mhurhangee/ep-ind-claims huggingface dataset:
A first electronic device comprising: a communication interface; a display; and a processor configured to control a tethering service with a second electronic device, the processor is configured to: control the communication interface to connect a communication for a tethering service with the second electronic device; control the communication interface to transmit and receive data corresponding to the tethering service to and from the second electronic device; and control the communication interface to transmit a tethering deactivation request signal to the second electronic device in response to a tethering deactivation event occurring, wherein the processor is further configured to generate the tethering deactivation event based on an event of detecting an input on a tethering termination button mapped onto the tethering deactivation event; wherein the processor is further configured to control the communication interface to receive tethering state information from the second electronic device through the communication interface, and control the display to display the tethering state information and the tethering termination button on the display, and wherein the tethering state information comprises an amount of used data corresponding to the tethering service. a communication interface; a display; and a processor configured to control a tethering service with a second electronic device, the processor is configured to: control the communication interface to connect a communication for a tethering service with the second electronic device; control the communication interface to transmit and receive data corresponding to the tethering service to and from the second electronic device; and control the communication interface to transmit a tethering deactivation request signal to the second electronic device in response to a tethering deactivation event occurring, control the communication interface to connect a communication for a tethering service with the second electronic device; control the communication interface to transmit and receive data corresponding to the tethering service to and from the second electronic device; and control the communication interface to transmit a tethering deactivation request signal to the second electronic device in response to a tethering deactivation event occurring, wherein the processor is further configured to generate the tethering deactivation event based on an event of detecting an input on a tethering termination button mapped onto the tethering deactivation event; wherein the processor is further configured to control the communication interface to receive tethering state information from the second electronic device through the communication interface, and control the display to display the tethering state information and the tethering termination button on the display, and wherein the tethering state information comprises an amount of used data corresponding to the tethering service.
A prosthetic heart valve, comprising: a structure having an inside, an outside, a lower end with a lower edge, an upper end, a collapsed condition and an expanded condition; and a valve element mounted within the structure; characterised in that the prosthetic heart valve further includes a buffer 70 extending around a periphery of the inside of the structure and a cuff extending around a periphery of the outside of the structure, the cuff not forming the valve element, the buffer being connected to the structure, the cuff including at least one opening at the periphery of the structure, the buffer being positioned radially outward of the valve element, and the at least one opening being located at a distal end of the cuff, a distal end of the cuff being positioned proximally of the upper end of the structure. a structure having an inside, an outside, a lower end with a lower edge, an upper end, a collapsed condition and an expanded condition; and a valve element mounted within the structure; characterised in that the prosthetic heart valve further includes a buffer 70 extending around a periphery of the inside of the structure and a cuff extending around a periphery of the outside of the structure, the cuff not forming the valve element, the buffer being connected to the structure, the cuff including at least one opening at the periphery of the structure, the buffer being positioned radially outward of the valve element, and the at least one opening being located at a distal end of the cuff, a distal end of the cuff being positioned proximally of the upper end of the structure.
A sensing device comprising: a stator including stator teeth; and a rotor including a magnet, wherein the stator teeth include first stator teeth and second stator teeth, the first stator teeth include a plurality of first teeth and a plurality of third teeth, the second stator teeth include a plurality of second teeth, and characterized in that the magnet is disposed between the plurality of first teeth and the plurality of third teeth and disposed between the plurality of first teeth and the plurality of second teeth, a diameter formed by the plurality of third teeth is smaller than a diameter formed by the plurality of first teeth, and a diameter formed by the plurality of second teeth is smaller than the diameter formed by the plurality of first teeth. a stator including stator teeth; and a rotor including a magnet, wherein the stator teeth include first stator teeth and second stator teeth, the first stator teeth include a plurality of first teeth and a plurality of third teeth, the second stator teeth include a plurality of second teeth, and characterized in that the magnet is disposed between the plurality of first teeth and the plurality of third teeth and disposed between the plurality of first teeth and the plurality of second teeth, a diameter formed by the plurality of third teeth is smaller than a diameter formed by the plurality of first teeth, and a diameter formed by the plurality of second teeth is smaller than the diameter formed by the plurality of first teeth.
Method for determining a predicted departure time of a user of a vehicle for automatically preconditioning the vehicle before a trip, the method comprising: determining, based on a user data set of the user of the vehicle indicative of a plurality of trips made by the user: - first data indicative of trip segment information, wherein the trip segment information includes one or more of a starting location, one or more waypoints along a route, and a destination location, - second data indicative of trip destinations, and - third data indicative of semantic trip properties, wherein the semantic trip properties include one or more of a trip categorization, trip parameters, and semantic properties of a respective start and/or destination of a trip, determining, based on the first, second, and third data: - fourth data indicative of destination arrival behavior, - fifth data indicative of a stay duration at a destination, and - sixth data indicative of a departure behavior, determining, based on the fourth, fifth, and sixth data, the predicted departure time of the user, and automatically preconditioning the vehicle based on the predicted departure time of the user, wherein the preconditioning includes heating, cooling or ventilation of an interior of the vehicle. determining, based on a user data set of the user of the vehicle indicative of a plurality of trips made by the user: - first data indicative of trip segment information, wherein the trip segment information includes one or more of a starting location, one or more waypoints along a route, and a destination location, - second data indicative of trip destinations, and - third data indicative of semantic trip properties, wherein the semantic trip properties include one or more of a trip categorization, trip parameters, and semantic properties of a respective start and/or destination of a trip, - first data indicative of trip segment information, wherein the trip segment information includes one or more of a starting location, one or more waypoints along a route, and a destination location, - second data indicative of trip destinations, and - third data indicative of semantic trip properties, wherein the semantic trip properties include one or more of a trip categorization, trip parameters, and semantic properties of a respective start and/or destination of a trip, determining, based on the first, second, and third data: - fourth data indicative of destination arrival behavior, - fifth data indicative of a stay duration at a destination, and - sixth data indicative of a departure behavior, - fourth data indicative of destination arrival behavior, - fifth data indicative of a stay duration at a destination, and - sixth data indicative of a departure behavior, determining, based on the fourth, fifth, and sixth data, the predicted departure time of the user, and automatically preconditioning the vehicle based on the predicted departure time of the user, wherein the preconditioning includes heating, cooling or ventilation of an interior of the vehicle.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, downlink control information, DCI; identifying an identifier of the terminal for decoding the DCI, the identifier of the terminal being identified from a first-type identifier that is a cell-radio network temporary identifier, C-RNTI, and a second-type identifier; based on the type of the identifier, allocating resources included in the DCI to a logical channel corresponding to the identifier of the terminal; and transmitting, to the base station, data based on the resources, wherein an error rate for a modulation coding scheme, MCS, level of resources allocated with the second-type identifier is lower than an error rate for an MCS level of resources allocated with the C-RNTI. receiving, from a base station, downlink control information, DCI; identifying an identifier of the terminal for decoding the DCI, the identifier of the terminal being identified from a first-type identifier that is a cell-radio network temporary identifier, C-RNTI, and a second-type identifier; based on the type of the identifier, allocating resources included in the DCI to a logical channel corresponding to the identifier of the terminal; and transmitting, to the base station, data based on the resources, wherein an error rate for a modulation coding scheme, MCS, level of resources allocated with the second-type identifier is lower than an error rate for an MCS level of resources allocated with the C-RNTI.
A method for reporting a delay time of a mobile communication system to a time sensitive networking, TSN, server in a TSN application function device of a mobile communication system, the method comprising: receiving, from a user equipment, UE, communicating with a first TNS node, a residence time based on a grand master, GM, clock of the mobile communication system; receiving, from a user plane function, UPF, device communicating with a second TSN node, a packet delay budget, PDB, based on the GM clock, wherein the PDB is a transmission elapsed time of a message or a packet between the UE communicated with the first TSN node and the UPF device; receiving, from the UPF device, information on a difference between the GM clock of the mobile communication system and a TSN GM clock; calculating a bridge delay using the residence time and the PDB; characterized in that the method further comprises converting the bridge delay into a bridge delay based on the TSN GM clock based on the difference information; and transmitting, to the TSN server, bridge information including a bridge delay converted based on the TSN GM clock, wherein in case of transmitting and receiving a TSN packet or message to and from the UE through two or more UPFs, the PDB is received from an anchor UPF. receiving, from a user equipment, UE, communicating with a first TNS node, a residence time based on a grand master, GM, clock of the mobile communication system; receiving, from a user plane function, UPF, device communicating with a second TSN node, a packet delay budget, PDB, based on the GM clock, wherein the PDB is a transmission elapsed time of a message or a packet between the UE communicated with the first TSN node and the UPF device; receiving, from the UPF device, information on a difference between the GM clock of the mobile communication system and a TSN GM clock; calculating a bridge delay using the residence time and the PDB; characterized in that the method further comprises converting the bridge delay into a bridge delay based on the TSN GM clock based on the difference information; and transmitting, to the TSN server, bridge information including a bridge delay converted based on the TSN GM clock, wherein in case of transmitting and receiving a TSN packet or message to and from the UE through two or more UPFs, the PDB is received from an anchor UPF.
A method comprising: sensing or predicting rain in a proximity of an air conditioning unit; determining a most recent sensing or predicting of rain; powering a fan (164; 264), the fan configured to push or pull air and the rain through the air conditioning unit; wherein powering the fan only occurs if the most recent sensing of rain is greater than a predetermined amount of time. sensing or predicting rain in a proximity of an air conditioning unit; determining a most recent sensing or predicting of rain; powering a fan (164; 264), the fan configured to push or pull air and the rain through the air conditioning unit; wherein powering the fan only occurs if the most recent sensing of rain is greater than a predetermined amount of time.
Device for measuring the flowrate of a liquid in a pipeline, which device comprises, on a mount fixed to a perimeter of the pipeline, a part rotatably moveable around a first shaft through the action of the flow of liquid, characterised in that it also comprises: - a mass supported by an arm in rotation around a second shaft; - an angle multiplier (26, 27) configured to transform the angular movement of the moveable part into an angular movement of the arm supporting the mass, this arm travelling through an angle greater than the angle travelled by the moveable part; and - a sensor of the position of the arm supporting the mass. - a mass supported by an arm in rotation around a second shaft; - an angle multiplier (26, 27) configured to transform the angular movement of the moveable part into an angular movement of the arm supporting the mass, this arm travelling through an angle greater than the angle travelled by the moveable part; and - a sensor of the position of the arm supporting the mass.
A method for quantifying cholesterol in high-density lipoprotein 3, said method comprising: Step 1 wherein phospholipase and/or sphingomyelinase is/are allowed to act on a test sample to transfer cholesterol to the outside of the reaction system meaning that cholesterol and any esters thereof are eliminated or protected such that the cholesterol and any esters thereof are not involved in the later steps of the method; and Step 2 wherein cholesterol remaining in the reaction system is quantified. Step 1 wherein phospholipase and/or sphingomyelinase is/are allowed to act on a test sample to transfer cholesterol to the outside of the reaction system meaning that cholesterol and any esters thereof are eliminated or protected such that the cholesterol and any esters thereof are not involved in the later steps of the method; and Step 2 wherein cholesterol remaining in the reaction system is quantified.
A composite roofing structure comprising: a roof cover board; a layer of insulation; and a layer of roofing membrane; wherein the roof cover board is over the layer of insulation, the roofing membrane is over the roof cover board, the roof cover board is attached to the layer of insulation, and the roofing membrane is attached to the roof cover board; characterized in that the roof cover board comprises (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. a roof cover board; a layer of insulation; and a layer of roofing membrane; wherein the roof cover board is over the layer of insulation, the roofing membrane is over the roof cover board, the roof cover board is attached to the layer of insulation, and the roofing membrane is attached to the roof cover board; characterized in that the roof cover board comprises (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. (a) a dried base mat comprising: 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or 8 wt% to about 20wt% mineral wool, 40 wt% to 65 wt% perlite, 9 wt% to 15 wt% starch binder and/or latex binder, 9 wt% to 15 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent; or (b) a dried base mat having an absence of vermiculite, comprising: 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent. 30 wt% to 70 wt% mineral wool, 10 wt% to 50 wt% perlite, 6.5 wt% to 8.5 wt% starch binder and/or latex binder, 2 wt% to 20 wt% cellulosic fiber, and 0.25 wt% to 2 wt% sizing agent.
An insulating device comprising: a body assembly, wherein the body assembly includes a bottom layer, a first sidewall attached to the bottom layer, an inner liner, and an insulating layer, wherein at least a portion of the insulating layer is positioned between the first sidewall and the inner liner; a lid assembly rotatably connected to the body assembly; wherein the lid assembly includes an upper layer, a lid insulating layer, and a lid liner; a storage compartment formed by the body assembly and the lid assembly, wherein the insulating device has an open configuration providing access to the storage compartment and a closed configuration preventing access to the storage compartment; a closure positioned between the body assembly and the lid assembly, wherein the closure is adapted to selectively connect the body assembly and the lid assembly; characterized in that, an insulated tab formed from a portion of the inner liner and a portion of the insulating layer, wherein the insulated tab is within the storage compartment and inward of the closure and having a distal end positioned above a midpoint of the closure, wherein the midpoint of the closure is the location where the closure divides between a portion attached to the body assembly and a portion attached to the lid assembly, wherein the insulated tab includes a first magnetic element that engages a second magnetic element on the lid assembly when the insulating device is in the closed configuration. a body assembly, wherein the body assembly includes a bottom layer, a first sidewall attached to the bottom layer, an inner liner, and an insulating layer, wherein at least a portion of the insulating layer is positioned between the first sidewall and the inner liner; a lid assembly rotatably connected to the body assembly; wherein the lid assembly includes an upper layer, a lid insulating layer, and a lid liner; a storage compartment formed by the body assembly and the lid assembly, wherein the insulating device has an open configuration providing access to the storage compartment and a closed configuration preventing access to the storage compartment; a closure positioned between the body assembly and the lid assembly, wherein the closure is adapted to selectively connect the body assembly and the lid assembly; characterized in that, an insulated tab formed from a portion of the inner liner and a portion of the insulating layer, wherein the insulated tab is within the storage compartment and inward of the closure and having a distal end positioned above a midpoint of the closure, wherein the midpoint of the closure is the location where the closure divides between a portion attached to the body assembly and a portion attached to the lid assembly, wherein the insulated tab includes a first magnetic element that engages a second magnetic element on the lid assembly when the insulating device is in the closed configuration.
A method of analyzing a maternal plasma sample of a pregnant woman, the maternal plasma sample including cell-free DNA fragments originating from maternal cells and from fetal cells, the method comprising: (a) sequencing a plurality of the DNA fragments to obtain a plurality of sequence reads comprising the outermost nucleotides at each end of a plurality of DNA fragments; (b) aligning the sequence reads to a reference genome, thereby obtaining a set of genomic coordinates including genomic coordinates of the outermost nucleotides defining a size of a DNA fragment for each of the plurality of DNA fragments; (c) calculating a value of a parameter based on an amount of DNA fragments of a particular size or range of sizes, the parameter providing a statistical measure of a size profile of DNA fragments in the maternal plasma sample; (d) comparing the value to a calibration value; and (e) estimating the fractional concentration of fetal DNA in the maternal plasma sample based on the comparison. (a) sequencing a plurality of the DNA fragments to obtain a plurality of sequence reads comprising the outermost nucleotides at each end of a plurality of DNA fragments; (b) aligning the sequence reads to a reference genome, thereby obtaining a set of genomic coordinates including genomic coordinates of the outermost nucleotides defining a size of a DNA fragment for each of the plurality of DNA fragments; (c) calculating a value of a parameter based on an amount of DNA fragments of a particular size or range of sizes, the parameter providing a statistical measure of a size profile of DNA fragments in the maternal plasma sample; (d) comparing the value to a calibration value; and (e) estimating the fractional concentration of fetal DNA in the maternal plasma sample based on the comparison.
Expansion plug with a shaft, which has a neck area and an expansion area, in which the expansion area is arranged axially offset to the neck area, and an expansion channel, which runs through the neck area and the expansion area of the shaft, in which the shaft may be extended radially in the expansion area by inserting an expansion element into the expansion channel to anchor the expansion plug in a hole, in which the expansion channel is formed by recesses (21,31,22, 32; 33, 34) in the expansion area, which go out from the circumference of the shaft and into the inside of the shaft, and in which the expansion plug has at least one means of closure to close at least a part of the recesses (21,31, 22, 32; 33, 34) at least in certain areas, characterised in that latching elements (53, 54) are provided as means of closure, which can hold the expansion area in a compressed state.