mhurhangee/patent-ind-claim-en huggingface dataset:
A tool block for an agricultural machine having an axial direction (X) intended to coincide with a direction of movement of the agricultural machine, and a transverse direction (Y) along which a width of the tool block is defined, this transverse direction of the tool block being intended to coincide with a transverse direction of the agricultural machine orthogonal to the axial direction of movement, the tool block comprising: - a plurality of tools , - for each tool, a tool holder on which the tool is mounted, - a support rail extending along the transverse direction (Y), on which the tools can be mounted via their respective tool holder, said tool holder comprising means for coupling to the support rail allowing a movement of the tool holder relative to the support rail along the transverse direction (Y), which comprises: - a central control system containing microprocessor(s), - a human-machine interface connected to the central control system and configured to enable a user to enter a usage configuration that defines tools to be used from the plurality of tools of the tool block, and also a target position on the support rail for each of the tools to be used, - the tool block comprises motorized drive means configured to move each tool holder individually along the transverse direction (Y) on the support rail, the motorized drive means being controlled, directly or indirectly, by the central control system , - position-determining means for determining the position of each tool holder relative to the support rail along the transverse direction. - a plurality of tools , - for each tool, a tool holder on which the tool is mounted, - a support rail extending along the transverse direction (Y), on which the tools can be mounted via their respective tool holder, said tool holder comprising means for coupling to the support rail allowing a movement of the tool holder relative to the support rail along the transverse direction (Y), - a central control system containing microprocessor(s), - a human-machine interface connected to the central control system and configured to enable a user to enter a usage configuration that defines tools to be used from the plurality of tools of the tool block, and also a target position on the support rail for each of the tools to be used, - the tool block comprises motorized drive means configured to move each tool holder individually along the transverse direction (Y) on the support rail, the motorized drive means being controlled, directly or indirectly, by the central control system , - position-determining means for determining the position of each tool holder relative to the support rail along the transverse direction.
A computer-implemented method of producing a radiotherapy treatment plan for treatment of a patient with at least one treatment field, comprising at least one beam of charged particles, such as protons, in which each beam will deposit energy in a Bragg peak, including the steps, for each beam, of • determining a desired position of the Bragg peak for the beam, typically within a target • determining a desired path for the beam to reach the determined desired position, • determining an energy level and direction for the beam and a set of properties of a first magnetic field to be applied to the beam within the patient to control the direction of the beam to ensure that the beam will follow the desired path and that its Bragg peak will be placed in the determined desired position. • determining a desired position of the Bragg peak for the beam, typically within a target • determining a desired path for the beam to reach the determined desired position, • determining an energy level and direction for the beam and a set of properties of a first magnetic field to be applied to the beam within the patient to control the direction of the beam to ensure that the beam will follow the desired path and that its Bragg peak will be placed in the determined desired position.
A probe for testing an electrical property of a test sample , said probe comprising: - a probe body having a first side defining a substantially planar body surface, with a difference in height of less than 20 % between a highest and a lowest point, - a first cantilever extending from said probe body , and having a proximal end at said probe body and a distal end, said distal end being opposite to said proximal end, said first cantilever defining a first loop with respect to said probe body , the loop begins and ends on the probe body - at a first point and at a second point respectively, said first loop extending in a first plane substantially parallel to said planar body surface, with direction deviations of less than 10°, - a first contact probe being supported by said first cantilever , - a second contact probe being electrically insulated from said first contact probe , said second contact probe being supported by a second cantilever extending from said probe body towards said distal end, said second cantilever defining a second loop with respect to said probe body , said second loop extending in a second plane substantially parallel to said first plane, , with direction deviations of less than 10°, characterized in that said second loop being within a projection of said first loop onto said second plane. - a probe body having a first side defining a substantially planar body surface, with a difference in height of less than 20 % between a highest and a lowest point, - a first cantilever extending from said probe body , and having a proximal end at said probe body and a distal end, said distal end being opposite to said proximal end, said first cantilever defining a first loop with respect to said probe body , the loop begins and ends on the probe body - at a first point and at a second point respectively, said first loop extending in a first plane substantially parallel to said planar body surface, with direction deviations of less than 10°, - a first contact probe being supported by said first cantilever , - a second contact probe being electrically insulated from said first contact probe , - a first contact probe being supported by said first cantilever , - a second contact probe being electrically insulated from said first contact probe , said second contact probe being supported by a second cantilever extending from said probe body towards said distal end, said second cantilever defining a second loop with respect to said probe body , said second loop extending in a second plane substantially parallel to said first plane, , with direction deviations of less than 10°, characterized in that said second loop being within a projection of said first loop onto said second plane.
Method for detecting defects on a surface of a tyre, comprising: - providing the tyre having said surface; - acquiring at least one digital image of a portion of said surface, wherein each pixel of said image is associated with a luminosity value representative of the reflectivity and/or diffusivity and/or colour of a point of the surface corresponding to said each pixel; - calculating, for each pixel of said digital image, a first parameter representative of a second derivative calculated in said pixel on said luminosity values; - establishing whether each pixel belongs to a candidate defect as a function of said first parameter by comparing said first parameter with at least one first threshold value; - calculating, for each pixel of said digital image, a second parameter representative of a modulus of a gradient in said pixel and establishing whether each pixel belongs to a candidate defect also as a function of said second parameter by comparing said second parameter with a second threshold value; and - comparing the pixels candidate to be defects with a digital model of the surface portion without defects and detecting possible defects in said surface portion as a function of said comparison. - providing the tyre having said surface; - acquiring at least one digital image of a portion of said surface, wherein each pixel of said image is associated with a luminosity value representative of the reflectivity and/or diffusivity and/or colour of a point of the surface corresponding to said each pixel; - calculating, for each pixel of said digital image, a first parameter representative of a second derivative calculated in said pixel on said luminosity values; - establishing whether each pixel belongs to a candidate defect as a function of said first parameter by comparing said first parameter with at least one first threshold value; - calculating, for each pixel of said digital image, a second parameter representative of a modulus of a gradient in said pixel and establishing whether each pixel belongs to a candidate defect also as a function of said second parameter by comparing said second parameter with a second threshold value; and - comparing the pixels candidate to be defects with a digital model of the surface portion without defects and detecting possible defects in said surface portion as a function of said comparison.
A wearable device , wherein the wearable device comprises: a first sensing member , configured to obtain a capacitance value; a second sensing member , configured to measure temperature of the first sensing member as an initial temperature; and a processor , electrically connected to the first sensing member , wherein the processor is configured to read the capacitance value and determine a contact state of the wearable device according to the capacitance value; and the processor is further electrically connected to the second sensing member , and configured to read the initial temperature and, according to the contact state, directly take the initial temperature as a measured temperature, or match a corresponding temperature compensation value to the initial temperature and take a sum of the initial temperature and the temperature compensation value as a measured temperature, wherein a relationship between the temperature compensation value and the capacitance value satisfies a preset function. a first sensing member , configured to obtain a capacitance value; a second sensing member , configured to measure temperature of the first sensing member as an initial temperature; and a processor , electrically connected to the first sensing member , wherein the processor is configured to read the capacitance value and determine a contact state of the wearable device according to the capacitance value; and the processor is further electrically connected to the second sensing member , and configured to read the initial temperature and, according to the contact state, directly take the initial temperature as a measured temperature, or match a corresponding temperature compensation value to the initial temperature and take a sum of the initial temperature and the temperature compensation value as a measured temperature, wherein a relationship between the temperature compensation value and the capacitance value satisfies a preset function.
Drill rod element or drilling tool having a drill pipe coupling for coupling between the single drill rod elements or between one drill rod element and the drilling tool whereby the drill pipe coupling with - a sleeve-shaped coupling receptacle which is arranged at a first drill rod element or drilling tool, - a pegged coupling member which can be inserted axially into the coupling receptacle and which is arranged at a second drill rod element or drilling tool, and is provided with - at least one locking bolt , which is directed transversely to the axial direction of the coupling and, in a locked coupling position, extends between the coupling receptacle and the coupling member into a locking recess , - wherein the locking bolt is mounted radially adjustable between an unlocking position and a locking position, - wherein a clamping device is provided, with which the locking bolt is pressed into its locking position with a predetermined clamping force, and - wherein the locking bolt is connected to a restoring link by means of which the locking bolt can be reset into the unlocked position when a restoring force is applied. - a sleeve-shaped coupling receptacle which is arranged at a first drill rod element or drilling tool, - a pegged coupling member which can be inserted axially into the coupling receptacle and which is arranged at a second drill rod element or drilling tool, and is provided with - at least one locking bolt , which is directed transversely to the axial direction of the coupling and, in a locked coupling position, extends between the coupling receptacle and the coupling member into a locking recess , - wherein the locking bolt is mounted radially adjustable between an unlocking position and a locking position, - at least one locking bolt , which is directed transversely to the axial direction of the coupling and, in a locked coupling position, extends between the coupling receptacle and the coupling member into a locking recess , - wherein the locking bolt is mounted radially adjustable between an unlocking position and a locking position, - wherein a clamping device is provided, with which the locking bolt is pressed into its locking position with a predetermined clamping force, and - wherein the locking bolt is connected to a restoring link by means of which the locking bolt can be reset into the unlocked position when a restoring force is applied.
Method for operating an automation network , comprising a gateway device and a plurality of network devices , wherein the network devices subscribe to subscription data (AD 2 ) by means of a respective associated subscription identifier (AK 2 ) and publish publication data (PD 1 ) on the gateway device under a respective associated publication identifier (PK 1 ); wherein the gateway device publishes the publication data (PK 1 ) as subscribed subscription data (AD 1 ) under a respective subscription identifier (AK 1 ), which corresponds to the respective publication identifier (PK 1 ) of the publication data (PD 1 ), in such a way that to all network devices which subscribe to subscription data (AD 1 ) with the same subscription identifier (AK 1 ) as the respective publication identifier (PK 1 ), the subscribed subscription data (AD 1 ) are transmitted with the subscription identifier (AK 1 ); wherein the network devices comprise: a field device unit which subscribes to, collects and/or publishes measurement data (MD) and/or control data (SD), characterized in that the network devices further comprise a database device which subscribes to, stores, provides and/or publishes the measurement data (MD) and/or control data (SD) of the field device unit , device data (GD) about network devices present in the automation network , and user data (BD) about users of the network devices ; wherein the transmission of data (MD, SD, BD, GD) between the network devices takes place according to a single specified protocol, exclusively by subscribing and publishing via the gateway device .
Method for purging a fuel cell system in a switch-off process, wherein air is conveyed via an air conveying device and conveyed through and/or around a cathode compartment of a fuel cell and blown out again through an exhaust air line , wherein an anode outlet line is connected to the exhaust air line via an outlet valve , characterised in that the outlet valve is cyclically closed and opened in the switch-off process, wherein the opening duration depends on the conveyed air quantity and the conveyed air quantity is at least partially directed through a system bypass from the pressure side of the air conveying device directly to the exhaust air line .
An injection molding machine comprising: a ball screw shaft and a ball screw nut constituting a ball screw mechanism for converting a rotational motion into a linear motion; a rotation driving unit configured to rotate the ball screw shaft ; a shaft bearing ; and a lubricant supplying unit configured to supply lubricant, which is to be supplied to the shaft bearing , to the ball screw mechanism before supplying the lubricant to the shaft bearing , wherein the injection molding machine further comprises: a driving shaft and a motor , the rotation of which is transmitted to the driving shaft , the injection molding machine further comprising a moveable member , wherein in the moveable member , a through hole for inserting the injection ball screw shaft is formed, and the shaft bearing is disposed inside the through hole . a ball screw shaft and a ball screw nut constituting a ball screw mechanism for converting a rotational motion into a linear motion; a rotation driving unit configured to rotate the ball screw shaft ; a shaft bearing ; and a lubricant supplying unit configured to supply lubricant, which is to be supplied to the shaft bearing , to the ball screw mechanism before supplying the lubricant to the shaft bearing , wherein the injection molding machine further comprises: a driving shaft and a motor , the rotation of which is transmitted to the driving shaft , the injection molding machine further comprising a moveable member , wherein in the moveable member , a through hole for inserting the injection ball screw shaft is formed, and the shaft bearing is disposed inside the through hole . a driving shaft and a motor , the rotation of which is transmitted to the driving shaft , the injection molding machine further comprising a moveable member , wherein in the moveable member , a through hole for inserting the injection ball screw shaft is formed, and the shaft bearing is disposed inside the through hole .
An ultrasonic probe comprising: an ultrasonic transceiver configured to transmit an ultrasonic signal to an object and receive a signal reflected from the object ; a first display configured to receive information from a user or output information received from an ultrasonic diagnostic apparatus ; and a first controller configured to display a first picture on the first display when an operating state of the ultrasonic probe is switched to a standby state, wherein the first picture includes information regarding the operating state of the ultrasonic probe , and characterized in that the type of information regarding the operating state of the ultrasonic probe included in the first picture is configured to be set by the user, wherein the first display comprises an OLED (Organic Light-Emitting Device) panel , wherein the first controller is configured to control the first display to drive only pixels corresponding to the area in which the information regarding the operation state of the ultrasonic probe is displayed in the first picture. an ultrasonic transceiver configured to transmit an ultrasonic signal to an object and receive a signal reflected from the object ; a first display configured to receive information from a user or output information received from an ultrasonic diagnostic apparatus ; and a first controller configured to display a first picture on the first display when an operating state of the ultrasonic probe is switched to a standby state, wherein the first picture includes information regarding the operating state of the ultrasonic probe , and characterized in that the type of information regarding the operating state of the ultrasonic probe included in the first picture is configured to be set by the user, wherein the first display comprises an OLED (Organic Light-Emitting Device) panel , wherein the first controller is configured to control the first display to drive only pixels corresponding to the area in which the information regarding the operation state of the ultrasonic probe is displayed in the first picture.
A system for identifying Mura in a display, the system comprising: a memory; and a processor configured to execute instructions stored on the memory that, when executed by the processor, cause the processor to: pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches ; extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier ; wherein the generating a plurality of image patches comprises: identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate. a memory; and a processor configured to execute instructions stored on the memory that, when executed by the processor, cause the processor to: pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches ; extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier ; pre-process an input image of the display showing a test image, wherein the pre-processing an input image comprises generating a plurality of image patches ; extract a feature vector for each of the plurality of image patches, wherein the feature vector comprises at least one image moment feature and at least one texture feature; and classify each image patch based on a presence of a defect by providing the feature vector for each image patch to a machine learning classifier ; wherein the generating a plurality of image patches comprises: identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate. identifying at least one local maxima candidate in the input image; adding each identified local maxima candidate to a candidate list; and generating an image patch for each local maxima candidate in the candidate list, wherein each image patch is centered at the corresponding local maxima candidate.
A positioning system for position determination in a goods logistics facility, comprising a plurality of permanently installed anchor nodes (A1..A5) that represent reference points in a common coordinate system , wherein the positioning system is configured to determine a distance (d14) from a first anchor node (A1) to at least one second anchor node (A4), wherein the permanently installed anchor nodes (A1..A7) have each been assigned a position within the coordinate system and the positioning system is configured to measure the distance between a first anchor node (A6) and a second anchor node (A3) and to compare the measured distance value (dm) with a computed distance value (dc), the computed distance value (dc) being calculated from the assigned position of the first anchor node (A6) and the assigned position of the second anchor node (A3) within the coordinate system , characterized in that a deviation between the measured distance value (dm) and the computed distance value (dc) is defined as a plausibility criterion, and if the deviation exceeds a predetermined threshold value, the assigned position of the first and/or second anchor node (A6, A3) is classified as implausible.