mhurhangee/patent-ind-claim-en huggingface dataset:
A variable magnetization machine controller comprising: a hysteresis control component of a controller, characterized in that the hysteresis control component is configured to receive an ideal magnetization state signal, output an actual magnetization signal based on the ideal magnetization state signal for control of a variable magnetization machine , and modify the actual magnetization state signal in accordance with an error value between the ideal magnetization state signal and the actual magnetization state signal, wherein the hysteresis control component comprises a sample and hold component that is configured to output the actual magnetization state signal and to modify the actual magnetization state signal in accordance with the error value, and characterized in that the hysteresis control component comprises a proportional-integral compensator that is configured to receive an error signal representing the error value and remove a steady state error from the error signal so that the hysteresis control component modifies the actual magnetization state signal in accordance with the error value from which the steady state error has been removed. a hysteresis control component of a controller, characterized in that the hysteresis control component is configured to receive an ideal magnetization state signal, output an actual magnetization signal based on the ideal magnetization state signal for control of a variable magnetization machine , and modify the actual magnetization state signal in accordance with an error value between the ideal magnetization state signal and the actual magnetization state signal, wherein the hysteresis control component comprises a sample and hold component that is configured to output the actual magnetization state signal and to modify the actual magnetization state signal in accordance with the error value, and characterized in that the hysteresis control component comprises a proportional-integral compensator that is configured to receive an error signal representing the error value and remove a steady state error from the error signal so that the hysteresis control component modifies the actual magnetization state signal in accordance with the error value from which the steady state error has been removed.
A zoom optical system comprising: a first negative lens group having a negative refractive power; a second negative lens group disposed closer to an image than the first negative lens group; and an intermediate lens group disposed between the first negative lens group and the second negative lens group, wherein a distance between the first negative lens group and the second negative lens group changes during zooming, wherein a distance between the first negative lens group and the intermediate lens group changes, and a distance between the intermediate lens group and the second negative lens group changes during zooming, wherein the first negative lens group is movable so as to have a displacement component in a direction perpendicular to an optical axis, wherein at least part of the second negative lens group is movable along the optical axis during focusing, wherein a conditional expression, 0.50 < fGb / fGa < 2.60 , is satisfied, where, fGa : a focal length of the first negative lens group, and fGb : a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc : a focal length of the intermediate lens group. a first negative lens group having a negative refractive power; a second negative lens group disposed closer to an image than the first negative lens group; and an intermediate lens group disposed between the first negative lens group and the second negative lens group, wherein a distance between the first negative lens group and the second negative lens group changes during zooming, wherein a distance between the first negative lens group and the intermediate lens group changes, and a distance between the intermediate lens group and the second negative lens group changes during zooming, wherein the first negative lens group is movable so as to have a displacement component in a direction perpendicular to an optical axis, wherein at least part of the second negative lens group is movable along the optical axis during focusing, wherein a conditional expression, 0.50 < fGb / fGa < 2.60 , is satisfied, where, fGa : a focal length of the first negative lens group, and fGb : a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc : a focal length of the intermediate lens group. fGa : a focal length of the first negative lens group, and fGb : a focal length of the second negative lens group, and wherein a conditional expression, 0.40 < fGc / − fGa < 2.60 is satisfied, where, fGc : a focal length of the intermediate lens group.
A wire harness comprising: a round electric wire and a flat electric wire , wherein the round electric wire includes a round conductor made of a predetermined metal and having a round cross-sectional shape and a first coating portion, wherein the flat electric wire includes a flat conductor having a flat cross-sectional shape and a second coating portion, wherein the round electric wire and the flat electric wire are arranged in parallel, wherein the round conductor has a diameter equal to or less than a predetermined reference value, and wherein the flat conductor has a thickness equal to or less than the reference value and a width : to ensure the cross-sectional area of the flat conductor being more than a cross-sectional area of a circle having a diameter equal to the reference value. a round electric wire and a flat electric wire , wherein the round electric wire includes a round conductor made of a predetermined metal and having a round cross-sectional shape and a first coating portion, wherein the flat electric wire includes a flat conductor having a flat cross-sectional shape and a second coating portion, wherein the round electric wire and the flat electric wire are arranged in parallel, wherein the round conductor has a diameter equal to or less than a predetermined reference value, and wherein the flat conductor has a thickness equal to or less than the reference value and a width : to ensure the cross-sectional area of the flat conductor being more than a cross-sectional area of a circle having a diameter equal to the reference value.
Belt , comprising: a base material , in particular at least partially of rubber material or polyurethane material, a reinforcing element and an antenna , preferably in the form of a wire, the belt being designed as circulating in a circumferential direction (U) in the form of a ring, the reinforcing element being embedded in the base material as a continuous, helically coiled cord , the antenna being embedded in the base material , preferably in a form in which it is made to extend in the circumferential direction (U) of the belt , so that there is a direct material bond between the entire surface of the antenna and the base material , the bond between the antenna and the base material being formed in such a way that an elongation of the belt in the circumferential direction (U) leads to a longitudinal elongation of the antenna , the antenna being designed for coupling into an electromagnetic alternating field , so that an electromagnetic wave is produced in the antenna with a resonant frequency, the antenna being designed in such a way that the resonant frequency depends on a length of the antenna , and the antenna being designed to change the alternating field , so that the change in the alternating field represents a longitudinal elongation of the antenna . a base material , in particular at least partially of rubber material or polyurethane material, a reinforcing element and an antenna , preferably in the form of a wire, the belt being designed as circulating in a circumferential direction (U) in the form of a ring, the reinforcing element being embedded in the base material as a continuous, helically coiled cord , the antenna being embedded in the base material , preferably in a form in which it is made to extend in the circumferential direction (U) of the belt , so that there is a direct material bond between the entire surface of the antenna and the base material , the bond between the antenna and the base material being formed in such a way that an elongation of the belt in the circumferential direction (U) leads to a longitudinal elongation of the antenna , the antenna being designed for coupling into an electromagnetic alternating field , so that an electromagnetic wave is produced in the antenna with a resonant frequency, the antenna being designed in such a way that the resonant frequency depends on a length of the antenna , and the antenna being designed to change the alternating field , so that the change in the alternating field represents a longitudinal elongation of the antenna .
A poxvirus vector comprising nucleic acid encoding: (a) a first HIV envelope (Env) antigen comprising the amino acid sequence of SEQ ID NO: 18; (b) a second HIV Env antigen different from the first HIV Env antigen; (c) a third antigen and a fourth antigen, being two different HIV Gag antigens; and (d) a fifth antigen and a sixth antigen, being two different HIV Pol antigens. (a) a first HIV envelope (Env) antigen comprising the amino acid sequence of SEQ ID NO: 18; (b) a second HIV Env antigen different from the first HIV Env antigen; (c) a third antigen and a fourth antigen, being two different HIV Gag antigens; and (d) a fifth antigen and a sixth antigen, being two different HIV Pol antigens.
Shut-off valve for a gas-tank device , having a housing with an inlet opening for connection to a high-pressure tank , having an outlet opening for connection to a supply line , and having a control opening for connection to the supply line , wherein the housing defines an interior space extending along a longitudinal axis (L1) and has a separating web which subdivides the interior space , in relation to the longitudinal axis (L1), into an outlet chamber and a control chamber , wherein the separating web has a guide bore which extends between the outlet chamber and the control chamber , characterized in that the shut-off valve has an electric coil which is accommodated in the separating web and which surrounds the guide bore , wherein the shut-off valve has a servo-valve needle which is arranged in the control chamber and which is preloaded into a closed position along the longitudinal axis (L1), in which closed position the servovalve needle seals off the control opening , and which is movable into an open position by means of a magnetic field able to be generated by the coil , in which open position the servo-valve needle opens up the control opening and abuts against the separating web , wherein the servo-valve needle has a connecting channel which connects the control chamber to the guide bore in the open position of the servo-valve needle , and wherein the shut-off valve has a main-valve needle which is guided movably along the longitudinal axis (L1) in the guide bore and which is preloaded into a closed position along the longitudinal axis (L1), in which closed position the main-valve needle seals off the outlet opening , and which, when the servo-valve needle is arranged in its open position, is movable into an open position by means of the magnetic field able to be generated by the coil , in which open position the main-valve needle opens up the outlet opening .
System for controlling a controlled parameter (Y) of an aeronautical equipment device , said controlled parameter being governed by an operating law of said device linking said controlled parameter to a command (U) and to a plurality of input parameters (X1, X2, X3, ...), said operating law being capable of being modelled by a transfer function constituting a mathematical model of the relationship between the command (U), the input parameters (X1, X2, X3, ...) and the controlled parameter (Y), said control system comprising a control loop servo-controlling said controlled parameter at a setpoint (y c ) by means of the command (U) controlling the device, characterised in that the control loop comprises a regulator comprising in series a corrector and an operating law compensation module whereof the transfer function is intended to compensate the transfer function of the operating law, the command (U) provided to the device corresponding to the output of the regulator , the system further comprising a local gain determination module receiving the command (U) and the input parameters (X1, X2, X3, ...) and configured to determine the local gain of a static part of a model of the operating law representative of the gain of said controlled parameter in response to a variation in said command (U) in a steady operating speed of said operating law, said static part of the model of the operating law combining the independent relations of the time between the controlled parameter (Y), the command (U) and the plurality of input parameters (X1, X2, X3, ...), said model of the operating law also comprising a dynamic part combining the time-dependent relations between the controlled parameter (Y), the command (U) and the plurality of input parameters (X1, X2, X3), said operating law compensation module involving the inverse of said local gain determined by the determination module .
A photocurable sealing agent for a fuel cell comprising the following (A) to (C) ingredients: (A) ingredient: a polymer having a polyisobutylene backbone containing a -[CH 2 C(CH 3 ) 2 ]- unit, the polymer having 2 to 4 (meth)acryloyl groups per molecule; (B) ingredient: a photo-radical polymerization initiator; and (C) ingredient: a methacrylate monomer, characterized in that the (C) ingredient is a methacrylate monomer having an alkyl group having 5 to 30 carbon atoms or a methacrylate monomer having an alicyclic group having 5 to 30 carbon atoms. (A) ingredient: a polymer having a polyisobutylene backbone containing a -[CH 2 C(CH 3 ) 2 ]- unit, the polymer having 2 to 4 (meth)acryloyl groups per molecule; (B) ingredient: a photo-radical polymerization initiator; and (C) ingredient: a methacrylate monomer, characterized in that
Measuring device for the detection of alternating electromagnetic or magnetic fields with an electromagnetic oscillating circuit with a pick-up coil which is adapted for the detection of the alternating fields and which does not have a high Q factor, a preferably tunable capacitance and a filter coil , wherein pick-up coil , capacitance and filter coil are parts of the same oscillating circuit, with a low-loss transfer line connecting the pick-up coil to the filter coil and the capacitance , so that the assembly is arranged to conduct the signal picked up by the pick-up coil via the transfer line to the filter coil , wherein the assembly is adapted to conduct the signal conducted to the filter coil to a differential amplifier , characterized in that the capacitance and the filter coil have a high Q factor greater than 100, advantageously greater than 200, particularly preferably greater than 500 and/or the oscillating circuit has a high Q factor greater than 100, advantageously greater than 200, particularly preferably greater than 500 and wherein the Q factor of the filter coil and the Q factor of the capacitance exceed the Q factor of the pick-up coil , namely by at least twice, wherein the filter coil of the oscillating circuit comprises a grounded center tap
A female connector comprising: a housing defining a first axial direction (A1) and having an opening at a first end of the housing for insertion of a male connector , an outer periphery of the housing being provided with a first limiting member ; a valve assembly arranged in the housing; a base defining a receiving passage extending along the first axial direction, the housing being partially received in the receiving passage; a bushing sleeved outside the housing and arranged in the receiving passage, the bushing being elastically deformable; and a mounting member fixed to an axial end of the base, characterized in that the first limiting member is confined in the first axial direction between the axial end and the mounting member, and a movement space (S) for the first limiting member to move therein is defined between the axial end and the mounting member. a housing defining a first axial direction (A1) and having an opening at a first end of the housing for insertion of a male connector , an outer periphery of the housing being provided with a first limiting member ; a valve assembly arranged in the housing; a base defining a receiving passage extending along the first axial direction, the housing being partially received in the receiving passage; a bushing sleeved outside the housing and arranged in the receiving passage, the bushing being elastically deformable; and a mounting member fixed to an axial end of the base, characterized in that the first limiting member is confined in the first axial direction between the axial end and the mounting member, and a movement space (S) for the first limiting member to move therein is defined between the axial end and the mounting member.
An apparatus comprising a data transceiver that comprises an analog front end having a plurality of front end modules (260 1 -260 N ) and a plurality of ports (112 1 -112 N ), a digital transmit chain , and a digital receive chain , the digital transmit chain being configured to drive the analog front end to cause an output signal (288 n ) to be transmitted on the plurality of ports with some energy of the output signal being coupled through the analog front end into the digital receive chain as an echo signal; wherein the data transceiver further comprises a first echo-cancellation circuit having at least a first stage (S1, STAGE 1) and a second stage (S2, STAGE 2) connected in series, the first echo-cancellation circuit being configurable to cancel the echo signal in response to a plurality of monitor signals (232 1 -232 N ) received from the respective front end modules(260 1 -260 N ) ; wherein the first stage comprises a plurality of first adaptive filters (330 1 -330 N ), each of the first adaptive filters having a respective feed-through path (F 0 -F N-1 ) and a respective first tap, each of the respective first taps being connected to receive one of the plurality of monitor signals, one of the respective feed-through paths (F 0 ) being connected to receive a data signal generated in response to one or more input signals received on the plurality of ports, and other ones (F 1 -F N-1 ) of the respective feed-through paths being connected to receive other ones of the plurality of monitor signals (232 2 -232 N ); and wherein the second stage (S2, STAGE 2) is connected to receive signals (338, 332 2 -332 N ) outputted by the respective feed-through paths of the plurality of first adaptive filters. wherein the data transceiver further comprises a first echo-cancellation circuit having at least a first stage (S1, STAGE 1) and a second stage (S2, STAGE 2) connected in series, the first echo-cancellation circuit being configurable to cancel the echo signal in response to a plurality of monitor signals (232 1 -232 N ) received from the respective front end modules(260 1 -260 N ) ; wherein the first stage comprises a plurality of first adaptive filters (330 1 -330 N ), each of the first adaptive filters having a respective feed-through path (F 0 -F N-1 ) and a respective first tap, each of the respective first taps being connected to receive one of the plurality of monitor signals, one of the respective feed-through paths (F 0 ) being connected to receive a data signal generated in response to one or more input signals received on the plurality of ports, and other ones (F 1 -F N-1 ) of the respective feed-through paths being connected to receive other ones of the plurality of monitor signals (232 2 -232 N ); and wherein the second stage (S2, STAGE 2) is connected to receive signals (338, 332 2 -332 N ) outputted by the respective feed-through paths of the plurality of first adaptive filters.
An electrical connection element for soldering on a glass pane and conductive portions present there, in particular on a vehicle pane, composed of a solder connection part and a band braid part fixed to the solder connection part by welding, characterized in that the band braid part is composed of a mixed mesh, which, apart from single wires of copper or a copper alloy, contains single wires of a material having a melting temperature corresponding substantially to the melting temperature of the solder connection part or having a higher melting temperature in this respect, wherein the mixed mesh has single wires of a ferritic chromium steel, and the solder connection part is composed of a steel alloy suitable for a lead-free solder joint with the glass pane.
A method of transmitting multiple data streams (AS,VS) from a transmitting device to a receiving device via a network having a plurality of network layers , the streams (AS,VS) being transmitted via an end-to-end channel between the transmitting device and the receiving device at a transport layer of the network layers or a process-to-process channel between the transmitting device and the receiving device at an application layer of the network layers , the method comprising: generating at the transmitting device a first data stream (AS) that comprises audio data or video data to be played out at the receiving device at a specified playout rate R; determining an end-to-end bandwidth of the end-to-end channel or a process-to-process bandwidth of the process-to-process channel that is available for the first data stream (AS) and a second data stream (VS); determining a maximum packet size for the second data stream (VS) based on the determined available bandwidth and using playout information, which pertains to the first data stream (AS) and conveys the specified playout rate R for the first data stream (AS); generating at the transmitting device , based on the determined maximum packet size, one or more data packets of the second data stream (VS), each of the one or more packets of the second data stream (VS) having a packet size no more than the determined maximum packet size; and multiplexing the first data stream (AS) and the second data stream (VS) onto the available end-to-end channel to enable the multiplexed first data stream (AS) and the second data stream (VS) to be transmitted over the same channel. generating at the transmitting device a first data stream (AS) that comprises audio data or video data to be played out at the receiving device at a specified playout rate R; determining an end-to-end bandwidth of the end-to-end channel or a process-to-process bandwidth of the process-to-process channel that is available for the first data stream (AS) and a second data stream (VS); determining a maximum packet size for the second data stream (VS) based on the determined available bandwidth and using playout information, which pertains to the first data stream (AS) and conveys the specified playout rate R for the first data stream (AS); generating at the transmitting device , based on the determined maximum packet size, one or more data packets of the second data stream (VS), each of the one or more packets of the second data stream (VS) having a packet size no more than the determined maximum packet size; and multiplexing the first data stream (AS) and the second data stream (VS) onto the available end-to-end channel to enable the multiplexed first data stream (AS) and the second data stream (VS) to be transmitted over the same channel.