mhurhangee/patent-ind-claim-en huggingface dataset:
A method , performed by a user device configured to communicate with a first base station (104-1) via a radio link, for managing communication of a segmented radio resource control, RRC, message that includes N segments, wherein the segmented RRC message comprises an RRC message that has been divided by an RRC layer of the user device , the method comprising: transmitting M segments of the segmented RRC message to the first base station (104-1), M being an integer greater than zero and less than N ; detecting , before transmitting an ( M +1)-th segment of the segmented RRC message, a failure of the radio link; and after detecting the failure of the radio link, transmitting the N segments of the segmented RRC message to either the first base station (104-1) or a second base station (104-2). transmitting M segments of the segmented RRC message to the first base station (104-1), M being an integer greater than zero and less than N ; detecting , before transmitting an ( M +1)-th segment of the segmented RRC message, a failure of the radio link; and after detecting the failure of the radio link, transmitting the N segments of the segmented RRC message to either the first base station (104-1) or a second base station (104-2).
A liquid, highly concentrated, stable pharmaceutical anti-HER2 antibody formulation for subcutaneous injection comprising about 120 mg/ml of Trastuzumab, about 20 mM L-histidine/HCl at a pH of about 5.5, about 210 mM α,α-trehalose dihydrate, 10 mM methionine, 0.04% or 0.06% polysorbate 20 and about 2'000 U/ml rHuPH20, wherein the term "about" means variations of +/- 5% of the specific value.
A pneumatic tire 1 comprising a carcass having at least one carcass ply that extends from a tread portion through sidewall portions to bead portions , wherein the carcass ply has strip-shaped sheet-like ply pieces arranged in a tire circumferential direction, and each strip-shaped sheet-like ply piece has a radial length (L2) greater than a circumferential length (L1) in the tire circumferential direction, each ply piece has a plurality of carcass cords arranged along a longitudinal direction, the ply piece at least partially overlaps a ply piece that is adjacent thereto in the tire circumferential direction, and an intermediate elongation rate (Ee) of the carcass cords arranged in at least one of side edge portions , in a circumferential direction, of the ply piece is greater than an intermediate elongation rate (Ec) of the carcass cords arranged in a center portion of the ply piece , characterized in that the intermediate elongation rate (Ee) of the carcass cords arranged in the side edge portions is increased continuously from the center portion toward side edges in the ply piece .
A rubber composition for treads, comprising: a rubber component comprising a styrene butadiene rubber; a fine particle silica having an average particle size of 18 nm or less; a silane coupling agent containing an alkoxysilyl group and a sulfur atom wherein a number of carbon atoms linking the alkoxysilyl group to the sulfur atom is six or more; and a solid resin that is solid at 25°C, the rubber composition satisfying A × B ≤ 3000 wherein A and B represent total masses of silica and styrene, respectively, expressed in parts by mass per 100 parts by mass of the rubber component, the amount of the solid resin per 100 parts by mass of the rubber component being 3 parts by mass or more, wherein the average particle size of the fine particle silica is determined by measuring the sizes of 400 or more primary particles of the silica using a transmission or scanning electron microscope, and averaging them. a rubber component comprising a styrene butadiene rubber; a fine particle silica having an average particle size of 18 nm or less; a silane coupling agent containing an alkoxysilyl group and a sulfur atom wherein a number of carbon atoms linking the alkoxysilyl group to the sulfur atom is six or more; and a solid resin that is solid at 25°C, the rubber composition satisfying A × B ≤ 3000 wherein A and B represent total masses of silica and styrene, respectively, expressed in parts by mass per 100 parts by mass of the rubber component, the amount of the solid resin per 100 parts by mass of the rubber component being 3 parts by mass or more, wherein the average particle size of the fine particle silica is determined by measuring the sizes of 400 or more primary particles of the silica using a transmission or scanning electron microscope, and averaging them.
A combination of at least two amplification oligomers for amplifying a Zika virus nucleic acid in a sample, the oligomer combination comprising: at least two amplification oligomers for amplifying a target sequence of a Zika virus target nucleic acid, wherein the target sequence consists of SEQ ID NO:189 or SEQ ID NO: 190, the RNA equivalent of SEQ ID NO: 189 or SEQ ID NO: 190, wherein the first amplification oligomer and the second amplification oligomer are configured to hybridize to opposite ends of the target sequence, to generate amplification products; wherein a first amplification oligomer comprises: (i)a target hybridizing sequence that is from 17 to 26 contiguous nucleobases of SEQ ID NO: 24, wherein said contiguous nucleobases of the target-hybridizing sequence include SEQ ID NO: 25, or (ii) a target-hybridizing sequence consisting of SEQ ID NO: 27, wherein a second amplification oligomer comprises a target hybridizing sequence that is selected from the group consisting of SEQ ID NO: 113, SEQ ID NO: 115, SEQ ID NO: 126 and SEQ ID NO: 128 and, optionally, joined at its 5' end to a promoter sequence. at least two amplification oligomers for amplifying a target sequence of a Zika virus target nucleic acid, wherein the target sequence consists of SEQ ID NO:189 or SEQ ID NO: 190, the RNA equivalent of SEQ ID NO: 189 or SEQ ID NO: 190, wherein the first amplification oligomer and the second amplification oligomer are configured to hybridize to opposite ends of the target sequence, to generate amplification products; wherein a first amplification oligomer comprises: (i)a target hybridizing sequence that is from 17 to 26 contiguous nucleobases of SEQ ID NO: 24, wherein said contiguous nucleobases of the target-hybridizing sequence include SEQ ID NO: 25, or (ii) a target-hybridizing sequence consisting of SEQ ID NO: 27, wherein a second amplification oligomer comprises a target hybridizing sequence that is selected from the group consisting of SEQ ID NO: 113, SEQ ID NO: 115, SEQ ID NO: 126 and SEQ ID NO: 128 and, optionally, joined at its 5' end to a promoter sequence.
A bale wrapper for wrapping harvest product bales having a wrapping material web comprising a supply device for supplying the wrapping material web , a cutting device for cutting off/separating the wrapping material web after wrapping a harvest product bale, and a gathering device for gathering the wrapping material web on/for the cutting off, wherein the gathering device is variably adjustable with respect to its gathering width and is configured to gather the wrapping material web only at the margins such that the wrapping material web has margins gathered at both sides and an ungathered, flat middle piece on the cutting off, characterized in that an electronic control device for setting the gathering width and for controlling an adjustment actuator actuable by external energy of the gathering device is provided, with the control device having gathering width presetting means for presetting different gathering widths for different wrapping material types, with the control device having material type selection means for selecting a wrapping material type used, and with the control device being configured to set the gathering device to the gathering width preset for the selected wrapping material type.
A barrier assembly for a bed, comprising:- one or more support rails; a pivot mechanism provided at a distal end of the one or more support rails; one or more barrier rail elements , coupled to the pivot mechanism for movement from a substantially horizontal plane to a substantially vertical plane; wherein when in a substantially horizontal plane, the barrier rail elements are themselves movable in the plane of the one or more support rails between an extended position and a retracted position such that the width of the bed can be changed with the barrier rail elements movable between upright or underbed stowed configurations in both wide and narrow bed width configurations, wherein the pivot mechanism comprises a barrier rail support having an outer sleeve member coupled at or adjacent the distal end of the one or more support rails, and an inner rotatable rod member which rotates with the barrier rail elements, and wherein the barrier rail elements are movable through the barrier rail support when in the plane of the one or more support rails , characterised in that the one or more support rails are extendable, in use, laterally from a stowed position to a deployed position. one or more support rails; a pivot mechanism provided at a distal end of the one or more support rails; one or more barrier rail elements , coupled to the pivot mechanism for movement from a substantially horizontal plane to a substantially vertical plane; wherein when in a substantially horizontal plane, the barrier rail elements are themselves movable in the plane of the one or more support rails between an extended position and a retracted position such that the width of the bed can be changed with the barrier rail elements movable between upright or underbed stowed configurations in both wide and narrow bed width configurations, wherein the pivot mechanism comprises a barrier rail support having an outer sleeve member coupled at or adjacent the distal end of the one or more support rails, and an inner rotatable rod member which rotates with the barrier rail elements, and wherein the barrier rail elements are movable through the barrier rail support when in the plane of the one or more support rails , characterised in that the one or more support rails are extendable, in use, laterally from a stowed position to a deployed position.
A hot-melt adhesive resin film comprising a first adhesive layer, a first intermediate layer, a substrate layer having heat resistance, a second intermediate layer, and a second adhesive layer, which are laminated in this order, wherein said first adhesive layer and said second adhesive layer include an acid-modified polyolefin resin, and said substrate layer is a layer formed of cyclic olefin polymer or methylpentene polymer.
A dialysate regenerator for connecting to a dialysis apparatus, the dialysate regenerator comprising a regenerator inlet for receiving dialysate; a regenerator outlet for dispensing regenerated dialysate; a hydraulic circuit connected between the regenerator inlet and the regenerator outlet , and further comprising a fluid portioning system to divide a dialysate flow into uniform portions for sequential regeneration, wherein the sequential regeneration comprises two alternate states (ST1, ST2) comprising a first state (ST1) and a second state (ST2), and characterized in that the fluid portioning system comprises: a chamber comprising a movable separator wall separating the interior of the chamber into a first compartment and a second compartment , a first opening for allowing exchange of dialysate to and from the first compartment ; a second opening for allowing exchange of dialysate to and from the second compartment ; and wherein the fluid portioning system is configured to allow dialysate flow from the regenerator inlet to one of the first and second compartments in the first state (ST1) and to the other one of the first and second compartments in the second state (ST2), wherein dialysate ingress into the one compartment causes displacement of the movable separator wall and dialysate egress from the other compartment . a regenerator inlet for receiving dialysate; a regenerator outlet for dispensing regenerated dialysate; a hydraulic circuit connected between the regenerator inlet and the regenerator outlet , and further comprising a fluid portioning system to divide a dialysate flow into uniform portions for sequential regeneration, wherein the sequential regeneration comprises two alternate states (ST1, ST2) comprising a first state (ST1) and a second state (ST2), and characterized in that the fluid portioning system comprises: a chamber comprising a movable separator wall separating the interior of the chamber into a first compartment and a second compartment , a first opening for allowing exchange of dialysate to and from the first compartment ; a second opening for allowing exchange of dialysate to and from the second compartment ; and a movable separator wall separating the interior of the chamber into a first compartment and a second compartment , a first opening for allowing exchange of dialysate to and from the first compartment ; a second opening for allowing exchange of dialysate to and from the second compartment ; and wherein the fluid portioning system is configured to allow dialysate flow from the regenerator inlet to one of the first and second compartments in the first state (ST1) and to the other one of the first and second compartments in the second state (ST2), wherein dialysate ingress into the one compartment causes displacement of the movable separator wall and dialysate egress from the other compartment .
A wave operated assembly configured to be submerged or located in a body of water , the wave operated assembly comprising: a wave actuated member ; a second portion ; and a piston assembly or pressure chamber coupled between the wave actuated member and the second portion; wherein the wave actuated member and the second portion each define part of a first chamber or volume comprising or configured to receive a fluid, the fluid comprising a gas; the wave actuated member is movable relative to the second portion ; the piston assembly or pressure chamber is configured to apply a force on the wave actuated member that works in opposition to a force on the wave actuated member due to the fluid in the first chamber or volume ; the piston assembly or pressure chamber is at least partially or wholly provided within the wave actuated member ; an outer diameter of the piston assembly or pressure chamber is less than an outer diameter of the wave actuated member ; and characterised in that J Z an outer diameter of the piston assembly or pressure chamber comprises a varying outer diameter; and in that a lower portion of the wave actuated member at least partly defines a free surface between the fluid within the first chamber or volume and the body of water . a wave actuated member ; a second portion ; and a piston assembly or pressure chamber coupled between the wave actuated member and the second portion; wherein the wave actuated member and the second portion each define part of a first chamber or volume comprising or configured to receive a fluid, the fluid comprising a gas; the wave actuated member is movable relative to the second portion ; the piston assembly or pressure chamber is configured to apply a force on the wave actuated member that works in opposition to a force on the wave actuated member due to the fluid in the first chamber or volume ; the piston assembly or pressure chamber is at least partially or wholly provided within the wave actuated member ; an outer diameter of the piston assembly or pressure chamber is less than an outer diameter of the wave actuated member ; and characterised in that J Z an outer diameter of the piston assembly or pressure chamber comprises a varying outer diameter; and in that a lower portion of the wave actuated member at least partly defines a free surface between the fluid within the first chamber or volume and the body of water .
Method for the secure transfer of a dataset (D) between a server and a user device by means of a cloud service comprising the steps: - Provision or generation (I) of a user-side Diffie Hellman key pair (Bp, Bs) by the user device , comprising a secret user key (Bs) and a public user key (Bp), - Transfer (II) of the public user key (Bp) to the server , - Provision and/or generation (III) of a server-side Diffie Hellman key pair (Sp, Ss) by the server , comprising a secret server key (Ss) and a public server key (Sp), - Provision (IV) of a dataset (D) on the server , - Generation (V) of a server-side Diffie Hellman key (S1) on the server by using the secret server key (Ss) and the public user key (Bp) and encryption of the dataset (D) on the server by means of the resulting Diffie Hellman key (S1) on the server side, - Transfer (VI) of the encrypted dataset (Dv) to the cloud service , - Retrieval (VII) of the public server key (Sp) and retrieval of the encrypted dataset (Dv) from the cloud service by means of the user device , - Generation (VIII) of a user-side Diffie Hellman key (S2) on the user device by using the secret user key (Bs) and the retrieved public server key (Sp) and decryption of the encrypted dataset (Dv) on the user device with the resulting Diffie Hellman key (S2) on the user side. - Provision or generation (I) of a user-side Diffie Hellman key pair (Bp, Bs) by the user device , comprising a secret user key (Bs) and a public user key (Bp), - Transfer (II) of the public user key (Bp) to the server , - Provision and/or generation (III) of a server-side Diffie Hellman key pair (Sp, Ss) by the server , comprising a secret server key (Ss) and a public server key (Sp), - Provision (IV) of a dataset (D) on the server , - Generation (V) of a server-side Diffie Hellman key (S1) on the server by using the secret server key (Ss) and the public user key (Bp) and encryption of the dataset (D) on the server by means of the resulting Diffie Hellman key (S1) on the server side, - Transfer (VI) of the encrypted dataset (Dv) to the cloud service , - Retrieval (VII) of the public server key (Sp) and retrieval of the encrypted dataset (Dv) from the cloud service by means of the user device , - Generation (VIII) of a user-side Diffie Hellman key (S2) on the user device by using the secret user key (Bs) and the retrieved public server key (Sp) and decryption of the encrypted dataset (Dv) on the user device with the resulting Diffie Hellman key (S2) on the user side.
A method of rendering a frame showing a scene formed by primitives in a tile-based graphics processing system, the method comprising: a geometry processing phase, comprising the step of: tiling the primitives in the scene (S208), to determine which primitives at least partially overlap which tiles of the frame to be rendered; and a rendering phase comprising the steps of: obtaining a fragment density map (S215) defining one or more texels, each texel corresponding to an area of the frame to be rendered and having an associated fragment size, wherein for each of the texels, the texel's height is an integer multiple of a native tile height used in the tile-based graphics processing system and the texel's width is an integer multiple of a native tile width used in the tile-based graphics processing system; and for each tile to be rendered: determining (S1002) from the fragment density map a fragment size to be used to render the tile, performing sampling (S1004) using the determined fragment size and performing fragment shading (S1006) using the determined fragment size. a geometry processing phase, comprising the step of: tiling the primitives in the scene (S208), to determine which primitives at least partially overlap which tiles of the frame to be rendered; and a rendering phase comprising the steps of: obtaining a fragment density map (S215) defining one or more texels, each texel corresponding to an area of the frame to be rendered and having an associated fragment size, wherein for each of the texels, the texel's height is an integer multiple of a native tile height used in the tile-based graphics processing system and the texel's width is an integer multiple of a native tile width used in the tile-based graphics processing system; and for each tile to be rendered: determining (S1002) from the fragment density map a fragment size to be used to render the tile, performing sampling (S1004) using the determined fragment size and performing fragment shading (S1006) using the determined fragment size. obtaining a fragment density map (S215) defining one or more texels, each texel corresponding to an area of the frame to be rendered and having an associated fragment size, wherein for each of the texels, the texel's height is an integer multiple of a native tile height used in the tile-based graphics processing system and the texel's width is an integer multiple of a native tile width used in the tile-based graphics processing system; and for each tile to be rendered: determining (S1002) from the fragment density map a fragment size to be used to render the tile, performing sampling (S1004) using the determined fragment size and performing fragment shading (S1006) using the determined fragment size.
Combined appliance comprising a hob with a cover plate and a vapour extraction apparatus, wherein the combined appliance has a protective grid and a positioning frame for positioning the protective grid in a recess of the cover plate , which is fastened to the cover plate and is in contact with the protective grid , characterised in that the positioning frame is fastened on the bottom side of the cover plate around the recess .
A method, comprising: an interworking function receiving a request to trigger a group of devices, wherein the triggering request comprises geographic location coordinates corresponding to an area, the area being served by a plurality of serving nodes; the interworking function obtaining , based on the geographic location coordinates, at least one of a tracking area identifier, TAI, and a cell identifier, ID, corresponding to the area; the interworking function determining at least one mobility management apparatus based on the corresponding area; and the interworking function sending a device trigger request including the at least one of a tracking area identifier, TAI, and a cell identifier, ID, to the at least one mobility management apparatus, causing the at least one mobility management apparatus to determine as a triggering process for triggering the group of devices one of a broadcasting mechanism, a multicasting mechanism, an individually in parallel paging, and an individually sequentially paging. an interworking function receiving a request to trigger a group of devices, wherein the triggering request comprises geographic location coordinates corresponding to an area, the area being served by a plurality of serving nodes; the interworking function obtaining , based on the geographic location coordinates, at least one of a tracking area identifier, TAI, and a cell identifier, ID, corresponding to the area; the interworking function determining at least one mobility management apparatus based on the corresponding area; and the interworking function sending a device trigger request including the at least one of a tracking area identifier, TAI, and a cell identifier, ID, to the at least one mobility management apparatus, causing the at least one mobility management apparatus to determine as a triggering process for triggering the group of devices one of a broadcasting mechanism, a multicasting mechanism, an individually in parallel paging, and an individually sequentially paging. a broadcasting mechanism, a multicasting mechanism, an individually in parallel paging, and an individually sequentially paging.