mhurhangee/patent-ind-claim-en huggingface dataset:
A robotic electric arc welding system , comprising: a welding torch ; a welding robot configured to manipulate the welding torch during a welding operation; a robot controller operatively connected to the welding robot to control weaving movements of the welding torch along a weld seam and at a weave frequency and weave period; characterized in a welding power supply operatively connected to the welding torch to control a welding waveform, and operatively connected to the robot controller for communication therewith, wherein the welding power supply is configured to sample a plurality of weld parameters during a sampling period of the welding operation and form an analysis packet, and process the analysis packet to generate a weld quality score, wherein the welding power supply is configured to obtain the weave frequency or the weave period and to automatically adjust the sampling period for forming the analysis packet based on the weave frequency or the weave period. a welding torch ; a welding robot configured to manipulate the welding torch during a welding operation; a robot controller operatively connected to the welding robot to control weaving movements of the welding torch along a weld seam and at a weave frequency and weave period; characterized in a welding power supply operatively connected to the welding torch to control a welding waveform, and operatively connected to the robot controller for communication therewith, wherein the welding power supply is configured to sample a plurality of weld parameters during a sampling period of the welding operation and form an analysis packet, and process the analysis packet to generate a weld quality score, wherein the welding power supply is configured to obtain the weave frequency or the weave period and to automatically adjust the sampling period for forming the analysis packet based on the weave frequency or the weave period.
A binding molecule comprising: a first binding domain capable of binding to a glycosylated staphylococcal surface protein, said first binding domain comprising an immunoglobulin heavy chain comprising an amino acid sequence of SEQ ID NO: 60, 62, 64 or 66, and an immunoglobulin light chain comprising an amino acid sequence of SEQ ID NOs: 61, 63, 65 or 67, and a second binding domain coupled to said first binding domain and comprising a fibronectin type III (FN3) domain that is capable of binding to a staphylococcal leukotoxin A (LukA), LukB, LukE, or LukD, wherein the second binding domain comprises the amino acid sequence of any one of SEQ ID NOs:14-59 or SEQ ID NOs:113-666. a first binding domain capable of binding to a glycosylated staphylococcal surface protein, said first binding domain comprising an immunoglobulin heavy chain comprising an amino acid sequence of SEQ ID NO: 60, 62, 64 or 66, and an immunoglobulin light chain comprising an amino acid sequence of SEQ ID NOs: 61, 63, 65 or 67, and a second binding domain coupled to said first binding domain and comprising a fibronectin type III (FN3) domain that is capable of binding to a staphylococcal leukotoxin A (LukA), LukB, LukE, or LukD, wherein the second binding domain comprises the amino acid sequence of any one of SEQ ID NOs:14-59 or SEQ ID NOs:113-666.
A resin member comprising: a copolymer of ethylene and an olefin having 3 or more carbon atoms; a straight-chain saturated hydrocarbon compound; and at least one selected from the group consisting of a carboxylic acid and a carboxylic acid metal salt. a copolymer of ethylene and an olefin having 3 or more carbon atoms; a straight-chain saturated hydrocarbon compound; and at least one selected from the group consisting of a carboxylic acid and a carboxylic acid metal salt.
A refrigeration cycle apparatus comprising: a refrigerant circuit in which a compressor , a condenser , a pressure reducing valve , and an evaporator are sequentially connected by a refrigerant pipe ; and a plurality of refrigerant distributors comprising a first refrigerant distributor and a second refrigerant distributor , wherein each of the plurality of refrigerant distributors includes an inlet pipe through which refrigerant in the refrigerant circuit flows into the refrigerant distributor , and a plurality of distribution pipes through which the refrigerant flows out of the refrigerant distributor , each of the plurality of distribution pipes being connected to a corresponding one of a plurality of heat transfer tubes included in the evaporator , wherein the average value of the distances from the lowermost end of the evaporator to the axes of the distribution pipes of the first refrigerant distributor in a top-bottom direction of the evaporator is less than the average value of the distances from the lowermost end of the evaporator to the axes of the distribution pipes of the second refrigerant distributor in the top-bottom direction of the evaporator , and characterized in that an inside diameter (D32) of the inlet pipe of the first refrigerant distributor is smaller than an inside diameter (D31) of the inlet pipe of the second refrigerant distributor . a refrigerant circuit in which a compressor , a condenser , a pressure reducing valve , and an evaporator are sequentially connected by a refrigerant pipe ; and a plurality of refrigerant distributors comprising a first refrigerant distributor and a second refrigerant distributor , wherein each of the plurality of refrigerant distributors includes an inlet pipe through which refrigerant in the refrigerant circuit flows into the refrigerant distributor , and a plurality of distribution pipes through which the refrigerant flows out of the refrigerant distributor , each of the plurality of distribution pipes being connected to a corresponding one of a plurality of heat transfer tubes included in the evaporator , an inlet pipe through which refrigerant in the refrigerant circuit flows into the refrigerant distributor , and a plurality of distribution pipes through which the refrigerant flows out of the refrigerant distributor , each of the plurality of distribution pipes being connected to a corresponding one of a plurality of heat transfer tubes included in the evaporator , wherein the average value of the distances from the lowermost end of the evaporator to the axes of the distribution pipes of the first refrigerant distributor in a top-bottom direction of the evaporator is less than the average value of the distances from the lowermost end of the evaporator to the axes of the distribution pipes of the second refrigerant distributor in the top-bottom direction of the evaporator , and characterized in that an inside diameter (D32) of the inlet pipe of the first refrigerant distributor is smaller than an inside diameter (D31) of the inlet pipe of the second refrigerant distributor .
A method performed by a network node, wherein the network node is a serving network node communicating with a first wireless device in a cell, the method comprising: determining a transmitter configuration of a target network node of a target cell; determining a receiver configuration of the first wireless device; determining , based on the determined transmitter configuration, whether or not the target network node comprises at least two antennas for transmitting system information of the target cell; determining , based on the determined receiver configuration, whether or not the first wireless device comprises at least two antennas for acquiring system information of the target cell; and communicating a request to the first wireless device to acquire system information of the target cell if: the receiver configuration of the first wireless device indicates that the first wireless device comprises at least two antennas for acquiring system information of the target cell ; or the transmitter configuration of the target network node indicates that the target network node comprises at least two antennas for transmitting system information of the target cell . determining a transmitter configuration of a target network node of a target cell; determining a receiver configuration of the first wireless device; determining , based on the determined transmitter configuration, whether or not the target network node comprises at least two antennas for transmitting system information of the target cell; determining , based on the determined receiver configuration, whether or not the first wireless device comprises at least two antennas for acquiring system information of the target cell; and communicating a request to the first wireless device to acquire system information of the target cell if: the receiver configuration of the first wireless device indicates that the first wireless device comprises at least two antennas for acquiring system information of the target cell ; or the transmitter configuration of the target network node indicates that the target network node comprises at least two antennas for transmitting system information of the target cell . the receiver configuration of the first wireless device indicates that the first wireless device comprises at least two antennas for acquiring system information of the target cell ; or the transmitter configuration of the target network node indicates that the target network node comprises at least two antennas for transmitting system information of the target cell .
A piece of furniture, comprising at least one sliding door , having at least one guiding assembly for guiding the at least one sliding door relative to the at least one furniture body of the piece of furniture , wherein the guiding assembly having at least one supporting lever , which is displaceable in a direction of displacement (X) of the sliding door along a guide rail arranged on a furniture body of the piece of furniture , as well as at least one door connection which is coupled to the supporting lever and is fixed to the sliding door , characterized in that the door connection is arranged in several parts, wherein a first door connection component can be fixed in a stationary manner to the sliding door , and a second door connection component connected to the supporting lever is displaceably connected in the direction of displacement (X) of the sliding door to the first door connection component , wherein the door connection components are displaceable relative to each other precisely over the distance (S) which corresponds to the width (B) of the sliding door connected to the first door connection component in the sliding direction (X), less the maximum displacement distance (T) of the supporting lever along the guide rail .
A target vehicle speed generation method for a driving-assisted vehicle for generating a target vehicle speed for when the vehicle is to travel/stop based on a plurality of vehicle speed command values, characterized by : computing (S3), for each of the plurality of vehicle speed command values, a first look-ahead vehicle speed command value that comes after an elapse of a prescribed amount of time from a current time based on the vehicle speed command value, a target rate of acceleration, and the prescribed amount of time; computing (S4), for each of the plurality of vehicle speed command values, a requisite rate of acceleration required to reach the first look-ahead vehicle speed command value from a next-most-recent target vehicle speed; computing (S6), for each of the plurality of vehicle speed command values, a second look-ahead vehicle speed command value for the current time from the requisite rate of acceleration, a computation period, and the next-most-recent target vehicle speed; and selecting (S7) a lowest value among the plurality of the second look-ahead vehicle speed command values as the target vehicle speed. computing (S3), for each of the plurality of vehicle speed command values, a first look-ahead vehicle speed command value that comes after an elapse of a prescribed amount of time from a current time based on the vehicle speed command value, a target rate of acceleration, and the prescribed amount of time; computing (S4), for each of the plurality of vehicle speed command values, a requisite rate of acceleration required to reach the first look-ahead vehicle speed command value from a next-most-recent target vehicle speed; computing (S6), for each of the plurality of vehicle speed command values, a second look-ahead vehicle speed command value for the current time from the requisite rate of acceleration, a computation period, and the next-most-recent target vehicle speed; and selecting (S7) a lowest value among the plurality of the second look-ahead vehicle speed command values as the target vehicle speed.
A circuit for controlling heat generation of a power transistor , the circuit comprising: a metal-insulator transition, MIT, device in which abrupt MIT occurs at a predetermined critical temperature; and the power transistor connected to a driving device and controlling power-supply to the driving device , wherein the MIT device is attached to a heating surface or heating portion of the power transistor and is connected to a base terminal or gate terminal of the power transistor from a circuit point of view, and wherein when a temperature of the power transistor increases to a temperature equal to or greater than the predetermined critical temperature, the MIT device reduces or shuts off a current of the power transistor so as to prevent heat generation, wherein the MIT device comprises an MIT thin film where abrupt MIT occurs at the predetermined critical temperature, and at least two electrode thin films in contact with the MIT thin film, wherein the MIT device is a stack type in which the at least two electrode thin films are disposed between the MIT thin film, or a horizontal type in which the at least two electrode thin films disposed at both sides of the MIT thin film, and wherein the MIT device is packaged in a dual in-line package, DIP, type in which the MIT thin film and the at least two electrode thin films are sealed by a sealing member, or is packaged in a CAN type in which a predetermined portion of the MIT thin film is exposed. a metal-insulator transition, MIT, device in which abrupt MIT occurs at a predetermined critical temperature; and the power transistor connected to a driving device and controlling power-supply to the driving device , wherein the MIT device is attached to a heating surface or heating portion of the power transistor and is connected to a base terminal or gate terminal of the power transistor from a circuit point of view, and wherein when a temperature of the power transistor increases to a temperature equal to or greater than the predetermined critical temperature, the MIT device reduces or shuts off a current of the power transistor so as to prevent heat generation, wherein the MIT device comprises an MIT thin film where abrupt MIT occurs at the predetermined critical temperature, and at least two electrode thin films in contact with the MIT thin film, wherein the MIT device is a stack type in which the at least two electrode thin films are disposed between the MIT thin film, or a horizontal type in which the at least two electrode thin films disposed at both sides of the MIT thin film, and wherein the MIT device is packaged in a dual in-line package, DIP, type in which the MIT thin film and the at least two electrode thin films are sealed by a sealing member, or is packaged in a CAN type in which a predetermined portion of the MIT thin film is exposed.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: identifying whether a timer associated with a first radio resource control, RRC, connection request message transmitted by the UE expires; storing connection establishment failure information, in case that the timer associated with the first RRC connection request message expires, wherein the connection establishment failure information includes selected public land mobile network, PLMN, information, information associated with a cell where a connection establishment failure happens, and random access failure related information; receiving, from a base station , an RRC connection setup message as a response to a second RRC connection request message transmitted by the UE ; determining whether current registered PLMN information is identical to the selected PLMN information included in the connection establishment failure information; transmitting, to the base station , an RRC connection setup complete message including first information indicating the UE has the connection establishment failure information, in case that the current registered PLMN information is identical to the selected PLMN information included in the connection establishment failure information; receiving, from the base station, a UE information request message including second information indicating the base station requests the connection establishment failure information; and transmitting, to the base station, a UE information response message including the connection establishment failure information. identifying whether a timer associated with a first radio resource control, RRC, connection request message transmitted by the UE expires; storing connection establishment failure information, in case that the timer associated with the first RRC connection request message expires, wherein the connection establishment failure information includes selected public land mobile network, PLMN, information, information associated with a cell where a connection establishment failure happens, and random access failure related information; receiving, from a base station , an RRC connection setup message as a response to a second RRC connection request message transmitted by the UE ; determining whether current registered PLMN information is identical to the selected PLMN information included in the connection establishment failure information; transmitting, to the base station , an RRC connection setup complete message including first information indicating the UE has the connection establishment failure information, in case that the current registered PLMN information is identical to the selected PLMN information included in the connection establishment failure information; receiving, from the base station, a UE information request message including second information indicating the base station requests the connection establishment failure information; and transmitting, to the base station, a UE information response message including the connection establishment failure information.
A fluid sensor assembly for sensing a fluid contained in a fluid tank of a vehicle , the fluid sensor assembly comprising: a housing unit having a base plate configured to be coupled to the fluid tank , the housing unit including a sample suction line and a sample return line configured to be in fluid communication with the fluid in the fluid tank ; and characterized in a header assembly separably coupled to the base plate of the housing unit , the header assembly having a header housing separably coupled to the housing unit , the header housing configured to be located exteriorly of the fluid tank of the vehicle , the header assembly having a sample tank in fluid communication with the sample suction line and the sample return line , the sample tank configured to receive fluid from the fluid tank , the header assembly including a fluid quality sensor sensing a quality characteristic of the fluid in the sample tank for quality sampling of the fluid at a location remote from an interior of the fluid tank , wherein the fluid sensor assembly is configured such that when the base plate is coupled to the fluid tank and the header assembly , the sample suction line and the sample return line extend into the interior of the fluid tank and the header assembly is located exteriorly of the fluid tank . a housing unit having a base plate configured to be coupled to the fluid tank , the housing unit including a sample suction line and a sample return line configured to be in fluid communication with the fluid in the fluid tank ; and characterized in a header assembly separably coupled to the base plate of the housing unit , the header assembly having a header housing separably coupled to the housing unit , the header housing configured to be located exteriorly of the fluid tank of the vehicle , the header assembly having a sample tank in fluid communication with the sample suction line and the sample return line , the sample tank configured to receive fluid from the fluid tank , the header assembly including a fluid quality sensor sensing a quality characteristic of the fluid in the sample tank for quality sampling of the fluid at a location remote from an interior of the fluid tank , wherein the fluid sensor assembly is configured such that when the base plate is coupled to the fluid tank and the header assembly , the sample suction line and the sample return line extend into the interior of the fluid tank and the header assembly is located exteriorly of the fluid tank .
An ophthalmic composition comprising at least one component selected from the group consisting of crocetin and its pharmaceutically acceptable salts, for use in the prevention or treatment of myopia.
An in-vehicle relay device configured to be installed in a vehicle and to relay transmission and reception of data among in-vehicle equipment, the in-vehicle relay device comprising: a first communication unit configured to transmit and to receive data to and from a first in-vehicle equipment; a second communication unit configured to transmit and to receive data to and from a second in-vehicle equipment; and a control unit configured to control relay of data among the first communication unit and the second communication unit, wherein, in a case where reception data received from the first communication unit or the second communication unit is unauthorized, the control unit is configured to stop the relaying in accordance with a traveling state of the vehicle, characterized in that the vehicle has self-driving functions, and the control unit is further configured to receive, from the first communication unit or the second communication unit, unauthorized activity detection data notifying that the reception data is unauthorized, and to stop the relaying upon having received data, as the traveling state of the vehicle, including a command to turn the self-driving functions off, if the command has been received after the unauthorized activity detection data. a first communication unit configured to transmit and to receive data to and from a first in-vehicle equipment; a second communication unit configured to transmit and to receive data to and from a second in-vehicle equipment; and a control unit configured to control relay of data among the first communication unit and the second communication unit, wherein, in a case where reception data received from the first communication unit or the second communication unit is unauthorized, the control unit is configured to stop the relaying in accordance with a traveling state of the vehicle, characterized in that the vehicle has self-driving functions, and the control unit is further configured to receive, from the first communication unit or the second communication unit, unauthorized activity detection data notifying that the reception data is unauthorized, and to stop the relaying upon having received data, as the traveling state of the vehicle, including a command to turn the self-driving functions off, if the command has been received after the unauthorized activity detection data.