mhurhangee/patent-ind-claim-en huggingface dataset:
A terminal for communicating with a base station apparatus , the terminal comprising: a controller configured to : obtain a peak Effective Isotropic Radiated Power, EIRP, from EIRP in a peak direction of a transmission beam of uplink signals; define a first maximum transmission power by the peak EIRP; set a second maximum transmission power according to the first maximum transmission power and based on an information related to antenna gain in a direction in which the terminal is performing transmission; set transmission power based on the second maximum transmission power; and a transmitter configured to transmit an uplink signal based on the transmission power, wherein the transmitter is configured to transmit information for reporting a power head room based on information related to the antenna gain in the direction in which the terminal is performing transmission. obtain a peak Effective Isotropic Radiated Power, EIRP, from EIRP in a peak direction of a transmission beam of uplink signals; define a first maximum transmission power by the peak EIRP; set a second maximum transmission power according to the first maximum transmission power and based on an information related to antenna gain in a direction in which the terminal is performing transmission; set transmission power based on the second maximum transmission power; and a transmitter configured to transmit an uplink signal based on the transmission power, wherein the transmitter is configured to transmit information for reporting a power head room based on information related to the antenna gain in the direction in which the terminal is performing transmission.
An inflatable garment comprising: at least one inflatable chamber ; a connecting fluid tube ; a garment fluid connector in fluidic connection with the at least one inflatable chamber via the connecting fluid tube , wherein the garment fluid connector includes a circular connector barrel that has a longitudinal length, an inside diameter and an outside diameter; and wherein the longitudinal length of the barrel is dimensioned to fluidically connect inside a mating connector and the mating connector has a cavity configured and dimensioned to join with the barrel to form a fluidic connection; and an identification component located inside the barrel , wherein the identification component is made of a ferrite material, and is detectable by a sensor , wherein the identification component is a tube, wherein the tube comprises an inner diameter Di, and outer diameter De, and a fluid path that extends the length of the tube and is defined by the inner diameter, and wherein the outer diameter does not exceed two times the inner diameter, characterized in that the identification component has a length that is greater than 4 mm and no greater than 13 mm, and the connector barrel comprises a plurality of compression ribs disposed on an inside surface of the barrel , wherein the plurality of compression ribs secure the identification component inside the barrel in a removable manner. at least one inflatable chamber ; a connecting fluid tube ; a garment fluid connector in fluidic connection with the at least one inflatable chamber via the connecting fluid tube , wherein the garment fluid connector includes a circular connector barrel that has a longitudinal length, an inside diameter and an outside diameter; and wherein the longitudinal length of the barrel is dimensioned to fluidically connect inside a mating connector and the mating connector has a cavity configured and dimensioned to join with the barrel to form a fluidic connection; and an identification component located inside the barrel , wherein the identification component is made of a ferrite material, and is detectable by a sensor , wherein the identification component is a tube, wherein the tube comprises an inner diameter Di, and outer diameter De, and a fluid path that extends the length of the tube and is defined by the inner diameter, and wherein the outer diameter does not exceed two times the inner diameter, characterized in that the identification component has a length that is greater than 4 mm and no greater than 13 mm, and the connector barrel comprises a plurality of compression ribs disposed on an inside surface of the barrel , wherein the plurality of compression ribs secure the identification component inside the barrel in a removable manner.
An electrophotographic photosensitive drum unit (B) usable with a main assembly of an electrophotographic image forming apparatus, the main assembly including a driving shaft to be driven by a motor, having a rotational force applying portion, wherein said electrophotographic drum unit (B) is dismountable from the main assembly in a dismounting direction substantially perpendicular to an axial direction (L3) of the driving shaft , said electrophotographic drum unit (B) comprising: i) an electrophotographic photosensitive drum having a photosensitive layer at a peripheral surface thereof, said electrophotographic photosensitive drum being rotatable about an axis (L1) thereof; ii) a coupling member rotatable about an axis (L2) thereof, engageable with the driving shaft to receive a rotational force, from the rotational force applying portion, for rotating said electrophotographic photosensitive drum , wherein said coupling member is provided at an axial end of said electrophotographic photosensitive drum such that said coupling member is capable of moving in a direction of the axis (L2) of said coupling member and capable of pivoting, wherein said electrophotographic drum unit (B) is adapted such that when said electrophotographic drum unit (B) is dismounted from the main assembly in the dismounting direction substantially perpendicular to the axis (L1) of said electrophotographic photosensitive drum , said coupling member pivots while retracting toward the direction of the axis (L2) of said coupling member so as to move from a rotational force transmitting angular position to a disengaging angular position. i) an electrophotographic photosensitive drum having a photosensitive layer at a peripheral surface thereof, said electrophotographic photosensitive drum being rotatable about an axis (L1) thereof; ii) a coupling member rotatable about an axis (L2) thereof, engageable with the driving shaft to receive a rotational force, from the rotational force applying portion, for rotating said electrophotographic photosensitive drum , wherein said coupling member is provided at an axial end of said electrophotographic photosensitive drum such that said coupling member is capable of moving in a direction of the axis (L2) of said coupling member and capable of pivoting,
A method for isolating a specific genomic region while maintaining the interaction of the specific genomic region and molecules interacting therewith, the method comprising the following steps 1 to 3: step 1: bringing genomic DNA into contact with an exogenous molecule capable of binding to a specific endogenous DNA sequence in the genomic DNA, step 2: fragmenting the genomic DNA in a state where the interaction of the genomic DNA and molecules interacting therewith is maintained, and step 3: allowing a genomic DNA fragment bound to the exogenous molecule to form a complex with a molecule capable of specifically binding to the exogenous molecule, and then harvesting the complex, wherein the fragmenting genomic DNA is performed by digestion of genomic DNA with a restriction enzyme(s), partial degradation (partial cleavage) of genomic DNA with a deoxyribonuclease(s) (endonuclease(s)), or physical cleavage of genomic DNA by ultrasonication, and wherein the exogenous molecule is an exogenous DNA-binding protein or an exogenous protein-nucleic acid complex, and wherein the exogenous molecule is a fusion molecule containing one or more kinds of tag sequences. step 1: bringing genomic DNA into contact with an exogenous molecule capable of binding to a specific endogenous DNA sequence in the genomic DNA, step 2: fragmenting the genomic DNA in a state where the interaction of the genomic DNA and molecules interacting therewith is maintained, and step 3: allowing a genomic DNA fragment bound to the exogenous molecule to form a complex with a molecule capable of specifically binding to the exogenous molecule, and then harvesting the complex, wherein the fragmenting genomic DNA is performed by digestion of genomic DNA with a restriction enzyme(s), partial degradation (partial cleavage) of genomic DNA with a deoxyribonuclease(s) (endonuclease(s)), or physical cleavage of genomic DNA by ultrasonication, and wherein the exogenous molecule is an exogenous DNA-binding protein or an exogenous protein-nucleic acid complex, and wherein the exogenous molecule is a fusion molecule containing one or more kinds of tag sequences.
A superconducting magnet assembly , comprising: a first electrically conductive plate (330; 802) having a first groove ; a first high-temperature superconductor, HTS, tape stack (305; 806) disposed in the first groove, the first HTS tape stack having a spiral shape; and a conductive terminal block electrically coupled to the first HTS tape stack, a second electrically conductive plate having a second groove ; and a second HTS tape stack disposed in the second groove, the second HTS tape stack having a spiral shape, wherein the first HTS tape stack is electrically coupled to the second HTS tape stack through a conductive connection between the first HTS tape stack and the second HTS tape stack, the conductive connection comprising a metal that is not a superconductor at a temperature above 30 degrees Kelvin. a first electrically conductive plate (330; 802) having a first groove ; a first high-temperature superconductor, HTS, tape stack (305; 806) disposed in the first groove, the first HTS tape stack having a spiral shape; and a conductive terminal block electrically coupled to the first HTS tape stack, a second electrically conductive plate having a second groove ; and a second HTS tape stack disposed in the second groove, the second HTS tape stack having a spiral shape, wherein the first HTS tape stack is electrically coupled to the second HTS tape stack through a conductive connection between the first HTS tape stack and the second HTS tape stack, the conductive connection comprising a metal that is not a superconductor at a temperature above 30 degrees Kelvin.
An elongate percussion drill component to form part of a drill string comprising: an elongate length section having a pair of axial ends ; a male spigot provided at at least one of the ends and having an externally threaded section and a non-threaded shank positioned axially intermediate the threaded section and the length section ; the male spigot projecting axially from an annular side surface of the length section or a radially outward extending shoulder , the threaded section having an outside diameter (Dy) corresponding to a crest of the thread and the non-threaded shank comprises an axial length (Ls) defined between an axially inner end of the threaded section and the side surface ; characterised in that : the quotient Ls/Dy is equal to or greater than 0.4. an elongate length section having a pair of axial ends ; a male spigot provided at at least one of the ends and having an externally threaded section and a non-threaded shank positioned axially intermediate the threaded section and the length section ; the male spigot projecting axially from an annular side surface of the length section or a radially outward extending shoulder , the threaded section having an outside diameter (Dy) corresponding to a crest of the thread and the non-threaded shank comprises an axial length (Ls) defined between an axially inner end of the threaded section and the side surface ; characterised in that : the quotient Ls/Dy is equal to or greater than 0.4.
A power determining method, comprising: determining an initial transmit power of each transmission object in a transmission object set (S110), wherein the transmission object set comprises all to-be-transmitted uplink channels and/or sounding reference signals, SRSs; when a sum of initial transmit powers of all the transmission objects in the transmission object set is greater than a maximum transmit power, performing a power reduction operation based on a priority sequence of uplink control information, UCI, carried in a transmission object (S120), so as to acquire an available transmit power of each transmission object in the transmission object set, wherein a sum of the available transmit powers of all the transmission objects in the transmission object set is not greater than the maximum transmit power; wherein the priority sequence of UCI carried in a transmission object comprises the following: when channel state information, hybrid automatic repeat request information and a scheduling request exist, a priority of the channel state information is lower than a priority of the scheduling request, and a priority of the hybrid automatic repeat request information is equal to the priority of the scheduling request; and sending each transmission object in the transmission object set according to the available transmit power corresponding to each transmission object in the transmission object set (S130). determining an initial transmit power of each transmission object in a transmission object set (S110), wherein the transmission object set comprises all to-be-transmitted uplink channels and/or sounding reference signals, SRSs; when a sum of initial transmit powers of all the transmission objects in the transmission object set is greater than a maximum transmit power, performing a power reduction operation based on a priority sequence of uplink control information, UCI, carried in a transmission object (S120), so as to acquire an available transmit power of each transmission object in the transmission object set, wherein a sum of the available transmit powers of all the transmission objects in the transmission object set is not greater than the maximum transmit power; wherein the priority sequence of UCI carried in a transmission object comprises the following: when channel state information, hybrid automatic repeat request information and a scheduling request exist, a priority of the channel state information is lower than a priority of the scheduling request, and a priority of the hybrid automatic repeat request information is equal to the priority of the scheduling request; and sending each transmission object in the transmission object set according to the available transmit power corresponding to each transmission object in the transmission object set (S130).
A device for processing audio signals comprising: an interchannel temporal mismatch analyzer configured to determine an interchannel temporal mismatch value indicative of a temporal misalignment between a first audio signal and a second audio signal ; an interchannel phase difference, IPD, mode selector configured to select an IPD mode based at least in part on whether the interchannel temporal mismatch value satisfies a difference threshold and whether a strength value associated with the interchannel temporal mismatch value satisfies a strength threshold; and an IPD estimator configured to determine IPD values based on the first audio signal and the second audio signal , the IPD values having a resolution corresponding to the selected IPD mode . an interchannel temporal mismatch analyzer configured to determine an interchannel temporal mismatch value indicative of a temporal misalignment between a first audio signal and a second audio signal ; an interchannel phase difference, IPD, mode selector configured to select an IPD mode based at least in part on whether the interchannel temporal mismatch value satisfies a difference threshold and whether a strength value associated with the interchannel temporal mismatch value satisfies a strength threshold; and an IPD estimator configured to determine IPD values based on the first audio signal and the second audio signal , the IPD values having a resolution corresponding to the selected IPD mode .
A method to be performed by one or more computing devices, the method comprising: determining a dictionary from a portion of input data , the dictionary comprising a plurality of entries (131-138) up to a maximum number of dictionary entries (131-138), each of the plurality of entries (131-138) mapping a token to a definition having a length up to a maximum byte size that is bounded by a word size of one or more processors of the one or more computing devices; tokenizing the entire input data using the dictionary determined from the portion of the input data to generate a plurality of tokens , each token (172A-D) of the plurality of tokens having a fixed token size that is sufficiently large to address the maximum number of dictionary entries; storing at least the dictionary and the plurality of tokens in a compressed file , wherein the plurality of tokens are stored as contiguously arranged tokens (172A-D) or in a plurality of boundary-aligned blocks of contiguously arranged tokens (172A-D). determining a dictionary from a portion of input data , the dictionary comprising a plurality of entries (131-138) up to a maximum number of dictionary entries (131-138), each of the plurality of entries (131-138) mapping a token to a definition having a length up to a maximum byte size that is bounded by a word size of one or more processors of the one or more computing devices; tokenizing the entire input data using the dictionary determined from the portion of the input data to generate a plurality of tokens , each token (172A-D) of the plurality of tokens having a fixed token size that is sufficiently large to address the maximum number of dictionary entries; storing at least the dictionary and the plurality of tokens in a compressed file , wherein the plurality of tokens are stored as contiguously arranged tokens (172A-D) or in a plurality of boundary-aligned blocks of contiguously arranged tokens (172A-D).
An automatic dishwasher detergent which contains less than 1 wt.% phosphate, characterized in that the automatic dishwasher detergent contains: (i) at least one bleaching agent; (ii) at least one bleach catalyst; (iii) at least one homopolymer of α,β ethylenically unsaturated carboxylic acids; and (iv) at least one copolymer containing at least one sulfonic acid group-containing monomer and at least one monomer from the group of α,β ethylenically unsaturated carboxylic acids, the at least one homopolymer and the at least one copolymer each being contained in an amount of from 0.5 to 5 wt.%, based on the total weight of the automatic dishwasher detergent. (i) at least one bleaching agent; (ii) at least one bleach catalyst; (iii) at least one homopolymer of α,β ethylenically unsaturated carboxylic acids; and (iv) at least one copolymer containing at least one sulfonic acid group-containing monomer and at least one monomer from the group of α,β ethylenically unsaturated carboxylic acids, the at least one homopolymer and the at least one copolymer each being contained in an amount of from 0.5 to 5 wt.%, based on the total weight of the automatic dishwasher detergent.
An economical fitting connecting two pressure pipes into one outlet pipe, especially when connecting parallel pumps in water management operations characterized in that the fitting comprises two inlet pipes of a circular profile with a diameter (D1), whose axes are at the angle of α = 84 to 96° to each other, and further are connected at the angle of β = 132 to 138° to one outlet pipe , which has an elliptic shape in the connection point of the inlet pipes and a circular shape with the outlet diameter (D2) on the other end, wherein a deflector is located in the outlet pipe at the connection of inlet pipes, and the ratio of the outlet diameter (D2) of the outlet pipe to the diameter (D1) of inlet pipes is 1.3 to 1.7.
An evaporator burner for a mobile heating device operated with liquid fuel, having a mixture preparation region for the mixing of fuel with combustion air to form a fuel-air mixture, a fuel supply for the supply of liquid fuel to the mixture preparation region , a combustion-air supply (B) for the supply of combustion air to the mixture preparation region , a reaction region which is arranged downstream of the mixture preparation region in terms of flow and which serves for the reaction of the fuel-air mixture with a release of heat, and an evaporator body for the evaporation of the liquid fuel, which evaporator body extends in an axial direction in the mixture preparation region so as to be spaced apart from a side wall of the mixture preparation region and has an outer circumferential surface which is in the form of a fuel evaporation surface and which is arranged such that the supplied combustion air flows around said outer circumferential surface, wherein an axial body extends along a longitudinal axis (Z) in the mixture preparation region , and the evaporator body is arranged on an outer circumferential surface of the axial body .
A wireless automatic inspection meter being a gas meter, the wireless automatic inspection meter including a battery , and a meter portion and a wireless communication portion that are driven by the battery , the wireless automatic inspection meter comprising: a flow rate sensor configured to measure a flow rate of gas; a gas shutoff device configured to shut off the gas; an arithmetic portion configured to calculate a power consumption value of the wireless communication portion on the basis of a communication state parameter in the wireless communication portion ; a determination portion configured to perform determination by comparing the power consumption value calculated by the arithmetic portion with a settings threshold value; and a control portion configured to control a communication function of the wireless communication portion , wherein the meter portion is configured to control the actions of the flow rate sensor and the gas shutoff device , and wherein the control portion is configured to control the communication function in the wireless communication portion on the basis of a determination result of the determination portion , characterized in that the control portion is configured to send an alarm to a management center in a case in which it is determined by the determination portion that the power consumption value is the settings threshold value or more, wherein a number of failures after carrier sensing of wireless communication is used as the communication state parameter. a flow rate sensor configured to measure a flow rate of gas; a gas shutoff device configured to shut off the gas; an arithmetic portion configured to calculate a power consumption value of the wireless communication portion on the basis of a communication state parameter in the wireless communication portion ; a determination portion configured to perform determination by comparing the power consumption value calculated by the arithmetic portion with a settings threshold value; and a control portion configured to control a communication function of the wireless communication portion , wherein the meter portion is configured to control the actions of the flow rate sensor and the gas shutoff device , and wherein the control portion is configured to control the communication function in the wireless communication portion on the basis of a determination result of the determination portion , characterized in that the control portion is configured to send an alarm to a management center in a case in which it is determined by the determination portion that the power consumption value is the settings threshold value or more, wherein a number of failures after carrier sensing of wireless communication is used as the communication state parameter.