mhurhangee/patent-ind-claim-en huggingface dataset:
A fiber laminate comprising: a layer (iii) that is made from a one-component aqueous resin composition; and a fiber base (iv); wherein the one-component aqueous resin composition comprises: an aqueous urethane resin (A) that has a flow starting temperature of 50°C to 155°C and an acid value of 15 mgKOH/g or lower; and an aqueous medium (B); wherein the aqueous urethane resin (A) is an anionic urethane resin (A-A-1) which is a reaction product of a polyol (a1), a glycol compound having a carboxyl group, a chain extender including a chain extender (a2-1) having a hydroxyl group, and an aromatic polyisocyanate (a3-1), or the aqueous urethane resin (A) is an anionic urethane resin (A-A-2) which is a reaction product of a polyol (a1), a glycol compound having a carboxyl group, a chain extender including a chain extender (a2-2) having an amino group, and an aliphatic polyisocyanate and/or alicyclic polyisocyanate (a3-2); and wherein the one-component aqueous resin composition does not contain a crosslinking agent. a layer (iii) that is made from a one-component aqueous resin composition; and a fiber base (iv); wherein the one-component aqueous resin composition comprises: an aqueous urethane resin (A) that has a flow starting temperature of 50°C to 155°C and an acid value of 15 mgKOH/g or lower; and an aqueous medium (B); an aqueous urethane resin (A) that has a flow starting temperature of 50°C to 155°C and an acid value of 15 mgKOH/g or lower; and an aqueous medium (B); wherein the aqueous urethane resin (A) is an anionic urethane resin (A-A-1) which is a reaction product of a polyol (a1), a glycol compound having a carboxyl group, a chain extender including a chain extender (a2-1) having a hydroxyl group, and an aromatic polyisocyanate (a3-1), or the aqueous urethane resin (A) is an anionic urethane resin (A-A-2) which is a reaction product of a polyol (a1), a glycol compound having a carboxyl group, a chain extender including a chain extender (a2-2) having an amino group, and an aliphatic polyisocyanate and/or alicyclic polyisocyanate (a3-2); and wherein the one-component aqueous resin composition does not contain a crosslinking agent.
Substrate exposure system comprising: a frame , a substrate support module for carrying a substrate , which substrate support module is connected to said frame, an exposure apparatus , wherein the exposure apparatus is carried by said frame and is arranged for exposing the substrate carried by the substrate support module, and an adjustment assembly for adjusting the position of the exposure apparatus with respect to the substrate support module, wherein the adjustment assembly comprises a hydraulic actuator , a hydraulic generator and a conduit , wherein the conduit interconnects said hydraulic actuator and said hydraulic generator for forming a hydraulic system, wherein the exposure apparatus, the frame, the adjustment assembly and the substrate support module are arranged as parts of a series of mechanically linked components, wherein said series of mechanically linked components comprises a first part comprising at least the exposure apparatus, and a second part comprising at least the substrate support module, and wherein said hydraulic actuator is arranged between said first part and said second part of said series of the mechanically linked components. a frame , a substrate support module for carrying a substrate , which substrate support module is connected to said frame, an exposure apparatus , wherein the exposure apparatus is carried by said frame and is arranged for exposing the substrate carried by the substrate support module, and an adjustment assembly for adjusting the position of the exposure apparatus with respect to the substrate support module, wherein the adjustment assembly comprises a hydraulic actuator , a hydraulic generator and a conduit , wherein the conduit interconnects said hydraulic actuator and said hydraulic generator for forming a hydraulic system, wherein the exposure apparatus, the frame, the adjustment assembly and the substrate support module are arranged as parts of a series of mechanically linked components, wherein said series of mechanically linked components comprises a first part comprising at least the exposure apparatus, and a second part comprising at least the substrate support module, and wherein said hydraulic actuator is arranged between said first part and said second part of said series of the mechanically linked components.
A method comprising: maintaining, in a memory, a set of associations between two or more carbon monoxide (CO) sensors and two or more CO sources; determining, by processing circuitry and based on data received from a first CO sensor of the two or more CO sensors, that a first level of CO detected by the first CO sensor has exceeded a first threshold level of CO for a first threshold period of time; identifying, based on the set of associations, a first subset of CO sources associated with the first CO sensor, wherein the first subset of CO sources comprises fewer than all of the two or more CO sources; transmitting a first signal that causes the first subset of CO sources to be disabled; following the first subset of CO sources being disabled, detecting, by the first CO sensor, a second level of CO less than the first level of CO; determining, based on the second level, that at least one appliance of the first subset of CO sources was a cause of the first level of CO; transmitting a second signal that causes each of the first subset of CO sources to be reactivated one-at-a-time in order to determine which appliance of the first subset of CO sources was the cause of the first level of CO; and transmitting a third signal that causes each of the first subset of CO sources except for the determined cause of the first level of CO to be reactivated. maintaining, in a memory, a set of associations between two or more carbon monoxide (CO) sensors and two or more CO sources; determining, by processing circuitry and based on data received from a first CO sensor of the two or more CO sensors, that a first level of CO detected by the first CO sensor has exceeded a first threshold level of CO for a first threshold period of time; identifying, based on the set of associations, a first subset of CO sources associated with the first CO sensor, wherein the first subset of CO sources comprises fewer than all of the two or more CO sources; transmitting a first signal that causes the first subset of CO sources to be disabled; following the first subset of CO sources being disabled, detecting, by the first CO sensor, a second level of CO less than the first level of CO; determining, based on the second level, that at least one appliance of the first subset of CO sources was a cause of the first level of CO; transmitting a second signal that causes each of the first subset of CO sources to be reactivated one-at-a-time in order to determine which appliance of the first subset of CO sources was the cause of the first level of CO; and transmitting a third signal that causes each of the first subset of CO sources except for the determined cause of the first level of CO to be reactivated.
A micro-structured optical fiber for supercontinuum generation having a length and a longitudinal axis along its length, said optical fiber comprising a core microstructured length section L cm , said core microstructured length section L cm comprises: - a micro-structured core region comprising at least a first region forming a central part of the core region and a second region surrounding the first region; and - a cladding surrounding the core region; wherein the first region comprises silica material and the second region comprises silica material, wherein the silica material of the first region has a higher concentration of OH than the silica material of the second region and/or the silica material of the first region has a lower concentration of Cl than the silica material of the second region, and wherein the core region in at least a length part of the core microstructured length section L cm has a cross sectional diameter D cm perpendicular to the longitudinal axis which is about 8 μm or less. - a micro-structured core region comprising at least a first region forming a central part of the core region and a second region surrounding the first region; and - a cladding surrounding the core region;
A method for signal processing in an integrated circuit, IC, having a data processing engine , comprising: dividing a set of data samples of a data signal, corresponding to a first peak detection window, PDW, into a plurality of subsets of data samples each comprising a number of data samples; performing vector operations (806-810) in the data processing engine on each of the plurality of subsets of data samples; and determining a running index of a sample with a maximum amplitude over the first PDW based on the vector operations , characterised in that the running index is determined by: multiplying an index of the plurality of subsets by a number of data samples in each of the plurality of subsets to generate a product, and adding a fractional index to the product. dividing a set of data samples of a data signal, corresponding to a first peak detection window, PDW, into a plurality of subsets of data samples each comprising a number of data samples; performing vector operations (806-810) in the data processing engine on each of the plurality of subsets of data samples; and determining a running index of a sample with a maximum amplitude over the first PDW based on the vector operations , characterised in that the running index is determined by: multiplying an index of the plurality of subsets by a number of data samples in each of the plurality of subsets to generate a product, and adding a fractional index to the product.
A turbine engine system (200; 300; 400), comprising: a combustor (210; 306) arranged along a core flow path of the turbine engine; a drive shaft (220; 312) having at least a fan (204; 302), a compressor section (206, 208; 304) and a turbine section (212, 214; 308) coupled thereto, with the fan configured to be rotationally driven through the drive shaft by the rotationally driven turbine section and the combustor is arranged between the compressor section and the turbine section along the core flow path; a cryogenic fuel tank (224; 318; 404) configured to supply a fuel to the combustor; an expansion turbine (234; 326; 412) mechanically coupled to the drive shaft and arranged in the core flow path downstream from the turbine section, the expansion turbine (234; 326; 412) configured to receive fuel from the cryogenic fuel tank (224; 318; 404) and expand said fuel, wherein expansion of said fuel by the expansion turbine drives rotation of the expansion turbine to provide power input to the drive shaft and supplement or augment rotation of the drive shaft; and a flow supply line (226; 320; 406) fluidly connecting the cryogenic fuel tank to the combustor with the expansion turbine arranged between the cryogenic fuel tank and the combustor along the flow supply line. a combustor (210; 306) arranged along a core flow path of the turbine engine; a drive shaft (220; 312) having at least a fan (204; 302), a compressor section (206, 208; 304) and a turbine section (212, 214; 308) coupled thereto, with the fan configured to be rotationally driven through the drive shaft by the rotationally driven turbine section and the combustor is arranged between the compressor section and the turbine section along the core flow path; a cryogenic fuel tank (224; 318; 404) configured to supply a fuel to the combustor; an expansion turbine (234; 326; 412) mechanically coupled to the drive shaft and arranged in the core flow path downstream from the turbine section, the expansion turbine (234; 326; 412) configured to receive fuel from the cryogenic fuel tank (224; 318; 404) and expand said fuel, wherein expansion of said fuel by the expansion turbine drives rotation of the expansion turbine to provide power input to the drive shaft and supplement or augment rotation of the drive shaft; and a flow supply line (226; 320; 406) fluidly connecting the cryogenic fuel tank to the combustor with the expansion turbine arranged between the cryogenic fuel tank and the combustor along the flow supply line.
A drug comprising human chorionic gonadotropin (HCG), as monotherapy for use in treating chronic pain in a subject, wherein the drug is discontinuously administered at or equivalent to a daily subcutaneous dosage of human chorionic gonadotropin (HCG) between 120 IU/day and 170 IU/day.
Tailgate of a motor vehicle of a type comprising an outer skin made of plastic material and an inner lining , and comprising at least one optical device provided with a glazing closing a housing , characterized in that at least one first assembly area between the housing and the glazing is located under the outer skin , the glazing being fixed on an inner surface of the outer skin at the level of the first assembly area , for example by gluing, the housing being borne by the inner lining .
A functionalized separator, comprising a porous substrate and a functional film layer provided on at least one surface of the porous substrate , wherein, the functional film layer comprises inorganic particles which are able to reversibly react with metal lithium to form a lithium alloy, and wherein at least part of the surface of the inorganic particles is coated with a polymer coating layer , wherein the polymer coating layer comprises a group that is reversibly bonded with lithium ions, the group that is reversibly bonded with lithium ions comprises one or more of an acid radical group, an amino group, an imino group, a sulfhydryl group, and a polysulfide group (-S b -, b ≥ 2), and optionally, the acid radical group comprises one or more of carboxylic acid group, sulfonic acid group, sulfinic acid group, and phosphoric acid group, and wherein the inorganic particles are one or more selected from silicon, silicon oxide compound SiO a wherein 0 <a <2, magnesium, aluminum, zinc, indium, antimony, silver, gold, germanium, and tin. wherein, the functional film layer comprises inorganic particles which are able to reversibly react with metal lithium to form a lithium alloy, and wherein at least part of the surface of the inorganic particles is coated with a polymer coating layer , wherein the polymer coating layer comprises a group that is reversibly bonded with lithium ions, the group that is reversibly bonded with lithium ions comprises one or more of an acid radical group, an amino group, an imino group, a sulfhydryl group, and a polysulfide group (-S b -, b ≥ 2), and optionally, the acid radical group comprises one or more of carboxylic acid group, sulfonic acid group, sulfinic acid group, and phosphoric acid group, and wherein the inorganic particles are one or more selected from silicon, silicon oxide compound SiO a wherein 0 <a <2, magnesium, aluminum, zinc, indium, antimony, silver, gold, germanium, and tin.
An ejection unit for at least one cuboid satellite, said ejection unit comprising a housing which is closed by at least one door (12-18) and in which a guide for receiving a satellite is provided, said guide comprising four parallel angled rails (50-56) whose two legs (52a-54b, 55b, 56a, 56b) are each arranged at two surfaces of a cuboid (Q), and a clamping apparatus which releasably clamps a satellite in the guide, wherein the clamping apparatus has at least one clamping mechanism which applies a force to one of the angled rails exclusively in a direction (W) that forms a bisecting line of this angled rail .
A coating composition comprising porous ceramic particles, said particles comprising pores having at least two corrosion inhibitors substantially homogeneously distributed throughout each particle, said corrosion inhibitors being releasable from the pores in the presence of a liquid, by solubilisation into said liquid, wherein the ceramic particles are prepared using a sol-gel process for encapsulating the corrosion inhibitors and wherein the corrosion inhibitors have different solubilities in water.
An optical device comprising: an electrically tunable lens (ETL) disposed within an optical path and in working relationship with an aspherical correction lens disposed within the optical path and dimensioned and configured to reduce spherical aberration in a light beam exiting the electrically tunable lens, wherein the aspherical correction lens comprises a first face defining a spherical surface and a second face defining an aspherical surface; and characterized in that the diameter of the light beam entering the aspherical correction lens increases as the focal length of the ETL decreases; wherein the aspherical surface of the aspherical correction lens is shaped in such a fashion as to yield progressive spherical aberration reduction through the entire focal length range of the electronically tunable lens, and asphericity of the aspherical correction lens increases progressively with increased beam diameter passing through the aspherical correction lens . an electrically tunable lens (ETL) disposed within an optical path and in working relationship with an aspherical correction lens disposed within the optical path and dimensioned and configured to reduce spherical aberration in a light beam exiting the electrically tunable lens, wherein the aspherical correction lens comprises a first face defining a spherical surface and a second face defining an aspherical surface; and characterized in that the diameter of the light beam entering the aspherical correction lens increases as the focal length of the ETL decreases; wherein the aspherical surface of the aspherical correction lens is shaped in such a fashion as to yield progressive spherical aberration reduction through the entire focal length range of the electronically tunable lens, and asphericity of the aspherical correction lens increases progressively with increased beam diameter passing through the aspherical correction lens .
An acousto-optic system comprising : a laser source ; an acousto-optic modulator (AOM) coupled to said laser source and comprising an acousto-optic medium and a plurality of transducer electrodes (434a-434f, 434g-434k) carried thereby, wherein the acousto-optic system is characterized by ; an interface board comprising a dielectric layer and a plurality of signal contacts (460a-460d) carried thereby; and a plurality of connections coupling respective signal contacts (460a-460d) with respective transducer electrodes (434a-434f, 434g-434k), each connection comprising a dielectric protrusion extending from said AOM , and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d). a laser source ; an acousto-optic modulator (AOM) coupled to said laser source and comprising an acousto-optic medium and a plurality of transducer electrodes (434a-434f, 434g-434k) carried thereby, wherein the acousto-optic system is characterized by ; an interface board comprising a dielectric layer and a plurality of signal contacts (460a-460d) carried thereby; and a plurality of connections coupling respective signal contacts (460a-460d) with respective transducer electrodes (434a-434f, 434g-434k), each connection comprising a dielectric protrusion extending from said AOM , and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d). a dielectric protrusion extending from said AOM , and an electrically conductive layer on said dielectric protrusion for coupling a respective transducer electrode (434a-434f, 434g-434k) to a respective signal contact (460a-460d).
A media playback device with a media playback control button configured to receive manual user input for controlling playback of media content, the media playback device comprising: a body (520; 702) including a button cover depressible upon the manual user input, the button cover including: an outer layer including a button indication hole and at least a portion of which layer is made of an elastic material; and an inner layer including a light guide protrusion and at least a portion of which layer is made of a material that is less elastic than the outer layer, the light guide protrusion configured to be at least partially transparent and extending at least partially through the button indication hole of the outer layer; and a button subassembly arranged under the inner layer of the button cover, the button subassembly including: a press input sensor ; a lighting device adjacent the press input sensor and configured to emit light toward the press input sensor; and a reflective ring configured to reflect the light from the lighting device within a boundary defined by the reflective ring around the press input sensor and the light device and concentrate the light toward the light guide protrusion. a body (520; 702) including a button cover depressible upon the manual user input, the button cover including: an outer layer including a button indication hole and at least a portion of which layer is made of an elastic material; and an inner layer including a light guide protrusion and at least a portion of which layer is made of a material that is less elastic than the outer layer, the light guide protrusion configured to be at least partially transparent and extending at least partially through the button indication hole of the outer layer; and an outer layer including a button indication hole and at least a portion of which layer is made of an elastic material; and an inner layer including a light guide protrusion and at least a portion of which layer is made of a material that is less elastic than the outer layer, the light guide protrusion configured to be at least partially transparent and extending at least partially through the button indication hole of the outer layer; and a button subassembly arranged under the inner layer of the button cover, the button subassembly including: a press input sensor ; a lighting device adjacent the press input sensor and configured to emit light toward the press input sensor; and a reflective ring configured to reflect the light from the lighting device within a boundary defined by the reflective ring around the press input sensor and the light device and concentrate the light toward the light guide protrusion. a press input sensor ; a lighting device adjacent the press input sensor and configured to emit light toward the press input sensor; and a reflective ring configured to reflect the light from the lighting device within a boundary defined by the reflective ring around the press input sensor and the light device and concentrate the light toward the light guide protrusion.