mhurhangee/patent-ind-claim-en huggingface dataset:
Railway vehicle , the vehicle comprising: - a plurality of cars placed one behind the other longitudinally, each car having a front end articulated to a rear end of the adjacent car ; - at least one power car connected to a first of the cars ; - a collision energy absorbing assembly ; said assembly comprising a first collision energy absorbing system located at the front of the power car and a second collision energy absorbing system located at the link between the power car and the first car , - a plurality of bogies , the front and rear ends of two adjacent cars being carried by one of the bogies , characterized in that the first collision energy absorbing system and second collision energy absorbing system are designed to absorb all the energy of a collision, the first energy absorbing system having a maximum collision energy absorbing capacity comprised between 3500 kJ and 7000 kJ, and the second energy absorbing system having a maximum collision energy absorbing capacity comprised between 1000 kJ and 4000 kJ, and the first absorbing system comprises a plurality of deformation modules designed to deform in the longitudinal direction and an automatic energy absorbing coupling comprising an irreversible absorbing and coupling guiding system, in particular a deformation tube , there is no collision energy absorbing system between two adjacent cars . - a plurality of cars placed one behind the other longitudinally, each car having a front end articulated to a rear end of the adjacent car ; - at least one power car connected to a first of the cars ; - a collision energy absorbing assembly ; said assembly comprising a first collision energy absorbing system located at the front of the power car and a second collision energy absorbing system located at the link between the power car and the first car , - a plurality of bogies , the front and rear ends of two adjacent cars being carried by one of the bogies , characterized in that the first collision energy absorbing system and second collision energy absorbing system are designed to absorb all the energy of a collision, the first energy absorbing system having a maximum collision energy absorbing capacity comprised between 3500 kJ and 7000 kJ, and the second energy absorbing system having a maximum collision energy absorbing capacity comprised between 1000 kJ and 4000 kJ, and the first absorbing system comprises a plurality of deformation modules designed to deform in the longitudinal direction and an automatic energy absorbing coupling comprising an irreversible absorbing and coupling guiding system, in particular a deformation tube , there is no collision energy absorbing system between two adjacent cars .
Heat-sealable structure comprising an aluminum foil and a heat-seal lacquer, said structure exhibiting a seal strength, according to ASTM F2824, of more than 23 N/15mm, preferably more than 25 N/15mm when heat-sealed to another heat-sealable structure comprising an aluminum foil and the same heat-seal lacquer, the heat-seal lacquers of both structures contacting each other for heat sealing, said seal lacquer comprising a copolymer blend comprising: - from 30 to 80% by weight, preferably 40 to 70% by weight, more preferably from 50 to 60% by weight of a copolymer A based on (meth)acrylate ester (co)polymers, olefin (co)polymers and block or grafted copolymers comprising (met)acrylate ester sequences and olefin sequences, - from 20 to 70% by weight, preferably 30 to 60% by weight, more preferably from 40 to 50% by weight of a copolymer (B) based on vinyl halides, vinyl esters of carboxylic acids and ethylenically unsaturated (poly)carboxylic acids. - from 30 to 80% by weight, preferably 40 to 70% by weight, more preferably from 50 to 60% by weight of a copolymer A based on (meth)acrylate ester (co)polymers, olefin (co)polymers and block or grafted copolymers comprising (met)acrylate ester sequences and olefin sequences, - from 20 to 70% by weight, preferably 30 to 60% by weight, more preferably from 40 to 50% by weight of a copolymer (B) based on vinyl halides, vinyl esters of carboxylic acids and ethylenically unsaturated (poly)carboxylic acids.
Water heater comprising: a heating unit for heating a central heating line assigned to the at least one central heating component ; a heat transfer arm connecting a hot water outlet portion of the heating line from the heating unit and a return part entering the heating unit from the central heating component , in order to allow water to pass through; a heat exchanger for providing heat transfer between the heat transfer arm and a domestic utility line ; a diverter valve arranged to be operated in a second operating position in which water circulates between the heating unit and the heat exchanger and to be operated in a first operating position in which water circulates between the heating unit and the central heating components ; a pump for delivering a flow of water from the central heating line , and a control unit which is arranged to control the heating unit , the pump and the diverter valve with respect to a hot water request signal, which is received by a sensor , the system being characterized in that the control unit is configured such that the pump runs with a lower power for the period in which the control unit receives the hot water request signal and the diverter valve transitions to the second operating position .
Agricultural machine having a main frame , at least one implement which is arranged on at least one cantilever arm and which can be transferred from a transport position for road traffic to a working position for working an agricultural field and vice versa, a safety device being arranged on the main frame , which device locks the at least one cantilever arm together with the implement arranged thereon in the transport position against unwanted movements and at least supports the transfer of the cantilever arm together with the implement arranged thereon from the transport position to the working position, characterised in that the safety device causes a guided movement of the cantilever arm by at least one actuator when the cantilever arm is transferred to the working position, a latch of the safety device enclosing a holding element on the cantilever arm and thus forming a form-fitting connection between the main frame and the cantilever arm and in that the holding element arranged on the cantilever arm is designed as a rolling and/or sliding element so that a curve shape of a lower portion of the latch moves the cantilever arm evenly out of its resting position via the rolling and/or sliding element until the weight of the implement is sufficient to expand the cantilever arm further.
A composition comprising a compound that comprises or consists of a conjugation of 6-hydroxymelatonin and 6-methylsufinylhexyl isothiocyanate.
System for controlling a function of a vehicle , comprising: - a receiving circuit designed to transpose a received signal to a predetermined frequency; - an analogue-to-digital converter designed to convert the transposed signal into a digital signal; - a processing circuit designed to receive said digital signal and to determine a phase of the received signal on the basis of said digital signal; - a processor designed to obtain, as first phase value (Φ 1 ), the phase determined by the processing circuit when the received signal is at a first frequency and, as second phase value (Φ 2 ), the phase determined by the processing circuit when the received signal is at a second frequency distinct from the first frequency, and to control said function only if a value dependent on the difference between the first phase value (Φ 1 ) and the second phase value (Φ 2 ) is below a predetermined threshold. - a receiving circuit designed to transpose a received signal to a predetermined frequency; - an analogue-to-digital converter designed to convert the transposed signal into a digital signal; - a processing circuit designed to receive said digital signal and to determine a phase of the received signal on the basis of said digital signal; - a processor designed to obtain, as first phase value (Φ 1 ), the phase determined by the processing circuit when the received signal is at a first frequency and, as second phase value (Φ 2 ), the phase determined by the processing circuit when the received signal is at a second frequency distinct from the first frequency, and to control said function only if a value dependent on the difference between the first phase value (Φ 1 ) and the second phase value (Φ 2 ) is below a predetermined threshold.
A method of manufacturing a composite insert comprising the steps of: obtaining a polymer mold for a composite insert comprising a polymer having a glass transition temperature; joining the polymer mold and a carrier thereby forming a cavity disposed between the polymer mold and the carrier; dispensing a liquid composite insert composition, having a full cure temperature, into the cavity at a selected dispensing temperature that is less than the full cure temperature; and allowing the composition to become dimensionally stable about the carrier, but not fully cured after manufacture, thereby forming a solid composite insert disposed between the polymer mold and the carrier wherein the glass transition temperature of the polymer forming the polymer mold is greater than or equal to the selected dispensing temperature, preferably at least 5 °C greater than the selected dispensing temperature. obtaining a polymer mold for a composite insert comprising a polymer having a glass transition temperature; joining the polymer mold and a carrier thereby forming a cavity disposed between the polymer mold and the carrier; dispensing a liquid composite insert composition, having a full cure temperature, into the cavity at a selected dispensing temperature that is less than the full cure temperature; and allowing the composition to become dimensionally stable about the carrier, but not fully cured after manufacture, thereby forming a solid composite insert disposed between the polymer mold and the carrier wherein the glass transition temperature of the polymer forming the polymer mold is greater than or equal to the selected dispensing temperature, preferably at least 5 °C greater than the selected dispensing temperature.
A method of wireless communication, comprising: synchronizing , by a user equipment, UE, to an available communication channel of an available cell in response to detection of a synchronization signal block, SSB, associated with a network on which the UE communicates; receiving , by the UE, system information associated with the available cell from a serving base station, wherein the system information includes identification of at least: a link indicator identifying one or more linked communication channels available for opportunistic switching, one or more sensing occasion offsets for each of the one or more linked communication channels, and access information associated with each of the one or more linked communication channels; and measuring , by the UE, a channel quality for each of the available communication channel and the one or more linked communication channels. synchronizing , by a user equipment, UE, to an available communication channel of an available cell in response to detection of a synchronization signal block, SSB, associated with a network on which the UE communicates; receiving , by the UE, system information associated with the available cell from a serving base station, wherein the system information includes identification of at least: a link indicator identifying one or more linked communication channels available for opportunistic switching, one or more sensing occasion offsets for each of the one or more linked communication channels, and access information associated with each of the one or more linked communication channels; and a link indicator identifying one or more linked communication channels available for opportunistic switching, one or more sensing occasion offsets for each of the one or more linked communication channels, and access information associated with each of the one or more linked communication channels; and measuring , by the UE, a channel quality for each of the available communication channel and the one or more linked communication channels.
A beam information acquisition method applied to a network side device, wherein the beam information acquisition method comprises: Transmitting (S110) configuration information to a terminal, wherein the configuration information comprises at least one of: (i) a report type identifier, (ii) a report offset, and (iii) an information reporting identifier; and receiving (S210) beam information reported by the terminal based on the configuration information, wherein the report type identifier is configured to indicate whether at least two types of beam information are reported together, wherein the at least two types of the beam information comprise a resource identifier of a beam and beam quality information; the resource identifier comprises a transmission resource identifier, the transmission resource identifier is configured to be used by the terminal to distinguish a transmission beam at a network side; and the beam quality information is formed by the terminal through measuring the transmission beam and configured to indicate beam quality of the transmission beam; the report offset is configured to indicate, when the at least two types of the beam information are reported together, an offset on a reported resource; and the information reporting identifier is configured to indicate to, when the resource identifier and the beam quality information are reported separately, report the resource identifier and/or the beam quality information. Transmitting (S110) configuration information to a terminal, wherein the configuration information comprises at least one of: (i) a report type identifier, (ii) a report offset, and (iii) an information reporting identifier; and receiving (S210) beam information reported by the terminal based on the configuration information, wherein the report type identifier is configured to indicate whether at least two types of beam information are reported together, wherein the at least two types of the beam information comprise a resource identifier of a beam and beam quality information; the resource identifier comprises a transmission resource identifier, the transmission resource identifier is configured to be used by the terminal to distinguish a transmission beam at a network side; and the beam quality information is formed by the terminal through measuring the transmission beam and configured to indicate beam quality of the transmission beam; the report offset is configured to indicate, when the at least two types of the beam information are reported together, an offset on a reported resource; and the information reporting identifier is configured to indicate to, when the resource identifier and the beam quality information are reported separately, report the resource identifier and/or the beam quality information.
A lead-free solder alloy composition comprising a lead-free solder of Sn-(0.1 to 2) wt% Cu, Sn-(0.5 to 5) wt% Ag, or Sn-(0.1 to 2) wt% Cu-(0.5 to 5) wt% Ag, characterized in that lead-free solder alloy composition comprises a ceramic nanopowder, whereby the ceramic nanopowder includes at least one additive selected from among La 2 O 3 , SiC, Cu-coated CNT (Cu-CNT), and ZrO 2 , whereby the contents of the ceramic nanopowder are 0.01 wt% to 1.0 wt% of La 2 O 3 , 0.01 wt% to 1.0 wt% of SiC, 0.005 wt% to 1.0 wt% of Cu-CNT, whereby the ceramic nanopowder has a size of 10 μm or less.
A method of preparing highly stable microcapsule powders or microparticles containing a fat-soluble nutrient having multiple double bonds, comprising the following steps: a) dissolving a fat-soluble nutrient having multiple unsaturated double bonds to prepare an oil phase; b) dissolving a part of a capsule shell material into water to prepare an aqueous phase; c) shearing the aqueous phase and the oil phase, and mixing and emulsifying the same to obtain an emulsion; d) homogenizing the emulsion by a standard high-pressure homogenizer, to make the emulsion obtain droplets in the emulsion with an average particle diameter at a nanometer level, thereby producing a nanometer scale emulsion; wherein in the process of high pressure homogenization of step d), a temperature of the emulsion after homogenizing is increased no more than 10°C relative to a temperature of pre-homogenizing, a homogenization pressure is in a range of 10 MPa ~40 MPa; e) directly adding a remaining part of the capsule shell material into the homogenized nanometer scale emulsion, and shearing, mixing and dissolving the same to obtain a twice-embedded emulsion; and f) performing spray granulation on the twice-embedded emulsion, and drying resultant granules to obtain highly stable microcapsule powders or microparticles; wherein the capsule shell material of step b) and the remaining part of the capsule shell material of step e) are the same material, and are modified starch, gelatin, gum Arabic, or sodium caseinate. a) dissolving a fat-soluble nutrient having multiple unsaturated double bonds to prepare an oil phase; b) dissolving a part of a capsule shell material into water to prepare an aqueous phase; c) shearing the aqueous phase and the oil phase, and mixing and emulsifying the same to obtain an emulsion; d) homogenizing the emulsion by a standard high-pressure homogenizer, to make the emulsion obtain droplets in the emulsion with an average particle diameter at a nanometer level, thereby producing a nanometer scale emulsion; wherein in the process of high pressure homogenization of step d), a temperature of the emulsion after homogenizing is increased no more than 10°C relative to a temperature of pre-homogenizing, a homogenization pressure is in a range of 10 MPa ~40 MPa; e) directly adding a remaining part of the capsule shell material into the homogenized nanometer scale emulsion, and shearing, mixing and dissolving the same to obtain a twice-embedded emulsion; and f) performing spray granulation on the twice-embedded emulsion, and drying resultant granules to obtain highly stable microcapsule powders or microparticles;
A structure material having a mountain shape which has an expansion from a centre of the structure material toward an outside of the structure material with a certain inclination and surfaces which surround a cavity , the structure material comprising a resin , reinforced fibers and voids , wherein the reinforced fibers are discontinuous and dispersed in the structure material in a random manner, and coated with the resin , wherein the voids are spaces formed by the reinforced fibers coated with the resin serving as columnar supported bodies and overlapping with each other or crossing each other, and a volume content of the voids is 10 to 97% by volume, as measured in accordance with the method detailed in the description, and the structure material has a specific bending stiffness represented as EC 1/3 ·ρ -1 being 2.5 (GPa) 1/3 .cm 3 g -1 or more where a bending modulus is Ec, measured in GPa in accordance with ISO 178 Method , and a density is ρ, measured in g/cm 3 in accordance with JIS K7222 .
A zero turn radius mower , configured for a seated operator, comprising left and right longitudinal frame members , supported on a forward end by front wheels , and extending rearward past an operator seat and configured to support a rear mounted engine and rear drive wheels, front and rear cross members , extending laterally between the left and right longitudinal frame members , the rear cross member having at least a first and a second row of slots , characterized in that it further comprises an adjustable toe board , being a one-piece metal sheet plate, which is adjustable to a plurality of fore-and-aft positions relative to the operator seat and front cross member , mounted between the longitudinal frame members in front of the operator seat having a forward and a rear portion , the rear portion having a plurality of tabs extending behind the rear portion of the plate , configured to engage at least one of the first and second row of slots in the rear cross member , the forward portion being upwardly inclined and extending from the rear portion upwardly over the front cross member . front and rear cross members , extending laterally between the left and right longitudinal frame members , the rear cross member having at least a first and a second row of slots , characterized in that it further comprises an adjustable toe board , being a one-piece metal sheet plate, which is adjustable to a plurality of fore-and-aft positions relative to the operator seat and front cross member , mounted between the longitudinal frame members in front of the operator seat having a forward and a rear portion , the rear portion having a plurality of tabs extending behind the rear portion of the plate , configured to engage at least one of the first and second row of slots in the rear cross member , the forward portion being upwardly inclined and extending from the rear portion upwardly over the front cross member .
A method for manufacturing a pressure vessel (10; 10a; 10b; 10c; 10d; 10e) for a motor vehicle, comprising the steps: providing a hollow basic body (12; 12c) as a primary stage of the pressure vessel (10; 10a; 10b; 10c; 10d; 10e), wherein the basic body (12; 12c) has an initial internal volume, and wherein the basic body (12; 12c) has a wall (24; 24c), which extends fully around a longitudinal axis of the basic body (12; 12c), wherein the wall (24; 24c) has an opening (30; 30c), which has an opening rim (32; 32c); providing a hollow auxiliary body (14; 14e), which has a closed base wall and a peripheral wall , wherein the peripheral wall is open on a side lying opposite the base wall ; joining the auxiliary body (14; 14e) with the basic body (12; 12c) at the opening (30; 30c) in the wall (24; 24c) of the basic body (12; 12c), such that the pressure vessel (10; 10a; 10b; 10c; 10d; 10e) having a desired final internal volume is obtained, characterized in that the auxiliary body is configured as an insertion part, and that the auxiliary body , prior to the joining, is inserted into the opening with the base wall to the fore so far that the desired final internal volume of the pressure vessel is obtained which is smaller than the initial internal volume. providing a hollow basic body (12; 12c) as a primary stage of the pressure vessel (10; 10a; 10b; 10c; 10d; 10e), wherein the basic body (12; 12c) has an initial internal volume, and wherein the basic body (12; 12c) has a wall (24; 24c), which extends fully around a longitudinal axis of the basic body (12; 12c), wherein the wall (24; 24c) has an opening (30; 30c), which has an opening rim (32; 32c); providing a hollow auxiliary body (14; 14e), which has a closed base wall and a peripheral wall , wherein the peripheral wall is open on a side lying opposite the base wall ; joining the auxiliary body (14; 14e) with the basic body (12; 12c) at the opening (30; 30c) in the wall (24; 24c) of the basic body (12; 12c), such that the pressure vessel (10; 10a; 10b; 10c; 10d; 10e) having a desired final internal volume is obtained, characterized in that the auxiliary body is configured as an insertion part, and that the auxiliary body , prior to the joining, is inserted into the opening with the base wall to the fore so far that the desired final internal volume of the pressure vessel is obtained which is smaller than the initial internal volume.