mhurhangee/patent-ind-claim-en huggingface dataset:
An image acquisition and processing apparatus for capturing images to generate a stereoscopic panorama, the image acquisition and processing apparatus comprising: a camera array comprising a first right camera (C2), a second right camera (C4), a first left camera (C1), and a second left camera (C3), wherein a relative position between the first right camera and the second right camera is substantially the same as a relative position between the first left camera and the second left camera; and an image processing unit configured to stitch a first right image captured by the first right camera with a second right image captured by the second right camera to generate a right panorama , and to stitch a first left image captured by the first left camera with a second left image captured by the second left camera to generate a left panorama , wherein the image processing unit is configured to derive a right homography between the first right image and the second right image and a left homography between the first left image and the second left image, wherein the right homography is the same as the left homography, the right panorama and the left panorama are warped using cylindrical coordinates, and the stereoscopic panorama is generated using the right panorama and the left panorama. a camera array comprising a first right camera (C2), a second right camera (C4), a first left camera (C1), and a second left camera (C3), wherein a relative position between the first right camera and the second right camera is substantially the same as a relative position between the first left camera and the second left camera; and an image processing unit configured to stitch a first right image captured by the first right camera with a second right image captured by the second right camera to generate a right panorama , and to stitch a first left image captured by the first left camera with a second left image captured by the second left camera to generate a left panorama , wherein the image processing unit is configured to derive a right homography between the first right image and the second right image and a left homography between the first left image and the second left image, wherein the right homography is the same as the left homography, the right panorama and the left panorama are warped using cylindrical coordinates, and the stereoscopic panorama is generated using the right panorama and the left panorama.
A tool assembly (100, 400, 500, 600,...) for extracting a liner from a prosthesis , the tool comprising: an impactor configured to receive and transmit a force, the impactor comprising: a handle extending along a longitudinal axis (A) and configured to be impacted on a proximal portion of the handle; a shaft connected to a distal portion of the handle and extending distally therefrom along the longitudinal axis; and a coupler connected to a distal portion of the shaft, characterized in that the coupler includes a mating interface comprising a magnet ; and a faceplate configured to deliver the force from the impactor to the prosthesis, the faceplate comprising: a plurality of arms engageable with an outer shell of the prosthesis; and a boss releasably couplable to the mating interface, the magnet located in the coupler, configured to attract the boss to releasably secure the faceplate to the impactor. an impactor configured to receive and transmit a force, the impactor comprising: a handle extending along a longitudinal axis (A) and configured to be impacted on a proximal portion of the handle; a shaft connected to a distal portion of the handle and extending distally therefrom along the longitudinal axis; and a coupler connected to a distal portion of the shaft, characterized in that the coupler includes a mating interface comprising a magnet ; and a handle extending along a longitudinal axis (A) and configured to be impacted on a proximal portion of the handle; a shaft connected to a distal portion of the handle and extending distally therefrom along the longitudinal axis; and a coupler connected to a distal portion of the shaft, characterized in that the coupler includes a mating interface comprising a magnet ; and a faceplate configured to deliver the force from the impactor to the prosthesis, the faceplate comprising: a plurality of arms engageable with an outer shell of the prosthesis; and a boss releasably couplable to the mating interface, the magnet located in the coupler, configured to attract the boss to releasably secure the faceplate to the impactor. a plurality of arms engageable with an outer shell of the prosthesis; and a boss releasably couplable to the mating interface, the magnet located in the coupler, configured to attract the boss to releasably secure the faceplate to the impactor.
A radio frequency identification, RFID, transponder , comprising: an active load modulation unit adapted to perform an active load modulation on transmitted signals by actively transmitting signals to an external device; an energy harvesting unit coupled to the active load modulation unit and adapted to harvest RF energy from an ambient environment, to convert the RF energy into DC energy, and to store the DC energy in an energy storage unit comprised in the energy harvesting unit , wherein the energy storage unit is adapted to supply the DC energy to the active load modulation unit , wherein the energy storage unit is further adapted to supply the DC energy to one or more other components of the RFID transponder , characterized in that the energy storage unit is adapted to supply the DC energy to the active load modulation unit and to the one or more other components based on a preset energy supply rule defining when and how the active load modulation unit and the one or more other components are charged by the energy storage unit , wherein, according to the preset energy supply rule, a priority order is used for the energy storage unit to supply the DC energy to the active load modulation unit and to the one or more other components. an active load modulation unit adapted to perform an active load modulation on transmitted signals by actively transmitting signals to an external device; an energy harvesting unit coupled to the active load modulation unit and adapted to harvest RF energy from an ambient environment, to convert the RF energy into DC energy, and to store the DC energy in an energy storage unit comprised in the energy harvesting unit , wherein the energy storage unit is adapted to supply the DC energy to the active load modulation unit , wherein the energy storage unit is further adapted to supply the DC energy to one or more other components of the RFID transponder , characterized in that the energy storage unit is adapted to supply the DC energy to the active load modulation unit and to the one or more other components based on a preset energy supply rule defining when and how the active load modulation unit and the one or more other components are charged by the energy storage unit , wherein, according to the preset energy supply rule, a priority order is used for the energy storage unit to supply the DC energy to the active load modulation unit and to the one or more other components.
A method for jamming at least one SAR-type airborne radar implemented by a radar-jamming device comprising a group of at least two cooperating units surrounding an area on the ground to be protected, at least two units of said group providing a radar-detection function and at least one unit of said group providing a radar-jamming function, each unit providing the radar-detection function comprising a receiving and processing module configured to analyze the received signals, each unit providing the radar-jamming function being configured to generate and to transmit jamming signals, each unit being interlinked by at least one two-way data link and being synchronized by a common clock, said method being characterized in that it comprises a step (Etp10) of identifying the signals received by the receivers and if said received signals correspond to synthetic aperture radar signals: - a step (Etp20) of characterizing the received SAR signal over a predetermined duration that is shorter than the duration of a recurrence of the SAR signal; - a step (Etp30) of computing a filter adapted to the pulses of the received SAR signal; - a step (Etp40) of carrying out pulse compression of the received SAR signal on each recurrence using said adapted filter, making it possible to obtain the phase in the distance boxes, thereby making it possible to obtain the Doppler history linked to the movement of the radar carrier; - a step (Etp50) of iteratively periodically characterizing the received signal over a predetermined duration that is longer than a recurrence of the SAR signal so as to establish, from one recurrence to the next, the speed of movement of the radar and the distance between said radar and the area to be protected; - a step (Etp60) of computing the jamming signals to be emitted for each point of the area to be protected so as to jam the SAR radar coherently on the distance axis and on the Doppler axis; - a step (Etp70) of emitting the computed jamming signals. - a step (Etp20) of characterizing the received SAR signal over a predetermined duration that is shorter than the duration of a recurrence of the SAR signal; - a step (Etp30) of computing a filter adapted to the pulses of the received SAR signal; - a step (Etp40) of carrying out pulse compression of the received SAR signal on each recurrence using said adapted filter, making it possible to obtain the phase in the distance boxes, thereby making it possible to obtain the Doppler history linked to the movement of the radar carrier; - a step (Etp50) of iteratively periodically characterizing the received signal over a predetermined duration that is longer than a recurrence of the SAR signal so as to establish, from one recurrence to the next, the speed of movement of the radar and the distance between said radar and the area to be protected; - a step (Etp60) of computing the jamming signals to be emitted for each point of the area to be protected so as to jam the SAR radar coherently on the distance axis and on the Doppler axis; - a step (Etp70) of emitting the computed jamming signals.
Coating device for coating components with a coating agent, namely for painting motor vehicle body components with a paint, with a) a multi-axis coating robot with a multi-axis robot hand axis , and with b) a first printhead which emits a narrowly limited jet of coating agent during operation in contrast to a spray mist, with b1) at least one nozzle for delivering a coating agent jet of the coating agent from the nozzle onto the surface of the component to be coated, and b2) at least one printhead valve for controlling the release of the coating agent through the nozzle , b3) wherein the first printhead is mounted on the coating robot and is guided by the coating robot over the surface of the component to be coated, characterized by c) a time control for time-controlled rinsing of the first printhead with a rinsing agent, d) wherein the time control d1) triggers a rinsing process of the first printhead each after expiration of a predetermined rinsing interval has expired, and/or d2) triggers a rinsing process of the first printhead each after expiration of a predetermined standstill period of a conveyor conveying the components to be coated has elapsed. a) a multi-axis coating robot with a multi-axis robot hand axis , and with b) a first printhead which emits a narrowly limited jet of coating agent during operation in contrast to a spray mist, with b1) at least one nozzle for delivering a coating agent jet of the coating agent from the nozzle onto the surface of the component to be coated, and b2) at least one printhead valve for controlling the release of the coating agent through the nozzle , b3) wherein the first printhead is mounted on the coating robot and is guided by the coating robot over the surface of the component to be coated, characterized by b1) at least one nozzle for delivering a coating agent jet of the coating agent from the nozzle onto the surface of the component to be coated, and b2) at least one printhead valve for controlling the release of the coating agent through the nozzle , b3) wherein the first printhead is mounted on the coating robot and is guided by the coating robot over the surface of the component to be coated, c) a time control for time-controlled rinsing of the first printhead with a rinsing agent, d) wherein the time control d1) triggers a rinsing process of the first printhead each after expiration of a predetermined rinsing interval has expired, and/or d2) triggers a rinsing process of the first printhead each after expiration of a predetermined standstill period of a conveyor conveying the components to be coated has elapsed. d1) triggers a rinsing process of the first printhead each after expiration of a predetermined rinsing interval has expired, and/or d2) triggers a rinsing process of the first printhead each after expiration of a predetermined standstill period of a conveyor conveying the components to be coated has elapsed.
An electronic device comprising: electrical circuitry including at least one processor ; and a flexible printed circuit board in the form of a cable , the cable including a first layer of the flexible printed circuit board forming a first power line and a second layer of the flexible printed circuit board forming a second power line, the two power lines connecting the electrical circuitry including the at least one processor to a battery cell of the device that is arranged to supply electrical power over the cable to drive the electrical circuitry including the at least one processor , wherein the first and second layers are arranged in a stacked structure, wherein the device further comprises a coil-containing component which is located at a position within the device at which magnetic fields generated by the passage, along the two power lines of the cable, of a current in charging or discharging the battery cell , cancel each other out thereby minimizing noise induced in the coil-containing component by said magnetic fields, and wherein the first power line and the second power line are disposed within a distance of 0.01-4mm adjacent to the coil-containing component, and wherein the coil-containing component comprises a camera module . electrical circuitry including at least one processor ; and a flexible printed circuit board in the form of a cable , the cable including a first layer of the flexible printed circuit board forming a first power line and a second layer of the flexible printed circuit board forming a second power line, the two power lines connecting the electrical circuitry including the at least one processor to a battery cell of the device that is arranged to supply electrical power over the cable to drive the electrical circuitry including the at least one processor , wherein the first and second layers are arranged in a stacked structure, wherein the device further comprises a coil-containing component which is located at a position within the device at which magnetic fields generated by the passage, along the two power lines of the cable, of a current in charging or discharging the battery cell , cancel each other out thereby minimizing noise induced in the coil-containing component by said magnetic fields, and wherein the first power line and the second power line are disposed within a distance of 0.01-4mm adjacent to the coil-containing component, and wherein the coil-containing component comprises a camera module .
A non-pneumatic tire comprising a tread part with a cylindrical shape that is in contact with a ground surface, a wheel part disposed inside the tread part in a radial direction, and a spoke part interposed between the tread part and the wheel part , wherein: the wheel part includes a disk part to which an axle is connected, a rim part whose inner circumferential side is continuously connected to the disk part and an outer circumferential side is joined to the spoke part , a thickness (T2) of the rim part is substantially constant and a thickness (T1) of the disk part is smaller than the thickness (T2) of the rim part , wherein the wheel part is formed by a single member that integrally includes the disk part and the rim part , characterized in that the disk part includes a first portion a thickness of which continuously reduces in a radially outward direction from a first value(T1"), and a second portion that is continuous with a radially outward portion of an end of the first portion where the thickness (T1) of the first portion reduces to a minimum value (T1'), a thickness of the second portion continuously increasing in the radially outward direction until the second portion merges into the rim part . the wheel part includes a disk part to which an axle is connected, a rim part whose inner circumferential side is continuously connected to the disk part and an outer circumferential side is joined to the spoke part , a thickness (T2) of the rim part is substantially constant and a thickness (T1) of the disk part is smaller than the thickness (T2) of the rim part , a disk part to which an axle is connected, a rim part whose inner circumferential side is continuously connected to the disk part and an outer circumferential side is joined to the spoke part , a thickness (T2) of the rim part is substantially constant and a thickness (T1) of the disk part is smaller than the thickness (T2) of the rim part , wherein the wheel part is formed by a single member that integrally includes the disk part and the rim part , characterized in that the disk part includes a first portion a thickness of which continuously reduces in a radially outward direction from a first value(T1"), and a second portion that is continuous with a radially outward portion of an end of the first portion where the thickness (T1) of the first portion reduces to a minimum value (T1'), a thickness of the second portion continuously increasing in the radially outward direction until the second portion merges into the rim part . a first portion a thickness of which continuously reduces in a radially outward direction from a first value(T1"), and a second portion that is continuous with a radially outward portion of an end of the first portion where the thickness (T1) of the first portion reduces to a minimum value (T1'), a thickness of the second portion continuously increasing in the radially outward direction until the second portion merges into the rim part .
A machine with a loading system , which has a height-adjustable load arm with a load holder for holding a load to be moved, in particular an excavator, crane, wheel loader or telescopic loader, wherein a sensory detection of the type of operation of an operating element for the loading system and an evaluation unit for recognizing a panic situation of an operator actuating the operating unit are provided, wherein an emergency control mode is provided when a panic situation of the operator is recognized, which includes the actuation of the loading system, characterized in that the detection of the actuation speed is provided on the operating element for actuating the loading system and/or a speed sensor and/or an acceleration sensor is provided on the operating element for actuating the loading system .
An apparatus for growing invertebrates that breathe gas comprising a growing chamber (111; 201; 301; 401) which have an inner wall (203; 305) for limiting the movements of the invertebrates, and the apparatus further comprises a rotating mechanism for rotating the growing chamber (111; 201; 301; 401), characterised in that , inside the growing chamber (111; 201; 301; 401) are bodies (202; 302; 402) for increasing the inner surface area of the growing chamber (111; 201; 301; 401) and said bodies (202; 302; 402) are configured to be movable in respect to said inner wall (203; 305), and the bodies (202; 302; 402) are spherical, and the bodies (202; 302; 402) are configured to move freely when the growing chamber (111; 201; 301; 401) is rotated, and the growing chamber (111; 201; 301; 401) and the bodies (202; 302; 402) are configured to have spaces for air between the bodies (202; 302; 402) and the inner wall (203; 305) when food is spread at least partly on the surfaces of the bodies (202; 302; 402) and the inner wall (203; 305).
A spring seat for use in a spring brake actuator , preferably parking or emergency spring brake actuator of a commercial vehicle, said spring seat having a longitudinal axis (A) and being adapted to be placed inside a housing of the actuator adjacent a housing base of the actuator , the spring seat comprising a first side , which in use faces the housing base , and a second side , which in use faces inwardly away from the housing base , wherein on the second side the spring seat further comprising a coupling portion for contacting a compression spring of the spring brake actuator , said compression spring being adapted to exert, in use, a force onto a spring brake piston into the direction of its longitudinal axis (A), wherein the spring seat comprising a central embossment positioned on the second side and inwardly from the coupling portion and essentially conforming the shape of an embossment of the housing base , characterized in that the spring seat comprises a plurality of guiding elements for guiding the spring , said guiding elements extending essentially into the longitudinal direction and having a length (L) which is larger than the length (I) of the central embossment measured in the longitudinal axis (A). said spring seat having a longitudinal axis (A) and being adapted to be placed inside a housing of the actuator adjacent a housing base of the actuator , the spring seat comprising a first side , which in use faces the housing base , and a second side , which in use faces inwardly away from the housing base , wherein on the second side the spring seat further comprising a coupling portion for contacting a compression spring of the spring brake actuator , said compression spring being adapted to exert, in use, a force onto a spring brake piston into the direction of its longitudinal axis (A), wherein the spring seat comprising a central embossment positioned on the second side and inwardly from the coupling portion and essentially conforming the shape of an embossment of the housing base , characterized in that the spring seat comprises a plurality of guiding elements for guiding the spring , said guiding elements extending essentially into the longitudinal direction and having a length (L) which is larger than the length (I) of the central embossment measured in the longitudinal axis (A).
A device for virtual walking, comprising: an omnidirectional exercise machine and foot wearable devices; wherein the omnidirectional exercise machine comprises a base , a support piece arranged on the base through a bearing , and a running plate arranged on the support piece ; one side of the bearing is connected with two back support rods through rotating beams ; a loading connector is arranged on upper ends of the two back support rods ; the loading connector is sequentially connected with a waist omnidirectional motion controller and a binding belt ; the base , the support piece , and the running plate are coaxially arranged; an inertial sensor is arranged inside the waist omnidirectional motion controller ; the loading connector comprises a loading frame ; rows of connecting holes are on one side of the loading frame ; a mounting frame arranged between the two back support rods ; the mounting frame is fixedly connected with at least one row of connecting holes through connecting pieces: wherein the foot wearable devices are configured to move on the running plate ; each of the foot wearable devices comprises a wrapping body ; a pair of rollers are arranged on a rear end of a bottom portion of each wrapping body ; a laser sensor is arranged on a front end of the bottom portion of each wrapping body .