mhurhangee/patent-ind-claim-en huggingface dataset:
Hippotherapy device, comprising a saddle which forms a seat for a person , as well as a programmable movement control and an automatic movement device which is designed to move the saddle according to one of the movement control to be executed movement pattern program, which specifies a sequence of set points of positions and orientations of the saddle in the space of the movement device for executing the movement pattern to move automatically, and a personal security device , which has a base support , on which a body belt is mounted, at least one sensor which is designed to detect at least one physical variable characterizing the posture of the person on the saddle , characterized by an auxiliary control device , which is designed as a function of the movement pattern program and the position and orientation of the saddle expected values of the physical quantity, which characterizes the expected posture of the person on the saddle , to be used and with the instantaneous values of the physical quantity recorded by the sensor , which the actual posture of the person on the saddle identifies, compares and triggers an assigned safety function in the event of a deviation of the current values of the physical variable from the expected values of this physical variable that exceeds a predetermined tolerance threshold, the hippotherapy device comprising at least one actuator which is designed to target the spatial position and/or the spatial orientation of the upper body, the head, at least one arm and/or at least one leg of the person to act, wherein the safety function to be triggered comprises an activation of the at least one actuator .
A high frequency module including a storing case and a plurality of high frequency circuits , said storing case comprising a multilayer dielectric substrate and a shield cover member , an earth conductor being formed on said multilayer dielectric substrate and configured to be fixed to a reference potential of said plurality of high frequency circuits , said earth conductor and the shield cover member thereby forming part of an electromagnetic shield for said plurality of high frequency circuits which are mounted on said earth conductor and arranged in a signal propagation direction, said shield cover member spatially covering said plurality of high frequency circuits , the electromagnetically-shielded space between said earth conductor and said shield cover member forming a cavity having in a direction perpendicular to the direction of layer lamination of the multilayer dielectric substrate and perpendicular to an arrangement direction of said plurality of high frequency circuits , a length smaller than 1/2 of an effective wavelength in the substrate of a first signal wave generated by a first high frequency circuit of said plurality of high frequency circuits , said storing case further comprising a waveguide aperture in said earth conductor , said waveguide aperture being located between said first high frequency circuit and a second high frequency circuit of said plurality of high frequency circuits which generates a second signal wave having a frequency N times, N≥2, higher than that of said first signal wave, said storing case further including an end-short-circuited dielectric waveguide which consists of the portion of the multilayer dielectric substrate that extends in the direction of layer lamination of the multilayer dielectric substrate between said waveguide aperture and an inner-layer earth conductor formed in the multilayer dielectric substrate and that is surrounded by a plurality of through holes electrically connected to the earth conductor and the inner-layer earth conductor , said dielectric waveguide having a length between said waveguide aperture and said inner-layer earth conductor of 1/4 of an effective wavelength in the substrate of said second signal wave.
A pharmaceutical composition comprising, as an active ingredient, a compound represented by the following general formula (I) or a pharmacologically acceptable salt thereof: wherein R 1 and R 2 are the same or different, and represent a C 1 -C 6 alkyl group, a halogeno C 1 -C 6 alkyl group or a C 3 -C 6 cycloalkyl group; n represents 0, 1 or 2; each X is the same or different, and represents a C 1 -C 6 alkyl group, a C 3 -C 6 cycloalkyl group, a halogen atom, a cyano group, a halogeno C 1 -C 6 alkyl group, a C 1 -C 6 alkoxy group, a halogeno C 1 -C 6 alkoxy group or a C 3 -C 6 cycloalkoxy group; and Y represents a hydrogen atom, a C 1 -C 6 alkoxy group, a C 3 -C 6 cycloalkoxy group or a halogeno C 1 -C 6 alkoxy group.
A dynamoelectric machine, comprising: a rotor having axially extending slots for receiving a plurality of concentrically arranged adjacent coils with axial cooling channels formed along the slots ; a plurality of spaceblocks disposed between endwindings of the adjacent coils of the rotor winding for intercepting a circulating coolant flow through the axial cooling channels define at least a first cavity confined by the plurality of spaceblocks and mutually adjacent coils ; and wherein the plurality of spaceblocks each include a channel disposed in a coil facing surface of the spaceblock for redirecting the circulating coolant flow through the channel to the first cavity , characterized in that coolant is redirected from the first cavity to the first cavity at a different location by means of the channel projecting in a bended manner in the coil facing surface ; further comprising at least one flow deflector structure disposed on at least one cavity facing surface of the spaceblock for intercepting and redirecting circulating coolant flow in the first cavity towards a central region of the first cavity . a rotor having axially extending slots for receiving a plurality of concentrically arranged adjacent coils with axial cooling channels formed along the slots ; a plurality of spaceblocks disposed between endwindings of the adjacent coils of the rotor winding for intercepting a circulating coolant flow through the axial cooling channels define at least a first cavity confined by the plurality of spaceblocks and mutually adjacent coils ; and wherein the plurality of spaceblocks each include a channel disposed in a coil facing surface of the spaceblock for redirecting the circulating coolant flow through the channel to the first cavity , characterized in that coolant is redirected from the first cavity to the first cavity at a different location by means of the channel projecting in a bended manner in the coil facing surface ; further comprising at least one flow deflector structure disposed on at least one cavity facing surface of the spaceblock for intercepting and redirecting circulating coolant flow in the first cavity towards a central region of the first cavity .
A method for detecting the presence and/or concentration of a target peptide or protein analyte in a sample, comprising the steps of: (a) combining, either simultaneously or wholly or partially sequentially: a sample suspected of containing the target peptide or protein analyte; at least one dye capable of binding to the target peptide or protein analyte, wherein an absorption band of the at least one dye shifts upon binding to the target peptide or protein analyte; and at least one immunoassay reagent capable of specifically binding to the target peptide or protein analyte and capable of directly or indirectly generating a signal upon binding to the target peptide or protein analyte; (b) allowing the binding of and to target peptide or protein analyte present in ; (c) determining the presence and/or concentration of the target peptide or protein analyte by detecting: (i) the signal generated by the immunoassay reagent; and (ii) the absorption band of the at least one dye; wherein the at least one dye is a pH indicator, selected from the group comprising thymol blue, phenolphthalein, Universal pH Indicator, Coomassie Protein Assay reagent, 660 nm Protein Assay Reagent, and combinations thereof. (a) combining, either simultaneously or wholly or partially sequentially: a sample suspected of containing the target peptide or protein analyte; at least one dye capable of binding to the target peptide or protein analyte, wherein an absorption band of the at least one dye shifts upon binding to the target peptide or protein analyte; and at least one immunoassay reagent capable of specifically binding to the target peptide or protein analyte and capable of directly or indirectly generating a signal upon binding to the target peptide or protein analyte; a sample suspected of containing the target peptide or protein analyte; at least one dye capable of binding to the target peptide or protein analyte, wherein an absorption band of the at least one dye shifts upon binding to the target peptide or protein analyte; and at least one immunoassay reagent capable of specifically binding to the target peptide or protein analyte and capable of directly or indirectly generating a signal upon binding to the target peptide or protein analyte; (b) allowing the binding of and to target peptide or protein analyte present in ; (c) determining the presence and/or concentration of the target peptide or protein analyte by detecting: (i) the signal generated by the immunoassay reagent; and (ii) the absorption band of the at least one dye; (i) the signal generated by the immunoassay reagent; and (ii) the absorption band of the at least one dye;
An organic light-emitting display device, comprising: a substrate ; and a pixel (P) in a display area (DA) of the organic light-emitting display device, wherein the pixel (P) is implemented by an organic light-emitting diode (OLED) on the substrate characterized by a first inclination structure surrounding the pixel (P); a second inclination structure (5 10b) at least partially surrounding the first inclination structure ; and a planarization layer covering the first inclination structure and the second inclination structure (5 10b) and having a refractive index that is greater than a refractive index of the first inclination structure and is greater than a refractive index of the second inclination structure (5 10b), wherein a height of the first inclination structure is greater than a height of the second inclination structure (5 10b). a substrate ; and a pixel (P) in a display area (DA) of the organic light-emitting display device, wherein the pixel (P) is implemented by an organic light-emitting diode (OLED) on the substrate characterized by a first inclination structure surrounding the pixel (P); a second inclination structure (5 10b) at least partially surrounding the first inclination structure ; and a planarization layer covering the first inclination structure and the second inclination structure (5 10b) and having a refractive index that is greater than a refractive index of the first inclination structure and is greater than a refractive index of the second inclination structure (5 10b), wherein a height of the first inclination structure is greater than a height of the second inclination structure (5 10b).
A method performed by a first radio access network, RAN, node, eNB1, which is part of a wireless communication system, the method comprising: receiving vehicle-to-everything, V2X, information from a vehicle user equipment, UE; transmitting (S100) a first indication indicating support of V2X function of eNB1 to a second RAN node, eNB2; and receiving (S110) a second indication from eNB2 indicating that eNB2 supports V2X function when eNB2 supports the V2X function; and forwarding the V2X information to eNB2 based on the second indication, wherein the V2X information includes at least one of traffic information, accident information and alarming related to V2X service. receiving vehicle-to-everything, V2X, information from a vehicle user equipment, UE; transmitting (S100) a first indication indicating support of V2X function of eNB1 to a second RAN node, eNB2; and receiving (S110) a second indication from eNB2 indicating that eNB2 supports V2X function when eNB2 supports the V2X function; and forwarding the V2X information to eNB2 based on the second indication, wherein the V2X information includes at least one of traffic information, accident information and alarming related to V2X service.
A method of manufacturing a component carrier , wherein the method comprises the following steps: a) providing a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure , wherein the stack has a through-hole for accommodating a component ; b) connecting a sheet with nano- and/or microstructures on a sheet surface , as at least a part of a temporary carrier, with the stack for delimiting a cavity together with the through hole ; c) accommodating the component in the cavity ; d) interconnecting at least one further electrically insulating layer structure and at least one further electrically conductive layer structure with the stack and the component in the cavity by lamination, wherein the lamination includes applying heat and/or pressure such that at least partially uncured material of part or all of the further electrically insulating layer structures re-melts, undergoes cross-linking and then resolidifies; and e) subsequently removing the temporary carrier from the stack and the component , wherein the sheet is used as dry adhesive such that the sheet as at least the part of the temporary carrier can be re-used for supporting components and defining cavities in terms of component embedding. a) providing a stack comprising at least one electrically conductive layer structure and/or at least one electrically insulating layer structure , wherein the stack has a through-hole for accommodating a component ; b) connecting a sheet with nano- and/or microstructures on a sheet surface , as at least a part of a temporary carrier, with the stack for delimiting a cavity together with the through hole ; c) accommodating the component in the cavity ; d) interconnecting at least one further electrically insulating layer structure and at least one further electrically conductive layer structure with the stack and the component in the cavity by lamination, wherein the lamination includes applying heat and/or pressure such that at least partially uncured material of part or all of the further electrically insulating layer structures re-melts, undergoes cross-linking and then resolidifies; and e) subsequently removing the temporary carrier from the stack and the component , wherein the sheet is used as dry adhesive such that the sheet as at least the part of the temporary carrier can be re-used for supporting components and defining cavities in terms of component embedding.
A Factor Xa variant comprising a substitution at the amino acid corresponding to position 235 in SEQ ID NO:1 selected from the group of amino acids consisting of: Thr or Leu, or a pharmaceutical composition thereof, for use in reducing or preventing bleeding in a subject being treated with a direct Factor Xa inhibitor.
An electric oil pump that includes: an oil pump ; an electric motor that shares a rotary shaft with the oil pump , wherein a housing of the oil pump and a stator of the electric motor are fastened to each other with a screw via a resin member arranged between the oil pump and the electric motor , a coil wound at a stator core of the electric motor and a wire connection member connected to the coil being integrally molded to the resin member , characterized in that , a retaining member that restricts fastening force between the housing of the oil pump and the stator of the electric motor is inserted in a through-hole formed in the resin member , wherein the retaining member has an axial length that is longer than the through-hole formed in the resin member . an oil pump ; an electric motor that shares a rotary shaft with the oil pump , wherein a housing of the oil pump and a stator of the electric motor are fastened to each other with a screw via a resin member arranged between the oil pump and the electric motor , a coil wound at a stator core of the electric motor and a wire connection member connected to the coil being integrally molded to the resin member , characterized in that , a retaining member that restricts fastening force between the housing of the oil pump and the stator of the electric motor is inserted in a through-hole formed in the resin member , wherein the retaining member has an axial length that is longer than the through-hole formed in the resin member .
Holding assembly for fixing a flange part , which is provided on a braking device , to a bulkhead of a motor vehicle, said bulkhead separating an engine compartment from a vehicle interior, wherein a holding plate is fastened to the side of the bulkhead facing the engine compartment, said holding plate having a positive connection which is in engagement with the flange part , characterized in that the holding plate is shaped asymmetrically for receiving two holding screws and a final fixing screw , wherein a non-positive connection having the final fixing screw is provided diametrically to the positive connection on the holding plate , said non-positive connection being in engagement with the flange part , in that the outer periphery of the holding plate is defined by a peripheral frame , which is produced as a hook , by plastic deformation of the holding plate , to form the positive connection , a radial projection provided on the outer periphery of the asymmetrically shaped flange part being in engagement therewith, and in that for the accurate alignment of the flange part on the holding plate , the frame has a supporting edge which is provided below the hook and, after the insertion of the flange part into the frame , is brought into contact with a further, tongue-shaped projection provided on the outer periphery of the flange part , as soon as the flange part above the projection is tilted behind the hook with its projection facing the hook .
A method for starting up a fuel cell system from a starting temperature below 0 °C, the system comprising a fuel cell stack comprising a series stack of solid polymer electrolyte fuel cells, the cathodes in the fuel cells comprising an oxygen reduction reaction (ORR) catalyst, the anodes in the fuel cells comprising an hydrogen oxidation reaction (HOR) catalyst and an oxygen evolution reaction (OER) catalyst wherein the OER catalyst is different from the HOR catalyst, and the fuel cell stack characterized by a maximum output OER/ORR current density wherein the maximum OER/ORR current density is the maximum current density output from the fuel cell stack when operating without a supply of fuel and is a function of fuel cell temperature and relative humidity in the fuel cells, the method comprising: from the beginning of the starting up until the fuel cell temperature reaches 0 °C, drawing a current from the fuel cell stack such that the current density drawn is less than the maximum OER/ORR current density at the fuel cell temperature and at maximum water content wherein the maximum OER/ORR current density is the current density drawn that results in an average fuel cell voltage of -2.2 V that essentially avoids substantial carbon corrosion in the anode.
A battery module comprising: a battery cell stack including a plurality of battery cells stacked parallel to one another; and a heating/cooling composite fin interposed between adjacent ones of the plurality of battery cells , wherein the heating/cooling composite fin comprises: a compressive pad positioned between the adjacent battery cells ; a plurality of cooling fins each positioned between the compressive pad and a respective one of the adjacent battery cells ; and a plurality of heating films each positioned between the compressive pad and a respective one of the plurality of cooling fins , wherein the cooling fins are made of a high thermally conductive material, and wherein each of the plurality of heating films comprises a heating element configured to be connected to an external power source. a battery cell stack including a plurality of battery cells stacked parallel to one another; and a heating/cooling composite fin interposed between adjacent ones of the plurality of battery cells , wherein the heating/cooling composite fin comprises: a compressive pad positioned between the adjacent battery cells ; a plurality of cooling fins each positioned between the compressive pad and a respective one of the adjacent battery cells ; and a plurality of heating films each positioned between the compressive pad and a respective one of the plurality of cooling fins , wherein the cooling fins are made of a high thermally conductive material, and wherein each of the plurality of heating films comprises a heating element configured to be connected to an external power source.
A motor control apparatus configured to control driving of an electric motor for steering angle control, the motor control apparatus comprising a steering angle calculation apparatus comprising an electronic control unit configured to calculate a steering angle (θ mdac ) based on a torque (T tb ) caused by a driver and at least one of vehicle information (V, yr, la), surrounding environment information (e), and driver information (d), wherein the electronic control unit is further configured to: generate a manual steering command value (θ mdac ), calculate an integrated angle command value (θ acmd ) by adding the manual steering command value to an automatic steering angle command value (θ adac ), and perform angle control for the electric motor based on the integrated angle command value, and the electronic control unit is configured to generate the steering angle as the manual steering command value. the electronic control unit is further configured to: generate a manual steering command value (θ mdac ), calculate an integrated angle command value (θ acmd ) by adding the manual steering command value to an automatic steering angle command value (θ adac ), and perform angle control for the electric motor based on the integrated angle command value, and generate a manual steering command value (θ mdac ), calculate an integrated angle command value (θ acmd ) by adding the manual steering command value to an automatic steering angle command value (θ adac ), and perform angle control for the electric motor based on the integrated angle command value, and the electronic control unit is configured to generate the steering angle as the manual steering command value.