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Advanced Materials Oxides Brochure

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Advanced Materials Oxides Brochure ADVANCED MATERIALS Oxides Oxides The Challenge Materion Advanced Materials, formerly CERAC, Inc., offers complete reproducibility BENEFITS to assure consistent high performance of all oxide compounds. Our integrated We offer a full range of inorganic oxide technologies and manufacturing capabilities allow us to deliver exact compositions, in optical coating materials whatever your application. the exact form you require, exactly where and when you need it! n Variety of forms including granules, pellets & powders n Purity levels up to 99.999% n Supporting various optical wavelength ranges from UV to Far IR GLOBAL MANUFACTURING PROCESSES Custom oxide compositions to your exact specifications provide high yield and less down time. n Oxide Synthesis n Controlled Atmosphere Handling n Chemical Analysis n Custom Particle Sizing OXIDE MATERIALS FOR OPTICAL COATING DEPOSITION n n n n n Aluminum Oxide, Al2O3 Europium Oxide, Eu2O3 Lithium Manganese Oxide, Samarium Oxide, Sm2O3 Titanium Monoxide, TiO LiMn O n n 2 4 n n Antimony Oxide, Sb2O3 Gadolinium Oxide, Gd2O3 Scandium Oxide, Sc2O3 Titanium Sesquioxide, Ti2O3 n Magnesium-Aluminum n Barium Titanate, BaTiO n Gallium Oxide, Ga O n Silicon Dioxide, SiO n Tungsten Oxide, WO 3 2 3 Oxide (spinel) 2 3 n Bismuth Oxide, Bi O n Germanium Oxide, GeO n Silicon Monoxide, SiO n Ytterbium Oxide, Yb O 2 3 2 n Magnesium-Aluminum- 2 3 n n Zirconium Oxide (spinel) n n Boron Oxide, B2O3 Hafnium Oxide, HfO2 Strontium Oxide, SrO Yttrium Oxide, Y2O3 n n n Magnesium Oxide, MgO n n Cadmium Oxide, CdO Indium Oxide, In2O3 Tantalum Oxide, Ta 2O5 Zinc Oxide, ZnO n n n Molybdenum Oxide, MoO n n Calcium Oxide, CaO Indium-Tin Oxide, 90In2O3- 3 Terbium Oxide, Tb4O7 Zirconium Oxide, ZrO2 10SnO2 (mol%) n n Neodymium Oxide, Nd O n n Cerium Oxide, CeO2 2 3 Thorium Oxide, ThO2 Zirconium Oxide- n Iron Oxide, Fe O Magnesium Oxide, n Chromium Oxide, Cr O 2 3 n Niobium Oxide, Nb O n Thulium Oxide, Tm O 2 3 2 5 2 3 ZrO -xMgO n 2 Lanthanum Oxide, La2O3 n n Praseodymium Oxide, Pr O n Dysprosium Oxide, Dy2O3 2 3 Tin Oxide, SnO2 n Zirconium Oxide-Titanium n Lead Titanate, PbTiO3 n n Rare Earth Oxides n Oxide, ZrO -xTiO Erbium Oxide, Er2O3 Titanium Dioxide, TiO2 2 2 n Lutetium Oxide, Lu2O3 ADVANCED MATERIALS 407 North 13th Street Europe: +44.1635.223838 Milwaukee, WI 53233 Asia: +886.3.2226350 Phone: +1 414.289.9800 MATERION CORPORATION [email protected] www.materion.com www.materion.com/advancedmaterials MATERION ADVANCED MATERIALS is a global supplier of premier specialty materials and services. Our offerings include precious & non-precious thin film deposition materials, inorganic chemicals and microelectronic packaging products. In addition, we have related services to meet our customers’ requirements for precision parts cleaning, precious and valuable metal reclamation and R&D. We support diverse industries including medical, LED, semiconductor, data storage, precision optics, large area glass and aerospace..
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  • Application of Zinc and Magnesium Oxides Nanoparticles in Crosslinking of Carboxylated Butadiene-Acrylonitrile Rubber
    Application of zinc and magnesium oxides nanoparticles in crosslinking of carboxylated butadiene-acrylonitrile rubber. M. Lipinska*, M. Zaborski** *Technical University of Lodz, Institute of Polymer and Dye Technology Stefanowskiego 12/16 street, 90-924 Lodz, Poland, [email protected] **Technical University of Lodz, Institute of Polymer and Dye Technology Stefanowskiego 12/16 street, 90-924 Lodz, Poland, [email protected] ABSTRACT and accelerators. These advantages result from their higher ability for stress relaxation. Moreover, ionic elastomers In our work nanosized zinc oxides as well as magnesium demonstrate thermoplastic properties and can be processed 7 oxide of different size and morphology for crosslinking of in a molten state . carboxylated butadiene-acrylonitrile rubber XNBR were applied. The relationship between the most important 2 EXPERIMENTAL parameters influencing the activity during the ionic 2.1 Materials and characterization crosslinking process i.e specific surface area, particle size and morphology of oxides surface and the mechanical In our work to prepare rubber mixtures carboxylated properties of obtained crosslinked materials were examined. butadiene-acrylonitrile rubber XNBR (Krynac X7.50) The influence of used oxides on the curing kinetics, containing 27 wt% acrylonitrile and 6.7 wt% carboxylic crosslink density of vulcanisates and the content of ionic groups produced by Bayer AG was used. As a crosslinking crosslinks was determined. We conclude that zinc and agents were applied: magnesium oxides allowed to obtain vulcanisates with • magnesium oxide MgO – nanopowder (Sigma considerably better mechanical properties as compared to – Aldrich with surface area 130 m2/g those crosslinked with 8 phr of commercially used • zinc oxide ZnO A – nanopowder (Qinetiq microsized zinc oxide.
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  • High Purity Metal Compounds
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