mhurhangee/ep-ind-claims huggingface dataset:
An unmanned vehicle module comprising a landing platform that comprises - a landing area for receiving an unmanned aerial vehicle, wherein the landing area comprises a predetermined charging region, - a first charging plate, - a second charging plate, wherein the first charging plate and the second charging plate are arranged in the predetermined charging region, - an electrical energy storage device for connecting electrically with the first charging plate and with the second charging plate, and - an unmanned vehicle alignment mechanism for moving the unmanned aerial vehicle into the predetermined charging region, wherein a first unmanned vehicle electrode of the unmanned aerial vehicle electrically connects with the first charging plate and a second unmanned vehicle electrode of the unmanned aerial vehicle electrically connects with the second charging plate, wherein the unmanned vehicle alignment mechanism comprises - a movable first beam, - a movable second beam, - a movable third beam, - a movable fourth beam, and - an actuation device for actuating at least two of the first beam, the second beam, the third beam, and the fourth beam to push the unmanned aerial vehicle into the charging region. - a landing area for receiving an unmanned aerial vehicle, wherein the landing area comprises a predetermined charging region, - a first charging plate, - a second charging plate, wherein the first charging plate and the second charging plate are arranged in the predetermined charging region, - an electrical energy storage device for connecting electrically with the first charging plate and with the second charging plate, and - an unmanned vehicle alignment mechanism for moving the unmanned aerial vehicle into the predetermined charging region, - an electrical energy storage device for connecting electrically with the first charging plate and with the second charging plate, and - an unmanned vehicle alignment mechanism for moving the unmanned aerial vehicle into the predetermined charging region, wherein a first unmanned vehicle electrode of the unmanned aerial vehicle electrically connects with the first charging plate and a second unmanned vehicle electrode of the unmanned aerial vehicle electrically connects with the second charging plate, wherein the unmanned vehicle alignment mechanism comprises - a movable first beam, - a movable second beam, - a movable third beam, - a movable fourth beam, and - an actuation device for actuating at least two of the first beam, the second beam, the third beam, and the fourth beam to push the unmanned aerial vehicle into the charging region. - a movable first beam, - a movable second beam, - a movable third beam, - a movable fourth beam, and - an actuation device for actuating at least two of the first beam, the second beam, the third beam, and the fourth beam to push the unmanned aerial vehicle into the charging region.
A memory device, comprising: a support having a surface; and a three-dimensional array of memory cells on the surface of the support, wherein individual memory cells in the three-dimensional array include a transistor and a capacitor, and a channel of the transistor in an individual memory cell is oriented parallel to the surface, wherein individual memory cells in the three-dimensional array are arranged into a two-dimensional array of columns oriented perpendicular to the surface, memory cells in an individual column are coupled by a common bit line, and a bit line associated with one column of memory cells is different than a bit line associated with a different column of memory cells. a support having a surface; and a three-dimensional array of memory cells on the surface of the support, wherein individual memory cells in the three-dimensional array include a transistor and a capacitor, and a channel of the transistor in an individual memory cell is oriented parallel to the surface, wherein individual memory cells in the three-dimensional array are arranged into a two-dimensional array of columns oriented perpendicular to the surface, memory cells in an individual column are coupled by a common bit line, and a bit line associated with one column of memory cells is different than a bit line associated with a different column of memory cells.
Assembly module for a motor vehicle, having an optical sensor system which is suitable for a) monitoring a detection area located outside the motor vehicle to determine the proximity of a user, wherein the monitoring is continuous to recognize when a user enters the detection area, b) transmitting a laser light flash within the detection area, c) recognizing a reflection of the laser light flash from the user and d) triggering a signal for performing an action on the motor vehicle in the event of a recognition of the user in a predefined actuation area within the detection area. a) monitoring a detection area located outside the motor vehicle to determine the proximity of a user, wherein the monitoring is continuous to recognize when a user enters the detection area, b) transmitting a laser light flash within the detection area, c) recognizing a reflection of the laser light flash from the user and d) triggering a signal for performing an action on the motor vehicle in the event of a recognition of the user in a predefined actuation area within the detection area.
An agent which binds an antibody directed to Caspr2, and which comprises a peptide comprising the sequence of an extracellular portion of a Caspr2, for use in inhibiting or reducing development of an autism spectrum disorder in a fetus or an infant comprising administering an amount of said agent to a mother pregnant with the fetus or prior to the fetus being born as an infant while the mother is pregnant or extracorporeally contacting blood of a mother (i) pregnant with the fetus or (ii) prior to the fetus being born as an infant with an amount of said agent so as to reduce the blood levels of the antibody directed to Caspr2 and recirculating the blood so treated back into the mother.
A fluid compression device, comprising: - at least one compression chamber extending longitudinally between a first end and a second end; - a bottom wall operatively associated with the at least one compression chamber and having at least one delivery opening for putting into fluid communication the at least one compression chamber with a delivery duct; - a compression means such as to interact with the compression chamber and/or the bottom wall for compressing the fluid inside the compression chamber; - at least one diaphragm valve operatively associated with the compression means for allowing at least the delivery of the fluid compressed by the compression chamber by means of the delivery duct; the at least one diaphragm valve also being configured to allow the flow of fluid into the at least one compression chamber by a suction; characterised in that the at least one diaphragm valve is positioned in an inner portion of the compression chamber in a position adjacent to the bottom wall and adopted thereby to interact with the compression means in an operating configuration for use of the fluid compression device for compressing the fluid; and further characterised in that the fluid compression device comprises a main body comprising the compression chamber and the bottom wall made in a single.continuous piece on the main body. - at least one compression chamber extending longitudinally between a first end and a second end; - a bottom wall operatively associated with the at least one compression chamber and having at least one delivery opening for putting into fluid communication the at least one compression chamber with a delivery duct; - a compression means such as to interact with the compression chamber and/or the bottom wall for compressing the fluid inside the compression chamber; - at least one diaphragm valve operatively associated with the compression means for allowing at least the delivery of the fluid compressed by the compression chamber by means of the delivery duct; the at least one diaphragm valve also being configured to allow the flow of fluid into the at least one compression chamber by a suction;
A liquid powered spindle having a longitudinal axis defining an upper end and a lower, shaft-tool end, comprising: a) a body having a spindle cavity; b) at least one bearing disposed in the cavity; c) a shaft supported by the at least one bearing within the cavity; d) a seal housing connected to the body at the lower end thereof; e) a cover connected to the seal housing at the lower end thereof; f) a fluid channel system for directing liquid from an entry port to a nozzle; g) a turbine attached to the shaft, the turbine in fluid communication with the at least one nozzle for rotating the shaft; characterized in that h) a flinger is attached to the shaft and positioned above the turbine; wherein the seal housing defines an annular fluid manifold surrounding the shaft for distributing liquid, deflected upward by the turbine, into a plurality of stationary fluid exit channels; and wherein the flinger and the seal housing combine to form a non-contact seal configured to impede the flow of liquid toward the at least one bearing. a) a body having a spindle cavity; b) at least one bearing disposed in the cavity; c) a shaft supported by the at least one bearing within the cavity; d) a seal housing connected to the body at the lower end thereof; e) a cover connected to the seal housing at the lower end thereof; f) a fluid channel system for directing liquid from an entry port to a nozzle; g) a turbine attached to the shaft, the turbine in fluid communication with the at least one nozzle for rotating the shaft; characterized in that h) a flinger is attached to the shaft and positioned above the turbine;
A liquid crystal display, comprising: a liquid crystal layer, comprising a first region and a second region; a backlight layer disposed under the liquid crystal layer and formed with a first light-transmission hole, wherein light of the backlight layer is emitted for display in the first region and the first light-transmission hole being disposed under the second region; and a backlight disposed at the first light-transmission hole, wherein light of the backlight is projected on the second region through the first light-transmission hole; wherein the backlight comprises: a light-emitting element and a light-gathering element disposed on a light-emitting side of the light-emitting element, wherein the light-gathering element is configured to allow light emitted from the light-emitting element to be uniformly projected onto the second region. characterized in that the liquid crystal display further comprises an inner polarizing layer, disposed between the backlight layer and the liquid crystal layer, wherein a second light-transmission hole corresponding to the first light-transmission hole is formed in the inner polarizing layer and that the backlight further comprises an auxiliary polarizing layer on a light-emitting side of the light-emitting element, wherein the auxiliary polarizing layer is disposed on a side of the light-gathering element away from the light-emitting element; or the auxiliary polarizing layer is disposed on a side of the light-gathering element facing the light-emitting element. a liquid crystal layer, comprising a first region and a second region; a backlight layer disposed under the liquid crystal layer and formed with a first light-transmission hole, wherein light of the backlight layer is emitted for display in the first region and the first light-transmission hole being disposed under the second region; and a backlight disposed at the first light-transmission hole, wherein light of the backlight is projected on the second region through the first light-transmission hole; wherein the backlight comprises: a light-emitting element and a light-gathering element disposed on a light-emitting side of the light-emitting element, wherein the light-gathering element is configured to allow light emitted from the light-emitting element to be uniformly projected onto the second region. characterized in that the liquid crystal display further comprises an inner polarizing layer, disposed between the backlight layer and the liquid crystal layer, wherein a second light-transmission hole corresponding to the first light-transmission hole is formed in the inner polarizing layer and that the backlight further comprises an auxiliary polarizing layer on a light-emitting side of the light-emitting element, wherein the auxiliary polarizing layer is disposed on a side of the light-gathering element away from the light-emitting element; or the auxiliary polarizing layer is disposed on a side of the light-gathering element facing the light-emitting element.
A mixing plant for composite particles, comprising: a mixing tank having an inner chamber; a fixing bracket for supporting the mixing tank; at least one heat conductive pipe; and a primary heat conductive pipe in communication with the inner chamber, wherein the primary heat conductive pipe is in communication with the heat conductive pipe to form an air communication passage, and wherein the mixing tank is drivable to rotate around the primary heat conductive pipe; characterised in that: the heat conductive pipe defines a plurality of hot air entrance holes on a sidewall thereof facing a heat source; the mixing plant further comprises a pneumatic valve located in the air communication passage; and both the heat conductive pipe and the primary heat conductive pipe are arranged to lie parallel to a horizontal axis of the mixing tank, wherein a vertical height of the at least one heat conductive pipe is less than a vertical height of the primary heat conductive pipe. a mixing tank having an inner chamber; a fixing bracket for supporting the mixing tank; at least one heat conductive pipe; and a primary heat conductive pipe in communication with the inner chamber, wherein the primary heat conductive pipe is in communication with the heat conductive pipe to form an air communication passage, and wherein the mixing tank is drivable to rotate around the primary heat conductive pipe; characterised in that: the heat conductive pipe defines a plurality of hot air entrance holes on a sidewall thereof facing a heat source; the mixing plant further comprises a pneumatic valve located in the air communication passage; and both the heat conductive pipe and the primary heat conductive pipe are arranged to lie parallel to a horizontal axis of the mixing tank, wherein a vertical height of the at least one heat conductive pipe is less than a vertical height of the primary heat conductive pipe. the heat conductive pipe defines a plurality of hot air entrance holes on a sidewall thereof facing a heat source; the mixing plant further comprises a pneumatic valve located in the air communication passage; and both the heat conductive pipe and the primary heat conductive pipe are arranged to lie parallel to a horizontal axis of the mixing tank, wherein a vertical height of the at least one heat conductive pipe is less than a vertical height of the primary heat conductive pipe.
Greywater heat recovery system comprising a purification plant and a heat transfer device, wherein the purification plant is embodied to purify greywater from a greywater pipe, wherein the purification plant has an aeration tank with microorganisms, wherein the microorganisms decompose organic components of the greywater, wherein a filter membrane is arranged in the aeration tank, characterised in that an outlet of the purification plant is connected to the heat transfer device, wherein the heat transfer device is embodied to transfer heat energy from the grey water purified after flowing through the filter membrane to a fresh water in a fresh water line.
An image processing method for an electronic device including an image sensor, the image sensor comprises an array of photosensitive pixel units and an array of filter units arranged on the array of photosensitive pixel units, each filter unit corresponds to one photosensitive pixel unit and comprises a plurality of filters with a same color, each photosensitive pixel unit comprises a plurality of photosensitive pixels adjacent to each other, and each photosensitive pixel is covered by one filter, being characterized in that, the image processing method comprises: controlling the array of photosensitive pixel units to expose with different exposure parameters and output multiple frames of color-block image, wherein, each frame of color-block image comprises image pixel units corresponding to respective photosensitive pixel units arranged in a preset array, the preset array comprises a Bayer array, each image pixel unit comprises a plurality of original pixels adjacent to each other and arranged in array, and each photosensitive pixel corresponds to one original pixel; merging the multiple frames of color-block image to obtain a HDR (high dynamic range) color-block image; performing a white-balance compensation on the HDR color-block image; converting the white-balanced HDR color-block image into a simulation image using an interpolation algorithm, wherein, the simulation image comprises simulation pixels arranged in the Bayer array, and each photosensitive pixel corresponds to one simulation pixel; and performing a reverse white-balance compensation on the simulation image. controlling the array of photosensitive pixel units to expose with different exposure parameters and output multiple frames of color-block image, wherein, each frame of color-block image comprises image pixel units corresponding to respective photosensitive pixel units arranged in a preset array, the preset array comprises a Bayer array, each image pixel unit comprises a plurality of original pixels adjacent to each other and arranged in array, and each photosensitive pixel corresponds to one original pixel; merging the multiple frames of color-block image to obtain a HDR (high dynamic range) color-block image; performing a white-balance compensation on the HDR color-block image; converting the white-balanced HDR color-block image into a simulation image using an interpolation algorithm, wherein, the simulation image comprises simulation pixels arranged in the Bayer array, and each photosensitive pixel corresponds to one simulation pixel; and performing a reverse white-balance compensation on the simulation image.
Wind turbine tower, having a plurality of tower segments which each have an upper and a lower horizontal flange (120, 110) and a covering face, wherein at least a first tower segment of the plurality of tower segments has at least a first and second half which each have a first and second longitudinal flange, wherein the first and second longitudinal flanges of a first half of the first tower segment have a first side for placing on a first side of a first or second longitudinal flange of the second half of the first tower segment and each longitudinal flange has a second side, to which the covering face is welded, wherein the second side is opposite the first side, characterised in that the first side of the first or second longitudinal flange of the first half of the first tower segment is secured at least partially directly to the first side of a first or second longitudinal flange of the second half of the first tower segment, wherein the first and second longitudinal flanges each have a third side which can be seen from the outer side.
A Printed Circuit Board, PCB (210, 310) comprising an antenna (200, 300), the antenna (200, 300) comprises an antenna body (212, 312) integrally formed as a part of the PCB (210, 310), wherein the antenna body (212, 312) extends out from an edge of the PCB (210, 310), and wherein the antenna body (212, 312) is enclosed by printed or plated metal on both top and bottom surfaces (221, 222) of the PCB and by edge plated metal along the circumference of the antenna body (212, 312); and wherein the antenna body has an F-shape.
A changer unit for directing drill cuttings, the changer unit being arrangeable in at least two operating positions, in the first of which operating positions there will be provided a continuous duct from the inlet duct of drill cuttings to the discharge duct of drill cuttings and in the second of which operating positions the duct from the inlet duct of drill cuttings to the discharge duct of drill cuttings will be cut, characterized in that the changer unit includes at least one moisture detector to be used for determining water content in drill cuttings, and the changer unit is coupled to a control unit included in the changer unit or to an external control unit that controls the selection and changing of the operating position of the changer unit automatically on the basis of the determined water content in the drill cuttings.
A method for wireless communication, comprising: receiving at a terminal a message sent by a neighbor base station to request reduction of interference on at least one resource; determining a maximum transmit power level for the at least one resource by the terminal in response to receiving the message; characterised by sending a power decision pilot from the terminal in order to convey the maximum transmit power level, wherein the power level of the power decision pilot is set to a scaled version of the maximum transmit power level. receiving at a terminal a message sent by a neighbor base station to request reduction of interference on at least one resource; determining a maximum transmit power level for the at least one resource by the terminal in response to receiving the message; characterised by sending a power decision pilot from the terminal in order to convey the maximum transmit power level, wherein the power level of the power decision pilot is set to a scaled version of the maximum transmit power level.
A method for detecting flaws in the process for the continuous laser welding of metallic portions, wherein a spectroscopic sensor measures the plasma emission spectrum in a range of wavelengths comprised between λ max and λ min in N channels so that each channel measures the intensity of the radiation emitted in the band centred at the wavelength λ i (1≤ i ≤N) and with width Δλ i, the spectrum acquisition taking place at regular time intervals, the detection of the deviation of the process physical parameters from optimum conditions being based upon the calculation, for each acquired spectrum, of intensity relationships of the signal measured at some specific wavelengths and in the comparison of such relationships with pre-determined threshold values, said method being characterized by a calibration phase wherein: • a series of K weldings is performed, under optimized conditions with respect to the process parameters, for each one thereof a number J of spectra O J,K, is acquired, each one corresponding to a vector of N intensity values at the wavelengths λ i, 1≤ i ≤N, which are stored in a processor; • a series of weldings K' is performed, wherein K' is not necessarily equal to K, wherein a single welding parameter A is altered by a known quantity, for each one of such weldings being acquired a sequence of J' spectra A J',K', with J' not necessarily equal to J, which are stored. • a series of K weldings is performed, under optimized conditions with respect to the process parameters, for each one thereof a number J of spectra O J,K, is acquired, each one corresponding to a vector of N intensity values at the wavelengths λ i, 1≤ i ≤N, which are stored in a processor; • a series of weldings K' is performed, wherein K' is not necessarily equal to K, wherein a single welding parameter A is altered by a known quantity, for each one of such weldings being acquired a sequence of J' spectra A J',K', with J' not necessarily equal to J, which are stored.