mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting uplink control information, UCI, the method comprising: a wireless transmit receive unit, WTRU, receiving a radio resource control, RRC message, wherein the RRC message comprises information indicating physical uplink shared channel, PUSCH, resources for the WTRU, and the RRC message indicates whether or not uplink control information, UCI, can be multiplexed with data on the PUSCH resources; the WTRU determining to transmit first UCI during a time period that overlaps with a transmission opportunity associated with the PUSCH resources; and the WTRU transmitting the first UCI wherein the WTRU multiplexes the first UCI on the PUSCH resources associated with the transmission opportunity if the RRC message indicates that UCI can be multiplexed with data on the PUSCH resources, and the WTRU transmits the first UCI on one or more physical uplink control channel, PUCCH, resources if the RRC message indicates that UCI cannot be multiplexed with data on the PUSCH resources. the WTRU determining to transmit first UCI during a time period that overlaps with a transmission opportunity associated with the PUSCH resources; and the WTRU transmitting the first UCI wherein the WTRU multiplexes the first UCI on the PUSCH resources associated with the transmission opportunity if the RRC message indicates that UCI can be multiplexed with data on the PUSCH resources, and the WTRU transmits the first UCI on one or more physical uplink control channel, PUCCH, resources if the RRC message indicates that UCI cannot be multiplexed with data on the PUSCH resources.
An inkjet recording medium comprising: a paper substrate; and an inkjet-receptive coating comprising: a primary pigment having an average particle size of less than 1 micron and a BET surface area in the range 5 to 20 m 2 /g; a secondary pigment having an average particle size of 3 to 5 microns; a multivalent salt; and a binder, wherein said binder is compatible with the multivalent salt and present in an amount from about 2 to 15 parts by weight based on 100 parts total pigments, wherein the binder comprises: a natural latex binder comprising starch nanoparticles having an average particle size of less than 400 nm; or a biopolymer latex conjugate comprising a biopolymer-additive complex reacted with a crosslinking agent. a paper substrate; and an inkjet-receptive coating comprising: a primary pigment having an average particle size of less than 1 micron and a BET surface area in the range 5 to 20 m 2 /g; a secondary pigment having an average particle size of 3 to 5 microns; a multivalent salt; and a binder, wherein said binder is compatible with the multivalent salt and present in an amount from about 2 to 15 parts by weight based on 100 parts total pigments, wherein the binder comprises: a natural latex binder comprising starch nanoparticles having an average particle size of less than 400 nm; or a biopolymer latex conjugate comprising a biopolymer-additive complex reacted with a crosslinking agent. a primary pigment having an average particle size of less than 1 micron and a BET surface area in the range 5 to 20 m 2 /g; a secondary pigment having an average particle size of 3 to 5 microns; a multivalent salt; and a binder, wherein said binder is compatible with the multivalent salt and present in an amount from about 2 to 15 parts by weight based on 100 parts total pigments, wherein the binder comprises: a natural latex binder comprising starch nanoparticles having an average particle size of less than 400 nm; or a biopolymer latex conjugate comprising a biopolymer-additive complex reacted with a crosslinking agent. a natural latex binder comprising starch nanoparticles having an average particle size of less than 400 nm; or a biopolymer latex conjugate comprising a biopolymer-additive complex reacted with a crosslinking agent.
A method for producing a polypeptide multimer that comprises a first polypeptide having an antigen-binding activity and a second polypeptide having an antigen-binding activity or no antigen-binding activity, which comprises the steps of: (a) expressing a DNA that encodes the first polypeptide and a DNA that encodes the second polypeptide; and (b) collecting the expression product of step (a) by protein A affinity chromatography, wherein the first polypeptide and the second polypeptide comprise an amino acid sequence of an antibody Fc domain or an amino acid sequence of an antibody heavy-chain constant region; wherein the antibody Fc domain or antibody heavy-chain constant region is derived from human IgG; wherein the amino acid residue at position 435, according to EU numbering, in the amino acid sequence of the Fc domain or heavy-chain constant region is histidine or arginine in the first polypeptide and arginine or histidine respectively in the second polypeptide; wherein the amino acid combination at positions 356 and 439 in the amino acid sequence of the Fc region or heavy chain constant region of the first polypeptide have been modified to amino acids with the same electric charge; and wherein the amino acid combination at positions 356 and 439 in the amino acid sequence of the Fc region or heavy chain constant region of the second polypeptide have been modified to amino acids with an electric charge opposite to that of positions 356 and 439 of the first polypeptide. (a) expressing a DNA that encodes the first polypeptide and a DNA that encodes the second polypeptide; and (b) collecting the expression product of step (a) by protein A affinity chromatography, wherein the first polypeptide and the second polypeptide comprise an amino acid sequence of an antibody Fc domain or an amino acid sequence of an antibody heavy-chain constant region;
A method, comprising: (a) connecting to a base station by a user equipment, UE , in a wireless communication system ; and (b) performing measurements by the UE , wherein the measurements are performed on interference-protected subframes; (c) performing measurements by the UE , wherein the measurements are performed on non-interference-protected subframes; and (d) transmitting measurement results of the measurements performed in (b) and (c) to the base station for radio resource management, wherein: the UE performs measurement of received signal reference power, RSRP, or received signal reference quality, RSRQ, of a serving cell for mobility management on all subframes as a first measurement and on interference-protected subframes as a second measurement, and the UE reports both measurements to the base station. (a) connecting to a base station by a user equipment, UE , in a wireless communication system ; and (b) performing measurements by the UE , wherein the measurements are performed on interference-protected subframes; (c) performing measurements by the UE , wherein the measurements are performed on non-interference-protected subframes; and (d) transmitting measurement results of the measurements performed in (b) and (c) to the base station for radio resource management, wherein: the UE performs measurement of received signal reference power, RSRP, or received signal reference quality, RSRQ, of a serving cell for mobility management on all subframes as a first measurement and on interference-protected subframes as a second measurement, and the UE reports both measurements to the base station. the UE performs measurement of received signal reference power, RSRP, or received signal reference quality, RSRQ, of a serving cell for mobility management on all subframes as a first measurement and on interference-protected subframes as a second measurement, and the UE reports both measurements to the base station.
A battery assembly for an implantable medical device , the assembly comprising: an electrode stack comprising a plurality of electrode plates , wherein the plurality of electrode plates comprises a first electrode plate including a first tab extending from the first electrode plate and a second electrode plate including a second tab extending from the second electrode plate; an alignment member extending through the first tab and the second tab; and a weld on a side of the electrode stack extending from the first tab to the second tab, wherein the weld penetrates into the alignment member. an electrode stack comprising a plurality of electrode plates , wherein the plurality of electrode plates comprises a first electrode plate including a first tab extending from the first electrode plate and a second electrode plate including a second tab extending from the second electrode plate; an alignment member extending through the first tab and the second tab; and a weld on a side of the electrode stack extending from the first tab to the second tab, wherein the weld penetrates into the alignment member.
A biodegradable implant comprising a hydrogel carrier matrix having dispersed therein a multitude of spheroidal particles, each spheroidal particle including a crosslinked cationic chitosan (CHT) having dispersed therein anionic poly(methacrylic-co-methyl methacrylate) (PMMA) nanoparticles, wherein the hydrogel carrier matrix comprises at least one anionic polysaccharide, and wherein each of the spheroidal particles includes dispersed therein a first active pharmaceutical ingredient (API).
A method for depositing a gas diffusion electrode and an electrolyte on a microelectromechanical system (MEMS) electrochemical sensor, the method comprising: providing a ridge along the perimeter of a surface of a substrate , wherein the ridge is tapered to provide a sharp edge configured to cut the electrolyte ; providing a blade on the surface of the substrate tapered to provide a sharp edge configured to cut through the electrode, wherein the height of the ridge is greater than the height of the blade , wherein the ridge is positioned to surround the blade , thereby forming pockets positioned along the surface between the blade and the ridge ; pressing the gas diffusion electrode and the electrolyte onto the ridge and the blade, thereby cutting the gas diffusion electrode into multiple electrodes ; wherein the electrolyte is positioned to contact the top of the gas diffusion electrode ; and wherein the electrolyte is a solid polymer electrolyte which has been precast as a large sheet with the gas diffusion electrode deposited on one side. providing a ridge along the perimeter of a surface of a substrate , wherein the ridge is tapered to provide a sharp edge configured to cut the electrolyte ; providing a blade on the surface of the substrate tapered to provide a sharp edge configured to cut through the electrode, wherein the height of the ridge is greater than the height of the blade , wherein the ridge is positioned to surround the blade , thereby forming pockets positioned along the surface between the blade and the ridge ; pressing the gas diffusion electrode and the electrolyte onto the ridge and the blade, thereby cutting the gas diffusion electrode into multiple electrodes ; wherein the electrolyte is positioned to contact the top of the gas diffusion electrode ; and wherein the electrolyte is a solid polymer electrolyte which has been precast as a large sheet with the gas diffusion electrode deposited on one side.
A method of a User Equipment, in the following also referred to as UE, comprising: triggering a first beam failure recovery, in the following also referred to as BFR, associated with a first cell if the first cell is a Secondary Cell, in the following also referred to as SCell, of the UE ; and responsive to the first triggered BFR, triggering a Scheduling Request, in the following also referred to as SR, for SCell BFR associated with the first cell based upon the first triggered BFR being not canceled and based upon an unavailability of UL-SCH resources for accommodating a BFR Medium Access Control, in the following also referred to as MAC, Control Element, in the following also referred to as CE, and a subheader of the BFR MAC CE, and performing a BFR procedure comprising transmission of the SR ; characterized by further comprising: responsive to deactivation of the first cell, not stopping the transmission of the SR if the UE has an activated cell, other than the first cell, associated with a second triggered BFR. triggering a first beam failure recovery, in the following also referred to as BFR, associated with a first cell if the first cell is a Secondary Cell, in the following also referred to as SCell, of the UE ; and responsive to the first triggered BFR, triggering a Scheduling Request, in the following also referred to as SR, for SCell BFR associated with the first cell based upon the first triggered BFR being not canceled and based upon an unavailability of UL-SCH resources for accommodating a BFR Medium Access Control, in the following also referred to as MAC, Control Element, in the following also referred to as CE, and a subheader of the BFR MAC CE, and performing a BFR procedure comprising transmission of the SR ; characterized by further comprising: responsive to deactivation of the first cell, not stopping the transmission of the SR if the UE has an activated cell, other than the first cell, associated with a second triggered BFR.
A method of operating an apparatus, comprising: a routing circuit configured to: couple a first resistor (R1) across positive and negative inputs (Pi+, Pi-) of a first input port in accordance with a first configuration, wherein the positive and negative inputs of the first input port is configured to be coupled to positive and negative terminals of a photovoltaic cell; decouple the first resistor from the first input port in accordance with a second configuration; and couple the first input port to an output port (Po+) in accordance with the second configuration, wherein the output port is configured to be coupled to a measurement equipment; and a controller configured to generate at least one control signal to selectively configure the routing circuit in the first or second configuration based on a mode select signal. a routing circuit configured to: couple a first resistor (R1) across positive and negative inputs (Pi+, Pi-) of a first input port in accordance with a first configuration, wherein the positive and negative inputs of the first input port is configured to be coupled to positive and negative terminals of a photovoltaic cell; decouple the first resistor from the first input port in accordance with a second configuration; and couple the first input port to an output port (Po+) in accordance with the second configuration, wherein the output port is configured to be coupled to a measurement equipment; and couple a first resistor (R1) across positive and negative inputs (Pi+, Pi-) of a first input port in accordance with a first configuration, wherein the positive and negative inputs of the first input port is configured to be coupled to positive and negative terminals of a photovoltaic cell; decouple the first resistor from the first input port in accordance with a second configuration; and couple the first input port to an output port (Po+) in accordance with the second configuration, wherein the output port is configured to be coupled to a measurement equipment; and a controller configured to generate at least one control signal to selectively configure the routing circuit in the first or second configuration based on a mode select signal.
A method, comprising: identifying, for a display device , an IR voltage drop effect on a pixel of a column of pixels supplied by a supply voltage line in the display device , wherein identifying the IR voltage drop effect on the pixel comprises: calculating, for the pixel, a plurality of current values associated with other pixels of the column of pixels in response to upcoming refreshes of the other pixels; and calculating the IR voltage drop effect on the pixel based on the plurality of current values associated with other pixels of the column of pixels in response to upcoming refreshes of the other pixels; and generating, for the display device, a brightness signal for the pixel based at least in part on the IR voltage drop effect, wherein the brightness signal compensates for the calculated IR voltage drop effect on the pixel ; and refreshing the pixels in a row-by-row fashion using the brightness signals. calculating, for the pixel, a plurality of current values associated with other pixels of the column of pixels in response to upcoming refreshes of the other pixels; and calculating the IR voltage drop effect on the pixel based on the plurality of current values associated with other pixels of the column of pixels in response to upcoming refreshes of the other pixels; and generating, for the display device, a brightness signal for the pixel based at least in part on the IR voltage drop effect, wherein the brightness signal compensates for the calculated IR voltage drop effect on the pixel ; and refreshing the pixels in a row-by-row fashion using the brightness signals.
A gas turbine engine comprising: a compressor section and a turbine section configured to receive a core flow (C); a combustor section fluidly arranged between the compressor and turbine sections ; and a diffuser arranged fluidly between the compressor section and the combustor section , wherein the diffuser comprises: a diffuser housing having a circumferential array of hollow struts providing a cavity , the diffuser housing including inlet and outlet apertures in fluid communication with the cavity , and wherein the diffuser housing includes inner and outer flow path surfaces joined by the struts and configured to provide a core flow path (C) for a core flow (C), characterised by the diffuser housing including an opening on a trailing end of the struts in fluid communication with the cavity , the diffuser housing configured to introduce a fluid (F) through the inlet aperture and receive the core flow (C) through the opening , the fluid (F) and core flow (C) exiting through the outlet aperture . a compressor section and a turbine section configured to receive a core flow (C); a combustor section fluidly arranged between the compressor and turbine sections ; and a diffuser arranged fluidly between the compressor section and the combustor section , wherein the diffuser comprises: a diffuser housing having a circumferential array of hollow struts providing a cavity , the diffuser housing including inlet and outlet apertures in fluid communication with the cavity , and wherein the diffuser housing includes inner and outer flow path surfaces joined by the struts and configured to provide a core flow path (C) for a core flow (C), characterised by the diffuser housing including an opening on a trailing end of the struts in fluid communication with the cavity , the diffuser housing configured to introduce a fluid (F) through the inlet aperture and receive the core flow (C) through the opening , the fluid (F) and core flow (C) exiting through the outlet aperture .
A bearing supporting assembly, comprising: a bearing support , provided with a through hole ; a fixing plate , detachably mounted at one end of the bearing support along an axial direction of the through hole ; a radial bearing , mounted in the through hole ; a first thrust bearing , mounted on a side, away from the bearing support , of the fixing plate ; and a shell ; wherein a first end of the bearing support is connected to the fixing plate , characterised in that a second end of the bearing support is connected to the shell , and radial outline dimensions of the bearing support gradually increase from the first end to the second end thereof. a bearing support , provided with a through hole ; a fixing plate , detachably mounted at one end of the bearing support along an axial direction of the through hole ; a radial bearing , mounted in the through hole ; a first thrust bearing , mounted on a side, away from the bearing support , of the fixing plate ; and a shell ; wherein a first end of the bearing support is connected to the fixing plate , characterised in that a second end of the bearing support is connected to the shell , and radial outline dimensions of the bearing support gradually increase from the first end to the second end thereof.
Amylase having a sequence identity of at least 67% to SEQ ID NO. 1 and differing from SEQ ID NO: 1 by two or more substitutions, independently chosen from the following groups: i) positions in the numbering according to SEQ ID NO. 1: 3, 475, 314, ii) 4,476, 315, wherein each substitution of group i) is independently selected from any of A, D, E, F, G, H, I, K, L, P, R, S, T, V, W, Y, and wherein each substitution of group ii) is independently selected from any of F, Y, L, I, W, R, E, M. i) positions in the numbering according to SEQ ID NO. 1: 3, 475, 314, ii) 4,476, 315,
An asphalt finisher comprising: a tractor ; a hopper installed in front of the tractor to receive paving material (PM); a conveyor (CV) configured to convey the paving material (PM) in the hopper to a rear side of the tractor ; a screw (SC) configured to lay and spread the paving material (PM) conveyed by the conveyor (CV) behind the tractor ; and a screed configured to lay and level the paving material (PM) laid and spread by the screw (SC) behind the screw (SC), further comprising: a space recognition device (CM) configured to monitor a state in the hopper ; and a controller configured to move the hopper based on an output of the space recognition device (CM), characterized in that : the controller is configured to close the hopper in response to determining that an amount of the paving material (PM) in the hopper is less than a predetermined amount. a tractor ; a hopper installed in front of the tractor to receive paving material (PM); a conveyor (CV) configured to convey the paving material (PM) in the hopper to a rear side of the tractor ; a screw (SC) configured to lay and spread the paving material (PM) conveyed by the conveyor (CV) behind the tractor ; and a screed configured to lay and level the paving material (PM) laid and spread by the screw (SC) behind the screw (SC), further comprising: a space recognition device (CM) configured to monitor a state in the hopper ; and a controller configured to move the hopper based on an output of the space recognition device (CM), characterized in that : the controller is configured to close the hopper in response to determining that an amount of the paving material (PM) in the hopper is less than a predetermined amount. a space recognition device (CM) configured to monitor a state in the hopper ; and a controller configured to move the hopper based on an output of the space recognition device (CM), characterized in that : the controller is configured to close the hopper in response to determining that an amount of the paving material (PM) in the hopper is less than a predetermined amount.
Feeding arrangement in combination with a compactor intended to be arranged next to a collection container for waste, said compactor having a compacting compartment with a feeding aperture via which it is arranged for the waste from a container to be emptied, whereby the waste is moving along a track towards a bottom of the compacting compartment , and a pendulum device is arranged to move the waste on from the compacting compartment , via a compacting aperture , to the collection container for storing the waste, characterised in that the feeding arrangement is arranged essentially opposite to the track in the compacting compartment , whereby the feeding arrangement is provided with a swing arm turnable back and forth around a shaft that, in use, is essentially horizontal and is arranged perpendicularly to the working direction of the pendulum device , and the swing arm is provided with a tip displaceable relative to said shaft , whereby the tip is arranged to adopt a rotational movement in a vertical plane such, that said tip, in its movement back towards the shaft , will essentially follow the waste track.