mhurhangee/patent-ind-claim-en huggingface dataset:
A tyre comprising: a tread portion having a tread surface provided with grooves extending in a tyre axial direction; and each groove comprising an opening formed on the tread surface , a minimum portion located inwardly in a tyre radial direction of the opening and having a groove width (W1) being locally minimum, and a maximum portion located inwardly in the tyre radial direction of the minimum portion and having a groove width (W2) being locally maximum in a region inwardly in the tyre radial direction of the opening, wherein a minimum distance (L3) in the tyre radial direction between the minimum portion and the opening is smaller than a minimum distance (L1) in the tyre radial direction between the minimum portion and the maximum portion , characterized in that a region from the opening to the minimum portion of each groove is formed by a pair of inclined surfaces inclined with respect to the tyre radial direction. a tread portion having a tread surface provided with grooves extending in a tyre axial direction; and each groove comprising an opening formed on the tread surface , a minimum portion located inwardly in a tyre radial direction of the opening and having a groove width (W1) being locally minimum, and a maximum portion located inwardly in the tyre radial direction of the minimum portion and having a groove width (W2) being locally maximum in a region inwardly in the tyre radial direction of the opening, wherein a minimum distance (L3) in the tyre radial direction between the minimum portion and the opening is smaller than a minimum distance (L1) in the tyre radial direction between the minimum portion and the maximum portion , characterized in that a region from the opening to the minimum portion of each groove is formed by a pair of inclined surfaces inclined with respect to the tyre radial direction.
A drilling method of forming a hole (H) having a desired diameter (d 1 ) in a fiber-reinforced plastic workpiece (W), comprising steps of: disposing a resist layer , in which an opening having a diameter (d 2 ) smaller than the desired diameter (d 1 ) is formed, on the workpiece (W), wherein a ratio of the diameter (d 2 ) of the opening to the desired diameter (d 1 ) is 0.84 or more and 0.94 or less; and ejecting blasting abrasives to the workpiece (W) through the resist layer to cut a portion, which is exposed from the opening , in the workpiece (W) while cutting a peripheral edge portion of the opening of the resist layer . disposing a resist layer , in which an opening having a diameter (d 2 ) smaller than the desired diameter (d 1 ) is formed, on the workpiece (W), wherein a ratio of the diameter (d 2 ) of the opening to the desired diameter (d 1 ) is 0.84 or more and 0.94 or less; and ejecting blasting abrasives to the workpiece (W) through the resist layer to cut a portion, which is exposed from the opening , in the workpiece (W) while cutting a peripheral edge portion of the opening of the resist layer .
A VCSEL device comprising: a substrate ; a laser cavity over the substrate , the laser cavity including a gain section disposed between first and second reflectors, wherein the VCSEL device is operable to emit light through a first end of the VCSEL device , the first end being closer to the first reflector than the second reflector; an anode surface mount contact ; and a cathode surface mount contact , wherein each of the anode and cathode surface mount contacts is disposed at a second end of the VCSEL device opposite the first end of the VCSEL device , the VCSEL device further including: a first electrical connection at the first end of the VCSEL device , wherein the first electrical connection is routed to the anode surface mount contact by way of an opening through the substrate ; and a second electrical connection at a surface of the second reflector, characterized in that , the second electrical connection is routed to the cathode surface mount contact by way of the same opening through the substrate as the first electrical connection is routed to the anode surface mount contact . a substrate ; a laser cavity over the substrate , the laser cavity including a gain section disposed between first and second reflectors, wherein the VCSEL device is operable to emit light through a first end of the VCSEL device , the first end being closer to the first reflector than the second reflector; an anode surface mount contact ; and a cathode surface mount contact , wherein each of the anode and cathode surface mount contacts is disposed at a second end of the VCSEL device opposite the first end of the VCSEL device , the VCSEL device further including: a first electrical connection at the first end of the VCSEL device , wherein the first electrical connection is routed to the anode surface mount contact by way of an opening through the substrate ; and a second electrical connection at a surface of the second reflector, characterized in that , the second electrical connection is routed to the cathode surface mount contact by way of the same opening through the substrate as the first electrical connection is routed to the anode surface mount contact . a first electrical connection at the first end of the VCSEL device , wherein the first electrical connection is routed to the anode surface mount contact by way of an opening through the substrate ; and a second electrical connection at a surface of the second reflector, characterized in that , the second electrical connection is routed to the cathode surface mount contact by way of the same opening through the substrate as the first electrical connection is routed to the anode surface mount contact .
Shedding unit for a weaving machine, the shedding unit comprising a blocking device and a shedding mechanism , the shedding mechanism comprising a number of heald frames and a number of drive mechanisms , wherein each drive mechanism is assigned to one heald frame and comprises at least a coupling rod and a first swivel lever having a first arm and a second arm , wherein the coupling rod is connected to the first arm of the first swivel lever adjustable in location by means of a mounting element and wherein the heald frame , to which the drive mechanism is assigned, is coupled to the second arm of the first swivel lever , wherein all first swivel levers are swivelable to-and-fro about a common swivel axis between an upper position and a lower position, wherein each first swivel lever is swivelable into a setting position for setting the location of the associated coupling rod with respect to the first arm of the first swivel lever , characterized in that the blocking device comprises a number of blocking elements , each blocking element is assigned to one drive mechanism , wherein each blocking element is moveable between a weaving place and a blocking place, wherein each blocking element in its blocking place interacts with the assigned drive mechanism to prevent a movement of the first swivel lever of said drive mechanism beyond the setting position towards the lower position, and wherein in a plane perpendicular to the common swivel axis the blocking place of at least one first blocking element of the number of blocking elements differs from the blocking place of at least one second blocking element of the number of blocking elements .
A method for changing data transmission scheme, applied in a first core network device, the method comprising: transmitting , in response to determining to change a data transmission scheme of a first Protocol Data Unit, PDU, session, first indication information to a second core network device and/or a terminal device, wherein the first indication information indicates to change the data transmission scheme of the first PDU session, and the first PDU session refers to a PDU session that has been established between a Data Network, DN, and the terminal device, characterized in that the data transmission scheme comprises at least one of: a control plane data transmission scheme only; a user plane data transmission scheme only; or both the control plane data transmission scheme and the user plane data transmission scheme. transmitting , in response to determining to change a data transmission scheme of a first Protocol Data Unit, PDU, session, first indication information to a second core network device and/or a terminal device, wherein the first indication information indicates to change the data transmission scheme of the first PDU session, and the first PDU session refers to a PDU session that has been established between a Data Network, DN, and the terminal device, characterized in that the data transmission scheme comprises at least one of: a control plane data transmission scheme only; a user plane data transmission scheme only; or both the control plane data transmission scheme and the user plane data transmission scheme. a control plane data transmission scheme only; a user plane data transmission scheme only; or both the control plane data transmission scheme and the user plane data transmission scheme.
A pharmaceutical composition comprising a compound selected from: and or a stereoisomer, tautomer, pharmaceutically acceptable salt or solvate thereof, a pharmaceutically acceptable carrier, and another therapeutic agent.
A continuous flow reactor , comprising a shell , wherein the shell is provided with a shell pass inlet and a shell pass outlet which are communicated with an inner cavity of the shell , tube plates and baffling tube boxes are provided with a reactant inlet and a reactant outlet , and are connected to upper and lower ends of the shell , a reaction tube bank is arranged in the shell and includes a plurality of reaction tubes , upper and lower ends of each of said reaction tubes are fixedly connected to the tube plates in a penetrating manner, the baffling tube boxes are integral components and are formed with a plurality of separated baffling slots , a plurality of separated baffling channels being formed by the tube plates and the baffling slots of the baffling tube boxes jointly, and the adjacent reaction tubes being sequentially communicated in series in a medium flow direction through the corresponding baffling channels, and the reaction tube bank is composed of a plurality of layers of reaction tubes which are sequentially arranged from inside to outside, and wherein all the reaction tubes are sequentially communicated in series through the baffling tube boxes , characterized in that the reaction tubes are spiral twined tubes having a helix angle, and in that the baffling slots in the upper and lower baffling tube boxes and installation holes in the upper and lower tube plates are arrayed in a manner capable of realizing the following arrangement form of tops and bottoms of all layers of reaction tubes : from outside to inside: the tops of a first layer of reaction tubes , namely the outermost layer of reaction tubes , are arrayed to form a first upper circle, the tops of a second layer of reaction tubes are arrayed to form a second upper circle which is concentric with the first upper circle and has a diameter smaller than that of the first upper circle, until a last layer of reaction tubes , namely an innermost layer of reaction tubes , is arrayed to form a corresponding upper circle; from outside to inside: the bottoms of the first layer of reaction tubes are arrayed to form a first lower circle, the bottoms of the second layer of reaction tubes are arrayed to form a second lower circle which is concentric with the first lower circle and has a diameter smaller than that of the first lower circle, until the last layer of reaction tubes are arrayed to form a corresponding lower circle; the centers of the upper circles and the centers of the lower circles are located on an axis of the shell , angles between vertical lines from the tops of the reaction tubes to the axis of the shell and vertical lines from the bottoms of the same reaction tubes to the axis of the shell are equal, and straight lines from the tops to the bottoms of all the reaction tubes are parallel to the axis of the shell .
Circuit for generating a number of oscillations comprising: a first branch comprising at least an assembly of a plurality of delay lines in series, one at least of which introduces symmetrical delays on rising edges and on falling edges and one at least of which introduces different delays on rising edges and on falling edges; and a second branch, looped back on the first one and comprising at least one delay line introducing symmetrical delays on rising edges and on falling edges, the delay lines of the first branch each comprising a delaying element , comprising: a first XOR logic gate having a first input (C) defining an input terminal of the element; a second XOR logic gate having a first input (C) connected to the output of the first gate and having an output defining an output terminal of the element, second inputs (D) of the two gates being interconnected to a second input terminal of the element, the state of the signal applied to the second terminal conditioning the fact that the delaying element introduces symmetrical delays on rising edges and on falling edges or introduces different delays on rising edges and on falling edges. a first branch comprising at least an assembly of a plurality of delay lines in series, one at least of which introduces symmetrical delays on rising edges and on falling edges and one at least of which introduces different delays on rising edges and on falling edges; and a second branch, looped back on the first one and comprising at least one delay line introducing symmetrical delays on rising edges and on falling edges, the delay lines of the first branch each comprising a delaying element , comprising: a first XOR logic gate having a first input (C) defining an input terminal of the element; a second XOR logic gate having a first input (C) connected to the output of the first gate and having an output defining an output terminal of the element, second inputs (D) of the two gates being interconnected to a second input terminal of the element, the state of the signal applied to the second terminal conditioning the fact that the delaying element introduces symmetrical delays on rising edges and on falling edges or introduces different delays on rising edges and on falling edges. a first XOR logic gate having a first input (C) defining an input terminal of the element; a second XOR logic gate having a first input (C) connected to the output of the first gate and having an output defining an output terminal of the element, second inputs (D) of the two gates being interconnected to a second input terminal of the element, the state of the signal applied to the second terminal conditioning the fact that the delaying element introduces symmetrical delays on rising edges and on falling edges or introduces different delays on rising edges and on falling edges.
A method of detecting an autoantibody to AIMP2-DX2 protein to provide information for small cell lung cancer diagnosis, the method comprising: (a) detecting an autoantibody to AIMP2-DX2 from a sample derived from a subject; and (b) determining that a subject has small cell lung cancer or is susceptible to small cell lung cancer in the case when an amount of the detected autoantibody in the sample is greater than that in a normal person. (a) detecting an autoantibody to AIMP2-DX2 from a sample derived from a subject; and (b) determining that a subject has small cell lung cancer or is susceptible to small cell lung cancer in the case when an amount of the detected autoantibody in the sample is greater than that in a normal person.
A composition comprising a crosslinkable silane-terminated polymer having at least one crosslinkable silyl group in each molecule, wherein: the crosslinkable silane-terminated polymer comprises a reaction product of at least a polyol having a nominal functionality of at least 2 and an isocyanate capped hydrosilylated polymer; the isocyanate capped hydrosilylated polymer comprises a reaction product of at least one isocyanate and a hydrosilylated polymer reacted at an isocyanate index of between 100 and 250; and the hydrosilylated polymer comprises a reaction product of a hydrosilylation reaction having a hydrosilylation efficiency of at least 70% as determined by 1 H-NMR and comprising the reaction of at least a) a polymer having at least one unsaturated group and at least one alcoholic hydroxyl group in each molecule and having a number average molecular weight of between 100 and 5000 and b) a compound having a hydrogen-silicon bond and a crosslinkable silyl group in each molecule. the crosslinkable silane-terminated polymer comprises a reaction product of at least a polyol having a nominal functionality of at least 2 and an isocyanate capped hydrosilylated polymer; the isocyanate capped hydrosilylated polymer comprises a reaction product of at least one isocyanate and a hydrosilylated polymer reacted at an isocyanate index of between 100 and 250; and the hydrosilylated polymer comprises a reaction product of a hydrosilylation reaction having a hydrosilylation efficiency of at least 70% as determined by 1 H-NMR and comprising the reaction of at least a) a polymer having at least one unsaturated group and at least one alcoholic hydroxyl group in each molecule and having a number average molecular weight of between 100 and 5000 and b) a compound having a hydrogen-silicon bond and a crosslinkable silyl group in each molecule.
A vehicle drive assistance system comprising at least one hydraulic machine forming a pump , at least one hydraulic machine forming a motor and a hydraulic circuit comprising a supply duct running from the outlet of the pump to the inlet of the hydraulic machine forming the motor and a return duct related to the outlet of the hydraulic machine forming the motor , characterized in that the hydraulic circuit is an open circuit passing through a tank , in that the hydraulic circuit comprises a suction duct running from the tank to an inlet of the pump , and the return duct runs from the outlet of the hydraulic machine forming the motor to the tank , and in that at least one of the motors is a releasable motor and in that the system comprises an element forming a restriction and creating a pressure drop on the return duct and a means adapted to connect to the motor casing the part of the return duct located upstream of the element forming the restriction and apply to the motor casing, from the return duct , a pressure lower than the pressure of this return duct.
A method for calculating thanks to computer means a multifocal ophthalmic spectacle lens , for the purpose of manufacturing the multifocal ophthalmic spectacle lens, the multifocal ophthalmic spectacle lens being capable of correcting a wearer's ophthalmic vision when the multifocal ophthalmic spectacle lens is worn by the wearer in a position of use and having a back surface (BS) and a front surface (FS), where the back surface is positioned closest to a wearer's eye when the multifocal ophthalmic spectacle lens is worn by the wearer in the position of use, the multifocal ophthalmic spectacle lens comprising a light guide optical element inserted between the back surface and the front surface and arranged to output a supplementary image (SI) to the wearer through an exit surface (ES) of said light guide optical element, where the exit surface (ES), the back surface (BS) and an optical material located between said exit surface (ES) and said back surface (BS) form an optical device (OD) and wherein said optical device (OD) comprises an area of stabilized optical power; and, wherein the exit surface (ES) is defined by an angular aperture contour, denoted AC(α,β), α being the eye declination angle and β being the eye azimuth angle, α, β pole being the center of rotation (CRE) of the wearer's eye when the multifocal ophthalmic spectacle lens is worn by the wearer in the position of use, wherein the α variation range within AC(α,β) and the β variation range within AC(α,β) are each equal to or greater than 5°, wherein the α variation range within AC(α,β) and/or the β variation range within AC(α,β) is equal to or greater than 15°, wherein the angular aperture contour, AC (α,β), is situated in the area of stabilized optical power so that the optical device (OD) fulfils the requirement of following equation (E1) when (α,β) is within the contour AC(α,β): − 0.5 Diopter ≤ P α β − P mean ≤ 0.5 Diopter ; where P(α,β) is the dioptric power of the optical device (OD) and P mean is the mean dioptric power of the optical device (OD) within the contour AC(α,β), wherein P(α,β) and P mean are expressed in Diopter. wherein the exit surface (ES) is defined by an angular aperture contour, denoted AC(α,β), α being the eye declination angle and β being the eye azimuth angle, α, β pole being the center of rotation (CRE) of the wearer's eye when the multifocal ophthalmic spectacle lens is worn by the wearer in the position of use, wherein the α variation range within AC(α,β) and the β variation range within AC(α,β) are each equal to or greater than 5°, wherein the α variation range within AC(α,β) and/or the β variation range within AC(α,β) is equal to or greater than 15°, wherein the angular aperture contour, AC (α,β), is situated in the area of stabilized optical power so that the optical device (OD) fulfils the requirement of following equation (E1) when (α,β) is within the contour AC(α,β): − 0.5 Diopter ≤ P α β − P mean ≤ 0.5 Diopter ; where P(α,β) is the dioptric power of the optical device (OD) and P mean is the mean dioptric power of the optical device (OD) within the contour AC(α,β), wherein P(α,β) and P mean are expressed in Diopter.
A coordinated transmission method performed by a macro base station, the method comprising: • communicating with a user equipment, UE, in a subframe in a first subframe set, • wherein before the communicating with the user equipment, UE, in the subframe in the first subframe set, the method comprises: ∘ sending the first subframe set and/or a second subframe set to a micro base station, wherein the second subframe set comprises a subframe, which does not overlap with the subframe in the first subframe set and the subframe in the second subframe set serves for a communication between the UE and the micro base station, and ∘ sending a HARQ process identifier set that is used by the macro base station and corresponds to the UE and/or a HARQ process identifier set that is used by the micro base station and corresponds to the UE to the micro base station. • communicating with a user equipment, UE, in a subframe in a first subframe set, • wherein before the communicating with the user equipment, UE, in the subframe in the first subframe set, the method comprises: ∘ sending the first subframe set and/or a second subframe set to a micro base station, wherein the second subframe set comprises a subframe, which does not overlap with the subframe in the first subframe set and the subframe in the second subframe set serves for a communication between the UE and the micro base station, and ∘ sending a HARQ process identifier set that is used by the macro base station and corresponds to the UE and/or a HARQ process identifier set that is used by the micro base station and corresponds to the UE to the micro base station. ∘ sending the first subframe set and/or a second subframe set to a micro base station, wherein the second subframe set comprises a subframe, which does not overlap with the subframe in the first subframe set and the subframe in the second subframe set serves for a communication between the UE and the micro base station, and ∘ sending a HARQ process identifier set that is used by the macro base station and corresponds to the UE and/or a HARQ process identifier set that is used by the micro base station and corresponds to the UE to the micro base station.