mhurhangee/patent-ind-claim-en huggingface dataset:
Method for maintaining an axial-flow turbomachine , which has a support structure and a plurality of axially adjacent guide vane rings , each having a multiplicity of guide vanes , wherein the guide vanes are each provided with at least one platform , which is fastened to the support structure by means of retaining elements , wherein mutually facing platform end faces of axially adjacent guide vanes define mutually associated seal sections made of a metal material, which in each case jointly form a seal assembly , comprising the following steps: a) removal of a defective guide vane to be replaced and of at least one axially adjacent intact guide vane with which the guide vane to be replaced forms a seal assembly , wherein the seal sections forming this seal assembly each have a projection which extends in the circumferential direction (U), projects axially and engages in an associated recess in the other seal section , said recess extending in the circumferential direction (U); b) making available a replacement guide vane replacing the removed defective guide vane , the platform of which replacement guide vane defines at least one replacement seal section made from a metal material, wherein the at least one replacement seal section comprises two axially projecting projections of equal length which extend in the circumferential direction (U) and are separated from one another by a groove extending in the circumferential direction (U); and c) mounting the removed intact guide vane and the replacement guide vane on the support structure , wherein the seal section of the removed intact guide vane and the facing replacement seal section of the replacement guide vane are connected to one another by a sealing strip to form a functional seal assembly . a) removal of a defective guide vane to be replaced and of at least one axially adjacent intact guide vane with which the guide vane to be replaced forms a seal assembly , wherein the seal sections forming this seal assembly each have a projection which extends in the circumferential direction (U), projects axially and engages in an associated recess in the other seal section , said recess extending in the circumferential direction (U); b) making available a replacement guide vane replacing the removed defective guide vane , the platform of which replacement guide vane defines at least one replacement seal section made from a metal material, wherein the at least one replacement seal section comprises two axially projecting projections of equal length which extend in the circumferential direction (U) and are separated from one another by a groove extending in the circumferential direction (U); and c) mounting the removed intact guide vane and the replacement guide vane on the support structure , wherein the seal section of the removed intact guide vane and the facing replacement seal section of the replacement guide vane are connected to one another by a sealing strip to form a functional seal assembly .
A CMUT device comprising, a silicon substrate a cavity a membrane , the membrane and the silicon substrate each being arranged to form a side of the cavity, said sides being located opposite to each other, a first electrode arranged adjacent and parallel to the cavity, being arranged contiguous to the silicon substrate, a second electrode arranged adjacent and parallel to the cavity, opposite to the first electrode, and being embedded in the membrane, characterised in that the CMUT device further comprises a temperature compensation means, such means being arranged to reduce a temperature induced deflection of the membrane by minimizing a thermally induced momentum of the membrane, wherein the temperature compensation means comprises a first compensating plate , the first compensating plate being composed of the same material as the second electrode, and being located on an outer surface of the membrane opposite to the cavity, on a side parallel to the cavity, the plate having a radius r b-top as measured from the centre point of the cavity such that r b-top ≤ r b , where r b is a radius of the second electrode as defined from the centre point of the cavity.
Line coupling with a housing which has a tube connection piece and a housing head , wherein a passage duct extends from a first opening , which is formed by the tube connection piece , to a second opening , which is formed by the housing head , wherein a tube connection structure is arranged in the passage duct , wherein the tube connection structure is connected in a form-fitting manner via first coupling means to a first end of an inner tube of the line coupling , which extends out of the housing head through the second opening , and wherein the section of the passage duct between the first opening and the tube connection structure and the inner tube form a flow duct for fluid, wherein an annular gap is formed between the inner rube and the housing head which is designed to be open in the direction of the second opening , wherein the housing is produced in one piece, wherein the cross-sectional area of the second opening is at least twice as large as the cross-sectional area of the first opening and wherein the tube connection structure is formed by a connection element which is secured in a form-fitting manner, optically also in a material-bonded manner, in a receiving seat of the housing , characterised in that the connection element forming the tube connection structure has at least two cylindrical steps on the outside, by means of which the connection element sits in steps of the receiving seat .
An electronic device comprising: a memory storing a learned artificial intelligence model; and a processor configured to input an input image to the artificial intelligence model and to output an enlarged image with increased resolution, wherein the learned artificial intelligence model includes an upscaling module configured to calculate a pixel value of an interpolated pixel near an original pixel corresponding to a pixel of the input image in the enlarged image based on a Gaussian function in a form which is bilaterally symmetrical and nonlinearly decreases with respect to the original pixel, wherein the upscaling module calculates the pixel value of the interpolated pixel near a plurality of original pixels based on a ratio at which the plurality of original pixel values are reflected in the pixel value of the interpolated pixel, and the ratio is identified according to distances between the plurality of original pixels and the interpolated pixel, on a plurality of Gaussian functions based on the plurality of original pixels, wherein, a variance of the Gaussian function is calculated based on a linear function for bilinear interpolation of an upscaling factor, wherein the upscaling factor corresponds to a magnification of the enlarged image compared to the input image. a memory storing a learned artificial intelligence model; and a processor configured to input an input image to the artificial intelligence model and to output an enlarged image with increased resolution, wherein the learned artificial intelligence model includes an upscaling module configured to calculate a pixel value of an interpolated pixel near an original pixel corresponding to a pixel of the input image in the enlarged image based on a Gaussian function in a form which is bilaterally symmetrical and nonlinearly decreases with respect to the original pixel, wherein the upscaling module calculates the pixel value of the interpolated pixel near a plurality of original pixels based on a ratio at which the plurality of original pixel values are reflected in the pixel value of the interpolated pixel, and the ratio is identified according to distances between the plurality of original pixels and the interpolated pixel, on a plurality of Gaussian functions based on the plurality of original pixels, wherein, a variance of the Gaussian function is calculated based on a linear function for bilinear interpolation of an upscaling factor, wherein the upscaling factor corresponds to a magnification of the enlarged image compared to the input image.
A communication method, comprising: determining , by a terminal device, a maximum number of blind detection in a first time unit, wherein the first time unit is one or more symbols, wherein the first time unit comprises N blind detection occasions, and a number of physical downlink control channel, PDCCH, blind detection performed by the terminal device in the N blind detection occasions is less than or equal to the maximum number of blind detection, wherein N is a positive integer and N≥2; and performing , by the terminal device, PDCCH blind detection in the i th blind detection occasion of the N blind detection occasions based on first information, wherein i is a positive integer, and i≤N, and the first information comprises a search space type; and the performing, by the terminal device, PDCCH blind detection in the i th blind detection occasion based on first information comprises: performing, by the terminal device, PDCCH blind detection in a plurality of search spaces based on priorities of search space types in the i th blind detection occasion, wherein the search space types comprise a common search space and a user-specific search space. determining , by a terminal device, a maximum number of blind detection in a first time unit, wherein the first time unit is one or more symbols, wherein the first time unit comprises N blind detection occasions, and a number of physical downlink control channel, PDCCH, blind detection performed by the terminal device in the N blind detection occasions is less than or equal to the maximum number of blind detection, wherein N is a positive integer and N≥2; and performing , by the terminal device, PDCCH blind detection in the i th blind detection occasion of the N blind detection occasions based on first information, wherein i is a positive integer, and i≤N, and the first information comprises a search space type; and the performing, by the terminal device, PDCCH blind detection in the i th blind detection occasion based on first information comprises: performing, by the terminal device, PDCCH blind detection in a plurality of search spaces based on priorities of search space types in the i th blind detection occasion, wherein the search space types comprise a common search space and a user-specific search space.
A fusion protein comprising a clustered regularly interspersed short palindromic repeats (CRISPR) protein linked to at least one nucleosome interacting protein domain, wherein the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpf1 nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, at least one cell-penetrating domain, at least one marker domain, or a combination thereof, and wherein the at least one nucleosome interacting protein domain is a high mobility group (HMG) box (HMGB) DNA binding domain; a HMG nucleosome-binding (HMGN) protein; a central globular domain from histone H1; a DNA binding domain from a chromatin remodeling complex protein chosen from switch/sucrose non-fermentable (SWI/SNF) complex, imitation switch (ISWI) complex, chromodomain-helicase-DNA binding (CHD) complex, nucleosome remodeling and deacetylase (NuRD) complex, INO80 complex, SWR1 complex, or RSC complex; or a combination thereof. wherein the CRISPR protein is a type II CRISPR/Cas9 nuclease or nickase, or the CRISPR protein is a type V CRISPR/Cpf1 nuclease or nickase, and wherein the fusion protein further comprises at least one nuclear localization signal, at least one cell-penetrating domain, at least one marker domain, or a combination thereof, and wherein the at least one nucleosome interacting protein domain is a high mobility group (HMG) box (HMGB) DNA binding domain; a HMG nucleosome-binding (HMGN) protein; a central globular domain from histone H1; a DNA binding domain from a chromatin remodeling complex protein chosen from switch/sucrose non-fermentable (SWI/SNF) complex, imitation switch (ISWI) complex, chromodomain-helicase-DNA binding (CHD) complex, nucleosome remodeling and deacetylase (NuRD) complex, INO80 complex, SWR1 complex, or RSC complex; or a combination thereof.
A tire comprising a rubber composition comprising at least: - more than 50 phr and up to 100 phr of an isoprene elastomer as a first diene elastomer; - 0 phr to less than 50 phr of a second diene elastomer which is different to the first diene elastomer; - between 40 and 160 phr, preferably between 50 and 150 phr, of a liquid plasticizer; - less than 20 phr of a reinforcing filler; and - from 600 to 1500 phr of particles having a density of between 4 and 20 g/cm 3 , the particles being particles of metal, metal sulphates, metal carbonates, metal sulphides, metal oxides and/or metal hydroxides. - more than 50 phr and up to 100 phr of an isoprene elastomer as a first diene elastomer; - 0 phr to less than 50 phr of a second diene elastomer which is different to the first diene elastomer; - between 40 and 160 phr, preferably between 50 and 150 phr, of a liquid plasticizer; - less than 20 phr of a reinforcing filler; and - from 600 to 1500 phr of particles having a density of between 4 and 20 g/cm 3 , the particles being particles of metal, metal sulphates, metal carbonates, metal sulphides, metal oxides and/or metal hydroxides.
A bearing, comprising: first and second opposing faces ; first and second bores (28A,B, 128A,B) in communication with the first and second opposing faces , the first and second bores (28A,B, 128 A,B) configured to receive first and second shafts; a first flat side surface and a second curved side surface, the second curved side surface having first and second curved portions associated with the first and second bores, respectively; and a plurality of grooves in the first and second opposing faces and the first flat side surface wherein, the bearing is asymmetrical; and the plurality of grooves extending from the first flat side surface to the first and second bores (28A,B, 128A,B) are configured to direct a flow of process fluid over the bearing during operation of the bearing and characterized in that the plurality of grooves in the first face includes first and second grooves that run from a common position on the first flat side surface and each one of which intersects with one of the bores ; and a notch is provided on the first flat side surface where the first and second grooves meet, and in that the notch runs from the first face to the second face . first and second opposing faces ; first and second bores (28A,B, 128A,B) in communication with the first and second opposing faces , the first and second bores (28A,B, 128 A,B) configured to receive first and second shafts; a first flat side surface and a second curved side surface, the second curved side surface having first and second curved portions associated with the first and second bores, respectively; and a plurality of grooves in the first and second opposing faces and the first flat side surface wherein, the bearing is asymmetrical; and the plurality of grooves extending from the first flat side surface to the first and second bores (28A,B, 128A,B) are configured to direct a flow of process fluid over the bearing during operation of the bearing and characterized in that the plurality of grooves in the first face includes first and second grooves that run from a common position on the first flat side surface and each one of which intersects with one of the bores ; and a notch is provided on the first flat side surface where the first and second grooves meet, and in that the notch runs from the first face to the second face .
An image processing apparatus configured to process image data obtained by image capturing, the image processing apparatus comprising: input means configured to acquire image data (S310) obtained by image capturing; determination means configured to determine whether or not an achromatic region is detected in the image data (S311, S312) and configured to determine an achromatic region position based on the achromatic region detected in the image data and to store (S313) the achromatic region position in a storage unit , if the achromatic region has been detected in the image data, and to acquire (S314) a previously detected and stored achromatic region position from the storage unit as the achromatic region position, if no achromatic region has been detected in the image data; and calculation means for calculating a color correction parameter for performing color correction processing on the image data (S315) based on color information of the image data in the region indicated by the achromatic region position. input means configured to acquire image data (S310) obtained by image capturing; determination means configured to determine whether or not an achromatic region is detected in the image data (S311, S312) and configured to determine an achromatic region position based on the achromatic region detected in the image data and to store (S313) the achromatic region position in a storage unit , if the achromatic region has been detected in the image data, and to acquire (S314) a previously detected and stored achromatic region position from the storage unit as the achromatic region position, if no achromatic region has been detected in the image data; and calculation means for calculating a color correction parameter for performing color correction processing on the image data (S315) based on color information of the image data in the region indicated by the achromatic region position.
A device (410; 510) for delivery of a flowable agent to anal and perianal tissue, comprising: a) an elastic anchor (412; 512) having a first interior (431; 531) adapted to be filled with the flowable agent, the anchor (412; 512) is configured to expand from a first configuration to an enlarged second configuration upon being filled with the agent (437; 537); b) a shaft (414; 514) having an outer porous wall (432; 532) at least partly defining a second interior (430; 530) adapted to receive the agent from the first interior (431; 531) of the anchor and release the agent to the anal tissue, the first interior (431; 531) of the anchor in fluid communication with the second interior (430; 530) of the shaft; c) an external bumper that externally anchors the device to prevent uncontrolled inward migration of the device; and d) a one-way valve (424; 524) integrated with the device and through which to inject the agent (437; 537) into the first interior (431; 531) of the anchor, wherein when the anchor (412; 512) is expanded with the agent, a contractile force of the anchor (412; 512) urges the agent into the second interior (430; 530) of the shaft and out of the outer porous wall (432; 532); wherein the elastic anchor (412; 512) is configured to collapse to the first configuration upon depletion of the agent from the first interior (431; 531). a) an elastic anchor (412; 512) having a first interior (431; 531) adapted to be filled with the flowable agent, the anchor (412; 512) is configured to expand from a first configuration to an enlarged second configuration upon being filled with the agent (437; 537); b) a shaft (414; 514) having an outer porous wall (432; 532) at least partly defining a second interior (430; 530) adapted to receive the agent from the first interior (431; 531) of the anchor and release the agent to the anal tissue, the first interior (431; 531) of the anchor in fluid communication with the second interior (430; 530) of the shaft; c) an external bumper that externally anchors the device to prevent uncontrolled inward migration of the device; and d) a one-way valve (424; 524) integrated with the device and through which to inject the agent (437; 537) into the first interior (431; 531) of the anchor, wherein when the anchor (412; 512) is expanded with the agent, a contractile force of the anchor (412; 512) urges the agent into the second interior (430; 530) of the shaft and out of the outer porous wall (432; 532);
An organic electroluminescence display panel, comprising: a base substrate having a display area(A); a gate driving circuit and a plurality of pixel driving circuits located in the display area(A); a plurality of data lines in the display area(A); and a plurality of top emission type of light-emitting units located in the display area(A), wherein an orthographic projection of the gate driving circuit on the base substrate at least partially overlaps with an orthographic projection of the plurality of top emission type of light-emitting units on the base substrate , characterized in that , each of at least some of the plurality of pixel driving circuits is configured to drive at least two top emission type of light-emitting units of the plurality of top emission type of light-emitting units , and the plurality of top emission type of light-emitting units span over the plurality of data lines, such that all circuits comprising the gate driving circuit and the plurality of pixel driving circuits in the display area(A) are covered by the plurality of top emission type of light-emitting units . a base substrate having a display area(A); a gate driving circuit and a plurality of pixel driving circuits located in the display area(A); a plurality of data lines in the display area(A); and a plurality of top emission type of light-emitting units located in the display area(A), wherein an orthographic projection of the gate driving circuit on the base substrate at least partially overlaps with an orthographic projection of the plurality of top emission type of light-emitting units on the base substrate , characterized in that , each of at least some of the plurality of pixel driving circuits is configured to drive at least two top emission type of light-emitting units of the plurality of top emission type of light-emitting units , and the plurality of top emission type of light-emitting units span over the plurality of data lines, such that all circuits comprising the gate driving circuit and the plurality of pixel driving circuits in the display area(A) are covered by the plurality of top emission type of light-emitting units .
A wearable assistive device comprising first and second parts , wearable proximal and distal of a limb joint respectively, the first and second parts having an articulated interconnection and a tendon interconnection , guided from the first part to the second part and adapted to exert an assistive force on the limb joint when tensioned; wherein the tendon interconnection is provided unilaterally, on the lateral side of the limb joint ; wherein counter-torsion means adapted to generate forces counteracting torsion of the first and second wearable parts relative to the limb on tensioning the tendon interconnection are provided; wherein each of the first and second parts comprises a solid plate adapted to be nestled in use to the limb; characterised in that the articulated interconnection is provided unilaterally, on the lateral side of the limb joint and the counter-torsion means comprises routing means provided to route the tendon interconnection from a hinge joint between the two plates towards an anterior central point of the proximal plate . wherein the tendon interconnection is provided unilaterally, on the lateral side of the limb joint ; wherein counter-torsion means adapted to generate forces counteracting torsion of the first and second wearable parts relative to the limb on tensioning the tendon interconnection are provided; wherein each of the first and second parts comprises a solid plate adapted to be nestled in use to the limb; characterised in that the articulated interconnection is provided unilaterally, on the lateral side of the limb joint and the counter-torsion means comprises routing means provided to route the tendon interconnection from a hinge joint between the two plates towards an anterior central point of the proximal plate .