mhurhangee/patent-ind-claim-en huggingface dataset:
A method of treating an Al-Zn-based alloy coated product that includes an Al-Zn-based alloy coating on a substrate, with the alloy coating containing 20-95%Al, 0-5%Si, optionally 0-10%Mg, balance Zn with unavoidable impurities which method includes the steps of: (a) heating the alloy coating from a temperature less than 300°C to a temperature in the range 250-910°C at a heating rate of at least 500°C/s for less than 200 milliseconds without heating of the substrate, and (b) cooling of the alloy coating at a cooling rate of at least 100°C/s by using the substrate as a heat sink, and forming a modified microstructure of the alloy coating, with the modified microstructure comprising a refined structure in which larger microstructural features have been reduced in size, or otherwise homogenised. (a) heating the alloy coating from a temperature less than 300°C to a temperature in the range 250-910°C at a heating rate of at least 500°C/s for less than 200 milliseconds without heating of the substrate, and (b) cooling of the alloy coating at a cooling rate of at least 100°C/s by using the substrate as a heat sink, and forming a modified microstructure of the alloy coating, with the modified microstructure comprising a refined structure in which larger microstructural features have been reduced in size, or otherwise homogenised.
A compatibilized composition comprising 10 to 90 weight percent of a poly(etherimide sulfone); 10 to 90 weight percent of a poly(phthalamide); and at least one of a poly(etherimide) and an epoxy novolac resin, wherein the poly(etherimide) and the epoxy are present in an amount effective to act as a compatibilizer for the poly(etherimide sulfone) and the poly(phthalamide); wherein weight percent of each component is based on the total weight of the composition. 10 to 90 weight percent of a poly(etherimide sulfone); 10 to 90 weight percent of a poly(phthalamide); and at least one of a poly(etherimide) and an epoxy novolac resin, wherein the poly(etherimide) and the epoxy are present in an amount effective to act as a compatibilizer for the poly(etherimide sulfone) and the poly(phthalamide); wherein weight percent of each component is based on the total weight of the composition.
Building material mixture, in particular filler or plaster compound, the dry matter of which has between 30 and 95 wt.% graphite, between 4 and 30 wt.% acrylic binder and between 0 and 40 wt.% functional additives.
A capacitive semiconductor transducer device, comprising: - a semiconductor body , - a diaphragm having a first layer and a second layer , - a bottom electrode, and - a top electrode arranged at a larger distance from the semiconductor body than the bottom electrode, wherein - a main extension plane of the diaphragm is arranged parallel to a surface of the semiconductor body , - the diaphragm is suspended at a distance from the semiconductor body in a direction perpendicular to the main extension plane of the diaphragm , - the second layer comprises titanium and/or titanium nitride, and - the second layer is arranged between the semiconductor body and the first layer , characterized in that - the first layer comprises at least one of tungsten, aluminum, aluminum oxide, silicon carbide and silicon-germanium as a material that is resistant to an etchant comprising fluorine or a fluorine compound, - the diaphragm comprises a third layer that is in contact with the second layer and is arranged at a smaller distance from the semiconductor body than the second layer , and - the third layer is a main layer of the diaphragm and constitutes the top electrode. - a semiconductor body , - a diaphragm having a first layer and a second layer , - a bottom electrode, and - a top electrode arranged at a larger distance from the semiconductor body than the bottom electrode, - a main extension plane of the diaphragm is arranged parallel to a surface of the semiconductor body , - the diaphragm is suspended at a distance from the semiconductor body in a direction perpendicular to the main extension plane of the diaphragm , - the second layer comprises titanium and/or titanium nitride, and - the second layer is arranged between the semiconductor body and the first layer , - the first layer comprises at least one of tungsten, aluminum, aluminum oxide, silicon carbide and silicon-germanium as a material that is resistant to an etchant comprising fluorine or a fluorine compound, - the diaphragm comprises a third layer that is in contact with the second layer and is arranged at a smaller distance from the semiconductor body than the second layer , and - the third layer is a main layer of the diaphragm and constitutes the top electrode.
Green pigment, comprising a material with spinel structure of the general formula (A 1-x B 1+x )(C 3-x-y D 2x B 1-x-2y Ni 3y )O 8 , with 0.05 ≤ x ≤ 0.9 and 0.05 ≤ y ≤ 0.5, whereby x+2y is ≤ 1, or (A 1-x B 1+x )(C 3-x D 2x-y B 1-x-y Ni 2y )O 8 , with 0.05 ≤ x ≤ 0.5 and 0.05 ≤ y, ≤ 0.5, or (A 1-x B 1+x )(C 3-x-4y D 2x B 1-x+y Nb 3y )O 8 , with 0.05 ≤ x ≤ 0.5 and 0.05 ≤ y, ≤ 0.2, or (A 1-x B 1+x )(C 3-x D 2x-2y B 1-x+y Nb y )O 8 , with 0.05 ≤ x ≤ 0.9 and 0.05 ≤ y, ≤ 0.2 whereby x is ≥ y, or (A 1-x B 1+x )(C 3-x-3y D 2x B 1-x Nb 2y Ni y )O 8 , with 0.05 ≤ x ≤ 0.9 and 0.05 ≤ y, ≤ 0.2, whereby A is at least one element of the group Co, Zn, Ca, Mg, Cu, and whereby B is at least one element of the group Li, Na, and whereby C is at least one element of the group Ti, Mn, Sn, Ge, and whereby D is at least one element of the group Cr, B, Fe, Mn, AI. whereby A is at least one element of the group Co, Zn, Ca, Mg, Cu, and whereby B is at least one element of the group Li, Na, and whereby C is at least one element of the group Ti, Mn, Sn, Ge, and whereby D is at least one element of the group Cr, B, Fe, Mn, AI.
An integrated fluid sensor chip package comprising an integrated sensor chip enveloped in a packaging layer , the integrated sensor chip comprising: a semiconductor substrate having a major surface; and a light sensor comprising a plurality of photodetectors (12a-d) on a region of said major surface; the packaging layer comprising an opening exposing said region, the integrated fluid sensor chip package further comprising a light blocking member over said opening, the light blocking member defining an aperture exposing a first set of photodetectors to light from a first range of directions and exposing a second set of photodetectors to light from a second range of directions, wherein the first range is different to the second range; and wherein the integrated fluid sensor chip package further comprises a fluid sensor on said major surface of the semiconductor substrate of the integrated sensor chip, wherein the opening exposes the fluid sensor and cooperates with the light blocking member to define a fluidic channel providing fluidic access to the fluid sensor. a semiconductor substrate having a major surface; and a light sensor comprising a plurality of photodetectors (12a-d) on a region of said major surface; the packaging layer comprising an opening exposing said region, the integrated fluid sensor chip package further comprising a light blocking member over said opening, the light blocking member defining an aperture exposing a first set of photodetectors to light from a first range of directions and exposing a second set of photodetectors to light from a second range of directions, wherein the first range is different to the second range; and wherein the integrated fluid sensor chip package further comprises a fluid sensor on said major surface of the semiconductor substrate of the integrated sensor chip, wherein the opening exposes the fluid sensor and cooperates with the light blocking member to define a fluidic channel providing fluidic access to the fluid sensor.
A mobile terminal having a first side, a second side, a third side and a fourth side, comprising: a terminal body; a ground provided within the terminal body; a first conductive member spaced apart from the ground and having an L-shape surrounding a first corner of the ground between the first side and the second side, a first feeder unit configured to feed the first conductive member ; a second conductive member spaced apart from the ground and having an L-shape surrounding a second corner of the ground between the first side and the third side; a second feeder unit configured to feed the second conductive member ; a junction portion connecting the ground and the first conductive member at the first side of the mobile terminal , a first open slot (S3) between a first end portion of the first conductive member and the ground placed near the first corner of the terminal body: and a second open slot (S4) between a first end potion of the second conductive member and a second end portion of the first conductive member placed near the second corner of the terminal body, wherein a second end portion of the second conductive member is connected to the ground at the third side of the mobile terminal , and wherein the first conductive member is longer in a first direction along the first side than in a second direction along the second side and the second conductive member is longer in the second direction along the third side than in the first direction along the first side. a terminal body; a ground provided within the terminal body; a first conductive member spaced apart from the ground and having an L-shape surrounding a first corner of the ground between the first side and the second side, a first feeder unit configured to feed the first conductive member ; a second conductive member spaced apart from the ground and having an L-shape surrounding a second corner of the ground between the first side and the third side; a second feeder unit configured to feed the second conductive member ; a junction portion connecting the ground and the first conductive member at the first side of the mobile terminal , a first open slot (S3) between a first end portion of the first conductive member and the ground placed near the first corner of the terminal body: and a second open slot (S4) between a first end potion of the second conductive member and a second end portion of the first conductive member placed near the second corner of the terminal body, wherein a second end portion of the second conductive member is connected to the ground at the third side of the mobile terminal , and wherein the first conductive member is longer in a first direction along the first side than in a second direction along the second side and the second conductive member is longer in the second direction along the third side than in the first direction along the first side.
A two-component epoxy coating composition comprising: a component A and a component B comprising a curing agent, wherein the component A comprises a waterborne epoxy resin, a polymeric dispersant, and pigments and/or extenders; wherein the polymeric dispersant comprises, by weight based on the dry weight of the polymeric dispersant, (a) from 11% to 60% of structural units of an acid monomer and/or a salt thereof selected from the group consisting of an ethylenically unsaturated sulfonic acid-containing monomer or a salt thereof, an ethylenically unsaturated phosphorous acid-containing monomer or a salt thereof, or mixtures thereof; (b) from 0.5% to 20% of structural units of a carbonyl-containing functional monomer; and (c) from 20% to 88.5% of structural units of an ethylenically unsaturated nonionic monomer; wherein the polymeric dispersant has a weight average molecular weight of from 300 to 40,000 Daltons; wherein the polymeric dispersant comprises zero to less than 2% of structural units of an additional a, β-ethylenically unsaturated carboxylic acid monomer, by weight based on the dry weight of the polymeric dispersant. wherein the polymeric dispersant is present, by dry weight based on the total dry weight of pigments and/or extenders, in an amount of from 0.1% to 10%; and wherein the waterborne epoxy resin is an aqueous dispersion of acrylic polymer particles imbibed with an epoxy compound. wherein the polymeric dispersant comprises, by weight based on the dry weight of the polymeric dispersant, (a) from 11% to 60% of structural units of an acid monomer and/or a salt thereof selected from the group consisting of an ethylenically unsaturated sulfonic acid-containing monomer or a salt thereof, an ethylenically unsaturated phosphorous acid-containing monomer or a salt thereof, or mixtures thereof; (b) from 0.5% to 20% of structural units of a carbonyl-containing functional monomer; and (c) from 20% to 88.5% of structural units of an ethylenically unsaturated nonionic monomer; (a) from 11% to 60% of structural units of an acid monomer and/or a salt thereof selected from the group consisting of an ethylenically unsaturated sulfonic acid-containing monomer or a salt thereof, an ethylenically unsaturated phosphorous acid-containing monomer or a salt thereof, or mixtures thereof; (b) from 0.5% to 20% of structural units of a carbonyl-containing functional monomer; and (c) from 20% to 88.5% of structural units of an ethylenically unsaturated nonionic monomer; wherein the polymeric dispersant has a weight average molecular weight of from 300 to 40,000 Daltons; wherein the polymeric dispersant comprises zero to less than 2% of structural units of an additional a, β-ethylenically unsaturated carboxylic acid monomer, by weight based on the dry weight of the polymeric dispersant. wherein the polymeric dispersant is present, by dry weight based on the total dry weight of pigments and/or extenders, in an amount of from 0.1% to 10%; and wherein the waterborne epoxy resin is an aqueous dispersion of acrylic polymer particles imbibed with an epoxy compound.
A device for extraction of water from gas comprising a container with at least one sealable opening , at least one lid , at least one hygroscopic material and an energy delivery device configured to heat the hygroscopic material, wherein the container is made of a heat conducting material to condense the vaporized water on the walls wherein the walls of the container are made of metal or metal alloy; wherein the hygroscopic material is inside the container and wherein the material is separated from the walls of the container ; and wherein the hygroscopic material is arranged in a frame and wherein the energy delivery device is partly arranged in the hygroscopic material .
Edge milling unit for a wood machining device for machining panel-formed workpieces which can be moved in a throughput direction (D) relative to a machining tool and which have, at least on a narrow surface facing the machining tool , a narrow surface coating material which projects at least partially beyond a workpiece edge bordering the narrow surface , wherein the machining tool is designed to be moveable relative to the workpiece that can be moved in the throughput direction (D) in order to machine at least the narrow surface coating material projecting from the workpiece edge , as well as with a sensor device by means of which a workpiece contour adjacent to the narrow surface can be sensed, at least in sections, whereby the traversing movement of the machining tool in order to machine the workpiece is provided depending on the sensed workpiece contour , wherein the sensor device has at least two sensor elements for sensing at least two sections of the workpiece contour , characterised in that the edge milling unit is configured to move the at least two sensor elements reciprocally from a waiting position into a sensing position during the throughput movement of the workpiece . wherein the sensor device has at least two sensor elements for sensing at least two sections of the workpiece contour , characterised in that the edge milling unit is configured to move the at least two sensor elements reciprocally from a waiting position into a sensing position during the throughput movement of the workpiece .
A rolling die manufacturing method for manufacturing a rolling die including a tool base material that is made of steel and has a molded surface on which a plurality of working teeth is formed, wherein the steel is an alloy tool steel, a high-speed tool steel or a cold work die steel, wherein the working teeth are protruded upward from the rolling die , the working teeth each including a crest and a pair of flanks , the rolling die manufacturing method comprising: a nitriding step of forming a nitride layer by performing a gas nitriding process or a radical nitriding process on the molded surface in such a manner that the surface hardness of the molded surface is at least 1100 HV and that the depth of the nitride layer from the molded surface is 20 to 70 μm; and a shot peening step of imparting compressive residual stress to the molded surface by performing a shot peening process on the molded surface that has been nitrided in the nitriding step; and an oxidation step of forming an oxide film on the molded surface by performing an alkaline blackening process for a time period shorter than 30 minutes after the shot peening step, the oxide film consisting of Fe 3 O 4 , so that the depth of the oxide film is 0.5 to 5 μm, the alkaline blackening process oxidizing the tool base material by immersing the tool base material in an alkaline aqueous solution at a temperature of 130 to 160°C. a nitriding step of forming a nitride layer by performing a gas nitriding process or a radical nitriding process on the molded surface in such a manner that the surface hardness of the molded surface is at least 1100 HV and that the depth of the nitride layer from the molded surface is 20 to 70 μm; and a shot peening step of imparting compressive residual stress to the molded surface by performing a shot peening process on the molded surface that has been nitrided in the nitriding step; and an oxidation step of forming an oxide film on the molded surface by performing an alkaline blackening process for a time period shorter than 30 minutes after the shot peening step, the oxide film consisting of Fe 3 O 4 , so that the depth of the oxide film is 0.5 to 5 μm, the alkaline blackening process oxidizing the tool base material by immersing the tool base material in an alkaline aqueous solution at a temperature of 130 to 160°C.
A boom for an earth-moving machine, in particular an excavator, comprising one or more bearing plates for supporting a cylinder unit, characterized in that at least one bearing plate has an end-side curvature extending outwardly to a lateral edge of the boom; in that a boom upper side is broadened in a region of the outwardly running bearing plate or plates; and in that the bearing plate or plates extend up to the broadened boom upper side.
Floor panel, wherein this floor panel comprises at least a substrate and a decor provided thereon, wherein said substrate substantially consists of thermoplastic material and filler materials, said floor panel having a thickness of more than 3 millimeter, wherein said floor panel on two or more opposite edges comprises coupling means with which two of such floor panels can be coupled at the respective edges, such that they are locked together in a horizontal direction perpendicular to the respective edge and in the plane of the floor panels, whereby the substrate encloses one or more glass fiber cloths , characterised in that said floor panel has a length of 1.2 to 2.5 meters and a width of 0.1 to 0.3 meters, wherein the total weight of glass fiber cloths is more than 85 grams per square meter, and wherein said filler materials form at least 40 percent by weight of the substrate material. wherein said floor panel on two or more opposite edges comprises coupling means with which two of such floor panels can be coupled at the respective edges, such that they are locked together in a horizontal direction perpendicular to the respective edge and in the plane of the floor panels, whereby the substrate encloses one or more glass fiber cloths , characterised in that said floor panel has a length of 1.2 to 2.5 meters and a width of 0.1 to 0.3 meters, wherein the total weight of glass fiber cloths is more than 85 grams per square meter, and wherein said filler materials form at least 40 percent by weight of the substrate material.
Device for the indirect determination of the incident solar flux on a structure, the device comprising means for calculating solar flux, a first external temperature sensor located at a location exposed to solar radiation, and a second external temperature sensor located in the shade, the means for calculating receiving as input a temperature bias value, defined as the difference between the temperatures measured by the first sensor and the second sensor, the device being characterised in that the means for calculating are configured to carry out an estimation of the cloudiness value based on said temperature bias value, and are configured to calculate a solar flux estimated according to a theoretical model, based on the estimated cloudiness value and on a predetermined solar flux in clear weather.
A method of detecting blood flow instability using a device for detecting blood flow instability , comprising: insonating an area of interest with ultrasound wave pulses ; acquiring radio frequency (RF) data from echo pulses of the ultrasound wave pulses ; processing the RF data ; and deriving a Doppler bandwidth from the processed RF data using autoregressive (AR) modeling at a given pixel position ; wherein the method further comprises deriving Doppler bandwidth from the processed RF data by estimating the Doppler bandwidth for multiple pixels using graphics processing unit (GPU) - based parallel computing for the AR modeling; and mapping the Doppler bandwidth estimates to a thermal hue with brighter colors corresponding to higher Doppler bandwidths. insonating an area of interest with ultrasound wave pulses ; acquiring radio frequency (RF) data from echo pulses of the ultrasound wave pulses ; processing the RF data ; and deriving a Doppler bandwidth from the processed RF data using autoregressive (AR) modeling at a given pixel position ; wherein the method further comprises deriving Doppler bandwidth from the processed RF data by estimating the Doppler bandwidth for multiple pixels using graphics processing unit (GPU) - based parallel computing for the AR modeling; and mapping the Doppler bandwidth estimates to a thermal hue with brighter colors corresponding to higher Doppler bandwidths.