mhurhangee/patent-ind-claim-en huggingface dataset:
A method for testing for changes in a number of display devices , the method comprising: receiving images displayed on the number of display devices by a computer system for a platform during a performance of a number of tests at a number of test locations for the platform; and identifying a portion of the images from the images in which changes are identified as a number of images of interest using a policy , wherein the identifying step comprises: comparing a number of areas in a first image in the images with the number of areas in a second image in the images, wherein the second image is subsequent to the first image; determining whether a percentage of changed pixels between the number of areas in the first image and the second image meets a threshold; and responsive to a determination that the percentage of changed pixels between the number of areas in the first image and the second image meets the threshold, identifying the second image as an image of interest. receiving images displayed on the number of display devices by a computer system for a platform during a performance of a number of tests at a number of test locations for the platform; and identifying a portion of the images from the images in which changes are identified as a number of images of interest using a policy , wherein the identifying step comprises: comparing a number of areas in a first image in the images with the number of areas in a second image in the images, wherein the second image is subsequent to the first image; determining whether a percentage of changed pixels between the number of areas in the first image and the second image meets a threshold; and responsive to a determination that the percentage of changed pixels between the number of areas in the first image and the second image meets the threshold, identifying the second image as an image of interest.
An apparatus for executing a comparison operation on vectors, comprising: a storing unit, configured to store vector data associated with a vector comparison operation instruction; a register unit, configured to store scalar data associated with the vector comparison operation instruction; a control unit, configured to decode the vector comparison operation instruction and to control an operation process of the vector comparison operation instruction; and a vector comparing unit, configured to execute a vector comparison operation on two input vector data to be compared according to the vector comparison operation instruction decoded; the vector comparing unit being implemented in a customized hardware circuit; characterised in that the scalar data stored in the register unit comprise start addresses of the input vector data to be compared, a storage address of comparison result output vector data, and lengths of the input vector data to be compared associated with the vector comparison operation instruction; wherein the start addresses of the input vector data to be compared and the storage address of the comparison result output vector data are addresses in the storing unit. a storing unit, configured to store vector data associated with a vector comparison operation instruction; a register unit, configured to store scalar data associated with the vector comparison operation instruction; a control unit, configured to decode the vector comparison operation instruction and to control an operation process of the vector comparison operation instruction; and a vector comparing unit, configured to execute a vector comparison operation on two input vector data to be compared according to the vector comparison operation instruction decoded; the vector comparing unit being implemented in a customized hardware circuit; characterised in that the scalar data stored in the register unit comprise start addresses of the input vector data to be compared, a storage address of comparison result output vector data, and lengths of the input vector data to be compared associated with the vector comparison operation instruction; wherein the start addresses of the input vector data to be compared and the storage address of the comparison result output vector data are addresses in the storing unit.
Switching device for contacting an electrical assembly , having several interface modules for electrically contacting signal devices , and having several connection lines which are connected to the electrical assembly , at least one switching bridge being provided and the at least one switching bridge being movable between the interface modules , in order to establish a connection between one of the interface modules and one or more connection lines , wherein the interface modules have contacts which correspond to corresponding mating contacts of the at least one switching bridge , wherein the interface modules have at least two different contact types for forming the contacts and the at least one switching bridge has at least two different contact types for forming the mating contacts .
A management system for an access of an electronic device to a host, comprising: a docking station device , comprising: an interface , configured to receive a signal (SGO) of the electronic device ; a hub controller , coupled to the interface and the host ; a control circuit , coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data (TD0); and an Internet-of-Thing transceiver circuit , coupled to the control circuit ; and a backend server , communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data (TDO) received, through the Internet-of-Thing transceiver circuit, from the docking station device , characterized in that : the hub controller determines whether the electronic device has high or low transmission speed based on the signal (SGO) of the electronic device received from the interface; and the hub controller determines whether or not the electronic device may access the host immediately based on a determination result of the electronic device having high transmission speed or low transmission speed. a docking station device , comprising: an interface , configured to receive a signal (SGO) of the electronic device ; a hub controller , coupled to the interface and the host ; a control circuit , coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data (TD0); and an Internet-of-Thing transceiver circuit , coupled to the control circuit ; and a backend server , communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data (TDO) received, through the Internet-of-Thing transceiver circuit, from the docking station device , characterized in that : an interface , configured to receive a signal (SGO) of the electronic device ; a hub controller , coupled to the interface and the host ; a control circuit , coupled to the hub controller and configured to identify the type of the electronic device so as to generate type data (TD0); and an Internet-of-Thing transceiver circuit , coupled to the control circuit ; and a backend server , communicatively connected to the Internet-of-Thing transceiver circuit and configured to determine whether the electronic device has the permission to access the host according to the type data (TDO) received, through the Internet-of-Thing transceiver circuit, from the docking station device , characterized in that : the hub controller determines whether the electronic device has high or low transmission speed based on the signal (SGO) of the electronic device received from the interface; and the hub controller determines whether or not the electronic device may access the host immediately based on a determination result of the electronic device having high transmission speed or low transmission speed.
Battery pack for a vacuum cleaner , characterised by: - a battery management system (BMS); - a wake-up circuit having an acceleration sensor ; - the battery management system (BMS) having at least one operating mode, in which battery current is provided for the vacuum cleaner , and a sleep mode, in which no battery current is provided for the vacuum cleaner ; and - the wake-up circuit being designed to switch the battery management system (BMS) from the sleep mode to the operating mode on the basis of a first acceleration pattern detected by the acceleration sensor . - a battery management system (BMS); - a wake-up circuit having an acceleration sensor ; - the battery management system (BMS) having at least one operating mode, in which battery current is provided for the vacuum cleaner , and a sleep mode, in which no battery current is provided for the vacuum cleaner ; and - the wake-up circuit being designed to switch the battery management system (BMS) from the sleep mode to the operating mode on the basis of a first acceleration pattern detected by the acceleration sensor .
Fill level sensor for detecting a level of a fill medium in a container, - wherein the fill level sensor comprises a generator having a feed line , an antenna , a supply and a controller , - wherein the generator is designed to generate electromagnetic waves having a resonant frequency and output the electromagnetic waves via the feed line having a line impedance with a line impedance value, - wherein the supply is arranged between the feed line and the antenna and is designed to transmit the electromagnetic waves from the feed line to the antenna , characterized in - that the antenna is designed to radiate the electromagnetic waves into a container with a fill medium, - that a transmission of the electromagnetic waves occurs in a transmission direction from the feed line via the supply to the antenna , - that the controller is designed to detect a change of electromagnetic waves radiated by the antenna in a near field around the antenna by a fill level change of a fill medium in a container and to detect a fill level of the fill medium in the container by evaluating the detected change in the near field, - that the supply has a resonant circuit , - that the resonant circuit and the antenna together have a resonant input impedance (Z R ) in the transmission direction , and the resonant circuit transforms the resonant input impedance (Z R ) at the resonant frequency into a real impedance having a predetermined resonant impedance value, and - that the antenna has an antenna resonant frequency different from the resonant frequency. - wherein the fill level sensor comprises a generator having a feed line , an antenna , a supply and a controller , - wherein the generator is designed to generate electromagnetic waves having a resonant frequency and output the electromagnetic waves via the feed line having a line impedance with a line impedance value, - wherein the supply is arranged between the feed line and the antenna and is designed to transmit the electromagnetic waves from the feed line to the antenna , characterized in - that the antenna is designed to radiate the electromagnetic waves into a container with a fill medium, - that a transmission of the electromagnetic waves occurs in a transmission direction from the feed line via the supply to the antenna , - that the controller is designed to detect a change of electromagnetic waves radiated by the antenna in a near field around the antenna by a fill level change of a fill medium in a container and to detect a fill level of the fill medium in the container by evaluating the detected change in the near field, - that the supply has a resonant circuit , - that the resonant circuit and the antenna together have a resonant input impedance (Z R ) in the transmission direction , and the resonant circuit transforms the resonant input impedance (Z R ) at the resonant frequency into a real impedance having a predetermined resonant impedance value, and - that the antenna has an antenna resonant frequency different from the resonant frequency.
A geometric art toy comprising: a plurality of first toy members formed as tetrahedrons, each first toy member comprising a magnet (); and a plurality of second toy members formed as tetrahedrons, each second toy member comprising a magnet ) ; wherein the plurality of first toy members and the plurality of second toy members are connected together, wherein, in a first configuration, the magnet of one first toy member magnetically couples with the magnet of one second toy member through the first faces thereof, and wherein, in a second configuration, the magnet of the one first toy member magnetically couples with the magnet of another second toy member through the second faces thereof, characterized in that the magnet of each first toy member is movably positioned in a cradle , wherein the magnet alternatingly exhibits a first polarity through a first face and a second face of the first toy member , and the magnet of each second toy member is movably positioned in a cradle , wherein the magnet alternatingly exhibits a second polarity that is different from the first polarity through a first face and a second face of the second toy member . a plurality of first toy members formed as tetrahedrons, each first toy member comprising a magnet (); and a plurality of second toy members formed as tetrahedrons, each second toy member comprising a magnet ) ; wherein the plurality of first toy members and the plurality of second toy members are connected together, wherein, in a first configuration, the magnet of one first toy member magnetically couples with the magnet of one second toy member through the first faces thereof, and wherein, in a second configuration, the magnet of the one first toy member magnetically couples with the magnet of another second toy member through the second faces thereof, wherein, in a first configuration, the magnet of one first toy member magnetically couples with the magnet of one second toy member through the first faces thereof, and wherein, in a second configuration, the magnet of the one first toy member magnetically couples with the magnet of another second toy member through the second faces thereof, characterized in that the magnet of each first toy member is movably positioned in a cradle , wherein the magnet alternatingly exhibits a first polarity through a first face and a second face of the first toy member , and the magnet of each second toy member is movably positioned in a cradle , wherein the magnet alternatingly exhibits a second polarity that is different from the first polarity through a first face and a second face of the second toy member .
Device provided with a touch screen comprising an outer screen for the touch by a user, a LCD screen , and a plurality of LEDs located below said outer screen for the backlighting of said LCD screen , wherein at least one of said backlight LEDs is an UV-LED , said device comprising guiding means to guide UV rays , emitted by said at least one UV-LED , towards the outer surface of said outer screen to sterilize said outer surface of said touch screen , characterized in that said guiding means comprise at least one reflector , located in one or more sides of said touch screen , said at least one reflector protruding from the outer surface of the touch screen in order to reflect the UV rays emitted by said at least one UV-LED towards the outer surface of the touch screen .
Glass pane having an electrical heating assembly (H) suitable for use with an operating voltage of more than 14 V, - wherein at least one part of the heating assembly (H) is also suitable for acting as an antenna (ANT), characterized in, that - the heating assembly has at least one first number of electrically conductive meandering sections (A 1 ) and a second number of electrically conductive meandering sections (A 2 ), - wherein the meandering sections within the first number or within the second number, respectively, are arranged parallel to one another substantially in a first orientation, - wherein the respective beginnings and ends of the meandering sections within the first number or within the second number, each end at a common electrical conductor (L 1 , L 2 , L 3 ), which extends in each case substantially perpendicular to the first orientation, - wherein at least one of the electrical conductors (L 2 ; L 2 , L 3 ) extended substantially perpendicular to the first orientation acts as an antenna (ANT), - wherein the at least one of the electrical conductors (L 2 ; L 2 , L 3 ) extended substantially perpendicular to the first orientation, which acts as an antenna (ANT), has, during use with the operating voltage, a potential different from the operating voltage. - wherein at least one part of the heating assembly (H) is also suitable for acting as an antenna (ANT), characterized in, that - the heating assembly has at least one first number of electrically conductive meandering sections (A 1 ) and a second number of electrically conductive meandering sections (A 2 ), - wherein the meandering sections within the first number or within the second number, respectively, are arranged parallel to one another substantially in a first orientation, - wherein the respective beginnings and ends of the meandering sections within the first number or within the second number, each end at a common electrical conductor (L 1 , L 2 , L 3 ), which extends in each case substantially perpendicular to the first orientation, - wherein at least one of the electrical conductors (L 2 ; L 2 , L 3 ) extended substantially perpendicular to the first orientation acts as an antenna (ANT), - wherein the at least one of the electrical conductors (L 2 ; L 2 , L 3 ) extended substantially perpendicular to the first orientation, which acts as an antenna (ANT), has, during use with the operating voltage, a potential different from the operating voltage.
A tire comprising: a circumferential tread including a first circumferential groove and a second circumferential groove that define a rib extending in a circumferential direction circumscribing an axis of rotation (A), the rib including a transverse groove disposed in the rib and extending from a first end at the first circumferential groove to a second end at the second circumferential groove , wherein a depth of the transverse groove is defined between an outer surface of the rib and a bottom surface of the transverse groove in a radial direction perpendicular to the axis of rotation (A), and wherein the depth of the transverse groove decreases linearly in a direction parallel to the axis of rotation (A) from the first end of the transverse groove to the second end of the transverse groove; and a plurality of protrusions protruding from the bottom surface of the transverse groove . a circumferential tread including a first circumferential groove and a second circumferential groove that define a rib extending in a circumferential direction circumscribing an axis of rotation (A), the rib including a transverse groove disposed in the rib and extending from a first end at the first circumferential groove to a second end at the second circumferential groove , wherein a depth of the transverse groove is defined between an outer surface of the rib and a bottom surface of the transverse groove in a radial direction perpendicular to the axis of rotation (A), and wherein the depth of the transverse groove decreases linearly in a direction parallel to the axis of rotation (A) from the first end of the transverse groove to the second end of the transverse groove; and a plurality of protrusions protruding from the bottom surface of the transverse groove .
A binding assay for in vitro analysis of a meningococcal protein-containing vaccine sample from a batch of final vaccine in the form in which it would be released to the public, comprising the steps of: (i) permitting a meningococcal protein immunogen within the vaccine sample to interact with a monoclonal antibody which either (a) is bactericidal for meningococcus or (b) recognises a conformational epitope in the meningococcal immunogen; then (ii) measuring the interaction between the meningococcal immunogen and antibody from step (i), wherein the binding assay is an ELISA, wherein the sample is analysed in the form in which it is taken from the batch, either at full strength or after dilution, wherein the vaccine includes meningococcal fHbp antigen, and wherein the monoclonal antibody used in step (i) which recognises the meningococcal fHbp antigen is selected from: 12C1/D7, whose V L region has the amino acid sequence of SEQ ID NO: 21 and whose V H region has the amino acid sequence of SEQ ID NO: 22; 11F10/G6, whose V L region has the amino acid sequence of SEQ ID NO: 23 and whose V H region has the amino acid sequence of SEQ ID NO: 24; 30G11/H3, whose V L region has the amino acid sequence of SEQ ID NO: 25 and whose V H region has the amino acid sequence of SEQ ID NO: 26; and 14B3/D4, whose V L region has the amino acid sequence of SEQ ID NO: 27 and whose V H region has the amino acid sequence of SEQ ID NO: 28. (i) permitting a meningococcal protein immunogen within the vaccine sample to interact with a monoclonal antibody which either (a) is bactericidal for meningococcus or (b) recognises a conformational epitope in the meningococcal immunogen; then (ii) measuring the interaction between the meningococcal immunogen and antibody from step (i), 12C1/D7, whose V L region has the amino acid sequence of SEQ ID NO: 21 and whose V H region has the amino acid sequence of SEQ ID NO: 22; 11F10/G6, whose V L region has the amino acid sequence of SEQ ID NO: 23 and whose V H region has the amino acid sequence of SEQ ID NO: 24; 30G11/H3, whose V L region has the amino acid sequence of SEQ ID NO: 25 and whose V H region has the amino acid sequence of SEQ ID NO: 26; and 14B3/D4, whose V L region has the amino acid sequence of SEQ ID NO: 27 and whose V H region has the amino acid sequence of SEQ ID NO: 28.
A user posture support device to support a user in a pre-determined posture, comprising: a base comprising a first memory foam layer , a second memory foam layer and a sensor layer , wherein the sensor layer comprises multiple pressure sensors and is disposed in between the first memory foam layer and the second memory foam layer; multiple compressible cells disposed on the first memory foam layer of the base, wherein the multiple compressible cells comprise a first compressible cell and a second compressible cell; and a pressure control device configured, based on inputs from at least one pressure sensor of the multiple pressure sensors, to: inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user. a base comprising a first memory foam layer , a second memory foam layer and a sensor layer , wherein the sensor layer comprises multiple pressure sensors and is disposed in between the first memory foam layer and the second memory foam layer; multiple compressible cells disposed on the first memory foam layer of the base, wherein the multiple compressible cells comprise a first compressible cell and a second compressible cell; and a pressure control device configured, based on inputs from at least one pressure sensor of the multiple pressure sensors, to: inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user. inflate and/or deflate the first compressible cell at a first contact area of the user; and inflate and/or deflate the second compressible cell at a second contact area of the user.