mhurhangee/patent-ind-claim-en huggingface dataset:
A quality inspection method using an X-ray Talbot imaging system in which: an X-ray source configured to radiate an X-ray; a plurality of grids in each of which a plurality of slits (S) are arranged in a direction orthogonal to a radiation axis direction of the X-ray; a subject table on which an inspection object (H) is placed; and an X-ray detector are disposed side by side in the radiation axis direction, and that generates a reconstructed image of the inspection object on the basis of a moire image obtained by reading, at the X-ray detector, the X-ray radiated from the X-ray source and having passed through the plurality of grids and the inspection object placed on the subject table, wherein an arrangement surface of the respective plurality of slits (S) in the plurality of grids is orthogonal to the radiation axis of the X-ray, the inspection object is a three-dimensional laminated shaped product formed into a three-dimensional shape by laminating multiple layers of constituent material, and the X-ray Talbot imaging system generates the reconstructed image while the inspection object is placed on the subject table so that at least a direction in which the layers of the inspection object are laminated and a direction in which the plurality of slits of the plurality of grids are arranged are parallel to each other, and an inner state of the inspection object is inspected on the basis of the reconstructed image. an X-ray source configured to radiate an X-ray; a plurality of grids in each of which a plurality of slits (S) are arranged in a direction orthogonal to a radiation axis direction of the X-ray; a subject table on which an inspection object (H) is placed; and an X-ray detector are disposed side by side in the radiation axis direction, and that generates a reconstructed image of the inspection object on the basis of a moire image obtained by reading, at the X-ray detector, the X-ray radiated from the X-ray source and having passed through the plurality of grids and the inspection object placed on the subject table, wherein an arrangement surface of the respective plurality of slits (S) in the plurality of grids is orthogonal to the radiation axis of the X-ray, the inspection object is a three-dimensional laminated shaped product formed into a three-dimensional shape by laminating multiple layers of constituent material, and the X-ray Talbot imaging system generates the reconstructed image while the inspection object is placed on the subject table so that at least a direction in which the layers of the inspection object are laminated and a direction in which the plurality of slits of the plurality of grids are arranged are parallel to each other, and an inner state of the inspection object is inspected on the basis of the reconstructed image.
Elevator operating device for an elevator system comprising: a housing ; a display device arranged in the housing ; an input device arranged in the housing , and a control device arranged in the housing which is connected to the display device and the input device and which can be communicatively coupled to an elevator controller of the elevator system , characterized in that the control device controls the display device in such a way that it displays a single destination floor (L) permanently assigned to the elevator operating device and confirms an elevator call entered via the input device , an input of an elevator call at the elevator operating device generating a destination call which comprises data which, as the entry floor, indicates a floor (F1, F2) on which the elevator operating device is arranged, and specify as the destination floor (L) the destination floor (L) permanently assigned to the elevator operating device . a housing ; a display device arranged in the housing ; an input device arranged in the housing , and a control device arranged in the housing which is connected to the display device and the input device and which can be communicatively coupled to an elevator controller of the elevator system , characterized in that the control device controls the display device in such a way that it displays a single destination floor (L) permanently assigned to the elevator operating device and confirms an elevator call entered via the input device , an input of an elevator call at the elevator operating device generating a destination call which comprises data which, as the entry floor, indicates a floor (F1, F2) on which the elevator operating device is arranged, and specify as the destination floor (L) the destination floor (L) permanently assigned to the elevator operating device .
A drive cable for actuating a vehicle element which is mobile relative to a vehicle structure, the drive cable comprising a plastic cable body which has a toothing extending in the axial direction to become engaged with a driving gear wheel and is penetrated by a continuous reinforcement which extends in the axial direction, the toothing being formed by pocket-like recesses which are regularly spaced in the axial direction and limited by flanks of resulting tooth tips in the longitudinal direction of the cable and by pocket flanks on both sides in the transverse direction of the cable and each limited at the bottom by a tooth root which is penetrated by the continuous reinforcement characterized in that the tooth tips of the toothing are recessed in the direction of the cable body axis with respect to a circumferential surface defined by the cable body in the tooth-free portion and virtually continuous in the toothed portion so that the toothing is located entirely within the circumferential surface defined by the cable body , and the cable body is an extruded polymer element having a circular or oval cross-section, the reinforcement being arranged eccentrically with respect to a geometrical axis of the cable body and being offset to the side with respect to a longitudinal center plane of the toothing .
A ceramic substrate having a rectangular shape in a plan view, wherein, at a location deviating from an intersection (O) formed by a pair of diagonal lines of the ceramic substrate , at least one convex portion (CX) that is convex toward one side or the other side in a sheet thickness direction is formed, and a value obtained by dividing a maximum projection amount (Δz) of the at least one convex portion (CX) by a length of the diagonal line of the ceramic substrate is equal to or less than 2 pm/mm, characterized in that the convex portion (CX) having the maximum projection amount (Δz) among said convex portions (CX) that are convex toward one side or the other in the sheet thickness direction is at the outer peripheral edge portions of said ceramic substrate , wherein the diagonal lines have a length of 150 mm or more and the outer peripheral edge portion is an area within 3 mm from the outer edge of the ceramic substrate . wherein, at a location deviating from an intersection (O) formed by a pair of diagonal lines of the ceramic substrate , at least one convex portion (CX) that is convex toward one side or the other side in a sheet thickness direction is formed, and a value obtained by dividing a maximum projection amount (Δz) of the at least one convex portion (CX) by a length of the diagonal line of the ceramic substrate is equal to or less than 2 pm/mm, characterized in that the convex portion (CX) having the maximum projection amount (Δz) among said convex portions (CX) that are convex toward one side or the other in the sheet thickness direction is at the outer peripheral edge portions of said ceramic substrate , wherein the diagonal lines have a length of 150 mm or more and the outer peripheral edge portion is an area within 3 mm from the outer edge of the ceramic substrate .
Method for encoding an initial 2D barcode, comprising steps of: - generating or providing said initial 2D barcode, said initial 2D barcode comprising a set of individual binary modules and having a shape comprising a set of vertices; characterized in that it further comprises steps of: - replicating the initial 2D barcode to create as many copies (C1, C2, C3, C4) as the shape of the initial 2D barcode comprises vertices; - assembling the copies (C1, C2, C3, C4) of the initial 2D barcode in the form of a mosaic around a first reference mark ; - positioning a first graphical extraction window (FEG1), which acts as an optical shutter, such that the opening of said first graphical window (FEG1) simultaneously covers at least the centre of said first reference mark (O1) and at least one respective vertex of each copy (C1, C2, C3, C4) of the initial 2D barcode; and - sizing the first graphical window (FEG1) such that the sum of the surface area of the copies (C1, C2, C3, C4) of the initial 2D barcode that are covered by the opening of the first graphical window (FEG1) is greater than or equal to the surface area of the initial 2D barcode, said first graphical window (FEG1) having a predetermined shape, which may be any shape. - generating or providing said initial 2D barcode, said initial 2D barcode comprising a set of individual binary modules and having a shape comprising a set of vertices; - replicating the initial 2D barcode to create as many copies (C1, C2, C3, C4) as the shape of the initial 2D barcode comprises vertices; - assembling the copies (C1, C2, C3, C4) of the initial 2D barcode in the form of a mosaic around a first reference mark ; - positioning a first graphical extraction window (FEG1), which acts as an optical shutter, such that the opening of said first graphical window (FEG1) simultaneously covers at least the centre of said first reference mark (O1) and at least one respective vertex of each copy (C1, C2, C3, C4) of the initial 2D barcode; and - sizing the first graphical window (FEG1) such that the sum of the surface area of the copies (C1, C2, C3, C4) of the initial 2D barcode that are covered by the opening of the first graphical window (FEG1) is greater than or equal to the surface area of the initial 2D barcode, said first graphical window (FEG1) having a predetermined shape, which may be any shape.
A belt drier arrangement for drying an aqueous polymer gel and for comminuting the dried polymer gel to give dried polymer particles, having: - a belt drier having a drier setup and a conveyor belt for receiving and for drying the aqueous polymer gel to give a dry cake or fragments on a receiving surface (F) of the conveyor belt , - a comminution arrangement , disposed downstream of the drier setup in product flow direction, for comminution of the dried polymer gel of the dry cake or fragments to give dried comminuted polymer particles , where - the comminution arrangement has a comminutor in the form of a milling drum (38.1), and - the milling drum (38.1) is disposed with an upper working line (H) of a working edge (38.1R) of the milling drum (38.1) at the level of or above a receiving surface (F) of a conveyor belt , for mill processing of the dry cake or of the fragments , where the milling drum (38.1) is adapted to eject milled comminuted dried polymer particles of the dry cake or of the fragments in the downward direction, characterized in that a support for the dry cake or for the fragments is disposed between the conveyor belt and the milling drum (38.1), in an extension of the conveyor belt, where the support is arranged such that a front margin is left between a front edge of the support and a rear edge of the conveyor belt . - a belt drier having a drier setup and a conveyor belt for receiving and for drying the aqueous polymer gel to give a dry cake or fragments on a receiving surface (F) of the conveyor belt , - a comminution arrangement , disposed downstream of the drier setup in product flow direction, for comminution of the dried polymer gel of the dry cake or fragments to give dried comminuted polymer particles , where - the comminution arrangement has a comminutor in the form of a milling drum (38.1), and - the milling drum (38.1) is disposed with an upper working line (H) of a working edge (38.1R) of the milling drum (38.1) at the level of or above a receiving surface (F) of a conveyor belt , for mill processing of the dry cake or of the fragments , where the milling drum (38.1) is adapted to eject milled comminuted dried polymer particles of the dry cake or of the fragments in the downward direction, characterized in that a support for the dry cake or for the fragments is disposed between the conveyor belt and the milling drum (38.1), in an extension of the conveyor belt, where the support is arranged such that a front margin is left between a front edge of the support and a rear edge of the conveyor belt . a support for the dry cake or for the fragments is disposed between the conveyor belt and the milling drum (38.1), in an extension of the conveyor belt, where the support is arranged such that a front margin is left between a front edge of the support and a rear edge of the conveyor belt .
Cosmetic and/or dermatological composition, comprising an aqueous phase and an oily phase which are distinct from each other and are superimposed on each other, characterized in that the aqueous phase contains an amount of between 0.05 and 0.2% by weight, with respect to the total weight of the composition, of an encapsulating agent for encapsulating the oily phase, chosen from dextrins.
Biometric system (FBS) comprising a sensor (FS) and a secure execution environment (SEE), SEE, as separate physical components, said biometric system being intended to be used in cooperation with a biometric application (BA), wherein said secure execution environment (SEE) comprises a data processing component (DP) and a secure memory (SEM) storing data enabling to access calibration data as determined at the time of the physical pairing of the sensor (FS) and the secure execution environment (SEE), said data processing component (DP) being configured to use the calibration data as retrieved when raw biometric data are received from the sensor (FS) to produce biometric sample to be used in the biometric application (BA), characterized in that the secure memory (SEM) is configured to store calibration data (CD) obtained from the sensor (FS) at the time of the physical pairing of the sensor (FS) and the secure execution environment (SEE), said data processing component (DP) is configured to use the calibration data as stored in the secure execution environment (SEE) when raw biometric data are received from the sensor (FS) to produce biometric sample to be used in the biometric application (BA), the calibration data (CD) being erased from the sensor (FS), after it has been read by the SEE at the time of physical pairing.
An air-conditioning apparatus comprising: a refrigerant circuit in which a compressor , a heat-source-side heat exchanger , an expansion unit , and a load-side heat exchanger are connected by refrigerant pipes , and refrigerant flows, the compressor being configured to compress the refrigerant, the heat-source-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a heat-source heat medium, the expansion unit being configured to expand the refrigerant, the load-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a load heat medium; a heat medium circuit in which a flow control valve and the heat-source-side heat exchanger are connected by a heat medium pipe , and the heat-source heat medium flows, the flow control valve being configured to regulate a flow rate of the heat-source heat medium; a controller including a storage unit configured to store data indicating a defined maximum flow rate and a defined minimum flow rate of the heat-source heat medium that flows in the heat medium circuit ; and a flow rate sensor provided at the heat medium pipe and configured to detect a flow rate of the heat-source heat medium that flows in the heat medium circuit , wherein the controller further includes an opening-degree setting unit configured to set a maximum opening degree and a minimum opening degree of the flow control valve , based on the flow rate detected by the flow rate sensor and the defined maximum flow rate and the defined minimum flow rate both stored as the data in the storage unit . a refrigerant circuit in which a compressor , a heat-source-side heat exchanger , an expansion unit , and a load-side heat exchanger are connected by refrigerant pipes , and refrigerant flows, the compressor being configured to compress the refrigerant, the heat-source-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a heat-source heat medium, the expansion unit being configured to expand the refrigerant, the load-side heat exchanger being configured to cause heat exchange to be performed between the refrigerant and a load heat medium; a heat medium circuit in which a flow control valve and the heat-source-side heat exchanger are connected by a heat medium pipe , and the heat-source heat medium flows, the flow control valve being configured to regulate a flow rate of the heat-source heat medium; a controller including a storage unit configured to store data indicating a defined maximum flow rate and a defined minimum flow rate of the heat-source heat medium that flows in the heat medium circuit ; and a flow rate sensor provided at the heat medium pipe and configured to detect a flow rate of the heat-source heat medium that flows in the heat medium circuit , wherein the controller further includes an opening-degree setting unit configured to set a maximum opening degree and a minimum opening degree of the flow control valve , based on the flow rate detected by the flow rate sensor and the defined maximum flow rate and the defined minimum flow rate both stored as the data in the storage unit .
A trocar assembly , comprising: a trocar housing that defines a working chamber ; a cannula having a proximal end and a distal end , wherein the cannula is coupled to the trocar housing at the proximal end to facilitate communication between the cannula and the working chamber; and a radial support assembly arranged at or near the distal end and including a plurality of radial support members that extend radially inward toward a centerline of the cannula to center a surgical tool (602a-c) within the cannula and thereby minimize unintended oscillation and vibration of the surgical tool; characterized in that each radial support member further defines an inner surface engageable with an outer radial surface of the surgical tool, and wherein each inner surface transitions into a beveled surface that helps the radial support assembly receive the surgical tool, and wherein the cannula includes a first cannula portion and a second cannula portion separated by a gap , and the trocar assembly further comprises: a plurality of support columns extending between and connecting the first and second cannula portions, wherein each radial support member is arranged within the gap and mounted to a corresponding one of the plurality of support columns. a trocar housing that defines a working chamber ; a cannula having a proximal end and a distal end , wherein the cannula is coupled to the trocar housing at the proximal end to facilitate communication between the cannula and the working chamber; and a radial support assembly arranged at or near the distal end and including a plurality of radial support members that extend radially inward toward a centerline of the cannula to center a surgical tool (602a-c) within the cannula and thereby minimize unintended oscillation and vibration of the surgical tool; characterized in that each radial support member further defines an inner surface engageable with an outer radial surface of the surgical tool, and wherein each inner surface transitions into a beveled surface that helps the radial support assembly receive the surgical tool, and wherein the cannula includes a first cannula portion and a second cannula portion separated by a gap , and the trocar assembly further comprises: a plurality of support columns extending between and connecting the first and second cannula portions, wherein each radial support member is arranged within the gap and mounted to a corresponding one of the plurality of support columns.
A gun, in particular a carbine, comprising an upper housing and a lower housing , the upper housing containing at least one barrel comprising a barrel shaft , optionally comprising a locking bush that is rigidly connected to said shaft, optionally a carrier connected to the upper housing for carrying a bolt mechanism , a bolt mechanism , a firing pin mechanism, optionally a gas mechanism and a cover, the lower housing containing at least one butt , a magazine and a trigger mechanism , the upper housing and the lower housing being interconnected in the assembled ready-to-fire state and the trigger mechanism being operatively connected to the firing pin mechanism, and the barrel being detachably arranged in the upper housing , characterized in that the barrel , optionally the locking bush thereof, and the upper housing , optionally the carrier , are interconnected by means of corresponding guides provided on the upper housing, optionally on the carrier , and on the barrel, optionally on the locking bush , in that the guides comprise prismatic guide surfaces , which extend in parallel with the barrel shaft when the gun is mounted and ready to fire, in that the barrel is secured to the upper housing by means of a tensioning element mounted in the upper housing, optionally in the carrier , that can rotate in the upper housing about an axis of rotation , which extends normally with respect to the gun center plane, between two end positions, the ready-to-fire position and the disassembled position, comprising a tensioning portion , optionally in the form of a cam, and an actuating portion , and in that , in the ready-to-fire position, the tensioning portion rests against a stop surface of the barrel or the locking bush thereof and, in the fieldstripped position, the tensioning portion , optionally the cam, lies entirely outside the motion path of the barrel , optionally also the locking bush thereof.
An acoustic echo cancellation unit, comprising: an audio processor configured to receive a multichannel audio signal (MS) and characterised by comprising: a first stage which is configured to process the multichannel audio signal (MS) to obtain a first set (SC_1) of spatial audio components representing an interim signal, wherein the first stage is configured to perform a non-linear processing or a time-varying processing, or a highly time-varying processing, to obtain the first set (SC_1) of spatial audio components; and a second stage which is configured to process the first set (SC_1) of spatial audio components to obtain a second set (SC_ 2) of spatial audio components representing loudspeaker playback signals; an echo cancellation processor configured to perform echo cancellation by use of the first set (SC_1) of spatial audio components or a deviated version of the first set (SC_1) of spatial audio components as reference signal (RS) and by use of at least one received microphone signal; wherein the deviated version is obtained by use of a spatial component combiner, by performing a linear processing. a first stage which is configured to process the multichannel audio signal (MS) to obtain a first set (SC_1) of spatial audio components representing an interim signal, wherein the first stage is configured to perform a non-linear processing or a time-varying processing, or a highly time-varying processing, to obtain the first set (SC_1) of spatial audio components; and a second stage which is configured to process the first set (SC_1) of spatial audio components to obtain a second set (SC_ 2) of spatial audio components representing loudspeaker playback signals; an echo cancellation processor configured to perform echo cancellation by use of the first set (SC_1) of spatial audio components or a deviated version of the first set (SC_1) of spatial audio components as reference signal (RS) and by use of at least one received microphone signal; wherein the deviated version is obtained by use of a spatial component combiner, by performing a linear processing.