mhurhangee/ep-ind-claims huggingface dataset:
A resin-coated metal sheet for containers, comprising a resin coating layer having a multilayered structure mainly composed of a polyester resin on at least one surface thereof, the resin coating layer including a resin layer that adheres to the metal sheet, contains the following components (i) to (v), and is mainly composed of a polyester resin: (i) the polyester resin, (ii) a phenolic resin, (iii) a metal alkoxide compound and/or a metal chelate compound, (iv) an epoxy resin, and (v) at least one selected from the group consisting of polyamine resins, polyamidoamine resins, and polyamide resins. (i) the polyester resin, (ii) a phenolic resin, (iii) a metal alkoxide compound and/or a metal chelate compound, (iv) an epoxy resin, and (v) at least one selected from the group consisting of polyamine resins, polyamidoamine resins, and polyamide resins.
A high-resolution microscopy device comprising a light source, a sample area, a plurality of focusing micromirrors and a plurality of detector elements wherein said sample area is located in the focus area of said micromirrors, wherein each focusing micromirror is adapted to collect and direct a sample information towards said detector elements, the high-resolution microscopy device being characterized in that it further comprises an imaging optical system and one or a plurality of aperture stops for filtering out collected sample information that is not originating from foci of the micromirrors for confocal detection, and a translation mechanism adapted for establishing a relative motion between said sample area and said plurality of focusing micromirrors to provide a plurality of positions of the micromirrors relative to the sample area for producing a scanned confocal image of the sample.
Process to prepare threonine-N,N- diacetic acid or a salt thereof comprising two or more steps wherein in a first step threonine, a sodium or potassium salt thereof or a mixture thereof is reacted with formaldehyde and hydrogen cyanide, at a pH equal to or below 7, and in a second step the nitrile compound formed in the first step is hydrolyzed by the addition of an acid or base and wherein optionally a subsequent acidification step is performed.
A computer-implemented method for rasterizing a display area having a plurality of rows and a plurality of columns, the method comprising steps of: generating a primitive batch from a sequence of one or more primitives by accumulating primitives of the sequence into different row groups based on which row of the plurality of rows each primitive intersects; processing each row group in turn, the processing for each row group including: identifying one or more primitive column intercepts for each of the one or more primitives in the row group, wherein each different combination of primitive column intercept and row identifies a different bin, for each bin that includes a primitive, setting a display boundary area for rasterization corresponding to the area of the bin; and rasterizing the primitives that intersect the bin using the display boundary. generating a primitive batch from a sequence of one or more primitives by accumulating primitives of the sequence into different row groups based on which row of the plurality of rows each primitive intersects; processing each row group in turn, the processing for each row group including: identifying one or more primitive column intercepts for each of the one or more primitives in the row group, wherein each different combination of primitive column intercept and row identifies a different bin, for each bin that includes a primitive, setting a display boundary area for rasterization corresponding to the area of the bin; and rasterizing the primitives that intersect the bin using the display boundary. identifying one or more primitive column intercepts for each of the one or more primitives in the row group, wherein each different combination of primitive column intercept and row identifies a different bin, for each bin that includes a primitive, setting a display boundary area for rasterization corresponding to the area of the bin; and rasterizing the primitives that intersect the bin using the display boundary.
A process for laminating substrates, the process comprising the steps: disposing a sheet of pressure-sensitive adhesive between a substantially planar surface of a first rigid substrate and a substantially planar surface of a second rigid substrate; disposing the first substrate, pressure-sensitive adhesive layer and second substrate within a vacuum chamber; disposing a mask member within the vacuum chamber with the first and second substrates (101, 102) over at least a portion of one of the first substrate and the second substrate to prevent contact between the portion and a flexible membrane; evacuating the vacuum chamber; applying pressure to at least one of the first substrate and the second substrate by expanding the flexible membrane; wherein the first substrate comprises a display monitor. disposing a sheet of pressure-sensitive adhesive between a substantially planar surface of a first rigid substrate and a substantially planar surface of a second rigid substrate; disposing the first substrate, pressure-sensitive adhesive layer and second substrate within a vacuum chamber; disposing a mask member within the vacuum chamber with the first and second substrates (101, 102) over at least a portion of one of the first substrate and the second substrate to prevent contact between the portion and a flexible membrane; evacuating the vacuum chamber; applying pressure to at least one of the first substrate and the second substrate by expanding the flexible membrane; wherein the first substrate comprises a display monitor.
A method of manufacturing a battery cell having an electrode assembly of a cathode/separator/anode structure disposed in a battery case made of aluminum or an aluminum alloy together with an electrolyte in a sealed state, the method comprising: (a) anodizing an entire surface of the battery case in a state in which a connection opening section, to which charge pins (160, 161) used to activate the battery cell are connected, is formed at a bottom of the battery case; (b) mounting the electrode assembly in the battery case and connecting a cap plate to an open upper end of the battery case by laser welding; (c) injecting an electrolyte through an electrolyte injection port of the cap plate and activating the battery cell; and (d) replenishing the electrolyte and sealing the electrolyte injection port; and wherein the connection opening section is formed by anodizing the battery case in a state in which an insulation material is applied to a portion of the bottom of the battery case or an insulator or an insulation tape is mounted or attached to a portion of the bottom of the battery case and removing the insulation material, the insulator, or the insulation tape. (a) anodizing an entire surface of the battery case in a state in which a connection opening section, to which charge pins (160, 161) used to activate the battery cell are connected, is formed at a bottom of the battery case; (b) mounting the electrode assembly in the battery case and connecting a cap plate to an open upper end of the battery case by laser welding; (c) injecting an electrolyte through an electrolyte injection port of the cap plate and activating the battery cell; and (d) replenishing the electrolyte and sealing the electrolyte injection port; and
An integrated case/stator segment (32A, 32B) for a gas turbine engine, the integrated case/stator segment being comprised of a ceramic matrix composite material, wherein the integrated case/stator segment comprises: a cylindrical case section that is substantially cylindrical (C L) about an axis of the gas turbine engine; multiple box structure sections extending radially inward from the case section, wherein the box structure sections are arranged circumferentially around the case section, and wherein each box structure section comprises: a first radial support and a second radial support, the first and second radial supports extending radially inward and being axially spaced apart from one another; an outer ring that extends between the radial supports of the box sections and is spaced apart from the case section; and vane airfoil sections extending radially inward from the outer ring, wherein the case section, the box structure sections, and the vane airfoil sections comprise a single integrated component. a cylindrical case section that is substantially cylindrical (C L) about an axis of the gas turbine engine; multiple box structure sections extending radially inward from the case section, wherein the box structure sections are arranged circumferentially around the case section, and wherein each box structure section comprises: a first radial support and a second radial support, the first and second radial supports extending radially inward and being axially spaced apart from one another; a first radial support and a second radial support, the first and second radial supports extending radially inward and being axially spaced apart from one another; an outer ring that extends between the radial supports of the box sections and is spaced apart from the case section; and vane airfoil sections extending radially inward from the outer ring, wherein the case section, the box structure sections, and the vane airfoil sections comprise a single integrated component.
A polyester resin having a linear structure and a number average molecular weight less than 20,000, said polyester resin comprising: a di-epoxide monomer; and a di-acid monomer; wherein the polyester resin has an acid value of less than 1.0, and wherein the polyester resin contains reactive epoxy end groups; and wherein the di-acid monomer is selected from the group consisting of: isophthalic acid, sebacic acid, fumaric acid, maleic acid, adipic acid, nitroisophthalic acid, terephthalic acid, undecanoic acid, succinic acid, glutaric acid, pimelic acid, azeliac acid, malonic acid, suberic acid and mixtures thereof.
Joint arrangement for a chassis, having a ball joint with a ball pivot which is mounted by way of a ball part such that it can be moved rotatably and pivotably with respect to a joint housing and which protrudes with a pivot part at least partially into a chassis component, and a sealing boot which extends in a tubular manner from a housing-side end to a pivot-side end, in order to seal the ball joint with respect to the external environment, a circumferential groove being configured on the pivot part of the ball pivot, which circumferential groove receives an inwardly protruding section of the pivot-side end of the sealing boot in order to form a main sealing region, characterized in that a circumferential projection is configured at the pivot-side end of the sealing boot in order to form a preliminary sealing region with respect to the pivot part, the circumferential groove being positioned axially on the pivot part in such a way that the circumferential projection is spaced apart safely, in particular in a contact-free manner, from the chassis component, and the circumferential projection protrudes in the axial direction from the pivot-side end.
A method for separating heavy metal from glass, comprising: a reduction-phase-separation step for melting glass containing a heavy metal oxide and silica, together with a reducing agent and a phase-separation reagent which is a boron source or a phosphorus source, thereby reducing the heavy metal oxide and forming a glass phase comprising a silica phase and a secondary phase having a higher solubility with respect to an acid solution compared with the silica phase; a heavy metal collecting step for separating and collecting a heavy metal obtained by reducing the heavy metal oxide from the glass phase; and an acid extraction step for dissolving the secondary phase with a residual heavy metal in an acid solution by allowing the glass phase to come in contact with the acid solution. a reduction-phase-separation step for melting glass containing a heavy metal oxide and silica, together with a reducing agent and a phase-separation reagent which is a boron source or a phosphorus source, thereby reducing the heavy metal oxide and forming a glass phase comprising a silica phase and a secondary phase having a higher solubility with respect to an acid solution compared with the silica phase; a heavy metal collecting step for separating and collecting a heavy metal obtained by reducing the heavy metal oxide from the glass phase; and an acid extraction step for dissolving the secondary phase with a residual heavy metal in an acid solution by allowing the glass phase to come in contact with the acid solution.
A method of chemically-mechanically polishing a substrate comprising: (i) providing a substrate comprising a titanium nitride (TiN) layer on a surface of the substrate and a silicon nitride (SiN) layer on a surface of the substrate; (ii) providing a polishing pad; (iii) providing a chemical-mechanical polishing composition comprising: (a) abrasive particles, (b) a removal rate inhibitor selected from a surfactant comprising a polyoxyalkylene functional group and a sulfonate functional group, a surfactant comprising a polyoxyalkylene functional group and a sulfate functional group, a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfonate functional group, and a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfate functional group, and (c) an aqueous carrier; (iv) contacting the substrate with the polishing pad and the chemical-mechanical polishing composition; and (v) moving the polishing pad and the chemical-mechanical polishing composition relative to the substrate to abrade at least a portion of the TiN layer on a surface of the substrate and at least a portion of the SiN layer on a surface of the substrate to polish the substrate, wherein the TiN layer is selectively removed faster than the SiN layer. (i) providing a substrate comprising a titanium nitride (TiN) layer on a surface of the substrate and a silicon nitride (SiN) layer on a surface of the substrate; (ii) providing a polishing pad; (iii) providing a chemical-mechanical polishing composition comprising: (a) abrasive particles, (b) a removal rate inhibitor selected from a surfactant comprising a polyoxyalkylene functional group and a sulfonate functional group, a surfactant comprising a polyoxyalkylene functional group and a sulfate functional group, a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfonate functional group, and a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfate functional group, and (c) an aqueous carrier; (a) abrasive particles, (b) a removal rate inhibitor selected from a surfactant comprising a polyoxyalkylene functional group and a sulfonate functional group, a surfactant comprising a polyoxyalkylene functional group and a sulfate functional group, a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfonate functional group, and a first surfactant comprising a polyoxyalkylene functional group and a second surfactant comprising a sulfate functional group, and (c) an aqueous carrier; (iv) contacting the substrate with the polishing pad and the chemical-mechanical polishing composition; and (v) moving the polishing pad and the chemical-mechanical polishing composition relative to the substrate to abrade at least a portion of the TiN layer on a surface of the substrate and at least a portion of the SiN layer on a surface of the substrate to polish the substrate, wherein the TiN layer is selectively removed faster than the SiN layer.
A method of predicting whether a patient having a tumor will benefit from treatment comprising an agent that specifically binds to an EGFr polypeptide, comprising determining whether the patient's tumor is HPV positive or HPV negative, wherein if the patient's tumor is HPV negative, the patient is predicted to benefit from treatment with an agent that specifically binds to an EGFr polypeptide, wherein the agent that specifically binds to an EGFr polypeptide is an antibody to EGFr.
A method for obtaining information signatures from nuclear material or about the presence, the nature and/or the shielding of a nuclear material, especially in homeland security or nuclear safeguard applications, said nuclear material emitting in a time correlated manner at least a first radiation and a second radiation, said method comprising the steps of detecting said first radiation by means of at least one first radiation detector (D1, D1') and detecting said second radiation by means of at least one second radiation detector, whereby the detection of said second radiation is triggered by said detection of said first radiation in a manner that is adapted to the radiation's time correlation structure, thereby increasing the signal-to-background ratio for the detection of said second radiation, and whereby said at least one first radiation detector (D1, D1') detects single events, and the detection events of said at least one first radiation detector define one or more predetermined time windows, said method being characterized in that the data being acquired by at least one second radiation detector within said predetermined time windows being analyzed separately from data acquired by said at least one second radiation detector outside said time window, whereby said at least one first radiation detector (D1, D1') detects low background fission signatures consisting of radiation of comparatively low abundance except in the presence of nuclear material, and said at least one second radiation detector detects any fission signatures directly or indirectly associated with nuclear material possibly difficult to use otherwise for characterization due to the presence of an intense background.
An array substrate, comprising: a base substrate, and a gate line, an insulating layer, a data line, a thin film transistor including an active layer, a drain electrode, and a source electrode, and a first active pad layer provided on the base substrate, wherein, the insulating layer is provided on the gate line, the data line is arranged on the gate line through the insulating layer and is arranged intersecting with the gate line, and the first active pad layer is arranged outside a region where the gate line and the data line overlap with each other, the first active pad layer being arranged on the gate line through the insulating layer and being arranged overlapping with the gate line, characterized by a data line pad layer, wherein, the data line pad layer and the data line are formed on a same layer, by using a source-drain metal layer thin film, and the data line pad layer is provided on the first active pad layer, overlaps with the first active pad layer, and is electrically insulated from the data line; and a pixel electrode thin film being formed on the source electrode, the drain electrode and the data line, wherein the pixel electrode thin film is electrically connected with the data line pad layer. the insulating layer is provided on the gate line, the data line is arranged on the gate line through the insulating layer and is arranged intersecting with the gate line, and the first active pad layer is arranged outside a region where the gate line and the data line overlap with each other, the first active pad layer being arranged on the gate line through the insulating layer and being arranged overlapping with the gate line, characterized by a data line pad layer, wherein, the data line pad layer and the data line are formed on a same layer, by using a source-drain metal layer thin film, and the data line pad layer is provided on the first active pad layer, overlaps with the first active pad layer, and is electrically insulated from the data line; and a pixel electrode thin film being formed on the source electrode, the drain electrode and the data line, wherein the pixel electrode thin film is electrically connected with the data line pad layer.
A power supply trunk line routing structure (100; 200; 300) for a vehicle, the power supply trunk line routing structure comprising: a first power supply trunk line (22R, 23R) extending in a vehicle front and rear direction along a right-side part of the vehicle in a vehicle width direction; a second power supply trunk line (22L, 23L) extending in the vehicle front and rear direction along a left-side part of the vehicle in the vehicle width direction; and a third power supply trunk line (21R, 21L) connected to a predetermined power supply device, the third power supply trunk line connecting the first power supply trunk line and the second power supply trunk line at a front part of the vehicle, characterized in that each of the first power supply trunk line and the second power supply trunk line includes a flat strip-shaped flat wiring material extending in a straight line and using a steel material at least partially having an electrically conductive property. a first power supply trunk line (22R, 23R) extending in a vehicle front and rear direction along a right-side part of the vehicle in a vehicle width direction; a second power supply trunk line (22L, 23L) extending in the vehicle front and rear direction along a left-side part of the vehicle in the vehicle width direction; and a third power supply trunk line (21R, 21L) connected to a predetermined power supply device, the third power supply trunk line connecting the first power supply trunk line and the second power supply trunk line at a front part of the vehicle, characterized in that each of the first power supply trunk line and the second power supply trunk line includes a flat strip-shaped flat wiring material extending in a straight line and using a steel material at least partially having an electrically conductive property.
A rail vehicle having at least one car body, and a monitoring device comprising a video camera for monitoring a monitored zone located outside the car body, wherein the monitored zone extends either above a roof of the car body to include a current collector in an operative position and in a retracted position or alongside several side door openings provided in a side wall of the car body for boarding and alighting from the rail vehicle, characterised in that the video camera is located inside the car body and the monitoring device further comprises at least one image deflecting device which, in an operative position, is located at least partially outside the car body so as to redirect light from the monitored zone towards the video camera, wherein the car body comprises a window opening located in a light path between a front lens of the video camera and the image deflecting device in the operative position, and the window opening is perpendicular to the light path.