mhurhangee/ep-ind-claims huggingface dataset:
A blast treatment device comprising: - at least one nozzle that is adapted to inject media toward a workpiece; - a first tank that is adapted to supply the media to the at least one nozzle; - a movement structure that is adapted to move the at least one nozzle and the first tank in a horizontal direction and a vertical direction,; and - a second tank that supplies the media to the first tank, the second tank being configured not to be moved by the movement structure, further comprising: a circulating system that is adapted to recover the injected media and supply the recovered media to the second tank, wherein the first tank is coupled to the second tank by a hose having a detachable mechanism. - at least one nozzle that is adapted to inject media toward a workpiece; - a first tank that is adapted to supply the media to the at least one nozzle; - a movement structure that is adapted to move the at least one nozzle and the first tank in a horizontal direction and a vertical direction,; and - a second tank that supplies the media to the first tank, the second tank being configured not to be moved by the movement structure, further comprising: a circulating system that is adapted to recover the injected media and supply the recovered media to the second tank, wherein the first tank is coupled to the second tank by a hose having a detachable mechanism. a circulating system that is adapted to recover the injected media and supply the recovered media to the second tank, wherein the first tank is coupled to the second tank by a hose having a detachable mechanism.
An electronic cigarette atomizer, comprising an air inlet, an air inlet passage, an atomization cavity, an air outlet passage, an air outlet, and a suction nozzle communicated sequentially, and further comprising an adjustment mechanism for adjusting the air output of the air outlet and a housing, wherein the air inlet passage, the atomization cavity, and the air outlet passage are all arranged in the housing; and the top of the housing is provided with a top cover; the adjustment mechanism comprises a movable member located in the top cover and movable axially along the top cover, the movable member is provided with the air outlet, and a limiting plate opposite to the opening of the air outlet is arranged in the top cover; and when the movable member moves axially along the top cover, the air outlet on the movable member moves relative to the limiting plate to adjust the air output of the air outlet.
A method for automatic object detection and subsequent object tracking in digital video systems having at least one camera for recording and transmitting video sequences, as well as further processing or evaluation of video data, characterized in that an object detection algorithm based on a Gaussian mixture model GMM and an expanded object tracking based on Mean-Shift to be combined with each other in the object detection, wherein • the object detection is expanded in accordance with a model of the background by improved removal of shadows, wherein the detection of penumbra and umbra takes place according to the equation φ < φ 2 - φ 1 / r 2 - r 1 * r - r 1 + φ 1 with a lower threshold r 1 of maximum allowed darkness, with an upper threshold r 2 of maximum allowed brightness, with a current brightness value r, and with an angle φ 1 indicates the minimum allowable deviation of the color saturation of the current pixel from the background as well as an angle φ 2 indicates the maximum allowed deviation of the color saturation of the current pixel from the background and an angle φ, which measures the current deviation of the color saturation of the current pixel from the background, such that a simultaneous removal of penumbra and umbra by totally only four parameters is possible, • the binary mask generated in this way is used to create an asymmetric filter core, and • then the actual algorithm for the shape-adaptive object tracking, expanded by the abovementioned recognition step for adapting the shape is initialized, such that a determination of at least of the object shape or the object contour or the orientation of the object in space is made possible. • the object detection is expanded in accordance with a model of the background by improved removal of shadows, wherein the detection of penumbra and umbra takes place according to the equation φ < φ 2 - φ 1 / r 2 - r 1 * r - r 1 + φ 1 with a lower threshold r 1 of maximum allowed darkness, with an upper threshold r 2 of maximum allowed brightness, with a current brightness value r, and with an angle φ 1 indicates the minimum allowable deviation of the color saturation of the current pixel from the background as well as an angle φ 2 indicates the maximum allowed deviation of the color saturation of the current pixel from the background and an angle φ, which measures the current deviation of the color saturation of the current pixel from the background, such that a simultaneous removal of penumbra and umbra by totally only four parameters is possible, • the binary mask generated in this way is used to create an asymmetric filter core, and • then the actual algorithm for the shape-adaptive object tracking, expanded by the abovementioned recognition step for adapting the shape is initialized, such that a determination of at least of the object shape or the object contour or the orientation of the object in space is made possible.
A system for transporting and unloading containers for goods, in particular for bulk material, comprising a container, suited to a container spreader with a system of rotatable locking pins for catching the container, comprising at least a bottom wall, side walls, a rear wall and a front wall in a form of a hatch pivotable about its upper edge, having a locking mechanism for locking the hatch and a catching assembly with a catch, for locking the hatch in a closed position, and comprising a container spreader with a system of rotatable locking pins, actuated by means of actuators, for catching the container, characterized in that the locking mechanism for locking the hatch of the container is positioned along a vertical edge of a side wall of the container at the side of the hatch, and comprises a tie rod the upper end of which is connected to a button for activating a locking mechanism, while the container spreader has at least one opening actuator for opening the hatch of the container, cooperating with the locking mechanism for locking the hatch.
A surgical instrument, comprising: a housing; an elongated shaft extending distally from the housing and defining a first longitudinal axis; a firing rod disposed within the housing; a drive mechanism (200, 210) disposed at least partially within the elongated shaft, the drive mechanism (200, 210) in mechanical cooperation with the firing rod; a motion sensor configured to sense a change in the electric field between the firing rod and the elongated shaft, wherein the motion sensor comprises a signal generator configured to generate a pulse signal that varies with the change in the electric field between the firing rod and the elongated shaft; and a measurement unit configured to determine a parameter of the motion of the firing rod based on the pulse signal. a housing; an elongated shaft extending distally from the housing and defining a first longitudinal axis; a firing rod disposed within the housing; a drive mechanism (200, 210) disposed at least partially within the elongated shaft, the drive mechanism (200, 210) in mechanical cooperation with the firing rod; a motion sensor configured to sense a change in the electric field between the firing rod and the elongated shaft, wherein the motion sensor comprises a signal generator configured to generate a pulse signal that varies with the change in the electric field between the firing rod and the elongated shaft; and a measurement unit configured to determine a parameter of the motion of the firing rod based on the pulse signal.
A method performed by a user equipment, UE, for communicating with an access node and performing random access in a beamformed communications system, the method comprising: receiving measurement table information from the access node serving the UE, wherein the measurement table information comprises values (420, 422, 425,427, 430) that represent signals detected by UEs in the vicinity of an access node for transmissions made on communications beams of the access node; determining whether to increase or decrease an access parameter in accordance with measurement table information, whereby the access parameter is either a CSMA LBT threshold or a contention window size; and transmitting for the random access an uplink transmission on a shared communications channel in accordance with the access parameter, wherein the measurement table information is used, if the transmissions by the UE made on the communications beams of the access node are causing interference to the transmissions made on the communication beams of the access, to either decrease CSMA LBT threshold or to increase the contention window size, otherwise, to either increase the CSMA LBT threshold or to decrease the contention window. receiving measurement table information from the access node serving the UE, wherein the measurement table information comprises values (420, 422, 425,427, 430) that represent signals detected by UEs in the vicinity of an access node for transmissions made on communications beams of the access node; determining whether to increase or decrease an access parameter in accordance with measurement table information, whereby the access parameter is either a CSMA LBT threshold or a contention window size; and transmitting for the random access an uplink transmission on a shared communications channel in accordance with the access parameter, wherein the measurement table information is used, if the transmissions by the UE made on the communications beams of the access node are causing interference to the transmissions made on the communication beams of the access, to either decrease CSMA LBT threshold or to increase the contention window size, otherwise, to either increase the CSMA LBT threshold or to decrease the contention window.
A clamp configured for attachment to a drilling tool of a robotic drill, the clamp comprising: an attachment portion configured for attachment to the drilling tool; a frame linearly moveable relative to the attachment portion along a central axis of the clamp concentric with a drilling direction of the drilling tool; an actuation mechanism comprising a servo motor configured to drive linear movement of the frame relative to the drilling tool; a workpiece contacting portion at a distal end of the frame, comprising a surface for contacting a surface of a workpiece to be drilled and an aperture allowing for passage of a drill bit of the drilling tool through to the workpiece surface; and a force sensor arranged to measure a force acting on the workpiece contacting portion in the drilling direction, wherein the frame has a pair of arms (211a, 211b) extending in the drilling direction on either side of the central axis and a distal end piece extending between the pair of arms (211a, 211b), characterised in that the servo motor is configured to drive each of the arms (211a, 211b) of the frame by rotation of respective rods (213a, 213b) extending along each arm (211a, 211b). an attachment portion configured for attachment to the drilling tool; a frame linearly moveable relative to the attachment portion along a central axis of the clamp concentric with a drilling direction of the drilling tool; an actuation mechanism comprising a servo motor configured to drive linear movement of the frame relative to the drilling tool; a workpiece contacting portion at a distal end of the frame, comprising a surface for contacting a surface of a workpiece to be drilled and an aperture allowing for passage of a drill bit of the drilling tool through to the workpiece surface; and a force sensor arranged to measure a force acting on the workpiece contacting portion in the drilling direction, wherein the frame has a pair of arms (211a, 211b) extending in the drilling direction on either side of the central axis and a distal end piece extending between the pair of arms (211a, 211b), characterised in that the servo motor is configured to drive each of the arms (211a, 211b) of the frame by rotation of respective rods (213a, 213b) extending along each arm (211a, 211b).
A method comprising: restoring a resource from a first source to a device; detecting dynamically availability of the resource from a second source after a portion of the resource has been restored to the device from the first source; determining if the second source is more efficiently connected with the device than the first source; and restoring a remaining portion of the resource from the second source to the device after the portion of the resource has been restored to the device if the second source is more efficiently connected to the device. restoring a resource from a first source to a device; detecting dynamically availability of the resource from a second source after a portion of the resource has been restored to the device from the first source; determining if the second source is more efficiently connected with the device than the first source; and restoring a remaining portion of the resource from the second source to the device after the portion of the resource has been restored to the device if the second source is more efficiently connected to the device.
A light emission device (100, 110, 120) comprising: a substrate; a mask layer disposed on the substrate and having at least one opening; a light emission structure (16, 160) formed in the shape of a tube extended along a z-axis direction formed on the mask layer surrounding the opening and extended perpendicular to a surface of the substrate; and a first electrode (18, 180) formed in the shape of a tube extended along the z-axis direction formed on the mask layer while surface-contacting the external surface of the light emission structure characterised by a second electrode (20, 200) formed in the shape of a circular cylinder extended along the z-axis direction disposed in the light emission structure and surface-contacting the internal surface of the light emission structure, the second electrode (20, 200) being formed of metal, conductive polymer or a mixture thereof. a substrate; a mask layer disposed on the substrate and having at least one opening; a light emission structure (16, 160) formed in the shape of a tube extended along a z-axis direction formed on the mask layer surrounding the opening and extended perpendicular to a surface of the substrate; and a first electrode (18, 180) formed in the shape of a tube extended along the z-axis direction formed on the mask layer while surface-contacting the external surface of the light emission structure characterised by a second electrode (20, 200) formed in the shape of a circular cylinder extended along the z-axis direction disposed in the light emission structure and surface-contacting the internal surface of the light emission structure, the second electrode (20, 200) being formed of metal, conductive polymer or a mixture thereof.
An arrangement for an electrochemical measurement, the arrangement comprising - a reference element, and - at least one indicator electrode (19, 20), the reference element and at least one indicator electrode (19, 20) are embedded into a solid and junctionless electrochemically active composite material, which is a solid electrochemically active polymer material comprising inorganic salt dispersed in polymer matrix, the solid and junctionless electrochemically active composite material acting at the same time as an encasing for the reference element and at least one indicator electrode (19, 20) and as a reference electrode in conjunction with the reference element characterized in that the solid and junctionless electrochemically active composite material acts as a physical body of the arrangement. - a reference element, and - at least one indicator electrode (19, 20),
Laundry treatment appliance comprising: - a drawer comprising a first ( 210 1) and a second ( 210 2) compartments each one adapted to contain multiple doses of a treatment agent for laundry treatment, wherein the first ( 210 1) and second ( 210 2) compartments are each one configurable to contain multiple doses of a first type of treatment agent or of a second type of treatment agent, - first and second pump devices adapted to draw up treatment agent doses from the first ( 210 1) and second ( 210 2) compartments, respectively, and - a control unit for controlling the first and second pump devices, wherein when the first ( 210 1) and second ( 210 2) compartments are configured to contain the same type of treatment agent the control unit is configured to cause the first and second pump devices to coordinately draw up the treatment agent doses over at least one washing cycle by determining substantially same level variations of the treatment agents contained in the first ( 210 1) and second ( 210 2) compartments over a single or over two or more washing cycles of said at least one washing cycle. - a drawer comprising a first ( 210 1) and a second ( 210 2) compartments each one adapted to contain multiple doses of a treatment agent for laundry treatment, wherein the first ( 210 1) and second ( 210 2) compartments are each one configurable to contain multiple doses of a first type of treatment agent or of a second type of treatment agent, - first and second pump devices adapted to draw up treatment agent doses from the first ( 210 1) and second ( 210 2) compartments, respectively, and - a control unit for controlling the first and second pump devices, wherein when the first ( 210 1) and second ( 210 2) compartments are configured to contain the same type of treatment agent the control unit is configured to cause the first and second pump devices to coordinately draw up the treatment agent doses over at least one washing cycle by determining substantially same level variations of the treatment agents contained in the first ( 210 1) and second ( 210 2) compartments over a single or over two or more washing cycles of said at least one washing cycle.
A method of operating a portable touch screen device, the touch screen device including an earphone having a switch mounted thereon configured to be manually manipulated by a user, and a main body configured to be electronically connected to the earphone, the main body comprising a touch screen having a predetermined viewing area configured to display images thereon and a detector configured to detect a touch on the touch screen and generate a signal corresponding to the touch, and a controller configured to control the main body in accordance with signals received from the detector and the switch of the earphone, the method comprising: controlling the main body to be in a holding mode in which the the main body does not respond to any touch on the touch screen except an activation touch for transitioning from the holding mode to an activation mode; detecting a first signal input from the detector during the holding mode of the main body; determining whether the input first signal is an activation signal and then controlling the main body to transition from the holding mode to the activation mode in which signals generated by the detector in response to a touch on the touch screen are not ignored by the controller if it is determined that the input first signal is the activation signal, detecting a second signal input from the switch mounted on the earphone during the holding mode of the main body, and determining whether the input second signal is a partial activation signal and controlling the main body to transition from the holding mode to a partial activation mode in which only a specific function is activated in the main body if it is determined that the input second signal is the partial activation signal. controlling the main body to be in a holding mode in which the the main body does not respond to any touch on the touch screen except an activation touch for transitioning from the holding mode to an activation mode; detecting a first signal input from the detector during the holding mode of the main body; determining whether the input first signal is an activation signal and then controlling the main body to transition from the holding mode to the activation mode in which signals generated by the detector in response to a touch on the touch screen are not ignored by the controller if it is determined that the input first signal is the activation signal, determining whether the input first signal is an activation signal and then controlling the main body to transition from the holding mode to the activation mode in which signals generated by the detector in response to a touch on the touch screen are not ignored by the controller if it is determined that the input first signal is the activation signal, detecting a second signal input from the switch mounted on the earphone during the holding mode of the main body, and determining whether the input second signal is a partial activation signal and controlling the main body to transition from the holding mode to a partial activation mode in which only a specific function is activated in the main body if it is determined that the input second signal is the partial activation signal.
An image processing apparatus generating geometric data of an object, the image processing apparatus comprising: obtaining means configured to obtain a plurality of images of the object, wherein each image is captured from a different viewpoint by a group of cameras; generating means configured to generate geometric data of the object based on the images obtained by the obtaining means; and correcting means configured to correct the geometric data generated by the generating means, based on a reliability determination that determines a reliability of at least a part of the geometric data generated by the generating means, wherein the reliability of the at least part of the geometric data is determined based on the number of cameras that capture a region of the object corresponding to the at least part of the geometric data, wherein the correcting means is configured to delete the at least part of the geometric data based on the number of cameras that capture the region of the object being lower than a threshold value. obtaining means configured to obtain a plurality of images of the object, wherein each image is captured from a different viewpoint by a group of cameras; generating means configured to generate geometric data of the object based on the images obtained by the obtaining means; and correcting means configured to correct the geometric data generated by the generating means, based on a reliability determination that determines a reliability of at least a part of the geometric data generated by the generating means, wherein the reliability of the at least part of the geometric data is determined based on the number of cameras that capture a region of the object corresponding to the at least part of the geometric data, wherein the correcting means is configured to delete the at least part of the geometric data based on the number of cameras that capture the region of the object being lower than a threshold value.
An antibody molecule or fragment thereof comprising a LAG-3 antigen-binding site located in a CH3 domain of the antibody molecule or fragment thereof, wherein the LAG-3 antigen-binding site comprises the amino acid sequences WDEPWGED (SEQ ID NO: 1) and PYDRWVWPDE (SEQ ID NO: 3), and wherein the amino acid sequence WDEPWGED is located in the AB loop of the CH3 domain and the amino acid sequence PYDRWVWPDE is located in the EF loop of the CH3 domain.