mhurhangee/patent-ind-claim-en huggingface dataset:
A method for wireless communication performed by a user equipment, UE, comprising: receiving , from a base station, a first sequence of a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, in a first set of symbols of a first subframe of a frame, wherein, within the first sequence, the SSS is received in a symbol that is prior to a symbol of the first subframe in which the PSS is received, the first sequence of the SSS and the PSS enables synchronization signal, SS, detection at legacy UEs; receiving , from the base station, repetitions of a second sequence of the PSS and the SSS in a first set of symbols of a second subframe of the frame and in a second set of symbols of the second subframe, wherein, within the second sequence, the SSS is received in a symbol that is subsequent to a symbol in which the PSS is received, and wherein the second sequence of the PSS and the SSS received in the first and second sets of symbols of the second subframe is swapped with reference to the first sequence of the PSS and the SSS received in the first set of symbols of the first subframe; and wherein the second sequence of the SSS and the PSS enables the SS detection at non-legacy UEs and causes the SS detection to fail at the legacy UEs; and synchronizing with the base station based at least in part on the PSS and the SSS. receiving , from a base station, a first sequence of a primary synchronization signal, PSS, and a secondary synchronization signal, SSS, in a first set of symbols of a first subframe of a frame, wherein, within the first sequence, the SSS is received in a symbol that is prior to a symbol of the first subframe in which the PSS is received, the first sequence of the SSS and the PSS enables synchronization signal, SS, detection at legacy UEs; receiving , from the base station, repetitions of a second sequence of the PSS and the SSS in a first set of symbols of a second subframe of the frame and in a second set of symbols of the second subframe, wherein, within the second sequence, the SSS is received in a symbol that is subsequent to a symbol in which the PSS is received, and wherein the second sequence of the PSS and the SSS received in the first and second sets of symbols of the second subframe is swapped with reference to the first sequence of the PSS and the SSS received in the first set of symbols of the first subframe; and wherein the second sequence of the SSS and the PSS enables the SS detection at non-legacy UEs and causes the SS detection to fail at the legacy UEs; and wherein, within the second sequence, the SSS is received in a symbol that is subsequent to a symbol in which the PSS is received, and wherein the second sequence of the PSS and the SSS received in the first and second sets of symbols of the second subframe is swapped with reference to the first sequence of the PSS and the SSS received in the first set of symbols of the first subframe; and wherein the second sequence of the SSS and the PSS enables the SS detection at non-legacy UEs and causes the SS detection to fail at the legacy UEs; and synchronizing with the base station based at least in part on the PSS and the SSS.
An apparatus for wireless communication comprising: means for receiving a clear to transmit, CTX, message from an access point , the CTX message being transmitted to two or more stations and indicating an uplink transmission opportunity, the CTX message comprising a physical layer convergence protocol, PLCP, protocol data unit, PPDU, duration field and a request for the two or more stations to concurrently transmit uplink data at a specific time, wherein the PPDU duration field indicates a duration for the transmission of the uplink data; and means for transmitting uplink data at the specific time to the access point, characterized in that the means for transmitting is further configured to transmit a clear to send, CTS, message having a scrambling sequence at a time after receiving the CTX message and before the transmitting of the uplink data, the scrambling sequence being the same as a scrambling sequence of a clear to send, CTS, message transmitted by the another of the two or more stations. means for receiving a clear to transmit, CTX, message from an access point , the CTX message being transmitted to two or more stations and indicating an uplink transmission opportunity, the CTX message comprising a physical layer convergence protocol, PLCP, protocol data unit, PPDU, duration field and a request for the two or more stations to concurrently transmit uplink data at a specific time, wherein the PPDU duration field indicates a duration for the transmission of the uplink data; and means for transmitting uplink data at the specific time to the access point, characterized in that the means for transmitting is further configured to transmit a clear to send, CTS, message having a scrambling sequence at a time after receiving the CTX message and before the transmitting of the uplink data, the scrambling sequence being the same as a scrambling sequence of a clear to send, CTS, message transmitted by the another of the two or more stations.
A method for forming a reinforced metallic sheet structure , comprising: positioning a plurality of fibers (701; 901; 1001) on a formation surface (802; 908) of a tool (800; 906), the formation surface (802; 908) corresponding to a desired structure shape of the reinforced metallic sheet structure; depositing a layer of metallic material on the plurality of fibers (701; 901; 1001) using a cold-spray technique, wherein particles of the metallic material bind together about the plurality of fibers (701; 901; 1001), thus embedding the plurality of fibers (701; 901; 1001) within the layer of metallic material ; and removing the layer of metallic material with the plurality of fibers (701; 901; 1001) from the tool (800; 906) to create the reinforced metallic sheet structure. positioning a plurality of fibers (701; 901; 1001) on a formation surface (802; 908) of a tool (800; 906), the formation surface (802; 908) corresponding to a desired structure shape of the reinforced metallic sheet structure; depositing a layer of metallic material on the plurality of fibers (701; 901; 1001) using a cold-spray technique, wherein particles of the metallic material bind together about the plurality of fibers (701; 901; 1001), thus embedding the plurality of fibers (701; 901; 1001) within the layer of metallic material ; and removing the layer of metallic material with the plurality of fibers (701; 901; 1001) from the tool (800; 906) to create the reinforced metallic sheet structure.
A sulfur recovery system comprising: a reaction furnace ; a sulfur recovery block connected to the reaction furnace for receiving an effluent stream from the reaction furnace ; a pressure control valve positioned downstream from the sulfur recovery block for controlling the operating pressure of the sulfur recovery block ; an ejector connected to the reaction furnace for providing a mixture comprising a motive fluid and a fresh acid gas to the reaction furnace ; a motive fluid supply line for providing the motive fluid to the ejector ; an acid gas supply line for providing the fresh acid gas to the ejector ; and a combustion gas supply line connected to the reaction furnace for providing a combustion gas comprising oxygen to the reaction furnace . a reaction furnace ; a sulfur recovery block connected to the reaction furnace for receiving an effluent stream from the reaction furnace ; a pressure control valve positioned downstream from the sulfur recovery block for controlling the operating pressure of the sulfur recovery block ; an ejector connected to the reaction furnace for providing a mixture comprising a motive fluid and a fresh acid gas to the reaction furnace ; a motive fluid supply line for providing the motive fluid to the ejector ; an acid gas supply line for providing the fresh acid gas to the ejector ; and a combustion gas supply line connected to the reaction furnace for providing a combustion gas comprising oxygen to the reaction furnace .
Antitheft device comprising: - a plurality of interlinked titanium alloy arm members , each of which exhibit a hardness of HRC 30 or more and a cross sectional distance of 8 mm or more; - a lock secured to one of said titanium alloy arm members and exhibiting a lock hole into which a second titanium alloy arm member can be inserted and secured therein; and - at least one pair of opposing saddle washers between at least one interconnection of two titanium alloy arm members , each of said saddle washers being made from a titanium alloy that exhibits a hardness at least as high as HRC 30; characterized in that it comprises at least one security washer exhibiting opposing countersink portions therein that receive a saddle washer on each side thereof. - a plurality of interlinked titanium alloy arm members , each of which exhibit a hardness of HRC 30 or more and a cross sectional distance of 8 mm or more; - a lock secured to one of said titanium alloy arm members and exhibiting a lock hole into which a second titanium alloy arm member can be inserted and secured therein; and - at least one pair of opposing saddle washers between at least one interconnection of two titanium alloy arm members , each of said saddle washers being made from a titanium alloy that exhibits a hardness at least as high as HRC 30;
A control method for a crane in which a telescopic boom capable of luffing, extending and retracting is disposed on a swivel base , a hook is suspended by a wire rope from a leading end of the telescopic boom or from a leading end of a jib disposed on the telescopic boom , a load (W) is suspended on the hook by a plurality of sling wire ropes , a tension of the wire rope is detected by a wire tension detector , and a movement direction of the hook is determined, characterised in that the movement direction of the hook is determined from an image captured in a vertically-downward direction by a camera provided on the leading end of the telescopic boom or the leading end of the jib , the control method comprising: a hook position adjustment control in which, before lift-off after slinging, a control device repeats a first process and a second process, the first process being a control to pull in the wire rope to a position where the wire rope is tensioned, the second process being a control to move the leading end of the telescopic boom in a same direction as a horizontal component of movement of the hook moved in the first process.
Use as perfuming ingredient of a compound of formula in the form of any one of its stereoisomers or a mixture thereof, and wherein the bold and hatched lines indicate a relative or absolute configuration.
An aqueous dispersion having a pH of 1-9 and comprising: (i) an aqueous dispersion medium and, dispersed therein, (ii) composite microparticles which are visible-light responsive photocatalysts and contain tungsten (W) oxide particles and zirconium (Zr) oxide particles at a Zr-oxide/W-oxide weight ratio of 0.1-2.00; the microparticles (ii) contain W-oxide microparticles and Zr-oxide microparticles having rod-shaped primary particles, wherein the ratio of the D50 particle size defined as the size of the average major axis of the rod-shaped primary particles of the Zr-oxide microparticles to the D50 particle size defined as the average primary particle size of the W-oxide microparticles is 0.05-20, and the D50 particle size in the particle size distribution of the microparticles (ii) is 20 nm to 10 μm, wherein the D50 particle size defined as the average primary particle size of the W-oxide microparticles is measured by image analysis of an enlarged TEM photograph by extracting 50 pieces of the particles or more, determining the volume-based integrated diameter and calculating the D50 particle size, and the D50 particle size defined as the size of the average major axis of the rod-shaped primary particles of the Zr-oxide microparticles is measure in an similar manner. (i) an aqueous dispersion medium and, dispersed therein, (ii) composite microparticles which are visible-light responsive photocatalysts and contain tungsten (W) oxide particles and zirconium (Zr) oxide particles at a Zr-oxide/W-oxide weight ratio of 0.1-2.00; the microparticles (ii) contain W-oxide microparticles and Zr-oxide microparticles having rod-shaped primary particles, wherein the ratio of the D50 particle size defined as the size of the average major axis of the rod-shaped primary particles of the Zr-oxide microparticles to the D50 particle size defined as the average primary particle size of the W-oxide microparticles is 0.05-20, and the D50 particle size in the particle size distribution of the microparticles (ii) is 20 nm to 10 μm,
A system, comprising: a computing device; a clearance region devoid of a conductive material and coupled to the computing device; an antenna comprising a first antenna portion and a second antenna portion , the first antenna portion coupled to the computing device and to the clearance region , and the second antenna portion coupled to the clearance region and the first antenna portion , such that the first and second antenna portions and the clearance region are configured to operate as an inverted-F antenna; a first conductive cap coupled to the second antenna portion via a first interconnection and a third interconnection ; and a second conductive cap coupled to the second antenna portion via a second interconnection , wherein the first cap and the second cap are coupled to the computing device; a port in physical contact with at least a portion of the second antenna portion ; characterized in that : the third interconnection is coupled to the port at one end, and is coupled to the first cap at the other end. a clearance region devoid of a conductive material and coupled to the computing device; an antenna comprising a first antenna portion and a second antenna portion , the first antenna portion coupled to the computing device and to the clearance region , and the second antenna portion coupled to the clearance region and the first antenna portion , such that the first and second antenna portions and the clearance region are configured to operate as an inverted-F antenna; a first conductive cap coupled to the second antenna portion via a first interconnection and a third interconnection ; and a second conductive cap coupled to the second antenna portion via a second interconnection , wherein the first cap and the second cap are coupled to the computing device; a port in physical contact with at least a portion of the second antenna portion ; characterized in that : the third interconnection is coupled to the port at one end, and is coupled to the first cap at the other end.
Melt spinning equipment comprising: a plurality of spinning take-up apparatuses ; and a cutting unit , wherein each of the plurality of spinning take-up apparatuses includes a spinning apparatus which spins out a plurality of yarns (Y), a take-up apparatus which takes in the plurality of yarns (Y), and a yarn breakage-treating device which temporarily keeps the plurality of yarns (Y), wherein the cutting unit is a cutting unit used for an operation of cutting the plurality of yarns (Y) by an operator, is able to cut a bundle of the plurality of yarns (Y) to be threaded to the take-up apparatus , and is installed in at least one of the take-up apparatus and the yarn breakage-treating device , and wherein the yarn breakage-treating device includes at least one cutter which continuously cuts one or more of the plurality of yarns (Y) in an array direction of the plurality of yarns (Y) and a suction portion which holds the plurality of yarns (Y) cut by the cutter and the plurality of yarns (Y) cut by the cutting unit . a plurality of spinning take-up apparatuses ; and a cutting unit , wherein each of the plurality of spinning take-up apparatuses includes a spinning apparatus which spins out a plurality of yarns (Y), a take-up apparatus which takes in the plurality of yarns (Y), and a yarn breakage-treating device which temporarily keeps the plurality of yarns (Y), wherein the cutting unit is a cutting unit used for an operation of cutting the plurality of yarns (Y) by an operator, is able to cut a bundle of the plurality of yarns (Y) to be threaded to the take-up apparatus , and is installed in at least one of the take-up apparatus and the yarn breakage-treating device , and wherein the yarn breakage-treating device includes at least one cutter which continuously cuts one or more of the plurality of yarns (Y) in an array direction of the plurality of yarns (Y) and a suction portion which holds the plurality of yarns (Y) cut by the cutter and the plurality of yarns (Y) cut by the cutting unit .
A method for producing a nutritional composition comprising the steps: (a) providing a solution comprising at least one mineral for a nutritional composition, wherein the at least one mineral comprises calcium citrate, potassium citrate and/or potassium phosphate monobasic, and optionally sodium citrate, magnesium chloride, magnesium oxide, calcium chloride, calcium glycerophosphate, sodium chloride, calcium phosphate, potassium hydroxide and/or sodium hydroxide; (b) adding at least one potato protein to the solution of step (a); (c) adding at least one carbohydrate and/or at least one fat to the solution of step (b); and (d) spray drying the solution of step (c). (a) providing a solution comprising at least one mineral for a nutritional composition, wherein the at least one mineral comprises calcium citrate, potassium citrate and/or potassium phosphate monobasic, and optionally sodium citrate, magnesium chloride, magnesium oxide, calcium chloride, calcium glycerophosphate, sodium chloride, calcium phosphate, potassium hydroxide and/or sodium hydroxide; (b) adding at least one potato protein to the solution of step (a); (c) adding at least one carbohydrate and/or at least one fat to the solution of step (b); and (d) spray drying the solution of step (c).
A bipolar junction transistor with temperature sensing components comprising: a base contact ; an emitter contact ; a collector contact ; a thermally-sensitive structure formed to overlay at least a portion of the emitter contact and being electrically isolated from the emitter contact ; and a first pair of conductors coupled to the thermally-sensitive structure and separated by a first distance for applying a probe current through the thermally-sensitive structure . a base contact ; an emitter contact ; a collector contact ; a thermally-sensitive structure formed to overlay at least a portion of the emitter contact and being electrically isolated from the emitter contact ; and a first pair of conductors coupled to the thermally-sensitive structure and separated by a first distance for applying a probe current through the thermally-sensitive structure .
A method of making, manufacturing and/or producing an implant suitable for implantation into a mammal for the treatment, repair or replacement of defects or injury in biological tissue, comprising the steps of: a. placing a porous rigid base into a well in a mold; b. placing a porous hydrogel in the well on top of the porous rigid base; c. placing a first lid on the mold; d. introducing or injecting a first low viscosity polymer into the well of the mold; e. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours; f. removing the first lid; g. placing a second lid on the mold; h. introducing or injecting a second low viscosity polymer into the well of mold; and i. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours. a. placing a porous rigid base into a well in a mold; b. placing a porous hydrogel in the well on top of the porous rigid base; c. placing a first lid on the mold; d. introducing or injecting a first low viscosity polymer into the well of the mold; e. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours; f. removing the first lid; g. placing a second lid on the mold; h. introducing or injecting a second low viscosity polymer into the well of mold; and i. freezing the mold to about -20°C for about 4 to 24 hours and subsequently thawing the mold at about 23°C for about 4 to 12 hours.
A flat bed trailer for transporting an item of heavy machinery comprising: a floor; a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; a pair of longitudinally extending side walls, wherein each of the side walls in the pair has an inward face; a first restraining bar and a second restraining bar, the first and second restraining bars each having a restraining position in which the respective restraining bar extends substantially laterally across the trailer between the pair of longitudinally extending side walls to restrain the item of heavy machinery when the item of heavy machinery is positioned on the trailer, wherein the restraining position of the first restraining bar is disposed nearer to the coupling mechanism than the restraining position of the second restraining bar; a first bar retainer for retaining the first restraining bar in its restraining position; and a second bar retainer coupled to at least one of the side walls for releasably retaining the second restraining bar in its restraining position; characterized in that the first restraining bar is received by the first bar retainer at an inward face of at least one of the side walls in the pair of longitudinally extending side walls. a floor; a plurality of wheels for travel over roads; a coupling mechanism for coupling the trailer to a towing vehicle; a pair of longitudinally extending side walls, wherein each of the side walls in the pair has an inward face; a first restraining bar and a second restraining bar, the first and second restraining bars each having a restraining position in which the respective restraining bar extends substantially laterally across the trailer between the pair of longitudinally extending side walls to restrain the item of heavy machinery when the item of heavy machinery is positioned on the trailer, wherein the restraining position of the first restraining bar is disposed nearer to the coupling mechanism than the restraining position of the second restraining bar; a first bar retainer for retaining the first restraining bar in its restraining position; and a second bar retainer coupled to at least one of the side walls for releasably retaining the second restraining bar in its restraining position; characterized in that the first restraining bar is received by the first bar retainer at an inward face of at least one of the side walls in the pair of longitudinally extending side walls.