mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for three-dimensional inspection (101, 201, 501, 601, 701, 801) of an object by X-rays, comprising an X-ray generator (104, 204, 504, 604, 704, 804) and a rectangular or square digital imaging device (103, 203, 503, 603, 703, 803) facing said X-ray generator (104, 204, 504, 604, 704,804). in which the X-ray generator (104, 204, 504, 604, 704, 804) and the imaging device (103, 203, 503, 603, 703,803) are configured to be spaced from each other by a distance corresponding to a magnification by 1, the X-ray generator being positioned on an axis orthogonal to a plane of extension of the imaging device (103, 203, 503, 603, 703,803), passing through the center of the imaging device (103, 203, 503, 603, 703,803), and in which the X-ray generator (104, 204, 504, 604, 704, 804) is movable in a plane parallel to said plane of extension of the imaging device (103, 203, 503, 603, 703,803), and the imaging device (103, 203, 503, 603, 703, 803) is movable within its plane of extension, the apparatus further comprising a means for controlling the position and the movement of said X-ray generator (104, 204, 504, 604, 704, 804) and of said imaging device (103, 203, 503, 603, 703, 803) configured so as to move the X-ray generator (104, 204, 504, 604, 704, 804) by unitary movements in a first direction or a second direction respectively parallel to the sides of the imaging device (103, 203, 503, 603, 703,803), and, at each unitary movement, to hold the relative position of the imaging device (103, 203, 503, 603, 703, 803) in relation to said X-ray generator (104, 204, 504, 604, 704, 804), said control means being configured such that each unitary movement of the X-ray generator (104, 204, 504, 604, 704, 804) and of the imaging device (103, 203, 503, 603, 703, 803), in the first or in the second direction, corresponds to an integer number fraction of the corresponding side of the imaging device (103, 203, 503, 603, 703, 803), that is to say 1/N times the dimension of the side corresponding to the first direction and 1/N times the dimension of the side corresponding to the second direction, N being a natural number greater than 1, so as to obtain, by taking successive shots after each unitary movement, a matrix set of sub-images overlapping in the plane of extension of the imaging device, the apparatus being characterized in that, each sub-image has a center attributed with coordinates in a plane of magnification equal to N, said coordinates being determined according to the position of the center of the imaging device (103, 203, 503, 603, 703, 803) on taking said sub-image, and in that the apparatus further comprises image processing means configured to perform a homothetic magnification of each sub-image, leaving unchanged the coordinates of the center of each sub-image, said image processing means being furthermore configured to determine a stretch factor enabling the coincidence of the sub-images representing all or some of a predefined element of interest (102, 202) of the image.
A hybrid ultrasonic flowmeter, comprising a meter body including a meter pipe wall; at least a first sensing plane including at least four ultrasonic transducers (101, 102, 103, 104) positioned in a parallelogram arrangement on said meter pipe wall including a first transducer pair (101, 103) and a second transducer pair (102, 104); a first ultrasonic reflector positioned between said first transducer pair on a first portion (105 1) of said meter pipe wall and a second ultrasonic reflector between said second transducer pair on a second portion (105 2) of said meter pipe wall opposite said first wall portion (105 1); said four transducers having assembly angles and emission patterns for emitting an ultrasonic beam to provide a plurality of direct measurement paths including at least a first and second direct measurement path (136, 137) and a plurality of reflective-paths including at least a first reflective-path involving said first transducer pair and said first ultrasonic reflector and a second reflective-path involving said second transducer pair and said second ultrasonic reflector, and a flow electronics module including a transceiver coupled to a processor having an associated memory storing a flow measurement algorithm coupled to said four transducers for causing said four transducers to transmit ultrasonic signals, for receiving sensing signals generated by said four transducers, and for determining a volume flow of a fluid flowing through said hybrid ultrasonic flowmeter. a meter body including a meter pipe wall; at least a first sensing plane including at least four ultrasonic transducers (101, 102, 103, 104) positioned in a parallelogram arrangement on said meter pipe wall including a first transducer pair (101, 103) and a second transducer pair (102, 104); a first ultrasonic reflector positioned between said first transducer pair on a first portion (105 1) of said meter pipe wall and a second ultrasonic reflector between said second transducer pair on a second portion (105 2) of said meter pipe wall opposite said first wall portion (105 1); said four transducers having assembly angles and emission patterns for emitting an ultrasonic beam to provide a plurality of direct measurement paths including at least a first and second direct measurement path (136, 137) and a plurality of reflective-paths including at least a first reflective-path involving said first transducer pair and said first ultrasonic reflector and a second reflective-path involving said second transducer pair and said second ultrasonic reflector, and a flow electronics module including a transceiver coupled to a processor having an associated memory storing a flow measurement algorithm coupled to said four transducers for causing said four transducers to transmit ultrasonic signals, for receiving sensing signals generated by said four transducers, and for determining a volume flow of a fluid flowing through said hybrid ultrasonic flowmeter.
Light module of a motor vehicle, comprising a first light source associated with at least one first predetermined light function and a second light source associated with at least one second predetermined light function, wherein the first light source is mounted on a first printed circuit board and the second light source is mounted on a second printed circuit board which is distinct from the first printed circuit board, the light module comprising a connector arranged to receive an electric power supply intended to supply electric power to the first and/or second light sources in order to perform the first and/or second predetermined light functions, the connector being mounted on the first printed circuit board and the first printed circuit board being electrically connected to the second printed circuit board by a conductive element soldered to both the first and second printed circuit boards, characterized in that the first and second printed circuit boards are arranged so that a first edge of the first printed circuit board extends substantially against a second edge of the second printed circuit board.
Central actuator for a hydraulic or pneumatic clutch activation, with a cylinder housing which comprises at least one annular pressure chamber which is delimited radially by an inner cylinder wall and an outer cylinder wall and in which an annular piston which is embodied at least partially from plastic and can be operatively connected to the clutch is received in an axially displaceable manner, to which annular piston a seal ring is fastened at the face side, which seal ring bears tight against the inner cylinder wall and against the outer cylinder wall in order to seal off the pressure chamber, wherein the seal ring has a seal base which is retained in a positive-locking manner in a recess, formed complementary thereto, of the annular piston, and an axial seal region which axially adjoins the seal base with two sealing lips (56, 58) proceeding therefrom, of which an outer sealing lip bears against the outer cylinder wall and an inner sealing lip bears against the inner cylinder wall, a supporting ring is only arranged between the outside of the axial seal region and the outer cylinder wall, wherein the recess which receives the seal base of the seal ring lies radially between an outer portion, which surrounds the seal base on the outside, of the annular piston which extends axially up to the supporting ring, and an inner portion, which surrounds the seal base on the inside, of the annular piston, characterized in that the inner portion of the annular piston is formed to be longer in the axial direction than the outer portion of the annular piston and/or the inner sealing lip is formed to be wider on its side facing away from the pressure chamber in the axial direction than the outer sealing lip, and in that the inner portion of the annular piston extends up to the inner sealing lip and bears directly thereagainst via a contact surface.
A negative electrode for a lithium-metal secondary battery, the negative electrode comprising: a collector, and a lithium layer formed on at least one surface of the collector; wherein the collector comprises: a nickel foam having a thickness of 50 μm to 150 μm and a pore volume of 40 cm 3 /g to 50 cm 3 /g, and a tin plated layer formed on the surface of the nickel foam; and wherein the lithium layer has a structure having a plurality of pores. a collector, and a lithium layer formed on at least one surface of the collector; wherein the collector comprises: a nickel foam having a thickness of 50 μm to 150 μm and a pore volume of 40 cm 3 /g to 50 cm 3 /g, and a tin plated layer formed on the surface of the nickel foam; and a nickel foam having a thickness of 50 μm to 150 μm and a pore volume of 40 cm 3 /g to 50 cm 3 /g, and a tin plated layer formed on the surface of the nickel foam; and wherein the lithium layer has a structure having a plurality of pores.
A terminal comprising: a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol of the uplink shared channel to be changed to any symbol in a slot allocated to the uplink shared channel, and determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the receiving section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol. a receiving section configured to receive information regarding an allocation type of an uplink shared channel; and a control section configured to control a start symbol and a number of consecutive symbols of the uplink shared channel, wherein, when the receiving section receives a first allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines an index of the start symbol of the uplink shared channel as 0, and determines the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives a second allocation type as the information regarding the allocation type of the uplink shared channel, the control section determines the start symbol of the uplink shared channel to be changed to any symbol in a slot allocated to the uplink shared channel, and determines the start symbol and the number of consecutive symbols of the uplink shared channel based on higher layer signaling and downlink control information, when the receiving section receives the first allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls not to support transmission of the uplink shared channel using one symbol, and when the receiving section receives the second allocation type as the information regarding the allocation type of the uplink shared channel, the control section controls to support transmission of the uplink shared channel using one symbol.
A printing system, comprising: a printhead receiver to receive a printhead, the printhead to eject printing fluid drops from an array of printhead nozzles to a first printing fluid receiving zone; characterised by an electrostatic imaging member to store a latent image comprising charged and non-charged portions representing an image to be printed; wherein part of the electrostatic imaging member is arranged in close proximity to the array of nozzles such that ejected printing fluid drops are electrostatically deflected by charged portions of the electrostatic imaging member to a second printing fluid receiving zone. a printhead receiver to receive a printhead, the printhead to eject printing fluid drops from an array of printhead nozzles to a first printing fluid receiving zone; characterised by an electrostatic imaging member to store a latent image comprising charged and non-charged portions representing an image to be printed; wherein part of the electrostatic imaging member is arranged in close proximity to the array of nozzles such that ejected printing fluid drops are electrostatically deflected by charged portions of the electrostatic imaging member to a second printing fluid receiving zone.
Hybrid power supply system comprising: a fuel cell for reacting a hydrogen gas supplied from a hydrogen supply device with an oxygen gas supplied from an oxygen supply device to generate electric power; an operating device operating by using the electric power generated by the fuel cell; a temperature measuring device for measuring a temperature of the hybrid power supply system; a secondary battery; and a control device, wherein the control device is configured to control the electric power generated by the fuel cell in such a manner that the electric power becomes larger than electric power consumed by the operating device, in a warm-up mode, in which a temperature of the hybrid power supply system is not higher than a predetermined threshold temperature, and wherein the electric power which corresponds to the electric power consumed by the operating device is supplied to the operating device, and a surplus of the electric power thus generated by the fuel cell is charged into the secondary battery. a fuel cell for reacting a hydrogen gas supplied from a hydrogen supply device with an oxygen gas supplied from an oxygen supply device to generate electric power; an operating device operating by using the electric power generated by the fuel cell; a temperature measuring device for measuring a temperature of the hybrid power supply system; a secondary battery; and a control device, wherein the control device is configured to control the electric power generated by the fuel cell in such a manner that the electric power becomes larger than electric power consumed by the operating device, in a warm-up mode, in which a temperature of the hybrid power supply system is not higher than a predetermined threshold temperature, and wherein the electric power which corresponds to the electric power consumed by the operating device is supplied to the operating device, and a surplus of the electric power thus generated by the fuel cell is charged into the secondary battery.
A measuring apparatus to be equipped to a tire of a vehicle for measuring a distance between specific points and a travelling speed of the vehicle, wherein the measuring apparatus comprises: a rotating body that is provided with an optically sensed portion, and is arranged between a wheel for supporting a tire and a wheel hub for mounting the wheel on a body frame of a vehicle with rotation centers aligned with each other; and an optical detector that detects variation in position of the optically sensed portion accompanying rotation of the rotating body, wherein the rotating body comprises a disk portion attached between the wheel and a mounting surface of the wheel hub, characterized in that the rotating body is formed of the disk portion and a cylindrical portion that extends from the disk portion to the body frame and encompasses an outer circumferential surface of the wheel hub, the optically sensed portion is provided along a circumferential surface of the cylindrical portion, and the optical detector is mounted on the body frame via a mounting bracket and fixed on the body frame. a rotating body that is provided with an optically sensed portion, and is arranged between a wheel for supporting a tire and a wheel hub for mounting the wheel on a body frame of a vehicle with rotation centers aligned with each other; and an optical detector that detects variation in position of the optically sensed portion accompanying rotation of the rotating body, wherein the rotating body comprises a disk portion attached between the wheel and a mounting surface of the wheel hub, characterized in that the rotating body is formed of the disk portion and a cylindrical portion that extends from the disk portion to the body frame and encompasses an outer circumferential surface of the wheel hub, the optically sensed portion is provided along a circumferential surface of the cylindrical portion, and the optical detector is mounted on the body frame via a mounting bracket and fixed on the body frame.
A system for controlling compounding in one or more brake actuators of a vehicle, comprising: a first valve (114 or 120) configured to control a first fluid pressure in a parking brake chamber of a brake actuator that acts against a spring force applied by a spring of the brake actuator to a pushrod of the brake actuator; a second valve (102 or 104) configured to control a second fluid pressure in a service brake chamber of the brake actuator that applies a fluid force to the pushrod of the brake actuator; and, a controller configured to receive a first fluid pressure signal indicative of the first fluid pressure; characterized in that the controller is further configured to receive a second fluid pressure signal indicative of the second fluid pressure; determine a total brake actuator force applied to the pushrod of the brake actuator responsive to the first fluid pressure signal and second fluid pressure signal; and, control, responsive to the total brake actuator force, at least one of the first valve (114 or 120) and the second valve (102 or 104) to adjust a corresponding one of the first fluid pressure and the second fluid pressure and thereby obtain an adjusted total brake actuator force. a first valve (114 or 120) configured to control a first fluid pressure in a parking brake chamber of a brake actuator that acts against a spring force applied by a spring of the brake actuator to a pushrod of the brake actuator; a second valve (102 or 104) configured to control a second fluid pressure in a service brake chamber of the brake actuator that applies a fluid force to the pushrod of the brake actuator; and, a controller configured to receive a first fluid pressure signal indicative of the first fluid pressure; receive a second fluid pressure signal indicative of the second fluid pressure; determine a total brake actuator force applied to the pushrod of the brake actuator responsive to the first fluid pressure signal and second fluid pressure signal; and, control, responsive to the total brake actuator force, at least one of the first valve (114 or 120) and the second valve (102 or 104) to adjust a corresponding one of the first fluid pressure and the second fluid pressure and thereby obtain an adjusted total brake actuator force.
A method, comprising: detecting a device (130, 430) connected to a host (110, 401); instructing the device to reboot in an accessory mode of operation as a peripheral; authenticating the peripheral for interaction with the host; and establishing a secure communication session between the host and the peripheral with communications provided in a message passing formation as messages passed between the host and the peripheral with the host controlling the peripheral during the secure communication session. detecting a device (130, 430) connected to a host (110, 401); instructing the device to reboot in an accessory mode of operation as a peripheral; authenticating the peripheral for interaction with the host; and establishing a secure communication session between the host and the peripheral with communications provided in a message passing formation as messages passed between the host and the peripheral with the host controlling the peripheral during the secure communication session.
A wind turbine (1, 10) comprising: - a wind turbine tower having a top, - a nacelle coupled to the top of the wind turbine tower, - a rotor hub rotatably mounted to the nacelle, - at least one wind turbine blade (7, 11) coupled to the rotor hub, where the wind turbine blade (7, 11) has an aerodynamic profile comprising a first surface defining a pressure side and a second surface defining a suction side connected to each other via a leading edge and a trailing edge, where - two or more first elements are arranged along at least a part of the trailing edge of the wind turbine blade (7, 11) and at least a second element is arranged between two adjacent first elements, wherein the first and second elements (26, 27) form a continuous profile (24, 25) extending along the trailing edge where each element extends in a chordwise direction towards the leading edge, wherein each first element and each adjacent second element define a section of the continuous profile (24, 25) characterised in that, - at least the first elements are shaped as projections which extend outwards from one of the two surfaces (16, 17) and are configured to deform in a edgewise direction, wherein the first element and the second element define a length and a height of each section. - a wind turbine tower having a top, - a nacelle coupled to the top of the wind turbine tower, - a rotor hub rotatably mounted to the nacelle, - at least one wind turbine blade (7, 11) coupled to the rotor hub, where the wind turbine blade (7, 11) has an aerodynamic profile comprising a first surface defining a pressure side and a second surface defining a suction side connected to each other via a leading edge and a trailing edge, where - two or more first elements are arranged along at least a part of the trailing edge of the wind turbine blade (7, 11) and at least a second element is arranged between two adjacent first elements, wherein the first and second elements (26, 27) form a continuous profile (24, 25) extending along the trailing edge where each element extends in a chordwise direction towards the leading edge, wherein each first element and each adjacent second element define a section of the continuous profile (24, 25) - at least the first elements are shaped as projections which extend outwards from one of the two surfaces (16, 17) and are configured to deform in a edgewise direction, wherein the first element and the second element define a length and a height of each section.