mhurhangee/ep-ind-claims huggingface dataset:
A method for determining the position of a node in a communication network, wherein said network comprises said node and a plurality of anchors, wherein said plurality of anchors comprises a first anchor and one or more other anchors, the method comprising: the node transmits a poll message to the plurality of anchors; in response to the poll message, only the first anchor of said plurality transmits a response message to the node; in response to the poll message, the first anchor transmits said response message to said other anchors; the other anchors receive the poll message transmitted by the node as well as the response message transmitted by the first anchor; a processing unit calculates the position of the node using timing information of the poll message transmission by the node, of the poll message reception by the plurality of anchors, of the response message transmission by the first anchor, and of the response message reception by the node and said other anchors. the node transmits a poll message to the plurality of anchors; in response to the poll message, only the first anchor of said plurality transmits a response message to the node; in response to the poll message, the first anchor transmits said response message to said other anchors; the other anchors receive the poll message transmitted by the node as well as the response message transmitted by the first anchor; a processing unit calculates the position of the node using timing information of the poll message transmission by the node, of the poll message reception by the plurality of anchors, of the response message transmission by the first anchor, and of the response message reception by the node and said other anchors.
Drain fitting, in particular as a floor drain or for a shower or bath tub, having a housing which has at least one inlet opening and at least one outlet connection and which has an odour trap (16, 24) which is designed to receive sealing water, and with a bypass which is closed at normal pressure and is designed in such a way that, when a certain negative pressure occurring in the outlet connection is exceeded, it causes a reduction of the negative pressure, as a result of which the sealing water does not fall below a level at which the odour trap (16, 24) loses its sealing effect, wherein the odour trap (16, 24) comprises a cup-shaped container for receiving the sealing water and an immersion tube projecting into the container, and wherein the immersion tube has a flange-shaped inlet portion, characterized in that said flange-shaped inlet portion is provided with said bypass, wherein the flange-shaped inlet portion of the immersion tube has an outer diameter which is more than 1.5 times the inner diameter or smallest inner diameter of the immersion tube, wherein the bypass is disposed in a surface segment of the flange-shaped inlet section, wherein a through opening of the bypass extends from the top of the flange-shaped inlet section to the bottom thereof, and wherein the bypass comprises either a slotted diaphragm made of elastic material or a valve seat and a diaphragm abutting the valve seat and sealingly closing the through opening of the bypass at normal pressure.
A mobile station for communicating with a base station in a communication system, the communication being re-configured from a source uplink/downlink configuration to a target uplink/downlink configuration, the mobile station comprising: a receiver, which, in operation receives a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; circuitry, which is coupled to the receiver and which, in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performs physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, wherein the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and a transmitter, which is coupled to the circuitry and which, in operation, performs transmission of the PUSCH based on the performed PUSCH power control. a receiver, which, in operation receives a command for reconfiguration from a source uplink/downlink configuration to a target uplink/downlink configuration, wherein the source uplink/downlink configuration is one out of a plurality of uplink/downlink configurations and the target uplink/downlink configuration is one of the plurality of uplink/downlink configurations, the plurality of uplink/downlink configurations being configured for Time Division Duplex, TDD, communication; circuitry, which is coupled to the receiver and which, in an event that the communication is to be reconfigured for a subframe N at the beginning of a radio frame, performs physical uplink shared channel, PUSCH, power control based on a transmit power control, TPC, command for PUSCH transmission, wherein the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and the source uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received up to and including subframe N, and the target uplink/downlink configuration is applied in the PUSCH power control based on the TPC command for PUSCH transmission which is received from subframe N+1 onward; and a transmitter, which is coupled to the circuitry and which, in operation, performs transmission of the PUSCH based on the performed PUSCH power control.
A wind turbine, comprising: a tower; a nacelle disposed atop said tower; a mainframe stationarily mounted within said nacelle; individual rotor blades connected to a rotor hub; a drive train disposed within said nacelle, said drive train comprising: a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator, said generator comprising a generator rotor and stationary generator stator, said stationary gear carrier being disposed axially forward of said stationary generator stator, said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor; a spline hub mounted to said generator rotor, said output shaft coupled to said spline hub for rotationally driving said generator rotor; and a spline hub bearing mounted to said gear carrier concentric to said spline hub. a tower; a nacelle disposed atop said tower; a mainframe stationarily mounted within said nacelle; individual rotor blades connected to a rotor hub; a drive train disposed within said nacelle, said drive train comprising: a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator, said generator comprising a generator rotor and stationary generator stator, said stationary gear carrier being disposed axially forward of said stationary generator stator, said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor; a spline hub mounted to said generator rotor, said output shaft coupled to said spline hub for rotationally driving said generator rotor; and a spline hub bearing mounted to said gear carrier concentric to said spline hub. a gearbox mounted directly to said rotor hub, said gearbox comprising an output shaft; said gearbox further comprising a stationary gear carrier mounted to said mainframe, wherein said gearbox substantially supports the weight of said rotor hub; a generator, said generator comprising a generator rotor and stationary generator stator, said stationary gear carrier being disposed axially forward of said stationary generator stator, said stationary generator stator being mounted to said mainframe, said output shaft being coupled to said generator rotor and wherein said gearbox substantially supports the weight of said generator rotor; a spline hub mounted to said generator rotor, said output shaft coupled to said spline hub for rotationally driving said generator rotor; and a spline hub bearing mounted to said gear carrier concentric to said spline hub.
Networking device comprising a plurality of interfaces (ETH1, ETH2, ETH3, ETH4) for accessing a first network or a second network, which further comprises: - identifying means for requesting an access to a third network through all said interfaces simultaneously, and to classify an interface that receives a response to the request as a first interface for accessing said first network, and - selecting means for picking a first interface among a plurality of first interfaces accessing the first network for accessing the third network. - identifying means for requesting an access to a third network through all said interfaces simultaneously, and to classify an interface that receives a response to the request as a first interface for accessing said first network, and - selecting means for picking a first interface among a plurality of first interfaces accessing the first network for accessing the third network.
A method for removing sulfur from a fiber comprising the steps of: a) contacting never-dried sulfur-containing fiber in a yarn with an aqueous base having a pKa less than or equal to 11 to release at least a portion of said sulfur, said sulfur comprising, at least in part, sulfate anions and said yarn comprising fiber derived from polymer comprising imidazole groups; and b) rinsing said yarn to remove at least a portion of released sulfur. a) contacting never-dried sulfur-containing fiber in a yarn with an aqueous base having a pKa less than or equal to 11 to release at least a portion of said sulfur, said sulfur comprising, at least in part, sulfate anions and said yarn comprising fiber derived from polymer comprising imidazole groups; and b) rinsing said yarn to remove at least a portion of released sulfur.
A pressure sensor for sensing pressure in a vertical direction, the pressure sensor comprising: a plurality of pressure sensor units (510, 520) stacked in multiple layers, characterised in that at least one of an elastic modulus and an amount of conductive particles per unit area of each of the plurality of pressure sensor units is different from each other, wherein the stacking order of the plurality of pressure sensor units (510, 520) is determined based on the magnitude of the elastic modulus or the amount of conductive particles per unit area, wherein the plurality of pressure sensor units (510, 520) are stacked in ascending order of the elastic modulus of the plurality of pressure sensor units (510, 520) or in descending order of the amount of conductive particles per unit area, wherein the plurality of pressure sensor units (510, 520) have textile materials and the plurality of stacked pressure sensor units (510, 520) are manufactured at once through one process, and the textile materials include fiber yarns, which are conductive fiber yarns or insulating fiber yarns impregnated or printed with conductive particles, in the case of using the same fiber yarn, the elastic modulus is adjusted by equalizing the amount of conductive particles per unit area and varying the fiber density, in the case of using different fiber yarns, the amount of conductive particles per unit area of each of the plurality of pressure sensor units is the same and the elastic modulus of the plurality of pressure sensor units is adjusted by using fiber yarns having different elastic modulus. a plurality of pressure sensor units (510, 520) stacked in multiple layers, characterised in that at least one of an elastic modulus and an amount of conductive particles per unit area of each of the plurality of pressure sensor units is different from each other, wherein the stacking order of the plurality of pressure sensor units (510, 520) is determined based on the magnitude of the elastic modulus or the amount of conductive particles per unit area, wherein the plurality of pressure sensor units (510, 520) are stacked in ascending order of the elastic modulus of the plurality of pressure sensor units (510, 520) or in descending order of the amount of conductive particles per unit area, wherein the plurality of pressure sensor units (510, 520) have textile materials and the plurality of stacked pressure sensor units (510, 520) are manufactured at once through one process, and the textile materials include fiber yarns, which are conductive fiber yarns or insulating fiber yarns impregnated or printed with conductive particles, in the case of using the same fiber yarn, the elastic modulus is adjusted by equalizing the amount of conductive particles per unit area and varying the fiber density, in the case of using different fiber yarns, the amount of conductive particles per unit area of each of the plurality of pressure sensor units is the same and the elastic modulus of the plurality of pressure sensor units is adjusted by using fiber yarns having different elastic modulus.
A system for controlling start-up of a combined cycle power plant that includes a gas turbine and a heat recovery steam generator, the system comprising; one or more sensors configured to respectively measure an operating state of a component of the combined cycle power plant; and a controller configured to control the start-up of the combined cycle power plant based on the operating state of the component of the combined cycle power plant respectively measured by the one or more sensors, wherein the controller is configured to determine one or more restrictive conditions that restrict setting of an operational value of an operational parameter of the combined cycle power plant based on the operating state of the component of the combined cycle power plant respectively measured by the one or more sensors, and the controller is configured to set the operational value of the operational parameter based on a result of the determination, wherein the one or more restrictive conditions include a thermal stress margin of a rotor of a steam turbine of the heat recovery steam generator and the operational parameter includes a rate at which an amount of electric power that is produced by the gas turbine increases, the controller is configured to perform modeling of components of the combined cycle power plant and predict whether or not the thermal stress margin is a first value or above, and wherein the controller is configured to set the rate at which the amount of electric power increases to be a first rate of increase when the thermal stress margin of the rotor of the steam turbine is the first value or above. one or more sensors configured to respectively measure an operating state of a component of the combined cycle power plant; and a controller configured to control the start-up of the combined cycle power plant based on the operating state of the component of the combined cycle power plant respectively measured by the one or more sensors, wherein the controller is configured to determine one or more restrictive conditions that restrict setting of an operational value of an operational parameter of the combined cycle power plant based on the operating state of the component of the combined cycle power plant respectively measured by the one or more sensors, and the controller is configured to set the operational value of the operational parameter based on a result of the determination, wherein the one or more restrictive conditions include a thermal stress margin of a rotor of a steam turbine of the heat recovery steam generator and the operational parameter includes a rate at which an amount of electric power that is produced by the gas turbine increases, the controller is configured to perform modeling of components of the combined cycle power plant and predict whether or not the thermal stress margin is a first value or above, and wherein the controller is configured to set the rate at which the amount of electric power increases to be a first rate of increase when the thermal stress margin of the rotor of the steam turbine is the first value or above.
A device for intravascular intervention, the device comprising: an elongate manipulation member comprising a distally-located attachment portion, the attachment portion comprising a first segment, a second segment, and a bend between the first and second segments; and an intervention element comprising a proximal end portion having a top side, a bottom side, and a hole through the proximal end portion between the top side and the bottom side, the attachment portion of the elongate member extending through the hole at the bend such that the first segment and the second segment are located on different sides of the proximal end portion, the proximal end portion comprising a retention portion (a) extending proximally from the hole and positioned between the hole and a terminal proximal end of the intervention element, (b) extending laterally beyond and laterally offset from the attachment portion as viewed from the top of the proximal end portion, and (c) having a proximal part and a middle part, the middle part being located between the hole and the proximal part, and the proximal part having a lateral width greater than a lateral width of the middle part, the intervention element being permanently attached to the elongate manipulation member. an elongate manipulation member comprising a distally-located attachment portion, the attachment portion comprising a first segment, a second segment, and a bend between the first and second segments; and an intervention element comprising a proximal end portion having a top side, a bottom side, and a hole through the proximal end portion between the top side and the bottom side, the attachment portion of the elongate member extending through the hole at the bend such that the first segment and the second segment are located on different sides of the proximal end portion, the proximal end portion comprising a retention portion (a) extending proximally from the hole and positioned between the hole and a terminal proximal end of the intervention element, (b) extending laterally beyond and laterally offset from the attachment portion as viewed from the top of the proximal end portion, and (c) having a proximal part and a middle part, the middle part being located between the hole and the proximal part, and the proximal part having a lateral width greater than a lateral width of the middle part, the intervention element being permanently attached to the elongate manipulation member.
Electrical power supply system, in particular a traction system, of a vehicle, wherein the electrical power supply system comprises an inverter, an electric machine, a receiving device adapted to receive an alternating electromagnetic field and to produce an alternating electric current by electromagnetic induction, and a passive electric circuit arrangement adapted to connect the inverter, the electric machine, and the receiving device, wherein the passive electric circuit arrangement comprises a first transmission circuit for transferring electric energy between the receiving device and the electric machine, a second transmission circuit for transferring electric energy between the receiving device and the inverter, and a third transmission circuit for transferring electric energy between the inverter and the electric machine, characterized in that the passive electric circuit arrangement is designed such that at a given charging frequency, an impedance provided by the first transmission circuit is higher than a predetermined first blocking impedance and an impedance provided by the second transmission circuit is lower than a predetermined second passing impedance, wherein the passive electric circuit arrangement is designed such that at a given operating frequency, an impedance provided by the third transmission circuit is lower than a predetermined third passing impedance, wherein the passive electric circuit arrangement is designed such that at a given operating frequency, an impedance provided by the second transmission circuit is higher than a predetermined second blocking impedance and an impedance provided by the first transmission circuit is higher than another predetermined first blocking impedance.
Aqueous composition for use in the prevention of at least one of the diseases provoked by the invasion of at least one pathogenic agent by at least one of the elements selected from the skin, the eye and a mucous membrane, comprising from 20 to 60% by weight of filtered seawater relative to the total mass of the final composition and comprising a sulphated polysaccharide which is a fucan having a mass from 2 to 21 kDa and originating from the brown seaweed Ascophyllum nodosum, in the form of this whole seaweed or part of this seaweed, or in the form of an extract of said seaweed, or in the form of a synthetic molecule identical to a natural sulphated polysaccharide contained in the seaweed, characterized in that the composition stimulates the immune system by stimulating the innate immunity.