mhurhangee/patent-ind-claim-en huggingface dataset:
A mobile surgery imaging system including a C-arm and a smart handle apparatus configured to control movements of the imaging system, the smart handle apparatus comprising: - a handle bar for operating the smart handle apparatus; - a force determining device ; -- a button device ; - wherein the force determining device is adapted to determine the direction of a force applied to the handle bar in components of a three dimensional space; wherein the button device is adapted to select a first or second movement profile corresponding to respective groups of movements wherein, within a group, each movement is linkable to a corresponding direction component of the three dimensional space determined by the force determining device ; wherein the smart handle apparatus is adapted to provide a control signal for moving the mobile surgery imaging system , the control signal comprising information about a selected movement profile and a determined direction of the force applied to the handle bar . - a handle bar for operating the smart handle apparatus; - a force determining device ; -- a button device ; - wherein the force determining device is adapted to determine the direction of a force applied to the handle bar in components of a three dimensional space;
Method for ultrasonic testing of test objects, in particular metallic components, by means of a test head , wherein in an SAFT analysis, a calculation of amplitude summations is executed in each case for elements of a volume to be tested of the test object from a number of A-image time signals, wherein to determine points in time of the amplitudes to be summed in the A-image time signals, a sound propagation time (Δt), which is dependent on the test head, from the test head positioned at a measurement point to the location of the element of the volume to be tested is directly acquired, and the sound propagation time is used by means of analysis of a sound field simulation of the test head for the respective material of the test object, characterized in that a shape and an aperture allocation of an oscillator of the test head are taken into consideration in the sound field simulation, and a focusing of the test head is taken into consideration in the sound field simulation, wherein a delay according to a delay law is taken into consideration in the sound field simulation in the case of a phased array test head, wherein the sound field simulation is monochromatic or polychromatic, and the sound field simulation is executed by means of a point source synthesis or in a spatially discrete manner. wherein to determine points in time of the amplitudes to be summed in the A-image time signals, a sound propagation time (Δt), which is dependent on the test head, from the test head positioned at a measurement point to the location of the element of the volume to be tested is directly acquired, and the sound propagation time is used by means of analysis of a sound field simulation of the test head for the respective material of the test object, characterized in that a shape and an aperture allocation of an oscillator of the test head are taken into consideration in the sound field simulation, and a focusing of the test head is taken into consideration in the sound field simulation, wherein a delay according to a delay law is taken into consideration in the sound field simulation in the case of a phased array test head, wherein the sound field simulation is monochromatic or polychromatic, and the sound field simulation is executed by means of a point source synthesis or in a spatially discrete manner.
An electrically heated window laminated from at least an outer ply and an inner ply of a transparent glazing material and at least one ply of an interlayer material extending between the plies of glazing material, the window comprising an electrically resistive heating element that extends across at least a portion of the window, characterized in that the electrically resistive heating element comprises at least a first and a second heating circuit, electrically isolated from each other, and positioned one on top of another so as to be in registration with each other, so that only a single circuit is visible from the outside of the vehicle.
A method for a network node, in a wireless communication network, to activate semi-persistent sounding reference signal, SP-SRS, resources for transmission by a user equipment, UE, the method comprising: sending , to the UE, a radio resource control, RRC, message comprising configuration of a set of SP-SRS resources for transmission in a first serving cell of the wireless communication network; and sending , to the UE, a medium access control, MAC, control element, CE, message for activating the configured set of SP-SRS resources, the MAC CE message comprising: information identifying an SP-SRS resource of the set of SP-SRS resources to be activated, and the method being characterized in that the MAC CE message comprises: an indication of the identified SP-SRS resource's spatial relation with a further resource on a second serving cell different from the first serving cell, the indication comprising an identifier of the further resource and an identifier of the second serving cell. sending , to the UE, a radio resource control, RRC, message comprising configuration of a set of SP-SRS resources for transmission in a first serving cell of the wireless communication network; and sending , to the UE, a medium access control, MAC, control element, CE, message for activating the configured set of SP-SRS resources, the MAC CE message comprising: information identifying an SP-SRS resource of the set of SP-SRS resources to be activated, and the method being characterized in that the MAC CE message comprises: an indication of the identified SP-SRS resource's spatial relation with a further resource on a second serving cell different from the first serving cell, the indication comprising an identifier of the further resource and an identifier of the second serving cell.
A method for assisting multi-path packet scheduling in a wireless communication system, wherein the multi-path packet scheduling is scheduling packets over multiple paths between a packet scheduler node and a plurality of transmit nodes, wherein said method comprises the steps of: - collecting measurements of queue state information about buffers of the plurality of transmit nodes; - calculating , in a packet-flow controller node, a rate budget based on said collected measurements of queue state information; said rate budget comprising at least one of commanded bit rates and data volumes for each transmit node for a subsequent sampling period; - initiating providing of data representative for said rate budget from said packet-flow controller node over a packet scheduling interface to the packet scheduler node for enabling scheduling of packets to be sent to each of said plurality of transmit nodes in a subsequent sampling period depending on said rate budget; wherein said step of calculating said rate budget in turn comprises: estimating time skews between said buffers of said plurality of transmit nodes based on said measurements of queue state information; and deriving said rate budget based on said estimated time skews. - collecting measurements of queue state information about buffers of the plurality of transmit nodes; - calculating , in a packet-flow controller node, a rate budget based on said collected measurements of queue state information; said rate budget comprising at least one of commanded bit rates and data volumes for each transmit node for a subsequent sampling period; - initiating providing of data representative for said rate budget from said packet-flow controller node over a packet scheduling interface to the packet scheduler node for enabling scheduling of packets to be sent to each of said plurality of transmit nodes in a subsequent sampling period depending on said rate budget; estimating time skews between said buffers of said plurality of transmit nodes based on said measurements of queue state information; and deriving said rate budget based on said estimated time skews.
An apparatus of a segment routing, SR, network, the apparatus comprising: one or more processors; and one or more computer-readable storage media coupled to the one or more processors and comprising instructions operable when executed by the one or more processors to cause the one or more processors to perform operations comprising: receiving a data packet; accessing an attestation token that provides verifiable evidence of trustworthiness of the apparatus and/or that allows validation, by another apparatus of the SR network, of freshness of data asserted by the apparatus based on the state of internal counters within a Trusted Platform Module comprised in the apparatus; determining a location within a header of the received data packet for the attestation token; creating an updated header by encoding the attestation token in the determined location of the header, wherein encoding the attestation token in the determined location of the header comprises writing the attestation token in a Type-Length-Value, TLV; and sending the data packet with the updated header with the encoded attestation token to another apparatus of the SR network. one or more processors; and one or more computer-readable storage media coupled to the one or more processors and comprising instructions operable when executed by the one or more processors to cause the one or more processors to perform operations comprising: receiving a data packet; accessing an attestation token that provides verifiable evidence of trustworthiness of the apparatus and/or that allows validation, by another apparatus of the SR network, of freshness of data asserted by the apparatus based on the state of internal counters within a Trusted Platform Module comprised in the apparatus; determining a location within a header of the received data packet for the attestation token; creating an updated header by encoding the attestation token in the determined location of the header, wherein encoding the attestation token in the determined location of the header comprises writing the attestation token in a Type-Length-Value, TLV; and sending the data packet with the updated header with the encoded attestation token to another apparatus of the SR network. receiving a data packet; accessing an attestation token that provides verifiable evidence of trustworthiness of the apparatus and/or that allows validation, by another apparatus of the SR network, of freshness of data asserted by the apparatus based on the state of internal counters within a Trusted Platform Module comprised in the apparatus; determining a location within a header of the received data packet for the attestation token; creating an updated header by encoding the attestation token in the determined location of the header, wherein encoding the attestation token in the determined location of the header comprises writing the attestation token in a Type-Length-Value, TLV; and sending the data packet with the updated header with the encoded attestation token to another apparatus of the SR network.
A method for controlling aerosol production in an aerosol-generating device , the aerosol-generating device comprising a heating arrangement and a power source for providing power to the heating arrangement, and the method comprising: performing a calibration process for measuring calibration values associated with a susceptor , wherein the heating arrangement is configured to inductively heat the susceptor based on the calibration values, and wherein the calibration process comprises the steps of: i) controlling the power provided to the heating arrangement to cause an increase of the temperature of the susceptor; ii) monitoring a conductance value or a resistance value associated with the susceptor; iii) interrupting provision of power to the heating arrangement when the conductance value reaches a maximum or interrupting provision of power to the heating arrangement when the resistance value reaches a minimum, wherein the conductance value at maximum conductance or the resistance value at minimum resistance is a second calibration value associated with the susceptor; and iv) monitoring the conductance value associated with the susceptor until the conductance value reaches a minimum, or monitoring the resistance value associated with the susceptor until the resistance value reaches a maximum, wherein the conductance value at minimum conductance or the resistance value at maximum resistance is a first calibration value associated with the susceptor, characterised in that the calibration process is performed in response to detecting a control signal associated with the end of a pre-heating process, wherein the pre-heating process has a predetermined duration. i) controlling the power provided to the heating arrangement to cause an increase of the temperature of the susceptor; ii) monitoring a conductance value or a resistance value associated with the susceptor; iii) interrupting provision of power to the heating arrangement when the conductance value reaches a maximum or interrupting provision of power to the heating arrangement when the resistance value reaches a minimum, wherein the conductance value at maximum conductance or the resistance value at minimum resistance is a second calibration value associated with the susceptor; and iv) monitoring the conductance value associated with the susceptor until the conductance value reaches a minimum, or monitoring the resistance value associated with the susceptor until the resistance value reaches a maximum, wherein the conductance value at minimum conductance or the resistance value at maximum resistance is a first calibration value associated with the susceptor,
A horizontal transfer system (220; 320) for moving a dry shielded canister, the system comprising: a stabilization portion (222; 322); and a canister support portion (224; 324) characterised in that the canister support portion is engaged with the stabilization portion (222; 322) and configured for translational movement between an extended position and a retracted position relative to the stabilization portion (222; 322), the canister support portion (224; 324) including a roller interface for supporting and moving a canister, the roller interface being movable relative to the canister support portion (224; 324) between a retracted position and an extended position to engage with the canister for moving the canister on the roller interface. a stabilization portion (222; 322); and a canister support portion (224; 324)
A tinting system comprising a tinting machine which is pre-programmed for preparation of paint mixtures of various target colors in paint containers having a size selected from a set of various sizes designated for various target volumes of paint mixtures, which target volumes being pre-programmed to said tinting machine; the system further comprises such paint container which is pre-loaded with a base having a certain volumetric amount designated in accordance with said size, and the system further comprises in said tinting machine, a plurality of pigment paste reservoirs containing pigment pastes having various colors, and arranged for transferring said pigment pastes into paint containers the tinting system further comprises in the tinting machine, a complementary paste reservoir containing an aqueous complementary paste, and arranged for transferring said complementary paste into paint containers, wherein the system is arranged to, in use, disperse the complementary paste in a pre-programmed complementary volumetric amount and thereby obtaining same final volume of paint mixture, said final volume being equal to the target volume, and being valid for paint mixtures of all colors; and characterized in that the complementary paste comprises 50 to 70 weight percent of filler with respect to its total weight, the complementary paste has a pH value ranging between 7 and 9; and the quotient of hiding powers of base and of the complementary paste is within the range between 0.9 and 1.1. the system further comprises such paint container which is pre-loaded with a base having a certain volumetric amount designated in accordance with said size, and the system further comprises in said tinting machine, a plurality of pigment paste reservoirs containing pigment pastes having various colors, and arranged for transferring said pigment pastes into paint containers the tinting system further comprises in the tinting machine, a complementary paste reservoir containing an aqueous complementary paste, and arranged for transferring said complementary paste into paint containers, wherein the system is arranged to, in use, disperse the complementary paste in a pre-programmed complementary volumetric amount and thereby obtaining same final volume of paint mixture, said final volume being equal to the target volume, and being valid for paint mixtures of all colors; and characterized in that the complementary paste comprises 50 to 70 weight percent of filler with respect to its total weight, the complementary paste has a pH value ranging between 7 and 9; and the quotient of hiding powers of base and of the complementary paste is within the range between 0.9 and 1.1.
A hybrid automatic repeat request, HARQ, feedback method, comprising: receiving , by a first equipment, a data subframe transmitted by a second device, wherein the data subframe comprises a first slot corresponding to a first type of service and a second slot corresponding to a second type of service, and latency of the first type of service is lower than latency of the second type of service; generating , by the first equipment, a HARQ feedback according to the data subframe, wherein the HARQ feedback includes a first feedback bit corresponding to the first slot and a second feedback bit corresponding to the second slot; and transmitting , by the first equipment, the HARQ feedback to the second device, wherein the generating , by the first equipment, the HARQ feedback according to the data subframe comprises one of the followings: generating, by the first equipment, the first feedback bit according to number of the first slot and number of feedback bits, and generating the second feedback bit by binding the second slot according to number of residual feedback bits; or generating, by the first equipment, the first feedback bit according to number of the first slot and number of additional bits, and generating the second feedback bit by binding the second slot according to number of feedback bits. receiving , by a first equipment, a data subframe transmitted by a second device, wherein the data subframe comprises a first slot corresponding to a first type of service and a second slot corresponding to a second type of service, and latency of the first type of service is lower than latency of the second type of service; generating , by the first equipment, a HARQ feedback according to the data subframe, wherein the HARQ feedback includes a first feedback bit corresponding to the first slot and a second feedback bit corresponding to the second slot; and transmitting , by the first equipment, the HARQ feedback to the second device, wherein the generating , by the first equipment, the HARQ feedback according to the data subframe comprises one of the followings: generating, by the first equipment, the first feedback bit according to number of the first slot and number of feedback bits, and generating the second feedback bit by binding the second slot according to number of residual feedback bits; or generating, by the first equipment, the first feedback bit according to number of the first slot and number of additional bits, and generating the second feedback bit by binding the second slot according to number of feedback bits. generating, by the first equipment, the first feedback bit according to number of the first slot and number of feedback bits, and generating the second feedback bit by binding the second slot according to number of residual feedback bits; or generating, by the first equipment, the first feedback bit according to number of the first slot and number of additional bits, and generating the second feedback bit by binding the second slot according to number of feedback bits.
A rod reducer comprising: a sleeve having a housing slidably disposed therein; a shaft disposed through a longitudinal opening of the housing; an anvil coupled to a distal end of the shaft, the shaft rotatable in a first direction to translate the anvil proximally relative to the housing and the shaft rotatable in a second direction to translate the anvil distally relative to the housing; first and second arm members operatively coupled to the anvil and the housing, the first and second arm members pivotable relative to the housing with the anvil in a proximal position, the first and second arm members parallel to each other with the anvil in a distal position; and characterized in that : first and second locking feet slidably coupled at proximal ends thereof to the sleeve and pivotably coupled with the anvil, such that the first and second locking feet are pivotable between a released configuration and an engaged configuration, wherein proximal translation of the sleeve with respect to the anvil pivots the first and second locking feet towards the released configuration and distal translation of the sleeve with respect to the anvil pivots the first and second locking feet towards the engaged configuration such that the first and second locking feet pivot towards a parallel relationship. a sleeve having a housing slidably disposed therein; a shaft disposed through a longitudinal opening of the housing; an anvil coupled to a distal end of the shaft, the shaft rotatable in a first direction to translate the anvil proximally relative to the housing and the shaft rotatable in a second direction to translate the anvil distally relative to the housing; first and second arm members operatively coupled to the anvil and the housing, the first and second arm members pivotable relative to the housing with the anvil in a proximal position, the first and second arm members parallel to each other with the anvil in a distal position; and characterized in that : first and second locking feet slidably coupled at proximal ends thereof to the sleeve and pivotably coupled with the anvil, such that the first and second locking feet are pivotable between a released configuration and an engaged configuration, wherein proximal translation of the sleeve with respect to the anvil pivots the first and second locking feet towards the released configuration and distal translation of the sleeve with respect to the anvil pivots the first and second locking feet towards the engaged configuration such that the first and second locking feet pivot towards a parallel relationship.