mhurhangee/ep-ind-claims huggingface dataset:
A sonar based sensor adapted for localization of a target in air, the sensor comprising: - a wide or ultra-wide band emitter for emitting a wide or ultra-wide band signal, and - an array of spatially randomly or irregularly positioned receivers for receiving the wide or ultra-wide band signal after reflection at the target, characterized in that - the wide or ultra-wide band emitter is adapted for emitting a wide or ultra-wide band signal having a bandwidth spanning at least one octave, and - a processor for processing the received signals thereby applying spatial bandpass filtering by beamforming processing and extracting an envelope for the signal, for deriving a location of a target. - a wide or ultra-wide band emitter for emitting a wide or ultra-wide band signal, and - an array of spatially randomly or irregularly positioned receivers for receiving the wide or ultra-wide band signal after reflection at the target, characterized in that - the wide or ultra-wide band emitter is adapted for emitting a wide or ultra-wide band signal having a bandwidth spanning at least one octave, and - a processor for processing the received signals thereby applying spatial bandpass filtering by beamforming processing and extracting an envelope for the signal, for deriving a location of a target.
A sandwich acoustic liner assembly, comprising: a honeycomb core; and a thermoplastic fabric sheet positioned in overlying relationship and structurally bonded with the honeycomb core with a bond assembly positioned between the thermoplastic fabric sheet and the honeycomb core, wherein the bond assembly comprises an adhesive sheet material, originated from an adhesive sheet, positioned overlying an edge surface of a cell wall of the honeycomb core and extending from the edge surface of the cell wall onto the first side surface of the cell wall adjacent the edge surface of the cell wall and from the edge surface of the cell wall onto the second opposing side surface of the cell wall adjacent the edge surface of the cell wall, the bond assembly further includes a thermoplastic material, from a slurry of a mixture of a powder of thermoplastic material and a solvent, positioned in overlying relationship to the adhesive sheet material positioned on the edge surface of the cell wall of the honeycomb core and on the first side surface and the second opposing side surface of the cell wall. a honeycomb core; and a thermoplastic fabric sheet positioned in overlying relationship and structurally bonded with the honeycomb core with a bond assembly positioned between the thermoplastic fabric sheet and the honeycomb core, wherein the bond assembly comprises an adhesive sheet material, originated from an adhesive sheet, positioned overlying an edge surface of a cell wall of the honeycomb core and extending from the edge surface of the cell wall onto the first side surface of the cell wall adjacent the edge surface of the cell wall and from the edge surface of the cell wall onto the second opposing side surface of the cell wall adjacent the edge surface of the cell wall, the bond assembly further includes a thermoplastic material, from a slurry of a mixture of a powder of thermoplastic material and a solvent, positioned in overlying relationship to the adhesive sheet material positioned on the edge surface of the cell wall of the honeycomb core and on the first side surface and the second opposing side surface of the cell wall.
A method implemented in a micro-service management system for delivering of services to a roaming UE, the services being offered by a set of micro-services (240, 245) hosted on a source radio base station, and being initially delivered to the roaming UE via a radio interface of the source radio base station, wherein the roaming UE is to roam from a radio coverage area of the source radio base station into a radio coverage area of a target radio base station, the method comprising: identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station, wherein transferring the subset of services to the target base station comprises replicating at least one micro-service hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a replicated micro-service of the at least one replicated micro-service from the source radio base station to the target radio base station; and causing the at least one replicated micro-service (250, 255) to be deployed on the target radio base station, the at least one replicated micro-service (250, 255) on the target radio base station being adapted to offer the subset of the services to the roaming UE. identifying a trigger condition for handing-over delivery of at least a subset of the services from the radio interface of the source radio base station to a radio interface of the target radio base station; transferring the subset of the services to the target radio base station through a route based on information from a software-defined networking, SDN, controller of a SDN system that includes the source radio base station and the target radio base station, wherein transferring the subset of services to the target base station comprises replicating at least one micro-service hosted on the source radio base station and causing the SDN controller to set up the route from the source radio base station to the target radio base station based on a bandwidth required to transfer a replicated micro-service of the at least one replicated micro-service from the source radio base station to the target radio base station; and causing the at least one replicated micro-service (250, 255) to be deployed on the target radio base station, the at least one replicated micro-service (250, 255) on the target radio base station being adapted to offer the subset of the services to the roaming UE.
A light conductor device, which is arranged for use in a motor vehicle illumination system and has a coupling module that has a light source module and an optical module that is separate from the light source module, and which has a light conductor module structurally separated from the coupling module, the coupling module having a first end face and a second face that is separated from the first end face by a jacket face, and the first end face is arranged for receiving light, originating at the coupling module, into the light conductor module, and the second end face is arranged for causing light, received via the first end face, to exit from the light conductor module, characterized in that the light conductor module has an optical module, which is located on a jacket face of the light conductor device, which jacket face is different from the second end face, and which optical module is located not in the first end face but in the jacket face and is arranged for varying the distribution of the light which is out-coupled from the second end face and the influence of which on the amount of light out-coupled from the second end face is negligible; and that the optical module, for varying the distribution of the light, has scattering lenses, which, upon a reflection at the scattering lenses, reflect the light in directions predetermined by the shape and location of the scattering lenses.
A method for use with a speed control system of a vehicle, comprising: receiving readings from one or more vehicle sensors to determine the nature of the terrain over which the vehicle is traveling; gathering information relating to one or more parameters of the vehicle that correspond to the configuration of the vehicle; determining, based on the nature of the terrain and the gathered information, whether the vehicle is appropriately configured to travel over the terrain; and when it is determined that the vehicle is not appropriately configured to travel over the terrain, automatically reducing the speed of the vehicle to a predetermined speed to allow the vehicle to be appropriately configured, wherein the one or more parameters of the vehicle correspond to at least one of: a transfer case gear ratio; a pressure of one or more tyres of the vehicle; a ride height of the vehicle; and a wading mode of the vehicle. receiving readings from one or more vehicle sensors to determine the nature of the terrain over which the vehicle is traveling; gathering information relating to one or more parameters of the vehicle that correspond to the configuration of the vehicle; determining, based on the nature of the terrain and the gathered information, whether the vehicle is appropriately configured to travel over the terrain; and when it is determined that the vehicle is not appropriately configured to travel over the terrain, automatically reducing the speed of the vehicle to a predetermined speed to allow the vehicle to be appropriately configured, wherein the one or more parameters of the vehicle correspond to at least one of: a transfer case gear ratio; a pressure of one or more tyres of the vehicle; a ride height of the vehicle; and a wading mode of the vehicle. a transfer case gear ratio; a pressure of one or more tyres of the vehicle; a ride height of the vehicle; and a wading mode of the vehicle.
A structure adapted to traverse a fluid environment, the structure comprising: an elongate body having a root, a wingtip, a leading edge and a trailing edge; and a rigid winglet associated with the wingtip and having a winglet body extending substantially normal to one of a suction side and a pressure side of the elongate body to a termination point that is rearward of the trailing edge; wherein the winglet body is arced and conforms to an arc of circumference of a circle traversed by the rigid winglet during movement of the elongate body about a rotational axis of a nacelle; and wherein the winglet body is integral with the wingtip and extends from the wingtip by twisting such that the winglet curves upwards while sweeping backwards with respect to a direction of rotation of the elongate body so as to extend substantially normal to the suction side or curves downwards while sweeping backwards with respect to a direction of rotation of the elongate body so as to extend substantially normal to the pressure side; characterized in that the twist of the winglet is 180 degrees. wherein the winglet body is arced and conforms to an arc of circumference of a circle traversed by the rigid winglet during movement of the elongate body about a rotational axis of a nacelle; and wherein the winglet body is integral with the wingtip and extends from the wingtip by twisting such that the winglet curves upwards while sweeping backwards with respect to a direction of rotation of the elongate body so as to extend substantially normal to the suction side or curves downwards while sweeping backwards with respect to a direction of rotation of the elongate body so as to extend substantially normal to the pressure side; characterized in that the twist of the winglet is 180 degrees.
A method of manufacturing a complementary metal oxide semiconductor (CMOS) device comprising a silicon substrate, a buffer layer on the silicon substrate, a first layer for an n-type transistor on the buffer layer, a second layer for a p-type transistor disposed on the buffer layer or the silicon substrate while being spaced apart from the first layer; and an insulating layer between the first layer and the second layer, the method comprising: forming the buffer layer on the silicon substrate; forming a material layer for an n-type transistor on the buffer layer; etching the material layer for the n-type transistor to form the first layer for the n-type transistor and a first pattern, wherein the first layer is formed of a Group III-V material; the method characterized by: forming the insulating layer on the first layer and the first pattern; etching the insulating layer to form a second pattern for selective growth; and selectively growing the second layer for a p-type transistor in the second pattern wherein the second layer is formed of a Group IV material. forming the buffer layer on the silicon substrate; forming a material layer for an n-type transistor on the buffer layer; etching the material layer for the n-type transistor to form the first layer for the n-type transistor and a first pattern, wherein the first layer is formed of a Group III-V material; the method characterized by: forming the insulating layer on the first layer and the first pattern; etching the insulating layer to form a second pattern for selective growth; and selectively growing the second layer for a p-type transistor in the second pattern wherein the second layer is formed of a Group IV material.
A hybrid parallel power supply, comprising: a first power supply connected to a power rail and configured to supply current to a load device via the power rail, the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor; and a second power supply configured to supply power at a third target voltage level to the operational amplifier. a first power supply connected to a power rail and configured to supply current to a load device via the power rail, the first power supply being further configured to regulate the power rail to a first target voltage level; a coupling capacitor having a first terminal coupled to the power rail; and a voltage regulator comprising an operational amplifier having a first input coupled to the power rail by a high-pass filter, a second input arranged to receive a reference voltage at a second target voltage level, and an output coupled to a second terminal of the coupling capacitor; and a second power supply configured to supply power at a third target voltage level to the operational amplifier.
A positioning device (100, 200) comprising: a global navigation satellite system, GNSS, receiving unit adapted to receive satellite information via a GNSS antenna arranged within a housing of the GNSS receiving unit; a communication antenna for reception and/or transmission of complementary data, the communication antenna being arranged external to the housing of the GNSS receiving unit; and a communication module connectable to the GNSS receiving unit and the communication antenna, the communication module being configured to provide the complementary data received at the communication antenna to the GNSS receiving unit and/or to provide to the communication antenna complementary data generated at the GNSS receiving unit; characterized in that said communication module is arranged within the housing of the GNSS receiving unit, detachable for adapting to an available communication technology and structurally arranged between the GNSS antenna and the communication antenna. a global navigation satellite system, GNSS, receiving unit adapted to receive satellite information via a GNSS antenna arranged within a housing of the GNSS receiving unit; a communication antenna for reception and/or transmission of complementary data, the communication antenna being arranged external to the housing of the GNSS receiving unit; and a communication module connectable to the GNSS receiving unit and the communication antenna, the communication module being configured to provide the complementary data received at the communication antenna to the GNSS receiving unit and/or to provide to the communication antenna complementary data generated at the GNSS receiving unit; characterized in that said communication module is arranged within the housing of the GNSS receiving unit, detachable for adapting to an available communication technology and structurally arranged between the GNSS antenna and the communication antenna.
A capsid protein having an amino acid sequence selected from the group of sequences consisting of (i) sequences having at least 95% sequence identity to SEQ ID NO:1, wherein an adeno-associated virus vector particle which expresses said capsid protein is more infectious to Huh-7 cells and more resistant to neutralization by human immune globulins than an AAV particle which expresses a capsid protein having an amino acid sequence identical to SEQ ID NO:3 and (ii) SEQ ID NO:1.
A vapour provision system comprising: a first activation sensor; a second activation sensor; user programming circuitry configured, in response to user input, to store a first user-defined power setting for use in association with the first activation sensor and a second user-defined power setting for use in association with the second activation sensor; and power supply control circuitry configured to control a supply of power to a vaporiser to generate vapour from a vapour precursor material for user inhalation, wherein the power supply control circuitry is configured to control the supply of power to the vaporiser in accordance with the first user-defined power setting in response to detecting user activation of the first activation sensor and to control the supply of power to the vaporiser in accordance with the second user-defined power setting in response to detecting user activation of the second activation sensor. a first activation sensor; a second activation sensor; user programming circuitry configured, in response to user input, to store a first user-defined power setting for use in association with the first activation sensor and a second user-defined power setting for use in association with the second activation sensor; and power supply control circuitry configured to control a supply of power to a vaporiser to generate vapour from a vapour precursor material for user inhalation, wherein the power supply control circuitry is configured to control the supply of power to the vaporiser in accordance with the first user-defined power setting in response to detecting user activation of the first activation sensor and to control the supply of power to the vaporiser in accordance with the second user-defined power setting in response to detecting user activation of the second activation sensor.
Hub for a cycle wheel, the hub comprising a hub body designed to rotate about an axis XX and formed so as to receive at least two layers (100, 200) of spokes arranged on either side of a median plane Y0Z of the hub perpendicular to the axis XX and intended to provide a mechanical link between the hub and a rim of the wheel, the hub body comprising at least one flange comprising a first and a second set of recesses (11a, 11b), in which each recess (11a, 11b): - is formed so as to accommodate at least one head (111a, 111b) of a spoke (110a, 110b) of one of said layers and to hold said spoke (110a, 110b) in a direction tangential to said axis XX; - defines a seat (14a, 14b) formed so as to retain the head (111a, 111b) of said spoke (110a, 110b) in a direction tangential to said axis XX; - comprises an opening (15a, 15b) which communicates with the seat and is open in an axial direction parallel to said axis XX; - the openings of the first set of recesses being turned towards the median plane Y0Z and the openings of the second set of recesses being turned away from the median plane Y0Z, characterized in that - the seats of the recesses of the first set of recesses are axially further from the median plane Y0Z than the seats of the recesses of the second set of recesses. - is formed so as to accommodate at least one head (111a, 111b) of a spoke (110a, 110b) of one of said layers and to hold said spoke (110a, 110b) in a direction tangential to said axis XX; - defines a seat (14a, 14b) formed so as to retain the head (111a, 111b) of said spoke (110a, 110b) in a direction tangential to said axis XX; - comprises an opening (15a, 15b) which communicates with the seat and is open in an axial direction parallel to said axis XX; - the openings of the first set of recesses being turned towards the median plane Y0Z and the openings of the second set of recesses being turned away from the median plane Y0Z, - the seats of the recesses of the first set of recesses are axially further from the median plane Y0Z than the seats of the recesses of the second set of recesses.
Machine tool, in particular a semi-stationary or mobile machine tool and/or sawing machine, for machining workpieces using a working tool, in particular a separating tool or a sawing tool, wherein the machine tool comprises a machine base for setting down on a ground surface and a drive assembly arranged thereon with a drive motor and a tool receptacle drivable by the drive motor for the working tool, in particular for a separating tool, wherein the machine base comprises a support surface (14, 17) for supporting the workpiece and comprises at least one side contact body (40, 41) with a side contact surface, which is at an angle to the support surface (14, 17), in particular perpendicular, and extends along a longitudinal axis, wherein the machine tool comprises at least one abutment body (70, 170) with an abutment surface, which can be fixed opposite the support surface (14, 17) by means of a holding device on the machine tool, so that the workpiece for machining by the working tool, in particular for the production of a crown-moulding cut, is supported adjacent to the side contact surface between the support surface (14, 17) and the abutment surface, and the side contact surface of the at least one side contact body (40, 41) comprises a support section and a tool section, wherein the side contact surface protrudes further in front of the support surface (14, 17) in the region of the support section than in the region of the tool section, which is provided for making a larger clearance available for the working tool, characterised in that the abutment body (70, 170) can be releasably fixed on the machine base using the holding device, in at least two different longitudinal positions (L1, L2) with respect to the longitudinal axis.