mhurhangee/patent-ind-claim-en huggingface dataset:
A display device , comprising: a display panel arranged to display an image; a light blocking layer (PHL) disposed under the display panel and comprising a plurality of holes (H),a fingerprint sensing layer (FPSL) with sensing areas comprising a plurality of fingerprint sensors (FPS) arranged to receive reflected light passing through the plurality of holes and arranged to generate a sensing signal, wherein each sensing area corresponds to one of the plurality of holes; and a sensor driver arranged to control operations of the plurality of fingerprint sensors, wherein the sensor driver is arranged to generate a fingerprint image (IMG) based on a difference value between fingerprint data generated based on the sensing signal and prestored reference data, wherein the sensor driver is arranged to generate the prestored reference data based on a sensing signal from the plurality of fingerprint sensors caused by light reflected by a reference member (RM), before a user's touch occurs, wherein each of the sensing areas comprises a central area (CR) for receiving concentrated information about the user's fingerprint; and a peripheral area (SR) surrounding the central area; and wherein the sensor driver is arranged to receive the sensing signal corresponding to the user's fingerprint, and to merge data of the peripheral area of each of the sensing areas and data of the central area of another sensing area adjacent to the corresponding sensing area to generate the fingerprint data. a display panel arranged to display an image; a light blocking layer (PHL) disposed under the display panel and comprising a plurality of holes (H),a fingerprint sensing layer (FPSL) with sensing areas comprising a plurality of fingerprint sensors (FPS) arranged to receive reflected light passing through the plurality of holes and arranged to generate a sensing signal, wherein each sensing area corresponds to one of the plurality of holes; and a sensor driver arranged to control operations of the plurality of fingerprint sensors, wherein the sensor driver is arranged to generate a fingerprint image (IMG) based on a difference value between fingerprint data generated based on the sensing signal and prestored reference data, wherein the sensor driver is arranged to generate the prestored reference data based on a sensing signal from the plurality of fingerprint sensors caused by light reflected by a reference member (RM), before a user's touch occurs, wherein each of the sensing areas comprises a central area (CR) for receiving concentrated information about the user's fingerprint; and a peripheral area (SR) surrounding the central area; and wherein the sensor driver is arranged to receive the sensing signal corresponding to the user's fingerprint, and to merge data of the peripheral area of each of the sensing areas and data of the central area of another sensing area adjacent to the corresponding sensing area to generate the fingerprint data.
A c-Met-specific antibody or antigen binding fragments thereof comprising: a heavy chain variable region having an amino acid sequence represented by SEQ ID NO:7; and a light chain variable region having an amino acid sequence represented by SEQ ID NO:8. a heavy chain variable region having an amino acid sequence represented by SEQ ID NO:7; and a light chain variable region having an amino acid sequence represented by SEQ ID NO:8.
A left atrial appendage occlusion device , comprising: a conformable, tubular body , having a closed proximal end and a distal end ; the body including a compressible side wall extending between the proximal end and the distal end , and defining a central cavity ; an expandable support coupled with the body , configured to compress the compressible side wall against a wall of a left atrial appendage; and anchors to secure the device to tissue, wherein the anchors are flexible anchors configured to extend through the compressible side wall at an inclined angle characterized in that the tubular body is made of foam, and in that the compressible side wall extends in a distal direction beyond a distal end of the support . a conformable, tubular body , having a closed proximal end and a distal end ; the body including a compressible side wall extending between the proximal end and the distal end , and defining a central cavity ; an expandable support coupled with the body , configured to compress the compressible side wall against a wall of a left atrial appendage; and anchors to secure the device to tissue, wherein the anchors are flexible anchors configured to extend through the compressible side wall at an inclined angle characterized in that the tubular body is made of foam, and in that the compressible side wall extends in a distal direction beyond a distal end of the support .
A frame assembly for an electronic device, comprising: a first frame defining a receiving space for accommodating electronic elements of the electronic device , the first frame comprising an exterior surface departing from the receiving space ; and a second frame coupled to the exterior surface of the first frame ; wherein the first frame defines a mounting groove in the exterior surface ; the mounting groove extends along a periphery direction of the first frame ; the second frame is engaged into the mounting groove and surrounds the first frame ; the first frame is made of a glass material, and the second frame is made of a material different from the glass material of the first frame ; the second frame comprises an exposed surface departing from the receiving space ; the exposed surface is smoothly connected with the exterior surface of the first frame ; an outer surface of the frame assembly is formed by the exposed surface and the exterior surface , and the outer surface is departing from the receiving space . a first frame defining a receiving space for accommodating electronic elements of the electronic device , the first frame comprising an exterior surface departing from the receiving space ; and a second frame coupled to the exterior surface of the first frame ; wherein the first frame defines a mounting groove in the exterior surface ; the mounting groove extends along a periphery direction of the first frame ; the second frame is engaged into the mounting groove and surrounds the first frame ; the first frame is made of a glass material, and the second frame is made of a material different from the glass material of the first frame ; the second frame comprises an exposed surface departing from the receiving space ; the exposed surface is smoothly connected with the exterior surface of the first frame ; an outer surface of the frame assembly is formed by the exposed surface and the exterior surface , and the outer surface is departing from the receiving space .
A web observation system for the continuous or quasi-continuous optical detection of a transparent or partially transparent web material passing through, at least one camera , preferably a line scan camera, being used for the sectional optical detection of the web material moved relative to the camera, and the web material being arranged in front of a defined background for the purpose of calibrated optical detection, wherein the background is arranged at a distance from the web material and is designed to be movable in the longitudinal direction of the web material .
A laminate having at least a polyolefin-based resin layer (I), a layer (II) for deposition and an inorganic layer (III) in this order, wherein: the layer (II) for deposition comprises a composition (P) for a layer for deposition and polypropylene (D) and is different from the polyolefin-based resin layer (I), the composition (P) for a layer for deposition is obtained by melt-kneading 30 to 85% by weight of isotactic polypropylene (A), 70 to 15% by weight of a propylene-based copolymer (B), with the proviso that the total of (A) and (B) is 100% by weight, and if necessary, an additive, and a part or all of the isotactic polypropylene (A) and, optionally, a part or all of the propylene-based copolymer (B) has been graft-modified with a graft monomer (C), the propylene-based copolymer (B) is different from the isotactic polypropylene (A) and (i) contains 45 to 89% by mol of constituent units (U 3 ) derived from propylene and 11 to 55% by mol of constituent units (U 0 ) derived from at least one α-olefin selected from ethylene and α-olefins of 4 to 20 carbon atoms, with the proviso that the total of the constituent units (U 3 ) derived from propylene and the constituent units (U 0 ) derived from the α-olefin is 100% by mol and the polypropylene (D) is an unmodified substance and is different from the polypropylene (A) and the propylene-based copolymer (B). the layer (II) for deposition comprises a composition (P) for a layer for deposition and polypropylene (D) and is different from the polyolefin-based resin layer (I), the composition (P) for a layer for deposition is obtained by melt-kneading 30 to 85% by weight of isotactic polypropylene (A), 70 to 15% by weight of a propylene-based copolymer (B), with the proviso that the total of (A) and (B) is 100% by weight, and if necessary, an additive, and a part or all of the isotactic polypropylene (A) and, optionally, a part or all of the propylene-based copolymer (B) has been graft-modified with a graft monomer (C), the propylene-based copolymer (B) is different from the isotactic polypropylene (A) and (i) contains 45 to 89% by mol of constituent units (U 3 ) derived from propylene and 11 to 55% by mol of constituent units (U 0 ) derived from at least one α-olefin selected from ethylene and α-olefins of 4 to 20 carbon atoms, with the proviso that the total of the constituent units (U 3 ) derived from propylene and the constituent units (U 0 ) derived from the α-olefin is 100% by mol and the polypropylene (D) is an unmodified substance and is different from the polypropylene (A) and the propylene-based copolymer (B).
Shelf for a storage cabinet for storing and controlling the temperature of beverage bottles and/or other cylindrical containers, in particular for storing wine bottles in a climate and/or temperature-controlled manner, comprising a frame-like support grid for receiving the stored goods and for receiving accessories associated with the stored goods, a frame formed by transverse and longitudinal struts and having support struts detachably and adjustably arranged within the frame via connecting means, and the support grid, in cooperation with a telescopic rail mechanism in the storage cabinet, being designed such that it can be pulled out, and the transverse struts being designed for detachably arranging the support struts via connecting means which have a series of engagement openings arranged next to one another, into which openings pin-like engagement elements arranged on the support struts engage, characterised in that the engagement openings have a region in which the engagement elements are received in a fixing or clamping manner, and in that an opening region is formed adjacent thereto, which region causes a tolerance compensation for the inserted support struts .
A spectrometer, comprising: a 1xN optical beam splitter optically coupled to receive a source light beam and configured to divide the source light beam into a plurality of input beams (115a, 115b, ...115N); a plurality of scanning interferometers that are synchronized with respect to each other, said plurality of interferometers are optically coupled in parallel and mechanically coupled in parallel or electrically controlled, in parallel, each of the plurality of interferometers having a respective beam splitter (810a, 810b, ..., 810N), and being optically coupled to receive a respective one of the plurality of input beams (115a, 115b, ...115N) and configured to direct the respective input beam (115a, 115b, ...115N) along a respective optical path, each interferometer being arranged to provide scanning of the same optical path difference window, to produce a respective one of a plurality of identical outputs (125a, 125b, ... 125N); and a single detector optically coupled to simultaneously receive the plurality of identical outputs (125a, 125b, ... 125N) and configured to produce an interferogram as a result of a summation of the plurality of identical outputs (125a, 125b, ... 125N). a 1xN optical beam splitter optically coupled to receive a source light beam and configured to divide the source light beam into a plurality of input beams (115a, 115b, ...115N); a plurality of scanning interferometers that are synchronized with respect to each other, said plurality of interferometers are optically coupled in parallel and mechanically coupled in parallel or electrically controlled, in parallel, each of the plurality of interferometers having a respective beam splitter (810a, 810b, ..., 810N), and being optically coupled to receive a respective one of the plurality of input beams (115a, 115b, ...115N) and configured to direct the respective input beam (115a, 115b, ...115N) along a respective optical path, each interferometer being arranged to provide scanning of the same optical path difference window, to produce a respective one of a plurality of identical outputs (125a, 125b, ... 125N); and a single detector optically coupled to simultaneously receive the plurality of identical outputs (125a, 125b, ... 125N) and configured to produce an interferogram as a result of a summation of the plurality of identical outputs (125a, 125b, ... 125N).
A magnetic coupling assembly comprising: an inner barrel comprising an inner barrel shaft , the inner barrel shaft configured to co-rotate with the inner barrel , the inner barrel configured to be coupled to a shaft of a first rotating machine , the inner barrel shaft being separate from the shaft of the first rotating machine ; a first bearing assembly configured to support the inner barrel shaft , the first bearing assembly being separate from the first rotating machine ; an outer barrel comprising an outer barrel shaft that is separate from a shaft of a second rotating machine , the outer barrel configured to be coupled to the shaft of the second rotating machine , the second rotating machine configured to drive or be driven by the first rotating machine , the outer barrel being fluidically isolated from the inner barrel , the outer barrel configured to surround the inner barrel , the outer barrel being magnetically coupled to the inner barrel to co-rotate with the inner barrel ; and a second bearing assembly configured to support the outer barrel shaft , the second bearing assembly being separate from the second rotating machine . an inner barrel comprising an inner barrel shaft , the inner barrel shaft configured to co-rotate with the inner barrel , the inner barrel configured to be coupled to a shaft of a first rotating machine , the inner barrel shaft being separate from the shaft of the first rotating machine ; a first bearing assembly configured to support the inner barrel shaft , the first bearing assembly being separate from the first rotating machine ; an outer barrel comprising an outer barrel shaft that is separate from a shaft of a second rotating machine , the outer barrel configured to be coupled to the shaft of the second rotating machine , the second rotating machine configured to drive or be driven by the first rotating machine , the outer barrel being fluidically isolated from the inner barrel , the outer barrel configured to surround the inner barrel , the outer barrel being magnetically coupled to the inner barrel to co-rotate with the inner barrel ; and a second bearing assembly configured to support the outer barrel shaft , the second bearing assembly being separate from the second rotating machine .
A method for the conditioning of an ethylene epoxidation catalyst comprising: contacting an ethylene epoxidation catalyst comprising a carrier, having silver and a rhenium promoter deposited thereon, and wherein the carrier is α-alumina, with a conditioning feed gas comprising oxygen for a period of time of at least 2 hours at a temperature that is above 180°C and at most 220°C, wherein the contacting of the ethylene epoxidation catalyst with the conditioning feed gas occurs in an epoxidation reactor and in the absence of ethylene.
Compound of formula (I) : wherein: - R 4 , R 5 and R 6 are independently of each other, chosen from the group consisting of: H, -(CH 2 ) p COOR', -(CH 2 ) q Ar, -(CH 2 ) q Het, wherein: - R' represents H, an alkyl group linear or branched comprising from 1 to 10 carbon atoms, - p is 1; - q is 1. - Ar represents a phenyl group; - Het represents a 2-pyridyl group; R 1 , R 2 and R 3 represent an ethyl group; . or R 4 and R 5 may form together, with the nitrogen atoms carrying them, a heterocycle group comprising 6 atoms; - B 1 , B 2 and B 4 represent, independently of each other, a C2 or C3 linear alkylene - B 3 represents Y represents a propylene ; - u represents 2; - n represents 3; - X m- is a conjugate base of an acid, m representing 1; n, m and u being such that the total charge of the compound of formula (I) is zero, or their pharmaceutically acceptable salts, or hydrates. - R 4 , R 5 and R 6 are independently of each other, chosen from the group consisting of: H, -(CH 2 ) p COOR', -(CH 2 ) q Ar, -(CH 2 ) q Het, wherein: - R' represents H, an alkyl group linear or branched comprising from 1 to 10 carbon atoms, - p is 1; - q is 1. - Ar represents a phenyl group; - Het represents a 2-pyridyl group; R 1 , R 2 and R 3 represent an ethyl group; . or R 4 and R 5 may form together, with the nitrogen atoms carrying them, a heterocycle group comprising 6 atoms; - R' represents H, an alkyl group linear or branched comprising from 1 to 10 carbon atoms, - p is 1; - q is 1. - Ar represents a phenyl group; - Het represents a 2-pyridyl group; - B 1 , B 2 and B 4 represent, independently of each other, a C2 or C3 linear alkylene - B 3 represents Y represents a propylene ; - u represents 2; - n represents 3; - X m- is a conjugate base of an acid, m representing 1; n, m and u being such that the total charge of the compound of formula (I) is zero, or their pharmaceutically acceptable salts, or hydrates. - B 3 represents Y represents a propylene ; - u represents 2; - n represents 3; - X m- is a conjugate base of an acid, m representing 1;
A method for uplink, UL, starvation avoidance implemented in a wireless transmit/receive unit, WTRU , the method comprising: maintaining, at the WTRU , maximum sizes of token buckets for respective radio bearers, RBs; maintaining, at the WTRU , current sizes of the token buckets, wherein the current size of each token bucket is (i) based on a token accumulation pattern on condition that the current size does not exceed the maximum size of the token bucket, or (ii) the maximum size of the token bucket; determining current buffer status information, wherein the current buffer status information includes (i) the current sizes for the token buckets and (ii) buffer levels associated with the RBs, wherein the buffer levels are indicative of respective amounts of uplink, UL, data for transmission via the RBs; transmitting a buffer status report, BSR, to an evolved NodeB, eNodeB , responsive to an event, wherein the event comprises one or more of the buffer levels exceeding or falling below respective thresholds, and wherein the BSR comprises the one or more of the buffer levels; receiving a grant for handling the reported buffer levels; and on condition that a token bucket of one of the RBs is greater than zero: allocating granted resources to a packet of the UL data for transmission via the one RB ; and transmitting the packet of the UL data via the one RB. maintaining, at the WTRU , maximum sizes of token buckets for respective radio bearers, RBs; maintaining, at the WTRU , current sizes of the token buckets, wherein the current size of each token bucket is (i) based on a token accumulation pattern on condition that the current size does not exceed the maximum size of the token bucket, or (ii) the maximum size of the token bucket; determining current buffer status information, wherein the current buffer status information includes (i) the current sizes for the token buckets and (ii) buffer levels associated with the RBs, wherein the buffer levels are indicative of respective amounts of uplink, UL, data for transmission via the RBs; transmitting a buffer status report, BSR, to an evolved NodeB, eNodeB , responsive to an event, wherein the event comprises one or more of the buffer levels exceeding or falling below respective thresholds, and wherein the BSR comprises the one or more of the buffer levels; receiving a grant for handling the reported buffer levels; and on condition that a token bucket of one of the RBs is greater than zero: allocating granted resources to a packet of the UL data for transmission via the one RB ; and transmitting the packet of the UL data via the one RB. allocating granted resources to a packet of the UL data for transmission via the one RB ; and transmitting the packet of the UL data via the one RB.
A tube structure comprising an inner tube of metal and an outer tube of metal, wherein the inner tube extends in the outer tube , wherein a spacer tube is located between the inner tube and the outer tube , wherein the spacer tube comprises at least one slit , wherein the at least one slit extends in a longitudinal direction of the spacer tube and over an entire longitudinal extension of the spacer tube , and wherein the at least one slit forms a space in a radial direction of the tube structure extending from an outer surface of the inner tube to an inner surface of the outer tube characterized in that the tube structure comprises at least one signal line located in the at least one slit of the spacer tube , wherein the at least one signal line extends in the longitudinal direction of the spacer tube . an inner tube of metal and an outer tube of metal, wherein the inner tube extends in the outer tube , wherein a spacer tube is located between the inner tube and the outer tube , wherein the spacer tube comprises at least one slit , wherein the at least one slit extends in a longitudinal direction of the spacer tube and over an entire longitudinal extension of the spacer tube , and wherein the at least one slit forms a space in a radial direction of the tube structure extending from an outer surface of the inner tube to an inner surface of the outer tube