mhurhangee/ep-ind-claims huggingface dataset:
A method for counting objects characterized in that - a photosensitive assembly is used comprising at least one photoconducting element, and a source of uniform illumination for illuminating the photosensitive assembly, - a reference current (I E) is determined that is supplied by the photosensitive assembly for an illuminated region of this assembly corresponding to an elementary surface area (S E) which is a determined fraction of the surface area of the photosensitive assembly, - the objects to be counted are disposed against the photosensitive assembly, the photosensitive assembly is illuminated by the source, the objects disposed masking a part of the surface of the photosensitive assembly, - the current (I M) supplied by the assembly is measured, and the surface masked by the objects is determined, then the number of objects based on the measured current and on the reference current. - a photosensitive assembly is used comprising at least one photoconducting element, and a source of uniform illumination for illuminating the photosensitive assembly, - a reference current (I E) is determined that is supplied by the photosensitive assembly for an illuminated region of this assembly corresponding to an elementary surface area (S E) which is a determined fraction of the surface area of the photosensitive assembly, - the objects to be counted are disposed against the photosensitive assembly, the photosensitive assembly is illuminated by the source, the objects disposed masking a part of the surface of the photosensitive assembly, - the current (I M) supplied by the assembly is measured, and the surface masked by the objects is determined, then the number of objects based on the measured current and on the reference current.
A polypeptide having an immune-inducing activity and selected from the group of polypeptides (a) to (c) below: (a) polypeptides having an immune-inducing activity and consisting of 7 or more consecutive amino acids within the region of positions 24 to 97, positions 134 to 197, positions 265 to 332, positions 378 to 463, positions 472 to 498, positions 533 to 567, positions 613 to 643, positions 671 to 735, positions 737 to 780, positions 792 to 830, positions 832 to 899, positions 920 to 943, positions 946 to 993, or positions 1074 to 1215 in the amino acid sequence represented by SEQ ID NO: 2; (b) polypeptides consisting of the amino acid sequences represented by SEQ ID NOs: 7, 22, 36, 42, 63, and 64. (c) polypeptides comprising one, two or three amino acid deletions, substitutions and/or additions in the amino acid sequence of any one of the polypeptides (a) and (b) and which retain the immune-inducing activity of said polypeptides. (a) polypeptides having an immune-inducing activity and consisting of 7 or more consecutive amino acids within the region of positions 24 to 97, positions 134 to 197, positions 265 to 332, positions 378 to 463, positions 472 to 498, positions 533 to 567, positions 613 to 643, positions 671 to 735, positions 737 to 780, positions 792 to 830, positions 832 to 899, positions 920 to 943, positions 946 to 993, or positions 1074 to 1215 in the amino acid sequence represented by SEQ ID NO: 2; (b) polypeptides consisting of the amino acid sequences represented by SEQ ID NOs: 7, 22, 36, 42, 63, and 64. (c) polypeptides comprising one, two or three amino acid deletions, substitutions and/or additions in the amino acid sequence of any one of the polypeptides (a) and (b) and which retain the immune-inducing activity of said polypeptides.
A method of operation of a head mountable display system in which a stereoscopic image is displayed by a display screen of the HMD, in which the stereoscopic image is formed by a first image and a second image, the first image and the second image projected onto a virtual display screen, the first image and the second image including one or more objects, in which a position of the first image and a position of the second image on the display screen are adjustable in a lateral direction, in which a position at which the VDS for the stereoscopic image is observed by a user wearing the HMD is dependent upon a lateral displacement between the position of the first image and the position of the second image on the display screen, the method comprising the steps of: setting the position of the first image and the position of the second image on the display screen in response to a depth parameter of a region of interest in respect of the stereoscopic image for display to thereby set the position of the VDS for the stereoscopic image for display to be substantially equal to the depth represented by the depth parameter of the ROI in respect of the stereoscopic image for display; and generating the stereoscopic image, formed by the first and second images, for display having image parallax altered appropriate to the depth parameter of the ROI and the position of the VDS set by the setting step to display the ROI in respect of the stereoscopic image at a depth substantially equal to the depth represented by the depth parameter of the ROI, in which the generating step comprises image-shifting portions of the stereoscopic image to generate the stereoscopic image for display. setting the position of the first image and the position of the second image on the display screen in response to a depth parameter of a region of interest in respect of the stereoscopic image for display to thereby set the position of the VDS for the stereoscopic image for display to be substantially equal to the depth represented by the depth parameter of the ROI in respect of the stereoscopic image for display; and generating the stereoscopic image, formed by the first and second images, for display having image parallax altered appropriate to the depth parameter of the ROI and the position of the VDS set by the setting step to display the ROI in respect of the stereoscopic image at a depth substantially equal to the depth represented by the depth parameter of the ROI, in which the generating step comprises image-shifting portions of the stereoscopic image to generate the stereoscopic image for display.
A method of providing bristles for automated production of brushes, in particular toothbrushes or parts thereof, comprising - providing a plurality of bristles in a storage container, - applying oil to at least a part of the plurality of bristles in the storage container, - separating two or more bristles from the bristles to which the oil was applied in order to form a bristle tuft; - transporting at least one of the separated bristle tufts in a tube using an airflow; and - arranging the at least one bristle tuft in a pattern intended to form a bristle pattern of the brush to be produced. - providing a plurality of bristles in a storage container, - applying oil to at least a part of the plurality of bristles in the storage container, - separating two or more bristles from the bristles to which the oil was applied in order to form a bristle tuft; - transporting at least one of the separated bristle tufts in a tube using an airflow; and - arranging the at least one bristle tuft in a pattern intended to form a bristle pattern of the brush to be produced.
Device for pulsatility detection comprising: - an input interface for obtaining image data of a scene, said image data comprising a time sequence of image frames, - an extraction unit for extracting a time-varying signal indicative of a periodic physiological phenomenon from a region of interest of said image data, - a transformation unit for transforming said time-varying signal into a spectral signal, the device being characterised by further comprising: - a partitioning unit for partitioning the spectral signal into at least an in-band sub-signal covering a first frequency range of said spectral signal and an out-band sub-signal covering a second frequency range of said spectral signal, wherein said first frequency range comprises at least a frequency range of the periodic physiological phenomenon, - an analysis unit for separately deriving an in-band measure from the in-band sub-signal and an out-band measure from the out-band sub-signal, the in-band measure and the out-band measure representing a descriptor, and - a classifier for classifying said region of interest as a pulsatile region of a living being or as a non-pulsatile region based on the descriptor. - an input interface for obtaining image data of a scene, said image data comprising a time sequence of image frames, - an extraction unit for extracting a time-varying signal indicative of a periodic physiological phenomenon from a region of interest of said image data, - a transformation unit for transforming said time-varying signal into a spectral signal, - a partitioning unit for partitioning the spectral signal into at least an in-band sub-signal covering a first frequency range of said spectral signal and an out-band sub-signal covering a second frequency range of said spectral signal, wherein said first frequency range comprises at least a frequency range of the periodic physiological phenomenon, - an analysis unit for separately deriving an in-band measure from the in-band sub-signal and an out-band measure from the out-band sub-signal, the in-band measure and the out-band measure representing a descriptor, and - a classifier for classifying said region of interest as a pulsatile region of a living being or as a non-pulsatile region based on the descriptor.
A pharmaceutical composition comprising a compound represented by Formula: including a tautomer or a pharmaceutically acceptable salt thereof, wherein: n and m are each integers representing, independently, 1, 2, or 3; any one of R 1 to R 4 represents a substituent, independently in each occurrence being selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkoxy, hydroxy, thiohydroxy, thioalkoxy, aryloxy, thioaryloxy, amino, nitro, halo, trihalomethyl, cyano, amide, carboxy, sulfonamide, -S(=O)-R', and -S(=O) 2 -R', wherein R' is hydrogen, alkyl, cycloalkyl, alkenyl, aryl, heteroaryl (bonded through a ring carbon) or heteroalicyclic (bonded through a ring carbon); and any one of R 5a-c each represent C 1-6 alkyl. any one of R 1 to R 4 represents a substituent, independently in each occurrence being selected from the group consisting of hydrogen, alkyl, cycloalkyl, alkoxy, hydroxy, thiohydroxy, thioalkoxy, aryloxy, thioaryloxy, amino, nitro, halo, trihalomethyl, cyano, amide, carboxy, sulfonamide, -S(=O)-R', and -S(=O) 2 -R', wherein R' is hydrogen, alkyl, cycloalkyl, alkenyl, aryl, heteroaryl (bonded through a ring carbon) or heteroalicyclic (bonded through a ring carbon); and any one of R 5a-c each represent C 1-6 alkyl.
An implantable blood pump including an inflow cannula, the inflow cannula comprising: a malleable tube having an inflow portion a steering assembly coupled to the inflow portion of the tube, the tube includes a proximal portion and a distal portion opposite the proximal portion, and the steering assembly includes a first elongated member coupled to the distal portion of the tube and a second elongated member coupled to the proximal portion of the tube; an actuator coupled to the steering assembly for applying a force to the tube; and a cannula tip extending from the inflow portion of the tube and defining an aperture in fluid communication with the tube. a malleable tube having an inflow portion a steering assembly coupled to the inflow portion of the tube, the tube includes a proximal portion and a distal portion opposite the proximal portion, and the steering assembly includes a first elongated member coupled to the distal portion of the tube and a second elongated member coupled to the proximal portion of the tube; an actuator coupled to the steering assembly for applying a force to the tube; and a cannula tip extending from the inflow portion of the tube and defining an aperture in fluid communication with the tube.
A machine for positioning objects, comprising - a first conveyor belt configured to receive a plurality of objects; - machine vision means configured to identify the position and the shape of the objects arranged on the first conveyor belt; - robotic collection means configured to collect the objects from the first conveyor belt according to the information received from the machine vision means; - a second conveyor belt configured to enable the outlet of said objects; and - a transfer conveyor that has a plurality of transfer carriers (7, 7a, 7b, 7c) configured to move by means of magnetic induction in a closed loop through it enabling the speed and position thereof to be individually controlled, said transfer carriers (7, 7a, 7b, 7c) being configured to receive the objects coming from the robotic collection means and deliver said objects to the second conveyor belt, wherein the transfer conveyor is arranged in a tilted position (6 l) between the first conveyor belt and the second conveyor belt, and the transfer carriers (7, 7a, 7b, 7c) are configured to receive the objects coming from the robotic collection means in a horizontal position (O H) and deliver said objects to the second conveyor belt in a vertical position (Ov); or wherein the transfer conveyor is arranged in a vertical position between the first conveyor belt and the second conveyor belt, and the transfer carriers (7, 7a, 7b, 7c) are configured to receive the objects coming from the robotic collection means in an inverted vertical position (O IN) and deliver said objects to the second conveyor belt in a vertical position (Ov). - a first conveyor belt configured to receive a plurality of objects; - machine vision means configured to identify the position and the shape of the objects arranged on the first conveyor belt; - robotic collection means configured to collect the objects from the first conveyor belt according to the information received from the machine vision means; - a second conveyor belt configured to enable the outlet of said objects; and - a transfer conveyor that has a plurality of transfer carriers (7, 7a, 7b, 7c) configured to move by means of magnetic induction in a closed loop through it enabling the speed and position thereof to be individually controlled, said transfer carriers (7, 7a, 7b, 7c) being configured to receive the objects coming from the robotic collection means and deliver said objects to the second conveyor belt, wherein the transfer conveyor is arranged in a tilted position (6 l) between the first conveyor belt and the second conveyor belt, and the transfer carriers (7, 7a, 7b, 7c) are configured to receive the objects coming from the robotic collection means in a horizontal position (O H) and deliver said objects to the second conveyor belt in a vertical position (Ov); or wherein the transfer conveyor is arranged in a vertical position between the first conveyor belt and the second conveyor belt, and the transfer carriers (7, 7a, 7b, 7c) are configured to receive the objects coming from the robotic collection means in an inverted vertical position (O IN) and deliver said objects to the second conveyor belt in a vertical position (Ov).
Container unit for handling containers, suitable to be aggregated in a so-called nest and tub configuration, wherein the container unit is a nest configured to be arranged inside a tub, wherein the container unit comprises: - a support surface arranged with a plurality of seats, each of said seats being adapted to contain a container, each container being provided with a container data carrier adapted to contain a unique identifier of the container; - at least one container unit data carrier adapted to contain data of the containers contained in the seats, said data comprising the unique identifiers of each container, and the position of each container in the seats; characterised by comprising a nest locator provided on the surface of the container unit and adapted to be the reference for mapping the position of the containers in the seats. - a support surface arranged with a plurality of seats, each of said seats being adapted to contain a container, each container being provided with a container data carrier adapted to contain a unique identifier of the container; - at least one container unit data carrier adapted to contain data of the containers contained in the seats, said data comprising the unique identifiers of each container, and the position of each container in the seats;
Air filter assembly for cleaning an air stream for a commercial vehicle, in particular for an agricultural tractor, comprising a pre-filter, which communicates with an air inlet, and a first fine filter, which is provided downstream of the pre-filter in the direction of the air stream and, together with the pre-filter, is associated with an air filter portion which extends vertically in a predetermined installation position, wherein the first fine filter is followed in the direction of the air stream by a redundant second fine filter, which is associated with an air filter portion which extends horizontally in the predetermined installation position, characterized in that the horizontally extending air filter portion is part of a syphon-like line region which rises in a curved manner from the redundant second fine filter towards an air outlet.
Part of a motor vehicle made from plastic material, comprising at least one wall intended to be welded to a bodywork element, said wall comprising at least one protruding element defining a weld surface intended to form a point of contact with said bodywork element, characterised in that the part comprises, around said protruding element, at least one stress relief area for relieving stresses experienced by the protruding element.
An apparatus to produce hollow-core or solid slabs that apparatus consists of at least: a. mass feeding organ to feed mass into the apparatus, b. work space that is limited to at least certain stoppers, the hollow-core slab or solid slab and the bed to form the mentioned hollow-core or solid slab, c. in a row formation put screws (1a-1d) that have been set to rotate around their lengthwise axels to mix the mass and to move it to the space between the stoppers that form the outer limits (200.2) of the profile and the bottom and to tighten it there and as the continuation of the mentioned screws set bushes to form the hollows (200.1) in the slabs when the hollow-core slab is produced, wherein every screw (1a-1d) that are at least three have been set to rotate into the opposite direction than its neighbour screw, characterized in that the screws (1a-1d) are configured to change the rotation direction during the production process as time function. a. mass feeding organ to feed mass into the apparatus, b. work space that is limited to at least certain stoppers, the hollow-core slab or solid slab and the bed to form the mentioned hollow-core or solid slab, c. in a row formation put screws (1a-1d) that have been set to rotate around their lengthwise axels to mix the mass and to move it to the space between the stoppers that form the outer limits (200.2) of the profile and the bottom and to tighten it there and as the continuation of the mentioned screws set bushes to form the hollows (200.1) in the slabs when the hollow-core slab is produced,
A battery cell configured to have a structure in which an electrode assembly, comprising positive electrodes, negative electrodes, and separators disposed respectively between the positive electrodes and the negative electrodes and comprising a first unit cell and a second unit cell, is mounted in a battery case, wherein the battery case comprises an upper case and a lower case, the upper case being provided with a first receiving part, in which the first unit cell is received, the lower case being provided with a second receiving part, in which the second unit cell is received, the first receiving part and the second receiving part being configured to have structures of different planar sizes and being depressed, the battery case is made of a laminate sheet comprising a metal layer and a resin layer, the outer edges of the upper case and the lower case are coupled to each other in a sealed state, one side of the first receiving part and one side of the second receiving part are adjacent to each other in a vertical direction and electrode terminals are located at one side of the first receiving part and one side of the second receiving part adjacent to each other, and the first unit cell has an external shape corresponding to internal shapes of the first receiving part and the second unit cell has an external shape corresponding to the internal shape of the second receiving part, characterized in that each of the first unit cell and the second unit cell has electrode tabs coupled to corresponding electrode leads located between the upper case and the lower case to constitute battery cell electrode terminals. the battery case comprises an upper case and a lower case, the upper case being provided with a first receiving part, in which the first unit cell is received, the lower case being provided with a second receiving part, in which the second unit cell is received, the first receiving part and the second receiving part being configured to have structures of different planar sizes and being depressed, the battery case is made of a laminate sheet comprising a metal layer and a resin layer, the outer edges of the upper case and the lower case are coupled to each other in a sealed state, one side of the first receiving part and one side of the second receiving part are adjacent to each other in a vertical direction and electrode terminals are located at one side of the first receiving part and one side of the second receiving part adjacent to each other, and the first unit cell has an external shape corresponding to internal shapes of the first receiving part and the second unit cell has an external shape corresponding to the internal shape of the second receiving part,