mhurhangee/ep-ind-claims huggingface dataset:
An integrated circuit to control a process, the process comprising: transmitting, to a mobile station, control information related to a mapping of sounding reference signals, SRSs, to frequency resources; and receiving the SRSs, which are mapped to the frequency resources based on the control information and which are transmitted from the mobile station, characterized in that each of the frequency resources has a fixed bandwidth regardless of variation of a SRS transmission bandwidth in a system bandwidth, to both ends of which control channels are mapped, the SRS transmission bandwidth covers a frequency band subject to estimation of channel quality information, and the SRS transmission bandwidth is uniformly divided into the frequency resources. transmitting, to a mobile station, control information related to a mapping of sounding reference signals, SRSs, to frequency resources; and receiving the SRSs, which are mapped to the frequency resources based on the control information and which are transmitted from the mobile station, characterized in that each of the frequency resources has a fixed bandwidth regardless of variation of a SRS transmission bandwidth in a system bandwidth, to both ends of which control channels are mapped, the SRS transmission bandwidth covers a frequency band subject to estimation of channel quality information, and the SRS transmission bandwidth is uniformly divided into the frequency resources.
A method for determining the properties of a fiber material at a workstation of a textile machine, particularly an open-end or air-jet spinning machine, the textile machine comprising a plurality of workstations, and each workstation comprising at least one drive, namely an electric drive, by means of which at least one processing means (4, 5, 6, 7, 8, 9, 10, 19, 20) of the particular workstation associated with the drive is driven for processing the fiber material (2, 3), wherein at least one property of the fiber material (2, 3, 16) processed by means of the processing means (4, 5, 6, 7, 8, 9, 10, 19, 20) associated with the drive is determined using a measurement of a load parameter of the at least one drive characterized in that the load parameter is a load angle (α) and that after the determination of the at least one property of the fiber material (2, 3, 16), parameters for controlling the drives and/or the treatment means (4, 5, 6, 7, 8, 9, 10, 19, 20) are adapted. the textile machine comprising a plurality of workstations, and each workstation comprising at least one drive, namely an electric drive, by means of which at least one processing means (4, 5, 6, 7, 8, 9, 10, 19, 20) of the particular workstation associated with the drive is driven for processing the fiber material (2, 3), wherein at least one property of the fiber material (2, 3, 16) processed by means of the processing means (4, 5, 6, 7, 8, 9, 10, 19, 20) associated with the drive is determined using a measurement of a load parameter of the at least one drive characterized in that the load parameter is a load angle (α) and that after the determination of the at least one property of the fiber material (2, 3, 16), parameters for controlling the drives and/or the treatment means (4, 5, 6, 7, 8, 9, 10, 19, 20) are adapted.
A four wheel vehicle including a pair of front wheels, a pair of rear wheels, an electric motor for powering the rear wheels and/or front wheels, and a battery unit for supplying electric power to the electric motor, the vehicle comprising: a pair of front side frames extending linearly in a fore and aft direction with an upward slant and a progressively increasing lateral mutual spacing from a front part thereof to a rear part thereof; a pair of rear side frames connected to rear ends of the respective front side frames with an upward offset, and extending linearly in the fore and aft direction in a mutually parallel relationship; at least one front cross member (14, 16, 18) extending laterally between the front side frames; at least one rear cross member (20, 22) extending laterally between the rear side frames; a front suspension system mounted on each front side frame to support the corresponding front wheel; and a rear suspension system mounted on each rear side frame to support the corresponding rear wheel, characterized in that the rear side frames are each given with an upward slant from a front part thereof to a rear part thereof substantially in continuation of the corresponding front side frame. a pair of front side frames extending linearly in a fore and aft direction with an upward slant and a progressively increasing lateral mutual spacing from a front part thereof to a rear part thereof; a pair of rear side frames connected to rear ends of the respective front side frames with an upward offset, and extending linearly in the fore and aft direction in a mutually parallel relationship; at least one front cross member (14, 16, 18) extending laterally between the front side frames; at least one rear cross member (20, 22) extending laterally between the rear side frames; a front suspension system mounted on each front side frame to support the corresponding front wheel; and a rear suspension system mounted on each rear side frame to support the corresponding rear wheel, characterized in that the rear side frames are each given with an upward slant from a front part thereof to a rear part thereof substantially in continuation of the corresponding front side frame.
A time synchronization method for a diagnostic strip analysis apparatus, comprising: a) when a user sets time of the diagnostic strip analysis apparatus, storing time setting information in a storage unit of the diagnostic strip analysis apparatus; b) measuring biological information using the diagnostic strip analysis apparatus; c) simultaneously storing the time setting information of the diagnostic strip analysis apparatus and measured amounts and measurement times of the biological information in the storage unit of the diagnostic strip analysis apparatus; d) transmitting the time setting information of the diagnostic strip analysis apparatus and the measured amounts and the measurement times of the biological information, together with transmission times, to a management medium; e) a control unit of the management medium recognizing the time setting information of the diagnostic strip analysis apparatus, and then determining whether time of the diagnostic strip analysis apparatus has been set; and f) if the control unit of the management medium determines that the time of the diagnostic strip analysis apparatus has been set, storing the time setting information of the diagnostic strip analysis apparatus and the measured amounts, the measurement times and the transmission times of the biological information, which have been transmitted to the management medium, in a storage unit of the management medium. a) when a user sets time of the diagnostic strip analysis apparatus, storing time setting information in a storage unit of the diagnostic strip analysis apparatus; b) measuring biological information using the diagnostic strip analysis apparatus; c) simultaneously storing the time setting information of the diagnostic strip analysis apparatus and measured amounts and measurement times of the biological information in the storage unit of the diagnostic strip analysis apparatus; d) transmitting the time setting information of the diagnostic strip analysis apparatus and the measured amounts and the measurement times of the biological information, together with transmission times, to a management medium; e) a control unit of the management medium recognizing the time setting information of the diagnostic strip analysis apparatus, and then determining whether time of the diagnostic strip analysis apparatus has been set; and f) if the control unit of the management medium determines that the time of the diagnostic strip analysis apparatus has been set, storing the time setting information of the diagnostic strip analysis apparatus and the measured amounts, the measurement times and the transmission times of the biological information, which have been transmitted to the management medium, in a storage unit of the management medium.
A friction transmission belt comprising a rubber layer having a friction surface, said rubber layer having a friction surface; wherein said rubber layer material comprising carbon black whose average nitrogen adsorption surface area (ASTM D1765-01) is between 40 and 49 m 2 /g, said rubber layer material making said friction surface uneven due to the addition of said carbon black to said rubber layer to drain water so that slippage of said friction transmission belt caused by water accumulating on said friction surface is prevented, characterized in that said rubber layer further comprises a diatomaceous earth.
An electric motor, comprising: a stator comprising a plurality of teeth protruding from an inner surface; and a rotor, including a plurality of poles, arranged to rotate in the stator, wherein the rotor includes a bridge part disposed between poles, and a first rotor groove and a second rotor groove at opposite first and second sides of the bridge part, and wherein each of the teeth of the stator include a first stator groove and a second stator groove that face the first rotor groove and the second rotor groove respectively, and characterized in that an angle θ2, between a first virtual line defining a first end of the first stator groove closest to the bridge part and a central virtual line, is equal to or larger than an angle θ1, between a second virtual line defining a first end of the first rotor groove closest to the bridge part and the central virtual line, wherein the first virtual line passes through the first end of the first stator groove and a centre of the rotor, the second virtual line passes through the first end of the first rotor groove and the centre of the rotor, and the central virtual line passes through the centre of the rotor, a centre of a connection surface between the first and second rotor grooves (60A,60B) and a centre of the tooth. a stator comprising a plurality of teeth protruding from an inner surface; and a rotor, including a plurality of poles, arranged to rotate in the stator, wherein the rotor includes a bridge part disposed between poles, and a first rotor groove and a second rotor groove at opposite first and second sides of the bridge part, and wherein each of the teeth of the stator include a first stator groove and a second stator groove that face the first rotor groove and the second rotor groove respectively, and characterized in that an angle θ2, between a first virtual line defining a first end of the first stator groove closest to the bridge part and a central virtual line, is equal to or larger than an angle θ1, between a second virtual line defining a first end of the first rotor groove closest to the bridge part and the central virtual line, wherein the first virtual line passes through the first end of the first stator groove and a centre of the rotor, the second virtual line passes through the first end of the first rotor groove and the centre of the rotor, and the central virtual line passes through the centre of the rotor, a centre of a connection surface between the first and second rotor grooves (60A,60B) and a centre of the tooth.
A method for wireless communication at a user equipment, UE, comprising: identifying an antenna gain for an antenna of the UE; receiving, from a base station, a network signalling, NS, including an NS value associated with an antenna gain group that includes the antenna gain; identifying a set of emission requirements based at least in part on the antenna gain and the NS; identifying an additional maximum power reduction, A-MPR, based at least in part on the set of emission requirements, the NS value and the antenna gain, the A-MPR used to satisfy regional regulatory requirements where the UE is located; and transmitting data using a maximum output power that is adjusted in accordance with the A-MPR. identifying an antenna gain for an antenna of the UE; receiving, from a base station, a network signalling, NS, including an NS value associated with an antenna gain group that includes the antenna gain; identifying a set of emission requirements based at least in part on the antenna gain and the NS; identifying an additional maximum power reduction, A-MPR, based at least in part on the set of emission requirements, the NS value and the antenna gain, the A-MPR used to satisfy regional regulatory requirements where the UE is located; and transmitting data using a maximum output power that is adjusted in accordance with the A-MPR.
A radio terminal (1; 12) adapted to perform radio communication with a base station, comprising: a communicator (1a; 21) adapted to perform discontinuous reception, DRX, in a DRX cycle, the DRX cycle including an active time for performing, by the radio terminal (1; 12), radio measurement and monitoring of a paging signal, and the communicator also being adapted to receive information related to the DRX cycle by a Non-Access Stratum, NAS, Attach Accept message of a NAS Attach procedure, the information notifying a period when the measurement/monitoring of the paging signal should be performed next; and a controller (1b; 22) adapted to control, according to the information, the communicator (1a; 21) so as to not perform the radio measurement and the monitoring during a first DRX cycle but to perform the radio measurement and the monitoring during a second DRX cycle different from the first DRX cycle, wherein the controller (1b; 22) is adapted to control the communicator to configure the second DRX cycle following the first DRX cycle; wherein the controller (1a; 21) is further adapted to perform the radio measurement and the monitoring within each DRX cycle after detecting an event having occurred in an application layer in the radio terminal (1; 12) for transmitting uplink data of the radio terminal (1; 12). a communicator (1a; 21) adapted to perform discontinuous reception, DRX, in a DRX cycle, the DRX cycle including an active time for performing, by the radio terminal (1; 12), radio measurement and monitoring of a paging signal, and the communicator also being adapted to receive information related to the DRX cycle by a Non-Access Stratum, NAS, Attach Accept message of a NAS Attach procedure, the information notifying a period when the measurement/monitoring of the paging signal should be performed next; and a controller (1b; 22) adapted to control, according to the information, the communicator (1a; 21) so as to not perform the radio measurement and the monitoring during a first DRX cycle but to perform the radio measurement and the monitoring during a second DRX cycle different from the first DRX cycle, wherein the controller (1b; 22) is adapted to control the communicator to configure the second DRX cycle following the first DRX cycle; wherein the controller (1a; 21) is further adapted to perform the radio measurement and the monitoring within each DRX cycle after detecting an event having occurred in an application layer in the radio terminal (1; 12) for transmitting uplink data of the radio terminal (1; 12).
An airseal for sealing between a rotating component and a stationary component of a turbine engine, comprising: a sealing surface defining a spacing between the airseal and a rotating component of the turbine engine; a mounting flange to secure the airseal to a stationary component of the turbine engine; and an airseal body extending between the sealing surface and the mounting flange; characterised in that the airseal body includes a cavity configured to absorb thermal energy transferred into the airseal from a flowpath of the turbine engine, and in that a vent extends from the cavity through the airseal body and is configured to relieve air pressure in the cavity, the vent located at an outer surface of the airseal body opposite the sealing surface. a sealing surface defining a spacing between the airseal and a rotating component of the turbine engine; a mounting flange to secure the airseal to a stationary component of the turbine engine; and an airseal body extending between the sealing surface and the mounting flange; characterised in that the airseal body includes a cavity configured to absorb thermal energy transferred into the airseal from a flowpath of the turbine engine, and in that a vent extends from the cavity through the airseal body and is configured to relieve air pressure in the cavity, the vent located at an outer surface of the airseal body opposite the sealing surface.
An object detection method for an object detection apparatus including a distance measurement sensor for acquiring three-dimensional data on an area around a host vehicle, and configured to detect an object by use of the three-dimensional data acquired by the distance measurement sensor, comprising: based on map data on an area around a current position of the host vehicle, extracting a vehicle traffic lane which the host vehicle is estimated to travel on a planned travel route from the current position of the host vehicle to a destination as a planned travel area, based on road structure information included in the map data, detecting vehicle traffic lanes around the current position of the host vehicle; and estimating crossing object existence areas; and detecting the object by use of the three-dimensional data on insides of the crossing object existence areas, characterized by estimating as crossing object existence areas the vehicle traffic lanes whose traveling directions point to the planned travel area and which cross the planned travel area from the detected vehicle traffic lanes, where there currently exist objects which are likely to cross the host vehicle in the future in the planned travel area. based on map data on an area around a current position of the host vehicle, extracting a vehicle traffic lane which the host vehicle is estimated to travel on a planned travel route from the current position of the host vehicle to a destination as a planned travel area, based on road structure information included in the map data, detecting vehicle traffic lanes around the current position of the host vehicle; and estimating crossing object existence areas; and detecting the object by use of the three-dimensional data on insides of the crossing object existence areas, characterized by estimating as crossing object existence areas the vehicle traffic lanes whose traveling directions point to the planned travel area and which cross the planned travel area from the detected vehicle traffic lanes, where there currently exist objects which are likely to cross the host vehicle in the future in the planned travel area.
A set comprised of a mat for detachably fixing an object like a shell and the object, wherein the mat has at least one recess designed as a depression in the mat, wherein a receiving device for the object is positioned in the recess of the mat, and consists at least partially of a stronger material than the mat, and wherein the receiving device has a screw cap with a lock for fixing the object through rotation, characterized in that the mat is self-adhesive, and that the mat is comprised at least partially of an elastically deformable material, and that the receiving device is comprised of a thermoplastic encapsulated with an elastic material in an injection molding process.
A tool body of a tool for metal cutting machining, the tool body extending in an axial direction, wherein at least a portion of the tool body is formed with a solid outer jacket encasing or substantially encasing a core structure, said core structure comprising a three-dimensional open lattice structure attached to the outer jacket and consisting of a lattice structure material, characterised in that said core structure further comprises a filling structure consisting of at least one solid phase filling material different from the lattice structure material, wherein said filling structure is surrounding the lattice structure so that the filling structure is fixed within the tool body.
A unit operation device comprising at least one helical flow inverter, each of said helical flow inverter comprising a helical tube having a single inlet at one end and an outlet at the opposite end, each of said helical tube comprising at least one installation, characterized in that the at least one installation is selected from at least one of a plurality of baffles or a contraction choke. each of said helical tube comprising at least one installation, characterized in that the at least one installation is selected from at least one of a plurality of baffles or a contraction choke.
A system comprising a wireless communication device which comprises: a processor; and a first application executed by the processor, wherein the first application is configured to generate application data, wherein the wireless communication device is configured to transmit the application data to a collection server after the wireless communication device establishes a network connection, even after the first application has been removed from the wireless communication device; and wherein each element of the application data is stored with a unique transaction identifier in a data package, and further comprising a collection server which is operative to determine whether each data package has previously been stored by the collection server, wherein determining by the collection server includes extracting the unique transaction identifier from the data package; in response to a first determination, discarding by the collection server the data package; and in response to a second determination, processing by the collection server the data package, wherein processing by the collection server includes extracting a data element from the data package and storing the extracted data element along with the extracted identifier; wherein the first determination is a determination that the extracted identifier matches a record stored by the collection server, and wherein the second determination is a determination that the extracted identifier does not match any records stored by the collection server. a processor; and a first application executed by the processor, wherein the first application is configured to generate application data, wherein the wireless communication device is configured to transmit the application data to a collection server after the wireless communication device establishes a network connection, even after the first application has been removed from the wireless communication device; and wherein each element of the application data is stored with a unique transaction identifier in a data package, and further comprising a collection server which is operative to determine whether each data package has previously been stored by the collection server, wherein determining by the collection server includes extracting the unique transaction identifier from the data package; in response to a first determination, discarding by the collection server the data package; and in response to a second determination, processing by the collection server the data package, wherein processing by the collection server includes extracting a data element from the data package and storing the extracted data element along with the extracted identifier; wherein the first determination is a determination that the extracted identifier matches a record stored by the collection server, and wherein the second determination is a determination that the extracted identifier does not match any records stored by the collection server.