mhurhangee/patent-ind-claim-en huggingface dataset:
A 3-dimensional printer comprising: a first fusion assembly (104-1) having at least two fusing lamps; a second fusion assembly (104-2) having at least two fusing lamps; and characterized in that the 3D printer comprises a fusing lamp controller , coupled to the first fusion assembly (104-1) and the second fusion assembly (104-2), configured to: activate a first set of fusing lamps during a number of processing cycles for generating a 3D object, the first set of fusing lamps comprising a first fusing lamp (106-1) of the first fusion assembly (104-1) and a first fusing lamp (108-1) of the second fusion assembly (104-2); and activate a second set of fusing lamps during a subsequent number of processing cycles for generating the 3D object, the second set comprising a second fusing lamp (106-2) of the first fusion assembly (104-1) and a second fusing lamp (108-2) of the second fusion assembly (104-2); wherein the first set of fusing lamps (106-1, 108-1) and second set of fusing lamps (106-2, 108-2) are activated alternately. a first fusion assembly (104-1) having at least two fusing lamps; a second fusion assembly (104-2) having at least two fusing lamps; and characterized in that the 3D printer comprises a fusing lamp controller , coupled to the first fusion assembly (104-1) and the second fusion assembly (104-2), configured to: activate a first set of fusing lamps during a number of processing cycles for generating a 3D object, the first set of fusing lamps comprising a first fusing lamp (106-1) of the first fusion assembly (104-1) and a first fusing lamp (108-1) of the second fusion assembly (104-2); and activate a second set of fusing lamps during a subsequent number of processing cycles for generating the 3D object, the second set comprising a second fusing lamp (106-2) of the first fusion assembly (104-1) and a second fusing lamp (108-2) of the second fusion assembly (104-2); wherein the first set of fusing lamps (106-1, 108-1) and second set of fusing lamps (106-2, 108-2) are activated alternately. activate a first set of fusing lamps during a number of processing cycles for generating a 3D object, the first set of fusing lamps comprising a first fusing lamp (106-1) of the first fusion assembly (104-1) and a first fusing lamp (108-1) of the second fusion assembly (104-2); and activate a second set of fusing lamps during a subsequent number of processing cycles for generating the 3D object, the second set comprising a second fusing lamp (106-2) of the first fusion assembly (104-1) and a second fusing lamp (108-2) of the second fusion assembly (104-2); wherein the first set of fusing lamps (106-1, 108-1) and second set of fusing lamps (106-2, 108-2) are activated alternately.
An inflatable sports ball comprising: a bladder capable of being inflated to a predetermined internal pressure, the bladder defining an exterior bladder surface ; a casing disposed about the bladder , the casing comprising: an outer cover layer ; an intermediate structure disposed between the bladder and the outer cover layer , the intermediate structure comprising a restriction structure , wherein the restriction structure comprises a plurality of overlapping strips ; wherein the restriction structure comprises a uniform number of radially-stacked layers of the overlapping strips over a substantial entirety of the exterior bladder surface ; wherein the bladder defines a valve opening configured to receive a valve , the valve configured to permit selective inflation of the bladder to the predetermined internal pressure, such that the bladder defines a bladder circumference , when the bladder is inflated to the predetermined internal pressure; and characterized in that the plurality of overlapping strips is a plurality of interwoven strips , wherein each strip is interwoven with each of the other strips and wrapped about the bladder circumference . a bladder capable of being inflated to a predetermined internal pressure, the bladder defining an exterior bladder surface ; a casing disposed about the bladder , the casing comprising: an outer cover layer ; an intermediate structure disposed between the bladder and the outer cover layer , the intermediate structure comprising a restriction structure , wherein the restriction structure comprises a plurality of overlapping strips ; an outer cover layer ; an intermediate structure disposed between the bladder and the outer cover layer , the intermediate structure comprising a restriction structure , wherein the restriction structure comprises a plurality of overlapping strips ; wherein the restriction structure comprises a uniform number of radially-stacked layers of the overlapping strips over a substantial entirety of the exterior bladder surface ; wherein the bladder defines a valve opening configured to receive a valve , the valve configured to permit selective inflation of the bladder to the predetermined internal pressure, such that the bladder defines a bladder circumference , when the bladder is inflated to the predetermined internal pressure; and characterized in that the plurality of overlapping strips is a plurality of interwoven strips , wherein each strip is interwoven with each of the other strips and wrapped about the bladder circumference .
A method of wireless communication performed by an apparatus, the method comprising: determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes; and determining at least one gap between synchronization signals of the arrangement of multiple synchronization signals to configure the arrangement of multiple synchronization signals for transmission by any communication mode of a plurality of communication modes, wherein each communication mode of the plurality of communication modes implements a different numerology, wherein the at least one gap configures the synchronization signals of the arrangement of synchronization signals to avoid an overlap of any of the multiple synchronization signals with a control signal for the wireless communication; and communicating the multiple synchronization signals and the control signal. determining an arrangement of multiple synchronization signals for wireless communication between two or more nodes; and determining at least one gap between synchronization signals of the arrangement of multiple synchronization signals to configure the arrangement of multiple synchronization signals for transmission by any communication mode of a plurality of communication modes, wherein each communication mode of the plurality of communication modes implements a different numerology, wherein the at least one gap configures the synchronization signals of the arrangement of synchronization signals to avoid an overlap of any of the multiple synchronization signals with a control signal for the wireless communication; and communicating the multiple synchronization signals and the control signal.
A highchair, comprising a building block table , a booster stool , and a feeding chair ; wherein a bottom of the booster stool is detachably connected to a top of the building block table ; a bottom of the feeding chair is detachably connected to a top of the booster stool ; four sockets are provided on a top surface of the building block table ; an elastic cover adapted to each socket of the four sockets covers a top of each socket ; a plurality of vertical grooves are spaced apart on an inner periphery of each socket ; a bottom surface of each socket is provided with a first spring receiving groove ; a plurality of protruding blocks are spaced apart on an outer periphery of the elastic cover ; each protruding block of the plurality of protruding blocks is matched with a corresponding vertical groove ; a bottom surface of the elastic cover is provided with a second spring receiving groove ; a first spring is provided between the first spring receiving groove and the second spring receiving groove ; the building block table has four legs , wherein the four sockets separately extend into upper parts of the four legs corresponding to the four sockets ; and the booster stool has four legs , wherein bottoms of the four legs of the booster stool are inserted into the four sockets corresponding to the four legs of the booster stool . wherein a bottom of the booster stool is detachably connected to a top of the building block table ; a bottom of the feeding chair is detachably connected to a top of the booster stool ; four sockets are provided on a top surface of the building block table ; an elastic cover adapted to each socket of the four sockets covers a top of each socket ; a plurality of vertical grooves are spaced apart on an inner periphery of each socket ; a bottom surface of each socket is provided with a first spring receiving groove ; a plurality of protruding blocks are spaced apart on an outer periphery of the elastic cover ; each protruding block of the plurality of protruding blocks is matched with a corresponding vertical groove ; a bottom surface of the elastic cover is provided with a second spring receiving groove ; a first spring is provided between the first spring receiving groove and the second spring receiving groove ; the building block table has four legs , wherein the four sockets separately extend into upper parts of the four legs corresponding to the four sockets ; and the booster stool has four legs , wherein bottoms of the four legs of the booster stool are inserted into the four sockets corresponding to the four legs of the booster stool .
An adeno-associated virus (AAV) serotype 9 (AAV9) or Clade F AAV capsid protein, wherein the capsid protein comprises a substitution of Y or I at amino acid N498, wherein the capsid protein results in an AAV9 or Clade F viral phenotype of a selective decrease in transduction of liver cells when compared to that of the same virus lacking said substitution.
An iodine complex, wherein the iodine complex is obtained by complexing a polymer containing a structural unit represented by Formula (I) and optionally at least one of the structural units represented by Formula (II), Formula (III) and Formula (IV) as a carrier with iodine: in Formula (I), R 1 , R 2 , R 3 , R 4 , R 5 and R 6 are the same or different, independently selected from H, C 1-8 alkyl, C 6-20 aryl that is unsubstituted or optionally substituted by one, two or more R a ; each R a is the same or different, independently selected from C 1-12 alkyl; a, b, c, d, e and f are independently integers greater than or equal to 0, and a and e are not 0 at the same time; in Formula (II), R 19 is selected from H, cyano, C 1-8 alkyl, the following groups that are unsubstituted or optionally substituted by one, two or more R a : C 3-10 cycloalkyl, C 6-20 aryl; each R a is the same or different, independently selected from C 1-12 alkyl; g is an integer greater than or equal to 1; in Formula (III), R 13 , R 16 , R 17 and R 18 are the same or different, independently selected from H, C 1-8 alkyl, C 6-20 aryl that is unsubstituted or optionally substituted by one, two or more R a ; each R a is the same or different, independently selected from C 1-12 alkyl; h, i, j, k and n' are independently integers greater than or equal to 1; in Formula (IV), R 7 , R 8 , R 9 , R 10 , R 11 and R 12 are the same or different, independently selected from H, C 1-8 alkyl, C 6-20 aryl that is unsubstituted or optionally substituted by one, two or more R a ; each R a is the same or different, independently selected from C 1-12 alkyl; a', b', c', d', e' and f' are independently integers greater than or equal to 0, and are not 0 at the same time. a, b, c, d, e and f are independently integers greater than or equal to 0, and a and e are not 0 at the same time; in Formula (II), R 19 is selected from H, cyano, C 1-8 alkyl, the following groups that are unsubstituted or optionally substituted by one, two or more R a : C 3-10 cycloalkyl, C 6-20 aryl; each R a is the same or different, independently selected from C 1-12 alkyl; g is an integer greater than or equal to 1; in Formula (III), R 13 , R 16 , R 17 and R 18 are the same or different, independently selected from H, C 1-8 alkyl, C 6-20 aryl that is unsubstituted or optionally substituted by one, two or more R a ; each R a is the same or different, independently selected from C 1-12 alkyl; h, i, j, k and n' are independently integers greater than or equal to 1; in Formula (IV), R 7 , R 8 , R 9 , R 10 , R 11 and R 12 are the same or different, independently selected from H, C 1-8 alkyl, C 6-20 aryl that is unsubstituted or optionally substituted by one, two or more R a ; each R a is the same or different, independently selected from C 1-12 alkyl; a', b', c', d', e' and f' are independently integers greater than or equal to 0, and are not 0 at the same time.
Hinge in particular for windows/doors/shutters or furniture pieces, intended to rotatably connect together a panel and a frame , said hinge comprising: - a first hinge element and a second hinge element , and each of which: - is provided with a main extension along an extension axis (T, T'); - is intended to be embedded in a containment space respectively of a panel and of a frame delimited at least by a perimeter wall and by a bottom wall ; and - is perimetrically delimited by a peripheral edge ; - articulation means , which rotatably connect said first hinge element and said second hinge element around a rotation axis (X), substantially parallel to said extension axes (T, T'), in order to move said hinge elements between a closed position and an open position; said hinge being characterized in that it comprises at least one eccentric adjustment body mechanically connected to at least one of said hinge elements , and said eccentric adjustment body is susceptible of being moved between at least one retracted position and at least one extended position, and in said positions said eccentric adjustment body projects from the corresponding peripheral edge to a different extent and is susceptible of acting against the perimeter wall of said containment space , in order to adjust the position of said first and/or second hinge element with respect to the respective containment space . - a first hinge element and a second hinge element , and each of which: - is provided with a main extension along an extension axis (T, T'); - is intended to be embedded in a containment space respectively of a panel and of a frame delimited at least by a perimeter wall and by a bottom wall ; and - is perimetrically delimited by a peripheral edge ; - is provided with a main extension along an extension axis (T, T'); - is intended to be embedded in a containment space respectively of a panel and of a frame delimited at least by a perimeter wall and by a bottom wall ; and - is perimetrically delimited by a peripheral edge ; - articulation means , which rotatably connect said first hinge element and said second hinge element around a rotation axis (X), substantially parallel to said extension axes (T, T'), in order to move said hinge elements between a closed position and an open position;
A camera module, comprising: an optical lens assembly , comprising: a plurality of optical lenses , wherein each optical lens comprises a center main body and a connecting portion located outside the center main body, and the optical lenses are sequentially embedded and overlappingly assembled together to form a lens subassembly through a connection of the connecting portions , the connecting portion being arranged in a non-photosensitive area ,formed by a blackening process and a matting process, of each optical lens and adapted to connect the optical lenses , wherein for one of the optical lenses , a light beam entering hole is formed in the photosensitive area and the blackening process and the matting process are performed on the entire optical lens except the light beam entering hole to form the non-photosensitive area ; and a photosensitive device , having a holder , wherein the optical lens assembly is disposed on the photosensitive device ; wherein the optical lens at the bottom of the optical lens assembly is adhesively connected to a top of the holder of the photosensitive device through the connecting portion , wherein the connecting portion of the optical lens at the bottom of the optical lens assembly has a protrusion toward the holder and is coated with a black adhesive, and the black adhesive extends from the bottom of the protrusion to an inner side of the protrusion. a plurality of optical lenses , wherein each optical lens comprises a center main body and a connecting portion located outside the center main body, and the optical lenses are sequentially embedded and overlappingly assembled together to form a lens subassembly through a connection of the connecting portions , the connecting portion being arranged in a non-photosensitive area ,formed by a blackening process and a matting process, of each optical lens and adapted to connect the optical lenses , wherein for one of the optical lenses , a light beam entering hole is formed in the photosensitive area and the blackening process and the matting process are performed on the entire optical lens except the light beam entering hole to form the non-photosensitive area ; and a photosensitive device , having a holder , wherein the optical lens assembly is disposed on the photosensitive device ; wherein the optical lens at the bottom of the optical lens assembly is adhesively connected to a top of the holder of the photosensitive device through the connecting portion , wherein the connecting portion of the optical lens at the bottom of the optical lens assembly has a protrusion toward the holder and is coated with a black adhesive, and the black adhesive extends from the bottom of the protrusion to an inner side of the protrusion.
A method for reading an ultra-high frequency RFID tag on or in an object to be scanned , the method comprising the steps of: ∘ providing an ultra-high frequency RFID scanning system comprising: - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas , - the at least two antennas being distributed around the object to be scanned , - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; ∘ setting a scanning set A for the number of RFID tags; ∘ continuously scanning the object in scanning cycles by the ultra-high frequency RFID scanning system; ∘ adding new data in each scanning cycle to a scanning set A; ∘ if no new data is added to the scanning set A, counting of consecutive scanning cycles is started; ∘ if new data is added to the scanning set A at any time in N consecutive scanning cycles, counting of consecutive scanning cycles is restarted and continued until no new data is added to the scanning set A for said N consecutive scanning cycles; ∘ if no new data is added to the scanning set A for said N consecutive scanning cycles, the ultra-high frequency RFID scanning system is considered to have read all the RFID tags in the scanned object . ∘ providing an ultra-high frequency RFID scanning system comprising: - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas , - the at least two antennas being distributed around the object to be scanned , - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; - an ultra-high frequency RFID reader/writer and an antenna group, - the antenna group comprises at least two antennas , - the at least two antennas being distributed around the object to be scanned , - the object to be scanned comprising said RFID tags, and - each of the at least two antennas each being connected to the ultra-high frequency RFID reader/writer through a feeder; ∘ setting a scanning set A for the number of RFID tags; ∘ continuously scanning the object in scanning cycles by the ultra-high frequency RFID scanning system; ∘ adding new data in each scanning cycle to a scanning set A; ∘ if no new data is added to the scanning set A, counting of consecutive scanning cycles is started; ∘ if new data is added to the scanning set A at any time in N consecutive scanning cycles, counting of consecutive scanning cycles is restarted and continued until no new data is added to the scanning set A for said N consecutive scanning cycles; ∘ if no new data is added to the scanning set A for said N consecutive scanning cycles, the ultra-high frequency RFID scanning system is considered to have read all the RFID tags in the scanned object .
A panel for detecting autoantibodies indicative of cancer from a subject, the panel comprising a plurality of tumor antigens attached to a solid surface, wherein at least one of said tumor antigens is hypothetical protein XP 373908 comprising sequence PASASILAGVPMYRNEFTAWYRRMSVVYGIGTWSVLGSLLYYSRTMAKSSVDQKDGS ASEVPSELSERPSLRPHSSN.
A composition comprising a ketogenic agent, wherein the ketogenic agent is R,S -1,3-butanediol acetoacetate diester, for use in a method of reducing fatigue during exercise in a subject.
A method for determining whether a compound induces a pseudo-allergic-type reaction, the method comprising: contacting the isolated cell comprising a recombinant nucleic acid that expresses mas-related G-protein coupled receptor member X2 (MrgprX2) or MrgprB2 with a candidate compound, detecting activation of MrgprX2 or MrgprB2, wherein activation of MrgprX2 or MrgprB2 determines that the candidate compound induces a pseudo-allergic-type reaction. contacting the isolated cell comprising a recombinant nucleic acid that expresses mas-related G-protein coupled receptor member X2 (MrgprX2) or MrgprB2 with a candidate compound, detecting activation of MrgprX2 or MrgprB2, wherein activation of MrgprX2 or MrgprB2 determines that the candidate compound induces a pseudo-allergic-type reaction.
A surgical apparatus for performing a controlled resection of the neck of a femur during a hip replacement procedure, the surgical apparatus comprising: a body portion comprising: a frame comprising an aperture, wherein the aperture is dimensioned for receiving a femoral head of the femur to position the body portion with respect to a centre of the femoral head; a resection guide for indicating a position of a resection plane on the femoral neck, and an arm extending from the frame and including markings for reading off a femoral head offset, a connector for mounting the body portion on an intramedullary rod located in an intramedullary canal of the femur, and for slidably receiving the arm , wherein the connector includes a pointer , the femoral head offset being indicated by reading the position of the pointer relative to the markings on the arm . a body portion comprising: a frame comprising an aperture, wherein the aperture is dimensioned for receiving a femoral head of the femur to position the body portion with respect to a centre of the femoral head; a resection guide for indicating a position of a resection plane on the femoral neck, and an arm extending from the frame and including markings for reading off a femoral head offset, a frame comprising an aperture, wherein the aperture is dimensioned for receiving a femoral head of the femur to position the body portion with respect to a centre of the femoral head; a resection guide for indicating a position of a resection plane on the femoral neck, and an arm extending from the frame and including markings for reading off a femoral head offset, a connector for mounting the body portion on an intramedullary rod located in an intramedullary canal of the femur, and for slidably receiving the arm ,