mhurhangee/ep-ind-claims huggingface dataset:
A first base station, comprising: a transmitter configured to transmit user data in a first cell using a predetermined subcarrier spacing, the first cell being managed by the first base station; a receiver; and a controller, wherein the transmitter is configured to transmit a synchronization signal in the first cell, and the controller is configured to apply a subcarrier spacing different from the predetermined subcarrier spacing to a time location for transmitting the synchronization signal, the receiver is configured to receive from a second base station, information indicating a second subcarrier spacing applied in a second cell managed by the second base station, and the transmitter is configured to transmit to a user equipment that performs dual connectivity with the first base station and the second base station, subcarrier spacing information indicating the second subcarrier spacing applied in the second cell. a transmitter configured to transmit user data in a first cell using a predetermined subcarrier spacing, the first cell being managed by the first base station; a receiver; and a controller, wherein the transmitter is configured to transmit a synchronization signal in the first cell, and the controller is configured to apply a subcarrier spacing different from the predetermined subcarrier spacing to a time location for transmitting the synchronization signal, the receiver is configured to receive from a second base station, information indicating a second subcarrier spacing applied in a second cell managed by the second base station, and the transmitter is configured to transmit to a user equipment that performs dual connectivity with the first base station and the second base station, subcarrier spacing information indicating the second subcarrier spacing applied in the second cell.
Arm for a casing of a turbine engine, having a first longitudinal end provided with first fixing means intended to be fixed to an external casing collar, and a second longitudinal end provided with second fixing means (96, 98) intended to be fixed to a casing hub, the arm comprising a shaft housing emerging at the first longitudinal end of the arm in order to house a secondary turbine-engine transmission shaft, and the arm being characterised in that: - the arm comprises a body formed by a base and an upright, - the base includes the first fixing means and has a first portion arranged on the same side as a first lateral end of the arm, and a second portion arranged on the same side as a second lateral end of the arm opposite to the first lateral end and including a first section of the shaft housing, - the upright has a first longitudinal end connected to the first portion of the base, and a second longitudinal end opposite to the first longitudinal end and including a part of the second fixing means, - the arm comprises an additional piece fixed removably to the body, - the additional piece includes a second section of the shaft housing and delimits a bearing housing emerging in the shaft housing and intended to house a bearing, - the arm comprises a spacer interposed between the base and the additional piece, - the spacer includes a third section of the shaft housing, and - the upright and the additional piece are mutually in contact by means of contact surfaces (150, 160, 178, 179) conformed so as to allow movement of the additional piece towards the base when the arm is devoid of the spacer. - the arm comprises a body formed by a base and an upright, - the base includes the first fixing means and has a first portion arranged on the same side as a first lateral end of the arm, and a second portion arranged on the same side as a second lateral end of the arm opposite to the first lateral end and including a first section of the shaft housing, - the upright has a first longitudinal end connected to the first portion of the base, and a second longitudinal end opposite to the first longitudinal end and including a part of the second fixing means, - the arm comprises an additional piece fixed removably to the body, - the additional piece includes a second section of the shaft housing and delimits a bearing housing emerging in the shaft housing and intended to house a bearing, - the arm comprises a spacer interposed between the base and the additional piece, - the spacer includes a third section of the shaft housing, and - the upright and the additional piece are mutually in contact by means of contact surfaces (150, 160, 178, 179) conformed so as to allow movement of the additional piece towards the base when the arm is devoid of the spacer.
A work vehicle comprising: a vehicular body; a climbing device body having a linear side member having a first end portion and a second end portion, attached at the first end portion to the vehicular body to be capable of a rotation operation relative to the vehicular body, and capable of assuming by the rotation operation a retracted position in which the climbing device body is erected to allow the first end portion to be positioned above the second end portion and a deployed position in which the climbing device body is inclined to allow the second end portion to be positioned sideways of the vehicular body outer than the first end portion; and a handrail attached to the climbing device body, having a gripping portion rotatably supported by a pair of link members (22e1, 22e2) to the side member such that the gripping portion is parallel to the side member, and engaged with the rotation operation to be capable of assuming a raised state allowing the gripping portion to assume a first position distant from the climbing device body in the deployed position and a folded state allowing the gripping portion to assume a second position close to the climbing device body in the retracted position. a vehicular body; a climbing device body having a linear side member having a first end portion and a second end portion, attached at the first end portion to the vehicular body to be capable of a rotation operation relative to the vehicular body, and capable of assuming by the rotation operation a retracted position in which the climbing device body is erected to allow the first end portion to be positioned above the second end portion and a deployed position in which the climbing device body is inclined to allow the second end portion to be positioned sideways of the vehicular body outer than the first end portion; and a handrail attached to the climbing device body, having a gripping portion rotatably supported by a pair of link members (22e1, 22e2) to the side member such that the gripping portion is parallel to the side member, and engaged with the rotation operation to be capable of assuming a raised state allowing the gripping portion to assume a first position distant from the climbing device body in the deployed position and a folded state allowing the gripping portion to assume a second position close to the climbing device body in the retracted position.
A knee prosthesis, with an upper leg part and a lower leg part which are rotatable against each other about a joint axis, a motor which has a rotor which is rotatable about a rotation axis, characterised by a bevel spur gear mechanism which is formed from a bevel gear mechanism and a spur gear mechanism and via which a torque brought about about the rotation axis by the motor can be transmitted into a torque about the joint axis, with which the upper leg part is rotatable about the joint axis relative to the lower leg part.
A method for determining a motion via a motion detecting function in a first mobile station, the method comprising: determining a first parameter required for motion detection from sensor data obtained via a sensor; receiving a second parameter for motion detection determined by a second mobile station from the second mobile station; comparing the determined first parameter with the second parameter received from the second mobile station to determine a user's input; and wherein the determined first motion parameter and received second motion parameter comprise a motion intensity; determining whether the motion intensity of the first mobile station is greater than that of the second mobile station; when the motion intensity of the first mobile station is greater than that of the second mobile station, determining the motion input by the user as a first motion; and when the motion intensity of the first mobile station is not greater than that of the second mobile station, determining the motion input by the user as a second motion. determining a first parameter required for motion detection from sensor data obtained via a sensor; receiving a second parameter for motion detection determined by a second mobile station from the second mobile station; comparing the determined first parameter with the second parameter received from the second mobile station to determine a user's input; and wherein the determined first motion parameter and received second motion parameter comprise a motion intensity; determining whether the motion intensity of the first mobile station is greater than that of the second mobile station; when the motion intensity of the first mobile station is greater than that of the second mobile station, determining the motion input by the user as a first motion; and when the motion intensity of the first mobile station is not greater than that of the second mobile station, determining the motion input by the user as a second motion.
A tube assembly, comprising: glass fiber; a heat-recovered heat recoverable tube surrounding at least a portion of the glass fiber; and an adhesive which adhesively couples the heat-recovered heat recoverable tube to the glass fiber; characterised by: the adhesive having an adhesive composition comprising a maleic anhydride modified linear low density polyethylene resin and a maleic anhydride grafted polypropylene copolymer. glass fiber; a heat-recovered heat recoverable tube surrounding at least a portion of the glass fiber; and an adhesive which adhesively couples the heat-recovered heat recoverable tube to the glass fiber; characterised by: the adhesive having an adhesive composition comprising a maleic anhydride modified linear low density polyethylene resin and a maleic anhydride grafted polypropylene copolymer. the adhesive having an adhesive composition comprising a maleic anhydride modified linear low density polyethylene resin and a maleic anhydride grafted polypropylene copolymer.
Method for providing network-based computational power to a moving vehicle, wherein the computational power is provided by a backend structure of the network, wherein - the backend structure is provided as a fog computing structure comprising a plurality of computing devices that are geographically distributed and that are interconnected over the network and - a computing task is processed by the backend structure on behalf of the vehicle wherein - while the processing is performed by at least one of the computing devices that fulfills a predefined proximity criterion with regard to the vehicle and - while the vehicle is moving, at least one follow-up computing device is selected that then fulfills the proximity criterion due to the movement of the vehicle and - the computing task is transferred to the at least one follow-up computing device for further processing, characterized in that the proximity criterion comprises that a transfer time of data between the respective computing device and the vehicle is smaller than a predefined threshold. - the backend structure is provided as a fog computing structure comprising a plurality of computing devices that are geographically distributed and that are interconnected over the network and - a computing task is processed by the backend structure on behalf of the vehicle wherein - while the processing is performed by at least one of the computing devices that fulfills a predefined proximity criterion with regard to the vehicle and - while the vehicle is moving, at least one follow-up computing device is selected that then fulfills the proximity criterion due to the movement of the vehicle and - the computing task is transferred to the at least one follow-up computing device for further processing,
A work vehicle configured to perform work while traveling autonomously, comprising: a drive wheel unit that is provided in a vehicle body and is configured to be driven by a travel drive mechanism; a work unit that is provided in the vehicle body and is configured to perform work on a work target; a battery provided in the vehicle body; a motor that is configured to receive electric power from the battery and to drive the work unit; an inclination sensor configured to detect an inclination of the vehicle body relative to a horizontal plane; a first captured image acquisition unit configured to acquire a captured image that shows surroundings of the vehicle body when the work is being performed; a first determination unit configured to determine whether or not the work can be continued while traveling autonomously, based on at least one of a detection result from the inclination sensor and the captured image; and a stop unit configured to stop driving of the drive wheel unit in a case where the first determination unit determined that the work cannot be continued; characterized in that: the first determination unit is configured to calculate a gradient of a predicted travel region located ahead in a traveling direction based on the captured image acquired by the first captured image acquisition unit, and to determine that the work cannot be continued in a case where the gradient is greater than or equal to a preset value. a drive wheel unit that is provided in a vehicle body and is configured to be driven by a travel drive mechanism; a work unit that is provided in the vehicle body and is configured to perform work on a work target; a battery provided in the vehicle body; a motor that is configured to receive electric power from the battery and to drive the work unit; an inclination sensor configured to detect an inclination of the vehicle body relative to a horizontal plane; a first captured image acquisition unit configured to acquire a captured image that shows surroundings of the vehicle body when the work is being performed; a first determination unit configured to determine whether or not the work can be continued while traveling autonomously, based on at least one of a detection result from the inclination sensor and the captured image; and a stop unit configured to stop driving of the drive wheel unit in a case where the first determination unit determined that the work cannot be continued; characterized in that: the first determination unit is configured to calculate a gradient of a predicted travel region located ahead in a traveling direction based on the captured image acquired by the first captured image acquisition unit, and to determine that the work cannot be continued in a case where the gradient is greater than or equal to a preset value.
A mobile communications device for use with an LTE communications network and a CDMA network (4, 5), the mobile communications device comprising: means for receiving, from an LTE communications apparatus of the LTE communications network, first and second sets of parameters (MP A, MP_B) for mobility purposes between LTE and CDMA, each set of parameters (MP_A, MP_B) being associated with a respective CDMA network (4, 5) and network operator; means for selecting one of the first and second sets of parameters (MP_A, MP_B) using information relating to subscription information associated with the mobile communications device; and means for using the selected set of parameters (MP_A, MP_B) for mobility between the LTE network and the CDMA network (4, 5) to which the selected set of parameters (MP_A, MP_B) corresponds. means for receiving, from an LTE communications apparatus of the LTE communications network, first and second sets of parameters (MP A, MP_B) for mobility purposes between LTE and CDMA, each set of parameters (MP_A, MP_B) being associated with a respective CDMA network (4, 5) and network operator; means for selecting one of the first and second sets of parameters (MP_A, MP_B) using information relating to subscription information associated with the mobile communications device; and means for using the selected set of parameters (MP_A, MP_B) for mobility between the LTE network and the CDMA network (4, 5) to which the selected set of parameters (MP_A, MP_B) corresponds.
A key sharing device connected to a plurality of external devices through one or more paths, the plurality of external devices including a first device and a second device, the first device being directly connected to the key sharing device through a first path, the key sharing device comprising: a key storage unit configured to store cryptographic keys to be shared with the external devices; a determining unit configured to determine a second path for reaching the first device via the second device when a number of the cryptographic keys to be shared with the first device out of the cryptographic keys stored in the key storage unit is reduced to a predetermined threshold or smaller; a first generating unit configured to generate an initial key that is a new cryptographic key to be shared with the first device, the initial key being used for initiating a cryptographic key sharing function; an encrypting unit configured to encrypt the initial key by using the cryptographic key shared with the second device; and a first transmitting unit configured to transmit the encrypted initial key to the second device by addressing to the first device as a destination through the second a key storage unit configured to store cryptographic keys to be shared with the external devices; a determining unit configured to determine a second path for reaching the first device via the second device when a number of the cryptographic keys to be shared with the first device out of the cryptographic keys stored in the key storage unit is reduced to a predetermined threshold or smaller; a first generating unit configured to generate an initial key that is a new cryptographic key to be shared with the first device, the initial key being used for initiating a cryptographic key sharing function; an encrypting unit configured to encrypt the initial key by using the cryptographic key shared with the second device; and a first transmitting unit configured to transmit the encrypted initial key to the second device by addressing to the first device as a destination through the second
A ball screw nut comprising: a cylindrical nut part having, on an inner peripheral surface, a ball rolling groove in a helical shape; and a cylindrical pulley part integrally molded with the cylindrical nut part on an outer peripheral side of the cylindrical nut part and having external teeth, wherein the cylindrical pulley part includes a cylindrical portion extending in an axial direction and facing the cylindrical nut part in a radial direction, and an extended portion extending radially inward from the cylindrical portion, characterized in that: said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion. a cylindrical nut part having, on an inner peripheral surface, a ball rolling groove in a helical shape; and a cylindrical pulley part integrally molded with the cylindrical nut part on an outer peripheral side of the cylindrical nut part and having external teeth, wherein the cylindrical pulley part includes a cylindrical portion extending in an axial direction and facing the cylindrical nut part in a radial direction, and an extended portion extending radially inward from the cylindrical portion, characterized in that: said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion. said extended portion is facing the cylindrical nut part in the axial direction, and a restriction part for restricting relative rotation of the cylindrical nut part and the cylindrical pulley part is provided between a facing surface of the extended portion facing the cylindrical nut part and a facing surface of the cylindrical nut part facing the extended portion.
A method of registering a real-time position indicator of a location sensor on a probe within a branched structure to a three-dimensional model represented by voxels formed from previously-acquired images of said branched structure, comprising: recording data pertaining to locations of said sensor in said branched structure, and utilizing a processor to establish a cavity voxel cloud representing a shape of an anatomical cavity of said branched structure based on said data, compare a shape represented by said cavity voxel cloud and resulting from said data to an interior geometry of passages of said three-dimensional model of said branched structure, and determine a location correlation between said cavity voxel cloud representing said shape and said three-dimensional model based on said comparison; or identifying non-tissue space in said three dimensional model, recording position data of a location sensor in a locatable probe in a lumen of said branched structure, and utilizing a processor to establish a cavity voxel cloud representing a shape of an anatomical cavity of said branched structure based on said data, compare a shape represented by said cavity voxel cloud and resulting from said data to an interior geometry of passages of said three dimensional model of said branched structure, and align an image representing a location of said probe with an image of said three-dimensional model based on said position data and an assumption that said probe remains located in non-tissue space in said branched structure. recording data pertaining to locations of said sensor in said branched structure, and utilizing a processor to establish a cavity voxel cloud representing a shape of an anatomical cavity of said branched structure based on said data, compare a shape represented by said cavity voxel cloud and resulting from said data to an interior geometry of passages of said three-dimensional model of said branched structure, and determine a location correlation between said cavity voxel cloud representing said shape and said three-dimensional model based on said comparison; or identifying non-tissue space in said three dimensional model, recording position data of a location sensor in a locatable probe in a lumen of said branched structure, and utilizing a processor to establish a cavity voxel cloud representing a shape of an anatomical cavity of said branched structure based on said data, compare a shape represented by said cavity voxel cloud and resulting from said data to an interior geometry of passages of said three dimensional model of said branched structure, and align an image representing a location of said probe with an image of said three-dimensional model based on said position data and an assumption that said probe remains located in non-tissue space in said branched structure.