摘要:
A sliding member of the present invention includes a base material and a coating layer that is formed on the base material. The coating layer includes a particle aggregate, and the particle aggregate contains two or more kinds of precipitation hardened copper alloy particles that have different compositions. The sliding member has high coating strength and superior wear resistance.
摘要:
A hybrid conductive material comprising at least one conductive material having at least one internal porous insulative layer; and wherein, at least one of the conductive materials fills the voids of the internal porous insulative layer. The hybrid material blends conductive metals and porous insulation layers in a manner so that the resulting material operates as a single layer material with its own unique conductivity and skin depth; and a unique and strong directional impedance. By using a porous insulation layer, metal layers may be bonded together through insulation layers, and this allows rapid low-cost formation of the hybrid material. The hybrid material may be used to form thin wires or traces capable of handling high frequency applications.
摘要:
A timepiece part has a substrate; and a first coating made from a material containing Co and including greater than or equal to 26 wt % and less than or equal to 30 wt % Cr, and greater than or equal to 5 wt % and less than or equal to 7 wt % Mo. The substrate is preferably made from a material including at least one of stainless steel and Ti. A second coating made of a material including at least one of TiC and TiCN is preferably disposed between the substrate and first coating.
摘要:
A laminated hard coating comprising a layer A and a layer B, wherein the layer A and the layer B differ in composition and are laminated. Layer A contains (MaAlbCrcTad)(BxCyNz) and satisfies 0≦a≦0.35, 0.05≦d≦0.35, 0≦x≦0.15, 0≦y≦0.50, a+b+c+d=1, and x+y+z=1. M is at least one element selected from the group consisting of V, Nb, Mo, and W; a, b, c and d represent the atomic ratios of M, Al, Cr, and Ta, respectively; and x, y, and z represent the atomic ratios of B, C and N, respectively. The layer B comprises (TiαSiβ)(BxCyNz) and satisfies 0.05≦β≦0.35, 0≦x≦0.15, 0≦y≦0.50, α+β=1, and x+y+z=1. α and β represent the atomic ratios of Ti and Si, respectively, and x, y, and z represent the atomic ratios of B, C, and N, respectively. One or more layers of each of these layers have been alternately laminated.
摘要:
A surface-coated cutting tool of the present invention includes: a cutting tool body; and a hard coating layer provided on a surface of the cutting tool body, in which the hard coating layer includes a complex nitride or carbonitride layer, which is expressed by a composition formula: (Ti1-xAlx)(CyN1-y), the average content ratio Xavg of Al and the average content ratio Yavg of C in the complex nitride or carbonitride layer satisfy 0.60≦Xavg≦0.95 and 0≦Yavg≦0.005, provided that each of Xavg and Yavg is in atomic ratio, the complex nitride or carbonitride layer includes crystal grains with a cubic structure, and in the crystal grains with the cubic structure, a composition of Ti and Al is periodically changed in a direction of the normal line to the surface of the cutting tool body.
摘要:
Provided is a multilayer thin film for a cutting tool, in which unit thin films each of which is formed of a total of four thin layers are stacked more than once, the multilayer thin film being capable of realizing improved physical properties compared with conventional one by adjusting an elastic period and a lattice period between the four thin layers. The multilayer thin film for a cutting tool according to the present disclosure is a multilayer thin film for a cutting tool, in which unit thin films each of which is sequentially stacked with thin layers A, B, C, and D are stacked more than once, wherein elastic modulus k between the thin layers satisfies relationships of kA, kC>kB, kD or kB, kD>kC, kA, and lattice parameter L between the thin layers satisfies relationships of LA>LB, LD>LC or LC>LB, LD>LA.
摘要:
Provided is a multilayer hard film capable of elongating a lifetime of a member. A multilayer hard film (1) is formed by alternately stacking a layer A (11) made of Ti1-xSix(BpCqNr) [where 0.05≦x≦0.4, p≧0, q≧0, r>0, p+q+r=1], and a layer B (12) made of at least one selected from the group of Ti1-a-g-bBaCgNb [where 0.05≦a≦0.5, 0.25≦b≦0.6, 0≦g≦0.5], Si1-c-dCcNd [where 0.2≦c≦0.5, 0.25≦d≦0.5], B1-e-fCeNf [where 0.03≦e≦0.25, 0.3≦f≦0.55], TiB2, SiC and B4C, one another over the surface of the substrate (2).
摘要:
Described are methods of depositing an oxygen deficient metal film by chemical reaction of at least one precursor having a predetermined oxygen deficiency on a substrate. An exemplary method includes, during a metal oxide deposition cycle, exposing the substrate to a metal reactant gas comprising a metal and an oxygen reactant gas comprising oxygen to form a layer containing a metal oxide on the substrate. During an oxygen deficient deposition cycle, exposing the substrate to a metal reactant gas comprising a metal and an additional reactant gas excluding oxygen to form a second layer at least one of a metal nitride and a mixed metal on the substrate during a second cycle, the second layer being oxygen deficient relative to the layer containing the metal oxide; and repeating the metal oxide deposition cycle and the oxygen deficient deposition cycle to form the oxygen deficient film having the predetermined oxygen deficiency.
摘要:
A laminated magnetic core, which has a number of magnetic layers and a number of insulation layers which are arranged so that an insulation layer lies between each vertically adjacent pair of magnetic layers, is formed in a method that forms the magnetic layers with an electroplating process, and the insulation layers with a sputter depositing process.
摘要:
A substrate processing chamber component is capable of being exposed to an energized gas in a process chamber. The component has an underlying structure and first and second coating layers. The first coating layer is formed over the underlying structure, and has a first surface with an average surface roughness of less than about 25 micrometers. The second coating layer is formed over the first coating layer, and has a second surface with an average surface roughness of at least about 50 micrometers. Process residues can adhere to the surface of the second coating layer to reduce the contamination of processed substrates.