mhurhangee/patent-ind-claim-en huggingface dataset:
An aqueous curable composition comprising: a. at least one water-soluble carbohydrate having a range of dextrose equivalents (DE) of from 4 to 40, being present in a weight percent on total composition binder solids from 50-97%; b. at least one polycarboxy emulsion copolymer, as a latex modifier, including, as copolymerized units, from 10-30% by weight based on the total weight of the emulsion copolymer solids, of a carboxy monomer bearing a carboxylic acid group, anhydride group, or salt therof or hydroxyl group; and c. at least one polyacid crosslinking agent which are polybasic carboxylic acids or aqueous solution addition polymers, each of which contains at least two carboxylic acid groups, anhydride groups, or salts thereof; wherein the water-soluble carbohydrates are chosen from dextrins, maltodextrin and their combination. a. at least one water-soluble carbohydrate having a range of dextrose equivalents (DE) of from 4 to 40, being present in a weight percent on total composition binder solids from 50-97%; b. at least one polycarboxy emulsion copolymer, as a latex modifier, including, as copolymerized units, from 10-30% by weight based on the total weight of the emulsion copolymer solids, of a carboxy monomer bearing a carboxylic acid group, anhydride group, or salt therof or hydroxyl group; and c. at least one polyacid crosslinking agent which are polybasic carboxylic acids or aqueous solution addition polymers, each of which contains at least two carboxylic acid groups, anhydride groups, or salts thereof;
A method for processing a marine of an earth pressure tunnel-boring machine, the marine comprising excavated material and water, said method comprising the following steps: a) mixing the marine with a super absorbent polymer to obtain a processed marine, and b) separating the components of the processed marine to recover, on the one hand, a dry excavated material and, on the other hand, a swollen super absorbent polymer comprising water, characterised in that the super absorbent polymer comprises a carboxylic acid function, and the super absorbent polymer has a particle size which is greater than 1.5 mm and less than or equal to 10 mm. a) mixing the marine with a super absorbent polymer to obtain a processed marine, and b) separating the components of the processed marine to recover, on the one hand, a dry excavated material and, on the other hand, a swollen super absorbent polymer comprising water, the super absorbent polymer comprises a carboxylic acid function, and the super absorbent polymer has a particle size which is greater than 1.5 mm and less than or equal to 10 mm.
Device for filtering cut-off gases for an electrical current cut-off apparatus , the filtering device comprising: - a central porous body including longitudinal channels and transverse channels which place the longitudinal channels in fluidic communication with one another, the longitudinal channels having a curved shape; and - an impermeable outer skin which surrounds the central body and which has inlet orifices and outlet orifices , each longitudinal channel extending between an inlet orifice and an outlet orifice , the outer skin and the central body forming a rigid part in one piece which is made of metallic material. - a central porous body including longitudinal channels and transverse channels which place the longitudinal channels in fluidic communication with one another, the longitudinal channels having a curved shape; and - an impermeable outer skin which surrounds the central body and which has inlet orifices and outlet orifices , each longitudinal channel extending between an inlet orifice and an outlet orifice , the outer skin and the central body forming a rigid part in one piece which is made of metallic material.
A heterodimeric antibody comprising: a) a first monomer comprising SEQ ID NO: 124; b) a second monomer comprising SEQ ID NO: 125; and c) a light chain comprising SEQ ID NO: 126. a) a first monomer comprising SEQ ID NO: 124; b) a second monomer comprising SEQ ID NO: 125; and c) a light chain comprising SEQ ID NO: 126.
A power transmission device in an automatic transmission , the power transmission device comprising: a friction tightening element including a drum member having a bottomed cylindrical shape; and a transmission path constituent member (R3) coupled to a bottom of the drum member via a coupling part extending circumferentially along the drum member , and constituting part of a power transmission path of the automatic transmission , characterized in that the bottom of the drum member has low-rigidity parts that are provided at a plurality of circumferential positions on the drum member in respective portions radially outside and inside the coupling part , and that are configured to reduce vibration of the drum member , and the low-rigidity parts is configured as long holes extending circumferentially along the drum member and penetrating the bottom . a friction tightening element including a drum member having a bottomed cylindrical shape; and a transmission path constituent member (R3) coupled to a bottom of the drum member via a coupling part extending circumferentially along the drum member , and constituting part of a power transmission path of the automatic transmission , characterized in that the bottom of the drum member has low-rigidity parts that are provided at a plurality of circumferential positions on the drum member in respective portions radially outside and inside the coupling part , and that are configured to reduce vibration of the drum member , and the low-rigidity parts is configured as long holes extending circumferentially along the drum member and penetrating the bottom .
An inkjet ink including a) an aqueous medium; and b) capsules composed of a polymeric shell surrounding a core; wherein the capsules are dispersed in the aqueous medium using a dispersing group covalently bonded to the polymeric shell; wherein the core contains one or more chemical reactants capable of forming a reaction product upon application of heat and/or light; wherein the polymeric shell includes a polymer selected from the group consisting of polyureas, polyesters, polycarbonates, polyamides, and melamine based polymers and mixtures thereof; and wherein the capsules have an average particle size of no more than 4 μm as determined by dynamic laser diffraction. a) an aqueous medium; and b) capsules composed of a polymeric shell surrounding a core;
Method for treating an internal defect in a part made of a material, the method comprising the steps of: a) detecting and locating the internal defect in the part; b) defining, inside the part, at least one target volume (4; 4') which at least partially includes the defect; characterised in that : c) for each target volume (4; 4'), simultaneously irradiating the target volume by at least two beams which converge in the target volume and are continuous, whereby a treated area is obtained; wherein the energy applied to the target volume by each beam is less than a threshold energy for sintering the material, and the sum of the energies applied to the target volume by each one of the beams is greater than or equal to a transformation threshold energy, the transformation threshold energy corresponding to the threshold energy for sintering the material, when it is desired to obtain a selective sintering of the material in the target volume, or to the threshold energy for melting the material, when it is desired to obtain a selective melting of the material in the target volume, and wherein the material of the part is partially transparent to said at least two beams. a) detecting and locating the internal defect in the part; b) defining, inside the part, at least one target volume (4; 4') which at least partially includes the defect; characterised in that : c) for each target volume (4; 4'), simultaneously irradiating the target volume by at least two beams which converge in the target volume and are continuous, whereby a treated area is obtained; wherein the energy applied to the target volume by each beam is less than a threshold energy for sintering the material, and the sum of the energies applied to the target volume by each one of the beams is greater than or equal to a transformation threshold energy, the transformation threshold energy corresponding to the threshold energy for sintering the material, when it is desired to obtain a selective sintering of the material in the target volume, or to the threshold energy for melting the material, when it is desired to obtain a selective melting of the material in the target volume, and wherein the material of the part is partially transparent to said at least two beams.
A computerized system comprising: a head-mounted display (HMD) device ; an interaction-sensing (IS) device ; one or more processors; and computer storage memory having computer-executable instructions stored thereon which, when executed by the one or more processors, implement a method comprising: establishing, by the HMD device , a communication session with the IS device , wherein the HMD device displays, to a user, a field of view (FOV) that includes a virtualized object, wherein the IS device is separate from the HMD device and is configured to detect user-interactions including a user extremity position relative to the IS device; receiving from the IS device, via the established communication session, interaction data generated in response to a detected motion of the user extremity along one or more surfaces of a physical object, wherein the motion is relative to the IS device; modifying the virtualized object included in the FOV based on a determined shape of the physical object, wherein the shape is determined by the IS device or the HMD device based on at least a portion of the received interaction data that encodes the detected motion of the user extremity. a head-mounted display (HMD) device ; an interaction-sensing (IS) device ; one or more processors; and computer storage memory having computer-executable instructions stored thereon which, when executed by the one or more processors, implement a method comprising: establishing, by the HMD device , a communication session with the IS device , wherein the HMD device displays, to a user, a field of view (FOV) that includes a virtualized object, wherein the IS device is separate from the HMD device and is configured to detect user-interactions including a user extremity position relative to the IS device; receiving from the IS device, via the established communication session, interaction data generated in response to a detected motion of the user extremity along one or more surfaces of a physical object, wherein the motion is relative to the IS device; modifying the virtualized object included in the FOV based on a determined shape of the physical object, wherein the shape is determined by the IS device or the HMD device based on at least a portion of the received interaction data that encodes the detected motion of the user extremity. receiving from the IS device, via the established communication session, interaction data generated in response to a detected motion of the user extremity along one or more surfaces of a physical object, wherein the motion is relative to the IS device; modifying the virtualized object included in the FOV based on a determined shape of the physical object, wherein the shape is determined by the IS device or the HMD device based on at least a portion of the received interaction data that encodes the detected motion of the user extremity.
A method for determining interaction kinetics for an analyte, comprising a) during an association phase contacting a sample solution containing said analyte with immobilized ligand, or analogue thereof, immobilized on a sensing surface of an optical sensor; b) during a dissociation phase replacing the sample solution with a buffer; c) monitoring the binding of said analyte in said sample solution to the immobilized ligand or analogue to provide response data for said interaction kinetics, wherein the binding is measured as a resulting change in a property of said surface indicative of at least the association phase and the dissociation phase between the ligand or analogue thereof and the analyte; and d) automatically determining said interaction kinetics, characterized in that the determining step includes using the response data deriving from said change in a property to first define a part of the response data that represents a dissociation phase and that contains kinetic information for fitting association rate and dissociation rate constants for a molecular interaction using a binding model excluding response data that represents the part of the dissociation phase that follows complete dissociation back to a baseline. a) during an association phase contacting a sample solution containing said analyte with immobilized ligand, or analogue thereof, immobilized on a sensing surface of an optical sensor; b) during a dissociation phase replacing the sample solution with a buffer; c) monitoring the binding of said analyte in said sample solution to the immobilized ligand or analogue to provide response data for said interaction kinetics, wherein the binding is measured as a resulting change in a property of said surface indicative of at least the association phase and the dissociation phase between the ligand or analogue thereof and the analyte; and d) automatically determining said interaction kinetics, characterized in that the determining step includes using the response data deriving from said change in a property to first define a part of the response data that represents a dissociation phase and that contains kinetic information for fitting association rate and dissociation rate constants for a molecular interaction using a binding model excluding response data that represents the part of the dissociation phase that follows complete dissociation back to a baseline.
An engine, comprising: a starter motor; a pinion unit coupled to an output-shaft side of the starter motor by means of a spline, for sliding in an axial direction; a push-out mechanism for moving the pinion unit to an engaging position with a ring gear ; the ring gear being adapted to mesh with a pinion of the pinion unit pushed out by the push-out mechanism , and to receive a transmission of a rotation force of the starter motor to thereby start an engine, wherein the pinion unit includes a pinion gear divided in the axial direction into two pinion gears which are a first pinion gear having a protruding shape for synchronization, for first colliding with the ring gear upon start of meshing with the ring gear , and a second pinion gear for serving to transmit the rotation force after the meshing, wherein the first pinion gear has a configuration for moving in the axial direction independently of the pinion unit , wherein the second pinion gear is positioned on a shaft of the pinion unit via the first pinion gear , in the axial direction of the pinion unit , by being pressed in a push-out direction by a spring, and is movable in the axial direction as a result of contraction of the spring, and wherein the first pinion gear has a backlash in a rotation direction with respect to a shaft of the pinion unit , and wherein a range in which the first pinion gear is operable as a result of the backlash in the rotation direction is a range in which, after the second pinion gear meshes with the ring gear , a rotation torque force by the first pinion gear is not transmitted to the ring gear . a starter motor; a pinion unit coupled to an output-shaft side of the starter motor by means of a spline, for sliding in an axial direction; a push-out mechanism for moving the pinion unit to an engaging position with a ring gear ; the ring gear being adapted to mesh with a pinion of the pinion unit pushed out by the push-out mechanism , and to receive a transmission of a rotation force of the starter motor to thereby start an engine, wherein the pinion unit includes a pinion gear divided in the axial direction into two pinion gears which are a first pinion gear having a protruding shape for synchronization, for first colliding with the ring gear upon start of meshing with the ring gear , and a second pinion gear for serving to transmit the rotation force after the meshing, wherein the first pinion gear has a configuration for moving in the axial direction independently of the pinion unit , wherein the second pinion gear is positioned on a shaft of the pinion unit via the first pinion gear , in the axial direction of the pinion unit , by being pressed in a push-out direction by a spring, and is movable in the axial direction as a result of contraction of the spring, and wherein the first pinion gear has a backlash in a rotation direction with respect to a shaft of the pinion unit , and wherein a range in which the first pinion gear is operable as a result of the backlash in the rotation direction is a range in which, after the second pinion gear meshes with the ring gear , a rotation torque force by the first pinion gear is not transmitted to the ring gear .
Method for determining a driving maneuver of a vehicle by means of a control unit , wherein - measurement data relating to a traffic situation are received from at least one sensor , characterized in that - a current detection area of the at least one sensor is determined by evaluating the received measurement data, - a sensor model is created on the basis of the received measurement data and an estimated detection area of the at least one sensor is modelled from the received measurement data through forward simulation based on a vehicle position of the vehicle , - the created sensor model is used to determine a change in the detection area of the at least one sensor due to at least one driving maneuver, - a driving maneuver is determined which causes an increase in the simulated detection area due to the sensor model. - measurement data relating to a traffic situation are received from at least one sensor , characterized in that - a current detection area of the at least one sensor is determined by evaluating the received measurement data, - a sensor model is created on the basis of the received measurement data and an estimated detection area of the at least one sensor is modelled from the received measurement data through forward simulation based on a vehicle position of the vehicle , - the created sensor model is used to determine a change in the detection area of the at least one sensor due to at least one driving maneuver, - a driving maneuver is determined which causes an increase in the simulated detection area due to the sensor model.
A trans-anal irrigation device having a spool valve , comprising: a pump ; an irrigation fluid reservoir in fluid communication with the pump ; a rectal catheter having a retention balloon and an irrigant passage through the rectal catheter ; fluid tubing having at least two lumens, a first lumen providing fluid communication between the pump and the retention balloon , and a second lumen providing fluid communication between the pump and the irrigant passage; characterized by a hydraulic control circuit including a spool valve having a spool that is movable by an actuator ; the spool valve including a valve body having an elongated bore in which the spool is linearly movable by the actuator to at least three hydraulic positions, and a plurality of ports (154a-154g) spaced apart along and in fluid communication with the elongated bore ; the spool further comprising a plurality of lands (158a-158c) separated by a plurality of grooves , the lands (158a-158c) extending radially outward from a central stem of the spool ; the spool further comprising seals (164a-164h) extending outward from the lands (158a-158c) and sealingly engaging the elongated bore of the valve body ; and the plurality of ports (154a-154g) and plurality of seals (164a-164h) and grooves arranged for selectively directing flow alternatively from the reservoir to the retention balloon , from the reservoir to the irrigant passage, or from the retention balloon to the reservoir , based on the position of the spool within the valve body . a pump ; an irrigation fluid reservoir in fluid communication with the pump ; a rectal catheter having a retention balloon and an irrigant passage through the rectal catheter ; fluid tubing having at least two lumens, a first lumen providing fluid communication between the pump and the retention balloon , and a second lumen providing fluid communication between the pump and the irrigant passage; characterized by a hydraulic control circuit including a spool valve having a spool that is movable by an actuator ; the spool valve including a valve body having an elongated bore in which the spool is linearly movable by the actuator to at least three hydraulic positions, and a plurality of ports (154a-154g) spaced apart along and in fluid communication with the elongated bore ; the spool further comprising a plurality of lands (158a-158c) separated by a plurality of grooves , the lands (158a-158c) extending radially outward from a central stem of the spool ; the spool further comprising seals (164a-164h) extending outward from the lands (158a-158c) and sealingly engaging the elongated bore of the valve body ; and the plurality of ports (154a-154g) and plurality of seals (164a-164h) and grooves arranged for selectively directing flow alternatively from the reservoir to the retention balloon , from the reservoir to the irrigant passage, or from the retention balloon to the reservoir , based on the position of the spool within the valve body .
A brake system (10, 10', 10") for a utility vehicle, in particular a hydraulic and/or pneumatic brake system (10, 10', 10") for a utility vehicle, having at least one parking brake device (12, 12', 12") and at least one further hydraulic and/or pneumatic module (14, 14', 14"), there also being provided a select-high valve (20, 20', 20") and a spring brake cylinder (22, 22', 22"), the parking brake device (12, 12', 12") being connected to the select-high valve (20, 20', 20") at a first input port (20a, 20a', 20a") by a first connecting line (24, 24', 24"), it being possible to connect the hydraulic and/or pneumatic module (14, 14', 14") to the select-high valve (20, 20', 20") at a second input port (20b, 20b', 20b") by a second connecting line (26, 26', 26"), the spring brake cylinder (22, 22', 22") being connected to the select-high valve (20, 20', 20") at an output port (20c, 20c', 20c") by a third connecting line (30, 30', 30"), and there being provided in the second connecting line (26, 26', 26") a control valve (18, 18', 18") by means of which the hydraulic and/or pneumatic module (14, 14', 14") is not connected to the select-high valve (20, 20', 20") in a first switching state of the control valve (18, 18', 18") and is connected to the select-high valve (20, 20', 20") in an at least second switching state of the control valve (18, 18', 18"), the brake system (10, 10', 10") being constituted and configured in such a way that the spring brake cylinder (22, 22', 22") can be vented via two redundant connected lines, each connected to different pressure medium sources, and via the select-high valve (20, 20', 20") such that section of the second connecting line between the control valve (18, 18', 18") and the select-high valve (20, 20', 20") can also be vented while the utility vehicle is driving operation.
A dental imaging system , comprising: an electronic camera for capturing a digital image of a luminescence region comprising a monochrome filter , a bandpass filter or a polarisation filter ; and data glasses for displaying the captured image on top of a visually perceived image; an electronic control which can purposefully adjust or influence the optical properties of the respective filter by using a voltage. an electronic camera for capturing a digital image of a luminescence region comprising a monochrome filter , a bandpass filter or a polarisation filter ; and data glasses for displaying the captured image on top of a visually perceived image; an electronic control which can purposefully adjust or influence the optical properties of the respective filter by using a voltage.