mhurhangee/patent-ind-claim-en huggingface dataset:
A network element comprising a transmitter for transmitting signals representing data to a communications device using shared resources of a downlink of a first wireless access interface provided by the network element, a receiver for receiving signals representing data from the communications device using shared resources of an uplink of the first wireless access interface, wherein allocations of the shared resources are made by the network element and the uplink of the first wireless access interface is within a first set of resources, and a controller for allocating a second set of resources formed in a predetermined set of uplink resources of the first set of resources for use by a second wireless access interface, the second wireless access interface being within the second set of resources and being used for device-to-device, D2D, communications by the communications device, wherein the network element is configured to receive, from the communications device upon the communications device entering a coverage area of the network element, an indication of resource allocations of a D2D virtual carrier established before the communications device entered the coverage area of the network element and being used by the communications device for D2D communications with one or more other communications devices, to determine to use, based on the received indication of the resource allocations of the D2D virtual carrier, the second set of resources, and to transmit, to the communications device, an indication of the second set of resources over which the D2D virtual carrier is to operate. a transmitter for transmitting signals representing data to a communications device using shared resources of a downlink of a first wireless access interface provided by the network element, a receiver for receiving signals representing data from the communications device using shared resources of an uplink of the first wireless access interface, wherein allocations of the shared resources are made by the network element and the uplink of the first wireless access interface is within a first set of resources, and a controller for allocating a second set of resources formed in a predetermined set of uplink resources of the first set of resources for use by a second wireless access interface, the second wireless access interface being within the second set of resources and being used for device-to-device, D2D, communications by the communications device, wherein the network element is configured to receive, from the communications device upon the communications device entering a coverage area of the network element, an indication of resource allocations of a D2D virtual carrier established before the communications device entered the coverage area of the network element and being used by the communications device for D2D communications with one or more other communications devices, to determine to use, based on the received indication of the resource allocations of the D2D virtual carrier, the second set of resources, and to transmit, to the communications device, an indication of the second set of resources over which the D2D virtual carrier is to operate.
A method performed by a user equipment, UE , the method comprising: • receiving (step 610) downlink reference signals from a transmit receive point, TRP (110; 210), over a set of UE receive beams via an antenna array; • selecting (step 620), from a set of UE transmit beams, a group of UE transmit beams, which correspond to UE receive beams having the highest received signal quality or received signal power level among those UE receive beams forming the set of UE receive beams; and • transmitting (step 630) a dynamic UE capability message to the TRP (110; 210), the dynamic UE capability message indicating: ∘ the number of UE transmit beams forming the group of UE transmit beams. • receiving (step 610) downlink reference signals from a transmit receive point, TRP (110; 210), over a set of UE receive beams via an antenna array; • selecting (step 620), from a set of UE transmit beams, a group of UE transmit beams, which correspond to UE receive beams having the highest received signal quality or received signal power level among those UE receive beams forming the set of UE receive beams; and • transmitting (step 630) a dynamic UE capability message to the TRP (110; 210), the dynamic UE capability message indicating: ∘ the number of UE transmit beams forming the group of UE transmit beams. ∘ the number of UE transmit beams forming the group of UE transmit beams.
An isolated eukaryotic host cell for recombinant production of a product of interest, wherein the genome of the eukaryotic cell is altered so that the effect of protein FAM60A is impaired in said cell because functional expression of gene FAM60A is reduced or eliminated by gene knock-out, gene mutation, gene deletion, gene silencing or a combination of any the foregoing, wherein gene mutation is selected from one or more frameshift mutations in the coding sequence, one or more introduced stop codons in the coding sequence, and/or one or more altered splicing sites, wherein gene silencing is achieved by antisense molecules generated within the cell by expression from an antisense construct that comprises the antisense strand as the transcribed strand, or is achieved by molecules that mediate RNA interference, wherein an RNA interference inducing compound is expressed by a vector that is stably transfected into the cell, wherein the FAM60A protein shares at least 75% identity to one or more of the amino acid sequences shown in SEQ ID NO: 1 to 8, and wherein said cell comprises integrated into its genome at least one heterologous polynucleotide encoding the product of interest comprised in an expression cassette, wherein the product of interest is a polypeptide selected from a therapeutic polypeptide and a diagnostic polypeptide. wherein gene mutation is selected from one or more frameshift mutations in the coding sequence, one or more introduced stop codons in the coding sequence, and/or one or more altered splicing sites, wherein gene silencing is achieved by antisense molecules generated within the cell by expression from an antisense construct that comprises the antisense strand as the transcribed strand, or is achieved by molecules that mediate RNA interference, wherein an RNA interference inducing compound is expressed by a vector that is stably transfected into the cell,
An electrolyte solution comprising a fluorine-based polymer electrolyte, wherein 40 mass% or more of polymer chain terminals of the fluorine-based polymer electrolyte is -CF 2 H as determined in the experimental section of the specification, a fluorine ion concentration (mass%) as determined in the experimental section of the specification is 0.10 to 500 ppm based on a solid-content mass of the fluorine-based polymer electrolyte, and an Fe concentration as determined in the experimental section of the specification is 0.01 to 10 ppm based on a solid-content mass of the fluorine-based polymer electrolyte, wherein the fluorine-based polymer electrolyte contains a -SO 3 X group, wherein X is hydrogen, an alkali metal, an alkaline-earth metal or NR 1 R 2 R 3 R 4 where R 1 , R 2 , R 3 and R 4 are each independently an alkyl group having 1 to 3 carbon atoms or hydrogen. 40 mass% or more of polymer chain terminals of the fluorine-based polymer electrolyte is -CF 2 H as determined in the experimental section of the specification, a fluorine ion concentration (mass%) as determined in the experimental section of the specification is 0.10 to 500 ppm based on a solid-content mass of the fluorine-based polymer electrolyte, and an Fe concentration as determined in the experimental section of the specification is 0.01 to 10 ppm based on a solid-content mass of the fluorine-based polymer electrolyte,
A multi-weight gravity-based energy storage system comprising: a first weight ; a second weight ; a first transporter comprising a first transporter linkage which is configured for coupling to and decoupling from the first weight for mechanically linking the first weight to the first transporter, the first transporter configured for transporting the first weight along a first pre-defined path defining a vertical displacement between a first upper position and a second lower position; a second transporter comprising a second transporter linkage which is configured for coupling to and decoupling from the second weight for mechanically linking the second weight to the second transporter, the second transporter configured for transporting the second weight along a second pre-defined path defining a vertical displacement between a first upper position and a second lower position; a first path volume defined by the area of the first weight coupled with the first transporter linkage developed or swept along the first pre-defined path; a second path volume defined by the area of the second weight coupled with the second transporter linkage developed or swept along the second pre-defined path; and a second linkage path volume defined by the area of the second linkage decoupled from a weight and developed or swept along a respective pre-defined path between an upper position and a lower position, the system characterized in that at least a portion of the second path volume overlaps with the first path volume and in that the second linkage path volume does not overlap with the first path volume. a first weight ; a second weight ; a first transporter comprising a first transporter linkage which is configured for coupling to and decoupling from the first weight for mechanically linking the first weight to the first transporter, the first transporter configured for transporting the first weight along a first pre-defined path defining a vertical displacement between a first upper position and a second lower position; a second transporter comprising a second transporter linkage which is configured for coupling to and decoupling from the second weight for mechanically linking the second weight to the second transporter, the second transporter configured for transporting the second weight along a second pre-defined path defining a vertical displacement between a first upper position and a second lower position; a first path volume defined by the area of the first weight coupled with the first transporter linkage developed or swept along the first pre-defined path; a second path volume defined by the area of the second weight coupled with the second transporter linkage developed or swept along the second pre-defined path; and a second linkage path volume defined by the area of the second linkage decoupled from a weight and developed or swept along a respective pre-defined path between an upper position and a lower position,
A process for preparing a pharmacoactive nutrient medium from marine algae characterized in that , said process comprises the steps of: - heating an aqueous slurry of live marine algae to a temperature in the range of 90 to 110 °C, for a time period in the range of 25 to 35 minutes to obtain a first mixture; - cooling said first mixture to 25 to 30 °C to obtain a cooled mixture; - centrifuging said cooled mixture at a speed of 6000 to 10000 rpm in an environment maintained at 4 °C to obtain a supernatant and a residue; and - separating said supernatant from said residue and concentrating said residue to 1/4 th of its volume to obtain said pharmacoactive nutrient medium. - heating an aqueous slurry of live marine algae to a temperature in the range of 90 to 110 °C, for a time period in the range of 25 to 35 minutes to obtain a first mixture; - cooling said first mixture to 25 to 30 °C to obtain a cooled mixture; - centrifuging said cooled mixture at a speed of 6000 to 10000 rpm in an environment maintained at 4 °C to obtain a supernatant and a residue; and - separating said supernatant from said residue and concentrating said residue to 1/4 th of its volume to obtain said pharmacoactive nutrient medium.
A method of a node capable of providing wireless connectivity in unlicensed frequency bands in a wireless communication system , comprising: receiving, at the node , at least one configuration parameter to configure the node for communication in an unlicensed frequency band; transitioning an operating state of the node from an enable state in which the node supports wireless connectivity in the unlicensed frequency band, to a flywheel state in which the node supports wireless connectivity in the unlicensed frequency band, the transition from the enable state to the flywheel state being based on the at least one configuration parameter and in response to the node losing clock synchronization with an external time reference; determining by use of a flywheel timer, a maximum duration for the flywheel state ; and transitioning, from the flywheel state to a disable state in which the node does not support wireless connectivity in the unlicensed frequency band, in response to expiration of the flywheel timer. receiving, at the node , at least one configuration parameter to configure the node for communication in an unlicensed frequency band; transitioning an operating state of the node from an enable state in which the node supports wireless connectivity in the unlicensed frequency band, to a flywheel state in which the node supports wireless connectivity in the unlicensed frequency band, the transition from the enable state to the flywheel state being based on the at least one configuration parameter and in response to the node losing clock synchronization with an external time reference; determining by use of a flywheel timer, a maximum duration for the flywheel state ; and transitioning, from the flywheel state to a disable state in which the node does not support wireless connectivity in the unlicensed frequency band, in response to expiration of the flywheel timer.
A pollution mask comprising: an air chamber ; a filter which forms a boundary directly between the air chamber and the ambient surroundings outside the air chamber; a fan for drawing air from outside the air chamber into the air chamber and/or drawing air from inside the air chamber to the outside; a means for determining a rotation speed of the fan; and a controller which is adapted to: derive a pressure or detect a pressure change in the air chamber from the rotation speed of the fan in that the fan speed is used as a proxy of pressure measurement such that no additional sensors are required; and determine whether the mask is worn or not based on the derived pressure or pressure change. an air chamber ; a filter which forms a boundary directly between the air chamber and the ambient surroundings outside the air chamber; a fan for drawing air from outside the air chamber into the air chamber and/or drawing air from inside the air chamber to the outside; a means for determining a rotation speed of the fan; and a controller which is adapted to: derive a pressure or detect a pressure change in the air chamber from the rotation speed of the fan in that the fan speed is used as a proxy of pressure measurement such that no additional sensors are required; and determine whether the mask is worn or not based on the derived pressure or pressure change. derive a pressure or detect a pressure change in the air chamber from the rotation speed of the fan in that the fan speed is used as a proxy of pressure measurement such that no additional sensors are required; and determine whether the mask is worn or not based on the derived pressure or pressure change.
A system for managing failover regions of a network-based computing system, the system comprising: one or more computing devices associated with a regional failover management system , wherein the regional failover management system is configured to: identify a list of target failover regions; obtain a list of processing rules, the processing rules defining at least one associated parameter and threshold associated with characterizing the identified list of target failover regions; determine a list of available failover regions based on application of the obtained list of processing rules to the identified list of target failover regions; characterize at least one failover region as unavailable based on application of the obtained list of processing rules to the identified list of target failover regions; and perform at least one rules engine operation responsive to the determined list of available failover regions, wherein the at least one rules engine operation comprises remediating one or more of the at least one failover region characterized as unavailable. identify a list of target failover regions; obtain a list of processing rules, the processing rules defining at least one associated parameter and threshold associated with characterizing the identified list of target failover regions; determine a list of available failover regions based on application of the obtained list of processing rules to the identified list of target failover regions; characterize at least one failover region as unavailable based on application of the obtained list of processing rules to the identified list of target failover regions; and perform at least one rules engine operation responsive to the determined list of available failover regions, wherein the at least one rules engine operation comprises remediating one or more of the at least one failover region characterized as unavailable.
Roller for an agricultural conveyor device for harvested crop, comprising an elongated roller body , the longitudinal midaxis of which corresponds during operation to an axis of rotation of the roller , and comprising a working tool releasably fixed relative to the roller body for acting on the harvested crop, wherein the working tools are arranged on at least two successive partial shells that cover the roller body in the circumferential direction and are releasably fixed to the roller body via at least one fastening means, characterized in that the partial shells are arranged centrally, as seen in a direction transverse to the longitudinal midaxis , between outer fixed tools that are arranged firmly on the roller body .
A non-naturally occurring CRISPR-Cas system comprising a vector comprising a bidirectional H1 promoter, wherein the bidirectional H1 promoter comprises: a) control elements that provide for transcription in one direction of at least one nucleotide sequence encoding a CRISPR-Cas system guide RNA (gRNA), wherein the gRNA hybridizes with a target sequence of a DNA molecule in a cell, and wherein the DNA molecule encodes one or more gene products expressed in the cell; and b) control elements that provide for transcription in the opposite direction of a nucleotide sequence encoding a Cas9 protein, wherein the gRNA targets and hybridizes with the target sequence and the Cas9 protein cleaves the DNA molecule to alter expression of the one or more gene products, and wherein said system is packaged into a single adeno-associated virus (AAV) particle. a) control elements that provide for transcription in one direction of at least one nucleotide sequence encoding a CRISPR-Cas system guide RNA (gRNA), wherein the gRNA hybridizes with a target sequence of a DNA molecule in a cell, and wherein the DNA molecule encodes one or more gene products expressed in the cell; and b) control elements that provide for transcription in the opposite direction of a nucleotide sequence encoding a Cas9 protein,
A method for a vehicle-to-X, V2X, operation in a wireless communication system, the method performed by a V2X user equipment , V2X UE, comprising: receiving information regarding a threshold related to congestion of a channel, wherein the threshold is used for determining whether the V2X UE keeps using a current carrier selected for a transmission of the V2X operation; determining (S1410) whether to perform a carrier switch from the current carrier to another carrier based on (i) the threshold and (ii) channel congestion level related to the current carrier; and performing (S1420) the V2X operation on at least one V2X resource of the current carrier or the another carrier based on the determination, wherein, based on the channel congestion level related to the current carrier being below the threshold, the V2X UE does not perform the carrier switch, keeps the current carrier and performs the V2X operation on the at least one V2X resource of the current carrier, based on the channel congestion level related to the current carrier being not below the threshold, the V2X UE performs the carrier switch and performs the V2X operation on the at least one V2X resource of the another carrier, and wherein the channel congestion level related to the current carrier is determined based on a measured sidelink received signal strength indicator, S-RSSI, related to a V2X resource pool of the current carrier . receiving information regarding a threshold related to congestion of a channel, wherein the threshold is used for determining whether the V2X UE keeps using a current carrier selected for a transmission of the V2X operation; determining (S1410) whether to perform a carrier switch from the current carrier to another carrier based on (i) the threshold and (ii) channel congestion level related to the current carrier; and performing (S1420) the V2X operation on at least one V2X resource of the current carrier or the another carrier based on the determination, wherein, based on the channel congestion level related to the current carrier being below the threshold, the V2X UE does not perform the carrier switch, keeps the current carrier and performs the V2X operation on the at least one V2X resource of the current carrier, based on the channel congestion level related to the current carrier being not below the threshold, the V2X UE performs the carrier switch and performs the V2X operation on the at least one V2X resource of the another carrier, and wherein the channel congestion level related to the current carrier is determined based on a measured sidelink received signal strength indicator, S-RSSI, related to a V2X resource pool of the current carrier .
A medical device support system , comprising: a central shaft ; an extension arm having a support for a medical device and a hub at its proximal end mounted to the central shaft for pivotable movement about the central shaft ; and, a brake assembly secured in the hub for rotation therewith and including first and second discrete arc shape clamp pieces configured to flex toward and away from each other to respectively increase and decrease a frictional braking force to the central shaft ; wherein the hub includes a hub access opening configured to allow passage therethrough of at least one of the arc shape clamp pieces . a central shaft ; an extension arm having a support for a medical device and a hub at its proximal end mounted to the central shaft for pivotable movement about the central shaft ; and, a brake assembly secured in the hub for rotation therewith and including first and second discrete arc shape clamp pieces configured to flex toward and away from each other to respectively increase and decrease a frictional braking force to the central shaft ; wherein the hub includes a hub access opening configured to allow passage therethrough of at least one of the arc shape clamp pieces .