Skip to main content

Iron Oxide Sputtering Targets and Applications

Iron oxide is a chemical compound with chemical formula of Fe3O4. Iron Oxide (Fe3o4) Sputtering Targets (Size:1'',Thickness:0.125'' , Purity: 99.9%) occurs in nature as the mineral magnetite. Iron oxides are interesting due to their catalytic, magnetic, and semiconducting properties, and because they are produced during corrosion. Their applications include, for example, usage as pigments, catalysts in styrene synthesis, and as a material for high-density magnetic storage.
Thin films of iron oxide sputtering targets can be obtained by different deposition methods and used for various purposes.
Due to the predicted half-metallic nature and high polarization, iron oxide thin films have drawn a great deal of interest as promising candidates for application in tunneling magnetoresistance (TMR) devices. Single crystalline thin films have been epitaxially grown on MgO substrates, due to the good lattice match between the oxides. Polycrystalline iron oxide thin films have also been deposited on Si substrates to study the properties. The deposition methods used to date include plasma assisted molecular-beam epitaxy (MBE), pulsed laser deposition (PLD) from oxide targets, and reactive sputter deposition from an Fe target with Ar–O2 mixture gas flow. 

Comments

Popular posts from this blog

Titanium Carbide Powders and Applications

Titanium carbide which has the chemical formula of TiC attracted great interest for many structural applications due to its extremely high melting temperature, high hardness, high chemical resistance and good electrical conductivity. Therefore titanium carbide can be used in cutting tools, grinding wheels, wear-resistant coatings, high temperature heat exchangers, magnetic recording heads, turbine engine seals, and bullet-proof vests, etc. In addition, a promising field of application comprises plasma and flame spraying processes in air, where titanium carbide-based powders show high-phase stability. TiC(Titanium Carbide Powder) (325 mesh, 99,9+%)  can also be used in biomedical implant devices. Materials used for biomedical implant devices must satisfy a variety of property demands, which are often mutually exclusive. Further, different parts of a device demand different material properties. These factors often make it difficult to manufacture a medical device using a...

New Way of Deaf-Mute Communication with 3D Graphene

Image retrieved from: http://blogs.rsc.org/cc/2016/09/01/3d-graphene-adds-dimension-to-deaf%E2%80%93mute-communication/ Chinese scientists have developed wearable electronic device with conductive 3D graphene structure to translate sign language into written text. This technology can be applied by injecting graphene ink from a syringe under printed electronic field. For medical field, such as adhesive patches which determine heart, brain signal and neural activity, wearable and bio-integrated medical devices are very important. Due to noticeable properties of cast graphene, for example a 2D honeycomb lattice, excellent mechanical and electrical behaviors, Graphene has an important material in warble technology. However, it is difficult to preserve advantages of Graphene material in a 3D material which has an information about forces from every angle. Yanlin Song  and co-workers at the University of the Chinese Academy of Sciences, Beijing, and Shenyang Jianzhu University...

Carbon Nanotubes Doped with Graphene Nanopowder and Applications

Carbon nanotubes and graphene are different forms of carbon atom based materials. They have different properties and can be used in various applications. But what happens if we use them as a hybrid structure? The excellent mechanical, physical, and chemical properties of low-dimensional carbon materials like graphene and carbon nanotube have enabled them as promising building blocks for three-dimensional nanoarchitectures. In this regard, extensive interests have been attracted to synthesize graphene and carbon nanotube hybrid structures. Earlier works suggested that  Carbon Nanotubes Doped with Graphene Nanopowder (52 wt% Graphene )  is a promising solution for quick energy dissipation, which could enhance interface thermal conductivity of the ‘building blocks’ for future nanoscale mechanical and electrical devices. In the electricity perspective, it is found that ‘CNT pillared-graphene’ system would extend the excellent electrical conductivity of graphene and nanotube to ...