84 results about "Atomic composition" patented technology

An amorphous oxide at least includes: at least one element selected from the group consisting of In, Zn, and Sn; and Mo. An atomic composition ratio of Mo to a number of all metallic atoms in the amorphous oxide is 0.1 atom % or higher and 5 atom % or lower.

A method for forming a self aligned pattern on an existing pattern on a substrate comprising applying a coating of a solution containing a masking material in a carrier, the masking material having an affinity for portions of the existing pattern; and allowing at least a portion of the masking material to preferentially assemble to the portions of the existing pattern. The pattern may be comprised of a first set of regions of the substrate having a first atomic composition and a second set of regions of the substrate having a second atomic composition different from the first composition. The first set of regions may include one or more metal elements and the second set of regions may include a dielectric. The first and second regions may be treated to have different surface properties. Structures made in accordance with the method. Compositions useful for practicing the method.

The invention relates to a method of producing a strip of nanocrystalline material which is obtained from a wound ribbon that is cast in an amorphous state, having atomic composition [Fe1-a-bCoaNib]100-x-y-2-alpha-beta-gamma Cu<x>Si<y>BzNbalphaM'betaM''gamma, M' being at least one of elements V, Cr, Al and Zn, and M being at least one of elements C, Ge, P, Ga, Sb, In and Be, with: a <= 0.07 and b = 0.1, 0.5 <= x <=1.5 and 2 <= a <= 5, 10 <= y <= 16.9 and 5 <= z <= 8, beta <= 2 and gamma <= 2. According to the invention, the amorphous ribbon is subjected to crystallisation annealing, in which the ribbon undergoes annealing in the unwound state, passing through at least two S-shaped blocks under voltage along an essentially longitudinal axial direction of the ribbon, such that the ribbon is maintained at an annealing temperature of between 530 DEG C and 700 DEG C for between 5 and 120 seconds and under axial tensile stress of between 2 and 1000 Mpa. The tensile stress applied to the amorphous ribbon, the displacement speed of the ribbon during annealing and the annealing time and temperature are all selected such that the cross-section profile of the strip is not in the form of Omega and the maximum deflection of the cross-section of the strip is less than 3% of the width of the strip and preferably less than 1% of the width. The invention also relates to the strip and the core thus obtained and to the device used to implement the method.

A PVD component forming method includes identifying two or more solids having different compositions, homogeneously mixing particles of the solids using proportions which yield a bulk formula, consolidating the homogeneous particle mixture to obtain a rigid mass while applying pressure and using a temperature below the minimum temperature of melting or sublimation of the solids, and forming a PVD component including the mass. A chalcogenide PVD component includes a rigid mass containing a bonded homogeneous mixture of particles of two or more solids having different compositions, the mass having a microcomposite structure exhibiting a maximum feature size of 500 μm or less, and one or more of the solids containing a compound of two or more bulk formula elements. An alternative PVD component exhibits a uniform composition with less than 10% difference in atomic compositions from feature to feature.

A system for analyzing the chemical composition of a sample, comprising exciting a portion of the sample to generate atomic spectral emissions; a spectrometer for determining atomic emission characteristics; processor for receiving an output from the spectrometer, analyzing said output to determine atomic composition, said processor predicting at least one of (i) an origin of the sample, (ii) a treatment applied to said sample, (iii) a composition of the sample, and (iv) a feedback signal for controlling a process. Calibration samples are also provided for standardizing readings from the spectrometer.

An optical recording medium includes a recording layer, a first dielectric layer disposed on the side of a light incidence plane through which the laser beam enters with respect to the recording layer, a second dielectric layer disposed on the side opposite to the light incidence plane with respect to the recording layer, a heat radiation layer disposed on the side of the light incidence plane with respect to the first dielectric layer and a reflective layer disposed on the side opposite to the light incidence plane with respect to the second dielectric layer, the recording layer containing a phase change material represented by an atomic composition formula: SbaTebGecMnd, where a is equal to or larger than 55 and equal to or smaller than 70, c is equal to or larger than 4 and equal to or smaller than 10, d is equal to or larger than 10 and equal to or smaller than 20, a/b is equal to or larger than 2.8 and equal to or smaller than 3.5 and a/d is equal to or larger than 3.0 and equal to or smaller than 6.0, in an amount equal to or more than 95 atomic %. According to the thus constituted optical recording medium, it is possible to simultaneously improve characteristics of recording data therein at a high linear velocity, data reproduction durability and storage reliability.

An optical recording medium includes a recording layer, a first dielectric layer disposed on the side of a light incidence plane through which the laser beam enters with respect to the recording layer, a second dielectric layer disposed on the side opposite to the light incidence plane with respect to the recording layer, a heat radiation layer disposed on the side of the light incidence plane with respect to the first dielectric layer and a reflective layer disposed on the side opposite to the light incidence plane with respect to the second dielectric layer, the recording layer containing a phase change material represented by an atomic composition formula: SbaTebGecTbd, where a is equal to or larger than 63 and equal to or smaller than 78, c is equal to or larger than 2 and equal to or smaller than 10, d is equal to or larger than 3 and equal to or smaller than 15, (a+d) is equal to or larger than 75 and equal to or smaller than 82 and a/b is equal to or larger than 3.3 and equal to or smaller than 4.9, in an amount equal to or more than 95 atomic %. According to the thus constituted optical recording medium, it is possible to simultaneously improve characteristics of recording data therein at a high linear velocity, data reproduction durability and storage reliability.

The invention discloses a target with a metal glass coating. The ZraKbMcNd metal glass coating is formed on a substrate by sputtering, wherein K, M and N are selected from elements in VB group, VIB group, VIIIA group, IB group, IIIA group and IVA group; the atomic radius percentage of any two of K, M and N is not less than 15 percent; and a, b, c and d represent atomic composition percentage, wherein a is more than or equal to 30 percent and less than or equal to 77 percent, b is more than or equal to 11 percent and less than or equal to 50 percent, c is more than or equal to 4 percent and less than or equal to 15 percent, and d is more than or equal to 4 percent and less than or equal to 10 percent. The target is provided with a plurality of fan-shaped coating material units which are spliced into a disc or arranged continuously in a rectangular shape, wherein each coating material unit is provided with four element strips which consist of four metal elements, namely zirconium, K, M and N, and the number ratio of zirconium, K, M and N of all the element strips and the metal glass coating are in a sputtering generation proportional relationship.

An FePt magnetic thin film, characterized in that it has an atomic composition represented by the following formula:

FexPt100-x

wherein 19<x<52; and a method for manufacturing the FePt magnetic thin film. The FePt magnetic thin film is novel, can be formed at a lowered temperature, and further, has perpendicular magnetic anisotropy.

A method for designing and synthesizing 7-azaindirubin and 7-azaisoindigo derivative and its medicinal use are disclosed. It changes indirubin and isoindigo nuclear-parent molecule atomic composition to form into compound. It also changes original molecule electric property. The process is carried out by coupling at different position by 7-azaindole and indole bi-molecule, inhibiting CDKs and CDKIs growth and breed and inducing CDKIs biological function. It can be used to treat malignant tumor, HIV and nervous system diseases.

The invention provides a molecule attribute prediction method based on an artificial neural network. The molecule attribute prediction method based on the artificial neural network comprises the following steps: S1) preprocessing of molecule data: acquiring atomic space representation and atomic composition representation through a method for data structure representation of graphs; S2) model establishment: acquiring representation of different stages of molecules from the atomic space representation and the atomic composition representation through a multilayered convolutional neural network,and combining the representations of the different stages of the molecules to obtain a model; and S3) predicting the molecule attribute according to the model. Compared with the prior art, the molecule attribute prediction method based on the artificial neural network has the advantages that the multistage convolutional neural network is used, the relation between the molecule attribute and spacecomposition can be learnt from information of known data and the multistage structure of the molecules, and is used for predicting the related attributes of unknown molecules, and therefore, the speed and the precision are good.

The invention makes public a kind of composite nanometer Fe3B/R2Fe14B permanent magnetism powder by high-energy gas atomizing and the method of making it. Transform the alloy fluid, whose atomic composition formulary is Rx(Fel-wCow)100-x-y-xByTz, into ball powder by high-energy gas atomizing. Then dispose it and get composite nanometer Fe3B/R2Fe14B powder based on Fe3B by hot crystallization. The R is at least one component as following: Nd, Pr, Dy, and Tb. The T is at least one of the following components: Zr, Nb, Cr, Ga, Ti, V and Si. And the proportion should be:3.0<=x<=6.0,8<=y<=22,0<=z<=5,0<=w<=0.5. The powder made by this method has advantages such as glaze, ball shape, good fluidity and low cost, and is especially fit for adhesive binding magnet by injection molding.

A magneto-resistance element according to the present invention has a pinned layer whose magnetization direction is fixed; a free layer whose magnetization direction varies in accordance with an external magnetic field; and a nonmagnetic spacer layer that is arranged between the pinned layer and the free layer, at least the pinned layer or the free layer includes a layer having Heusler alloy represented by composition formula X₂YZ (where X is a precious metal element, Y is a transition metal of Mn, V, or Ti group, Z is an element from group III to group V), and a part of composition X is replaced with Co, and an atomic composition ratio of Co in composition X is from 0.5 to 0.85.

The invention discloses a preparation method of a platiniridium/carbon-electro catalyst by using microwave synthesis. The preparation method comprises the following steps of: evenly distributing nanometer carbon carriers in ethylene glycol solution containing both platinum metal salt and iridium metal salt at the same time, wherein the concentration of the platinum salt and the iridium salt is 0.001 to 0.01 mol/L; adding sodium acetate as a stabilizer, wherein the concentration of the sodium acetate in the resulting solution is 0.005 to 0.03 mol/L; then heating the well-distributed mixture of the nanometer carbon carriers and the metal salt ethylene glycol solution for 2 to 4 minutes by microwave radiation, and then filtering, washing and drying to obtain the platiniridium/carbon-electro catalysts. The atomic composition ratio of a platinum iridium alloy is PtxIry, wherein x is 0.1 to 1, and y is 0.1 to 1. The invention has the advantages that the nano-particles of the platinum iridium alloy, which are loaded on the surfaces of the carbon carriers, have small grain diameter averagely from 3 to 4 nm, and the grain diameter distribution is narrow, and the loading capacity of the alloy nano particles on the surface of the carbon carrier is 5% to 30%. The invention also has the advantages of high speed, simple process, high efficiency and energy saving. The platiniridium/carbon-electro catalyst is widely used in the field of electrochemical energy conversion.

A chalcogenide alloy composition, having an atomic composition comprising from 34 to 45 Ge, from 2 to 16% Sb, from 48 to 55% Te, from 3 to 15% carbon and from 1 to 10% nitrogen, wherein all atomic percentages of all components of the film total to 100 atomic %. Material of such composition is useful to form phase change films, e.g., as conformally coated on a phase change memory device substrate to fabricate a phase change random access memory cell.

Disclosed are a semiconductor photocatalyst for the photocatalytic reforming of biomass derivatives for hydrogen generation, and preparation and use thereof. The semiconductor photocatalyst has the atomic composition ratio of M˜N-Ax; wherein M˜N are IIB group elements to VIA group elements, or IIIA group elements to VA group elements, A being one element or more than two elements selected from the group consisting of cobalt, nickel, iron, copper, chromium, palladium, platinum, ruthenium, rhodium, iridium and silver; and 0.02%≦x≦1.0%. The method of in-situ preparation of the highly effective semiconductor photocatalyst and catalytically reforming biomass derivatives for hydrogen generation by driving photoreaction with visible light via quantum dots is simple, fast, highly effective, inexpensive and practical. The in situ reaction can occur in sunlight without the need of harsh conditions such as calcination.