mhurhangee/ep-ind-claims huggingface dataset:
A method, comprising: in a hybrid communication system wherein at least one computing device (102; 302; 510) is configured to selectively operate in a first communication mode or a second communication mode, the first communication mode being a Global System for Mobile Communication, GSM mode and the second communication mode being one of a Universal Mobile Telecommunications System, UMTS, mode and an Evolved Packet System, EPS mode; receiving, at the at least one computing device (102; 302; 510) during an attachment process in the first communication mode, an authentication token, AUTN; monitoring a value in a portion of the received AUTN; preventing the at least one computing device (102; 302; 510) from completing said attachment process in the first communication mode when it is determined, based on said monitoring, that the received AUTN being used to authenticate the at least one computing device in the first communication mode was generated for an authentication process in the second communication mode. in a hybrid communication system wherein at least one computing device (102; 302; 510) is configured to selectively operate in a first communication mode or a second communication mode, the first communication mode being a Global System for Mobile Communication, GSM mode and the second communication mode being one of a Universal Mobile Telecommunications System, UMTS, mode and an Evolved Packet System, EPS mode; receiving, at the at least one computing device (102; 302; 510) during an attachment process in the first communication mode, an authentication token, AUTN; monitoring a value in a portion of the received AUTN; preventing the at least one computing device (102; 302; 510) from completing said attachment process in the first communication mode when it is determined, based on said monitoring, that the received AUTN being used to authenticate the at least one computing device in the first communication mode was generated for an authentication process in the second communication mode.
A lighting fixture comprising: • a light sensor (S A); • a light source; and • circuitry (30,32) characterized in that the circuitry is adapted to: • determine that a given lighting fixture of a plurality of lighting fixtures separate from the lighting fixture is entering a lightcast mode, wherein the determination is made based on receiving a first instruction from the given lighting fixture; • via the light sensor, monitor for a first lightcast signal provided by the given lighting fixture; • generate grouping data to be provided to the given lighting fixture based on receipt of the first lightcast signal; • enter the lightcast mode; • send a second instruction to the plurality of lighting fixtures to monitor for a second lightcast signal; • drive the light source to provide the second lightcast signal to the plurality of lighting fixtures; and • receive second grouping data from the plurality of lighting fixtures in response to providing the second lightcast signal. • a light sensor (S A); • a light source; and • circuitry (30,32) characterized in that the circuitry is adapted to: • determine that a given lighting fixture of a plurality of lighting fixtures separate from the lighting fixture is entering a lightcast mode, wherein the determination is made based on receiving a first instruction from the given lighting fixture; • via the light sensor, monitor for a first lightcast signal provided by the given lighting fixture; • generate grouping data to be provided to the given lighting fixture based on receipt of the first lightcast signal; • enter the lightcast mode; • send a second instruction to the plurality of lighting fixtures to monitor for a second lightcast signal; • drive the light source to provide the second lightcast signal to the plurality of lighting fixtures; and • receive second grouping data from the plurality of lighting fixtures in response to providing the second lightcast signal. • determine that a given lighting fixture of a plurality of lighting fixtures separate from the lighting fixture is entering a lightcast mode, wherein the determination is made based on receiving a first instruction from the given lighting fixture; • via the light sensor, monitor for a first lightcast signal provided by the given lighting fixture; • generate grouping data to be provided to the given lighting fixture based on receipt of the first lightcast signal; • enter the lightcast mode; • send a second instruction to the plurality of lighting fixtures to monitor for a second lightcast signal; • drive the light source to provide the second lightcast signal to the plurality of lighting fixtures; and • receive second grouping data from the plurality of lighting fixtures in response to providing the second lightcast signal.
A method comprising: receiving, from a first device, a first human biological characteristic file of a particular identity as a base file; receiving, from a second device, a request for an identity authentication corresponding to the particular identity, the request associated with a second human biological characteristic file of a person who requests the identity authentication or a first characteristic code corresponding to a human biological characteristic of the person who requests the identity authentication, wherein the first device and the second device use different collecting algorithms to collect a characteristic code from a human biological characteristic file; obtaining the first characteristic code from the second human biological characteristic file of the person who requests the identity authentication or from the second device; determining a collecting algorithm corresponding to the second device; collecting a second characteristic code from the base file by using the collecting algorithm corresponding to the second device; determining whether the second characteristic code and the first characteristic code correspond to a same human biological characteristic; and verifying the request for the identity authentication in response to determining that the second characteristic code and the first characteristic code correspond to the same human biological characteristic. receiving, from a first device, a first human biological characteristic file of a particular identity as a base file; receiving, from a second device, a request for an identity authentication corresponding to the particular identity, the request associated with a second human biological characteristic file of a person who requests the identity authentication or a first characteristic code corresponding to a human biological characteristic of the person who requests the identity authentication, wherein the first device and the second device use different collecting algorithms to collect a characteristic code from a human biological characteristic file; obtaining the first characteristic code from the second human biological characteristic file of the person who requests the identity authentication or from the second device; determining a collecting algorithm corresponding to the second device; collecting a second characteristic code from the base file by using the collecting algorithm corresponding to the second device; determining whether the second characteristic code and the first characteristic code correspond to a same human biological characteristic; and verifying the request for the identity authentication in response to determining that the second characteristic code and the first characteristic code correspond to the same human biological characteristic.
Analytical test tape, in particular for use in a test tape cassette, having a carrier tape that can be wound onto a spool and a plurality of test elements that are distributed on the carrier tape in the tape longitudinal direction and have a spreading fabric for applying body fluid and an underlying reagent layer for detecting an analyte in the body fluid, wherein the spreading fabric is formed from fabric threads (44, 46) that are crossed in a grid shape, wherein the bending stiffness of the spreading fabric is sectionally modified so that the bending stiffness is high in the tape transverse direction and low in the tape longitudinal direction, wherein the bending stiffness is modified by one of the following possibilities: - the use of fabric threads (44,46) of different thicknesses in appropriate areas of the fabric; - the additional coating in certain areas of the fabric threads (44,46); - the thinning or local weakening of one or more fabric threads (44,46); - the use of multifilament fabric threads (44,46). - the use of fabric threads (44,46) of different thicknesses in appropriate areas of the fabric; - the additional coating in certain areas of the fabric threads (44,46); - the thinning or local weakening of one or more fabric threads (44,46); - the use of multifilament fabric threads (44,46).
A speaker device comprising: a housing including a sound guide space (llh) that has a vertically flattened shape; a plurality of first speakers disposed in the housing to be oriented toward a front of the housing; and a second speaker disposed in the housing, the second speaker being oriented to output sound into the sound guide space (llh) that is positioned at an internal part of the housing, wherein the sound guide space (llh) opens at an opening (llaa) that is formed in vertically flattened form in the housing, the plurality of first speakers are disposed on left and right sides of the opening (llaa), the plurality of first speakers output high-range sounds as compared with the second speaker, and the opening (llaa) has a vertical height that is smaller than an aperture of the first speaker, characterized in that: the second speaker being oriented upward and the sound guide space (llh) being positioned at an internal upper part of the housing, and the opening (llaa) being provided with an elongated directional member directly underlying the opening (llaa) and extending substantially throughout a whole width of the opening (llaa), said directional member having a directional surface that slopes diagonally downwardly while protruding from a front wall of the housing. a housing including a sound guide space (llh) that has a vertically flattened shape; a plurality of first speakers disposed in the housing to be oriented toward a front of the housing; and a second speaker disposed in the housing, the second speaker being oriented to output sound into the sound guide space (llh) that is positioned at an internal part of the housing, wherein the sound guide space (llh) opens at an opening (llaa) that is formed in vertically flattened form in the housing, the plurality of first speakers are disposed on left and right sides of the opening (llaa), the plurality of first speakers output high-range sounds as compared with the second speaker, and the opening (llaa) has a vertical height that is smaller than an aperture of the first speaker, the second speaker being oriented upward and the sound guide space (llh) being positioned at an internal upper part of the housing, and the opening (llaa) being provided with an elongated directional member directly underlying the opening (llaa) and extending substantially throughout a whole width of the opening (llaa), said directional member having a directional surface that slopes diagonally downwardly while protruding from a front wall of the housing.
A computer-implemented method for selecting a mode of operation for an autonomous vehicle, the autonomous vehicle traversing one or more travel segments and operating in an autonomous mode based on geometry-based curvature, the method comprising: aggregating a plurality of curvature samples collected from one or more vehicles traversing the one or more travel segments prior to the autonomous vehicle and operating in a non-autonomous mode; processing the curvature samples to determine at least one experienced curvature (705; 903; 1007) for the one or more travel segments, the at least one experienced curvature indicating respective driving paths of the one or more vehicles through the one or more travel segments; determining at least one geometry-based curvature (703; 905; 1003) for the one or more travel segments, the at least one geometry-based curvature based on road geometry data associated with the one or more travel segments; determining one or more differences between the at least one experienced curvature and the at least one geometry-based curvature; determining that the one or more differences are larger than a threshold difference value; and in response to the one or more differences being larger than the threshold difference value, selecting autonomous operation based on the experienced curvature for the autonomous vehicle traversing the one or more travel segments. aggregating a plurality of curvature samples collected from one or more vehicles traversing the one or more travel segments prior to the autonomous vehicle and operating in a non-autonomous mode; processing the curvature samples to determine at least one experienced curvature (705; 903; 1007) for the one or more travel segments, the at least one experienced curvature indicating respective driving paths of the one or more vehicles through the one or more travel segments; determining at least one geometry-based curvature (703; 905; 1003) for the one or more travel segments, the at least one geometry-based curvature based on road geometry data associated with the one or more travel segments; determining one or more differences between the at least one experienced curvature and the at least one geometry-based curvature; determining that the one or more differences are larger than a threshold difference value; and in response to the one or more differences being larger than the threshold difference value, selecting autonomous operation based on the experienced curvature for the autonomous vehicle traversing the one or more travel segments.
A surroundings display apparatus for a mobile crane comprising a traveling vehicle body, and a boom, the surroundings display apparatus (a) for a mobile crane further comprising: a camera (1L, 1R) that is provided in a leading end portion of the boom; a control apparatus that is connected to the camera (1L, 1R); and a monitor that is connected to the control apparatus, characterized in that the control apparatus performs a viewpoint conversion process on the image photographed with the camera (1L, 1R) to generate a viewpoint-converted image as viewed immediately sideways or downward from the leading end portion of the boom, and overlaps the positional information of the boom on the viewpoint-converted image to display the positional information on the monitor. a camera (1L, 1R) that is provided in a leading end portion of the boom; a control apparatus that is connected to the camera (1L, 1R); and a monitor that is connected to the control apparatus, characterized in that the control apparatus performs a viewpoint conversion process on the image photographed with the camera (1L, 1R) to generate a viewpoint-converted image as viewed immediately sideways or downward from the leading end portion of the boom, and overlaps the positional information of the boom on the viewpoint-converted image to display the positional information on the monitor.
A roll-on applicator ball comprising a first half ball part and a second half ball part, characterised in that the ball comprises a generally annular connecting ring which connects the ball halves together.
A gas-generating apparatus (612; 712; 812) comprising: a reaction chamber (618; 718; 818) containing a solid fuel component (624; 724; 824); a reservoir containing a liquid fuel component; and a fluid path (650; 750; 882) for introducing the liquid fuel component into the reaction chamber, wherein the liquid fuel component is introduced into the reaction chamber in response to a pressure differential between the reaction chamber and at least one of the fluid path and the reservoir; wherein the reservoir is a deformable bladder; and wherein the fluid path comprises multiple flow paths (652a-f; 752a-f), wherein the multiple flow paths are configured such that the liquid fuel flows through each flow path sequentially such that different areas of the solid fuel component are reacted successively. a reaction chamber (618; 718; 818) containing a solid fuel component (624; 724; 824); a reservoir containing a liquid fuel component; and a fluid path (650; 750; 882) for introducing the liquid fuel component into the reaction chamber, wherein the liquid fuel component is introduced into the reaction chamber in response to a pressure differential between the reaction chamber and at least one of the fluid path and the reservoir; wherein the reservoir is a deformable bladder; and wherein the fluid path comprises multiple flow paths (652a-f; 752a-f), wherein the multiple flow paths are configured such that the liquid fuel flows through each flow path sequentially such that different areas of the solid fuel component are reacted successively.
A trocar assembly for releasable engagement with an adapter assembly of a surgical stapling instrument, the trocar assembly comprising: a housing including a first end cap and a second end cap (102, 104); a trocar member rotatably supported with the housing and movable between a retracted position and an advanced position, the trocar member including a threaded central portion and defining a longitudinal channel; and a drive member rotatably supported within the housing and including a drive portion received within the longitudinal channel of the trocar member, wherein rotation of the drive member causes longitudinal movement of the trocar member; characterised in that the trocar member further comprises a cylindrical proximal portion which is configured to act as a stop member for retaining the trocar member within the housing of the trocar assembly, wherein a distal portion of the cylindrical proximal portion of the trocar member engages the second end cap to prevent the trocar member exiting the housing of the trocar assembly during advancement of the trocar member. a housing including a first end cap and a second end cap (102, 104); a trocar member rotatably supported with the housing and movable between a retracted position and an advanced position, the trocar member including a threaded central portion and defining a longitudinal channel; and a drive member rotatably supported within the housing and including a drive portion received within the longitudinal channel of the trocar member, wherein rotation of the drive member causes longitudinal movement of the trocar member;
A turbo-compressor comprising: a rotor assembly extending in an axial direction and comprising at least one impeller configured for pressurizing a gas; a magnetic bearing supporting the rotor assembly on a high-pressure side of the at least one impeller; and a cooling passage configured to deliver a first portion of the pressurized gas through a bearing gap of the magnetic bearing for cooling the magnetic bearing; a balance drum arranged on the high-pressure side of the at least one impeller; characterized in that the magnetic bearing is arranged between the at least one impeller and the balance drum in the axial direction. a rotor assembly extending in an axial direction and comprising at least one impeller configured for pressurizing a gas; a magnetic bearing supporting the rotor assembly on a high-pressure side of the at least one impeller; and a cooling passage configured to deliver a first portion of the pressurized gas through a bearing gap of the magnetic bearing for cooling the magnetic bearing; a balance drum arranged on the high-pressure side of the at least one impeller; characterized in that the magnetic bearing is arranged between the at least one impeller and the balance drum in the axial direction.
A method of controlling packets in a data packet network, the method comprising the steps of: a source node sending a first set of packets to a receiver node over the data packet network via an intermediate node; the source node receiving a first acknowledgement of a first received packet of the first set of packets from the receiver node; and the source node sending a second set of packets to the receiver node over the data packet network, the method characterised in that the source node marks the first set of packets as being of an unqueuable class of service, wherein a data packet of the first set of packets is of the unqueuable class of service when an intermediate node receiving the data packet should queue the data packet if a buffer for storing data packets awaiting transmission of the intermediate node receiving the data packet is empty, and the intermediate node receiving the data packet should not forward the data packet to the receiver node if the buffer for storing data packets awaiting transmission of the intermediate node receiving the data packet is not empty. a source node sending a first set of packets to a receiver node over the data packet network via an intermediate node; the source node receiving a first acknowledgement of a first received packet of the first set of packets from the receiver node; and the source node sending a second set of packets to the receiver node over the data packet network, the method characterised in that the source node marks the first set of packets as being of an unqueuable class of service, wherein a data packet of the first set of packets is of the unqueuable class of service when an intermediate node receiving the data packet should queue the data packet if a buffer for storing data packets awaiting transmission of the intermediate node receiving the data packet is empty, and the intermediate node receiving the data packet should not forward the data packet to the receiver node if the buffer for storing data packets awaiting transmission of the intermediate node receiving the data packet is not empty.
An image acquisition device, comprising a camera shooting module, a control module, a control unit, and a processing module, wherein, the camera shooting module comprises at least two cameras; the control module is configured to control the at least two cameras of the camera shooting module to shoot the same scenario simultaneously to obtain at least two images; and the control unit is configured to subsequently control the at least two cameras to continuously shoot the same scenario simultaneously to obtain at least two subsequent images on the basis that a continuous shooting instruction is received; characterised in that: the processing module comprises a brightness superposition unit configured to superpose brightness of corresponding pixel points in the at least two images simultaneously shot by the at least two cameras of the camera shooting module for the same scenario, so as to obtain an image with enhanced brightness, wherein the brightness superposition unit is further configured to superpose the brightness of the pixel points in the at least two subsequent images with the brightness of corresponding pixel points in the image with enhanced brightness, so as to obtain an image with enhanced brightness after multiple shootings. the processing module comprises a brightness superposition unit configured to superpose brightness of corresponding pixel points in the at least two images simultaneously shot by the at least two cameras of the camera shooting module for the same scenario, so as to obtain an image with enhanced brightness, wherein the brightness superposition unit is further configured to superpose the brightness of the pixel points in the at least two subsequent images with the brightness of corresponding pixel points in the image with enhanced brightness, so as to obtain an image with enhanced brightness after multiple shootings.