mhurhangee/patent-ind-claim-en huggingface dataset:
An electronic device comprising: a housing including a first cover facing a first direction, a second cover facing a second direction opposite the first direction, and a lateral member facing a third direction perpendicular to the first and second directions and disposed to surround at least part of a space between the first and second covers; a sensor module disposed between the first and second covers and mounted to be exposed through at least part of the second cover, the sensor module including a first structure ; wherein the sensor module further comprises a decorating member comprising a second structure surrounding a lateral side of the sensor module , and wherein the first structure extends horizontally from the second structure , and wherein the first structure and the second structure are integrally molded; and a sealing member disposed between the second cover and the first structure and compressed due to assembly of the second cover to prevent moisture from penetrating into the electronic device, wherein the sealing member comprises: a body which is a supporting member attached to the first structure; and at least one sealing portion which extends from the body and is compressed by the second cover, and wherein a cross-section of the at least one sealing portion has a "V" shape, and wherein at least two end portions of the at least one sealing portion are curved and contact the second cover. a housing including a first cover facing a first direction, a second cover facing a second direction opposite the first direction, and a lateral member facing a third direction perpendicular to the first and second directions and disposed to surround at least part of a space between the first and second covers; a sensor module disposed between the first and second covers and mounted to be exposed through at least part of the second cover, the sensor module including a first structure ; wherein the sensor module further comprises a decorating member comprising a second structure surrounding a lateral side of the sensor module , and wherein the first structure extends horizontally from the second structure , and wherein the first structure and the second structure are integrally molded; and a sealing member disposed between the second cover and the first structure and compressed due to assembly of the second cover to prevent moisture from penetrating into the electronic device, wherein the sealing member comprises: a body which is a supporting member attached to the first structure; and at least one sealing portion which extends from the body and is compressed by the second cover, and wherein a cross-section of the at least one sealing portion has a "V" shape, and wherein at least two end portions of the at least one sealing portion are curved and contact the second cover. a body which is a supporting member attached to the first structure; and at least one sealing portion which extends from the body and is compressed by the second cover, and wherein a cross-section of the at least one sealing portion has a "V" shape, and wherein at least two end portions of the at least one sealing portion are curved and contact the second cover.
Arrangement having a central control unit and having multiple hydrostatic linear actuators, wherein each actuator has a differential cylinder which can be provided with a supply by exactly one pump which can be driven with adjustable or regulable rotational speed via exactly one electric motor , wherein the pump and the electric motor are arranged on the outer circumference of the differential cylinder , and wherein the actuator has a circular-cylindrical low-pressure accumulator which is arranged on the outer circumference of the differential cylinder , and wherein each actuator has a hydraulic control unit , characterized in that the hydraulic control unit is refined as a control block which is fastened to the outer circumference of the differential cylinder and to the low-pressure accumulator and which forms an end wall of the low-pressure accumulator , wherein the multiple hydrostatic control units and rotational speeds of the electric motors can be controlled and/or regulated via the central control unit.
A pressure-sensitive adhesive composition, comprising the reaction products of the following reaction components: acrylate copolymers having a side carboxyl, formed by a first monomer mixture containing a carboxyl-containing monomer, wherein, the content of the carboxyl-containing monomer is 0.1-10 wt. % based on the total weight of the first monomer mixture for forming the acrylate copolymer having the side carboxyl, the glass transition temperature Tg of the acrylate copolymer having the side carboxyl is greater than or equal to -50°C and less than or equal to -30°C; 1-25 wt. % of an acrylate oligomer based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, the weight-average molecular weight of the acrylate oligomer is greater than or equal to 20,000 Da, the glass transition temperature Tg thereof is greater than or equal to 80°C; and 1-20 wt. % of a terpene tackifying resin based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, wherein the Tg is obtained by Fox equation and the weight average molecular weight is tested by GPC method. acrylate copolymers having a side carboxyl, formed by a first monomer mixture containing a carboxyl-containing monomer, wherein, the content of the carboxyl-containing monomer is 0.1-10 wt. % based on the total weight of the first monomer mixture for forming the acrylate copolymer having the side carboxyl, the glass transition temperature Tg of the acrylate copolymer having the side carboxyl is greater than or equal to -50°C and less than or equal to -30°C; 1-25 wt. % of an acrylate oligomer based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, the weight-average molecular weight of the acrylate oligomer is greater than or equal to 20,000 Da, the glass transition temperature Tg thereof is greater than or equal to 80°C; and 1-20 wt. % of a terpene tackifying resin based on the total weight of the acrylate copolymer having the side carboxyl and the acrylate oligomer, wherein the Tg is obtained by Fox equation and the weight average molecular weight is tested by GPC method.
A composition for refrigerating machines comprising a refrigerant (D) and a lubricant composition, wherein the lubricant composition comprises a base oil (A) which is at least one selected from the group consisting of a polyvinyl ether and a polyol ester and a fluorescent fused ring compound (B) being fluorescent, having a tri- or higher fused ring, and not having nitrogen, oxygen, and sulfur in a molecule thereof, wherein the fused ring compound (B) is at least one selected from the group consisting of a naphthacene-based compound and an anthracene-based compound; and at least one additive selected from the group consisting of an antioxidant, an extreme pressure agent, an acid scavenger, an oxygen scavenger, and a copper deactivator; wherein the fused ring compound (B) is contained in an amount of 0.001 to 1.0% by mass on a basis of the whole amount of the lubricant composition. a base oil (A) which is at least one selected from the group consisting of a polyvinyl ether and a polyol ester and a fluorescent fused ring compound (B) being fluorescent, having a tri- or higher fused ring, and not having nitrogen, oxygen, and sulfur in a molecule thereof, wherein the fused ring compound (B) is at least one selected from the group consisting of a naphthacene-based compound and an anthracene-based compound; and at least one additive selected from the group consisting of an antioxidant, an extreme pressure agent, an acid scavenger, an oxygen scavenger, and a copper deactivator; wherein the fused ring compound (B) is contained in an amount of 0.001 to 1.0% by mass on a basis of the whole amount of the lubricant composition.
A microfluidic device for analyzing a fluidic sample, the device comprising: (a) a tip shaped to receive a volume of the fluidic sample; (b) a vertical inlet comprising a first valve and adjacent to a horizontal flow of the fluidic sample from the sample tip and is located after the tip; (c) a first sample region located after the first valve , wherein the first sample region is in fluidic communication with the tip and comprises at least one transducer configured to detect an energy property of the fluidic sample in order to generate a first sample reading, wherein the first sample reading is indicative of osmolarity of the fluidic sample; (d) a fluid reservoir fluidically connected to the vertical inlet , wherein the fluid reservoir contains a transfer fluid; (e) a second valve that prevents premature fluid flow from the first sample region to a second sample region ; and (f) the second sample region is in fluidic communication with the first sample region and shaped to receive at least a portion of the fluidic sample, wherein the second sample region comprises a detection substrate configured to detect one or more analytes in the fluidic sample in order to generate a second sample reading, wherein introduction of the transfer fluid from the reservoir to the first sample region moves the at least a portion of the fluidic sample from the first sample region to the second sample region . (a) a tip shaped to receive a volume of the fluidic sample; (b) a vertical inlet comprising a first valve and adjacent to a horizontal flow of the fluidic sample from the sample tip and is located after the tip; (c) a first sample region located after the first valve , wherein the first sample region is in fluidic communication with the tip and comprises at least one transducer configured to detect an energy property of the fluidic sample in order to generate a first sample reading, wherein the first sample reading is indicative of osmolarity of the fluidic sample; (d) a fluid reservoir fluidically connected to the vertical inlet , wherein the fluid reservoir contains a transfer fluid; (e) a second valve that prevents premature fluid flow from the first sample region to a second sample region ; and (f) the second sample region is in fluidic communication with the first sample region and shaped to receive at least a portion of the fluidic sample, wherein the second sample region comprises a detection substrate configured to detect one or more analytes in the fluidic sample in order to generate a second sample reading, wherein introduction of the transfer fluid from the reservoir to the first sample region moves the at least a portion of the fluidic sample from the first sample region to the second sample region .
A three-dimensional printing method, comprising: applying build material granules , each of the build material granules including a plurality of uncoated, primary ceramic particles agglomerated together by a binder that is soluble in a primary solvent of a fusing agent , wherein the uncoated, primary ceramic particles have a particle size ranging from 0.01 μm to 3 μm; and selectively applying the fusing agent on at least a portion of the build material granules , thereby dissolving the binder and creating a green body including a slurry of the uncoated, primary ceramic particles , and wherein each of the build material granules has a granule size ranging from 10 microns to 200 microns. applying build material granules , each of the build material granules including a plurality of uncoated, primary ceramic particles agglomerated together by a binder that is soluble in a primary solvent of a fusing agent , wherein the uncoated, primary ceramic particles have a particle size ranging from 0.01 μm to 3 μm; and selectively applying the fusing agent on at least a portion of the build material granules , thereby dissolving the binder and creating a green body including a slurry of the uncoated, primary ceramic particles , and wherein each of the build material granules has a granule size ranging from 10 microns to 200 microns.
An assembly for lining a structural wall of a gas turbine combustor, the structural wall having a plurality of fixing apertures provided therethrough, the assembly comprising; a liner element and a plurality of fixing elements , wherein the liner element is manufactured by an additive layer manufacturing method and has a unitary construction defining a cooling side and combustion side , and a plurality of effusion holes extending between a cooling side surface of the element and a combustion side surface of the element; the liner element being configured to be affixed to the structural wall with its cooling side surface spaced from the structural wall to define a chamber between the cooling side surface and the structural wall , the linerhaving a peripheral flange configured to engage said structural wall when the liner element is affixed thereto, the liner element further including integrally formed and non-threaded protuberances on its cooling side , the protuberances being arranged to engage and extend through respective fixing apertures in the structural wall emerging on an opposite side of said structural wall at least some of said protuberances projecting from said flange ; wherein the protuberances and the fixing elements are configured such that, in use, each fixing element mechanically engages a respective protuberance in an interlocking manner from the opposite side whereby to retain mechanical engagement between the liner element and the structural wall .
A chip surface base device structure , comprising: a first substrate comprising crystalline silicon that is physically coupled with a first superconducting layer , wherein the first superconducting layer is physically coupled with a second crystalline silicon substrate , the first substrate , the superconducting layer , and the second crystalline silicon substrate comprising a silicon-on-metal SOM base; and a vertical Josephson junction located in an etched region of the first substrate , the vertical Josephson junction comprising the first superconducting layer , a tunnel barrier layer , and a top superconducting layer . a first substrate comprising crystalline silicon that is physically coupled with a first superconducting layer , wherein the first superconducting layer is physically coupled with a second crystalline silicon substrate , the first substrate , the superconducting layer , and the second crystalline silicon substrate comprising a silicon-on-metal SOM base; and a vertical Josephson junction located in an etched region of the first substrate , the vertical Josephson junction comprising the first superconducting layer , a tunnel barrier layer , and a top superconducting layer .
Nintedanib for use in inducing pterygium regression from visual axis/central cornea in an affected eye or stabilizing a pterygium in an affected eye.
Method of forming an object by means of additive manufacturing, the method comprising consecutively providing a plurality of layers of building material, and selectively curing one or more pixels of each of the layers during printing thereof, the method comprising: providing a first layer of a first building material onto a support surface or a preceding layer; selectively exposing, in accordance with layer data, one or more pixels in the first layer to a dose of radiation ; characterized by : identifying, based on the layer data, one or more contour pixels in the first layer that coincide with a contour of a featured region of a subsequent second layer, the featured region of the second layer to be provided using a second building material different from the first building material ; increasing, prior to said selectively exposing, a radiation dose for the identified contour pixels; and wherein the step of selectively exposing includes exposing the one or more contour pixels using the increased radiation dose. providing a first layer of a first building material onto a support surface or a preceding layer; selectively exposing, in accordance with layer data, one or more pixels in the first layer to a dose of radiation ; identifying, based on the layer data, one or more contour pixels in the first layer that coincide with a contour of a featured region of a subsequent second layer, the featured region of the second layer to be provided using a second building material different from the first building material ; increasing, prior to said selectively exposing, a radiation dose for the identified contour pixels; and wherein the step of selectively exposing includes exposing the one or more contour pixels using the increased radiation dose.
An antibody drug conjugate comprising a bispecific antibody comprising an anti-cotinine single chain variable fragment (scFv); and a conjugate of bivalent cotinine which is cross-linked with a peptide, and a drug. a bispecific antibody comprising an anti-cotinine single chain variable fragment (scFv); and a conjugate of bivalent cotinine which is cross-linked with a peptide, and a drug.
A method for producing a stream of ions for detection and/or quantification of selenium (Se) in a sample, the method comprising: introducing a sample to an ionization source, thereby producing an ionized sample stream comprising a plurality of ionic species, said plurality of ionic species comprising: (i) one or more analyte ionic species, said one or more analyte ionic species being an ionized form of one or more species of interest present in the sample, said one or more species of interest comprising selenium, and said one or more analyte ionic species comprising Se + ; and (ii) one or more interferer ionic species, said one or more interferer ionic species having nominal m/z substantially equivalent to that of Se + ; admitting the ionized sample stream into a chamber to thereby contact the ionized sample stream with a reaction gas stream comprising CO 2 , thereby reacting the CO 2 with at least one of the one or more interferer ionic species and producing one or more products that are not interferer ionic species; and following contact of the ionized sample stream with the reaction gas stream comprising CO 2 , directing the resulting product stream to a mass analyzer and detector for detection and/or quantification of selenium in the sample. introducing a sample to an ionization source, thereby producing an ionized sample stream comprising a plurality of ionic species, said plurality of ionic species comprising: (i) one or more analyte ionic species, said one or more analyte ionic species being an ionized form of one or more species of interest present in the sample, said one or more species of interest comprising selenium, and said one or more analyte ionic species comprising Se + ; and (ii) one or more interferer ionic species, said one or more interferer ionic species having nominal m/z substantially equivalent to that of Se + ; (i) one or more analyte ionic species, said one or more analyte ionic species being an ionized form of one or more species of interest present in the sample, said one or more species of interest comprising selenium, and said one or more analyte ionic species comprising Se + ; and (ii) one or more interferer ionic species, said one or more interferer ionic species having nominal m/z substantially equivalent to that of Se + ; admitting the ionized sample stream into a chamber to thereby contact the ionized sample stream with a reaction gas stream comprising CO 2 , thereby reacting the CO 2 with at least one of the one or more interferer ionic species and producing one or more products that are not interferer ionic species; and following contact of the ionized sample stream with the reaction gas stream comprising CO 2 , directing the resulting product stream to a mass analyzer and detector for detection and/or quantification of selenium in the sample.
A positive electrode active material for a secondary battery, the positive electrode active material comprising: a first positive electrode active material and a second positive electrode active material, wherein an average particle diameter (D 50 ) of the first positive electrode active material is twice or more an average particle diameter (D 50 ) of the second positive electrode active material, and the second positive electrode active material has a crystallite size, calculated from the Scherrer equation using X-ray diffraction (XRD) data, of 200 nm or more, and wherein the second positive electrode active material is represented by Formula 1: [Formula 1] Li p Ni 1-(x1+y1+z1) CO x1 M a y1 M b z1 M c q1 O 2 wherein, in Formula 1, M a is at least one element selected from the group consisting of manganese (Mn) and aluminum (Al), M b is at least one element selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), M c is at least one element selected from the group consisting of Al, Zr, Ti, Mg, Ta, Nb, Mo, and chromium (Cr), and 0.9≤p≤1.5, 0<x1≤0.4, 0<y1≤0.4, 0≤z1≤0.1, 0≤q1≤0.1, and 0<x1+y1+z1≤0.4. a first positive electrode active material and a second positive electrode active material, wherein an average particle diameter (D 50 ) of the first positive electrode active material is twice or more an average particle diameter (D 50 ) of the second positive electrode active material, and the second positive electrode active material has a crystallite size, calculated from the Scherrer equation using X-ray diffraction (XRD) data, of 200 nm or more, and wherein the second positive electrode active material is represented by Formula 1: [Formula 1] Li p Ni 1-(x1+y1+z1) CO x1 M a y1 M b z1 M c q1 O 2 wherein, in Formula 1, M a is at least one element selected from the group consisting of manganese (Mn) and aluminum (Al), M b is at least one element selected from the group consisting of barium (Ba), calcium (Ca), zirconium (Zr), titanium (Ti), magnesium (Mg), tantalum (Ta), niobium (Nb), and molybdenum (Mo), M c is at least one element selected from the group consisting of Al, Zr, Ti, Mg, Ta, Nb, Mo, and chromium (Cr), and 0.9≤p≤1.5, 0<x1≤0.4, 0<y1≤0.4, 0≤z1≤0.1, 0≤q1≤0.1, and 0<x1+y1+z1≤0.4.
A chain stay protection element for arrangement on a chain stay of a bicycle, comprising a cover element arranged on an outer side of the chain stay in the area of a chainring in the mounted state, and a fastening element connected to the cover element for fastening to the chain stay , characterized in that the cover element has a lug encompassing the chainring in the mounted state and/or the cover element has a groove in which the teeth of the chainring are arranged in the mounted state. a cover element arranged on an outer side of the chain stay in the area of a chainring in the mounted state, and a fastening element connected to the cover element for fastening to the chain stay , characterized in that the cover element has a lug encompassing the chainring in the mounted state and/or the cover element has a groove in which the teeth of the chainring are arranged in the mounted state.
An injection device comprising: a housing configured to receive a medicament container; a protective cap is removably arranged on the housing ; a label with a NFC-circuit comprising an antenna and an activation element extending between the housing and the protective cap ; wherein said label is arranged with a tear line that is generally aligned with the interface between the housing and the protective cap; wherein the activation element is configured to be broken when a user removes the protective cap ; and wherein the breaking of said activation element is detected by the NFC-circuit , and is transmitted to a smart device. a housing configured to receive a medicament container; a protective cap is removably arranged on the housing ; a label with a NFC-circuit comprising an antenna and an activation element extending between the housing and the protective cap ; wherein said label is arranged with a tear line that is generally aligned with the interface between the housing and the protective cap; wherein the activation element is configured to be broken when a user removes the protective cap ; and wherein the breaking of said activation element is detected by the NFC-circuit , and is transmitted to a smart device.