mhurhangee/patent-ind-claim-en huggingface dataset:
A method in a network node the method comprising: receiving, by a network node from a user equipment, UE, a first message comprising an active time request and a UE identifier of the UE; generating, by the network node, a second message comprising an active time response determined based on whether mobile terminated, MT, data is awaiting transmission to the UE; and sending , by the network node, the second message, characterized in that the active time request comprises a mostly mobile originating traffic, MMOT, support flag and the active time response comprises an active timer value, and wherein generating the second message further comprises: setting (304a.), by the network node, the active timer value to zero when a message waiting indication, MWI, flag in the network node is not set and the MMOT support flag is set to true; setting (304b.), by the network node, the active timer value to a preconfigured value when an MWI flag in the network node is set and the MMOT support flag is set to true, wherein the preconfigured value is determined based upon a type of MT data awaiting transmission; and setting, by the network node, the active timer value to a default value when the MWI flag is set and the MMOT support flag is set to false. receiving, by a network node from a user equipment, UE, a first message comprising an active time request and a UE identifier of the UE; generating, by the network node, a second message comprising an active time response determined based on whether mobile terminated, MT, data is awaiting transmission to the UE; and sending , by the network node, the second message, setting (304a.), by the network node, the active timer value to zero when a message waiting indication, MWI, flag in the network node is not set and the MMOT support flag is set to true; setting (304b.), by the network node, the active timer value to a preconfigured value when an MWI flag in the network node is set and the MMOT support flag is set to true, wherein the preconfigured value is determined based upon a type of MT data awaiting transmission; and setting, by the network node, the active timer value to a default value when the MWI flag is set and the MMOT support flag is set to false.
A rubber glove comprising: an inner layer composed of a crosslinked product of a rubber composition containing an acrylonitrile-butadiene rubber, and an outer layer composed of a crosslinked product of a rubber composition comprising an acrylonitrile-butadiene rubber and a chloroprene rubber, wherein the inner layer and the outer layer are adjacent to each other, and two or more types of chloroprene rubber having different crystallization rates are used as the chloroprene rubber.
Touch-sensitive toggle control system comprising a housing equipped with a front panel , and an angled lever comprising a first arm substantially perpendicular to this panel , exhibiting on one side a control button arranged on the front , and on the other side an elbow receiving a main pivot , which is extended by a second arm arranged on a first side of the longitudinal axis (A) of the first arm , characterized in that it comprises a rod comprising at one end a sliding link connected to the end of the second arm , comprising at the other end a system for maintaining in position which is arranged on the second side of the longitudinal axis (A), and comprising in a central part a fixed annex pivot for guiding.
A conductive backsheet for interconnecting rear-contact solar cells upon removal of connecting tabs from a conductive foil, the conductive backsheet comprising an interconnect circuit , the interconnect circuit comprising: an insulating layer ; and a patterned conductive foil comprising sets of interdigitated contact fingers , wherein the interdigitated contact fingers of each set of interdigitated contact fingers are defined by a pattern of discontinuous openings and connecting tabs separating the discontinuous openings , wherein, upon removal of the connecting tabs from the conductive foil , the sets of interdigitated contact fingers are electrically isolated from each other and are configured to overlap with contacts of the rear-contact solar cells , wherein the patterned conductive foil is attached to and is mechanically supported by the insulating layer thereby maintaining electrical isolation between the sets of interdigitated fingers of the patterned conductive foil , wherein the insulating layer comprises openings that are patterned to allow electrical connections between the sets of interdigitated fingers and the contacts of the rear-contact solar cells , wherein the patterned conductive foil comprises a front surface and a rear surface, wherein the front surface of the patterned conductive foil is laminated to the insulating layer , wherein the rear surface of the patterned conductive foil forms the rear surface of the interconnect circuit . an insulating layer ; and a patterned conductive foil comprising sets of interdigitated contact fingers , wherein the interdigitated contact fingers of each set of interdigitated contact fingers are defined by a pattern of discontinuous openings and connecting tabs separating the discontinuous openings , wherein, upon removal of the connecting tabs from the conductive foil , the sets of interdigitated contact fingers are electrically isolated from each other and are configured to overlap with contacts of the rear-contact solar cells , wherein the patterned conductive foil is attached to and is mechanically supported by the insulating layer thereby maintaining electrical isolation between the sets of interdigitated fingers of the patterned conductive foil , wherein the insulating layer comprises openings that are patterned to allow electrical connections between the sets of interdigitated fingers and the contacts of the rear-contact solar cells , wherein the patterned conductive foil comprises a front surface and a rear surface, wherein the front surface of the patterned conductive foil is laminated to the insulating layer , wherein the rear surface of the patterned conductive foil forms the rear surface of the interconnect circuit .
A ventilator arrangement for maintaining the end expiratory lung volume, EELV, of a subject when an external manoeuvre is performed on the subject ventilated by the ventilator arrangement, the ventilator arrangement being arranged to apply a set positive end-expiratory pressure, PEEP, level for performing the ventilation, the ventilator arrangement further being arranged to: - performing a ventilation pause in the ventilation of the subject prior to the external manoeuvre; - determining a possible change in airway pressure (ΔPaw) of the subject during pausing of the ventilation; and - resuming the ventilation of the subject after at least parts of the external manoeuvre, wherein an updated set level for the PEEP is applied, wherein the updated set level basically corresponds to the sum of the set PEEP level prior to pausing the ventilation and the determined possible change in airway pressure (ΔPaw) of the subject. - performing a ventilation pause in the ventilation of the subject prior to the external manoeuvre; - determining a possible change in airway pressure (ΔPaw) of the subject during pausing of the ventilation; and - resuming the ventilation of the subject after at least parts of the external manoeuvre, wherein an updated set level for the PEEP is applied, wherein the updated set level basically corresponds to the sum of the set PEEP level prior to pausing the ventilation and the determined possible change in airway pressure (ΔPaw) of the subject.
An electronic device, comprising: a housing mounted on a printed circuit board , wherein the housing includes a plurality of light pipes arranged to guide illumination from two or more light emitting devices mounted on the printed circuit board to lenses mounted on the housing and at least one separator positioned between two light pipes of the plurality of light pipes , characterized in that the at least one separator includes a tab on a first end extending through the housing and into a slot in the printed circuit board , and wherein a length of the tab varies based on a width of an input end for a respective light pipe. a housing mounted on a printed circuit board , wherein the housing includes a plurality of light pipes arranged to guide illumination from two or more light emitting devices mounted on the printed circuit board to lenses mounted on the housing and at least one separator positioned between two light pipes of the plurality of light pipes , characterized in that the at least one separator includes a tab on a first end extending through the housing and into a slot in the printed circuit board , and wherein a length of the tab varies based on a width of an input end for a respective light pipe.
An N -acetylglucosamine sugar chain group-containing polymer whose weight average molecular weight is within the range of 16,000 to 50,000, having 27 to 50 N- acetylglucosamine sugar chain groups per molecule.
A device for degassing a fluid in a circulation loop , comprising: a circulation loop , a degassing chamber having an inlet and an outlet coupled inline with the circulation loop, wherein a vacuum created within the degassing chamber draws out dissolved gas and water vapor from the fluid circulating in the circulation loop, the degassing chamber further having an opening in the degassing chamber, wherein the degassing chamber is configured and aligned to allow, during degassing, gas and water vapor drawn out from the fluid, and condensation formed from a portion of the water vapor drawn out from the fluid, to flow out of the degassing chamber via the opening as a result of gravitational pull; a water trap coupled to the opening in the degassing chamber; and an intervening cooler coupled in-between the opening in the degassing chamber and the water trap, wherein the intervening cooler comprises a heat exchanger configured to condense a remaining portion of the water vapor drawn out from the fluid into liquid, said degassing chamber, said water trap and said intervening cooler being maintained under vacuum, wherein the degassing chamber is maintained under vacuum from outside the degassing chamber through the opening via the intervening cooler, the intervening cooler being indirectly coupled to a vacuum pump through the water trap, and the water trap being directly coupled to the vacuum pump, wherein the condensation and liquid accumulate in the water trap. a circulation loop , a degassing chamber having an inlet and an outlet coupled inline with the circulation loop, wherein a vacuum created within the degassing chamber draws out dissolved gas and water vapor from the fluid circulating in the circulation loop, the degassing chamber further having an opening in the degassing chamber, wherein the degassing chamber is configured and aligned to allow, during degassing, gas and water vapor drawn out from the fluid, and condensation formed from a portion of the water vapor drawn out from the fluid, to flow out of the degassing chamber via the opening as a result of gravitational pull; a water trap coupled to the opening in the degassing chamber; and an intervening cooler coupled in-between the opening in the degassing chamber and the water trap, wherein the intervening cooler comprises a heat exchanger configured to condense a remaining portion of the water vapor drawn out from the fluid into liquid, said degassing chamber, said water trap and said intervening cooler being maintained under vacuum, wherein the degassing chamber is maintained under vacuum from outside the degassing chamber through the opening via the intervening cooler, the intervening cooler being indirectly coupled to a vacuum pump through the water trap, and the water trap being directly coupled to the vacuum pump, wherein the condensation and liquid accumulate in the water trap.
A cochlear implant headpiece for use with a cochlear implant, the cochlear implant headpiece comprising: a first headpiece portion defining a rotational axis (A); a second headpiece portion mounted on the first headpiece portion and rotatable relative to the first housing portion about the rotational axis, including a headpiece antenna and first and second microphones defining a microphone array axis, and having a center of gravity located such that the microphone array axis will be perpendicular to the gravitational direction when the rotational axis is perpendicular to the gravitational direction; and a headpiece magnet associated with the first headpiece portion. a first headpiece portion defining a rotational axis (A); a second headpiece portion mounted on the first headpiece portion and rotatable relative to the first housing portion about the rotational axis, including a headpiece antenna and first and second microphones defining a microphone array axis, and having a center of gravity located such that the microphone array axis will be perpendicular to the gravitational direction when the rotational axis is perpendicular to the gravitational direction; and a headpiece magnet associated with the first headpiece portion.
A method for wireless communications by a user equipment, UE, operating in a narrowband region of a wider system bandwidth, comprising: determining a presence of one or more downlink reference signals, RS, in a subframe and a bandwidth of the one or more downlink RS, wherein the bandwidth of the one or more downlink RS is greater than or equal to a bandwidth of the narrowband region ; monitoring for the one or more downlink RS in the subframe based on the determination ; determining one or more parameters for receiving at least one of: system information, a paging message, a random access response, RAR, message, or a radio resource control, RRC, configuration message based, at least in part, on the determination of the presence of one or more downlink RS in a subframe and the bandwidth of the one or more downlink RS; and monitoring for the at least one of: the system information, the paging message, the RAR message, or the RRC configuration message according to the determined one or more parameters; wherein the one or more parameters comprise at least one of: a frequency location, a time location, a repetition level, a Radio Network Temporary Identifier, RNTI, or a transmission mode comprising a demodulation reference signal, DMRS, based transmission mode or a cell-specific reference signal, CRS, based transmission mode; communicating using the DMRS based transmission mode using a first set of resources if the UE is a first type of UE; and communicating using the CRS based transmission mode using a second set of resources if the UE is a second type of UE. determining a presence of one or more downlink reference signals, RS, in a subframe and a bandwidth of the one or more downlink RS, wherein the bandwidth of the one or more downlink RS is greater than or equal to a bandwidth of the narrowband region ; monitoring for the one or more downlink RS in the subframe based on the determination ; determining one or more parameters for receiving at least one of: system information, a paging message, a random access response, RAR, message, or a radio resource control, RRC, configuration message based, at least in part, on the determination of the presence of one or more downlink RS in a subframe and the bandwidth of the one or more downlink RS; and monitoring for the at least one of: the system information, the paging message, the RAR message, or the RRC configuration message according to the determined one or more parameters; wherein the one or more parameters comprise at least one of: a frequency location, a time location, a repetition level, a Radio Network Temporary Identifier, RNTI, or a transmission mode comprising a demodulation reference signal, DMRS, based transmission mode or a cell-specific reference signal, CRS, based transmission mode; communicating using the DMRS based transmission mode using a first set of resources if the UE is a first type of UE; and communicating using the CRS based transmission mode using a second set of resources if the UE is a second type of UE.
A system comprising: a first component having a transmitter and a receiver , a second component having a receiver and a transmitter , and a communication link coupling the first and second components , the transmitter of the first component configured to transmit data, via a communication channel, to the receiver on the second component , the receiver on the second component configured to receive the data using a first parameter of the communication channel set as an operation value, and the receiver on the first component further configured to receive data to be transmitted by the transmitter on the second component using a second parameter of the communication channel set as the operation value; wherein the system further comprises: means for suspending normal transmission of data by the transmitter on the second component to execute a calibration cycle from time to time, the calibration cycle including: transmitting a calibration pattern using the transmitter on the first component and receiving the calibration pattern using the receiver on the second component with the first parameter set as a calibration value, retransmitting the calibration pattern using the transmitter on the second component to the receiver on the first component and determining, at the first component , a recalibrated value of the first parameter in response to the received calibration pattern. a first component having a transmitter and a receiver , a second component having a receiver and a transmitter , and a communication link coupling the first and second components , the transmitter of the first component configured to transmit data, via a communication channel, to the receiver on the second component , the receiver on the second component configured to receive the data using a first parameter of the communication channel set as an operation value, and the receiver on the first component further configured to receive data to be transmitted by the transmitter on the second component using a second parameter of the communication channel set as the operation value; transmitting a calibration pattern using the transmitter on the first component and receiving the calibration pattern using the receiver on the second component with the first parameter set as a calibration value, retransmitting the calibration pattern using the transmitter on the second component to the receiver on the first component and determining, at the first component , a recalibrated value of the first parameter in response to the received calibration pattern.
A linear grinding member comprising a composite yarn including inorganic filaments that has been stiffened with a resin binder , wherein the linear grinding member has a rectangular or elliptical cross-sectional shape and an aspect ratio which is in a range of 1.1 to 5.0; wherein the aspect ratio is the value obtained by dividing a dimension in the width direction (W) of the linear grinding member by a dimension in the thickness direction (T) of the linear grinding member; wherein the composite yarn has been twisted; and characterised in that a length dimension (S) of the linear grinding member corresponding to one turn of twisting is set in a range of 1 cm to 4 cm if the aspect ratio is in a range of 1.1 to 1.9, and is set in a range of 10 cm to 20 cm if the aspect ratio is in a range of 2.0 to 5.0.
A method for monitoring active seismic activity of an underground formation allowing a separation of induced microseismic signals from seismic signals emitted in the context of active seismic monitoring operations of said underground formation under development, including performing seismic recording cycles with the emission of seismic waves in the formation by coupling at least one seismic source (Si) therewith, receiving signals sent by the formation in response to the emission of seismic waves, recording signals received by at least one seismic sensor , characterized in that the induced microseismic signals and the emitted seismic signals are obtained only during the active seismic monitoring operation, and in that : - a reference spectral model is formed from a weighted average of a spectral contribution of said seismic source (Si) for the current cycle and spectral contributions of said seismic source (Si) for the previous recording cycles, at the emitted fundamental frequencies and their respective harmonics; - on the recordings, the induced microseismic signals are separated from the seismic signals resulting from the active monitoring operations, by isolating their contribution compared with said spectral reference model; and - the microseismic signals are reconstituted by inversion in the time domain. - a reference spectral model is formed from a weighted average of a spectral contribution of said seismic source (Si) for the current cycle and spectral contributions of said seismic source (Si) for the previous recording cycles, at the emitted fundamental frequencies and their respective harmonics; - on the recordings, the induced microseismic signals are separated from the seismic signals resulting from the active monitoring operations, by isolating their contribution compared with said spectral reference model; and - the microseismic signals are reconstituted by inversion in the time domain.
Method for feeding yarns or threads including metal wires to a textile machine (T) at a constant tension, or to a machine processing the metal wire, said feeding taking place discontinuously, that is with sequences of stages in which the yarn (F) moves with at least a first and at least a second condition of feeding or take-up by the machine which differ from each other, said conditions following each other in time, said feeding being performed by a yarn feeder device having tension detection means , yarn accumulator means driven by its own electric motor and control means connected to such tension detection means and accumulator means and capable of acting on such accumulator means on the basis of a tension value obtained from said tension detection means , provision being made for a compensator device associated with said feeder device acting together with the yarn (F) coming from said accumulator means before acting together with said tension detection means , said compensator device being able to compensate for changes in the feed or take-up conditions of the yarn (F) at the transition between each first and each second feed or take-up condition following upon the first, this enabling the control means for the feeder device to act on the accumulator means to alter its action on the yarn and maintain the value of the tension detected by the tension detection means constant over time and equal to a set value, said constant tension also being maintained during the stage of changing the feed conditions thanks to the interaction between said yarn and said compensator device , the compensator device including movable compensating means supporting a body capable of acting together with the yarn (F) at one free end, said movable compensating means being able to move from a predetermined resting position in the feed direction of yarn (F) when the yarn passes from a condition of lesser take-up to a condition of greater take-up, but moving in the opposite direction when the yarn (F) passes from a condition of greater take-up to a condition of lesser take-up, said compensating means returning to the resting position at the end of such change in take-up, characterised in that provision is made to control the movement of said compensating means through its own corresponding electric motor directly and rigidly attached to said compensating means and capable of directly controlling the movement of said compensating means , said compensating means being a rigid arm, the compensating arm being controlled according to the set or detected tension of the yarn (F) and the position measured during each stage in which it is fed to the textile machine.