mhurhangee/patent-ind-claim-en huggingface dataset:
A filter module, comprising a perforated inner tube and a perforated outer tube concentrically surrounding the inner tube , said inner tube and outer tube forming an annular gap between each other, in which a filter membrane pleated into folds is arranged, wherein the folds divided into several fold types of differing fold height extend from their respective fold edges resting against the outer tube in the direction of the inner tube to their respective fold tips and are arranged as groups of folds of differing fold types along the circumference of the annular gap, characterized in that each group has a mating fold which extends from its mating fold edges resting against the inner tube in the direction of the outer tube to their mating fold tips and the fold height of which is less than or equal to the difference between the width of the annular gap and the fold height of the smallest fold height of the same group. a perforated inner tube and a perforated outer tube concentrically surrounding the inner tube , said inner tube and outer tube forming an annular gap between each other, in which a filter membrane pleated into folds is arranged, wherein the folds divided into several fold types of differing fold height extend from their respective fold edges resting against the outer tube in the direction of the inner tube to their respective fold tips and are arranged as groups of folds of differing fold types along the circumference of the annular gap, characterized in that each group has a mating fold which extends from its mating fold edges resting against the inner tube in the direction of the outer tube to their mating fold tips and the fold height of which is less than or equal to the difference between the width of the annular gap and the fold height of the smallest fold height of the same group.
A terminal comprising: a receiving section configured to receive at least one of first configuration information about a Bandwidth part, BWP,-specific reserved resource and second configuration information about a cell-specific reserved resource; and characterized by , a control section configured to control receiving processes for Physical Downlink Shared Channel, PDSCH, under an assumption that the PDSCH is not allocated in a reserved resource corresponding to the at least one of the first configuration information and the second configuration information, wherein information related to the reserved resource is determined based on subcarrier spacing of BWP configured. a receiving section configured to receive at least one of first configuration information about a Bandwidth part, BWP,-specific reserved resource and second configuration information about a cell-specific reserved resource; and characterized by , a control section configured to control receiving processes for Physical Downlink Shared Channel, PDSCH, under an assumption that the PDSCH is not allocated in a reserved resource corresponding to the at least one of the first configuration information and the second configuration information, wherein information related to the reserved resource is determined based on subcarrier spacing of BWP configured.
A unbonded flexible pipe having a length and a longitudinal axis and comprising an innermost sealing sheath defining a bore, at least one armor layer surrounding the inner sealing sheath and at least one optical fiber containing layer , the optical fiber containing layer is arranged outside the innermost sealing sheath , characterized in that the tape(s) is/are wound with a helical gap between windings of the helically wound tape(s), the optical fiber is arranged in said helical gap, the optical fiber containing layer comprises at least one tape, said tape being a long flat and flexible strip comprising polymer and/or fabric, which is narrow relative to its length, preferably with a width determined perpendicularly to its length of up to about 1 m and with a thickness determined perpendicularly to its width and length of up to about 20 % of its width, advantageously of up to about 10 % of its width, and at least one optical fiber arranged with a length of at least about 3 times the length of the flexible pipe.
A lumped element resonator structure comprising: an inductive element on a first surface ; a capacitive element on the first surface and a second surface ; and an interconnect structure between the first surface and the second surface , wherein the capacitive element comprises the interconnect structure , and wherein the inductive element , the capacitive element , and the interconnect structure comprise a superconducting material. a capacitive element on the first surface and a second surface ; and an interconnect structure between the first surface and the second surface , wherein the capacitive element comprises the interconnect structure , and wherein the inductive element , the capacitive element , and the interconnect structure comprise a superconducting material.
A method for communications, comprising: obtaining beam coefficients of a beam associated with a geographic area based at least in part on an estimated return channel that comprises a first channel component between the geographic area and a plurality of second satellites and a second channel component between the plurality of second satellites and a first satellite , the plurality of second satellites being in second orbits that are lower than a first orbit of the first satellite and having respective antennas that illuminate respective portions of the geographic area ; and forming, by a beamformer located in a ground system or in the first satellite , a beam associated with the geographic area to obtain a beam signal based at least in part on the beam coefficients and respective relayed signal components obtained from a plurality of signal components of a signal originating from the geographic area , wherein the respective relayed signal components are obtained from the plurality of signal components by respective second satellites of the plurality of second satellites and transmitted to the first satellite by the respective second satellites of the plurality of second satellites . obtaining beam coefficients of a beam associated with a geographic area based at least in part on an estimated return channel that comprises a first channel component between the geographic area and a plurality of second satellites and a second channel component between the plurality of second satellites and a first satellite , the plurality of second satellites being in second orbits that are lower than a first orbit of the first satellite and having respective antennas that illuminate respective portions of the geographic area ; and forming, by a beamformer located in a ground system or in the first satellite , a beam associated with the geographic area to obtain a beam signal based at least in part on the beam coefficients and respective relayed signal components obtained from a plurality of signal components of a signal originating from the geographic area , wherein the respective relayed signal components are obtained from the plurality of signal components by respective second satellites of the plurality of second satellites and transmitted to the first satellite by the respective second satellites of the plurality of second satellites .
A method for measuring and controlling a magnetic signature of a ship using at least one drone provided with at least one magnetic sensor , this method being characterized in that it comprises the following steps, - obtaining a plurality of magnetic measurements and associated positions, the obtained magnetic measurements further being associated with a heading of the ship; - modelling magnetization of the ship as a function of the obtained magnetic measurements, associated positions and at least one heading of the ship; - estimating at least one magnetic field according to the modelling of the magnetization of the ship and of at least one navigation parameter of the ship; and - controlling a magnetic signature reduction system of the ship as a function of said at least one estimated magnetic field, wherein the at least one drone is an aerial drone. - obtaining a plurality of magnetic measurements and associated positions, the obtained magnetic measurements further being associated with a heading of the ship; - modelling magnetization of the ship as a function of the obtained magnetic measurements, associated positions and at least one heading of the ship; - estimating at least one magnetic field according to the modelling of the magnetization of the ship and of at least one navigation parameter of the ship; and - controlling a magnetic signature reduction system of the ship as a function of said at least one estimated magnetic field, wherein the at least one drone is an aerial drone.
Adjustable folding covering for a convertible vehicle, which folding covering can be moved between a closed position spanning a passenger compartment into a folded together storage position, with a top cover which is arranged on the outer side and is carried by covering components, wherein the covering components comprise at least one tensioning bow arranged on the rear side, and wherein an end-side region of the top cover is held on a connecting portion of the tensioning bow , and with a headlining facing the passenger compartment, wherein an end-side region of the headlining is held in a receiving portion (B) of the tensioning bow, characterized in that the tensioning bow has a further receiving portion (A) in which an electrical line or a line for supplying a medium is accommodated and held.
A signal processing device , comprising: a first integration unit that intermittently integrates a signal train corresponding to a reception signal by using a plurality of systems to obtain a plurality of pieces of integrated data, the signal train corresponding to the reception signal is a signal train of a difference between a frequency of the reception signal and a frequency of a transmission signal, the reception signal being obtained when a reflected signal of the transmission signal is received, the transmission signal including successive pulse trains emitted into an atmosphere; a Doppler detection unit that divides each of the plurality of pieces of integrated data into a plurality of range bins in time series, obtains a relationship between a frequency and intensity in each of the range bins for each of the pieces of integrated data, and detects a Doppler shift amount from the relationship; and a reliability index calculation unit that calculates a reliability index of the reception signal by comparing on the Doppler shift amounts of the plurality of pieces of integrated data. a first integration unit that intermittently integrates a signal train corresponding to a reception signal by using a plurality of systems to obtain a plurality of pieces of integrated data, the signal train corresponding to the reception signal is a signal train of a difference between a frequency of the reception signal and a frequency of a transmission signal, the reception signal being obtained when a reflected signal of the transmission signal is received, the transmission signal including successive pulse trains emitted into an atmosphere; a Doppler detection unit that divides each of the plurality of pieces of integrated data into a plurality of range bins in time series, obtains a relationship between a frequency and intensity in each of the range bins for each of the pieces of integrated data, and detects a Doppler shift amount from the relationship; and a reliability index calculation unit that calculates a reliability index of the reception signal by comparing on the Doppler shift amounts of the plurality of pieces of integrated data.
A method comprising the following steps executed by a wireless device : transmitting a first scheduling request, SR, based on a buffer status reporting procedure; triggering, in response to initiating a beam failure recovery, a second SR; transmitting the second SR via an uplink control channel resource configured for the second SR; after transmitting the first SR and the second SR, receiving, via a downlink control channel, first downlink control information as a response to the second SR; and based on the receiving the first downlink control information: keeping the first SR pending; and cancelling the second SR for the beam failure recovery. transmitting a first scheduling request, SR, based on a buffer status reporting procedure; triggering, in response to initiating a beam failure recovery, a second SR; transmitting the second SR via an uplink control channel resource configured for the second SR; after transmitting the first SR and the second SR, receiving, via a downlink control channel, first downlink control information as a response to the second SR; and based on the receiving the first downlink control information: keeping the first SR pending; and cancelling the second SR for the beam failure recovery. keeping the first SR pending; and cancelling the second SR for the beam failure recovery.
A tomographic atom probe having an analysis chamber operating at ambient temperature, a cryogenic device , an electronic device , and an anti-vibration support , said analysis chamber being intended to analyse a sample (E) of material in the form of a nanotip mounted on the anti-vibration support , said cryogenic device being intended to support said nanotip at a temperature of between 0 kelvin and ambient temperature, said electronic device being intended to polarise said nanotip at an adjustable positive voltage between 1 kV and 15 kV, said analysis chamber having a position-sensitive and time of flight-sensitive ion detector , characterised in that said atom probe has a generator for high-peak-intensity single-cycle ultrashort terahertz pulses, the analysis chamber having optical means for focusing said terahertz pulses, the focusing of the terahertz pulses causing the atoms of the nanotip to evaporate through a field effect without thermal effects.
A device for accommodating objects, the device being for use in a transportation means for transporting a plurality of passengers, the device comprising a housing and a door which is pivotable about a pivot axis (PA) between an open position and a closed position, the door , in its closed position, being movable in a direction which extends substantially parallel to the pivot axis (PA) between a locked position and an unlocked position, the door , in its locked position, being locked in the closed position, and the door , in its unlocked position, being pivotable about the pivot axis (PA) from the closed to the open position, the door comprising a locking edge and the housing comprises a door post , the locking edge engaging with the door post in the locked position to lock the door in its closed position and to allow movement of the door between the locked and the unlocked position in the direction which extends substantially parallel to the pivot axis (PA), the locking edge comprising a plurality of engagement members and the door post comprises a plurality of engagement members which engage with respective engagement members of the locking edge in the locked position, and lower edges (102.1) of the engagement members of the door and/or top edges (183.1) of the engagement members of the door post being slanted to facilitate closing of the door , characterised in that the engagement members of the door post are formed by hook-shaped protrusions and have a hook direction which is in a counterclockwise direction, while the engagement members of the door are formed by hook-shaped protrusions and have a hook direction which is in a clockwise direction, the hook directions being both in the same plane, such that the oppositely directed hook-shaped protrusions engage, the plane in which the hook directions are positioned being substantially perpendicular to the pivot axis (PA).
An electric kettle comprising: a main body configured to receive water or food therein and provided with a water level window , a lid provided on an open upper side of the main body so as to cover the open upper side of the main body , and a base provided at a lower side of the main body so as to support the main body , wherein the water level window comprises a flow path configured to allow a fluid to flow, and wherein the flow path is fluidly connected to the inside of the main body , wherein the flow path comprises an entrance flow path formed in an upper end part and another entrance flow path formed in a lower end part of the water level window , each of the entrance flow paths connects the flow path formed inside the water level window with the inside of the main body ; and wherein in an initial position of the electric kettle the flow path is perpendicular to the ground, and wherein a bottom surface of the flow path has a downward inclination relative to the main body , and wherein a bottom surface of the entrance flow path formed in the lower end part of the water level window is inclined downward in direction toward the main body . a main body configured to receive water or food therein and provided with a water level window , a lid provided on an open upper side of the main body so as to cover the open upper side of the main body , and a base provided at a lower side of the main body so as to support the main body , wherein the water level window comprises a flow path configured to allow a fluid to flow, and wherein the flow path is fluidly connected to the inside of the main body , wherein the flow path comprises an entrance flow path formed in an upper end part and another entrance flow path formed in a lower end part of the water level window , each of the entrance flow paths connects the flow path formed inside the water level window with the inside of the main body ; and wherein in an initial position of the electric kettle the flow path is perpendicular to the ground, and wherein a bottom surface of the flow path has a downward inclination relative to the main body , and wherein a bottom surface of the entrance flow path formed in the lower end part of the water level window is inclined downward in direction toward the main body .
A storage chip for use in an imaging cartridge, characterized in that the imaging cartridge is detachably installed in an imaging device, the storage chip comprises a communication unit, a control unit and a storage unit, wherein, the communication unit is configured to receive information sent by the imaging device and send information to the imaging device; the storage unit is configured to store at least mark information and information of multiple different serial numbers; the control unit is configured to determine a state of the mark information stored by the storage unit when a preset condition is detected, in order to determine whether it is needed to replace a currently-selected serial number; the control unit is further configured to judge whether it is needed to modify the state of the mark information after sending the selected serial number information to the imaging device.
A method of detecting outlier cells based on positioning of a user equipment, UE, comprising: determining a set of a plurality of cells detectable by the UE; calculating a plurality of location estimates for the UE based on positioning measurements of a corresponding plurality of subsets of the plurality of cells; identifying a subset of cells of the plurality of subsets that provides a best location estimate for the UE of the plurality of location estimates, wherein the best location estimate maximizes a set of inlier cells of the plurality of cells, and wherein the set of inlier cells comprises one or more cells of the plurality of cells, other than the subset of cells, for which actual positioning measurements of the one or more cells are within a threshold of expected positioning measurements of the one or more cells; calculating a final location estimate for the UE based on positioning measurements of the subset of cells and the set of inlier cells; identifying any remaining cells of the plurality of cells other than the subset of cells and the set of inlier cells as at least one outlier cell; and performing a mitigation operation based on identifying the at least one outlier cell. determining a set of a plurality of cells detectable by the UE; calculating a plurality of location estimates for the UE based on positioning measurements of a corresponding plurality of subsets of the plurality of cells; identifying a subset of cells of the plurality of subsets that provides a best location estimate for the UE of the plurality of location estimates, wherein the best location estimate maximizes a set of inlier cells of the plurality of cells, and wherein the set of inlier cells comprises one or more cells of the plurality of cells, other than the subset of cells, for which actual positioning measurements of the one or more cells are within a threshold of expected positioning measurements of the one or more cells; calculating a final location estimate for the UE based on positioning measurements of the subset of cells and the set of inlier cells; identifying any remaining cells of the plurality of cells other than the subset of cells and the set of inlier cells as at least one outlier cell; and performing a mitigation operation based on identifying the at least one outlier cell.
A method for manufacturing a mold which has a porous alumina layer over its surface, comprising the steps of: (a) providing a mold base which includes an aluminum base and an aluminum film deposited on a surface of the aluminum base , the aluminum base having a purity of not less than 99.50 mass% and less than 99.99 mass%, and the aluminum film having a purity of not less than 99.99 mass%; (b) after step (a), partially anodizing the aluminum film to form a porous alumina layer which has a plurality of micropores ; and (c) after step (b), bringing the porous alumina layer into contact with an etching solution to enlarge the plurality of micropores of the porous alumina layer , wherein the method further comprises, after step (c), the step (d) of further performing anodization to grow the plurality of micropores , and after step (d), step (c) and step (d) are further performed. (a) providing a mold base which includes an aluminum base and an aluminum film deposited on a surface of the aluminum base , the aluminum base having a purity of not less than 99.50 mass% and less than 99.99 mass%, and the aluminum film having a purity of not less than 99.99 mass%; (b) after step (a), partially anodizing the aluminum film to form a porous alumina layer which has a plurality of micropores ; and (c) after step (b), bringing the porous alumina layer into contact with an etching solution to enlarge the plurality of micropores of the porous alumina layer , wherein