mhurhangee/patent-ind-claim-en huggingface dataset:
Method for automatically assigning tyre modules to tyre positions of a vehicle , comprising at least the following steps, a) sensing whether at least one tyre module for measuring tyre conditions is present in a monitoring area; wherein the tyre module comprises at least one acceleration sensor for sensing radial acceleration values, b) determining whether the at least one sensed tyre module is unknown, c) evaluating data messages of the at least one sensed, unknown tyre module , wherein the data messages comprise at least items of information in relation to measured radial acceleration values of the tyre module in cases where the vehicle is driving around a bend, d) determining a first reference value of a statically radial acceleration value of an unknown tyre module in a case where the vehicle is driving around a bend, e) determining a second reference value of a statically radial acceleration value of a second unknown tyre module or of a second known tyre module in a case where the vehicle is driving around a bend, f) comparing the first reference value with the second reference value, wherein, in the case of a significant numerical difference between the two reference values, it is determined whether the unknown tyre module is fitted on a vehicle tyre of a left or a right vehicle side , wherein the tyre module with the smaller statically radial acceleration is assigned to a vehicle side on the inside of the bend, g) automatically assigning the at least one unknown tyre module to a specific tyre position on a left or right vehicle side of the vehicle. a) sensing whether at least one tyre module for measuring tyre conditions is present in a monitoring area; wherein the tyre module comprises at least one acceleration sensor for sensing radial acceleration values, b) determining whether the at least one sensed tyre module is unknown, c) evaluating data messages of the at least one sensed, unknown tyre module , wherein the data messages comprise at least items of information in relation to measured radial acceleration values of the tyre module in cases where the vehicle is driving around a bend, d) determining a first reference value of a statically radial acceleration value of an unknown tyre module in a case where the vehicle is driving around a bend, e) determining a second reference value of a statically radial acceleration value of a second unknown tyre module or of a second known tyre module in a case where the vehicle is driving around a bend, f) comparing the first reference value with the second reference value, wherein, in the case of a significant numerical difference between the two reference values, it is determined whether the unknown tyre module is fitted on a vehicle tyre of a left or a right vehicle side , wherein the tyre module with the smaller statically radial acceleration is assigned to a vehicle side on the inside of the bend, g) automatically assigning the at least one unknown tyre module to a specific tyre position on a left or right vehicle side of the vehicle.
An electrocardiogram (ECG) apparatus comprising: an input for receiving a biometric cardiogram signal of a patient; a compensation signal combiner for selectively producing a compensated biometric cardiogram signal of the biometric cardiogram signal of the patient; an analog to digital converter for providing a digitized version of the compensated biometric cardiogram signal to a digital processor ; the digital processor configured to produce an ECG reflective of the compensated biometric cardiogram signal and to output a digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to a digital to analog converter ; and the digital to analog converter configured to provide an analog version of the digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to the compensation signal combiner to compensate for low response of the biometric cardiogram signal of the patient to high frequency spikes whereby an ECG is produced by the digital processor having pacing signal contribution within the biometric cardiogram signal cancelled. an input for receiving a biometric cardiogram signal of a patient; a compensation signal combiner for selectively producing a compensated biometric cardiogram signal of the biometric cardiogram signal of the patient; an analog to digital converter for providing a digitized version of the compensated biometric cardiogram signal to a digital processor ; the digital processor configured to produce an ECG reflective of the compensated biometric cardiogram signal and to output a digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to a digital to analog converter ; and the digital to analog converter configured to provide an analog version of the digital signal corresponding to high frequency response of the digitized compensated biometric cardiogram signal to the compensation signal combiner to compensate for low response of the biometric cardiogram signal of the patient to high frequency spikes whereby an ECG is produced by the digital processor having pacing signal contribution within the biometric cardiogram signal cancelled.
A sheet-like material producing method comprising adding a polyurethane liquid containing a foaming agent and a thermosensitive coagulant to a fibrous base, wherein said polyurethane liquid is a water-dispersed and hydrophilic group-containing polyurethane liquid, the 100% modulus of a dry film formed from the polyurethane constituting said polyurethane liquid measured in accordance with Method A (Strip Method) described in "Tensile Test Machine" JIS-L1096-8.12.1 being 3 - 8 MPa, wherein the hydrophilic group include quaternary amine salt, sulfonate, carboxylate, or polyethylene glycol, wherein said polyurethane liquid has thermosensitive coagulability, and wherein the foaming temperature of said foaming agent is higher than the thermosensitive coagulation temperature of said polyurethane liquid.
A method of a user equipment to send feedback information to a base station, the base station comprising antenna ports divided into antenna port groups, the method comprising: receiving a Channel Status Indication Reference Signal, CSI-RS, from the base station; selecting a precoding matrix for each antenna port group of the base station based on the received CSI-RS; determining an additional precoding matrix to maximize a signal-to-noise ratio, SNR, of a signal transmitted using a first channel, wherein the first channel is based on a second channel and the additional precoding matrix, and the second channel corresponds to precoding matrixes selected respectively for the antenna port groups; generating feedback information comprising the selected precoding matrixes and the additional precoding matrix; and transmitting the generated feedback information to the base station. receiving a Channel Status Indication Reference Signal, CSI-RS, from the base station; selecting a precoding matrix for each antenna port group of the base station based on the received CSI-RS; determining an additional precoding matrix to maximize a signal-to-noise ratio, SNR, of a signal transmitted using a first channel, wherein the first channel is based on a second channel and the additional precoding matrix, and the second channel corresponds to precoding matrixes selected respectively for the antenna port groups; generating feedback information comprising the selected precoding matrixes and the additional precoding matrix; and transmitting the generated feedback information to the base station.
An endoscope comprising a first component and a second component ; the second component having a proximal end coupled to the first component , and a distal end with an element for image capturing arranged in said distal end , and with an optical waveguide comprising at least one light-conducting fibre extending through the second component for directing light of a light source from the proximal end to the distal end and emitting said light at the distal end ; wherein a light source is installed in the first component , said light source comprising at least one LED chip for emitting light, wherein the LED chip is coupled to the proximal end of the second component connected to the first component in such a way that the light emitted by the LED chip can be injected into the at least one light-conducting fibre of the optical waveguide ; and wherein the at least one light-conducting fibre has a diameter of at least 80 μm; and wherein the at least one light-conducting fibre has a polymer-based coating and/or a protective cover made of a polymer-based tubing material arranged at least partially on its lateral surface and/or in sections thereof; characterized in that the at least one light-conducting fibre is a glass fibre. the second component having a proximal end coupled to the first component , and a distal end with an element for image capturing arranged in said distal end , and with an optical waveguide comprising at least one light-conducting fibre extending through the second component for directing light of a light source from the proximal end to the distal end and emitting said light at the distal end ; wherein a light source is installed in the first component , said light source comprising at least one LED chip for emitting light, wherein the LED chip is coupled to the proximal end of the second component connected to the first component in such a way that the light emitted by the LED chip can be injected into the at least one light-conducting fibre of the optical waveguide ; and wherein the at least one light-conducting fibre has a diameter of at least 80 μm; and wherein the at least one light-conducting fibre has a polymer-based coating and/or a protective cover made of a polymer-based tubing material arranged at least partially on its lateral surface and/or in sections thereof; characterized in that the at least one light-conducting fibre is a glass fibre.
A viscous clutch (30; 130; 230) comprising: a shaft (32; 132; 232); a rotor (34; 134; 234) attached to the shaft in a rotationally fixed relationship; a housing (36; 136; 236) located adjacent to the rotor; a working chamber (40; 140; 240) defined between the rotor and the housing; and a reservoir (38; 138; 238) used to store a shear fluid, wherein selective introduction of the shear fluid to the working chamber facilitates selective torque transmission between the rotor and the housing, characterized in that : the reservoir is rotationally fixed to the shaft and is attached to the shaft separately from the rotor. a shaft (32; 132; 232); a rotor (34; 134; 234) attached to the shaft in a rotationally fixed relationship; a housing (36; 136; 236) located adjacent to the rotor; a working chamber (40; 140; 240) defined between the rotor and the housing; and a reservoir (38; 138; 238) used to store a shear fluid, wherein selective introduction of the shear fluid to the working chamber facilitates selective torque transmission between the rotor and the housing, characterized in that : the reservoir is rotationally fixed to the shaft and is attached to the shaft separately from the rotor.
Light module , comprising a housing , a first printed circuit board and a second printed circuit board , at least one light source (21-23) being arranged on the second printed circuit board , wherein the first printed circuit board and the second printed circuit board being arranged at an angle , which is enclosed by the respective conductor planes of the first and second printed circuit board , are arranged with respect to one another and are electrically conductively connected to one another via at least one spring contact element (30-35), and the angle between the first printed circuit board and the second printed circuit board is between 45° and 135°, preferably between 80° and 100°, particularly preferably 90°, and wherein the housing has a window between the installation space for the first printed circuit board and the installation space for the second printed circuit board and thus forms an electromagnetic shield with a window between the first printed circuit board and the second printed circuit board , characterized in that the at least one spring contact element (30-35) comprises a pin spring-mounted in a holder , and in that at least a part of the at least one spring contact element (30-35) projects through the window .
A method for managing location dependent lawful interception, LI, by a network operator device in a communication network, the method comprising: for each of one or more intercepted messages of a communication session related to an LI target, if the intercepted message is identified as being a first message of the communication session, initializing an individual encryption mechanism, IEM, and an IEM version; transmitting one or more LI messages to a law enforcement agency, LEA, device, each of the one or more LI messages including the IEM version, a communication session identifier and LI data extracted from the intercepted message, wherein the LI data is encrypted using the IEM; if location information is extracted from the intercepted message, transmitting decryption information corresponding to the IEM to the LEA device if the location information indicates that the LI target is inside a specific geographical area, SGA, which is predefined for lawful interception by the LEA device, and updating the IEM and the IEM version; and if the intercepted message is identified as a last message of the communication session and the location information is not extracted from the intercepted message, then transmitting the decryption information corresponding to the IEM to the LEA device if most recently intercepted location information of the LI target indicated that the LI target was inside the SGA or if no location information of the LI target was extracted from any of the one or more intercepted messages. if the intercepted message is identified as being a first message of the communication session, initializing an individual encryption mechanism, IEM, and an IEM version; transmitting one or more LI messages to a law enforcement agency, LEA, device, each of the one or more LI messages including the IEM version, a communication session identifier and LI data extracted from the intercepted message, wherein the LI data is encrypted using the IEM; if location information is extracted from the intercepted message, transmitting decryption information corresponding to the IEM to the LEA device if the location information indicates that the LI target is inside a specific geographical area, SGA, which is predefined for lawful interception by the LEA device, and updating the IEM and the IEM version; and transmitting decryption information corresponding to the IEM to the LEA device if the location information indicates that the LI target is inside a specific geographical area, SGA, which is predefined for lawful interception by the LEA device, and updating the IEM and the IEM version; and if the intercepted message is identified as a last message of the communication session and the location information is not extracted from the intercepted message, then transmitting the decryption information corresponding to the IEM to the LEA device if most recently intercepted location information of the LI target indicated that the LI target was inside the SGA or if no location information of the LI target was extracted from any of the one or more intercepted messages.
A method for performing an early measurement executed by a User Equipment, UE , comprising: receiving a first message from a Base Station, BS , wherein the first message comprises early measurement configuration of at least one first carrier frequency; and performing an early measurement according to the early measurement configuration, when the UE supports a dual-connectivity, DC, configuration between a serving carrier of a serving cell of the BS , and the at least one first carrier frequency, further comprising: receiving an indication from the BS , wherein the indication indicates the UE to indicate in a Radio Resource Control, RRC, message whether early measurement results of carrier frequencies of a second Radio Access Technology, RAT, type are available, wherein the second RAT type is different from a first RAT type of the carrier frequencies of the serving cell of the UE . receiving a first message from a Base Station, BS , wherein the first message comprises early measurement configuration of at least one first carrier frequency; and performing an early measurement according to the early measurement configuration, when the UE supports a dual-connectivity, DC, configuration between a serving carrier of a serving cell of the BS , and the at least one first carrier frequency, further comprising: receiving an indication from the BS , wherein the indication indicates the UE to indicate in a Radio Resource Control, RRC, message whether early measurement results of carrier frequencies of a second Radio Access Technology, RAT, type are available, wherein the second RAT type is different from a first RAT type of the carrier frequencies of the serving cell of the UE .
A method of making a three-dimensional printed article comprising: iteratively applying individual build material layers of polymer particles to a powder bed; based on a three-dimensional object model, selectively jetting a fusing agent onto the individual build material layers, wherein the fusing agent comprises water and a radiation absorber; based on the three-dimensional object model, selectively introducing an epoxy compound into the individual build material layers; based on the three-dimensional object model, selectively introducing an amine compound into the individual build material layers; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber at individual build material layers; wherein the epoxy compound is introduced into the individual build material layers by selectively jetting a first reactive agent comprising a first liquid vehicle and the epoxy compound onto the individual build material layers, wherein the amine compound is introduced into the individual build material layers by selectively jetting a second reactive agent comprising a second liquid vehicle and the amine compound onto the individual build material layers, and wherein exposing the powder bed to the energy melts the polymer particles in contact with the radiation absorber and the first reactive agent and the second reactive agent are jetted onto the molten polymer particles. iteratively applying individual build material layers of polymer particles to a powder bed; based on a three-dimensional object model, selectively jetting a fusing agent onto the individual build material layers, wherein the fusing agent comprises water and a radiation absorber; based on the three-dimensional object model, selectively introducing an epoxy compound into the individual build material layers; based on the three-dimensional object model, selectively introducing an amine compound into the individual build material layers; and exposing the powder bed to energy to selectively fuse the polymer particles in contact with the radiation absorber at individual build material layers; wherein the epoxy compound is introduced into the individual build material layers by selectively jetting a first reactive agent comprising a first liquid vehicle and the epoxy compound onto the individual build material layers, wherein the amine compound is introduced into the individual build material layers by selectively jetting a second reactive agent comprising a second liquid vehicle and the amine compound onto the individual build material layers, and wherein exposing the powder bed to the energy melts the polymer particles in contact with the radiation absorber and the first reactive agent and the second reactive agent are jetted onto the molten polymer particles.
Method for providing a neutron radiation shield comprising: (a) providing a wall having an opening ; (b) at least partially filling a space in the opening with a neutron moderator ; characterized in that step (b) comprises: blast-injecting plastic granules into the opening with a blower device to form the neutron moderator . (a) providing a wall having an opening ; (b) at least partially filling a space in the opening with a neutron moderator ;
A protein comprising (i) a signal peptide; (ii) a target specific recognition domain; (iii) a linker region, connecting domain (ii) and domain (iv), wherein the linker region does not contain cysteine residue(s) and is selected from any of the following: the amino acid sequence of SEQ ID NO. 2, an amino acid sequence with at least 95 % sequence identity to SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine, and an amino acid sequence that differs in one, two or three amino acid residues from the amino acid sequence of SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine; and (iv) an effector domain comprising a transmembrane region and one or more intracellular signaling domains, wherein the effector domain triggers lymphocyte activation. (i) a signal peptide; (ii) a target specific recognition domain; (iii) a linker region, connecting domain (ii) and domain (iv), wherein the linker region does not contain cysteine residue(s) and is selected from any of the following: the amino acid sequence of SEQ ID NO. 2, an amino acid sequence with at least 95 % sequence identity to SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine, and an amino acid sequence that differs in one, two or three amino acid residues from the amino acid sequence of SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine; and the amino acid sequence of SEQ ID NO. 2, an amino acid sequence with at least 95 % sequence identity to SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine, and an amino acid sequence that differs in one, two or three amino acid residues from the amino acid sequence of SEQ ID NO. 2 under the proviso that amino acid residue 48 is not a cysteine and is a serine; and (iv) an effector domain comprising a transmembrane region and one or more intracellular signaling domains, wherein the effector domain triggers lymphocyte activation.
A method of electrically powering an electromechanical braking actuator fitted to an aircraft wheel brake, in which the power supply current (I) delivered to the electromechanical braking actuator is saturated to a saturation value (Isat) in order to limit the current consumed by the electromechanical braking actuator and thereby limit the forces developed by the electromechanical braking actuator , the method being characterized in that it includes the step of determining the saturation value (Isat) as a function of an internal temperature (T) of the electromechanical braking actuator while it is in operation.
A method for detecting and quantifying galacto-oligosaccharide in a sample containing galacto-oligosaccharide and dextrin, said method comprising: (i) causing a derivatizing reagent to react with the sample to derivatize a sugar including the dextrin and galacto-oligosaccharide, (ii) separating 4'-galactosyl lactose as a galacto-oligosaccharide component in the sample by high-performance liquid chromatography using a C30 reverse-phase chromatography column, and (iii) detecting and quantifying 4'-galactosyl lactose followed by back-calculating the obtained quantity to determine the total quantity of galacto-oligosaccharide in the sample. (i) causing a derivatizing reagent to react with the sample to derivatize a sugar including the dextrin and galacto-oligosaccharide, (ii) separating 4'-galactosyl lactose as a galacto-oligosaccharide component in the sample by high-performance liquid chromatography using a C30 reverse-phase chromatography column, and (iii) detecting and quantifying 4'-galactosyl lactose followed by back-calculating the obtained quantity to determine the total quantity of galacto-oligosaccharide in the sample.