mhurhangee/patent-ind-claim-en huggingface dataset:
Vehicle body element connecting joint for connecting a first body element to a second body element , which connecting joint comprises first and second elongate profiles arranged along adjacent edges of the first and second body elements (121, 123; 122, 124), respectively, characterized in that the connecting joint comprises; - a first projection protruding from the first elongate profile parallel to a side surface of the first elongate profile and extending towards a free end of the first elongate profile, - a first recess arranged in a side surface of the second elongate profile and arranged parallel to an edge of the second elongate profile, wherein the first projection is inserted into the first recess ; and the connecting joint further comprising; - a first dovetail section protruding from the first elongate profile and arranged along the free end of the first elongate profiles , - a second dovetail section protruding from the second elongate profile and extending parallel to and out of the free end of the second elongate profile, - at least one fastening strip having a profile arranged to contact the first dovetail section and the second dovetail section in order to clamp the first and second elongate profiles to each other along their adjacent free ends, and - at least one fastener arranged to press the fastening strip towards the first dovetail section and the second dovetail section in order to achieve a clamping force when the joint is tightened by means of the fastener . - a first projection protruding from the first elongate profile parallel to a side surface of the first elongate profile and extending towards a free end of the first elongate profile, - a first recess arranged in a side surface of the second elongate profile and arranged parallel to an edge of the second elongate profile, wherein the first projection is inserted into the first recess ; and the connecting joint further comprising; - a first dovetail section protruding from the first elongate profile and arranged along the free end of the first elongate profiles , - a second dovetail section protruding from the second elongate profile and extending parallel to and out of the free end of the second elongate profile, - at least one fastening strip having a profile arranged to contact the first dovetail section and the second dovetail section in order to clamp the first and second elongate profiles to each other along their adjacent free ends, and - at least one fastener arranged to press the fastening strip towards the first dovetail section and the second dovetail section in order to achieve a clamping force when the joint is tightened by means of the fastener .
A method of communication performed by a wireless communication device, the method comprising: receiving , from a base station, a first indication of a scheduled uplink transmission for the wireless communication device on an unlicensed radio frequency spectrum, wherein the first indication specifies at least one scheduled interlace of a plurality of interlaces and at least one set of scheduled resource blocks of a plurality of sets of resource blocks; receiving a cancelation indication comprising a plurality of bits from the base station, wherein the cancelation indication identifies the at least one scheduled interlace, the at least one set of scheduled resource blocks, or the at least one scheduled interlace and the at least one set of scheduled resource blocks; and canceling the scheduled uplink transmission upon receiving the cancelation indication; characterized in that the method further comprises: performing a bit mapping operation to identify, from the cancelation indication, at least one of: a canceled interlace, a canceled set of resource blocks, or any combination thereof, wherein the bit mapping operation uses a formula that prioritizes the plurality of sets of resource blocks over the plurality of interlaces by first allocating bits of the plurality of bits to the resource blocks and if there are remaining bits of the plurality of bits by allocating bits to interlaces. receiving , from a base station, a first indication of a scheduled uplink transmission for the wireless communication device on an unlicensed radio frequency spectrum, wherein the first indication specifies at least one scheduled interlace of a plurality of interlaces and at least one set of scheduled resource blocks of a plurality of sets of resource blocks; receiving a cancelation indication comprising a plurality of bits from the base station, wherein the cancelation indication identifies the at least one scheduled interlace, the at least one set of scheduled resource blocks, or the at least one scheduled interlace and the at least one set of scheduled resource blocks; and canceling the scheduled uplink transmission upon receiving the cancelation indication; characterized in that the method further comprises: performing a bit mapping operation to identify, from the cancelation indication, at least one of: a canceled interlace, a canceled set of resource blocks, or any combination thereof, wherein the bit mapping operation uses a formula that prioritizes the plurality of sets of resource blocks over the plurality of interlaces by first allocating bits of the plurality of bits to the resource blocks and if there are remaining bits of the plurality of bits by allocating bits to interlaces.
A method for transmitting information related to a vehicle-to-everything, V2X, communication in a wireless communication system, the method performed by a user equipment, UE, and comprising: determining (S1610) priority of information related to the V2X communication; selecting (S1620) a transmission time interval, TTI, based on the priority; and transmitting (S1630) the information based on the selected TTI, wherein based on the information related to the V2X communication being information having high priority, a first TTI is selected, and based on the information related to the V2X communication being information having relatively lower priority than the information having high priority, a second TTI is selected, wherein a resource element of the first TTI is K times longer than a resource element of the second TTI in terms of a frequency and is 1/K times shorter than the resource element of the second TTI in terms of a time, where the K is a positive integer other than 0, and wherein based on the UE selecting the first TTI, the UE repeatedly transmits the information N times per each of encoded bits of the information, where the N is a positive integer other than 0. determining (S1610) priority of information related to the V2X communication; selecting (S1620) a transmission time interval, TTI, based on the priority; and transmitting (S1630) the information based on the selected TTI, wherein based on the information related to the V2X communication being information having high priority, a first TTI is selected, and based on the information related to the V2X communication being information having relatively lower priority than the information having high priority, a second TTI is selected, wherein a resource element of the first TTI is K times longer than a resource element of the second TTI in terms of a frequency and is 1/K times shorter than the resource element of the second TTI in terms of a time, where the K is a positive integer other than 0, and wherein based on the UE selecting the first TTI, the UE repeatedly transmits the information N times per each of encoded bits of the information, where the N is a positive integer other than 0.
An aluminum alloy heat exchanger formed by assembling and brazing an aluminum alloy tube and an aluminum alloy fins to each other, wherein a coating for brazing comprising 1 to 5 g/m 2 of Si powder, 3 to 20 g/m 2 of Zn containing flux, in which KZnF 3 is used as a main component or KZnF 3 is mixed with Zn-free flux and 0.2 to 8.3 g/m 2 of binder is formed on the surface of the aluminum alloy tube ; the Zn-Free flux is any one of K 1-3 AlF 4-6 , Cs 0.02 K 1-2 AlF 4-5 , AlF 3 , KF, and K 2 SiF 6 ; the fin is made of an aluminum alloy which consists of 0.8 to 2.0% by mass of Mn, Si in an amount of 1/2.5 to 1/3.5 of Mn content; less than 0.30% by mass of Fe, and Zn in an amount that is controlled in relation with the amount of the Zn containing flux in the coating for brazing to be in a region enclosed by points A, B, C, D, E, F where the amount of Zn containing flux (unit: g/m 2 ) is shown by the horizontal axis and the Zn content (unit: % by mass) in the fin is shown by the vertical axis, wherein the point A denotes the amount of the Zn containing flux: 3 g/m 2 and the Zn content in the fin: 0.5% by mass, the point B denotes the amount of the Zn containing flux: 10 g/m 2 and the Zn content in the fin: 2% by mass, the point C denotes the amount of the Zn containing flux: 20 g/m 2 and the Zn content in the fin: 3% by mass, the point D denotes the amount of the Zn containing flux: 20 g/m 2 and Zn content in the fin: 6% by mass, the point E denotes the amount of the Zn containing flux: 10 g/m 2 and Zn content in the fin: 5% by mass, and the point F denotes the amount of the Zn containing flux: 3 g/m 2 and the Zn content in the fin: 3% by mass, optionally containing one or two or more selected from 0.05 to 0.2% by mass of Zr, 0.01 to 0.2% by mass of V, 0.05 to 0.2% by mass of Ti, and 0.01 to 0.2% by mass of Cr, and the balance consisting of Al and unavoidable impurities; wherein the aluminum alloy tube is made of an aluminum alloy consisting of less than 0.1 % by mass of Cu, 0.1 to 0.6% by mass of Si, 0.1 to 0.6% by mass of Fe, and 0.1 to 0.6% by mass of Mn, optionally containing at least one of 0.005 to 0.2% by mass of Ti and 0.05 to 0.2% by mass of Cr, and the balance consisting of Al and unavoidable impurities; a fillet comprising brazing filler of the coating for brazing is formed between the tube and the aluminum alloy fin after the brazing; a primary crystal portion that joins the fin and the tube is formed in the fillet; an eutectic crystal portion is formed in a portion other than the primary crystal portion; wherein the Zn concentration in the primary crystal portion is lower than Zn concentration in the eutectic crystal portion ; and an electric potential of the primary crystal portion is set equal to an electric potential of the aluminum alloy fin or higher than the electric potential of the aluminum alloy fin.
Applicator for a cosmetic product, in particular mascara, said applicator being configured to be screwed onto a container of said product, said applicator comprising a cap , intended to be manipulated by a user, a rod intended to carry an applicator tip, and a moulded interface zone , onto which said cap and/or said rod are mounted, said interface zone carrying a screw thread of said applicator on said container , said thread forming less than one turn, said applicator further comprising a connecting part between said rod and said cap , said interface zone being formed in said connecting part .
An ultrasound transducer, comprising: a control circuit which comprises an integrated circuit, the integrated circuit comprising an array of circuit portions ; an array of capacitive micromachined ultrasound transducer, cMUT, elements provided to overlay the control circuit each having a bottom electrode opposing a top electrode and a cavity between the bottom electrode and the top electrode; and an array of vias , with at least one via providing a coupling between each cMUT element and a respective one of the circuit portions said CMUT element is arranged to overlay, those circuit portions defining a circuit area, wherein: at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements. a control circuit which comprises an integrated circuit, the integrated circuit comprising an array of circuit portions ; an array of capacitive micromachined ultrasound transducer, cMUT, elements provided to overlay the control circuit each having a bottom electrode opposing a top electrode and a cavity between the bottom electrode and the top electrode; and an array of vias , with at least one via providing a coupling between each cMUT element and a respective one of the circuit portions said CMUT element is arranged to overlay, those circuit portions defining a circuit area, wherein: at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements. at least some vias are located beneath the bottom electrode of the cMUT element; each via connects to the respective circuit portion at a same position relative to the circuit portion; the array of cMUT elements overlaps at least one side of a pair of opposite sides in a given direction of the circuit area; the ultrasound transducer being characterized in that the array of circuit portions has a smaller pitch, in at least one direction, than the array of cMUT elements.
A cartridge for a vaporizer device, the cartridge comprising: a reservoir housing including a reservoir chamber configured to selectively hold a vaporizable material; and an atomizer in fluid communication with the reservoir chamber , the atomizer comprising: a substrate extending from a first surface to a second surface that is opposite the first surface and having an array of ordered pores that extend from the first surface to the second surface , the ordered pores being configured to draw a predetermined volume of vaporizable material from the reservoir chamber at a predetermined rate, wherein the substrate comprises an anodic aluminum oxide (AAO) membrane, and at least one heating material configured to selectively heat at least a portion of the vaporizable material drawn into the substrate to generate a vaporized material, wherein the surfaces of the ordered pores are plated with the at least one heating material . a reservoir housing including a reservoir chamber configured to selectively hold a vaporizable material; and an atomizer in fluid communication with the reservoir chamber , the atomizer comprising: a substrate extending from a first surface to a second surface that is opposite the first surface and having an array of ordered pores that extend from the first surface to the second surface , the ordered pores being configured to draw a predetermined volume of vaporizable material from the reservoir chamber at a predetermined rate, wherein the substrate comprises an anodic aluminum oxide (AAO) membrane, and at least one heating material configured to selectively heat at least a portion of the vaporizable material drawn into the substrate to generate a vaporized material, wherein the surfaces of the ordered pores are plated with the at least one heating material . a substrate extending from a first surface to a second surface that is opposite the first surface and having an array of ordered pores that extend from the first surface to the second surface , the ordered pores being configured to draw a predetermined volume of vaporizable material from the reservoir chamber at a predetermined rate, wherein the substrate comprises an anodic aluminum oxide (AAO) membrane, and at least one heating material configured to selectively heat at least a portion of the vaporizable material drawn into the substrate to generate a vaporized material, wherein the surfaces of the ordered pores are plated with the at least one heating material .
A glitch filtering method suitable for an optical signal loss signal, comprising: setting (S100) an online signal (online-out) to a high level when detecting that the online signal output by a transceiver (online-in) is changed from the high level to a low level, and starting a timer; setting (S102) the online signal to the high level when detecting that the online signal output by the transceiver is changed from the low level to the high level, and resetting the timer; determining that the optical signal loss signal of the transceiver (loss-in) is invalid when the online signal (online-out) is set to the high level; and setting (S104) the online signal to the low level when time of the timer reaches a preset time length. setting (S100) an online signal (online-out) to a high level when detecting that the online signal output by a transceiver (online-in) is changed from the high level to a low level, and starting a timer; setting (S102) the online signal to the high level when detecting that the online signal output by the transceiver is changed from the low level to the high level, and resetting the timer; determining that the optical signal loss signal of the transceiver (loss-in) is invalid when the online signal (online-out) is set to the high level; and setting (S104) the online signal to the low level when time of the timer reaches a preset time length.
A switchover method for multimedia broadcast multicast service, MBMS, transmission modes, comprising: a network side counting up a number of user equipments, UEs, which are receiving one or more MBMSs by means of a point to point, PTP, mode, if the network side determines to perform a switchover from the PTP mode to a point to multipoint, PTM, mode according to the counting result, and the network side determines that the PTM mode can be established successfully according to a priority rank of a PTM mode bearer of the one or more MBMSs and/or MBMS resources, then the network side notifying a UE that the one or more MBMSs will be switched to be transmitted by means of the PTM mode from the PTP mode, and transmitting relevant information of the one or more MBMSs to the UE; wherein the relevant information comprises one kind or a combination of the following information: multimedia broadcast multicast service single frequency network, MBSFN, area information of the MBMS under the PTM mode, start time information of the MBMS under the PTM mode, and a temporary mobile group identify, TMGI, corresponding to the MBMS under the PTM mode. a network side counting up a number of user equipments, UEs, which are receiving one or more MBMSs by means of a point to point, PTP, mode, if the network side determines to perform a switchover from the PTP mode to a point to multipoint, PTM, mode according to the counting result, and the network side determines that the PTM mode can be established successfully according to a priority rank of a PTM mode bearer of the one or more MBMSs and/or MBMS resources, then the network side notifying a UE that the one or more MBMSs will be switched to be transmitted by means of the PTM mode from the PTP mode, and transmitting relevant information of the one or more MBMSs to the UE; wherein the relevant information comprises one kind or a combination of the following information: multimedia broadcast multicast service single frequency network, MBSFN, area information of the MBMS under the PTM mode, start time information of the MBMS under the PTM mode, and a temporary mobile group identify, TMGI, corresponding to the MBMS under the PTM mode.
Blade device for a turbine, in particular a steam turbine, the blade device comprising a blade body comprising a radially inner end face and a radially outer end face which is formed opposed to the inner end face with respect to a radial direction of the turbine, and an inner ring having a first surface and a second surface opposed to the first surface along the radial direction , wherein the blade body comprises a channel extending between the inner end face and the outer end face , wherein the blade body comprises a first groove which connects the channel and an environment of the blade body such that a fluid connection between the environment and the channel is given, wherein the first groove has a first groove length and a first groove width which is smaller than the first groove length , and wherein the first groove width is smaller than 2 mm, wherein the inner ring comprises between the first surface and the second surface a first through hole and a second through hole , wherein the first surface is connected to the radially inner end face of the blade body such that the channel is connected to the first through hole , wherein the second through hole is formed spaced apart from the first through hole such that the second through hole is connected to the environment surrounding the blade body .
A hydrocracking catalyst comprising a cracking component and a hydrogenation component, wherein the cracking component comprises from 0 to 20 wt.% of a molecular sieve which is selected from the group consisting of Y-type molecular sieves, β molecular sieves, ZSM-5 molecular sieves, SAPO molecular sieves and MCM-41 mesoporous molecular sieves, or combinations thereof and from 20 to 60 wt.% of an amorphous silica-alumina, the hydrogenation component comprises at least one hydrogenation metal selected from W, Mo, Ni and Co, in a total amount of from 34 wt.% to 75 wt.% calculated by the mass of oxides, each amount is based on the total weight of the catalyst, the hydrocracking catalyst has a specific surface area of from 150 m 2 /g to 350 m 2 /g and a pore volume of from 0.20 cm 3 /g to 0.50 cm 3 /g, the product of the percent amount M of the total mass of the hydrogenation metal and the specific surface area S M×S = 120 - 160 m 2 /g, and wherein the amorphous silica-alumina has a specific surface area of from 400 to 650 m 2 /g and a pore volume of from 1.0 to 2.0 cm3/g, wherein the specific surface area and pore volume are determined by the low-temperature liquid nitrogen physical adsorption method. wherein the cracking component comprises from 0 to 20 wt.% of a molecular sieve which is selected from the group consisting of Y-type molecular sieves, β molecular sieves, ZSM-5 molecular sieves, SAPO molecular sieves and MCM-41 mesoporous molecular sieves, or combinations thereof and from 20 to 60 wt.% of an amorphous silica-alumina, the hydrogenation component comprises at least one hydrogenation metal selected from W, Mo, Ni and Co, in a total amount of from 34 wt.% to 75 wt.% calculated by the mass of oxides, each amount is based on the total weight of the catalyst, the hydrocracking catalyst has a specific surface area of from 150 m 2 /g to 350 m 2 /g and a pore volume of from 0.20 cm 3 /g to 0.50 cm 3 /g, the product of the percent amount M of the total mass of the hydrogenation metal and the specific surface area S M×S = 120 - 160 m 2 /g, and wherein the amorphous silica-alumina has a specific surface area of from 400 to 650 m 2 /g and a pore volume of from 1.0 to 2.0 cm3/g, wherein the specific surface area and pore volume are determined by the low-temperature liquid nitrogen physical adsorption method.