mhurhangee/ep-ind-claims huggingface dataset:
Pneumatic vehicle tire having a sound absorber composed of foam which is adhesively attached, in the interior of said tire, to the inner surface situated opposite the tread, wherein the sound absorber adheres to a previously applied, self-sealing sealant which, at least immediately after its application, has a tackiness required for the adhesive attachment of the sound absorber, characterized in that the sound absorber is made up of a multiplicity of individual geometric sound absorber bodies which are not connected to one another, in that each of the geometric sound absorber bodies adheres to the sealant, and in that each of the geometric sound absorber bodies has a diameter of 1 mm to 50 mm.
A method performed by a user equipment, the method comprising receiving Narrowband Physical Random Access Channel, NPRACH, configurations for Time Division Duplex, TDD, including: first information for indicating an NPRACH periodicity, P, with a value chosen from a set {80 ms, 160 ms, 320 ms, 640 ms, 1280 ms, 2560 ms, 5120 ms, 10240 ms}; second information for indicating an NPRACH offset, O, in unit of radio frame; transmitting NPRACH based on the received NPRACH configurations, wherein the NPRACH starts in a radio frame n f fulfilling (nf- O) mod (P/10) = 0. receiving Narrowband Physical Random Access Channel, NPRACH, configurations for Time Division Duplex, TDD, including: first information for indicating an NPRACH periodicity, P, with a value chosen from a set {80 ms, 160 ms, 320 ms, 640 ms, 1280 ms, 2560 ms, 5120 ms, 10240 ms}; second information for indicating an NPRACH offset, O, in unit of radio frame; first information for indicating an NPRACH periodicity, P, with a value chosen from a set {80 ms, 160 ms, 320 ms, 640 ms, 1280 ms, 2560 ms, 5120 ms, 10240 ms}; second information for indicating an NPRACH offset, O, in unit of radio frame; transmitting NPRACH based on the received NPRACH configurations, wherein the NPRACH starts in a radio frame n f fulfilling (nf- O) mod (P/10) = 0.
A module package for a high frequency optoelectronic device comprising: an upper plastic housing having an upper cavity formed therein; a lower plastic housing having a lower cavity formed therein, wherein the upper housing and the lower housing are configured to mate together such that the cavities form an enclosed air cavity between the housings to receive an optoelectronic chip and wherein an optical feed through is realized as the seal is created between the housings; and a plurality of conductors (160, 180) disposed in the lower housing, each conductor having an upper end (160B, 180B) and a lower end (160A, 180A), wherein said upper end is connectable to said optoelectronic chip disposed in the air cavity and the lower end extends from the lower housing and is connectable to a board; characterized in that the lower housing further comprises a support member to which is attached the upper end of each conductor (160B, 180B) wherein the conductors are bent inside the plastic material of the lower housing. an upper plastic housing having an upper cavity formed therein; a lower plastic housing having a lower cavity formed therein, wherein the upper housing and the lower housing are configured to mate together such that the cavities form an enclosed air cavity between the housings to receive an optoelectronic chip and wherein an optical feed through is realized as the seal is created between the housings; and a plurality of conductors (160, 180) disposed in the lower housing, each conductor having an upper end (160B, 180B) and a lower end (160A, 180A), wherein said upper end is connectable to said optoelectronic chip disposed in the air cavity and the lower end extends from the lower housing and is connectable to a board; characterized in that the lower housing further comprises a support member to which is attached the upper end of each conductor (160B, 180B) wherein the conductors are bent inside the plastic material of the lower housing.
Pot/pan support for a gas burner having a plurality of flat rectilinear frame strips (1A, 1B, 1C, 1D) and a plurality of fingers (6A, 6B, 6C, 6D) which project inwards from the frame strips (1A, 1B, 1C, 1D) and the tops of which form a placement surface for a food container, wherein at least one of the flat rectilinear frame strips is arranged vertically opposite the remaining frame strips (1B, 1C, 1D), which are arranged horizontally, as a result of which the at least one vertical frame strip provides heat protection for the pot/pan support and wherein the at least one vertical frame strip is formed by bending into a vertical orientation from a flat polygonal frame composed of flat horizontal frame strips (1A, 1B, 1C, 1D), wherein the horizontally arranged frame strips (1B, 1C, 1D) form a standing surface for the pot/pan support in or on a cooktop, wherein the at least one vertical frame strip is arranged such that there is a gap for the secondary air supply between the standing surface of the pot/pan support and a lower edge of the at least one vertical frame strip.
Method for determining the position of a rotor flux vector of an electric motor comprising a stator and a rotor, characterized in that the method comprises: - a step of injecting a first current vector into a first injection reference frame (x +, y +) rotating at a first frequency (Ω) relative to a reference frame (d, q) synchronous with the rotation of the motor, and a second current vector into a second injection reference frame (x -, y -) rotating at a second frequency relative to the reference frame (d, q), the second frequency being the opposite of the first frequency, - a step of determining a first stator flux induced voltage delivered at the output of a first integrator module synchronous with the first injection reference frame (x +, y +) and a second stator flux induced voltage delivered at the output of a second integrator module synchronous with the second injection reference frame (x -, y -), - a step of regulating the position of the rotor flux vector by minimizing the error (ε) between a real position (θ R) of the rotor flux vector and an estimated position (θ S) of the rotor flux vector, the error (ε) being determined based on the second stator flux induced voltage. - a step of injecting a first current vector into a first injection reference frame (x +, y +) rotating at a first frequency (Ω) relative to a reference frame (d, q) synchronous with the rotation of the motor, and a second current vector into a second injection reference frame (x -, y -) rotating at a second frequency relative to the reference frame (d, q), the second frequency being the opposite of the first frequency, - a step of determining a first stator flux induced voltage delivered at the output of a first integrator module synchronous with the first injection reference frame (x +, y +) and a second stator flux induced voltage delivered at the output of a second integrator module synchronous with the second injection reference frame (x -, y -), - a step of regulating the position of the rotor flux vector by minimizing the error (ε) between a real position (θ R) of the rotor flux vector and an estimated position (θ S) of the rotor flux vector, the error (ε) being determined based on the second stator flux induced voltage.
A device management method, applied to a Narrow Band Internet of Things (NB-IOT) device, the method comprising: receiving a management control instruction of a target terminal for the NB-IOT device forwarded by a base station, the target terminal being a terminal for managing the NB-IOT device; and performing an operation corresponding to the management control instruction, wherein prior to the receiving the management control instruction of the target terminal for the NB-IOT device forwarded by the base station, the method further comprises: after a booting operation is completed, reporting target device information of the NB-IOT device to the base station, so that the base station sends paging information that carries the target device information to the target terminal after determining the target terminal according to the target device information, and the target terminal adds the NB-IOT device in a device management list based on the paging information, the device management list being a device list of all devices managed by the terminal, wherein the target device information comprises identifier information related to the target terminal. receiving a management control instruction of a target terminal for the NB-IOT device forwarded by a base station, the target terminal being a terminal for managing the NB-IOT device; and performing an operation corresponding to the management control instruction, wherein prior to the receiving the management control instruction of the target terminal for the NB-IOT device forwarded by the base station, the method further comprises: after a booting operation is completed, reporting target device information of the NB-IOT device to the base station, so that the base station sends paging information that carries the target device information to the target terminal after determining the target terminal according to the target device information, and the target terminal adds the NB-IOT device in a device management list based on the paging information, the device management list being a device list of all devices managed by the terminal, wherein the target device information comprises identifier information related to the target terminal. after a booting operation is completed, reporting target device information of the NB-IOT device to the base station, so that the base station sends paging information that carries the target device information to the target terminal after determining the target terminal according to the target device information, and the target terminal adds the NB-IOT device in a device management list based on the paging information, the device management list being a device list of all devices managed by the terminal, wherein the target device information comprises identifier information related to the target terminal.
An apparatus for detecting acoustic reflections that arise from within a tube and body conduit, the tube having a proximal end and a distal end, the apparatus coupled in use to the proximal end, the distal end of the tube inserted in use into the body conduit, the apparatus comprising: a sound generator positioned to generate a sound signal in the tube; a sensor for detecting a sound signal in the tube at a distal position relative to the sound generator, and for generating a signal corresponding to the detected sound signal; a housing including the sound generator and the sensor and having a tube connector sized for connection to an endotracheal tube; a compliant tube aligned with the sensor and configured to transmit sound pressure waves from within the compliant tube to the sensor, wherein the sensor contains at least two sensing elements (200 and 202) that are spaced apart and aligned with the compliant tube; and an adjustment member aligned with the first sensing element, wherein the adjustment member is configured to adjust a mean pressure applied to the first sensing element. a sound generator positioned to generate a sound signal in the tube; a sensor for detecting a sound signal in the tube at a distal position relative to the sound generator, and for generating a signal corresponding to the detected sound signal; a housing including the sound generator and the sensor and having a tube connector sized for connection to an endotracheal tube; a compliant tube aligned with the sensor and configured to transmit sound pressure waves from within the compliant tube to the sensor,
A method for effecting at least partial interference of a fluid passage extending between a casing and a subterranean formation, wherein the casing is disposed within a wellbore that is penetrating the subterranean formation, and wherein zonal isolation material is disposed between the casing and the subterranean formation, comprising: in response to detecting of the fluid passage extending between the casing and the subterranean formation, effecting an operative displacement of a section of the casing such that the at least partial interference of the fluid passage is effected; and effecting opposition to an elastic contraction of the displaced casing section for mitigating reversion of the displaced casing section towards its original position prior to the operative displacement. in response to detecting of the fluid passage extending between the casing and the subterranean formation, effecting an operative displacement of a section of the casing such that the at least partial interference of the fluid passage is effected; and effecting opposition to an elastic contraction of the displaced casing section for mitigating reversion of the displaced casing section towards its original position prior to the operative displacement.
A propellant composition comprising a propellant containing 1-chloro-2,3,3,3-tetrafluoropropene and a pressurizing agent, wherein a boiling point of the pressurizing agent is at most 0°C under a pressure of 0.101 MPa.
Compositions containing C 1 to C 7 organic acid monoglycerides in percentages between 10% and 90% by weight calculated on the total composition weight for use as antibacterial and antimould compositions for treating animals characterised in that such composition contains glycerol in percentages between 10% and 90% by weight calculated on the total composition weight.
An actuator assembly comprising a hydraulic actuator, an axially moveable lock bolt that actuates the movement of the actuator, and a release mechanism for releasably locking the lock bolt against axial movement, the release mechanism comprising: a solenoid assembly arranged, in use, in proximity to an axially moveable member in axially moveable engagement with the lock bolt, the solenoid assembly comprising a solenoid, a solenoid bias member and a solenoid plunger having a plunger tip, characterised in that, when the solenoid is in a first state of either energised or not energised, the solenoid bias member or the magnetic field force causes the solenoid plunger to move in a direction perpendicular to the axially movable member to bring the plunger tip into locking engagement with the axially moveable member by securing in a recess or detent on the axially moveable member to prevent axial movement thereof together with the lock bolt, and when the solenoid is in a second, opposite state being the other of not energised or energised, the magnetic field force or the solenoid bias member causes the solenoid plunger to move to bring the plunger tip out of locking engagement with the recess or detent of axially moveable member thus permitting axial movement thereof together with the lock bolt.
Breast pump device, comprising: - an expression kit including a breast-receiving funnel, a milk outlet and an air outlet, - a vacuum unit configured to realize a pressure cycle in the expression kit, including an air inlet for connection to the air outlet of the expression kit and a pump mechanism for sucking air from the expression kit, through the air outlet of the expression kit and the air inlet of the vacuum unit, and - an acoustic milk expression assessment system including an acoustic sensor and a processor configured to process an acoustic signal received from the acoustic sensor during operation of the breast pump device when a receptacle is used with the breast pump device for receiving milk from the milk outlet of the expression kit, characterized in that the processor is configured to process an acoustic signal received from the acoustic sensor during operation of the breast pump device according to a routine in which a value of a time duration between a release moment and a first moment following the release moment that a spike in the acoustic signal appears is determined, a release moment being a moment at which a release of vacuum takes place during the pressure cycle and at which an associated release of milk from a position in the expression kit and through the milk outlet takes place. - an expression kit including a breast-receiving funnel, a milk outlet and an air outlet, - a vacuum unit configured to realize a pressure cycle in the expression kit, including an air inlet for connection to the air outlet of the expression kit and a pump mechanism for sucking air from the expression kit, through the air outlet of the expression kit and the air inlet of the vacuum unit, and - an acoustic milk expression assessment system including an acoustic sensor and a processor configured to process an acoustic signal received from the acoustic sensor during operation of the breast pump device when a receptacle is used with the breast pump device for receiving milk from the milk outlet of the expression kit,
A method of monitoring thread execution within a multicore processor architecture using a debug controller, the multicore processor architecture comprising: a processor controller; a plurality of interconnected processor elements for processing the threads; and a system interconnect for communication between the processor controller and the processor elements, each interconnected processor element comprising a local instruction level debug logic for outputting debug data on a further interface, the processor controller comprising a number of interconnected individual sub units for managing and allocating the threads between said processor elements, the debug controller comprising monitor logic that comprises a plurality of controller elements, the debug controller elements each comprising logic circuitry and a plurality of registers, the debug controller elements being physically separate from the plurality of interconnected processor elements, the method comprising: generating, at the sub units of the processor controller, a plurality of thread parameter indicators indicative of one or more parameters relating to the function and/or identity and/or execution location of at least one thread and communicating the thread parameter indicators to the debug controller using a debug interface; comparing, at each of said debug controller elements, at least one of the thread parameter indicators with a first plurality of predefined criteria each representative of an indicator of interest; and generating at one or more of the controller elements, control signals for controlling a corresponding one or more of the plurality of interconnected processor elements to enable its local instruction level debug logic. generating, at the sub units of the processor controller, a plurality of thread parameter indicators indicative of one or more parameters relating to the function and/or identity and/or execution location of at least one thread and communicating the thread parameter indicators to the debug controller using a debug interface; comparing, at each of said debug controller elements, at least one of the thread parameter indicators with a first plurality of predefined criteria each representative of an indicator of interest; and generating at one or more of the controller elements, control signals for controlling a corresponding one or more of the plurality of interconnected processor elements to enable its local instruction level debug logic.
A scanner providing a reading frequency different from an aiming frequency, comprising: an aimer (222.1) configured to provide aiming light having the aiming frequency to support aiming of the scanner at a machine-readable symbol, MRS; an illuminator (222.2) configured to provide reading light, comprising a first plurality of frequencies, which illuminates the MRS to support optical reading of the MRS, wherein the first plurality of frequencies comprises at least the reading frequency; and an imaging sensor having an optical filter configured to receive reflected light from the MRS, wherein the reflected light includes a reflected aiming light and a reflected reading light, wherein the optical filter is configured to block the reflected aiming light of the aiming frequency, the imaging sensor being configured to: receive the reflected light from the MRS, and convert the reflected light to an electrical signal suitable for signal processing by the scanner; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2). an aimer (222.1) configured to provide aiming light having the aiming frequency to support aiming of the scanner at a machine-readable symbol, MRS; an illuminator (222.2) configured to provide reading light, comprising a first plurality of frequencies, which illuminates the MRS to support optical reading of the MRS, wherein the first plurality of frequencies comprises at least the reading frequency; and an imaging sensor having an optical filter configured to receive reflected light from the MRS, wherein the reflected light includes a reflected aiming light and a reflected reading light, wherein the optical filter is configured to block the reflected aiming light of the aiming frequency, the imaging sensor being configured to: receive the reflected light from the MRS, and convert the reflected light to an electrical signal suitable for signal processing by the scanner; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2). receive the reflected light from the MRS, and convert the reflected light to an electrical signal suitable for signal processing by the scanner; characterized in that the scanner comprises an illuminator filter (320.2) integrated in the illuminator (222.2) that is configured to block the aiming frequency in the reading light provided by the illuminator (222.2).