mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use by a communication system, the method comprising: receiving (S2B01, S301a, S301b), in-band on a user plane of the communication system, from a user equipment, a parameter of service quality for a session between the user equipment and a data network; evaluating (S2B02) the parameter for a change of the parameter which indicates a changed service quality requirement; based on the evaluation, reporting (S2B04, S302) the change of the parameter to a control plane of the communication system; by the control plane, informing (S303) an access and mobility management function, AMF, of the communication system about the change of the parameter; and by the AMF, based on the change of the parameter, initiating (S2A02, S2A03, S2A04) re-location of a user plane network function by re-selecting at least one user plane network function of a plurality of user plane network functions on the user plane of the communication system, that meets the changed service quality requirement, and re-selecting a control plane network function on the control plane, that is associated with the re-selected at least one user plane network function that meets the changed service quality requirement. receiving (S2B01, S301a, S301b), in-band on a user plane of the communication system, from a user equipment, a parameter of service quality for a session between the user equipment and a data network; evaluating (S2B02) the parameter for a change of the parameter which indicates a changed service quality requirement; based on the evaluation, reporting (S2B04, S302) the change of the parameter to a control plane of the communication system; by the control plane, informing (S303) an access and mobility management function, AMF, of the communication system about the change of the parameter; and by the AMF, based on the change of the parameter, initiating (S2A02, S2A03, S2A04) re-location of a user plane network function by re-selecting at least one user plane network function of a plurality of user plane network functions on the user plane of the communication system, that meets the changed service quality requirement, and re-selecting a control plane network function on the control plane, that is associated with the re-selected at least one user plane network function that meets the changed service quality requirement.
An auxiliary drive for a trailer, in particular a camper, a boat trailer, a sales vehicle, a transport trailer or a car transport trailer, wherein the trailer includes a chassis and a living or working structure and the auxiliary drive includes at least one drive element , which can be engaged with a tread of a trailer wheel and includes at least one attachment and support device for attaching and supporting the auxiliary drive on the trailer, characterized in that the attachment and support device is arranged on a side and/or bottom wall of the living or working structure and/or on a transition area between the side and bottom wall of the living or working structure and/or on at least one intermediate element arranged on the side and/or bottom wall of the living or working structure and/or on the transition area of the living or working structure .
A method of identifying a cell resistant to a modulator of cereblon (CRBN), the method comprising detecting a mutation in the sequence of a region in an IKZF3 polynucleotide relative to an IKZF3 reference sequence, wherein said region encodes amino acids 148, 151, 152, 153, 155, 164 and 168 of an IKZF3 polypeptide in said cell, and wherein a mutation in one or more of said encoded amino acids indicates that the cell is resistant to a modulator of CRBN.
A method performed by a User Equipment, UE , for mobility enhancement, the UE configured with a first Small Data Transmission, SDT, configuration by a first cell, the method comprising: receiving a Radio Resource Control, RRC, release message comprising a suspend configuration from the first cell; transitioning to an RRC INACTIVE state in response to receiving the RRC release message; receiving , in the RRC INACTIVE state, a System Information Block Type 1, SIB1, comprising a second SDT configuration from a second cell; camping on the second cell in response to receiving the SIB1 from the second cell; and while the UE is camping on the second cell, refraining from using the first SDT configuration to initiate an SDT procedure associated with the second cell in a case that the UE does not support performing the SDT procedure associated with the second cell. receiving a Radio Resource Control, RRC, release message comprising a suspend configuration from the first cell; transitioning to an RRC INACTIVE state in response to receiving the RRC release message; receiving , in the RRC INACTIVE state, a System Information Block Type 1, SIB1, comprising a second SDT configuration from a second cell; camping on the second cell in response to receiving the SIB1 from the second cell; and while the UE is camping on the second cell, refraining from using the first SDT configuration to initiate an SDT procedure associated with the second cell in a case that the UE does not support performing the SDT procedure associated with the second cell.
A motor driven roller support assembly comprising: a motorized roller , said motorized roller having a cylindrical outer surface with said motorized roller configured to provide driving rotation whereby said outer surface rotates; a support frame , said motorized roller being mounted to said support frame ; a roller support , said roller support engaging said outer surface of said motorized roller ; wherein said roller support includes a pair of support wheels , and wherein said support wheels engage said outer surface of said motorized roller , characterized in that said support wheels are mounted to a pivot plate , and wherein a pivot axle connects said pivot plate with said support frame . a motorized roller , said motorized roller having a cylindrical outer surface with said motorized roller configured to provide driving rotation whereby said outer surface rotates; a support frame , said motorized roller being mounted to said support frame ; a roller support , said roller support engaging said outer surface of said motorized roller ; wherein said roller support includes a pair of support wheels , and wherein said support wheels engage said outer surface of said motorized roller , characterized in that said support wheels are mounted to a pivot plate , and wherein a pivot axle connects said pivot plate with said support frame .
Electrolysis system for decomposition of water to afford hydrogen and oxygen comprising at least two electrolysis modules , wherein each electrolysis module comprises at least two electrolysis cells , wherein an electrolysis cell comprises an anode space and a cathode space and the anode space is separated from the cathode space by a proton-exchange membrane, wherein at least one direct current-capable switching apparatus is arranged electrically in parallel with at least one electrolysis module , wherein the switching apparatus in a closed state has a lower electrical resistance than the electrolysis module , and wherein a diode in the forward direction and/or a low-ohm resistor is serially connected to the switching apparatus so as to maintain a polarity and a protective voltage for the electrolysis module .
Self-guided handling apparatus comprising an obstacle detection means which comprises a telemetry means arranged at the top of a mast, said detection means comprising a computer using the telemetric scatter plot to detect the obstacles and control the change in movement of said apparatus, characterized in that said telemetry means comprises a first laser providing horizontal scanning over 360° with an aperture of ±15° with respect to the horizontal plane, and at least one second laser having an aperture of -15 to -80° and providing scanning of at least 270°.
Method for transferring a first sample liquid from a first primary vessel into a first target vessel and a second sample liquid from a second primary vessel into a second target vessel with the aid of at least one automated pipetting apparatus comprising a system liquid in an automated analysis machine comprising a control machine, comprising the following steps: a) receiving a first liquid volume V1 of the first sample liquid with the aid of the pipetting apparatus from the first primary vessel , b) dispensing the first liquid volume V1 of the first sample liquid with the aid of the pipetting apparatus into an aliquot vessel , c) receiving a second liquid volume V2 of the first sample liquid with the aid of the pipetting apparatus from the aliquot vessel , d) dispensing the second liquid volume V2 of the first sample liquid with the aid of the pipetting apparatus into the first target vessel , e) receiving a third liquid volume V3 of the second sample liquid with the aid of the pipetting apparatus from the second primary vessel , f) dispensing the third liquid volume V3 of the second sample liquid with the aid of the pipetting apparatus into the second target vessel , characterized in that the third liquid volume V3 of the second sample liquid is automatically ascertained with the aid of the control machine in accordance with the following relationship: V 3 = a V 2 + b , where V2 denotes the second liquid volume of the first sample liquid, a denotes a predetermined liquid-volume-dependent correction factor and b denotes a predetermined liquid-volume-independent correction factor and where the correction factor a is unequal to one. a) receiving a first liquid volume V1 of the first sample liquid with the aid of the pipetting apparatus from the first primary vessel , b) dispensing the first liquid volume V1 of the first sample liquid with the aid of the pipetting apparatus into an aliquot vessel , c) receiving a second liquid volume V2 of the first sample liquid with the aid of the pipetting apparatus from the aliquot vessel , d) dispensing the second liquid volume V2 of the first sample liquid with the aid of the pipetting apparatus into the first target vessel , e) receiving a third liquid volume V3 of the second sample liquid with the aid of the pipetting apparatus from the second primary vessel , f) dispensing the third liquid volume V3 of the second sample liquid with the aid of the pipetting apparatus into the second target vessel ,
A control channel transmission method, wherein the method comprises: receiving (S210) a first control channel from a network device, wherein the first control channel information is mapped to M consecutively-numbered first transmission elements, the first control channel is used to schedule a data channel, a transmission element is the smallest unit used to transmit a control channel, and M>1, wherein each of the M first transmission elements comprises T groups of resource elements, REs, and a mapping manner of mapping the first control channel information to the M consecutively-numbered first transmission elements is: first occupying an i th group of REs in each of the M first transmission elements, and then occupying an (i+1) th group of REs in each first transmission element, wherein T ≥ 2, and a value of i ranges from 1 to T, wherein one RE of the REs includes one symbol in time domain, and one subcarrier in frequency domain; and receiving or sending (S220) the data channel based on the first control P channel information. receiving (S210) a first control channel from a network device, wherein the first control channel information is mapped to M consecutively-numbered first transmission elements, the first control channel is used to schedule a data channel, a transmission element is the smallest unit used to transmit a control channel, and M>1, wherein each of the M first transmission elements comprises T groups of resource elements, REs, and a mapping manner of mapping the first control channel information to the M consecutively-numbered first transmission elements is: first occupying an i th group of REs in each of the M first transmission elements, and then occupying an (i+1) th group of REs in each first transmission element, wherein T ≥ 2, and a value of i ranges from 1 to T, wherein one RE of the REs includes one symbol in time domain, and one subcarrier in frequency domain; and receiving or sending (S220) the data channel based on the first control P channel information.
A cochlear implant comprising a signal level detector configured to determine a total signal level of an incoming acoustic signal; a processing unit configured to determine, in accordance with the determined total signal level, an intermediate knee point for each of a plurality of frequency bands, and wherein the intermediate knee point is determined by interpolating, such as linearly interpolating, predefined knee point values for each of the plurality of frequency bands; a bandpass filter configured to generate a plurality of band limited audio signals in dependence upon the incoming acoustic signal, each band limited acoustic signal representing an associated audio frequency range relating to at least one electrode of a plurality of an implanted electrode array of the cochlear implant; and a pulse controller configured to deliver electrical stimulation signals to the plurality of electrodes of the implanted electrode array based on the generated band limited audio signals and the determined intermediate knee point corresponding to the frequency range; and characterized in that he processing unit is configured to access a look up table comprising the predefined knee point values corresponding to each of the plurality of frequency bands and a plurality of average signal levels, and wherein the predefined knee point values are statistically determined for different speech situations. a signal level detector configured to determine a total signal level of an incoming acoustic signal; a processing unit configured to determine, in accordance with the determined total signal level, an intermediate knee point for each of a plurality of frequency bands, and wherein the intermediate knee point is determined by interpolating, such as linearly interpolating, predefined knee point values for each of the plurality of frequency bands; a bandpass filter configured to generate a plurality of band limited audio signals in dependence upon the incoming acoustic signal, each band limited acoustic signal representing an associated audio frequency range relating to at least one electrode of a plurality of an implanted electrode array of the cochlear implant; and a pulse controller configured to deliver electrical stimulation signals to the plurality of electrodes of the implanted electrode array based on the generated band limited audio signals and the determined intermediate knee point corresponding to the frequency range; and characterized in that he processing unit is configured to access a look up table comprising the predefined knee point values corresponding to each of the plurality of frequency bands and a plurality of average signal levels, and wherein the predefined knee point values are statistically determined for different speech situations.
A management system for tires for construction and mine vehicles , characterized by comprising: a fatigue degree calculation section configured to calculate a fatigue degree of each of a plurality of front tires installed in a plurality of vehicles; a grouping processing section configured to group the plurality of front tires into a plurality of fatigue degree groups depending on calculated fatigue degrees; and an assignment processing section configured to assign, from among the plurality of front tires grouped, front tires belonging to a fatigue degree group as rear tires of a vehicle after rotation, wherein the term "after rotation" means after the front tires are rotated from front wheels to rear wheels. a fatigue degree calculation section configured to calculate a fatigue degree of each of a plurality of front tires installed in a plurality of vehicles; a grouping processing section configured to group the plurality of front tires into a plurality of fatigue degree groups depending on calculated fatigue degrees; and an assignment processing section configured to assign, from among the plurality of front tires grouped, front tires belonging to a fatigue degree group as rear tires of a vehicle after rotation, wherein the term "after rotation" means after the front tires are rotated from front wheels to rear wheels.
A user equipment, UE , comprising: a mobile termination, MT , configured to transmit and receive messages from a cellular network; and a terminal equipment, TE , configured to execute one or more applications to utilize one or more packet data network, PDN, connections of the cellular network or a wireless local area network, WLAN; and characterized in that the UE is configured to: cause a terminal adaptor, TA , of the UE to: forward an attention, AT, command received from the TE as an MT control command to the MT ; forward an MT status message generated by the MT as an AT command response to the TE ; and forward an unsolicited result code +CGEV generated by the MT to the TE , indicating whether a specific PDN connection can be offloaded from the cellular network to the WLAN, when acceptability of offloading the specific PDN connection changes. a mobile termination, MT , configured to transmit and receive messages from a cellular network; and a terminal equipment, TE , configured to execute one or more applications to utilize one or more packet data network, PDN, connections of the cellular network or a wireless local area network, WLAN; and forward an attention, AT, command received from the TE as an MT control command to the MT ; forward an MT status message generated by the MT as an AT command response to the TE ; and forward an unsolicited result code +CGEV generated by the MT to the TE , indicating whether a specific PDN connection can be offloaded from the cellular network to the WLAN, when acceptability of offloading the specific PDN connection changes.
An agricultural working machine, in particular a combine harvester, comprising a plurality of working members (2-7) for carrying out or supporting agricultural work, and a driver assist system for setting an optimised speed of rotation of at least one of the working members (2-7) based on detected operating parameters of the agricultural working machine , characterised in that there is provided a sensor system for monitoring noise and/or vibration development in the agricultural working machine during operation thereof, which is configured to determine a critical range of a set optimised speed, and the driver assist system causes this to be changed in such a way that it lies outside a defined threshold value range of a natural frequency of the agricultural working machine .
A system comprising: a mixer configured to mix a fuel stream with a solvent to form a mixed stream ; a first separator configured to separate the mixed stream, wherein the solvent of the mixed stream has a higher affinity for a second component of the fuel stream than for a first component of the fuel stream, into i) a first fuel fraction including the first component of the fuel stream and ii) a mixed fraction including the second component of the fuel stream based on a difference in volatility of the first fuel fraction and the mixed fraction; a second separator configured to separate the mixed fraction into a second fuel fraction including the second component of the fuel stream and a solvent fraction; and a controller configured to control one or more of the first separator and the second separator based on an operating characteristic of an engine of a vehicle. a mixer configured to mix a fuel stream with a solvent to form a mixed stream ; a first separator configured to separate the mixed stream, wherein the solvent of the mixed stream has a higher affinity for a second component of the fuel stream than for a first component of the fuel stream, into i) a first fuel fraction including the first component of the fuel stream and ii) a mixed fraction including the second component of the fuel stream based on a difference in volatility of the first fuel fraction and the mixed fraction; a second separator configured to separate the mixed fraction into a second fuel fraction including the second component of the fuel stream and a solvent fraction; and a controller configured to control one or more of the first separator and the second separator based on an operating characteristic of an engine of a vehicle.
A method comprising: generating , using a transmitter , an optical signal for each fiber incoherently combined in a fiber bundle ; transmitting the optical signal from each fiber as pulses at a target ; receiving , using a receiver array , the pulses of the optical signals ; and identifying one or more parameters of the target based on the pulses of the optical signals , further comprising: offsetting an optical frequency of the optical signal for each fiber , wherein the one or more parameters of the target are identified using the optical signals with offset optical frequencies, and wherein the optical frequencies are offset by a pulse repetition frequency of the pulses. generating , using a transmitter , an optical signal for each fiber incoherently combined in a fiber bundle ; transmitting the optical signal from each fiber as pulses at a target ; receiving , using a receiver array , the pulses of the optical signals ; and identifying one or more parameters of the target based on the pulses of the optical signals , further comprising: offsetting an optical frequency of the optical signal for each fiber , wherein the one or more parameters of the target are identified using the optical signals with offset optical frequencies, and wherein the optical frequencies are offset by a pulse repetition frequency of the pulses. offsetting an optical frequency of the optical signal for each fiber , wherein the one or more parameters of the target are identified using the optical signals with offset optical frequencies, and wherein the optical frequencies are offset by a pulse repetition frequency of the pulses.
Method for laser microdissection, comprising: initially setting at least one first system parameter and at least one second system parameter of a laser microdissection system in such a way that a desired value of a cut line parameter describing shape and appearance of a cut line of the laser microdissection system is present, wherein the at least one first system parameter is a cutting speed, wherein upon initial setting, the second system parameter is set at a first cutting speed by a user, increasing the cutting speed from the first cutting speed to a second cutting speed, and automatically setting the at least one second system parameter in such a way that the desired cut line parameter is kept constant at least within a given range, wherein the automatic setting depends on at least one characteristic which describes a dependence of the at least one second system parameter on the at least one first system parameter for at least one given cut line parameter. initially setting at least one first system parameter and at least one second system parameter of a laser microdissection system in such a way that a desired value of a cut line parameter describing shape and appearance of a cut line of the laser microdissection system is present, wherein the at least one first system parameter is a cutting speed, wherein upon initial setting, the second system parameter is set at a first cutting speed by a user, increasing the cutting speed from the first cutting speed to a second cutting speed, and automatically setting the at least one second system parameter in such a way that the desired cut line parameter is kept constant at least within a given range, wherein the automatic setting depends on at least one characteristic which describes a dependence of the at least one second system parameter on the at least one first system parameter for at least one given cut line parameter.