mhurhangee/patent-ind-claim-en huggingface dataset:
A box of a battery, comprising: an electrical chamber , configured to accommodate a plurality of battery cells , at least one battery cell of the plurality of battery cells comprising a pressure relief mechanism , and the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component , configured to accommodate a fluid to adjust the temperature of the battery cell ; and a collection chamber , configured to collect emissions discharged from the battery cell and passing through the thermal management component when the pressure relief mechanism is actuated, wherein the electrical chamber and the collection chamber are disposed on either side of the thermal management component , the thermal management component is configured to separate the electrical chamber and the collection chamber , a wall of the collection chamber is provided with a first pressure relief zone , and the first pressure relief zone is configured to relieve the emissions in the collection chamber . an electrical chamber , configured to accommodate a plurality of battery cells , at least one battery cell of the plurality of battery cells comprising a pressure relief mechanism , and the pressure relief mechanism being configured to be actuated when an internal pressure or temperature of the battery cell reaches a threshold, to relieve the internal pressure; a thermal management component , configured to accommodate a fluid to adjust the temperature of the battery cell ; and a collection chamber , configured to collect emissions discharged from the battery cell and passing through the thermal management component when the pressure relief mechanism is actuated, wherein the electrical chamber and the collection chamber are disposed on either side of the thermal management component , the thermal management component is configured to separate the electrical chamber and the collection chamber , a wall of the collection chamber is provided with a first pressure relief zone , and the first pressure relief zone is configured to relieve the emissions in the collection chamber .
A nanoparticle for obtaining an image of a tumour located in a body of a human, the nanoparticle (a) having a metal core of mean diameter 0.5nm to 10nm (b) of core material consisting of gold or a combination of gold and ferrous iron, (c) having at least one ligand selected from carbohydrates, peptides, therapeutic agents, antibody molecules or fragments thereof, (d) said at least one ligand capable of targeting the tumour by attaching to a specific tumour biomarker and linked to the metal core via a thio linker covalently attached to the core of the nanoparticle via an -S-group, wherein the mean diameter of the nanoparticle including ligand is from 5nm to 100nm, for treating a tumour to which the nanoparticle becomes attached. (a) having a metal core of mean diameter 0.5nm to 10nm (b) of core material consisting of gold or a combination of gold and ferrous iron, (c) having at least one ligand selected from carbohydrates, peptides, therapeutic agents, antibody molecules or fragments thereof, (d) said at least one ligand capable of targeting the tumour by attaching to a specific tumour biomarker and linked to the metal core via a thio linker covalently attached to the core of the nanoparticle via an -S-group,
A solid oxide fuel cell using an integrated current collector, comprising: at least one unit cell including a fuel electrode, an electrolyte film, and an air electrode; a first current collector and a second current collector which are provided on both surfaces of the at least one unit cell and have a filling unit integrally formed at both ends of a body; and a sealing unit formed, by combining sealing members, on both surfaces of the filling unit, wherein the solid oxide fuel cell is a flat tubular type, and wherein a thickness of the first current collector or the second current collector satisfies the following Equation 1: Thickness of first current collector or second current collector = Thickness of filling unit + Thickness of sealing unit × 2 . at least one unit cell including a fuel electrode, an electrolyte film, and an air electrode; a first current collector and a second current collector which are provided on both surfaces of the at least one unit cell and have a filling unit integrally formed at both ends of a body; and a sealing unit formed, by combining sealing members, on both surfaces of the filling unit, wherein the solid oxide fuel cell is a flat tubular type, and wherein a thickness of the first current collector or the second current collector satisfies the following Equation 1: Thickness of first current collector or second current collector = Thickness of filling unit + Thickness of sealing unit × 2 .
A laser sensor module for particle density detection in a fluid, the laser sensor module comprising at least one first laser , at least one first detector , at least one electrical driver and at least one evaluator , wherein the first laser is adapted to emit first laser light in reaction to signals provided by the at least one electrical driver , wherein the at least one first detector is adapted to determine a first self-mixing interference signal of an optical wave within a first laser cavity of the first laser , wherein the first self-mixing interference signal is caused by first reflected laser light reentering the first laser cavity, the first reflected laser light being reflected by a particle in the fluid receiving at least a part of the first laser light, characterized in that the evaluator is adapted to determine at least one first parameter being related to a first velocity component of the particle relative to the laser sensor module , wherein the first velocity component is representative for a velocity of a flow of the fluid, wherein the first parameter is determined based on the first self-mixing interference signal, wherein the evaluator is adapted to determine a particle density based on the first self-mixing interference signal determined within a predetermined time period, and wherein the evaluator is adapted to correct the particle density by means of the first parameter.
A computer-implemented method comprising, at a network assurance appliance : obtaining a logical model associated with a network ; querying a node or a network controller in the network to obtain a hit count for a concrete level rule implemented on the node; identifying one or more components of the logical model, wherein each of the one or more components are associated with the concrete level rule; attributing the hit count for the concrete level rule to each of the one or more components of the logical model; determining a number of hardware level entries associated with each of the one or more components; and generating a report comprising the one or more components of the logical model, the hit count attributed to each of the one or more components of the logical model, and the number of hardware level entries associated with the one or more components of the logical model. obtaining a logical model associated with a network ; querying a node or a network controller in the network to obtain a hit count for a concrete level rule implemented on the node; identifying one or more components of the logical model, wherein each of the one or more components are associated with the concrete level rule; attributing the hit count for the concrete level rule to each of the one or more components of the logical model; determining a number of hardware level entries associated with each of the one or more components; and generating a report comprising the one or more components of the logical model, the hit count attributed to each of the one or more components of the logical model, and the number of hardware level entries associated with the one or more components of the logical model.
A method of forming a tapered structure, the method comprising: feeding stock into a curving device ; and having the stock meet a predecessor portion of stock along one or more adjacent edges, characterized in that : the feeding stock is realized such that each point (A) on the stock undergoes rotational motion about a peak location (P) of the tapered structure, i.e. each point (A) on the incoming sheet of stock is at a constant distance from the peak location (P) of the tapered structure as the stock is deformed by the curving device , such that the curving device does not impart in-plane deformation to the stock .
A rotor assembly (60, 60', 60") for a gas turbine engine comprising: a rotor including a hub carrying one or more rotatable blades , the rotor mechanically attached to a shaft ; and an annular seal (74, 74', 74") carried by the shaft , wherein the annular seal (74, 74', 74") comprises: a substrate ; a first layer disposed on the substrate ; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor , characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3 ); and wherein the rotor is an integrally bladed rotor. a rotor including a hub carrying one or more rotatable blades , the rotor mechanically attached to a shaft ; and an annular seal (74, 74', 74") carried by the shaft , wherein the annular seal (74, 74', 74") comprises: a substrate ; a first layer disposed on the substrate ; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor , characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3 ); and a substrate ; a first layer disposed on the substrate ; and a second layer disposed on the first layer and arranged to establish a sealing relationship with the rotor , characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3 ); and establish a sealing relationship with the rotor , characterised by the second layer comprising a solid lubricant including molybdenum trioxide (MoO 3 ); and wherein the rotor is an integrally bladed rotor.
A method for wireless communication performed by a user equipment, UE, comprising: receiving first downlink control information block over a group physical downlink control channel, PDCCH, wherein the first downlink control information block identifies a plurality of user equipment, UEs, for performing aperiodic channel state information, CSI, measurements and an indication of CSI reference signal resources for a CSI reference signal; performing , in response to receiving the group PDCCH, an aperiodic CSI measurement of the CSI reference signal on the indicated CSI reference signal resources, wherein the first downlink control information block does not trigger transmission of a CSI report associated with the aperiodic CSI measurement; and receiving second downlink control information block different from the first downlink control information block, wherein the second downlink control information block triggers the transmission of the CSI report associated with the aperiodic CSI measurement, wherein the second downlink control information block is associated with the UE and not associated with the other UEs of the plurality of UEs. receiving first downlink control information block over a group physical downlink control channel, PDCCH, wherein the first downlink control information block identifies a plurality of user equipment, UEs, for performing aperiodic channel state information, CSI, measurements and an indication of CSI reference signal resources for a CSI reference signal; performing , in response to receiving the group PDCCH, an aperiodic CSI measurement of the CSI reference signal on the indicated CSI reference signal resources, wherein the first downlink control information block does not trigger transmission of a CSI report associated with the aperiodic CSI measurement; and receiving second downlink control information block different from the first downlink control information block, wherein the second downlink control information block triggers the transmission of the CSI report associated with the aperiodic CSI measurement, wherein the second downlink control information block is associated with the UE and not associated with the other UEs of the plurality of UEs.
A parallel kinematic manipulator system , comprising at least three coplanar actuators operating substantially parallel to an effector axis and an effector extending along the effector axis, wherein the effector having pivot connections respectively with the at least three actuators, each pivot connection having at least two degrees of freedom, whereby the effector is free to translate to any point in a three dimensional defined workspace and, characterized in that at least one of the pivot connections includes a disc swivel joint , the disc swivel joint having an upper and lower swivel member sharing a common contact point and at least one of the swivel members having a convex surface facing the other swivel member, whereby the disc swivel joint is allowed to operate analogous to a universal joint serially coupled with two non-parallel prismatic links.
A method of determining the position, in particular angular position, of a part which is movably arranged relative to one or a plurality of groups of sensors, in particular which is movably arranged in a rotational or linear manner, wherein the part has a material measure which can be detected by the sensors, wherein by means of a transformation, two signals are generated from the sensor signals generated by the sensors, which two signals are 90° phase-shifted in relation to one another, wherein the position of the part is determined from the signals, wherein the material measure is realised by poles of one or a plurality of permanent magnets, the signals are corrected by means of a correction procedure before determination of the position characterised in that the sum of the sensor signals, divided by the number of the sensor signals, is determined as a third signal upon transformation, wherein an interference signal is determined from the course of the third signal, which interference signal is used to correct the signals during the correction procedure, wherein for determination of the position, the arc tangent or arc cotangent of the quotient is determined from the first and the second signal, wherein the transformation is a Clarke transformation, wherein the group is such that three sensor signals are generated. wherein the part has a material measure which can be detected by the sensors, wherein by means of a transformation, two signals are generated from the sensor signals generated by the sensors, which two signals are 90° phase-shifted in relation to one another, wherein the position of the part is determined from the signals, wherein the material measure is realised by poles of one or a plurality of permanent magnets, the signals are corrected by means of a correction procedure before determination of the position characterised in that the sum of the sensor signals, divided by the number of the sensor signals, is determined as a third signal upon transformation, wherein an interference signal is determined from the course of the third signal, which interference signal is used to correct the signals during the correction procedure, wherein for determination of the position, the arc tangent or arc cotangent of the quotient is determined from the first and the second signal, wherein the transformation is a Clarke transformation, wherein the group is such that three sensor signals are generated.
A first radio node comprising processing circuitry configured to configure the first radio node to: obtain (S100) a first interference subspace; obtain (S102) beamforming weights based on the first interference subspace, the beamforming weights configured to modify a radiation pattern in at least one communication direction of at least one interference source, characterized in that the at least one interference source is at least one passive intermodulation, PIM, source; and perform wireless communications based on the beamforming weights, wherein the wireless communications based on the beamforming weights are configured to be of similar power and 180 degrees out of phase with other wireless communications at the at least one interference source. obtain (S100) a first interference subspace; obtain (S102) beamforming weights based on the first interference subspace, the beamforming weights configured to modify a radiation pattern in at least one communication direction of at least one interference source, characterized in that the at least one interference source is at least one passive intermodulation, PIM, source; and perform wireless communications based on the beamforming weights, wherein the wireless communications based on the beamforming weights are configured to be of similar power and 180 degrees out of phase with other wireless communications at the at least one interference source.
A beverage dispenser apparatus, comprising: a housing ; a number of concentration pumps positioned within the housing configured to pump beverage concentrates; a number of flavor pumps positioned within the housing configured to pump flavor concentrates; a carbon dioxide source positioned within the housing configured to provide carbon dioxide; a quick connect mechanism configured to connect to the carbon dioxide source ; a throttling mechanism positioned within the quick connect mechanism to prevent overpressure within the beverage dispenser apparatus; a refrigerated carbonator positioned within the housing and operative to receive the carbon dioxide from the carbon dioxide source via the quick connect mechanism and thereby generate carbonated water, wherein the refrigerated carbonator includes an outer insulating jacket , a plain water reservoir concentric within the outer insulating jacket , and a carbonated water reservoir concentric within the plain water reservoir , and wherein the refrigerated carbonator is configured to provide the carbonated water; and a dispensing nozzle configured to mix fluid streams received from the concentration pumps , the flavor pumps , and the refrigerated carbonator . a housing ; a number of concentration pumps positioned within the housing configured to pump beverage concentrates; a number of flavor pumps positioned within the housing configured to pump flavor concentrates; a carbon dioxide source positioned within the housing configured to provide carbon dioxide; a quick connect mechanism configured to connect to the carbon dioxide source ; a throttling mechanism positioned within the quick connect mechanism to prevent overpressure within the beverage dispenser apparatus; a refrigerated carbonator positioned within the housing and operative to receive the carbon dioxide from the carbon dioxide source via the quick connect mechanism and thereby generate carbonated water, wherein the refrigerated carbonator includes an outer insulating jacket , a plain water reservoir concentric within the outer insulating jacket , and a carbonated water reservoir concentric within the plain water reservoir , and wherein the refrigerated carbonator is configured to provide the carbonated water; and a dispensing nozzle configured to mix fluid streams received from the concentration pumps , the flavor pumps , and the refrigerated carbonator .
A method for continuous correction of a gain of a controller by accounting stiffness in a test system (300; 500) comprises: - receiving an input command; - determining an error based on said input command and a feedback received from a specimen (302; 502); - generating a drive signal for a drive unit of said test system (300; 500), wherein said generating said drive signal comprising: - computing at least one of a proportional gain, an integral gain, a feedback derivative gain and a feed-forward gain by using said error; - computing a first output based on at least one of said proportional gain, said integral gain, said feedback derivative gain and said feed-forward gain, - computing a predictive system response parameter based on said first output and said feedback, - computing a second output based on said predictive system response parameter and said first output, - processing said second output to obtain a processed output; and - generating said drive signal based on said integral gain, a dither component and said processed output; and - feeding said drive signal to said drive unit of said test system (300; 500), characterized by providing a top actuator for applying controlled desired loads on the specimen ; and providing a bottom actuator for creating external disturbance by changing displacement of said specimen . - receiving an input command; - determining an error based on said input command and a feedback received from a specimen (302; 502); - generating a drive signal for a drive unit of said test system (300; 500), wherein said generating said drive signal comprising: - computing at least one of a proportional gain, an integral gain, a feedback derivative gain and a feed-forward gain by using said error; - computing a first output based on at least one of said proportional gain, said integral gain, said feedback derivative gain and said feed-forward gain, - computing a predictive system response parameter based on said first output and said feedback, - computing a second output based on said predictive system response parameter and said first output, - processing said second output to obtain a processed output; and - generating said drive signal based on said integral gain, a dither component and said processed output; and - computing at least one of a proportional gain, an integral gain, a feedback derivative gain and a feed-forward gain by using said error; - computing a first output based on at least one of said proportional gain, said integral gain, said feedback derivative gain and said feed-forward gain, - computing a predictive system response parameter based on said first output and said feedback, - computing a second output based on said predictive system response parameter and said first output, - processing said second output to obtain a processed output; and - generating said drive signal based on said integral gain, a dither component and said processed output; and - feeding said drive signal to said drive unit of said test system (300; 500),
A connection apparatus for a medium voltage switchgear compartment , the connection apparatus comprising: - an outer cone cable connection ; and - a cable connection block ; wherein, the outer cone cable connection is configured to connect to a compartment of a medium voltage switchgear; wherein, the cable connection block comprises an inner cone connection and the cable connection block comprises one or more inner cone cable connection ; wherein, the inner cone connection is configured to connect to the outer cone cable connection ; wherein an inner cone cable connection of the cable connection block comprises a hollow conductor for the insertion of a medium voltage cable connection, and wherein the hollow conductor has a lateral hole, and wherein the cable connection block is configured to be connected to the outer cone cable connection via a screw inserted through the lateral hole; and wherein, the one or more inner cone cable connection is configured to connect to one or more cable, wherein each of the one or more inner cone cable connection is configured to connect to a different cable of the one or more cable. - an outer cone cable connection ; and - a cable connection block ;