tib2 (Starck Inc)
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Tib2, supplied by Starck Inc, used in various techniques. Bioz Stars score: 86/100, based on 1 PubMed citations. ZERO BIAS - scores, article reviews, protocol conditions and more
https://www.bioz.com/product/tib2/tib2/pm42105685-118-13-20
Average 86 stars, based on 1 article reviews
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other:Article Title: Spark plasma sintering of ceramics: understanding temperature distribution enables more realistic comparison with conventional processing Article Snippet: Spark plasma sintering (SPS) is a consolidation technique that can combine high heating and cooling rates with a uniaxial applied pressure resulting in short processing time.. SPS has been successful in producing ceramics with novel microstructures, which are often reported to have been produced at temperatures lower than would be possible using conventional densification techniques.. This has led many authors to infer the presence of additional densification mechanisms intrinsic to the SPS process. Article Title: Effects of SiC On the Microstructure, Densification, Hardness and Wear Performance of TiB2 Ceramic Matrix Composite Consolidated Via Spark Plasma Sintering Article Snippet: Table 1, The description of the as-received powder Materials Particle shape Density Particle size Purity (%) Supplier TiB2 Irregular 4.52 5,1 Article Title: Mechanical Properties of Composites with Titanium Diboride Fabricated by Spark Plasma Sintering Article Snippet: For the manufacture of composites by SPS, powders of AISI316L austenitic commercial steel (25 μm in diameter, KAMB Import-Export) and Article Title: Thermomechanical and thermal characterization of pressureless sintered TiB2 Article Snippet: The impact of high-energy milling using WC–Co media on the pressureless sintering and properties of TiB2 was studied.. After 30 mins of milling, samples sintered at 2200 C achieved a high relative density (>98 %) and a fine mean grain size (<2 μm).. In the microstructure WxBy phases, often containing Co, were observed at triple points, due to contamination from the milling media. Article Title: Characterization of the c-BN/TiC, Ti3SiC2 systems by element selective spectroscopy Article Snippet: In spite of great interest of industry in titanium composites based on the cubic boron nitride (c-BN), there is a lack of information about the chemical binding of Ti in these materials.. The reason for that are difficulties in characterizing the multiphase materials with high hardness using conventional methods.. In the present paper, to estimate the content of different compounds of Ti formed during the technological processes we used element selective-spectroscopy. Article Title: Studies on the mechanical properties of steel–TiB<sub>2</sub> composites obtained by high pressure sintering Article Snippet: The currently used composites produced by classical sintering methods are characterised by numerous limitations due to the difficulties in combining different materials with extreme properties.. One of the ways to overcome these limitations is in the use of modern sintering methods, including the highpressure-high temperature process.. This studydescribes the compositematerials based on 316L austenitic steel reinforced with titanium diboride and examines the effect of sintering conditions on the mechanical properties and microstructure of sintered composites. Article Title: Nuclear hyperfine interactions in critical metal AlB 2 -structured diborides and correlations to physical properties. Article Snippet: Metal diboride samples were received as crystalline powders: MgB2 (98%) from Alfa Aesar; TiB2 (97%), ZrB2 (98%) from H. C. Synthesized:Article Title: Compositionally complex diborides: competing solubility during sintering and properties Article Snippet: .. In addition to the inhouse synthesized NbC and VC, commercial powders were used to prepare the ceramics: ZrB2 (H.C. Starck, Germany, Grade B), specific surface area 1.0 m2/g, particle size range 1.5–3.0 μm, impurity (wt%): C 0.2, O 0.7, N 0.10, Fe 0.1, Hf 1.7; TiB2 (H.C. Starck, Germany, Grade F), particle size range 2.5–3.5 μm, impurity (wt%): C 0.4, O 2.5, N 0.5, Fe 0.1; HfC (Materion, 325 mesh, purity 99.5), mean particle size < 1 μm, impurity (wt%): O < 0.6, Zr<0.1, Ti<0.01, Ca<0.005, Al<0.001, Fe<0.001; and |
