mhurhangee/patent-ind-claim-en huggingface dataset:
A device interaction method, comprising: transmitting (S204), by a first core network device, an identifier request message to a relay UE, wherein the identifier request message is used to request identifier information of at least one remote UE that has established a UE-to-network relay connection with the relay UE; receiving (S201), by the first core network device, from the relay UE, identifier information of at least one remote UE that has established UE-to-network relay connection with the relay UE; interacting (S202), by the first core network device based on the identifier information of the at least one remote UE, with a second core network device; wherein the first core network device is a core network device serving the relay UE, and the second core network device is a core network device serving the at least one remote UE; transmitting, by the first core network device, a second request message to a third core network device, wherein the second request message carries the identifier information of the remote UE, and the second request message is used to request to obtain grant information for the remote UE; receiving, by the first core network device, grant information for the remote UE sent by the third core network device; and determining, by the first core network device based on the grant information for the remote UE, whether the remote UE is granted to implement UE-to-network relay communication. transmitting (S204), by a first core network device, an identifier request message to a relay UE, wherein the identifier request message is used to request identifier information of at least one remote UE that has established a UE-to-network relay connection with the relay UE; receiving (S201), by the first core network device, from the relay UE, identifier information of at least one remote UE that has established UE-to-network relay connection with the relay UE; interacting (S202), by the first core network device based on the identifier information of the at least one remote UE, with a second core network device; wherein the first core network device is a core network device serving the relay UE, and the second core network device is a core network device serving the at least one remote UE; transmitting, by the first core network device, a second request message to a third core network device, wherein the second request message carries the identifier information of the remote UE, and the second request message is used to request to obtain grant information for the remote UE; receiving, by the first core network device, grant information for the remote UE sent by the third core network device; and determining, by the first core network device based on the grant information for the remote UE, whether the remote UE is granted to implement UE-to-network relay communication.
A multi-component regimen for use in the treatment of a skin disorder in a subject in need thereof, the regimen comprising the following two components: i) topically administering at least one galenic microbial composition to an area of skin of the subject, the at least one galenic microbial composition consisting essentially of Propionibacterium freudenreichii subsp. shermanii bacteria, olive oil, tocopherol, geranium oil, and rose flower oil, and ii) illuminating the area of skin of the subject, wherein said components of the regimen are carried out sequentially, simultaneously or concomitantly. i) topically administering at least one galenic microbial composition to an area of skin of the subject, the at least one galenic microbial composition consisting essentially of Propionibacterium freudenreichii subsp. shermanii bacteria, olive oil, tocopherol, geranium oil, and rose flower oil, and ii) illuminating the area of skin of the subject,
Fluorine-containing oligomer which has a number average molecular weight Mn of 5,000 or less, comprising a copolymer of a fluoroalkyl alcohol (meth)acrylic acid derivative represented by the general formula: C n F 2n+1 (CH 2 CF 2 ) a (CF 2 CF 2 ) b (CH 2 CH 2 ) c OCOCR=CH 2 [I] wherein R is a hydrogen atom or a methyl group, n is an integer of 1 to 6, a is an integer of 1 to 4; b is 2; and c is an integer of 1 to 3; and a (meth)acrylic acid derivative represented by the general formula: CH 2 =CRCONR 1 R 2 [II] wherein R is a hydrogen atom or a methyl group, R 1 and R 2 are each independently a hydrogen atom or an alkyl group having 1 to 6 carbon atoms, wherein 0.1 to 50 mol% of fluoroalkyl alcohol (meth)acrylic acid derivative is copolymerized.
A modification method comprising the steps of: using, as a foundation, an existing axial-flow compressor that has variable stator vanes that are located only at a first stage, constitute a stator vane row and rotate around rotary shafts of the variable stator vanes so as to adjust angles of the variable stator vanes , the shafts extending in a radial direction of the axial-flow compressor ; characterized by replacing at least stator vanes included in the existing axial-flow compressor and located at a second stage with other variable stator vanes ; connecting a new ring to another stator vane row constituted by the other variable stator vanes so that the ring drives and rotates the other variable stator vanes of the other stator vane row ; adding, to the existing axial-flow compressor, a plurality of levers , a new rotary shaft and a plurality of connecting rods , the plurality of levers corresponding to the ring and another ring that is located at the first stage, the new rotary shaft holding the plurality of levers so as to enable the levers to pivot, extending in an axis of the axial-flow compressor , the connecting rods connecting the plurality of rings to the plurality of levers that correspond to the rings , respectively; and connecting a cylinder included in the existing axial-flow compressor to one lever of the plurality of levers , which is associated with the stator vane row located at the first stage, and the one lever of the plurality of levers is connected by the rotary shaft to a further lever of the plurality of levers connected to the first ring . using, as a foundation, an existing axial-flow compressor that has variable stator vanes that are located only at a first stage, constitute a stator vane row and rotate around rotary shafts of the variable stator vanes so as to adjust angles of the variable stator vanes , the shafts extending in a radial direction of the axial-flow compressor ; characterized by replacing at least stator vanes included in the existing axial-flow compressor and located at a second stage with other variable stator vanes ; connecting a new ring to another stator vane row constituted by the other variable stator vanes so that the ring drives and rotates the other variable stator vanes of the other stator vane row ; adding, to the existing axial-flow compressor, a plurality of levers , a new rotary shaft and a plurality of connecting rods , the plurality of levers corresponding to the ring and another ring that is located at the first stage, the new rotary shaft holding the plurality of levers so as to enable the levers to pivot, extending in an axis of the axial-flow compressor , the connecting rods connecting the plurality of rings to the plurality of levers that correspond to the rings , respectively; and connecting a cylinder included in the existing axial-flow compressor to one lever of the plurality of levers , which is associated with the stator vane row located at the first stage, and the one lever of the plurality of levers is connected by the rotary shaft to a further lever of the plurality of levers connected to the first ring .
A wind turbine having a tower and a system for reducing audible tonality generated by the wind turbine , the system comprising: a plurality of damping elements mounted at a plurality of locations on an inner surface of the tower , the plurality of locations having vibration levels above a predetermined threshold during operation of the wind turbine , and, wherein, during operation of the wind turbine , the plurality of damping elements are configured to damp vibrations of the tower so as to reduce audible tonality generated thereby, and each of the plurality of damping elements is a tuned-mass damper and has a discrete cylindrical mass element , a discrete cylindrical elastomeric element , and a discrete magnet secured together, wherein a modal mass of the discrete cylindrical mass element and a stiffness of the discrete cylindrical elastomeric element set a target frequency of the damping element ; and wherein a total modal mass of all the discrete mass elements is selected such that its total modal mass is less than 2% of the modal mass of the tower . a plurality of damping elements mounted at a plurality of locations on an inner surface of the tower , the plurality of locations having vibration levels above a predetermined threshold during operation of the wind turbine , and, wherein, during operation of the wind turbine , the plurality of damping elements are configured to damp vibrations of the tower so as to reduce audible tonality generated thereby, and each of the plurality of damping elements is a tuned-mass damper and has a discrete cylindrical mass element , a discrete cylindrical elastomeric element , and a discrete magnet secured together, wherein a modal mass of the discrete cylindrical mass element and a stiffness of the discrete cylindrical elastomeric element set a target frequency of the damping element ; and wherein a total modal mass of all the discrete mass elements is selected such that its total modal mass is less than 2% of the modal mass of the tower .
Mobile test device for dynamic vehicle testing, for supporting a target object for the vehicle being tested, the device comprising: - a chassis with a support plate arranged so as to receive the target object, - a plurality of running gears each with at least one wheel which is arranged so as to roll on a rolling plane (PR) formed by a test track, - propulsion means connected to at least one of the wheels for propelling the device on the rolling plane (PR), characterized in that at least one of the running gears comprises: - a swinging arm which carries one of the wheels and is articulated on the chassis, - suspension means with a first end articulated on the chassis, - damping means which are arranged so as to damp a relative movement between at least one of the wheels and the support plate , wherein the suspension means are mounted on or integrated with or coupled to the damping means such that the first end of the suspension means is also the first end of the damping means , and a second end of the suspension means is also a second end of the damping means, - a rocker with a first end articulated on the chassis and a second end connected to the second end of the suspension means, - a connecting rod connecting the swinging arm to the rocker , wherein the connecting rod has one end connected to the rocker , between the first end of the rocker and the second end of the rocker . - a chassis with a support plate arranged so as to receive the target object, - a plurality of running gears each with at least one wheel which is arranged so as to roll on a rolling plane (PR) formed by a test track, - propulsion means connected to at least one of the wheels for propelling the device on the rolling plane (PR), - a swinging arm which carries one of the wheels and is articulated on the chassis, - suspension means with a first end articulated on the chassis, - damping means which are arranged so as to damp a relative movement between at least one of the wheels and the support plate , wherein the suspension means are mounted on or integrated with or coupled to the damping means such that the first end of the suspension means is also the first end of the damping means , and a second end of the suspension means is also a second end of the damping means, - a rocker with a first end articulated on the chassis and a second end connected to the second end of the suspension means, - a connecting rod connecting the swinging arm to the rocker ,
Drive unit for an aircraft having a longitudinal direction (X), the drive unit comprising: - a structure , - a nose cowl secured to the structure and delimiting an air inlet , - a first and a second fan cowl (160a-b), these being arranged to the rear of the nose cowl around the structure , where each fan cowl (160a-b) comprises a front edge and a rear edge which are arched, and a proximal edge (406a-b) and a distal edge (408a-b) which join together the front and rear edges , - two thrust reverser cowls arranged to the rear of the fan cowls (160a-b) around the structure , - a hinge system structurally secured to the fan cowls (160a-b) only, - a locking system offset away from the hinge system , and - positioning means distributed between each fan cowl (160a-b) and the structure for immobilizing the fan cowl (160a-b) parallel to a longitudinal direction (X), where the proximal edge of the first fan cowl is mounted such that it is articulated to the proximal edge of the second fan cowl by the hinge system and where the distal edge of the first fan cowl is connected to the distal edge of the second fan cowl by the locking system which is able alternately to adopt a locked position in which the two distal edges (408a-b) are locked together and an unlocked position in which the two distal edges (408a-b) are free relative to one another, and characterized in that the positioning means comprise a rib produced along at least one of the front or rear edges of each fan cowl (160a-b) and a groove produced in the structure and where the rib is housed in the groove . - a structure , - a nose cowl secured to the structure and delimiting an air inlet , - a first and a second fan cowl (160a-b), these being arranged to the rear of the nose cowl around the structure , where each fan cowl (160a-b) comprises a front edge and a rear edge which are arched, and a proximal edge (406a-b) and a distal edge (408a-b) which join together the front and rear edges , - two thrust reverser cowls arranged to the rear of the fan cowls (160a-b) around the structure , - a hinge system structurally secured to the fan cowls (160a-b) only, - a locking system offset away from the hinge system , and - positioning means distributed between each fan cowl (160a-b) and the structure for immobilizing the fan cowl (160a-b) parallel to a longitudinal direction (X),
Line filter , which is configured to be installed onto a system cable , wherein the line filter comprises a magnetic component , wherein the line filter defines a cable path through the line filter , wherein the line filter is configured to allow a placement of the system cable along the cable path at the time of an installation, thereby providing a magnetic coupling of the system cable to the magnetic component , and wherein the line filter comprises an insulation displacement connector and a shunt component wherein the insulation displacement connector is configured to be tightened at the time of the installation, thereby providing a galvanic connection of the system cable to the shunt component , wherein the magnetic component is an inductor core, wherein the line filter comprises a housing , wherein the insulation displacement connector is arranged completely inside the housing , wherein the magnetic component is ring-shaped and comprises an opening , and wherein the cable path passes through the opening of the magnetic component , characterized in that the line filter comprises a guiding element that comprises a single tube for guiding multiple phases of the system cable , or comprises multiple separate tubes for guiding the respective phases of the system cable , the guiding element being configured to mechanically guide the system cable along the cable path during the placement of the system cable along the cable path and to hold the system cable in the cable path once the system cable is placed along the cable path ; and wherein the guiding element is configured to hold the system cable in its position along the cable path .
A light-emitting device comprising: a first electrode ; a second electrode facing the first electrode ; an interlayer between the first electrode and the second electrode and comprising an emission layer; and a capping layer , wherein the emission layer comprises a first emitter, the first emitter is configured to emit a first light having a first emission spectrum, the capping layer is in a path on which the first light travels, the first emitter comprises iridium, the capping layer comprises an amine-containing compound, and the value of ratio of CIEy to reflective index (RCR value) of the first light extracted to the outside through the capping layer is 38 or less, and the RCR value is calculated according to Equation 1: CIEy / R cap × 100 wherein, in Equation 1, CIEy is the y coordinate value of the CIE color coordinates of the first light extracted to the outside through the capping layer, and R(cap) is the refractive index of the amine-containing compound with respect to a second light having a wavelength of 530 nm, characterised in that a maximum emission peak wavelength of the first emission spectrum is from 520 nm to 550 nm . a first electrode ; a second electrode facing the first electrode ; an interlayer between the first electrode and the second electrode and comprising an emission layer; and a capping layer , wherein the emission layer comprises a first emitter, the first emitter is configured to emit a first light having a first emission spectrum, the capping layer is in a path on which the first light travels, the first emitter comprises iridium, the capping layer comprises an amine-containing compound, and the value of ratio of CIEy to reflective index (RCR value) of the first light extracted to the outside through the capping layer is 38 or less, and the RCR value is calculated according to Equation 1: CIEy / R cap × 100 wherein, in Equation 1, CIEy is the y coordinate value of the CIE color coordinates of the first light extracted to the outside through the capping layer, and R(cap) is the refractive index of the amine-containing compound with respect to a second light having a wavelength of 530 nm, characterised in that a maximum emission peak wavelength of the first emission spectrum is from 520 nm to 550 nm .
A manufacturing method of a thickness-varied metal plate, the manufacturing method comprising: manufacturing a cut plate (B) by cutting a metal plate into a predetermined shape; and manufacturing a thickness-varied metal plate (TB1) of which a plate thickness is varied in two different directions orthogonal to a plate thickness direction by processing the cut plate (B) through at least one of rolling and forging, using a processing machine including a first work roll and a second work roll of which a radius is varied in a circumferential direction and an axial direction of a rotational axis; wherein the processing machine includes a first backup roll that is disposed on an opposite side of the first work roll from the second work roll and comes in contact with the first work roll, and a second backup roll that is disposed on an opposite side of the second work roll from the first work roll and comes in contact with the second work roll, and when the thickness-varied metal plate (TB1) is manufactured, the cut plate (B) is processed by rotating the first work roll in forward and reverse directions within a range in which a region with a constant radius of the first work roll comes in contact with the first backup roll, and rotating the second work roll in forward and reverse directions within a range in which a region with a constant radius of the second work roll comes in contact with the second backup roll. manufacturing a cut plate (B) by cutting a metal plate into a predetermined shape; and manufacturing a thickness-varied metal plate (TB1) of which a plate thickness is varied in two different directions orthogonal to a plate thickness direction by processing the cut plate (B) through at least one of rolling and forging, using a processing machine including a first work roll and a second work roll of which a radius is varied in a circumferential direction and an axial direction of a rotational axis; wherein the processing machine includes a first backup roll that is disposed on an opposite side of the first work roll from the second work roll and comes in contact with the first work roll, and a second backup roll that is disposed on an opposite side of the second work roll from the first work roll and comes in contact with the second work roll, and when the thickness-varied metal plate (TB1) is manufactured, the cut plate (B) is processed by rotating the first work roll in forward and reverse directions within a range in which a region with a constant radius of the first work roll comes in contact with the first backup roll, and rotating the second work roll in forward and reverse directions within a range in which a region with a constant radius of the second work roll comes in contact with the second backup roll.
A method , comprising: obtaining, by a device, raw heartbeat data associated with a plurality of wavelength channels ; generating, by the device and based on a feature vector transformation, a plurality of moving quarter-period slopes feature vectors, where the moving quarter-period slope feature vectors are defined as (R t -R 0 )/R 0 , where R t is a photometric response, identified by the raw heartbeat data, at a current time step and R 0 is a photometric response at time step a fraction of an estimated heartbeat cycle period of the subject before the current time step, each corresponding to a respective one of the plurality of wavelength channels ; identifying, by the device, a set of selected feature vectors, from the plurality of feature vectors, based on a plurality of squares of correlation coefficients , each associated with a respective pair of the plurality of feature vectors ; generating, by the device and using a principal component analysis, an average feature vector of the set of selected feature vectors ; determining, by the device, initial heartbeat cycle data based on the average feature vector ; and correcting, by the device, heartbeat cycle gaps in the initial heartbeat cycle data in order to determine final heartbeat cycle data to permit a biometric monitoring action to be performed . obtaining, by a device, raw heartbeat data associated with a plurality of wavelength channels ; generating, by the device and based on a feature vector transformation, a plurality of moving quarter-period slopes feature vectors, where the moving quarter-period slope feature vectors are defined as (R t -R 0 )/R 0 , where R t is a photometric response, identified by the raw heartbeat data, at a current time step and R 0 is a photometric response at time step a fraction of an estimated heartbeat cycle period of the subject before the current time step, each corresponding to a respective one of the plurality of wavelength channels ; identifying, by the device, a set of selected feature vectors, from the plurality of feature vectors, based on a plurality of squares of correlation coefficients , each associated with a respective pair of the plurality of feature vectors ; generating, by the device and using a principal component analysis, an average feature vector of the set of selected feature vectors ; determining, by the device, initial heartbeat cycle data based on the average feature vector ; and correcting, by the device, heartbeat cycle gaps in the initial heartbeat cycle data in order to determine final heartbeat cycle data to permit a biometric monitoring action to be performed .