mhurhangee/ep-ind-claims huggingface dataset:
A composite material comprising: a hydrophilic polyurethane foam material comprising a first polyurethane polymer; a hydrophilic fiber material comprising a second polymer, wherein said second polymer is not a polyurethane polymer; wherein said fiber material is capable of absorbing and retaining a fluid, wherein said hydrophilic polyurethane foam material is, or is comprised in, a foam layer, and said hydrophilic fiber material is, or is comprised in, a fiber layer, wherein the thickness of said foam layer and/or said fiber layer, independently, is at least 100 μm, wherein said first polyurethane polymer is covalently bonded to said second polymer, and wherein said first polymer is covalently bonded to said second polymer by at least one urethane linkage or at least one urea linkage, wherein said urethane linkage or said urea linkage derives from a reaction between at least one hydroxyl group or at least one amine group, respectively, of said second polymer of said hydrophilic fiber material and at least one isocyanate group of a prepolymer as used to obtain said first polyurethane polymer of said hydrophilic polyurethane foam material. a hydrophilic polyurethane foam material comprising a first polyurethane polymer; a hydrophilic fiber material comprising a second polymer, wherein said second polymer is not a polyurethane polymer; wherein said fiber material is capable of absorbing and retaining a fluid, wherein said hydrophilic polyurethane foam material is, or is comprised in, a foam layer, and said hydrophilic fiber material is, or is comprised in, a fiber layer, wherein the thickness of said foam layer and/or said fiber layer, independently, is at least 100 μm, wherein said first polyurethane polymer is covalently bonded to said second polymer, and wherein said first polymer is covalently bonded to said second polymer by at least one urethane linkage or at least one urea linkage, wherein said urethane linkage or said urea linkage derives from a reaction between at least one hydroxyl group or at least one amine group, respectively, of said second polymer of said hydrophilic fiber material and at least one isocyanate group of a prepolymer as used to obtain said first polyurethane polymer of said hydrophilic polyurethane foam material.
A wall of a component of a gas turbine engine, the wall comprising: first and second wall surfaces (102, 104); an inlet located at the first wall surface; an outlet located at the second wall surface; a metering section commencing at the inlet and extending downstream from the inlet; a diffusing section extending from the metering section and terminating at the outlet, the diffusing section comprising: a first lobe diverging longitudinally and laterally from the metering section; a second lobe adjacent the first lobe and diverging longitudinally from the metering section; a third lobe adjacent the second lobe and diverging longitudinally and laterally from the metering section; and a transition region having an end adjacent the outlet and a portion (162, 164, 168) that extends between the lobes (124, 126, 128) and the outlet; characterised in that the second lobe comprises a curved bottom portion. first and second wall surfaces (102, 104); an inlet located at the first wall surface; an outlet located at the second wall surface; a metering section commencing at the inlet and extending downstream from the inlet; a diffusing section extending from the metering section and terminating at the outlet, the diffusing section comprising: a first lobe diverging longitudinally and laterally from the metering section; a second lobe adjacent the first lobe and diverging longitudinally from the metering section; a third lobe adjacent the second lobe and diverging longitudinally and laterally from the metering section; and a transition region having an end adjacent the outlet and a portion (162, 164, 168) that extends between the lobes (124, 126, 128) and the outlet; characterised in that the second lobe comprises a curved bottom portion. a first lobe diverging longitudinally and laterally from the metering section; a second lobe adjacent the first lobe and diverging longitudinally from the metering section; a third lobe adjacent the second lobe and diverging longitudinally and laterally from the metering section; and a transition region having an end adjacent the outlet and a portion (162, 164, 168) that extends between the lobes (124, 126, 128) and the outlet; characterised in that the second lobe comprises a curved bottom portion.
A radiating surface structure, in particular a ceiling radiating surface structure, with tubes and/or a tube register for guiding a heating and/or cooling medium, with a radiating panel providing a radiating surface and with a skirt (3, 4), wherein the skirt (3, 4) is laterally associated with the radiating panel in such a manner that it limits the convection of air over a side edge of the radiating panel, the skirt (3, 4) and the radiating panel being thermally conductively connected to one another, characterized in that a downwardly or inwardly facing radiating surface (16a, 16b, 17a, 17b) of the skirt (3, 4) has an emissivity (ε) between 0.9 and 1.
A turbocharger sound damper having at least a first housing part, which first housing part surrounds on the outside at least a first resonator chamber, wherein the first housing part has an outer jacket surrounding a central longitudinal axis in a sleeve-like manner, wherein the outer jacket of the first housing part has surface contouring in the form of depressions or raised areas introduced into a cylindrical jacket surface of the outer jacket, wherein the wall thickness of the outer jacket is substantially of equal size in a contoured region of the outer jacket as the wall thickness in a non-contoured region, wherein the surface contouring is configured in the form of crimps introduced into the outer jacket, wherein the turbocharger sound damper comprises two housing parts (2, 3) with surface contouring of this kind and a resonator inner element, wherein two resonator chambers are configured which are each delimited by the resonator inner element and one of the two housing parts (2, 3), wherein the two housing parts (2, 3) are connected to one another in a connection region.
A medical device for determining an atrial fibrillation event, comprising: a sensor (317, 321, 326, 324) sensing a cardiac signal; and a processor configured to detect a plurality of sensed ventricular events in the sensed cardiac signal, determine a plurality of sensed event windows, each of the plurality of sensed event windows including a predetermined number of the sensed ventricular events, determine, for each of the plurality of sensed event windows, whether a number of sensed ventricular events corresponding to paced events is less than a paced event threshold, determine whether RR intervals within the sensed event windows having a number of sensed ventricular events corresponding to paced events less than the paced event threshold are greater than an interval threshold, determine RR interval differences for each of the plurality of sensed event windows in which each of the RR intervals are greater than the interval threshold, and detecting an atrial fibrillation event based on the RR interval differences for each of the plurality of sensed event windows in which each of the RR intervals are greater than the interval threshold. a sensor (317, 321, 326, 324) sensing a cardiac signal; and a processor configured to detect a plurality of sensed ventricular events in the sensed cardiac signal, determine a plurality of sensed event windows, each of the plurality of sensed event windows including a predetermined number of the sensed ventricular events, determine, for each of the plurality of sensed event windows, whether a number of sensed ventricular events corresponding to paced events is less than a paced event threshold, determine whether RR intervals within the sensed event windows having a number of sensed ventricular events corresponding to paced events less than the paced event threshold are greater than an interval threshold, determine RR interval differences for each of the plurality of sensed event windows in which each of the RR intervals are greater than the interval threshold, and detecting an atrial fibrillation event based on the RR interval differences for each of the plurality of sensed event windows in which each of the RR intervals are greater than the interval threshold.
A method for sterilising an object, wherein the object comprises a first opening (110, 112, 114) and a second opening to an interior space to be sterilised, wherein in the method: the first opening (110, 112, 114) is connected to a supply line (80, 82, 84) for sterilising agent and the second opening is connected to a discharge line for sterilising agent, the sterilising agent, which contains hydrogen peroxide or consists of hydrogen peroxide, is conveyed through the supply line (80, 82, 84) into the interior space and through the interior space and exits the interior space through the discharge line, and the hydrogen peroxide is introduced into the object in vapour form, characterised in that the first opening (110, 112, 114) and the second opening are sealed in a germ-tight manner after completion of the sterilisation method, wherein the germ-tight sealing is carried out by closing, under sterile conditions, closure means attached to the object, which closure means form a part of the first opening (110, 112, 114) and of the second opening during the sterilisation method, wherein the object to be sterilised is a medical tubing set, more particularly a blood tubing system, wherein for the sterilisation method, the object is introduced into a vacuum-proof receiving chamber and wherein the method is carried out at least partially under vacuum. the first opening (110, 112, 114) is connected to a supply line (80, 82, 84) for sterilising agent and the second opening is connected to a discharge line for sterilising agent, the sterilising agent, which contains hydrogen peroxide or consists of hydrogen peroxide, is conveyed through the supply line (80, 82, 84) into the interior space and through the interior space and exits the interior space through the discharge line, and the hydrogen peroxide is introduced into the object in vapour form, characterised in that the first opening (110, 112, 114) and the second opening are sealed in a germ-tight manner after completion of the sterilisation method, wherein the germ-tight sealing is carried out by closing, under sterile conditions, closure means attached to the object, which closure means form a part of the first opening (110, 112, 114) and of the second opening during the sterilisation method, wherein the object to be sterilised is a medical tubing set, more particularly a blood tubing system, wherein for the sterilisation method, the object is introduced into a vacuum-proof receiving chamber and wherein the method is carried out at least partially under vacuum. wherein the object to be sterilised is a medical tubing set, more particularly a blood tubing system, wherein for the sterilisation method, the object is introduced into a vacuum-proof receiving chamber and wherein the method is carried out at least partially under vacuum.
An isolated aminoacyl-tRNA synthetase (AARS) polypeptide that (i) is identical to SEQ ID NO:34 or differs from SEQ ID NO:34 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-6 release; or (ii) is identical to SEQ ID NO:36 or differs from SEQ ID NO:36 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-8 release. (i) is identical to SEQ ID NO:34 or differs from SEQ ID NO:34 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-6 release; or (ii) is identical to SEQ ID NO:36 or differs from SEQ ID NO:36 by substitution, deletion, and/or addition of 1, 2, 3, 4, 5, 6, 7, 8, 9, 10, or 11 amino acids, wherein the polypeptide has an extracellular signaling activity selected from modulation of acetylated LDL uptake and modulation of IL-8 release.
A method for handling multiple resource conflicts, comprising: in response to that a media access control, MAC, entity is configured with a target priority comparison manner, the target priority comparison manner comprising a comparison of priority based on a logical channel or based on a physical channel, for each uplink grant: performing a comparison between a priority of the uplink grant and a priority of a compared resource, wherein the compared resource is a resource that overlaps or partially overlaps or has a transmission conflict with the uplink grant, and that is not or is not yet a de-prioritized uplink resource. in response to that a media access control, MAC, entity is configured with a target priority comparison manner, the target priority comparison manner comprising a comparison of priority based on a logical channel or based on a physical channel, for each uplink grant: performing a comparison between a priority of the uplink grant and a priority of a compared resource, wherein the compared resource is a resource that overlaps or partially overlaps or has a transmission conflict with the uplink grant, and that is not or is not yet a de-prioritized uplink resource.
A system for treating tissue with light, said system comprising: a laser including a pumping system and configured to provide a pulsed light output and a digital controller for the laser, wherein the digital controller is configured to implement a user interface which permits a user to select at least two of: (a) a total energy to be applied to the tissue, (b) a duration of the application of light to the tissue, and (c) a desired average power level to be applied to the tissue, and wherein the digital controller is configured to control the laser's light output to achieve the conditions (a), (b), or (c) specified by the user; wherein the laser device is selectable through the controller to control the laser device output to produce an ablative pulsed laser output and a non-ablative heating output; wherein the controller is configured to repeatedly turn the power in the laser's pumping system between on and off states, during a single light pulse, so that the power in the laser's pumping system is activated for a period of time to produce power sufficient to produce a peak optical power output to cause ablation followed by a periodic turning on and off of the power in the laser's pumping system to provide an optical power oscillating around an optical power level substantially lower than the peak optical power to cause non-ablative heating. a laser including a pumping system and configured to provide a pulsed light output and a digital controller for the laser, wherein the digital controller is configured to implement a user interface which permits a user to select at least two of: (a) a total energy to be applied to the tissue, (b) a duration of the application of light to the tissue, and (c) a desired average power level to be applied to the tissue, and (a) a total energy to be applied to the tissue, (b) a duration of the application of light to the tissue, and (c) a desired average power level to be applied to the tissue, and wherein the digital controller is configured to control the laser's light output to achieve the conditions (a), (b), or (c) specified by the user; wherein the laser device is selectable through the controller to control the laser device output to produce an ablative pulsed laser output and a non-ablative heating output; wherein the controller is configured to repeatedly turn the power in the laser's pumping system between on and off states, during a single light pulse, so that the power in the laser's pumping system is activated for a period of time to produce power sufficient to produce a peak optical power output to cause ablation followed by a periodic turning on and off of the power in the laser's pumping system to provide an optical power oscillating around an optical power level substantially lower than the peak optical power to cause non-ablative heating.
Method for filling a paper bag with goods, characterized by provision of a paper bag comprising a main body, a first opening at one end of the main body for removing the goods, a flap connected to the main body which is designed to close the first opening by folding over, and a second opening is provided for introducing the goods into the main body which lies opposite the first opening, introduction of the goods via the second opening; shortening of the paper bag in the region of the second opening to reduce the volume of the paper bag, and closure of the second opening in the paper bag. a main body, a first opening at one end of the main body for removing the goods, a flap connected to the main body which is designed to close the first opening by folding over, and a second opening is provided for introducing the goods into the main body which lies opposite the first opening,
A suture device for a deep channel, comprising a casing and a suture assembly; wherein the suture assembly comprises a suture hooking rod, a puncture needle, a first push needle and a second push needle; wherein the suture hooking rod is of a hollow structure with two ends opened, a top end of the suture hooking rod is provided with a bending portion, the bending portion is inverted L-shaped, and a transverse portion of a top end of the bending portion is provided with a hole for the puncture needle to pass through; the puncture needle is of a hollow tubular structure with a top end opened, and a side of the puncture needle is further provided with a first opening; the puncture needle is arranged in the hollow structure of the suture hooking rod; the first push needle and the second push needle are both arranged in the hollow tubular structure of the puncture needle, the first push needle is configured to push the first suture rod, and the second push needle is configured to push the second suture rod. wherein the suture hooking rod is of a hollow structure with two ends opened, a top end of the suture hooking rod is provided with a bending portion, the bending portion is inverted L-shaped, and a transverse portion of a top end of the bending portion is provided with a hole for the puncture needle to pass through; the puncture needle is of a hollow tubular structure with a top end opened, and a side of the puncture needle is further provided with a first opening; the puncture needle is arranged in the hollow structure of the suture hooking rod; the first push needle and the second push needle are both arranged in the hollow tubular structure of the puncture needle, the first push needle is configured to push the first suture rod, and the second push needle is configured to push the second suture rod.
A laminated film, comprising: a resin substrate having a biaxially oriented polypropylene film; a deposited thin film layer containing a silicon oxide; and an underlayer containing an organic polymer as a main component, the organic polymer containing at least one of polyols, organosilane compounds, water-based polyurethane resins, and reaction products of the polyols and the organosilane compounds, and the underlayer being located between the resin substrate and the deposited thin film layer, wherein the laminated film is provided with a coating layer on a side opposite to the underlayer side of the deposited thin film layer, and the coating layer contains a water-soluble alcohol-based polymer, at least one of a silane coupling agent having an epoxy group as the organic functional group and a hydrolysate of the silane coupling agent, at least one of a metal alkoxide and a hydrolysate thereof, and an inorganic layered compound, wherein the at least one of a metal alkoxide and a hydrolysate thereof is tetraethoxysilane, triisopropoxy aluminium, or hydrolysates thereof. a resin substrate having a biaxially oriented polypropylene film; a deposited thin film layer containing a silicon oxide; and an underlayer containing an organic polymer as a main component, the organic polymer containing at least one of polyols, organosilane compounds, water-based polyurethane resins, and reaction products of the polyols and the organosilane compounds, and the underlayer being located between the resin substrate and the deposited thin film layer, wherein the laminated film is provided with a coating layer on a side opposite to the underlayer side of the deposited thin film layer, and the coating layer contains a water-soluble alcohol-based polymer, at least one of a silane coupling agent having an epoxy group as the organic functional group and a hydrolysate of the silane coupling agent, at least one of a metal alkoxide and a hydrolysate thereof, and an inorganic layered compound, wherein the at least one of a metal alkoxide and a hydrolysate thereof is tetraethoxysilane, triisopropoxy aluminium, or hydrolysates thereof.
A composite resin composition comprising: an aqueous dispersion medium; a resin particle emulsified in the aqueous dispersion medium; and a cellulose nanofiber dispersed in the aqueous dispersion medium, wherein the resin particle comprises at least one selected from the group consisting of a (meth)acrylic resin particle, a styrene-based resin particle, and a (meth)acrylonitrile-based resin particle, and when a sample obtained in such a way that a liquid obtained by diluting the composite resin composition with water in an amount that allows a non-volatile content of the composite resin composition to fall within a range of 0.01 to 0.1 % by mass is dropped onto a base material for measurement and is dried is observed with an atomic force microscope, a structure such that the cellulose nanofiber is dispersed, and the resin particles cling in the form of particles to the cellulose nanofiber is observed, wherein the cellulose nanofiber width is within a range of 1 to 1000 nm, and the cellulose nanofiber length is within a range of 0.1 to 500 μm, and wherein the composite resin composition is obtained by a method comprising a mixing step of bringing the resin emulsion, in which the at least one resin particle is emulsified in an aqueous dispersion medium, and the cellulose nanofiber into contact with each other under a condition of a temperature of 50°C or higher and 100°C or lower, thereby mixing the resin emulsion and the cellulose nanofiber. an aqueous dispersion medium; a resin particle emulsified in the aqueous dispersion medium; and a cellulose nanofiber dispersed in the aqueous dispersion medium, wherein the resin particle comprises at least one selected from the group consisting of a (meth)acrylic resin particle, a styrene-based resin particle, and a (meth)acrylonitrile-based resin particle, and when a sample obtained in such a way that a liquid obtained by diluting the composite resin composition with water in an amount that allows a non-volatile content of the composite resin composition to fall within a range of 0.01 to 0.1 % by mass is dropped onto a base material for measurement and is dried is observed with an atomic force microscope, a structure such that the cellulose nanofiber is dispersed, and the resin particles cling in the form of particles to the cellulose nanofiber is observed, wherein the cellulose nanofiber width is within a range of 1 to 1000 nm, and the cellulose nanofiber length is within a range of 0.1 to 500 μm, and wherein the composite resin composition is obtained by a method comprising a mixing step of bringing the resin emulsion, in which the at least one resin particle is emulsified in an aqueous dispersion medium, and the cellulose nanofiber into contact with each other under a condition of a temperature of 50°C or higher and 100°C or lower, thereby mixing the resin emulsion and the cellulose nanofiber.