mhurhangee/patent-ind-claim-en huggingface dataset:
A display device comprising: a substrate including a first indented portion (IP1) indented inward along one side of the substrate ; a first pad group and a second pad group that are spaced apart from each other on the substrate along the one side; a display unit located on the substrate and having a shape indented inward between the first pad group and the second pad group ; an encapsulation layer encapsulating the display unit ; a first wiring film (80-1) including a third pad group connected to the first pad group , the first wiring film (80-1) being bent from a first surface of the substrate to a second surface of the substrate that is opposite to the first surface of the substrate ; and a second wiring film (80-2) including a fourth pad group connected to the second pad group , the second wiring film (80-2) being bent from the first surface of the substrate to the second surface of the substrate and spaced apart from the first wiring film (80-1), a transparent substrate being arranged on the encapsulation layer , characterised by a polarization film between the encapsulation layer and the transparent substrate , an adhesive film between the polarization film and the transparent substrate , and a filling material spaced apart from the adhesive film and surrounding an edge of the encapsulating layer without coming into contact with the display unit , the filling material being located between the substrate and the transparent substrate and contacting the substrate and the transparent substrate . a substrate including a first indented portion (IP1) indented inward along one side of the substrate ; a first pad group and a second pad group that are spaced apart from each other on the substrate along the one side; a display unit located on the substrate and having a shape indented inward between the first pad group and the second pad group ; an encapsulation layer encapsulating the display unit ; a first wiring film (80-1) including a third pad group connected to the first pad group , the first wiring film (80-1) being bent from a first surface of the substrate to a second surface of the substrate that is opposite to the first surface of the substrate ; and a second wiring film (80-2) including a fourth pad group connected to the second pad group , the second wiring film (80-2) being bent from the first surface of the substrate to the second surface of the substrate and spaced apart from the first wiring film (80-1), a transparent substrate being arranged on the encapsulation layer , characterised by a polarization film between the encapsulation layer and the transparent substrate , an adhesive film between the polarization film and the transparent substrate , and a filling material spaced apart from the adhesive film and surrounding an edge of the encapsulating layer without coming into contact with the display unit , the filling material being located between the substrate and the transparent substrate and contacting the substrate and the transparent substrate .
A diagnostic method for the quantitative detection of Nox2 protein in a biological sample, comprising the following operations: i) normalizing the protein content of the biological sample to a value of 1 μg of protein per 100 μl of sample, ii) contacting the normalized biological sample with a monoclonal anti-Nox2 detection antibody, in which the detection antibody is directly conjugated with a detection marker, and iii) detecting the formation of the Nox2 protein-detection antibody complex. i) normalizing the protein content of the biological sample to a value of 1 μg of protein per 100 μl of sample, ii) contacting the normalized biological sample with a monoclonal anti-Nox2 detection antibody, in which the detection antibody is directly conjugated with a detection marker, and iii) detecting the formation of the Nox2 protein-detection antibody complex.
Assembly of a tube connector and a flow restricting orifice (2; 2'), said flow restricting orifice comprising a tubular nozzle having an insert portion for insertion into a mouth of the tube connector, wherein the flow restricting orifice (2; 2') is fitted in the mouth of the tube connector , wherein the flow restricting orifice (2; 2') comprises a visible marking comprising a marking element (10; 10') which extends radially outwardly from the tubular nozzle and which includes a frangible connection which is connected to the tubular nozzle and which has at least one predetermined breaking point , the frangible connection being configured to release the marking element (10; 10') when the frangible connection is broken before a tube is completely pushed onto the tube connector, the marking element (10; 10') being configured to be retained on the tube connector or on the tube connected to the tube connector, to remain, after the tube has been connected to the tube connector, as a marking element visible from the exterior of the tube.
A vehicle gripping system, comprising: a sliding wheel gripper slidably coupled to and extending downwards from an upper frame , for releasably gripping a vehicle by gripping wheels of the vehicle; the sliding wheel gripper being longitudinally slidable along the upper frame between a release position and a gripping position; and the sliding wheel gripper comprising first and second arms extending downwards from the upper frame; wherein the first and second arms are longitudinally movable towards each other to the gripping position to enable gripping of the vehicle therebetween, and longitudinally movable away from each other to the release position to enable release of the vehicle; whereby the system further comprises first and second gripping devices disposed at an end of the first and second arms, respectively, for gripping the vehicle therebetween ; and a first arm driving system for moving the first and second arms away from each other, and a second arm driving system for moving the first and second arms towards each other, wherein the first and second arm driving systems are configured to cause movement of the first and second arms away from each other to release the vehicle to be at a slower speed than movement of the first and second arms towards each other to grip the vehicle. a sliding wheel gripper slidably coupled to and extending downwards from an upper frame , for releasably gripping a vehicle by gripping wheels of the vehicle; the sliding wheel gripper being longitudinally slidable along the upper frame between a release position and a gripping position; and the sliding wheel gripper comprising first and second arms extending downwards from the upper frame; wherein the first and second arms are longitudinally movable towards each other to the gripping position to enable gripping of the vehicle therebetween, and longitudinally movable away from each other to the release position to enable release of the vehicle; whereby the system further comprises first and second gripping devices disposed at an end of the first and second arms, respectively, for gripping the vehicle therebetween ; and a first arm driving system for moving the first and second arms away from each other, and a second arm driving system for moving the first and second arms towards each other, wherein the first and second arm driving systems are configured to cause movement of the first and second arms away from each other to release the vehicle to be at a slower speed than movement of the first and second arms towards each other to grip the vehicle.
A migratory fish passage unit (MFPU), (UPFM), having a branching piece with connections for an intake tube and elevation tube of a migratory fish passage arrangement, whereby the branching piece of the migratory fish passage unit (MFPU, UPFM) further comprises a feeding point for the access of fish into the migratory fish passage unit (MFPU, UPFM), the migratory fish passage unit comprises a first gate valve at the feeding point and a second gate valve at the connection to the elevation tube to control the flow velocity and fish access to the migratory fish passage unit.
A power generating apparatus comprising: a duct through which a first fluid passes; a first thermoelectric module (1200-1) and a second thermoelectric module (1200-2) disposed on a first surface of the duct to be spaced apart from each other; a connector disposed between the first thermoelectric module (1200-1) and the second thermoelectric module (1200-2) on the first surface of the duct ; and a shield member disposed on the connector on the first surface of the duct , characterized by an insulating member disposed between the first surface and a lower surface of the shield member , wherein the shield member includes a first face having a first height with respect to the first surface of the duct and a second face having a second height with respect to the first surface of the duct , and wherein the second height is greater than the first height. a duct through which a first fluid passes; a first thermoelectric module (1200-1) and a second thermoelectric module (1200-2) disposed on a first surface of the duct to be spaced apart from each other; a connector disposed between the first thermoelectric module (1200-1) and the second thermoelectric module (1200-2) on the first surface of the duct ; and a shield member disposed on the connector on the first surface of the duct , characterized by an insulating member disposed between the first surface and a lower surface of the shield member , wherein the shield member includes a first face having a first height with respect to the first surface of the duct and a second face having a second height with respect to the first surface of the duct , and wherein the second height is greater than the first height.
A pharmaceutical composition comprising: a. an insulin, in a concentration of about 100 to about 200 IU/mL; b. citrate, in a concentration from about 15 to about 35 mM; c. zinc, in a concentration from about 0.3 to about 0.8 mM; and d. a preservative; and wherein the composition does not include EDTA or any oligosaccharide. a. an insulin, in a concentration of about 100 to about 200 IU/mL; b. citrate, in a concentration from about 15 to about 35 mM; c. zinc, in a concentration from about 0.3 to about 0.8 mM; and d. a preservative; and
A method performed by a terminal in a wireless communication system, the method comprising: receiving (920; 1005), from a base station , a radio resource control, RRC, message including first information configuring a medium access control, MAC, parameter for the terminal ; identifying second information indicating the terminal whether to skip an uplink transmission, the second information being included in the first information; receiving, from the base station , an uplink grant on a physical downlink control channel, PDCCH, addressed to a cell radio network temporary identifier, C-RNTI; and identifying whether to skip a generation of a MAC protocol data unit, PDU, associated with the uplink grant, based on the second information. receiving (920; 1005), from a base station , a radio resource control, RRC, message including first information configuring a medium access control, MAC, parameter for the terminal ; identifying second information indicating the terminal whether to skip an uplink transmission, the second information being included in the first information; receiving, from the base station , an uplink grant on a physical downlink control channel, PDCCH, addressed to a cell radio network temporary identifier, C-RNTI; and identifying whether to skip a generation of a MAC protocol data unit, PDU, associated with the uplink grant, based on the second information.
A ceiling-type air-conditioner indoor unit system, comprising an indoor unit and a ceiling , wherein, the indoor unit is provided in said ceiling , the system further comprising: a return air inlet , provided on a side surface of the ceiling ; and an air outlet , provided on a bottom surface of the ceiling , a closeable return air inlet apparatus is provided at the return air inlet , and a closeable air outlet apparatus is provided at the air outlet , the air outlet apparatus comprises an air output apparatus and an air guide portion movably sleeved inside the air output apparatus in a vertical direction, the air guide portion comprises a side wall , and a first air outlet is formed at the bottom of the air guide portion , characterized in that the air guide portion further comprises a second air outlet , provided on the side wall ; when the air guide portion retracts into the air output apparatus , the second air outlet is closed; and when the air guide portion extends out of the air output apparatus , the second air outlet is opened. a return air inlet , provided on a side surface of the ceiling ; and an air outlet , provided on a bottom surface of the ceiling , a closeable return air inlet apparatus is provided at the return air inlet , and a closeable air outlet apparatus is provided at the air outlet , the air outlet apparatus comprises an air output apparatus and an air guide portion movably sleeved inside the air output apparatus in a vertical direction, the air guide portion comprises a side wall , and a first air outlet is formed at the bottom of the air guide portion , characterized in that the air guide portion further comprises a second air outlet , provided on the side wall ; when the air guide portion retracts into the air output apparatus , the second air outlet is closed; and when the air guide portion extends out of the air output apparatus , the second air outlet is opened.
A method of producing a heat-resistant silane crosslinked resin molded body, comprising: (a) a step of obtaining a mixture by melt-mixing, to 100 parts by mass of a base resin (R B ) containing a paraffin oil of from 5 to 40 mass% as non-aromatic organic oil, a styrene-based elastomer, and ethylene rubber composed of a copolymer of ethylene and α-olefin or a terpolymer of ethylene, α-olefin and diene; an organic peroxide of from 0.01 to 0.6 parts by mass, an inorganic filler of from 10 to 400 parts by mass, a silane coupling agent of from 1 to 15.0 parts by mass, and a silanol condensation catalyst, (b) a step of obtaining a molded body by molding the mixture, and (c) a step of obtaining a heat-resistant silane crosslinked resin molded body by contacting the molded body with water, wherein the step (a) has a step and a step below, and when part of the base resin (R B ) is melt-mixed in the step , the step (a) has the step , a step , and the step below: Step : a step of melt-mixing all or part of the base resin (R B ), the organic peroxide, the inorganic filler, and the silane coupling agent, at a temperature equal to or higher than the decomposition temperature of the organic peroxide, to prepare a silane master batch, Step : a step of melt-mixing a remainder of the base resin (R B ) and the silanol condensation catalyst, to prepare a catalyst master batch, and Step : a step of mixing the silane master batch and either the silanol condensation catalyst or the catalyst master batch. (a) a step of obtaining a mixture by melt-mixing, to 100 parts by mass of a base resin (R B ) containing a paraffin oil of from 5 to 40 mass% as non-aromatic organic oil, a styrene-based elastomer, and ethylene rubber composed of a copolymer of ethylene and α-olefin or a terpolymer of ethylene, α-olefin and diene; an organic peroxide of from 0.01 to 0.6 parts by mass, an inorganic filler of from 10 to 400 parts by mass, a silane coupling agent of from 1 to 15.0 parts by mass, and a silanol condensation catalyst, (b) a step of obtaining a molded body by molding the mixture, and (c) a step of obtaining a heat-resistant silane crosslinked resin molded body by contacting the molded body with water, Step : a step of melt-mixing all or part of the base resin (R B ), the organic peroxide, the inorganic filler, and the silane coupling agent, at a temperature equal to or higher than the decomposition temperature of the organic peroxide, to prepare a silane master batch, Step : a step of melt-mixing a remainder of the base resin (R B ) and the silanol condensation catalyst, to prepare a catalyst master batch, and Step : a step of mixing the silane master batch and either the silanol condensation catalyst or the catalyst master batch.
A battery module for battery arrangements having a plurality of such battery modules , with a battery unit having a plurality of inter-connected battery cells , a housing assembly having a bottom plate and two side walls arranged opposite from each other, which preferably can be connected to the bottom plate via screw connections , a holder designed from plastic, which rests on the inside of the bottom plate and has protruding edges pointing upward at its longitudinal sides, between which edges a lower section of the battery unit of the battery module can be received, and a housing cover , characterized in that the battery module has a control assembly having a control circuit board for monitoring and regulating the operation of the battery unit and a support frame which rests on the battery unit and on which cell connectors are arranged, by means of which two respective battery cells of the battery unit can be connected with each other, that the control assembly with its control circuit board and its support frame is arranged between the top of the battery unit and the housing cover , and that the side walls have longitudinal protrusions on the inside of their bottom longitudinal edges , which longitudinal protrusions engage with longitudinal recesses formed on allocated longitudinal edges of the bottom plate .
A method of determining a quantization parameter for coding a captured image, the method comprising: determining an adjustment range of a quantization parameter correction value such that the adjustment range of a quantization parameter correction value becomes wider when a size of a motion area of an input image is increasing, and the adjustment range of a quantization parameter correction value becomes narrower when a size of the motion area of an input image is decreasing; calculating an average bitrate value of the input image (S62); and adjusting the quantization parameter correction value (S64) by decreasing the quantization parameter correction value within the adjustment range in response to determining that the average bitrate value is greater than an upper limit value at a time point (S644), and by increasing the quantization parameter correction value within the adjustment range in response to determining that the average bitrate value is equal to or less than a lower limit value at the time point(S645), wherein each quantization parameter correction value has a corresponding preselected bitrate value and each of the upper limit value and lower limit value at the time point is a bitrate value corresponding to an upper and a lower quantization parameter correction value, respectively, adjacent to the quantization parameter correction value at another time point previous to the time point. determining an adjustment range of a quantization parameter correction value such that the adjustment range of a quantization parameter correction value becomes wider when a size of a motion area of an input image is increasing, and the adjustment range of a quantization parameter correction value becomes narrower when a size of the motion area of an input image is decreasing; calculating an average bitrate value of the input image (S62); and adjusting the quantization parameter correction value (S64) by decreasing the quantization parameter correction value within the adjustment range in response to determining that the average bitrate value is greater than an upper limit value at a time point (S644), and by increasing the quantization parameter correction value within the adjustment range in response to determining that the average bitrate value is equal to or less than a lower limit value at the time point(S645), wherein each quantization parameter correction value has a corresponding preselected bitrate value and each of the upper limit value and lower limit value at the time point is a bitrate value corresponding to an upper and a lower quantization parameter correction value, respectively, adjacent to the quantization parameter correction value at another time point previous to the time point.
A method for detecting a disturbance in a power system within a digital substation , including: sensing electrical parameters at an end of a transmission line ; sampling the sensed electrical parameters; extracting travelling-wave information from high frequency component of the samples using a signal processing method and judging if it indicates occurrence of the disturbance; characterised by if the extracted travelling-wave information indicating occurrence of the disturbance, transmitting the extracted travelling-wave information to an intelligent electronic device of the digital substation from a merging unit or non-conventional instrument transformer of the digital substation . sensing electrical parameters at an end of a transmission line ; sampling the sensed electrical parameters; extracting travelling-wave information from high frequency component of the samples using a signal processing method and judging if it indicates occurrence of the disturbance; characterised by if the extracted travelling-wave information indicating occurrence of the disturbance, transmitting the extracted travelling-wave information to an intelligent electronic device of the digital substation from a merging unit or non-conventional instrument transformer of the digital substation .
A planar waveguide laser device comprising: a laser medium that is shaped like a plate and has no birefringence and a waveguide structure in a direction of a thickness of a surface thereof perpendicular to an optical axis thereof, and that generates gain for two polarized light rays which whose polarization planes are perpendicular to each other, the waveguide structure being formed by bonding a cladding to the laser medium , the cladding having a refractive index which is smaller than that of the laser medium ; a nonlinear material that is placed on the optical axis of said laser medium close to said laser medium and has a waveguide structure in a direction which is same as that of the waveguide structure of said laser medium , and that performs wavelength conversion on a specific one of said two polarized light rays; and a 1/4 wavelength plate that is placed close to one of surfaces, which are perpendicular to the optical axis, of said nonlinear material , said one being opposite to a surface close to said laser medium , and that rotates, by 90 degrees, said polarized light rays coming from the nonlinear material , wherein one of the rotated polarized light rays has a polarization plane whose direction is the same as the specific one of said two polarized light rays on which the wavelength conversion is performed by the nonlinear material . a laser medium that is shaped like a plate and has no birefringence and a waveguide structure in a direction of a thickness of a surface thereof perpendicular to an optical axis thereof, and that generates gain for two polarized light rays which whose polarization planes are perpendicular to each other, the waveguide structure being formed by bonding a cladding to the laser medium , the cladding having a refractive index which is smaller than that of the laser medium ; a nonlinear material that is placed on the optical axis of said laser medium close to said laser medium and has a waveguide structure in a direction which is same as that of the waveguide structure of said laser medium , and that performs wavelength conversion on a specific one of said two polarized light rays; and a 1/4 wavelength plate that is placed close to one of surfaces, which are perpendicular to the optical axis, of said nonlinear material , said one being opposite to a surface close to said laser medium , and that rotates, by 90 degrees, said polarized light rays coming from the nonlinear material , wherein one of the rotated polarized light rays has a polarization plane whose direction is the same as the specific one of said two polarized light rays on which the wavelength conversion is performed by the nonlinear material .