mhurhangee/patent-ind-claim-en huggingface dataset:
A movable device for detecting an object, the movable device comprising: an RF signal transmitter emitting radio frequency signals; an RF signal receiver receiving radio frequency signals reflected by the object; a memory storing one or more instructions; and at least one processor configured to execute the one or more instructions stored in the memory, wherein, by executing the one or more instructions, the at least one processor is configured to: obtain N sample sequences by digitizing N radio frequency signals, where N is a natural number of 2 or more, from among the received radio frequency signals, obtain a matrix including each of the N sample sequences as a column in an order in which the N sample sequences are received, obtain a resulting signal by summing samples for each row of the matrix, the resulting signal including each summed sample for the each row, obtain an energy value from the resulting signal by summing the each summed sample of the resulting signal, and detect an object in accordance with the energy value being greater than or equal to a certain value. an RF signal transmitter emitting radio frequency signals; an RF signal receiver receiving radio frequency signals reflected by the object; a memory storing one or more instructions; and at least one processor configured to execute the one or more instructions stored in the memory, wherein, by executing the one or more instructions, the at least one processor is configured to: obtain N sample sequences by digitizing N radio frequency signals, where N is a natural number of 2 or more, from among the received radio frequency signals, obtain a matrix including each of the N sample sequences as a column in an order in which the N sample sequences are received, obtain a resulting signal by summing samples for each row of the matrix, the resulting signal including each summed sample for the each row, obtain an energy value from the resulting signal by summing the each summed sample of the resulting signal, and detect an object in accordance with the energy value being greater than or equal to a certain value.
Method for operating a vehicle , in particular for driving the vehicle to a predefined parking space , wherein a first trajectory for an automated journey of the vehicle to the predefined parking space , which was captured during a manual journey of the vehicle to the predefined parking space , is stored in a vehicle storage device , tolerance values for a deviation from the first trajectory , by which the vehicle can deviate at most from the first trajectory during an automated journey to the predefined parking space , are assigned to the first trajectory, and wherein the vehicle has a possibility for activating an automated journey to the predefined parking space if the vehicle is in a region of the starting position of the first trajectory, wherein, during at least one further manual journey of the vehicle to the predefined parking space , the further trajectory driven along in the process is automatically captured, and the first trajectory and the further trajectory are compared with one another, characterized in that , if a deviation with respect to the route of the vehicle is determined by means of the further trajectory with respect to at least one predefinable point of the first trajectory , this deviation is assigned to the predefinable point of the first trajectory in such a manner that the determined deviation and the tolerance value assigned to the predefinable point of the first trajectory are added and are stored as the new tolerance value for the predefinable point of the first trajectory in the vehicle storage device , and the first trajectory and tolerance values along the first trajectory , optionally together with characteristic data relating to the vehicle which has driven the first trajectory and the further trajectories during manual journeys to the predefined parking space , are transmitted to a computing device outside the vehicle and are made available to the vehicle and/or to other vehicles by the computing device outside the vehicle.
Manual device , in particular manual writing device, which extends in an axial direction (X) and comprises a housing having a first distal end (12-1) and a second distal end (12-2) opposite the first distal end (12-1) in the axial direction (X), a first head which is axially movable between a position of use in which the first head protrudes from the housing from the first end (12-1) and a retracted position in which the first head is retracted into the housing , a second head which is axially movable between a position of use in which the second head protrudes from the housing from the second end (12-2) and a retracted position in which the second head is retracted into the housing , and a single mechanism which is configured to bring the first head and the second head from the retracted position to the position of use and vice versa, the mechanism comprising two carriages (214A1, 214A2) which support at least one head among the first head and the second head and a single spring , the first head and the second head each partially extending over a common axial portion of the manual device, the spring axially extending between the two carriages (214A1, 214A2) and engaging with the two carriages (214A1, 214A2), the mechanism comprising a single lateral button , the button engaging with each of the two carriages (214A1, 214A2), characterized in that the button is configured to drive a first carriage (214A1) among the two carriages in translation in a first axial direction (X1) while the spring aims to drive the first carriage (214A1) in translation in a second axial direction (X2) opposite to the first axial direction (X1), and the button is configured to drive the second carriage (214A2) among the two carriages in translation in the second axial direction (X2) while the spring aims to drive the second carriage (214A2) in translation in the first axial direction (X1).
A light emitting module , comprising: a circuit board on which a light emitting element is arranged; a lens assembly arranged on the circuit board to cover the light emitting element ; and a housing made of a molding material and at least partially surrounding the circuit board and the lens assembly to form the light emitting module , wherein a fastener for firmly retaining the lens assembly to the housing is formed by the molding material while forming the housing using the molding material, characterized in that one or more holes are arranged at aligned coupling positions in the circuit board and the lens assembly respectively, and the molding material is filled in the one or more holes by a molding process to form the fastener for retaining the lens assembly . a circuit board on which a light emitting element is arranged; a lens assembly arranged on the circuit board to cover the light emitting element ; and a housing made of a molding material and at least partially surrounding the circuit board and the lens assembly to form the light emitting module , wherein a fastener for firmly retaining the lens assembly to the housing is formed by the molding material while forming the housing using the molding material,
A powered fastener driving tool end plug assembly comprising: an end plug including a mounting base , a pneumatic connector receiver extending outwardly from the mounting base, a belt hook receiver extending outwardly from the mounting base, and a mounting bracket extending downwardly from the mounting base, characterised in that the end plug assembly further comprises a belt hook assembly rotatably connected to the end plug and including a belt hook , a spring , a washer and an attachment member , the spring being configured to apply a friction to the belt hook such that the belt hook is selectively rotatable about the belt hook receiver . an end plug including a mounting base , a pneumatic connector receiver extending outwardly from the mounting base, a belt hook receiver extending outwardly from the mounting base, and a mounting bracket extending downwardly from the mounting base, characterised in that the end plug assembly further comprises a belt hook assembly rotatably connected to the end plug and including a belt hook , a spring , a washer and an attachment member , the spring being configured to apply a friction to the belt hook such that the belt hook is selectively rotatable about the belt hook receiver .
A transmission comprising a first component and a second component which are journaled for rotation relative to each other by a bearing , the first component being a propeller shaft and the second component being a housing of the transmission , and a locking mechanism for rotationally locking the first component and the second component relative to each other in a predetermined mutual rotation position, the locking mechanism comprising a sleeve and a dog clutch , the sleeve being rotationally locked relative to the first component and the dog clutch being rotationally locked relative to the second component, the sleeve and the dog clutch being axially displaceable relative to each other for engagement of the sleeve and the dog clutch such that the first component and the second component are rotationally locked relative to each other, the sleeve and the dog clutch being engageable only in a mutual rotation position corresponding to the predetermined mutual rotation position of the first component and the second component , the transmission having at least two modes selectable by displacement of the sleeve , a first stationary mode where the first component and the second component being locked relative to each other in the predetermined mutual rotation position and a second driving mode where the first component being connectable to a drive motor for rotating the first component relative to the second component , the number of predetermined mutual rotation positions in which the first component and the second component can be locked relative to each other by the locking mechanism being in the interval 1-5.
A method of calibrating a gas turbine engine having a propulsive fan , and an engine core , the method comprising: measuring a total thrust generated by the engine ; measuring the thrust generated by the engine core ; measuring first and second engine performance parameters; based on the total thrust and engine core thrust , determining a thrust generated by the propulsive fan ; providing a first power setting parameter associating the fan thrust with the first engine performance parameter; and providing a second power setting parameter associating the engine core thrust with the second engine performance parameter. measuring a total thrust generated by the engine ; measuring the thrust generated by the engine core ; measuring first and second engine performance parameters; based on the total thrust and engine core thrust , determining a thrust generated by the propulsive fan ; providing a first power setting parameter associating the fan thrust with the first engine performance parameter; and providing a second power setting parameter associating the engine core thrust with the second engine performance parameter.
An apparatus comprising processing circuitry configured to: receive information indicative of a known local interferer, the known local interferer being identified based on dynamic position information indicative of a position of an aircraft ; perform noise cancellation relative to a received signal by removing an interference signal associated with the known local interferer to generate a scrubbed signal ; and provide the scrubbed signal for additional signal processing, wherein the dynamic position information comprises a three dimensional position of the aircraft; wherein an interference profile is received at the aircraft from a network entity, and wherein the interference profile is received in real time based on the three dimensional position of the aircraft, wherein the known local interferer is identified in the interference profile indicative of one or more interference signals associated with the three dimensional position of the aircraft, wherein the interference profile includes selected interferers from an interferer library including a plurality of known interferers associated with respective different locations, the selected interferers being selected based on the dynamic position information, and wherein the interferer library is dynamically updateable to include additional interference signals detected a threshold number of times or detected the threshold number of times within a given period. receive information indicative of a known local interferer, the known local interferer being identified based on dynamic position information indicative of a position of an aircraft ; perform noise cancellation relative to a received signal by removing an interference signal associated with the known local interferer to generate a scrubbed signal ; and provide the scrubbed signal for additional signal processing, wherein the dynamic position information comprises a three dimensional position of the aircraft; wherein an interference profile is received at the aircraft from a network entity, and wherein the interference profile is received in real time based on the three dimensional position of the aircraft, wherein the known local interferer is identified in the interference profile indicative of one or more interference signals associated with the three dimensional position of the aircraft, wherein the interference profile includes selected interferers from an interferer library including a plurality of known interferers associated with respective different locations, the selected interferers being selected based on the dynamic position information, and wherein the interferer library is dynamically updateable to include additional interference signals detected a threshold number of times or detected the threshold number of times within a given period.
A stage lighting source system with a lamp protection function, comprising a lamp , a lamp protection device and a light filter which are arranged along a light axis sequentially, wherein the lamp protection device comprises a structure and a mounting component for mounting the structure wherein the mounting component is a transparent body , the light axis passes through the structure, a size of the structure does not affect a light output effect of the lamp in a direction of the light axis, and the structure can fully or partially absorb and/or reflect light energy reflected from the light filter , characterized in that the structure is a non-transparent structure, and in that the non-transparent structure is a non-transparent solid fixed on the transparent body , wherein the non-transparent solid is a ceramic or a metal.
Vascular endothelial growth factor (VEGF) for use in treating a brain tumor in a subject, wherein an effective amount of VEGF is to be administered systemically to the subject, and wherein an anti-cancer agent is to be administered systemically to the subject within 5 hours after the administration of VEGF.
A method for wireless communication performed by a user equipment, UE, comprising the steps of: receiving an indicator indicating to derive a quasi co-location, QCL, assumption indicating a QCL relationship between antenna ports, for a demodulation reference signal, DMRS, for a first bandwidth part from a reference signal of a second bandwidth part; receiving a grant in the second bandwidth part instructing the UE to switch from the second bandwidth part to the first bandwidth part; and demodulating , based at least in part on the QCL assumption, a transmission in the first bandwidth part received within a transition time window occurring after the UE receives the grant. receiving an indicator indicating to derive a quasi co-location, QCL, assumption indicating a QCL relationship between antenna ports, for a demodulation reference signal, DMRS, for a first bandwidth part from a reference signal of a second bandwidth part; receiving a grant in the second bandwidth part instructing the UE to switch from the second bandwidth part to the first bandwidth part; and demodulating , based at least in part on the QCL assumption, a transmission in the first bandwidth part received within a transition time window occurring after the UE receives the grant.
Method for the energy storage and semiconductor related selection of cells of a modular multilevel power converter, which comprises in each of one or multiple converter branches a plurality of cells which are connected in series, wherein each cell is repeatedly switched within regular or irregular time intervals into an inserted state, in which the cell is actively inserted in the converter branch , or a bypassed state, in which the cell is inactive, wherein the charging state of the energy storage component (C) of the cells is balanced among the cells of a converter branch by generating signals for commanding either the inserted state or the bypassed state for each cell of the converter branch by means of an energy storage charging state balancing algorithm, wherein at least one strain parameter of an energy storage component (C) of each of the cells , which is not the charging state or a quantity which characterizes the charging state of the energy storage component (C), is balanced among the cells of a converter branch by generating signals for commanding either the inserted state or the bypassed state for each cell of the converter branch by means of a strain parameter balancing algorithm, wherein the at least one strain parameter of the energy storage component (C) is the electrical power dissipation loss of the energy storage component (C), the equivalent series resistance and the thermal impedance of the energy storage component, the storage capacity of the energy storage component and/or the hot-spot temperature of the energy storage component (C) of the cell , wherein the generation of the signals for commanding the inserted state or the bypassed state is performed using a cost function (c 1 , c 2 , c 3 , c 4 ) which is individually calculated for each of the cells , wherein the cost function (c 1 , c 2 , c 3 , c 4 ) has as input variables a measured charging state of the energy storage component (C) of the cell and at least one actual strain parameter of the energy storage component (C) of the cell , which is calculated and/or measured, wherein a further input variable of the cost function (c 1 , c 2 , c 3 , c 4 ) is at least one strain parameter of a power semiconductor component (T 1 , T 2 , D 1 , D 2 ) of the cell , wherein the signals for commanding the inserted state or the bypassed state are generated by minimizing the cost function (c 1 , c 2 , c 3 , c 4 ) of the corresponding cell , wherein several strain parameters of the energy storage component (C) and the power semiconductor component (T 1 , T 2 , D 1 , D 2 ) are weighted within the cost function (c 1 , c 2 , c 3 , c 4 ) using individual weighting factors for each strain parameter, wherein the weighting factors are adaptively modified during the runtime of the modular multilevel power converter depending on lifetime estimations of a component (C, T 1 , T 2 , D 1 , D 2 ) of the cell associated with the weighting factor, such that the end of the lifespan of the component (C, T 1 , T 2 , D 1 , D 2 ) associated with the weighting factor is postponed.
A system for detecting trace-gas, the system comprising: an optical sensor mounted on a vehicle, the optical sensor comprising a plurality of interferometers configured to collect samples ; and processing circuitry configured to: generate a digitized signal based on the samples ; apply a forward Fourier-transform on the digitized signal to generate spectrum information for the plurality of interferometers; and determine a gas species has been detected using one or more intensity of absorption features (510-516) of the spectrum information corresponding to the gas species from the spectrum information; characterised in that the plurality of interferometers is arranged in a first chip of a plurality of chips arranged in a stacked configuration, wherein each chip of the plurality of chips is configured for detecting a respective gas species of a plurality of gas species. an optical sensor mounted on a vehicle, the optical sensor comprising a plurality of interferometers configured to collect samples ; and processing circuitry configured to: generate a digitized signal based on the samples ; apply a forward Fourier-transform on the digitized signal to generate spectrum information for the plurality of interferometers; and determine a gas species has been detected using one or more intensity of absorption features (510-516) of the spectrum information corresponding to the gas species from the spectrum information; characterised in that the plurality of interferometers is arranged in a first chip of a plurality of chips arranged in a stacked configuration, wherein each chip of the plurality of chips is configured for detecting a respective gas species of a plurality of gas species. generate a digitized signal based on the samples ; apply a forward Fourier-transform on the digitized signal to generate spectrum information for the plurality of interferometers; and determine a gas species has been detected using one or more intensity of absorption features (510-516) of the spectrum information corresponding to the gas species from the spectrum information; characterised in that the plurality of interferometers is arranged in a first chip of a plurality of chips arranged in a stacked configuration, wherein each chip of the plurality of chips is configured for detecting a respective gas species of a plurality of gas species.