mhurhangee/patent-ind-claim-en huggingface dataset:
A helical conveyor system having a central drum ; conveyor belting extending in a helical configuration about the central drum ; and a drive bar apparatus mounted to the central drum for advancing the conveyor belting on rotation of the central drum , said drive bar apparatus having at least one tapered drive bar , characterized in that the at least one tapered drive bar comprises: a tapered tip having a conical outer surface for urging protrusions extending from the conveyor belting to be engaged by the central drum to a first side or a second side of the at least one tapered drive bar ; a bar portion extending from the tapered tip and having a varying height which increases from the tapered tip to enable the bar portion to progressively increase engagement with the protrusions as the conveyor belting moves up the central drum . a central drum ; conveyor belting extending in a helical configuration about the central drum ; and a drive bar apparatus mounted to the central drum for advancing the conveyor belting on rotation of the central drum , said drive bar apparatus having at least one tapered drive bar , characterized in that the at least one tapered drive bar comprises: a tapered tip having a conical outer surface for urging protrusions extending from the conveyor belting to be engaged by the central drum to a first side or a second side of the at least one tapered drive bar ; a bar portion extending from the tapered tip and having a varying height which increases from the tapered tip to enable the bar portion to progressively increase engagement with the protrusions as the conveyor belting moves up the central drum . a tapered tip having a conical outer surface for urging protrusions extending from the conveyor belting to be engaged by the central drum to a first side or a second side of the at least one tapered drive bar ; a bar portion extending from the tapered tip and having a varying height which increases from the tapered tip to enable the bar portion to progressively increase engagement with the protrusions as the conveyor belting moves up the central drum .
A pressure sensor assembly comprising: a pressure port having a base and a neck extending upwardly from the base, the neck including a sidewall; a fluid passageway formed through the base and into the neck, the base being connectable to a fluid pressure environment; a diaphragm disposed along the side wall of the neck, the diaphragm having an outer face and an inner face, the inner face exposed to the fluid passageway, the inner surface of the diaphragm machined to define a circular flat inner surface that is parallel to the outer face of the diaphragm; a sensing element responsive to diaphragm movement mounted on the outer surface of the diaphragm ; an electronics package mounted adjacent the neck and including wire bonding pads to facilitate wire connection between the electronics package and the sensing element ; the wire bonding pads and the outer face of the diaphragm being disposed in either parallel planes or a common plane; a hole formed through the side of the neck that is opposite to the flat surface , the hole being in communication with the passageway; and a plug covering and sealing the hole in the neck. a pressure port having a base and a neck extending upwardly from the base, the neck including a sidewall; a fluid passageway formed through the base and into the neck, the base being connectable to a fluid pressure environment; a diaphragm disposed along the side wall of the neck, the diaphragm having an outer face and an inner face, the inner face exposed to the fluid passageway, the inner surface of the diaphragm machined to define a circular flat inner surface that is parallel to the outer face of the diaphragm; a sensing element responsive to diaphragm movement mounted on the outer surface of the diaphragm ; an electronics package mounted adjacent the neck and including wire bonding pads to facilitate wire connection between the electronics package and the sensing element ; the wire bonding pads and the outer face of the diaphragm being disposed in either parallel planes or a common plane; a hole formed through the side of the neck that is opposite to the flat surface , the hole being in communication with the passageway; and a plug covering and sealing the hole in the neck.
A powerless humidification module for an air cleaner , wherein said powerless humidification module is for being detachably mounted on an upper portion of a body of the air cleaner and is capable of preventing leakage of water, and the humidification module comprising: a base cover having a first opening for being opened toward the air cleaner and a second opening ; a cistern part located in the interior of the base cover and located such that a space defined between an inner partition wall and an outer partition wall of the cistern part having predetermined heights such that water supplied to one side thereof is stored surrounds a periphery of the first opening ; a humidification filter located in the second opening ; characterized in that the second opening is opened toward a side surface of the first opening; and in that the humidification module comprises a protector located in the interior of the base cover to communicate the first opening and the second opening and located to cover an upper portion of the first opening , wherein the protector comprises an upper prevention wall located to cover the upper portion of the first opening ; and a guide wall which is formed to extend from an outer periphery of the upper prevention wall to be continued to the inner partition wall such as to prevent leakage of water. a base cover having a first opening for being opened toward the air cleaner and a second opening ; a cistern part located in the interior of the base cover and located such that a space defined between an inner partition wall and an outer partition wall of the cistern part having predetermined heights such that water supplied to one side thereof is stored surrounds a periphery of the first opening ; a humidification filter located in the second opening ; the second opening is opened toward a side surface of the first opening; and in that the humidification module comprises a protector located in the interior of the base cover to communicate the first opening and the second opening and located to cover an upper portion of the first opening , wherein the protector comprises an upper prevention wall located to cover the upper portion of the first opening ; and a guide wall which is formed to extend from an outer periphery of the upper prevention wall to be continued to the inner partition wall such as to prevent leakage of water. a protector located in the interior of the base cover to communicate the first opening and the second opening and located to cover an upper portion of the first opening , wherein the protector comprises an upper prevention wall located to cover the upper portion of the first opening ; and a guide wall which is formed to extend from an outer periphery of the upper prevention wall to be continued to the inner partition wall such as to prevent leakage of water.
Method for locating at least one movable magnetic object (OMM k ) with respect to an array of at least N triaxial magnetometers (M i,j ) that are mechanically connected to one another with no degree of freedom in order to preserve a known relative position of these magnetometers (M i,j ), N being an integer at least equal to 2, comprising steps consisting in: - loading the measurements (B i,j mes ) of the magnetometers (M i,j ), at a current time (t); - calculating a weighted average (<B mes >) of said measurements (B i,j mes ) of the magnetometers (M i,j ) representing an average terrestrial magnetic field and an average magnetic field due to the movable magnetic object(s) (OMM k ); - subtracting said weighted average (<B mes >) from each of said measurements (B i,j mes ) in order to obtain modified measurements (B i,j mes -<B mes >); - loading said modified measurements (B i,j mes -<B mes >) and a location (Post, M t ) of the one or more movable magnetic objects (OMM k ) at the current time (t) as input into a filtering operation (FL) for locating the one or more movable magnetic objects (OMM k ); - implementing the location filtering operation (FL), this comprising steps consisting in: - calculating a weighted average (<B est >) of estimations (B i,j est ) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est ); and - delivering as output a location (Pos t+1 , M t +1 ) of the one or more movable magnetic objects (OMM k ) at a subsequent time (t+1). - loading the measurements (B i,j mes ) of the magnetometers (M i,j ), at a current time (t); - calculating a weighted average (<B mes >) of said measurements (B i,j mes ) of the magnetometers (M i,j ) representing an average terrestrial magnetic field and an average magnetic field due to the movable magnetic object(s) (OMM k ); - subtracting said weighted average (<B mes >) from each of said measurements (B i,j mes ) in order to obtain modified measurements (B i,j mes -<B mes >); - loading said modified measurements (B i,j mes -<B mes >) and a location (Post, M t ) of the one or more movable magnetic objects (OMM k ) at the current time (t) as input into a filtering operation (FL) for locating the one or more movable magnetic objects (OMM k ); - implementing the location filtering operation (FL), this comprising steps consisting in: - calculating a weighted average (<B est >) of estimations (B i,j est ) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est ); and - delivering as output a location (Pos t+1 , M t +1 ) of the one or more movable magnetic objects (OMM k ) at a subsequent time (t+1). - calculating a weighted average (<B est >) of estimations (B i,j est ) of data delivered by said magnetometers (Mi); - subtracting said weighted average (<B est >) from each of said estimated data (B i,j est ); and - delivering as output a location (Pos t+1 , M t +1 ) of the one or more movable magnetic objects (OMM k ) at a subsequent time (t+1).
A method for manufacturing a printed circuit board, the method comprising: applying an adhesive on an area of a support board for mounting an electronic device; attaching an electronic device on the adhesive; forming an insulation layer for burying the electronic device; separating the insulation layer from the support board; forming a lower insulation layer under the insulation layer; and forming a via connected to terminals of the electronic device in the insulation layer or the lower insulation layer, wherein the adhesion is only applied on a central area between the terminals of the electronic device on the area on which the electronic device is mounted. applying an adhesive on an area of a support board for mounting an electronic device; attaching an electronic device on the adhesive; forming an insulation layer for burying the electronic device; separating the insulation layer from the support board; forming a lower insulation layer under the insulation layer; and forming a via connected to terminals of the electronic device in the insulation layer or the lower insulation layer, wherein the adhesion is only applied on a central area between the terminals of the electronic device on the area on which the electronic device is mounted.
A communication method, executed by a terminal device , the method comprising: receiving (S101) a measurement object configuration from a network device, wherein the measurement object configuration comprises mobility measurement configurations of one or more channel state information-reference signals, CSI-RSs, and a first parameter of a synchronization signal block associated with the CSI-RSs, wherein the first parameter is used for receiving the synchronization signal block associated with the CSI-RSs, and the measurement object configuration is used to indicate a terminal device to perform mobility measurement based on the measurement object configuration; wherein the terminal has a plurality of serving cells, and different serving cells have different timing information; and sending (S102) a mobility measurement result to the network device; characterized in that the mobility measurement configurations of the CSI-RSs further comprise a serving cell identity that is used to determine timing information of a cell for which the terminal device needs to perform measurement. receiving (S101) a measurement object configuration from a network device, wherein the measurement object configuration comprises mobility measurement configurations of one or more channel state information-reference signals, CSI-RSs, and a first parameter of a synchronization signal block associated with the CSI-RSs, wherein the first parameter is used for receiving the synchronization signal block associated with the CSI-RSs, and the measurement object configuration is used to indicate a terminal device to perform mobility measurement based on the measurement object configuration; wherein the terminal has a plurality of serving cells, and different serving cells have different timing information; and sending (S102) a mobility measurement result to the network device; characterized in that the mobility measurement configurations of the CSI-RSs further comprise a serving cell identity that is used to determine timing information of a cell for which the terminal device needs to perform measurement.
A head-mounted display device, comprising: a wearable assembly, adapted to be worn on a head of a user; at least one cushion , adapted to contact the head of the user, and floatingly connected to the wearable assembly; and at least one adjustable fixing assembly, comprising a first positioning structure and a second positioning structure , wherein the first positioning structure is connected to the wearable assembly, the second positioning structure is connected to the at least one cushion, and a structural interference generated between the first positioning structure and the second positioning structure positions the at least one cushion to the wearable assembly, wherein the structural interference is a structural locking or friction generated between the first and the second positioning structure by an external force. a wearable assembly, adapted to be worn on a head of a user; at least one cushion , adapted to contact the head of the user, and floatingly connected to the wearable assembly; and at least one adjustable fixing assembly, comprising a first positioning structure and a second positioning structure , wherein the first positioning structure is connected to the wearable assembly, the second positioning structure is connected to the at least one cushion, and a structural interference generated between the first positioning structure and the second positioning structure positions the at least one cushion to the wearable assembly, wherein the structural interference is a structural locking or friction generated between the first and the second positioning structure by an external force.
A method for wireless communications, comprising: receiving , from a base station, a downlink message that indicates a timing advance, TA, command; determining a minimum time gap for transmission of a time-adjusted uplink message based at least in part on a downlink transmission decoding time, an uplink transmission preparation time, wherein the uplink transmission preparation time is a delay related to preparing the uplink transmission for transmission to the base station, or a combination thereof; and transmitting the time-adjusted uplink message to the base station in response to the TA command based at least in part on the minimum time gap. receiving , from a base station, a downlink message that indicates a timing advance, TA, command; determining a minimum time gap for transmission of a time-adjusted uplink message based at least in part on a downlink transmission decoding time, an uplink transmission preparation time, wherein the uplink transmission preparation time is a delay related to preparing the uplink transmission for transmission to the base station, or a combination thereof; and transmitting the time-adjusted uplink message to the base station in response to the TA command based at least in part on the minimum time gap.
A detector arrangement for an X-ray phase contrast system , the detector arrangement comprising: - a scintillator ; - an optical grating ; and - a detector ; - wherein the optical grating is arranged between the scintillator and the detector and is configured to be electronically adjustable; wherein the scintillator converts X-ray radiation into optical radiation ; wherein the optical grating is configured to be an analyzer grating being adapted to a phase-grating of an X-ray phase contrast system and - characterised in that an optical path between the optical grating and the scintillator is free of focussing elements for optical radiation. - a scintillator ; - an optical grating ; and - a detector ; - wherein the optical grating is arranged between the scintillator and the detector and is configured to be electronically adjustable; - characterised in that an optical path between the optical grating and the scintillator is free of focussing elements for optical radiation.
Apparatus for mapping a body cavity of a subject, comprising: a probe , having a distal end configured for insertion into a body cavity and comprising a contact sensor for measuring a respective contact quality between the probe and a tissue at multiple locations in the body cavity; and a console , which is configured to receive inputs from the probe that are indicative of the contact quality at each of the respective locations, to reject the inputs for which the respective contact quality is outside a defined range, and to create a map of the body cavity using the inputs that are not rejected; wherein the probe comprises a position transducer , which is configured to provide to the console an input indicative of location coordinates of a distal end of the probe inside the body cavity, wherein the position transducer is configured to provide the location coordinates to the console only when the contact quality is within the defined range; wherein the contact sensor is configured to measure a pressure exerted on a distal end of the probe, and wherein the contact sensor comprises a force sensor within the probe; and characterised in that the console is configured to add tags to the map indicating the respective contact quality at one or more of the locations. a probe , having a distal end configured for insertion into a body cavity and comprising a contact sensor for measuring a respective contact quality between the probe and a tissue at multiple locations in the body cavity; and a console , which is configured to receive inputs from the probe that are indicative of the contact quality at each of the respective locations, to reject the inputs for which the respective contact quality is outside a defined range, and to create a map of the body cavity using the inputs that are not rejected; wherein the probe comprises a position transducer , which is configured to provide to the console an input indicative of location coordinates of a distal end of the probe inside the body cavity, wherein the position transducer is configured to provide the location coordinates to the console only when the contact quality is within the defined range; wherein the contact sensor is configured to measure a pressure exerted on a distal end of the probe, and wherein the contact sensor comprises a force sensor within the probe; and characterised in that the console is configured to add tags to the map indicating the respective contact quality at one or more of the locations.
A method for fabricating a porous structure suitable for a medical implant comprising the steps of: creating a model of a porous structure, said creating step comprising the steps of: defining a three dimensional space having an outer boundary and an inner volume, placing a plurality of outer spatial coordinates along the outer boundary, placing a plurality of inner spatial coordinates in the inner volume, moving a finite distance in a random direction at least one spatial coordinate from one of said plurality of outer spatial coordinates and said plurality of inner spatial coordinates; dividing the volume of the three dimensional space among the outer and inner spatial coordinates, defining the boundary of a portion of said divided volume with one or more struts and one or more nodes to form a scaffold, where each strut has a first end, a second end, and a continuous elongated body between the first and second ends for each strut, and each node is an intersection of at least two struts, and selecting at least one thickness and at least one shape for one or more struts; fabricating the porous structure according to the model by exposing fusible material to an energy source. defining a three dimensional space having an outer boundary and an inner volume, placing a plurality of outer spatial coordinates along the outer boundary, placing a plurality of inner spatial coordinates in the inner volume, moving a finite distance in a random direction at least one spatial coordinate from one of said plurality of outer spatial coordinates and said plurality of inner spatial coordinates; dividing the volume of the three dimensional space among the outer and inner spatial coordinates, defining the boundary of a portion of said divided volume with one or more struts and one or more nodes to form a scaffold, where each strut has a first end, a second end, and a continuous elongated body between the first and second ends for each strut, and each node is an intersection of at least two struts, and selecting at least one thickness and at least one shape for one or more struts; fabricating the porous structure according to the model by exposing fusible material to an energy source.
A robot device controller , comprising: a memory configured to store a statistical model trained to implement a behaviour of the robot device ; and one or more processors configured to determine a nominal trajectory represented by the statistical model ; determine an expected force experienced by the robot device when the robot device is controlled to move in accordance with the nominal trajectory; determine a measured force experienced by the robot device when the robot device is controlled to move in accordance with the nominal trajectory; and adapt the statistical model based on a reduction of the difference between the measured force and the expected force. a memory configured to store a statistical model trained to implement a behaviour of the robot device ; and one or more processors configured to determine a nominal trajectory represented by the statistical model ; determine an expected force experienced by the robot device when the robot device is controlled to move in accordance with the nominal trajectory; determine a measured force experienced by the robot device when the robot device is controlled to move in accordance with the nominal trajectory; and adapt the statistical model based on a reduction of the difference between the measured force and the expected force.