitzschia dissipata. C–F. N. palea. D–F. Teratological valves. G. N. clausii. H. N. recta. I. N. intermedia. J. N. lorenziana. K. N. linearis. L–M. N. palea var. debilis. N–P. N. inconspicua. Q. N. brevissima. R–S. N. perminuta. T. N. terrestris. U–V. N. amphibia. W. N. semirobusta. X. Tryblionella debilis. Y. Rhopalodia gibberula. Z–AA. Iconella curvula. AB. I. delicatissima. AC. I. splendida. AD. I. tenuissima. AE. Surirella stalagma. AF. S. angusta. AG. S. biseriata var. constricta. AH. Iconella constricta. Scale bars: 10 µm.
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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
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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.