mhurhangee/patent-ind-claim-en huggingface dataset:
An activating composition [composition (A)] for use in a vulcanising method, comprising based on the total weight of said composition (A): ∘ from 20 to 80% by weight of at least one vulcanisation activator [activator (V)]; ∘ from 10 to 40% by weight of at least one wax chosen from the group consisting of paraffin-based waxes, microcrystalline waxes, polyolefin waxes, Fischer-Tropsch waxes, oxidised Fischer-Tropsch waxes, their derivatives and mixtures thereof; ∘ from 10 to 40% by weight of at least one inorganic filler [filler (I)) or carbon black. ∘ from 20 to 80% by weight of at least one vulcanisation activator [activator (V)]; ∘ from 10 to 40% by weight of at least one wax chosen from the group consisting of paraffin-based waxes, microcrystalline waxes, polyolefin waxes, Fischer-Tropsch waxes, oxidised Fischer-Tropsch waxes, their derivatives and mixtures thereof; ∘ from 10 to 40% by weight of at least one inorganic filler [filler (I)) or carbon black.
A device for interfacing with a mobile communication device , the mobile communication device including a processor and a storage medium having data retained thereon, the device comprising : a single device body ; electronic circuitry fully integrated within the device body including at least one data storage element and at least one rechargeable power supply ; an alternating current power plug having prongs integrated on a surface of the device body , the alternating current power plug for receiving alternating current voltage from a mains power supply, and the alternating current power plug operatively coupled to the at least one rechargeable power supply ; and an interface having at least one portion integrated within a footprint of the device body , the interface operative to detachably and electronically couple the mobile communication device to the at least one data storage element and the alternating current power plug , and to provide direct current voltage, converted from the received alternating current voltage, to the mobile communication device , wherein the device is configured as a slave device in which the at least one data storage element is operative to receive data transfer commands issued by the processor as input directly from the processor, the data transfer commands being initiated by a user of the mobile communication device and provided to the processor via a data management application executed on the mobile communication device , and the at least one data storage element is operative to receive a copy of a subset of the data retained on the storage medium in response to at least one of the commands issued by the processor when the mobile communication device is electronically coupled to the interface , the received copied subset of data being stored, in a protected format generated by the mobile communication device having at least one layer of protection, in the at least one data storage element , and the stored subset of data having a unique identifier assigned by the mobile communication device associating the stored subset of data with the mobile communication device . a single device body ; electronic circuitry fully integrated within the device body including at least one data storage element and at least one rechargeable power supply ; an alternating current power plug having prongs integrated on a surface of the device body , the alternating current power plug for receiving alternating current voltage from a mains power supply, and the alternating current power plug operatively coupled to the at least one rechargeable power supply ; and an interface having at least one portion integrated within a footprint of the device body , the interface operative to detachably and electronically couple the mobile communication device to the at least one data storage element and the alternating current power plug , and to provide direct current voltage, converted from the received alternating current voltage, to the mobile communication device ,
Rail vehicle suspension , arranged between a body of a rail vehicle and an undercarriage of a rail vehicle , wherein the rail vehicle suspension has: - a fastening plate , - an air-spring bellows , - a rubber spring , - a rim provided on the upper part of the rubber spring , and - a connection part provided on the lower part of the rubber spring , wherein the air-spring bellows is fastened on the body side to the body by means of the fastening plate , wherein the air-spring bellows is fastened on the undercarriage side to the rubber spring by means of the rim such that the air-spring bellows and the rubber spring are coupled in series, and wherein the rubber spring is fastened on the undercarriage side at least indirectly to the undercarriage by means of the connection part , characterized by a field sensor , which is at least coupled to the rubber spring and is designed for capacitively or inductively detecting a spring travel of the rubber spring independently of the state of the air-spring bellows, wherein the field sensor has a first sensor part and a second sensor part, wherein the first and second sensor parts are arranged or integrated in the rubber spring that a deflection of the rubber spring in the vertical direction V leads to a relative movement between the sensor parts. - a fastening plate , - an air-spring bellows , - a rubber spring , - a rim provided on the upper part of the rubber spring , and - a connection part provided on the lower part of the rubber spring , wherein the air-spring bellows is fastened on the body side to the body by means of the fastening plate , wherein the air-spring bellows is fastened on the undercarriage side to the rubber spring by means of the rim such that the air-spring bellows and the rubber spring are coupled in series, and wherein the rubber spring is fastened on the undercarriage side at least indirectly to the undercarriage by means of the connection part ,
A user equipment comprising: a detector operative to detect a fourth type of DCI or a second type of DCI in the PDCCH region or the start shortened TTI of a subframe; and circuitry operative to determine whether the detected DCI is the fourth type of DCI or the second type of DCI, wherein if the detected DCI is the fourth type of DCI, the detector is further operative to detect in the same subframe the fourth type of DCI in one or more shortened TTIs after where the fourth type of DCI is detected for the first time in the subframe; wherein each fourth type of DCI schedules a different shortened TTI in the subframe; if the detected DCI is the second type of DCI, the detector is further operative to detect in the same subframe a third type of DCI in one or more shortened TTIs after the second type of DCI in the subframe; and the shortened TTI has 7 or less OFDM symbols, characterized in that the second type of DCI is a slow DCI, the third type of DCI is a fast DCI, and a slow DCI carries common information for one slot or one subframe, and a fast DCI carries information specific to its target shortened TTI. a detector operative to detect a fourth type of DCI or a second type of DCI in the PDCCH region or the start shortened TTI of a subframe; and circuitry operative to determine whether the detected DCI is the fourth type of DCI or the second type of DCI, wherein if the detected DCI is the fourth type of DCI, the detector is further operative to detect in the same subframe the fourth type of DCI in one or more shortened TTIs after where the fourth type of DCI is detected for the first time in the subframe; wherein each fourth type of DCI schedules a different shortened TTI in the subframe; if the detected DCI is the second type of DCI, the detector is further operative to detect in the same subframe a third type of DCI in one or more shortened TTIs after the second type of DCI in the subframe; and the shortened TTI has 7 or less OFDM symbols, characterized in that the second type of DCI is a slow DCI, the third type of DCI is a fast DCI, and a slow DCI carries common information for one slot or one subframe, and a fast DCI carries information specific to its target shortened TTI.
Fastening arrangement for fastening a component B at a component A with automatic tolerance compensation between the components A and B, the fastening arrangement comprising the following features: a basic element fixable at component A, into which a fastening screw is screwable via a first thread pairing, an adjusting element having an external thread , which is screwable into the basic element via a second thread pairing, wherein a first and a second anti-twist protection are provided between basic element and adjusting element by means of which a respective releasing of the adjusting element from the basic element during a transport and a locking of the adjusting element with the basic element is prevented and the fastening arrangement is characterized in that the first anti-twist protection interacts with a first recess at the basic element and the second anti-twist protection interacts with a second recess at the basic element , the first anti-twist protection is a web springing in axial direction of the adjusting element , by means of which web a locking connection with the basic element is creat-able which is releasable by rotation, and the second anti-twist protection is a web protruding in radial direction of the adjusting element , which blocks a further screwing-in of the adjusting element into the basic element . a basic element fixable at component A, into which a fastening screw is screwable via a first thread pairing, an adjusting element having an external thread , which is screwable into the basic element via a second thread pairing, wherein a first and a second anti-twist protection are provided between basic element and adjusting element by means of which a respective releasing of the adjusting element from the basic element during a transport and a locking of the adjusting element with the basic element is prevented and the fastening arrangement is characterized in that the first anti-twist protection interacts with a first recess at the basic element and the second anti-twist protection interacts with a second recess at the basic element , the first anti-twist protection is a web springing in axial direction of the adjusting element , by means of which web a locking connection with the basic element is creat-able which is releasable by rotation, and the second anti-twist protection is a web protruding in radial direction of the adjusting element , which blocks a further screwing-in of the adjusting element into the basic element .
A process for producing a silica-based fine particle water dispersion sol that contains silica-based fine particles in which the surface of silica fine particles has been modified with aluminum, and has a pH in an acidic region from 3.0 to 6.0, wherein the silica-based fine particles are spherical or chain particles having an average particle diameter in the range of 5 to 50 nm, the process comprising: a step of mixing an aqueous aluminate solution to an alkaline silica sol which contains water-dispersible silica fine particles and has a pH in the range of 9.0 to 11.5, in a ratio such that the Al 2 O 3 /SiO 2 molar ratio is 0.005 to 0.050 wherein a silicon component contained in the silica sol is represented by SiO 2 and aluminum contained in the aluminate is represented by Al 2 O 3 ; a step of heating the mixture liquid obtained in the above step to a temperature of 60 to 200°C and stirring the mixture liquid at the temperature for 0.5 to 20 hours; and a step of contacting the mixture liquid obtained in the step with a cation exchange resin to remove by ion exchange alkali metal ions contained in the mixture liquid and thereby controlling the pH of the mixture liquid to be in the range of 3.0 to 6.0, characterised in that the alkaline silica sol used in the step contains alkali metal ions, and the SiO 2 /M 2 O molar ratio is in the range of 20 to 300 wherein the alkali metal ions are represented by M 2 O (wherein M is the alkali metal element) and the silicon component contained in the silica sol is represented by SiO 2 , and the average particle diameter is determined by the following methods; when the particles are spherical particles, the average particle diameter is calculated by the following equation using BET method; the average particle diameter (nm) = 6000/[specific surface area (m 2 /g) x density (ρ)], wherein the density of silica, 2.2, was used as the density (ρ), when the particles are chain particles, the average particle diameter is calculate by the following equation using TEM method; the average particle diameter nm = L nm + D nm / 2 , wherein L is the longitudinal length and D is the lateral length measured with respect to a transmission electron micrograph. a step of mixing an aqueous aluminate solution to an alkaline silica sol which contains water-dispersible silica fine particles and has a pH in the range of 9.0 to 11.5, in a ratio such that the Al 2 O 3 /SiO 2 molar ratio is 0.005 to 0.050 wherein a silicon component contained in the silica sol is represented by SiO 2 and aluminum contained in the aluminate is represented by Al 2 O 3 ; a step of heating the mixture liquid obtained in the above step to a temperature of 60 to 200°C and stirring the mixture liquid at the temperature for 0.5 to 20 hours; and a step of contacting the mixture liquid obtained in the step with a cation exchange resin to remove by ion exchange alkali metal ions contained in the mixture liquid and thereby controlling the pH of the mixture liquid to be in the range of 3.0 to 6.0,
A multivalent combination vaccine for use in a method for (i) lessening the severity of clinical symptoms associated with PCV2 infection, and/or (ii) preventing PCV2 infection, in a pig, the vaccine comprising 1.6 μg to 400 μg recombinant PCV2 ORF2 protein per dose and at least one immunogenic active component against another disease-causing organism in swine, and wherein the lessening of the severity of clinical symptoms associated with PCV2 infection, and/or the prevention of PCV2 infection, is obtained by a single administration of the vaccine to the pig. (i) lessening the severity of clinical symptoms associated with PCV2 infection, and/or (ii) preventing PCV2 infection,
A medical delivery device comprising: an elongated member configured to navigate an intravenous system of a patient; a deployment bay connected to a distal end of the elongated member and configured to house at least a portion of an insertable or implantable medical device, the deployment bay defining a distal opening configured for deployment of the insertable or implantable medical device out of the deployment bay at a target site in a patient; and a compression mechanism configured to longitudinally move the elongated member and a distal portion of the deployment bay toward each other in response to the deployment bay applying a distal force characterised in that said distal force is at least a threshold force against the target site. an elongated member configured to navigate an intravenous system of a patient; a deployment bay connected to a distal end of the elongated member and configured to house at least a portion of an insertable or implantable medical device, the deployment bay defining a distal opening configured for deployment of the insertable or implantable medical device out of the deployment bay at a target site in a patient; and a compression mechanism configured to longitudinally move the elongated member and a distal portion of the deployment bay toward each other in response to the deployment bay applying a distal force characterised in that said distal force is at least a threshold force against the target site.
A composition comprising: an isolated Leukocidin E (LukE) protein comprising the amino acid sequence of SEQ ID NO:4, or a polypeptide thereof, having a non-functional CXCR1/CXCR2 binding domain, wherein one or more amino acid residues within the amino acid sequence of amino acid residues 182-196 of SEQ ID NO: 4 is substituted or deleted; and, a pharmaceutically acceptable carrier. an isolated Leukocidin E (LukE) protein comprising the amino acid sequence of SEQ ID NO:4, or a polypeptide thereof, having a non-functional CXCR1/CXCR2 binding domain, wherein one or more amino acid residues within the amino acid sequence of amino acid residues 182-196 of SEQ ID NO: 4 is substituted or deleted; and, a pharmaceutically acceptable carrier.
An electrode component, comprising: an electrode body ; a conductive structure ; and a reinforcement structure , wherein the electrode body comprises an insulating substrate and a conductive layer disposed on two opposite surfaces of the insulating substrate in a thickness direction of the insulating substrate , and the conductive layer comprises a first portion coated with an active material , and a second portion extending from the first portion and uncoated with the active material , and the reinforcement structure reinforces the conductive structure on the second portion, characterized in that the conductive structure comprises a first conductive member and a second conductive member , the first conductive member is connected to a part of the second portion disposed on one surface of the insulating substrate , and the second conductive member is connected to a part of the second portion disposed on the other surface of the insulating substrate , and the reinforcement structure is provided on a surface of the first conductive member facing away from the part of the second portion disposed on one surface of the insulating substrate , and the reinforcement structure is further provided on a surface of the second conductive member facing away from the part of the second portion disposed on the other surface of the insulating substrate . an electrode body ; a conductive structure ; and a reinforcement structure , wherein the electrode body comprises an insulating substrate and a conductive layer disposed on two opposite surfaces of the insulating substrate in a thickness direction of the insulating substrate , and the conductive layer comprises a first portion coated with an active material , and a second portion extending from the first portion and uncoated with the active material , and the reinforcement structure reinforces the conductive structure on the second portion, characterized in that the conductive structure comprises a first conductive member and a second conductive member , the first conductive member is connected to a part of the second portion disposed on one surface of the insulating substrate , and the second conductive member is connected to a part of the second portion disposed on the other surface of the insulating substrate , and the reinforcement structure is provided on a surface of the first conductive member facing away from the part of the second portion disposed on one surface of the insulating substrate , and the reinforcement structure is further provided on a surface of the second conductive member facing away from the part of the second portion disposed on the other surface of the insulating substrate .
A computer-implemented method for processing a graph instruction in a directed graph flow computing architecture, wherein the method comprises: detecting (S301) whether a first graph instruction has a conditional instruction element; and when the first graph instruction has the conditional instruction element, determining (S302a) that the first graph instruction is a conditional execution instruction, and processing the first graph instruction when both data flow information and control flow information of the first graph instruction are in a ready state, wherein the data flow information includes a left input and a right input, and the control flow information includes a condition input; or when the first graph instruction does not have a conditional instruction element, determining (S302b) that the first graph instruction is a non-conditional execution instruction, and processing the first graph instruction when data flow information of the first graph instruction is in a ready state, wherein the data flow information includes a left input and a right input, characterized in that the conditional instruction element and the control flow information are transmitted through a control bus, and the data flow information is transmitted through a data bus. detecting (S301) whether a first graph instruction has a conditional instruction element; and when the first graph instruction has the conditional instruction element, determining (S302a) that the first graph instruction is a conditional execution instruction, and processing the first graph instruction when both data flow information and control flow information of the first graph instruction are in a ready state, wherein the data flow information includes a left input and a right input, and the control flow information includes a condition input; or when the first graph instruction does not have a conditional instruction element, determining (S302b) that the first graph instruction is a non-conditional execution instruction, and processing the first graph instruction when data flow information of the first graph instruction is in a ready state, wherein the data flow information includes a left input and a right input, characterized in that the conditional instruction element and the control flow information are transmitted through a control bus, and the data flow information is transmitted through a data bus.
An absorbent article (1; 100) comprising an absorbent core (5; 105), the absorbent core (5; 105) comprising absorbent material, the absorbent core (5; 105) being sandwiched between a liquid-permeable upper core cover layer (11; 111) and a lower core cover layer (12; 112), the article (1; 100) having a longitudinal direction (Y) and a transverse direction (X) perpendicular to the longitudinal direction, the absorbent core (5; 105) having a first side edge (18; 118) and a second side edge (19; 119), the first side edge (18; 118) and the second side edge (19; 119) of the absorbent core (5;105) each extending in the longitudinal direction (Y), the upper core cover layer (11; 111) and the lower core cover layer (12; 112) being connected along the side edges (18, 19; 118, 119) of the absorbent core (5;105), the absorbent core (5;105) having one or more elongated areas (9, 10; 109, 110) arranged therein, each elongated area (9, 10; 109, 110) being an absorbent material free area (9, 10; 109, 110) and having a main extension in the longitudinal direction (Y) with a length (l f ) as measured along the elongated area (9, 10; 109, 110) and a width (w f ) in the transverse direction (X), wherein the upper core cover layer (11; 103) and the lower core cover layer (12; 104) in each of the one or more elongated absorbent material free areas (9, 10; 109, 110) are attached to each other within at least 2 attachment zones (13;113) and at most 12 attachment zones (13;113), the attachment zones (13;113) being spaced-apart in the longitudinal direction (Y) within each of the one or more absorbent material free areas (9, 10; 109, 110), wherein the attachment zones (13; 113) are spaced apart in the longitudinal direction with a closest distance in the longitudinal direction between neighboring attachment zones of from 15 millimeters to 119 millimeters..