mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a self-optimization, performed by an integration reference point agent, IRPAgent, an element management system, EM, or a network element, NE, and an entity that provides a self-optimization capability is on the IRPAgent, the EM, or the NE, wherein: a switch attribute is defined, on a network resource model, NRM, of the entity, for each self-optimization field in self-optimization fields, and the self-optimization fields comprise handover, load balancing, interference control, capacity and coverage, random access channel optimization, and energy saving; and the method comprises: querying a state of a switch attribute defined for the self-optimization; setting the state of the switch attribute to control enabling or disabling of the self-optimization. querying a state of a switch attribute defined for the self-optimization; setting the state of the switch attribute to control enabling or disabling of the self-optimization.
A pneumatic tire comprising a bead reinforcement, the tire comprising: a tread to come in contact with a road surface; side walls that extend from the tread radially inwards to beads (P); shoulders formed at the transitions from the tread to the side walls ; an inner liner on the inside of the side walls ; a carcass extending from bead (P) to bead (P), the carcass being arranged radially inside of the tread and forming an inner part of the side walls , the carcass being turned around bead cores from the axial inside to the outside, the carcass terminating at its both ends at turn-up heads at the transitions to the side walls ; a belt layer layered between the tread and the carcass ; each bead (P) includes the bead core axially inside the turn-up head , a bead filler radially outside of the bead core , and a reinforcement material axially outside of the bead core , the bead filler and the turn-up head , the reinforcement material being formed such that its radially outer end point is overlapping with the carcass in the side walls , characterized in that the radially outer end point of the reinforcement material is located 5 mm to 10mm radially outwards of the radially outer bead filler end point . a tread to come in contact with a road surface; side walls that extend from the tread radially inwards to beads (P); shoulders formed at the transitions from the tread to the side walls ; an inner liner on the inside of the side walls ; a carcass extending from bead (P) to bead (P), the carcass being arranged radially inside of the tread and forming an inner part of the side walls , the carcass being turned around bead cores from the axial inside to the outside, the carcass terminating at its both ends at turn-up heads at the transitions to the side walls ; a belt layer layered between the tread and the carcass ; each bead (P) includes the bead core axially inside the turn-up head , a bead filler radially outside of the bead core , and a reinforcement material axially outside of the bead core , the bead filler and the turn-up head , the reinforcement material being formed such that its radially outer end point is overlapping with the carcass in the side walls , characterized in that the radially outer end point of the reinforcement material is located 5 mm to 10mm radially outwards of the radially outer bead filler end point . each bead (P) includes the bead core axially inside the turn-up head , a bead filler radially outside of the bead core , and a reinforcement material axially outside of the bead core , the bead filler and the turn-up head , the reinforcement material being formed such that its radially outer end point is overlapping with the carcass in the side walls , characterized in that the radially outer end point of the reinforcement material is located 5 mm to 10mm radially outwards of the radially outer bead filler end point .
A composition comprising at least one monoclonal antibody for neutralizing an influenza A virus, selected from the group consisting of: i) a monoclonal antibody, comprising a light-chain variable domain including a CDR1 region of SEQ ID NO:1, a CDR2 region of SEQ ID NO:2 and a CDR3 region of SEQ ID NO:3, and a heavy-chain variable domain including a CDR1 region of SEQ ID NO:4, a CDR2 region of SEQ ID NO:5 and a CDR3 region of SEQ ID NO:6, as determined according to the Kabat method; and ii) a monoclonal antibody, comprising a light-chain variable domain including a CDR1 region of SEQ ID NO:7, a CDR2 region of SEQ ID NO:8 and a CDR3 region of SEQ ID NO:9, and a heavy-chain variable domain including a CDR1 region of SEQ ID NO:10, a CDR2 region of SEQ ID NO:11 and a CDR3 region of SEQ ID NO:12, as determined according to the Kabat method; and a target antigen, for use in a method of enhancing an immune response induced by a vaccine for the prevention of a disease caused by an influenza virus, to thus increase the efficacy of said vaccine. i) a monoclonal antibody, comprising a light-chain variable domain including a CDR1 region of SEQ ID NO:1, a CDR2 region of SEQ ID NO:2 and a CDR3 region of SEQ ID NO:3, and a heavy-chain variable domain including a CDR1 region of SEQ ID NO:4, a CDR2 region of SEQ ID NO:5 and a CDR3 region of SEQ ID NO:6, as determined according to the Kabat method; and ii) a monoclonal antibody, comprising a light-chain variable domain including a CDR1 region of SEQ ID NO:7, a CDR2 region of SEQ ID NO:8 and a CDR3 region of SEQ ID NO:9, and a heavy-chain variable domain including a CDR1 region of SEQ ID NO:10, a CDR2 region of SEQ ID NO:11 and a CDR3 region of SEQ ID NO:12, as determined according to the Kabat method; and a target antigen,
A laser processing head comprising: a tubular main body ; and a gas supply part (GK) disposed in the main body and allowing an assist gas (AG) supplied from outside to flow into an internal space (Vc) of the main body , wherein the gas supply part (GK) includes: a first gas supply hole extending along a first axis (C11) on a plane orthogonal to an axis (CL1) of a tube of the main body and opening at an inner circumferential surface (1a2) of the main body , wherein the first axis (C11) crosses the axis (CL1); a second gas supply hole forming a predetermined angle (θc) relative to the first axis (C11) around the axis (CL1), extending along a second axis (C12) on the plane orthogonal to the axis (CL1) and opening at the inner circumferential surface (1a2), wherein the second axis (C12) crosses the axis (CL1); and a flow path forming ring facing the inner circumferential surface (1a2) with a predetermined interval, and forming a cylindrical space (Va) extending along the axis (CL1) between an outer circumferential surface (1d1a) of a peripheral wall portion (1d1) of the flow path forming ring and the inner circumferential surface (1a2). a tubular main body ; and a gas supply part (GK) disposed in the main body and allowing an assist gas (AG) supplied from outside to flow into an internal space (Vc) of the main body , wherein the gas supply part (GK) includes: a first gas supply hole extending along a first axis (C11) on a plane orthogonal to an axis (CL1) of a tube of the main body and opening at an inner circumferential surface (1a2) of the main body , wherein the first axis (C11) crosses the axis (CL1); a second gas supply hole forming a predetermined angle (θc) relative to the first axis (C11) around the axis (CL1), extending along a second axis (C12) on the plane orthogonal to the axis (CL1) and opening at the inner circumferential surface (1a2), wherein the second axis (C12) crosses the axis (CL1); and a flow path forming ring facing the inner circumferential surface (1a2) with a predetermined interval, and forming a cylindrical space (Va) extending along the axis (CL1) between an outer circumferential surface (1d1a) of a peripheral wall portion (1d1) of the flow path forming ring and the inner circumferential surface (1a2). a first gas supply hole extending along a first axis (C11) on a plane orthogonal to an axis (CL1) of a tube of the main body and opening at an inner circumferential surface (1a2) of the main body , wherein the first axis (C11) crosses the axis (CL1); a second gas supply hole forming a predetermined angle (θc) relative to the first axis (C11) around the axis (CL1), extending along a second axis (C12) on the plane orthogonal to the axis (CL1) and opening at the inner circumferential surface (1a2), wherein the second axis (C12) crosses the axis (CL1); and a flow path forming ring facing the inner circumferential surface (1a2) with a predetermined interval, and forming a cylindrical space (Va) extending along the axis (CL1) between an outer circumferential surface (1d1a) of a peripheral wall portion (1d1) of the flow path forming ring and the inner circumferential surface (1a2).
A textile item of clothing having a ballistic protection equipment, wherein the textile item of clothing has a knitted construction or a warp-/weft-knitted construction from at least two yarns , wherein the knitted construction or the warp-/weft-knitted construction has ballistic proportions and flame-resistant proportions, characterized in that the knitted construction or the warp-/weft-knitted construction includes yarns which have a vector protection , and that the knitted construction or the warp-/weft-knitted construction includes yarns which are capable of being dyed in an arbitrary manner.
An airfoil (60; 160) comprising an airfoil body (62; 64; 66) having a geometrically segmented coating section , the geometrically segmented coating section including: a wall having an outer side , the outer side including an array of cells , and a coating disposed in the array of cells , wherein the airfoil body is an airfoil section , and the geometrically segmented coating section is on a portion of the airfoil section , characterised in that : an adjacent portion of the airfoil section includes the coating but excludes the cells . a wall having an outer side , the outer side including an array of cells , and a coating disposed in the array of cells , wherein the airfoil body is an airfoil section , and the geometrically segmented coating section is on a portion of the airfoil section ,
Ultrasonic flowmeter for measuring the flow of a medium flowing through a measuring tube with at least two ultrasonic transducers and at least one control and evaluation unit , wherein the measuring tube has an inner wall, wherein the ultrasonic transducers each are designed as transmitters for transmitting an ultrasonic signal and/or as receivers for receiving the ultrasonic signal, wherein the ultrasonic transducers are arranged offset in the direction of flow such that the respective transmitter transmits an ultrasonic signal in the direction of flow or against the direction of flow during operation and that the receiver receives the ultrasonic signal transmitted by the transmitter after at least one reflection on the inner wall of the measuring tube , wherein the ultrasonic signal has a first signal component and at least a second signal component , wherein the ultrasonic transducers are aligned with one another such that the first signal component of the ultrasonic signal reaches the receiver via a first measuring path from the transmitter to the receiver , and that the second signal component of the ultrasonic signal reaches the receiver via a second measuring path from the transmitter to the receiver , wherein the first measuring path and the second measuring path have a different number of reflections on the inner wall of the measuring tube and wherein the first signal component and the second signal component can be distinguished by different transit times at the receiver , and that the control and evaluation unit is designed in such a manner that the control and evaluation unit determines the speed and the flow rate of the medium using the transit time of the first signal component and the transit time of the second signal component , characterized in that at least one further signal component , which reaches the receiver via a further stable measuring path , and at least one means for suppressing the at least one further signal component of the ultrasonic signal are present.
A multi-row plate radiator comprising a heating medium and a connecting element for connecting at least two heating plates of the multi-row radiator, said connecting element consisting of lateral connecting sockets and of a first threaded connection bushing , both arranged to form a T-shaped casing around a central spherical part of the connecting element , said T-shaped casing having connected across a plane that is formed by principal axes of the connecting sockets and a principal axis of the first threaded connection bushing a second threaded connection bushing to its central spherical part , wherein a common insert passes sealingly through both lateral connecting sockets , said common insert being provided on one side with a first outflow hole emptying with its radial outlet into a cavity of the central spherical part of the connecting element and on the other side with a second outflow hole with an outlet in the form of a seat facing the second threaded connection bushing that is provided with a valve with an axially movable valve stem with a sealing poppet , characterized in that the outflow of the cooled heating medium from a front plate of the multi-row plate radiator with heating plates in the form of the front plate and the rear plate is continuous across the radial outlet of the first outflow hole into the cavity of the central spherical part of the connecting element and from it further into the first threaded connection bushing , while the outflow of heating medium from the rear radiator plate is regulated by the stream volume through the second outflow hole with the seat and from behind the sealing poppet that is controlled by the valve into the cavity of the central spherical part of the connecting element , wherein both return flows of the heating medium are mutually mixed in a preset ratio before discharging to the first threaded connection bushing .
A communication method of a master base station in a cluster including the master base station and at least one slave base station, the method comprising: receiving , from a plurality of master terminals corresponding to the master base station, information associated with a preferred rank; receiving , from the at least one slave base station, information associated with a coordinated rank with respect to the master base station, wherein the coordinated rank is a rank that maximizes or minimizes the performance of a terminal, determining a transmission rank based on information that is associated with the preferred rank and information associated with the coordinated rank; scheduling , when at least one master terminal of the plurality of master terminals, corresponding to the master base station, exists in a first master group, the at least one master terminal included in the first master group, and scheduling , when at least one master terminal of the plurality of master terminals included in the first master group is nonexistent, at least one master terminal of the plurality of terminals included in a second master group; the first master group being defined as a set of master terminals, each of which has a preferred rank equal to the transmission rank and the second master group being defined as a set of master terminals, each of which has a preferred rank unequal to the transmission rank; and transmitting, to the at least one slave base station, information associated with the master group in which the scheduled master terminal is included and information associated with the transmission rank. receiving , from a plurality of master terminals corresponding to the master base station, information associated with a preferred rank; receiving , from the at least one slave base station, information associated with a coordinated rank with respect to the master base station, wherein the coordinated rank is a rank that maximizes or minimizes the performance of a terminal, determining a transmission rank based on information that is associated with the preferred rank and information associated with the coordinated rank; scheduling , when at least one master terminal of the plurality of master terminals, corresponding to the master base station, exists in a first master group, the at least one master terminal included in the first master group, and scheduling , when at least one master terminal of the plurality of master terminals included in the first master group is nonexistent, at least one master terminal of the plurality of terminals included in a second master group; the first master group being defined as a set of master terminals, each of which has a preferred rank equal to the transmission rank and the second master group being defined as a set of master terminals, each of which has a preferred rank unequal to the transmission rank; and transmitting, to the at least one slave base station, information associated with the master group in which the scheduled master terminal is included and information associated with the transmission rank.
A method for transmitting an uplink signal on physical control channel performed by a terminal device, the method comprising: determining that the terminal device has a capability of transmitting the uplink signal on physical control channel in at least a first time instant and a second time instant coherently; performing a first transmission of the uplink signal on physical control channel in the first time instant in a first set of subcarriers; and performing a second transmission of the uplink signal on physical control channel in the second time instant in a second set of subcarriers; wherein the first transmission and the second transmission are transmitted coherently; and wherein the capability of transmitting the uplink signal on physical control channel in at least the first time instant and the second time instant coherently is determined based on at least one of the following: whether the first time instant and the second time instant are consecutive; a change in transmission power between the first time instant and the second time instant; a frequency offset between a central frequency of the first set of subcarriers and a central frequency of the second set of subcarriers; and an uplink spatial relation between uplink control channel transmissions in the first time instant and the second time instant. determining that the terminal device has a capability of transmitting the uplink signal on physical control channel in at least a first time instant and a second time instant coherently; performing a first transmission of the uplink signal on physical control channel in the first time instant in a first set of subcarriers; and performing a second transmission of the uplink signal on physical control channel in the second time instant in a second set of subcarriers; whether the first time instant and the second time instant are consecutive; a change in transmission power between the first time instant and the second time instant; a frequency offset between a central frequency of the first set of subcarriers and a central frequency of the second set of subcarriers; and an uplink spatial relation between uplink control channel transmissions in the first time instant and the second time instant.
A hearing aid device (2; 2') for improving, augmenting and/or protecting the hearing capability of a user (4; 4') when receiving acoustic signals from the surroundings of the user, the hearing aid device comprising • an input unit for generating corresponding audio signals, • a signal processing unit for modifying the audio signals, and • an output unit for providing modified audio signals as audible signals to at least one of the user's ears , • a feedback path unit comprising a feedback estimation unit comprising an adaptive feedback algorithm for estimating a feedback path from the output unit to the input unit, • a sensor member for detecting movement and angle of the hearing aid device, and • a time unit for estimating a time range in which movement and angle is detected by the sensor member , CHARACTERIZED IN THAT the hearing aid device is configured to control the powering up of the hearing aid device (2; 2') based on said feedback path unit estimating a feedback path close to a reference feedback path estimate for the hearing aid device user by playing an acoustic signal out of the output unit, in response to said sensor member detecting movement of the hearing aid device and that the angle of the hearing aid device has been close to the angle it is expected to have when operationally mounted on the ear of the user for a minimum time range detected by said time unit. • an input unit for generating corresponding audio signals, • a signal processing unit for modifying the audio signals, and • an output unit for providing modified audio signals as audible signals to at least one of the user's ears , • a feedback path unit comprising a feedback estimation unit comprising an adaptive feedback algorithm for estimating a feedback path from the output unit to the input unit, • a sensor member for detecting movement and angle of the hearing aid device, and • a time unit for estimating a time range in which movement and angle is detected by the sensor member ,
Apparatus for providing a switch mechanism, comprising: a housing containing within: a pressure sensitive device comprising a resistive pressure sensor responsive to an applied force, said pressure sensitive device being mounted to said housing; a first actuator moveably connected to said housing to enable said first actuator to move along an axis towards and away from said pressure sensitive device, so as to transmit said applied force to said pressure sensitive device; and a first resilient member having a first end connected to said first actuator and a second end connected to said pressure sensitive device. a pressure sensitive device comprising a resistive pressure sensor responsive to an applied force, said pressure sensitive device being mounted to said housing; a first actuator moveably connected to said housing to enable said first actuator to move along an axis towards and away from said pressure sensitive device, so as to transmit said applied force to said pressure sensitive device; and a first resilient member having a first end connected to said first actuator and a second end connected to said pressure sensitive device.
A method of manufacturing a grip element for gripping a tubular workpiece made from a corrosion-resistant alloy (CRA), wherein said method comprises the steps of: (a) forming a grip element comprising a CRA substrate, wherein the grip element comprises a grip surface having a plurality of generally pyramidic die teeth projecting therefrom; (b) treating at least portions of the grip surface and the die teeth surfaces with a surface-hardening process; and (c) subsequent to the surface-hardening step in clause (b), intentionally truncating at least some of the die teeth such that each truncated die tooth tip defines a flattened surface that includes an exposed surface of the CRA substrate. (a) forming a grip element comprising a CRA substrate, wherein the grip element comprises a grip surface having a plurality of generally pyramidic die teeth projecting therefrom; (b) treating at least portions of the grip surface and the die teeth surfaces with a surface-hardening process; and (c) subsequent to the surface-hardening step in clause (b), intentionally truncating at least some of the die teeth such that each truncated die tooth tip defines a flattened surface that includes an exposed surface of the CRA substrate.