mhurhangee/ep-ind-claims huggingface dataset:
A control system for a power driven wheelchair comprising: a motor controller for controlling at least one drive motor (12, 14); and at least one drive motor assembly comprising: at least one sensor (50, 52) disposed in a stator housing for sensing rotation of said motor (12, 14); characterized by: a motor memory storing predetermined motor error parameter data including at least one of the following: data of errors of said at least one sensor and data of errors of motor component orientation, said motor memory being embedded in said stator housing; and circuitry for accessing said motor error parameter data stored in said memory; wherein the motor controller is programmed with logic to: read the motor error parameter data; receive sensor signals from the at least one sensor (50, 52); derive an actual drive motor speed from the sensor signals; determine a speed error by comparing the actual drive motor speed to a speed demand signal; and control the at least one drive motor (12, 14) based at least in part on the speed error and motor error parameter data. a motor controller for controlling at least one drive motor (12, 14); and at least one drive motor assembly comprising: at least one sensor (50, 52) disposed in a stator housing for sensing rotation of said motor (12, 14); characterized by: a motor memory storing predetermined motor error parameter data including at least one of the following: data of errors of said at least one sensor and data of errors of motor component orientation, said motor memory being embedded in said stator housing; and circuitry for accessing said motor error parameter data stored in said memory; at least one sensor (50, 52) disposed in a stator housing for sensing rotation of said motor (12, 14); a motor memory storing predetermined motor error parameter data including at least one of the following: data of errors of said at least one sensor and data of errors of motor component orientation, said motor memory being embedded in said stator housing; and circuitry for accessing said motor error parameter data stored in said memory; wherein the motor controller is programmed with logic to: read the motor error parameter data; receive sensor signals from the at least one sensor (50, 52); derive an actual drive motor speed from the sensor signals; determine a speed error by comparing the actual drive motor speed to a speed demand signal; and control the at least one drive motor (12, 14) based at least in part on the speed error and motor error parameter data. read the motor error parameter data; receive sensor signals from the at least one sensor (50, 52); derive an actual drive motor speed from the sensor signals; determine a speed error by comparing the actual drive motor speed to a speed demand signal; and control the at least one drive motor (12, 14) based at least in part on the speed error and motor error parameter data.
A process for obtaining a tissue matrix for allograft or xenograft, including, after recovery of a biological tissue: - classifying said tissue, - treating said tissue to produce a tissue matrix, and - packaging the tissue matrix; wherein the steps are carried out in an automated way within a same classified reactor and characterized by the fact that the reactor for carrying out the process comprises: ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock. - classifying said tissue, - treating said tissue to produce a tissue matrix, and - packaging the tissue matrix; wherein the steps are carried out in an automated way within a same classified reactor and characterized by the fact that the reactor for carrying out the process comprises: ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock. ▪ an airlock for the introduction and classification of a biological tissue; ▪ biological tissue treatment means arranged to produce a tissue matrix; ▪ packaging means for packaging the tissue matrix produced; ▪ an exit airlock for the packaged tissue matrix; and ▪ first robotic means for moving the biological tissue from the introduction airlock to the biological tissue treatment means and second robotic means for moving the tissue matrix from the biological treatment means to the packaging means and then to the exit airlock.
A system for producing a material for a structural component, said system comprising: an apparatus for producing a fabric, said fabric including a plurality of reinforcement fibers; at least one printer for printing on the fabric; a winder for winding the fabric; and a cutter for making at least one slit in the fabric to separate the fabric into a plurality of rolls of the fabric, said plurality of rolls including a first roll of the fabric and a second roll of the fabric; wherein the printer is configured to print one or more first lines on the fabric on the first roll, said first lines indicating where the fabric on the first roll is to be separated into a plurality of discrete first pieces for forming the structural component, and wherein the printer is configured to print one or more second lines on the fabric on the second roll, said second lines indicating where the fabric on the second roll is to be separated into a plurality of discrete second pieces for forming the structural component. an apparatus for producing a fabric, said fabric including a plurality of reinforcement fibers; at least one printer for printing on the fabric; a winder for winding the fabric; and a cutter for making at least one slit in the fabric to separate the fabric into a plurality of rolls of the fabric, said plurality of rolls including a first roll of the fabric and a second roll of the fabric; wherein the printer is configured to print one or more first lines on the fabric on the first roll, said first lines indicating where the fabric on the first roll is to be separated into a plurality of discrete first pieces for forming the structural component, and wherein the printer is configured to print one or more second lines on the fabric on the second roll, said second lines indicating where the fabric on the second roll is to be separated into a plurality of discrete second pieces for forming the structural component.
Locking device for a vehicle trailer in towing travel, wherein the vehicle trailer has vehicle wheels with wheel brakes and a service braking device, wherein the service braking device comprises an overrun braking device and an ABS braking device which is operative in the event of the overrun braking and locking vehicle wheels, wherein the overrun braking device has a mechanical and overrun-movable braking transmission train leading to the wheel brakes, and the ABS braking device comprises one or more ABS braking elements acting on the wheel brakes, an ABS sensor arrangement and an ABS controller, wherein, when the ABS braking device is activated, the one or more ABS braking elements release and tension the wheel brakes, characterized in that the locking device is connectable in terms of control to the ABS braking device, in particular to the ABS controller, and has a controllable locking means which is capable of acting on the mechanical braking transmission train, is designed for arranging on the braking transmission train upstream on the train from the one or more ABS braking elements and can be supported on the vehicle trailer, wherein the locking device is designed to lock the mechanical braking transmission train and the overrun movement thereof when the ABS braking device is activated and to release same again when the ABS braking device is deactivated.
Method for monitoring operating parameters in a passenger transport installation, wherein the passenger transport installation has a plurality of sensors (37, 39, 41) detecting different operating parameters as well as a signal processing device, wherein the method comprises: repeatedly detecting a first operating parameter by means of a first of the sensors; triggering a second of the sensors as soon as the first operating parameter detected by the first sensor assumes a predetermined trigger characteristic; detecting a second operating parameter by means of the second sensor and transmitting a signal reproducing the detected second operating parameter to the signal processing device in response to the triggering; processing the signal to monitor the second operating parameter, characterized in that the first sensor transmits a trigger signal directly to the second sensor in order to trigger the second sensor or the first sensor transmits a signal reproducing the detected first operating parameter to the second sensor and the second sensor generates an internal signal within the second sensor as the trigger signal in order to trigger the second sensor. repeatedly detecting a first operating parameter by means of a first of the sensors; triggering a second of the sensors as soon as the first operating parameter detected by the first sensor assumes a predetermined trigger characteristic; detecting a second operating parameter by means of the second sensor and transmitting a signal reproducing the detected second operating parameter to the signal processing device in response to the triggering; processing the signal to monitor the second operating parameter, characterized in that the first sensor transmits a trigger signal directly to the second sensor in order to trigger the second sensor or the first sensor transmits a signal reproducing the detected first operating parameter to the second sensor and the second sensor generates an internal signal within the second sensor as the trigger signal in order to trigger the second sensor.
Vehicle subassembly in particular for an off-road utility vehicle, comprising at least one chassis and at least one drive train that can be accommodated on the chassis, the drive train comprising at least two fixed axle units having at least one torque tube frame each, wherein the torque tube frames of the at least two fixed axle units are articulated to one another by means of at least one antiroll bar device attached to the chassis, characterized by at least one takeup device, which is suitable and configured to link to the chassis at least one battery of at least one battery device to supply power to at least one electric machine device providing at least one electric carriage drive, in the forward traveling direction in front of and/or behind the antiroll bar device and at least partially above the torque tube frames.
A method of a wireless device (16, 18) operating in a multi-carrier dynamic Time Division Duplexing, TDD, cellular communications network, comprising: receiving a grant that grants a communication of data on any of a set of two or more TDD carriers, wherein receiving the grant comprises receiving the grant in a first subframe, wherein the communication granted by the grant is for a second subframe that is subsequent, in time, to the first subframe; receiving an indication that indicates a carrier mode of one or more TDD carriers in the set of two or more TDD carriers, wherein the indication is received in a third subframe that is subsequent, in time, to the first subframe and prior, in time, to the second subframe, and wherein the carrier mode indicated is one of uplink, UL, transmit direction or downlink, DL, transmit direction of the one or more TDD carriers in the set of two or more TDD carriers; determining, based on the indication, one or more TDD carriers of the set of two or more TDD carriers to use for the communication in accordance with the grant; and performing the communication of the data on the determined one or more TDD carriers in accordance with the grant. receiving a grant that grants a communication of data on any of a set of two or more TDD carriers, wherein receiving the grant comprises receiving the grant in a first subframe, wherein the communication granted by the grant is for a second subframe that is subsequent, in time, to the first subframe; receiving an indication that indicates a carrier mode of one or more TDD carriers in the set of two or more TDD carriers, wherein the indication is received in a third subframe that is subsequent, in time, to the first subframe and prior, in time, to the second subframe, and wherein the carrier mode indicated is one of uplink, UL, transmit direction or downlink, DL, transmit direction of the one or more TDD carriers in the set of two or more TDD carriers; determining, based on the indication, one or more TDD carriers of the set of two or more TDD carriers to use for the communication in accordance with the grant; and performing the communication of the data on the determined one or more TDD carriers in accordance with the grant.
A method for full duplex communications on a wireless link between two transceiver devices, the method comprising: transmitting a first portion of outbound data to the other of the two transceiver devices on a first channel (506,514), while receiving a first portion of inbound data from the other of the two transceiver devices and detecting for the presence of a radiating source other than the inbound data on a second channel (508,512); and transmitting a second portion of the outbound data to the other of the two transceiver devices on the second channel (508,512), while receiving a second portion of the inbound data from the other of the two transceiver devices and detecting for the presence of a radiating source other than the inbound data on the first channel (506,514). transmitting a first portion of outbound data to the other of the two transceiver devices on a first channel (506,514), while receiving a first portion of inbound data from the other of the two transceiver devices and detecting for the presence of a radiating source other than the inbound data on a second channel (508,512); and transmitting a second portion of the outbound data to the other of the two transceiver devices on the second channel (508,512), while receiving a second portion of the inbound data from the other of the two transceiver devices and detecting for the presence of a radiating source other than the inbound data on the first channel (506,514).
Compressor element of a screw compressor for compressing gas, with the compressor element comprising a housing with an inlet for the gas on the inlet side, and an outlet for the gas on the outlet side and two rotor chambers in which two helical rotors (6 and 7) are mounted on bearings that upon being driven mesh together in order to compress the gas, respectively a male rotor with a drive for the male rotor and a female rotor that is driven by the male rotor by means of synchronisation gearwheels (24 and 25) with at least one synchronisation gearwheel on the male rotor and one synchronisation gearwheel on the female rotor, wherein the synchronisation gearwheel of the male rotor is provided with an oblique or helical toothing, whereby the pitch of the toothing of the synchronisation gearwheel and the pitch of the helix of the male rotor with respect to the axial direction (X-X') of the male rotor have the same orientation; characterised in that the drive on the male rotor comprises a drive gearwheel with a straight toothing or with an oblique or helical toothing of which the pitch of the toothing is oriented opposite to the pitch of the helix of the male rotor with respect to the axial direction (X-X') of the male rotor such that, when the compressor element is driven, it exerts little or no axial force on the male rotor or an axial force that is directed from the outlet side to the inlet side, respectively; or the male rotor has a direct drive, whereby the male rotor is directly coupled to a shaft of a motor for the drive; such that, upon being driven with acceleration of the rotors (6 and 7) of the compressor element without gas forces, the resulting mechanical drive force that is exerted by this drive and by this synchronisation gearwheel on the male rotor has an axial component (Fp and Fs) that is directed from the outlet side to the inlet side; and that the movement of the male rotor in the axial direction (X-X') from the outlet side to the inlet side is fixed by means of a single axial single-acting or double-acting bearing. the synchronisation gearwheel of the male rotor is provided with an oblique or helical toothing, whereby the pitch of the toothing of the synchronisation gearwheel and the pitch of the helix of the male rotor with respect to the axial direction (X-X') of the male rotor have the same orientation; characterised in that the drive on the male rotor comprises a drive gearwheel with a straight toothing or with an oblique or helical toothing of which the pitch of the toothing is oriented opposite to the pitch of the helix of the male rotor with respect to the axial direction (X-X') of the male rotor such that, when the compressor element is driven, it exerts little or no axial force on the male rotor or an axial force that is directed from the outlet side to the inlet side, respectively; or the male rotor has a direct drive, whereby the male rotor is directly coupled to a shaft of a motor for the drive;
A method for detecting GSSG (oxidized glutathione) comprising: a) contacting a sample with a sulfhydryl modifying agent, and optionally, a lysing agent; b) contacting the sample with an excess of a reducing agent, glutathione-S-transferase, and a substrate which is converted to a signal-generating compound in the presence of GSH and glutathione-S-transferase; and c) detecting a signal; wherein the substrate is a compound of formula wherein X is N or O; wherein R 1, R 2, R 3, R 4 and R 5 are independently H, C 1-6 alkyl, CF 3, halogen, NO 2, CO 2 R or any two adjacent R 1 -R 5 can form a fused ring provided that at least one of R 1, R 3 or R 5 is NO 2 and not all three are NO 2; and wherein R is H or C 1-6 alkyl. a) contacting a sample with a sulfhydryl modifying agent, and optionally, a lysing agent; b) contacting the sample with an excess of a reducing agent, glutathione-S-transferase, and a substrate which is converted to a signal-generating compound in the presence of GSH and glutathione-S-transferase; and c) detecting a signal;
A first apparatus, in a first node, for CoMP-based resource allocation for a second node, wherein the first node and the second node belong to the same CoMP cluster, the first apparatus comprising: a first selecting module configured to select a subset of CoMP hypotheses among a plurality of CoMP hypotheses based on measurement information reported by the second node, wherein the measurement information is associated with communication quality of the second node, wherein the CoMP hypotheses in the subset of CoMP hypotheses define dimensional conditions when the second node supports CoMP, wherein the dimensional conditions include limitations of a dimension that influences the CoMP transmission performance; a first transmitting module configured to transmit a resource allocation request to the second node, wherein the resource allocation request is for indicating the selected subset of CoMP hypotheses available for the second node to select and for indicating resource information corresponding to the CoMP hypotheses in the selected subset of CoMP hypotheses; a first receiving module configured to receive feedback information from the second node in response to the resource allocation request, wherein when the feedback information indicates a CoMP hypothesis selected by the second node and defines a dimensional condition having a limitation of a corresponding dimension when the second node supports CoMP, the first receiving module is configured to perform a corresponding operation comprising actuating a coordinated transmission with the second node on the corresponding dimension. a first selecting module configured to select a subset of CoMP hypotheses among a plurality of CoMP hypotheses based on measurement information reported by the second node, wherein the measurement information is associated with communication quality of the second node, wherein the CoMP hypotheses in the subset of CoMP hypotheses define dimensional conditions when the second node supports CoMP, wherein the dimensional conditions include limitations of a dimension that influences the CoMP transmission performance; a first transmitting module configured to transmit a resource allocation request to the second node, wherein the resource allocation request is for indicating the selected subset of CoMP hypotheses available for the second node to select and for indicating resource information corresponding to the CoMP hypotheses in the selected subset of CoMP hypotheses; a first receiving module configured to receive feedback information from the second node in response to the resource allocation request, wherein when the feedback information indicates a CoMP hypothesis selected by the second node and defines a dimensional condition having a limitation of a corresponding dimension when the second node supports CoMP, the first receiving module is configured to perform a corresponding operation comprising actuating a coordinated transmission with the second node on the corresponding dimension.
A cartridge for a medium to be dispensed comprising a rigid head part (6,7) having a dispensing outlet (12, 13) and a flexible film (4', 5') forming a cartridge wall (4, 5), with the film (4', 5') comprising at least one inner surface and an outer surface, and with the film (4', 5') bounding a cartridge chamber (2, 3) for the medium to be dispensed, extending at least partially in a longitudinal direction of the cartridge and having a front end (8, 9) that is connected to the head part (6,7), wherein the head part (6,7) comprises a collar (17, 18), with the collar (17, 18) surrounding the dispensing outlet (12, 13) in a radially outer region of the head part (6,7), extending in the longitudinal direction and having an inner circumferential surface, and wherein the front end (8, 9) of the film (4', 5') is sealingly and non-releasably connected to the inner circumferential surface of the collar (17, 18), wherein the inner circumferential surface of the collar (17, 18) is attached to the film (4', 5') at a contact surface (21, 25, 26) that is different from the outer surface of the film (4', 5'), characterised in that an additional intermediate film piece is provided between the front end (8, 9) of the film (4', 5') and the inner circumferential surface of the collar (17, 18), the intermediate film piece comprising an inner layer and an outer layer, wherein the material of the outer layer is configured to bond strongly to the material of the inner circumferential surface of the collar (17, 18) and the material of the inner layer is configured to bond strongly to the material of the outer surface of the film (4', 5') and wherein the materials of the inner layer and of the outer layer are different.