mhurhangee/patent-ind-claim-en huggingface dataset:
A method for compensating an imbalance of a wind rotor of a wind turbine , the method comprising applying at least two test-offsets, one after the other, to a parameter characterizing a state of the wind rotor , wherein the imbalance depends on the parameter ; measuring for the at least two test-offsets an acceleration of the wind turbine , wherein the acceleration depends on the imbalance ; and determining a compensation-offset (341-343, 874-876) based on the measured acceleration, wherein the imbalance is at least partially compensated, when the compensation-offset (341-343, 874-876) is applied to the parameter , wherein determining the compensation-offset (341-343, 874-876) comprises determining, for each of the at least two test-offsets, a frequency component(221-226) of a frequency spectrum of the measured acceleration, mapping each of the frequency components (221-226) to a coordinate system, determining a center defined by each of the frequency components (221-226), wherein the center is defined as a center of gravity of a geometric shape defined by each of the frequency components, and calculating the compensation-offset (341-343, 874-876) based on the center , wherein the parameter comprises a plurality of blade parameters, each characterizing a different blade of a plurality of blades of the wind rotor , wherein each blade parameter comprises a blade pitch . applying at least two test-offsets, one after the other, to a parameter characterizing a state of the wind rotor , wherein the imbalance depends on the parameter ; measuring for the at least two test-offsets an acceleration of the wind turbine , wherein the acceleration depends on the imbalance ; and determining a compensation-offset (341-343, 874-876) based on the measured acceleration, wherein the imbalance is at least partially compensated, when the compensation-offset (341-343, 874-876) is applied to the parameter , wherein determining the compensation-offset (341-343, 874-876) comprises determining, for each of the at least two test-offsets, a frequency component(221-226) of a frequency spectrum of the measured acceleration, mapping each of the frequency components (221-226) to a coordinate system, determining a center defined by each of the frequency components (221-226), wherein the center is defined as a center of gravity of a geometric shape defined by each of the frequency components, and calculating the compensation-offset (341-343, 874-876) based on the center , determining, for each of the at least two test-offsets, a frequency component(221-226) of a frequency spectrum of the measured acceleration, mapping each of the frequency components (221-226) to a coordinate system, determining a center defined by each of the frequency components (221-226), wherein the center is defined as a center of gravity of a geometric shape defined by each of the frequency components, and calculating the compensation-offset (341-343, 874-876) based on the center ,
An image forming device comprising: a conveying mechanism that pulls and conveys a recording medium (P) onto which liquid drops have been applied; and a suction plate that is provided with a plurality of suction holes that suction the recording medium (P) conveyed by the conveying mechanism, sizes of the plurality of suction holes being uniform, and at which, when the suction holes are projected in a conveying direction of the recording medium (P), the suction holes are disposed such that any one of the suction holes is disposed in a direction that is orthogonal to the conveying direction of the recording medium (P), and wherein the suction holes are disposed so as to overlap one another, wherein the conveying mechanism has a chain gripper that grasps a leading end portion of the recording medium (P) and conveys the recording medium (P) along the suction plate , wherein the suction holes , which structure a row of holes in the conveying direction of the recording medium (P), are offset in the direction that is orthogonal to the conveying direction of the recording medium (P), and arrays of the suction holes , having hole positions offset and that are in the direction that is orthogonal to the conveying direction of the recording medium (P), are disposed in a random order in the conveying direction of the recording medium (P). a conveying mechanism that pulls and conveys a recording medium (P) onto which liquid drops have been applied; and a suction plate that is provided with a plurality of suction holes that suction the recording medium (P) conveyed by the conveying mechanism, sizes of the plurality of suction holes being uniform, and at which, when the suction holes are projected in a conveying direction of the recording medium (P), the suction holes are disposed such that any one of the suction holes is disposed in a direction that is orthogonal to the conveying direction of the recording medium (P), and wherein the suction holes are disposed so as to overlap one another, wherein the conveying mechanism has a chain gripper that grasps a leading end portion of the recording medium (P) and conveys the recording medium (P) along the suction plate , wherein the suction holes , which structure a row of holes in the conveying direction of the recording medium (P), are offset in the direction that is orthogonal to the conveying direction of the recording medium (P), and arrays of the suction holes , having hole positions offset and that are in the direction that is orthogonal to the conveying direction of the recording medium (P), are disposed in a random order in the conveying direction of the recording medium (P).
A loading device for loading storage and transport receptacles or trays for plastic receptacles, in particular plastic bottles, with a transport device for the trays and with a transferring device for the plastic receptacles which comprises a multi-gripper for a number of plastic receptacles which are arranged in the shape of a row, wherein a stabilisation device is arranged in a loading station for the trays , said stabilisation device comprising a first support rack and a second support rack which are arranged essentially parallel to one another, characterised in that the device is configured in a manner such that the first support rack and the second support rack are at least partly moved into a tray to be loaded, that the second support rack is displaced relative to the first support rack from a first position adjacent to one another into a second position with a predefinable distance to one another, in order to open a first loading lane in the tray to be loaded, and after the loading of the first loading lane with plastic receptacles the second support rack is displaced beyond the first loaded loading lane counter to the transport direction (V) of the tray essentially onto the first position of the first support rack , wherein by way of displacing the second support rack and the tray in the transport direction (V) of the tray essentially by a predetermined distance given an essentially stationary first rack a second loading lane which is adjacent to the first loading lane is opened, said second loading lane being approached by the multi-gripper and being loaded with at least one second row of plastic receptacles , wherein the second support rack is designed as an anti-tipping device for the first row of plastic receptacles during the opening of the second loading lane .
A preformed guidewire comprising a continuous inner corewire , the inner corewire including a proximal region and a distal region , the distal region terminating into an atraumatic tip , wherein the distal region includes a proximal segment and a distal segment , the proximal and distal segments extending along paths that curve in opposite directions, wherein the atraumatic tip is located within the enlarged curvature of the proximal segment and wherein the distal region lies in a single plane.
A superconducting permanent magnet comprising a polycrystal that is a bulk material, wherein the polycrystal comprises alkali earth metal atoms, iron atoms, and pnictogen atoms, wherein the polycrystal comprises a crystalline grain smaller than about 10 μm, characterised in that the bulk material is disk-shaped.
A device for inserting or removing fluids in an oviduct of a sow, comprising: a rigid tubular body introduceable through a laparoscopic trocar; a flexible tube having opposite proximal and distal ends, said flexible tube located coaxially through the rigid tubular body; a beveled needle connected to said flexible tube distal end; one or more sheaths ( ) connected to said flexible tube proximal end; and one or more pistons correspondingly closing said one or more sheaths, wherein each of said one or more pistons slides through the inside of said one or more sheath(s) ( , ), wherein the flexible tube is configured to allow the beveled needle to be inserted in the oviduct at an angle of 45 degrees. a rigid tubular body introduceable through a laparoscopic trocar; a flexible tube having opposite proximal and distal ends, said flexible tube located coaxially through the rigid tubular body; a beveled needle connected to said flexible tube distal end; one or more sheaths ( ) connected to said flexible tube proximal end; and one or more pistons correspondingly closing said one or more sheaths, wherein each of said one or more pistons slides through the inside of said one or more sheath(s) ( , ), wherein the flexible tube is configured to allow the beveled needle to be inserted in the oviduct at an angle of 45 degrees.
A method for protecting a content delivery network, CDN, source station of a client, comprising: collecting an indicator parameter from a source station of a client, and collecting a dimension parameter from a CDN edge node, wherein the indicator parameter includes at least one of an IO consumption or a load consumption, and the dimension parameter includes a back-to-source bandwidth, a back-to-source request number, current connection data, back-to-source time, a back-to-source status code ratio, and a feature of an IP that requests the source station of the client; obtaining prediction data by processing the indicator parameter and the dimension parameter; determining a source station service status, of the source station , based on the prediction data; when the source station service status is abnormal, determining different abnormal conditions, and generating a corresponding control strategy in conjunction with the collected indicator parameter and dimension parameter; and executing the control strategy, wherein obtaining the prediction data includes: performing a calculation: a source station status value = an abnormal score of the back-to-source bandwidth + an abnormal score of the back-to-source request number + an abnormal score of the back-to-source time + an abnormal score of the back-to-source status code ratio + an abnormal score of a current source station connection number. collecting an indicator parameter from a source station of a client, and collecting a dimension parameter from a CDN edge node, wherein the indicator parameter includes at least one of an IO consumption or a load consumption, and the dimension parameter includes a back-to-source bandwidth, a back-to-source request number, current connection data, back-to-source time, a back-to-source status code ratio, and a feature of an IP that requests the source station of the client; obtaining prediction data by processing the indicator parameter and the dimension parameter; determining a source station service status, of the source station , based on the prediction data; when the source station service status is abnormal, determining different abnormal conditions, and generating a corresponding control strategy in conjunction with the collected indicator parameter and dimension parameter; and executing the control strategy, wherein obtaining the prediction data includes: performing a calculation: a source station status value = an abnormal score of the back-to-source bandwidth + an abnormal score of the back-to-source request number + an abnormal score of the back-to-source time + an abnormal score of the back-to-source status code ratio + an abnormal score of a current source station connection number.
A radar assembly comprising: a monolithic-microwave-integrated-circuit including an arrangement of solder-balls configured to couple radar-signals into or out of the monolithic-microwave-integrated-circuit ; an antenna-element that includes one or more radiation-slots configured to couple radar-signals into or out of the antenna-element , and a ridge-air-waveguide configured to propagate radar-signals to or from the one or more radiation-slots ; and a single printed-circuit-board directly attached to the monolithic-microwave-integrated-circuit , the single printed-circuit-board includes a transition-feature configured to couple radar-signals between the arrangement of solder-balls and the ridge-air-waveguide , wherein the transition-feature is a slot that extends between the arrangement of solder-balls and the ridge-air-waveguide , wherein either: the arrangement of solder-balls is a solder-ball-pair , and the transition-feature is an L-shaped-slot; or the arrangement of solder-balls is a solder-ball-trio , and the transition-feature is a U-shaped-slot. a monolithic-microwave-integrated-circuit including an arrangement of solder-balls configured to couple radar-signals into or out of the monolithic-microwave-integrated-circuit ; an antenna-element that includes one or more radiation-slots configured to couple radar-signals into or out of the antenna-element , and a ridge-air-waveguide configured to propagate radar-signals to or from the one or more radiation-slots ; and a single printed-circuit-board directly attached to the monolithic-microwave-integrated-circuit , the single printed-circuit-board includes a transition-feature configured to couple radar-signals between the arrangement of solder-balls and the ridge-air-waveguide , wherein the transition-feature is a slot that extends between the arrangement of solder-balls and the ridge-air-waveguide , wherein either: the arrangement of solder-balls is a solder-ball-pair , and the transition-feature is an L-shaped-slot; or the arrangement of solder-balls is a solder-ball-trio , and the transition-feature is a U-shaped-slot. the arrangement of solder-balls is a solder-ball-pair , and the transition-feature is an L-shaped-slot; or the arrangement of solder-balls is a solder-ball-trio , and the transition-feature is a U-shaped-slot.
A method for assessing receiver signal reception performance during wireless beam steering operation of a device under test, i.e., DUT, including a radio frequency data packet signal transceiver capable of multiple input, multiple output, i.e.,MIMO operation, the method comprising: transmitting a MIMO sounding packet, i.e.,SP via a wireless signal path environment for reception by said DUT ; receiving a response data packet related to said MIMO SP and containing matrix data representing a compressed beamforming feedback, i.e.,CBF, matrix V related to signal attenuation by said wireless signal path environment; processing said matrix data to produce processed data; repeating said transmitting, receiving and processing to produce a plurality of processed data; and computing, based on said plurality of processed data, a statistical variation among corresponding portions of said plurality of processed data. transmitting a MIMO sounding packet, i.e.,SP via a wireless signal path environment for reception by said DUT ; receiving a response data packet related to said MIMO SP and containing matrix data representing a compressed beamforming feedback, i.e.,CBF, matrix V related to signal attenuation by said wireless signal path environment; processing said matrix data to produce processed data; repeating said transmitting, receiving and processing to produce a plurality of processed data; and computing, based on said plurality of processed data, a statistical variation among corresponding portions of said plurality of processed data.
A pig launcher comprising a pig magazine , an end cap , a connector and a pig launching control system, the pig magazine being a tube element wherein two or more pigs can be arranged in succession front end to back end, the pig launching control system comprising two or more control lines in fluid communication with the pig magazine, characterised in the pig launching control system further comprises a pig selector having one inlet , two or more outlets and a rotatable selector element , the rotatable selector element enabling fluid communication from the inlet to one of the two or more outlets while closing the remaining outlets, the one inlet being in fluid communication with a control fluid source line , the two or more outlets each being in fluid communication with one of the two or more control lines , each of the two or more control lines providing control fluid to a preselected pig magazine inlet enabling the launch of one of two or more pigs positioned in the pig magazine .
An electronic device comprising a display apparatus and a camera module , wherein the display apparatus comprises: a pixel definition layer defined with a plurality of pixel holes in an array manner; a plurality of organic light emitters , each of the plurality of organic light emitters disposed in one of the plurality of pixel holes ; a common electrode layer covering the organic light emitters and the pixel definition layer ; and a filling layer comprising a plurality of filling members , each of the plurality of filling members disposed on one side of the common electrode layer away from the plurality of organic light emitters and opposite to one of the plurality of pixel holes ; wherein a difference between refractive indices of the pixel definition layer and each of the plurality of filling members is smaller than a difference between refractive indices of the pixel definition layer and vacuum; and characterized in that the camera module is at least partially disposed face to at least one of the plurality of pixel holes and configured to acquire an image through the display apparatus . a pixel definition layer defined with a plurality of pixel holes in an array manner; a plurality of organic light emitters , each of the plurality of organic light emitters disposed in one of the plurality of pixel holes ; a common electrode layer covering the organic light emitters and the pixel definition layer ; and a filling layer comprising a plurality of filling members , each of the plurality of filling members disposed on one side of the common electrode layer away from the plurality of organic light emitters and opposite to one of the plurality of pixel holes ; wherein a difference between refractive indices of the pixel definition layer and each of the plurality of filling members is smaller than a difference between refractive indices of the pixel definition layer and vacuum; and characterized in that the camera module is at least partially disposed face to at least one of the plurality of pixel holes and configured to acquire an image through the display apparatus .
A microscope drape for covering a surgical microscope , comprising: a lens cap that is attached to or detached from a housing of an objective lens of the surgical microscope; a protective lens that is attached to a distal end of the lens cap in a state of being inclined with respect to an optical axis (L) of the objective lens to protect the objective lens; a drape body ; and a joint that supports the protective lens with respect to the lens cap so as to change an inclination angle of the protective lens with respect to the optical axis; characterised in that , the drape body is attached to an outer periphery of the protective lens to cover, together with the lens cap, the surgical microscope. a lens cap that is attached to or detached from a housing of an objective lens of the surgical microscope; a protective lens that is attached to a distal end of the lens cap in a state of being inclined with respect to an optical axis (L) of the objective lens to protect the objective lens; a drape body ; and a joint that supports the protective lens with respect to the lens cap so as to change an inclination angle of the protective lens with respect to the optical axis; characterised in that , the drape body is attached to an outer periphery of the protective lens to cover, together with the lens cap, the surgical microscope.
An overlay metrology system , comprising: a controller including one or more processors configured to execute program instructions causing the one or more processors to: measure a first-layer pattern placement distance between a pattern of device scale features and a pattern of reference features on a first layer of an overlay target on a sample ; measure , subsequent to fabricating a second layer including at least the pattern of device scale features and the pattern of reference features a second-layer pattern placement distance between the pattern of device scale features and the pattern of reference features on the second layer; measure a reference overlay based on relative positions of the pattern of reference features on the first layer and the second layer, wherein dimensions of the pattern of reference features on the first layer are resolvable by an imaging system through the second layer; determine a device-relevant overlay for the pattern of device-scale features by adjusting the reference overlay with a difference between the first-layer pattern placement distance and the second-layer pattern placement distance; and provide overlay correctables based on the device-relevant overlay to a lithography system to modify exposure conditions of at least one subsequent exposure. measure a first-layer pattern placement distance between a pattern of device scale features and a pattern of reference features on a first layer of an overlay target on a sample ; measure , subsequent to fabricating a second layer including at least the pattern of device scale features and the pattern of reference features a second-layer pattern placement distance between the pattern of device scale features and the pattern of reference features on the second layer; measure a reference overlay based on relative positions of the pattern of reference features on the first layer and the second layer, wherein dimensions of the pattern of reference features on the first layer are resolvable by an imaging system through the second layer; determine a device-relevant overlay for the pattern of device-scale features by adjusting the reference overlay with a difference between the first-layer pattern placement distance and the second-layer pattern placement distance; and provide overlay correctables based on the device-relevant overlay to a lithography system to modify exposure conditions of at least one subsequent exposure.
A composition comprising minoxidil for use in a method for the treatment of hair loss or excessive hair shedding in a subject or for promoting hair growth in a subject by administering to a subject an effective dose of minoxidil through the sublingual mucosa.
Anti-burglary system for closed compartments , limited on all sides by delimiting walls , comprising one or more burglary sensors placed at at least one of the delimiting walls , means for dispensing a quick-curing foam inside the compartment and means for detecting and/or processing the signals generated by the sensors configured to generate an activation signal of the dispensing means, wherein the foam dispensing means comprise at least two tanks of a first and a second substance, which substances generate a quick-curing foam if mixed together, propulsion means of the liquids output from said tanks being included, and the outlets of the two tanks being connected to a mixing chamber from which at least one dispenser branches out which opens inside said closed compartment , characterized in that said tanks are comprised in respective removable units , a box provided with housing seats of said removable units being included, automated connecting means of each tank to said propulsion means and to said mixing chamber being included, which connecting means are housed in said box .