mhurhangee/patent-ind-claim-en huggingface dataset:
A method for providing improved frequency and phase error tracking in a high-speed high-frequency communication system, the method comprising the steps of: a) performing encoding, interleaving and symbol mapping on a data stream of original information bits; b) partitioning the resulting data stream into blocks; c) inserting a pilot sequence, into at least two or more blocks of the partitioned data stream, the pilot sequence being distinct from a cyclic prefix of a corresponding block of said at least two or more blocks; d) modulating and transmitting the partitioned data stream; and wherein said pilot sequence is appended at the beginning of said at least two blocks, said pilot sequence is located between said cyclic prefix and each of said at least two blocks of said partitioned data stream, and wherein the pilot sequence is a repeated sequence of known pilot signals. a) performing encoding, interleaving and symbol mapping on a data stream of original information bits; b) partitioning the resulting data stream into blocks; c) inserting a pilot sequence, into at least two or more blocks of the partitioned data stream, the pilot sequence being distinct from a cyclic prefix of a corresponding block of said at least two or more blocks; d) modulating and transmitting the partitioned data stream; and
A polymeric compound represented by the following general formula : wherein R 1 represents (C1-C4) alkyl group which may optionally have a substituent; t represents an integer of 45-450; A represents (C1-C6)alkylene group; d + e + f + g + h represents an integer of 6-60; the ratio of d compared to d + e + f + g + h is 5-50%: the ratio of e compared to d + e + f + g + h is 5-90%; the ratio of f compared to d + e + f + g + h is 0-90%, the ratio of g compared to d + e + f + g + h is 0-90%; the ratio of h compared to d + e + f + g + h is 0-90%; R 2 represents hydrogen atom or (C1-C4)acyl group; R 3 represents a residue of anti-cancer effect enhancer, or an aspartic acid residue to which the anti-cancer effect enhancer is bound; R 4 represents an aspartic acid residue and/or an aspartic acid imide residue; R 5 represents N(R 6 )CONH(R 7 ); and R 6 and R 7 , which may be the same or different from each other, represent (C3-C6)branched or cyclic alkyl group, or (C1-C5) branched or linear alkyl group which may be substituted with a tertiary amino group. wherein the anti-cancer effect enhancer is a PARP inhibitor selected from the compounds represented by the following formulae to R 1 represents (C1-C4) alkyl group which may optionally have a substituent; t represents an integer of 45-450; A represents (C1-C6)alkylene group; d + e + f + g + h represents an integer of 6-60; the ratio of d compared to d + e + f + g + h is 5-50%: the ratio of e compared to d + e + f + g + h is 5-90%; the ratio of f compared to d + e + f + g + h is 0-90%, the ratio of g compared to d + e + f + g + h is 0-90%; the ratio of h compared to d + e + f + g + h is 0-90%; the ratio of e compared to d + e + f + g + h is 5-90%; the ratio of f compared to d + e + f + g + h is 0-90%, the ratio of g compared to d + e + f + g + h is 0-90%; the ratio of h compared to d + e + f + g + h is 0-90%; R 2 represents hydrogen atom or (C1-C4)acyl group; R 3 represents a residue of anti-cancer effect enhancer, or an aspartic acid residue to which the anti-cancer effect enhancer is bound; R 4 represents an aspartic acid residue and/or an aspartic acid imide residue; R 5 represents N(R 6 )CONH(R 7 ); and R 6 and R 7 , which may be the same or different from each other, represent (C3-C6)branched or cyclic alkyl group, or (C1-C5) branched or linear alkyl group which may be substituted with a tertiary amino group. wherein the anti-cancer effect enhancer is a PARP inhibitor selected from the compounds represented by the following formulae to
A computer graphics processing method comprising: determining vertex positions for one or more primitives with a vertex shader, and outputting vertex indices and corresponding determined positions; writing the vertex indices, output from the vertex shader , to a cache ; writing the determined positions, output from the vertex shader , to a hardware component operable to generate barycentric coordinates of pixels relative to each primitive; accessing the vertex indices written to the cache with a pixel shader operating downstream of the vertex shader; accessing vertex parameter values associated with the vertex indices from a memory unit with the pixel shader; manipulating parameter values associated with a primitive's vertices in three-dimensional virtual space with the pixel shader; and interpolating the vertex parameter values resulting from the manipulation with the pixel shader to determine the parameter values at each pixel location. determining vertex positions for one or more primitives with a vertex shader, and outputting vertex indices and corresponding determined positions; writing the vertex indices, output from the vertex shader , to a cache ; writing the determined positions, output from the vertex shader , to a hardware component operable to generate barycentric coordinates of pixels relative to each primitive; accessing the vertex indices written to the cache with a pixel shader operating downstream of the vertex shader; accessing vertex parameter values associated with the vertex indices from a memory unit with the pixel shader; manipulating parameter values associated with a primitive's vertices in three-dimensional virtual space with the pixel shader; and interpolating the vertex parameter values resulting from the manipulation with the pixel shader to determine the parameter values at each pixel location.
A method for producing a veneered board , comprising a veneer and a carrier board , said method comprising the steps of: - providing a veneer and a backing board , - providing a sheet of paper that is impregnated with binder and that is arranged in a stack of items to be pressed between an upper face of the backing board and a lower face of the veneer , and - pressing the stack of items to be pressed, characterized in that - the paper is impregnated with a binder, - the paper impregnated with binder is pre-dried such that it is still sticky, - at least one additive is applied to the pre-dried binder that is still sticky, and - the paper impregnated with binder and provided with an additive is dried to a residual moisture content of up to 8%. - providing a veneer and a backing board , - providing a sheet of paper that is impregnated with binder and that is arranged in a stack of items to be pressed between an upper face of the backing board and a lower face of the veneer , and - pressing the stack of items to be pressed, - the paper is impregnated with a binder, - the paper impregnated with binder is pre-dried such that it is still sticky, - at least one additive is applied to the pre-dried binder that is still sticky, and - the paper impregnated with binder and provided with an additive is dried to a residual moisture content of up to 8%.
An introducer for deploying a stent graft in a curved lumen, the introducer including: a carrier for a stent graft including a plurality of stents ; a release mechanism including a constraining mechanism, wherein the constraining mechanism includes at least one release wire ; a stent graft mounted on the carrier, the stent graft including at least one wire-receiver co-operating with the release wire of the introducer, wherein the wire-receiver and the release wire radially constrain at least a portion of at least one stent of the stent graft, wherein at least the most proximal stent of the stent graft is not constrained; the release wire and the wire receiver together operable to enable the constrained stent to expand so as to overlap with the interior of at least a portion of an adjacent stent in an expanded portion of the stent graft. a carrier for a stent graft including a plurality of stents ; a release mechanism including a constraining mechanism, wherein the constraining mechanism includes at least one release wire ; a stent graft mounted on the carrier, the stent graft including at least one wire-receiver co-operating with the release wire of the introducer, wherein the wire-receiver and the release wire radially constrain at least a portion of at least one stent of the stent graft, wherein at least the most proximal stent of the stent graft is not constrained; the release wire and the wire receiver together operable to enable the constrained stent to expand so as to overlap with the interior of at least a portion of an adjacent stent in an expanded portion of the stent graft.
Respiratory ventilation device , intended to send an airflow, generated by a fan, into a duct , the duct extending between the device and a respiratory mask , intended to be worn by a user, the device comprising: - an air inlet , intended to admit air into the device ; - a fan; - an air outlet , the air outlet being configured to be connected to the duct ; such that when the fan is operating, air flows, through the device, from the air inlet successively to the fan then to the air outlet; - a flow sensor , measuring a flow rate of air flowing through the device, and/or a pressure sensor measuring a pressure between the fan and the air outlet; - a control unit , connected to the flow sensor and/or to the pressure sensor ; - an enclosure , defining the air inlet and the air outlet , the enclosure containing the fan, - the enclosure extending, around a longitudinal axis (Z), between a base (10 inf ) and a top (10 sup ); - the enclosure comprising a side wall connecting the base and the top, the side wall extending around the longitudinal axis (Z); the device being characterized in that - the enclosure comprises at least one holder (40, 40 a , 40 b ), forming a curve, and extending inside the enclosure, around the longitudinal axis (Z), the holder being placed facing the side wall, the holder bearing a plurality of light sources , each light source being configured to emit a light; - the enclosure is formed from a translucent and/or scattering material; such that under the effect of an activation of the light sources fastened to the holder, the light, produced by the light sources, diffuses through the side wall of the enclosure. - an air inlet , intended to admit air into the device ; - a fan; - an air outlet , the air outlet being configured to be connected to the duct ; such that when the fan is operating, air flows, through the device, from the air inlet successively to the fan then to the air outlet; - a flow sensor , measuring a flow rate of air flowing through the device, and/or a pressure sensor measuring a pressure between the fan and the air outlet; - a control unit , connected to the flow sensor and/or to the pressure sensor ; - an enclosure , defining the air inlet and the air outlet , the enclosure containing the fan, - the enclosure extending, around a longitudinal axis (Z), between a base (10 inf ) and a top (10 sup ); - the enclosure comprising a side wall connecting the base and the top, the side wall extending around the longitudinal axis (Z); - the enclosure comprises at least one holder (40, 40 a , 40 b ), forming a curve, and extending inside the enclosure, around the longitudinal axis (Z), the holder being placed facing the side wall, the holder bearing a plurality of light sources , each light source being configured to emit a light; - the enclosure is formed from a translucent and/or scattering material;
Clutch arrangement having an absorber system which has an absorber mass carrier and at least one absorber mass that can be deflected relative to the absorber mass carrier , and having a housing which has at least two housing parts connected permanently to one another by means of a fixed connection , of which at least one housing part has a cut-out for at least one protrusion of the respective other housing part , characterized in that the at least two housing parts are joined together while holding the absorber mass carrier between an axial stop of the cut-out of the one housing part and the protrusion of the other housing part , specifically in such a way that, as the fixed connection is produced, the housing parts are loaded by a clamping device which acts on the housing parts in a direction pointing away from each other and which is effective axially between one of the housing parts and the absorber mass carrier , which is supported axially on the respective other housing part .
An ultrasonic sensor arrangement comprising a housing with a container which is open at the top, a disc-shaped, piezoelectric element and a coupling element in the interior of the container , wherein the coupling element has a bearing surface , on which the piezoelectric element is arranged, and said coupling element being provided on the underside of the container , wherein the container and the coupling element are integrally formed, and wherein at least the piezoelectric element is covered with a potting compound, where the bearing surface is surrounded at least in portions by a wall and characterized in that open slots are provided in the wall . a housing with a container which is open at the top, a disc-shaped, piezoelectric element and a coupling element in the interior of the container , wherein the coupling element has a bearing surface , on which the piezoelectric element is arranged, and said coupling element being provided on the underside of the container , wherein the container and the coupling element are integrally formed, and wherein at least the piezoelectric element is covered with a potting compound, where the bearing surface is surrounded at least in portions by a wall and characterized in that open slots are provided in the wall .
An image sensor, comprising: a substrate having first and second opposing surfaces thereon; a first pixel (PX1) comprising a first color filter on the second surface (1 00b) of the substrate , and a first photoelectric conversion region within a first portion of the substrate , which extends between the first and second opposing surfaces of the substrate and extends between the first color filter and the first surface of the substrate ; and a second pixel (PX2) having different light receiving characteristics relative to the first pixel (PX1), said second pixel (PX2) comprising: a pixel electrode on the second surface of the substrate ; and a second photoelectric conversion layer comprising a perovskite material, on the pixel electrode , wherein the first color filter and the first photoelectric conversion region of the first pixel do not overlap with the second photoelectric conversion layer of the second pixel in a direction (D3) perpendicular to the second surface of the substrate; and wherein a color filter is omitted from a light receiving path of the second pixel (PX2). a substrate having first and second opposing surfaces thereon; a first pixel (PX1) comprising a first color filter on the second surface (1 00b) of the substrate , and a first photoelectric conversion region within a first portion of the substrate , which extends between the first and second opposing surfaces of the substrate and extends between the first color filter and the first surface of the substrate ; and a second pixel (PX2) having different light receiving characteristics relative to the first pixel (PX1), said second pixel (PX2) comprising: a pixel electrode on the second surface of the substrate ; and a second photoelectric conversion layer comprising a perovskite material, on the pixel electrode , wherein the first color filter and the first photoelectric conversion region of the first pixel do not overlap with the second photoelectric conversion layer of the second pixel in a direction (D3) perpendicular to the second surface of the substrate; and wherein a color filter is omitted from a light receiving path of the second pixel (PX2). a pixel electrode on the second surface of the substrate ; and a second photoelectric conversion layer comprising a perovskite material, on the pixel electrode , wherein the first color filter and the first photoelectric conversion region of the first pixel do not overlap with the second photoelectric conversion layer of the second pixel in a direction (D3) perpendicular to the second surface of the substrate; and wherein a color filter is omitted from a light receiving path of the second pixel (PX2).
A separator for a lithium secondary battery comprising: a substrate having a plurality of first pores formed therein; a coating layer located on the surface of the substrate, including inorganic particles and a binder, and having a plurality of second pores formed therein, the binder being selected from the group consisting of polyvinylidene fluoride-co-hexafluoropropylene, polyvinylidene fluoride-co-trichloroethylene, polymethylmethacrylate, polyacrylonitrile, polyvinylpyrrolidone, polyvinyl acetate, polyethylene-co-vinyl acetate, polyethylene oxide, cellulose acetate, cellulose acetate butyrate, cellulose acetate propionate, cyanoethylpullulan, cyanoethylpolyvinylalcohol, cyanoethylcellulose, cyanoethylsucrose, pullulan, carboxyl methyl cellulose, acrylonitrile-styrene-butadiene copolymer, polyimide, polyvinylalcohol, and mixtures thereof; and an ion conductive polymer that selectively fills either one of all of the first pores and all of the second pores, the ion conductive polymer being a fluorine-based ionomer. a substrate having a plurality of first pores formed therein; a coating layer located on the surface of the substrate, including inorganic particles and a binder, and having a plurality of second pores formed therein, the binder being selected from the group consisting of polyvinylidene fluoride-co-hexafluoropropylene, polyvinylidene fluoride-co-trichloroethylene, polymethylmethacrylate, polyacrylonitrile, polyvinylpyrrolidone, polyvinyl acetate, polyethylene-co-vinyl acetate, polyethylene oxide, cellulose acetate, cellulose acetate butyrate, cellulose acetate propionate, cyanoethylpullulan, cyanoethylpolyvinylalcohol, cyanoethylcellulose, cyanoethylsucrose, pullulan, carboxyl methyl cellulose, acrylonitrile-styrene-butadiene copolymer, polyimide, polyvinylalcohol, and mixtures thereof; and an ion conductive polymer that selectively fills either one of all of the first pores and all of the second pores, the ion conductive polymer being a fluorine-based ionomer.
A system for improving intra-body visualization , the system comprising: a probe configured to: sense first electrical activity at a first time for a plurality of points on an intra-body surface and second electrical activity at a second time for the plurality of points ; a processor configured to; identify a first cluster of points from the plurality of points, the first cluster of points each exhibiting electrical activity above an activity threshold ; identify a second cluster of points from the plurality of points, the second cluster of points each exhibiting electrical activity above the activity threshold ; characterized in that the processor is further configured to determine that the first cluster of points and the second cluster of points are related based on a propagation threshold , wherein the propagation threshold is based on a propagation velocity multiplied by a difference between the first time and the second time; and provide a first visual indication of a first propagation route from the first cluster of points to the second cluster of points based on determining that they are related. a probe configured to: sense first electrical activity at a first time for a plurality of points on an intra-body surface and second electrical activity at a second time for the plurality of points ; a processor configured to; identify a first cluster of points from the plurality of points, the first cluster of points each exhibiting electrical activity above an activity threshold ; identify a second cluster of points from the plurality of points, the second cluster of points each exhibiting electrical activity above the activity threshold ; characterized in that the processor is further configured to determine that the first cluster of points and the second cluster of points are related based on a propagation threshold , wherein the propagation threshold is based on a propagation velocity multiplied by a difference between the first time and the second time; and provide a first visual indication of a first propagation route from the first cluster of points to the second cluster of points based on determining that they are related. identify a first cluster of points from the plurality of points, the first cluster of points each exhibiting electrical activity above an activity threshold ; identify a second cluster of points from the plurality of points, the second cluster of points each exhibiting electrical activity above the activity threshold ; characterized in that the processor is further configured to determine that the first cluster of points and the second cluster of points are related based on a propagation threshold , wherein the propagation threshold is based on a propagation velocity multiplied by a difference between the first time and the second time; and provide a first visual indication of a first propagation route from the first cluster of points to the second cluster of points based on determining that they are related.
Puncture sealing agent, comprising: natural rubber latex, an aqueous solution of an adhesive and an antifreezing agent, characterized in that the adhesive is a carbohydrate and in that the puncture sealing agent comprises a solid content resulting from the natural rubber latex in an amount of 21 wt% or less, based on the total weight of the puncture sealing agent, wherein the solid content resulting from the natural rubber is, based on the total weight of the puncture sealing agent, 9 wt% or more. natural rubber latex, an aqueous solution of an adhesive and an antifreezing agent, characterized in that the adhesive is a carbohydrate and in that the puncture sealing agent comprises a solid content resulting from the natural rubber latex in an amount of 21 wt% or less, based on the total weight of the puncture sealing agent, wherein the solid content resulting from the natural rubber is, based on the total weight of the puncture sealing agent, 9 wt% or more.