mhurhangee/patent-ind-claim-en huggingface dataset:
A blower in which an impeller and a motor (M) driving the impeller to rotate are housed in housings , and outside air is sucked from an intake port provided at a central part in the housings in an axial direction by rotation of the impeller and is discharged from a discharge port of a discharge flow path scrolling on an outer side in a radial direction, wherein the impeller includes a main plate formed in a disc shape and a plurality of main blades formed to stand on one surface of the main plate , an outer peripheral edge portion (2a1) of the main plate is provided to extend to a position facing the inside of the discharge flow path formed so as to circle on the outer peripheral side of the impeller , auxiliary blades are formed to stand on the other surface of the main plate the blower being characterised in that the auxiliary blades are formed to extend from a vicinity of a shaft hole thereof to the outer peripheral edge portion (2a1) which is a position facing the inside of the discharge flow path , and an auxiliary blade shroud is integrally formed by connecting standing end surfaces of the auxiliary blades in the circumferential direction. wherein the impeller includes a main plate formed in a disc shape and a plurality of main blades formed to stand on one surface of the main plate , an outer peripheral edge portion (2a1) of the main plate is provided to extend to a position facing the inside of the discharge flow path formed so as to circle on the outer peripheral side of the impeller , auxiliary blades are formed to stand on the other surface of the main plate the blower being characterised in that the auxiliary blades are formed to extend from a vicinity of a shaft hole thereof to the outer peripheral edge portion (2a1) which is a position facing the inside of the discharge flow path , and an auxiliary blade shroud is integrally formed by connecting standing end surfaces of the auxiliary blades in the circumferential direction.
A system for triggering a roaming Machine Type Communication (MTC) device, comprising: an MTC InterWorking Function (MTC-IWF) entity of a home network , and an MTC IWF entity of a visitor network , wherein the MTC-IWF entity of the home network is configured to receive registration information reported by the roaming MTC device, determine the MTC-IWF entity of the visitor network to which the MTC is currently attached according to the registration information reported by the roaming MTC device when receiving the triggering request message for triggering the roaming MTC device from an MTC server, and send the triggering request message to the MTC-IWF entity of the visitor network ; and the MTC-IWF entity of the visitor network is configured to receive the triggering request message and trigger the roaming MTC device.
Carbon nanotubes each comprising a wall that comprises a parallel portion and a narrowed portion having a tube outer diameter that is not more than 90% of a tube outer diameter of the parallel portion, in which when preparing a 0.1% dispersion of the carbon nanotubes, drying the dispersion on a sample table, photographing the thus dried carbon nanotubes at a magnification of 20,000 times using a transmission electron microscope to obtain a micrograph of the carbon nanotubes, dividing the micrograph into sections each having an area of 100 nm square, and selecting 300 sections each having a carbon nanotube occupied area ratio of 10 to 80%, a proportion of the sections in each of which at least one narrowed portion is present is not less than 70% among the 300 sections.
An absorbent article comprising a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core comprising an absorbent material between a top core wrap sheet and a back core wrap sheet, said absorbent core being positioned in between said topsheet and said backsheet, said absorbent core having a first and second longitudinal edge and a first and second transverse edge, wherein the absorbent core is provided with a plurality of attachment zones comprising at least one front attachment zone extending from a crotch region in the direction of the first transverse edge and at least one rear attachment zone extending from the crotch region in the direction of the second transverse edge, wherein the front attachment zone and the rear attachment zone are continuous attachments zones and have a length, seen in the longitudinal direction, of at least 30mm, preferably at least 40mm and more preferably at least 50mm, wherein in said front attachment zone and said rear attachment zone the top core wrap sheet is attached to the back core wrap sheet, and with at least one bridging zone extending at least partially between said front and rear attachment zone, wherein - the at least one front attachment zone and at least one rear attachment zone , when projected on a longitudinal direction (L) of the absorbent core, do not overlap or overlap only partially; - the bridging zone extends from a first longitudinal portion (L1) of the absorbent core to a second longitudinal portion (L2) of the absorbent core, wherein the first longitudinal portion (L1) is defined between the first longitudinal edge and a longitudinal center axis (CA) of the absorbent core and the second longitudinal portion (L2) is defined between the second longitudinal edge and the longitudinal center axis (CA) of the absorbent core; such that upon wetting of the absorbent material, a front and rear channel are created at said front and rear attachment zone, respectively, wherein the bridging zone allows a liquid flow (arrow F) between the first longitudinal portion (L1) and the second longitudinal portion (L2). - the at least one front attachment zone and at least one rear attachment zone , when projected on a longitudinal direction (L) of the absorbent core, do not overlap or overlap only partially; - the bridging zone extends from a first longitudinal portion (L1) of the absorbent core to a second longitudinal portion (L2) of the absorbent core, wherein the first longitudinal portion (L1) is defined between the first longitudinal edge and a longitudinal center axis (CA) of the absorbent core and the second longitudinal portion (L2) is defined between the second longitudinal edge and the longitudinal center axis (CA) of the absorbent core;
A battery module , comprising: a plurality of batteries , a first end plate , and a second end plate , wherein the first end plate and the second end plate are respectively located on two sides of the plurality of batteries in a second direction (Y); the first end plate is provided with a first main body portion and a first lug portion , wherein the first lug portion protrudes from the first main body portion along the second direction (Y), and is provided with a first mounting hole ; the second end plate is provided with a second main body portion and a second lug portion , wherein the second lug portion protrudes from the second main body portion along the second direction (Y), and is provided with a second mounting hole ; and an area of a lower surface, in a third direction (Z), of the first lug portion is S 1 , a distance from a central axis of the first mounting hole to a center line (C), in a first direction (X), of the battery module is d 1 , an area of a lower surface, in the third direction (Z), of the second lug portion is S 2 , and a distance from a central axis of the second mounting hole to the center line (C), in the first direction (X), of the battery module is d 2 , wherein d 1 > d 2 , and S 1 < S 2 . the first end plate is provided with a first main body portion and a first lug portion , wherein the first lug portion protrudes from the first main body portion along the second direction (Y), and is provided with a first mounting hole ; the second end plate is provided with a second main body portion and a second lug portion , wherein the second lug portion protrudes from the second main body portion along the second direction (Y), and is provided with a second mounting hole ; and an area of a lower surface, in a third direction (Z), of the first lug portion is S 1 , a distance from a central axis of the first mounting hole to a center line (C), in a first direction (X), of the battery module is d 1 , an area of a lower surface, in the third direction (Z), of the second lug portion is S 2 , and a distance from a central axis of the second mounting hole to the center line (C), in the first direction (X), of the battery module is d 2 , wherein d 1 > d 2 , and S 1 < S 2 .
An LED light fixture comprising: a heat-sink structure having a mounting surface on which a circuit board is mounted, with a plurality of spaced apart LED light sources on the circuit board ; and a one-piece optical member comprising: a plurality of spaced lenses positioned over the LED light sources on the circuit board , each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer of a polymeric material, an outer layer of the polymeric material extending into a lens flange of such material that surrounds the lens and is spaced from the lens flanges of the adjacent lenses ; and a polymeric carrier portion surrounding the lenses , overlapping with and molded onto the lens flanges across such overlapping, and extending laterally therefrom to a peripheral edge portion , characterized in that part of the polymeric carrier portion overlapping with the lens flanges is between the lens flanges and the circuit board . a heat-sink structure having a mounting surface on which a circuit board is mounted, with a plurality of spaced apart LED light sources on the circuit board ; and a one-piece optical member comprising: a plurality of spaced lenses positioned over the LED light sources on the circuit board , each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer of a polymeric material, an outer layer of the polymeric material extending into a lens flange of such material that surrounds the lens and is spaced from the lens flanges of the adjacent lenses ; and a polymeric carrier portion surrounding the lenses , overlapping with and molded onto the lens flanges across such overlapping, and extending laterally therefrom to a peripheral edge portion , a plurality of spaced lenses positioned over the LED light sources on the circuit board , each of the lenses for alignment with a corresponding one of the LED light sources and having at least one lens layer of a polymeric material, an outer layer of the polymeric material extending into a lens flange of such material that surrounds the lens and is spaced from the lens flanges of the adjacent lenses ; and a polymeric carrier portion surrounding the lenses , overlapping with and molded onto the lens flanges across such overlapping, and extending laterally therefrom to a peripheral edge portion , characterized in that part of the polymeric carrier portion overlapping with the lens flanges is between the lens flanges and the circuit board .
A salt of a quinazoline derivative which is monocitrate represented by formula 2 , monocitrate hemiethanolate represented by formula 2-1 , monocitrate ditetrahydrofuran complex represented by formula 2-2 , monocitrate hemi-1,4-dioxane complex represented by formula 2-3 , monocitrate dihydrate represented by formula 2-4 , monocitrate hemichloroform complex represented by formula 2-5 , monocitrate trihydrate represented by formula 2-6 , monocitrate hemi(pentahydrate) represented by formula 2-7 ;
An isolated nucleic acid sequence encoding a chimeric antigen receptor (CAR), wherein the CAR comprises an antigen binding domain, an ICOS transmembrane domain, and an ICOS intracellular signaling domain, wherein the ICOS transmembrane domain comprises the amino acid sequence of SEQ ID NO: 12.
A process for preparation of Enzalutamide of Formula (I), comprising: reacting a compound of formula (II) wherein R1 is (1-4C) alkyl, (1-4C) alkyl substituted by ethyl acetate or benzyl acetate, benzyl or benzyl substituted at ortho or para-positions by halo, NO 2 or CN; with a compound of formula (III) at a temperature of from 60°C to 140°C in presence of a tertiary amine base in a solvent to form Enzalutamide of Formula (I). wherein R1 is (1-4C) alkyl, (1-4C) alkyl substituted by ethyl acetate or benzyl acetate, benzyl or benzyl substituted at ortho or para-positions by halo, NO 2 or CN; with a compound of formula (III) at a temperature of from 60°C to 140°C in presence of a tertiary amine base in a solvent to form Enzalutamide of Formula (I).
An inductor for induction welding of a packaging material having at least one layer of metal foil, the inductor comprising a welding surface configured to be arranged opposite the packaging material for heating thereof, and at least one spacing element (103, 103', 103", 103′′′) arranged to protrude from the welding surface in a first direction towards the packaging material, when the packaging material is arranged opposite the welding surface, whereupon the least one spacing element separates the packaging material from the welding surface by an off-set distance , and wherein the at least one spacing element comprises at least one roller (103, 103', 103", 103"') being pivotally fixed to the inductor and being rotatable around a rotational axis , whereby the at least one roller is configured to convey the packaging material across the welding surface at the off-set distance. a welding surface configured to be arranged opposite the packaging material for heating thereof, and at least one spacing element (103, 103', 103", 103′′′) arranged to protrude from the welding surface in a first direction towards the packaging material, when the packaging material is arranged opposite the welding surface, whereupon the least one spacing element separates the packaging material from the welding surface by an off-set distance , and wherein the at least one spacing element comprises at least one roller (103, 103', 103", 103"') being pivotally fixed to the inductor and being rotatable around a rotational axis , whereby the at least one roller is configured to convey the packaging material across the welding surface at the off-set distance.
A food processing system comprising: a driving pulley ; a driven pulley comprising a driven pulley housing and a spindle rotatably disposed within the driven pulley housing ; a motor to rotate the driving pulley ; a belt connected with the driving pulley and the driven pulley , the driving pulley to rotate the belt , the belt to rotate the driven pulley ; and an actuator comprising at least one arm connected with the driven pulley housing of the driven pulley , the at least one arm pivotally attached at a pivot point to the food processing system , the actuator to move the at least one arm about the pivot point to move the connected driven pulley relative to the belt between an extended position and a retracted position. a driving pulley ; a driven pulley comprising a driven pulley housing and a spindle rotatably disposed within the driven pulley housing ; a motor to rotate the driving pulley ; a belt connected with the driving pulley and the driven pulley , the driving pulley to rotate the belt , the belt to rotate the driven pulley ; and an actuator comprising at least one arm connected with the driven pulley housing of the driven pulley , the at least one arm pivotally attached at a pivot point to the food processing system , the actuator to move the at least one arm about the pivot point to move the connected driven pulley relative to the belt between an extended position and a retracted position.
Porous carrier system for reducing the emission of formaldehyde in a wood-based material, comprising a formaldehyde-binding substance A and a hydroxide-releasing substance B, wherein substance A and substance B are contained in at least one porous carrier material A or wherein substance A is contained in at least one porous carrier material A and substance B is contained in at least one porous carrier material B, wherein the porous carrier material A and B are kieselguhr, substance A is urea and substance B is sodium sulfite.
A client apparatus comprising: a requesting unit that, upon a connection with a server apparatus being established, transmits a request that includes attribute information that indicates an attribute of a data group, to the server apparatus via the connection; an acquisition unit that acquires data; an addition unit that adds, to unit data that includes the acquired data, an identifier that identifies the data group to which the unit data belongs, and that is associated with the connection; and a transmission unit that transmits the unit data to which the identifier has been added, to the server apparatus via the connection, wherein: the attribute information included in the request and the identifier are sent to the server apparatus in association with each other; and the requesting unit transmits another request, to the server apparatus via the connection, to disassociate the attribute information and the identifier from each other; wherein the unit data is a data block that includes the acquired data and a marker that delimits the data block from another data block, and the addition unit adds the identifier to at least a portion of the data block. a requesting unit that, upon a connection with a server apparatus being established, transmits a request that includes attribute information that indicates an attribute of a data group, to the server apparatus via the connection; an acquisition unit that acquires data; an addition unit that adds, to unit data that includes the acquired data, an identifier that identifies the data group to which the unit data belongs, and that is associated with the connection; and a transmission unit that transmits the unit data to which the identifier has been added, to the server apparatus via the connection, wherein: the attribute information included in the request and the identifier are sent to the server apparatus in association with each other; and the requesting unit transmits another request, to the server apparatus via the connection, to disassociate the attribute information and the identifier from each other; wherein the unit data is a data block that includes the acquired data and a marker that delimits the data block from another data block, and the addition unit adds the identifier to at least a portion of the data block. the attribute information included in the request and the identifier are sent to the server apparatus in association with each other; and the requesting unit transmits another request, to the server apparatus via the connection, to disassociate the attribute information and the identifier from each other; wherein the unit data is a data block that includes the acquired data and a marker that delimits the data block from another data block, and the addition unit adds the identifier to at least a portion of the data block.
A cathode additive for a lithium secondary battery, comprising: a compound represented by the following Chemical Formula 1: [Chemical Formula 1] y(Li 2 Ni 1-x M x O 2 )-z(Li 6 Co 1-x M x O 4 ) in Chemical Formula 1, M is one or more elements selected from the group consisting of P, B, F, W, Ti and Zr, 0≤x<1.0, y and z are molar ratios of Li 2 Ni 1-x M x O 2 and Li 6 Co 1-x M x O 4 contained in the compound of Chemical Formula 1, and y: z is 2: 1 to 30: 1. a compound represented by the following Chemical Formula 1: [Chemical Formula 1] y(Li 2 Ni 1-x M x O 2 )-z(Li 6 Co 1-x M x O 4 ) in Chemical Formula 1, M is one or more elements selected from the group consisting of P, B, F, W, Ti and Zr, 0≤x<1.0, y and z are molar ratios of Li 2 Ni 1-x M x O 2 and Li 6 Co 1-x M x O 4 contained in the compound of Chemical Formula 1, and y: z is 2: 1 to 30: 1. M is one or more elements selected from the group consisting of P, B, F, W, Ti and Zr, 0≤x<1.0, y and z are molar ratios of Li 2 Ni 1-x M x O 2 and Li 6 Co 1-x M x O 4 contained in the compound of Chemical Formula 1, and y: z is 2: 1 to 30: 1.
A network communication method, comprising: obtaining, by a second convergence control apparatus after receiving an indication message sent by a first convergence control apparatus, a preset proportion of service data from service data that the first convergence control apparatus needs to transmit, wherein the first convergence control apparatus is located at a data link layer of a first communications standard, and the second convergence control apparatus is located at a data link layer of a second communications standard; performing, by the second convergence control apparatus, parameter matching on the preset proportion of service data according to a system parameter of the second communications standard; and transmitting, by the second convergence control apparatus, the preset proportion of service data after being matched, by using the data link layer of the second communications standard. obtaining, by a second convergence control apparatus after receiving an indication message sent by a first convergence control apparatus, a preset proportion of service data from service data that the first convergence control apparatus needs to transmit, wherein the first convergence control apparatus is located at a data link layer of a first communications standard, and the second convergence control apparatus is located at a data link layer of a second communications standard; performing, by the second convergence control apparatus, parameter matching on the preset proportion of service data according to a system parameter of the second communications standard; and transmitting, by the second convergence control apparatus, the preset proportion of service data after being matched, by using the data link layer of the second communications standard.
A method of controlling a plurality of antennas in a multi-Antenna Line Device ALD system including a plurality of ALDs and a plurality of ports linked with a plurality of base stations , the method comprising: receiving a configuration command by an ALD of the plurality of ALDs from a base station of the plurality of base stations ; transferring the configuration command by the ALD in receipt of the configuration command to other ALDs; and setting an antenna to be controlled or a port to be linked by each of the plurality of ALDs according to the configuration command, characterized by further comprising, upon completion of the setting of the plurality of ALDs according to the configuration command, transmitting a setting completion signal by a master ALD to all of the base stations and slave ALDs which received the configuration command. receiving a configuration command by an ALD of the plurality of ALDs from a base station of the plurality of base stations ; transferring the configuration command by the ALD in receipt of the configuration command to other ALDs; and setting an antenna to be controlled or a port to be linked by each of the plurality of ALDs according to the configuration command, characterized by further comprising, upon completion of the setting of the plurality of ALDs according to the configuration command, transmitting a setting completion signal by a master ALD to all of the base stations and slave ALDs which received the configuration command.