mhurhangee/patent-ind-claim-en huggingface dataset:
A manufacturing method of a resin article having a plurality of filamentous projections that are formed on a contact surface of a resin article body such that the contact surface can adhere to a fibrous article, comprising: a thrusting step to thrust acute-angled leading edges of plate-shaped metal parts into the contact surface of the resin article body; a heating step to heat the plate-shaped metal parts to a temperature greater than a melting temperature of a resin material of the resin article body before or during the thrusting step; and a pulling out step to pull out the plate-shaped metal parts from the contact surface of the resin article body in a condition in which portions of the resin material of the resin article body is melted around the leading edges of the plate-shaped metal parts and in which melted resin portions are formed on unmelted portions of the resin material of the resin article body, wherein in the pulling out step, the melted resin portions stuck to the leading edges of the plate-shaped metal parts are drawn from the melted resin portions of the resin article body and extended into filaments, so as to be formed into the projections. a thrusting step to thrust acute-angled leading edges of plate-shaped metal parts into the contact surface of the resin article body; a heating step to heat the plate-shaped metal parts to a temperature greater than a melting temperature of a resin material of the resin article body before or during the thrusting step; and a pulling out step to pull out the plate-shaped metal parts from the contact surface of the resin article body in a condition in which portions of the resin material of the resin article body is melted around the leading edges of the plate-shaped metal parts and in which melted resin portions are formed on unmelted portions of the resin material of the resin article body, wherein in the pulling out step, the melted resin portions stuck to the leading edges of the plate-shaped metal parts are drawn from the melted resin portions of the resin article body and extended into filaments, so as to be formed into the projections.
An antisense oligonucleotide (AON) for skipping exon 13 in human USH2A pre-mRNA, wherein the AON consists of the sequence of SEQ ID NO: 5, 6, or 7.
A method of producing a tooth flank surface on gear teeth by controlled removal of stock material from a work gear with a tool, said work gear and said tool being movable with respect to one another along and/or about a plurality of axes, said method comprising: engaging said tool with said work gear, moving said tool and said work gear relative to one another in a generating motion along and/or about said plurality of axes, removing stock material from the work gear to produce the tooth surface on said work gear, wherein the generating motion along and/or about said plurality of axes comprises motion along and/or about at least one of the axes, said motion being defined by a function comprising a first level component and a second level component, said first level component defining a maximum flank form deviation amplitude for each individual tooth of the work gear, and said second level component defining a modification of the tooth surface of each tooth of the work gear. engaging said tool with said work gear, moving said tool and said work gear relative to one another in a generating motion along and/or about said plurality of axes, removing stock material from the work gear to produce the tooth surface on said work gear, wherein the generating motion along and/or about said plurality of axes comprises motion along and/or about at least one of the axes, said motion being defined by a function comprising a first level component and a second level component, said first level component defining a maximum flank form deviation amplitude for each individual tooth of the work gear, and said second level component defining a modification of the tooth surface of each tooth of the work gear.
An RF antenna assembly operable to communicate with an associated RF device located at various positions about a heating hob disposed in an inner area, said antenna assembly comprising an antenna including a plurality of continuous, conductive antenna loops located about the inner area, and circuitry , characterized in that : said antenna loops are oriented to cooperatively surround said inner area, each of said loops having an inner section proximal to said inner area and defining a respective, enclosed RF communication region outboard of said inner loop section with respect to said inner area, said regions cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; said circuitry includes at least two conductive paths adapted for coupling with a signal generator, and said plurality of loops each having one terminal end connected to at least one of said conductive paths, and having a second terminal end connected to at least one other of said conductive paths, whereby said antenna loops are not connected in series. said antenna loops are oriented to cooperatively surround said inner area, each of said loops having an inner section proximal to said inner area and defining a respective, enclosed RF communication region outboard of said inner loop section with respect to said inner area, said regions cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; each of said loops having an inner section proximal to said inner area and defining a respective, enclosed RF communication region outboard of said inner loop section with respect to said inner area, said regions cooperatively defining a continuous RF communication zone outboard of and disposed about the inner area; said circuitry includes at least two conductive paths adapted for coupling with a signal generator, and said plurality of loops each having one terminal end connected to at least one of said conductive paths, and having a second terminal end connected to at least one other of said conductive paths, whereby said antenna loops are not connected in series.
A touch input method for controlling a portable terminal comprising a touch screen , and a sensor , the method comprising: detecting a touch input on one of a plurality of divided touch regions of the touch screen ; detecting a tilted state of the portable terminal , using the sensor , when the touch input is detected; determining one of the plurality of divided touch regions as a touch reflection region in which a touch event is effective being reflected from another region in which the touch input is detected according to a direction of the tilt in the detected tilted state of the portable terminal ; and processing the touch event generated from the region in which the touch input is detected as the touch event reflected in the determined touch reflection region. detecting a touch input on one of a plurality of divided touch regions of the touch screen ; detecting a tilted state of the portable terminal , using the sensor , when the touch input is detected; determining one of the plurality of divided touch regions as a touch reflection region in which a touch event is effective being reflected from another region in which the touch input is detected according to a direction of the tilt in the detected tilted state of the portable terminal ; and processing the touch event generated from the region in which the touch input is detected as the touch event reflected in the determined touch reflection region.
A wind turbine rotor blade having at least one spar cap extending longitudinally in a span-wise direction of the wind turbine rotor blade , the spar cap comprising a plurality of pultruded fibrous composite strips stacked with one or more similar strips , wherein each of the pultruded fibrous composite strips is of substantially constant cross-section defined by first and second mutually opposed and longitudinally extending sides and by first and second longitudinal edges , the first and second sides comprising, respectively, first and second abutment surfaces , wherein the first and the second abutment surfaces are non-planar, wherein each of the pultruded fibrous composite strips is oriented such that: - the first and the second sides of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a flap-wise direction of the wind turbine rotor blade , and - the first and the second edges of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a chordwise direction of the wind turbine rotor blade and characterized in that a the strips are oriented such that one of the abutment surfaces of the strip are aligned to or in agreement with the shape of the shell in the region where the strips are embedded. is of substantially constant cross-section defined by first and second mutually opposed and longitudinally extending sides and by first and second longitudinal edges , the first and second sides comprising, respectively, first and second abutment surfaces , wherein the first and the second abutment surfaces are non-planar, wherein each of the pultruded fibrous composite strips is oriented such that: - the first and the second sides of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a flap-wise direction of the wind turbine rotor blade , and - the first and the second edges of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a chordwise direction of the wind turbine rotor blade and characterized in that a the strips are oriented such that one of the abutment surfaces of the strip are aligned to or in agreement with the shape of the shell in the region where the strips are embedded. - the first and the second sides of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a flap-wise direction of the wind turbine rotor blade , and - the first and the second edges of the strip longitudinally extend along the span-wise direction of the wind turbine rotor blade and are spaced apart in a chordwise direction of the wind turbine rotor blade and characterized in that a the strips are oriented such that one of the abutment surfaces of the strip are aligned to or in agreement with the shape of the shell in the region where the strips are embedded.
A catalyst composition comprising: (a) a metallic nanoparticle; and (b) a porous support with a surface area; wherein the nanoparticle (a) is adsorbed on the surface area of the porous support; wherein the nanoparticle (a) comprises (i) one or more metallic elements of group 10 of the periodic table; (ii) one or more organic molecules selected from the group consisting of an organophosphorus compound, and an N-heterocyclic carbene; and (iii) one or more metallic elements selected from the group consisting of tin (Sn), gallium (Ga), and indium (In). (a) a metallic nanoparticle; and (b) a porous support with a surface area; wherein the nanoparticle (a) is adsorbed on the surface area of the porous support;
A system (T) comprising a combustion chamber (K) of an internal combustion engine, a piezoelectric sensor (S) for capturing a pressure profile in the combustion chamber (K), and a protective device (V) for the piezoelectric sensor (S); wherein the piezoelectric sensor (S) comprises a membrane and a piezoelectric transducer ; wherein the piezoelectric sensor (S) is mechanically secured in a wall (W) of the combustion chamber (K); wherein the protective device (V) substantially covers a face of the membrane that faces away from the piezoelectric transducer ; and wherein the protective device (V) comprises passages through which liquid or gaseous medium passes from the combustion chamber to the membrane , characterized in that on a face of the protective device (V) that faces the membrane said passages communicate with a cavity , which cavity is arranged between the protective device (V) and the membrane with respect to a longitudinal axis (AA'); the protective device (V) comprises a protective body ; with respect to the longitudinal axis (AA') a center of the passages in the protective body are arranged on at least one passage radius (R8); said passage radius (R8) being a distance between a center of the protective body on the longitudinal axis (AA') and the centers of the passages on a face of the protective device (V) that faces the membrane ; the membrane comprises a radial membrane portion , an elastic membrane portion and a central plunger , said radial membrane portion being radially spaced apart from a central portion of the membrane , said central plunger extending in the central portion on the longitudinal axis (AA'), and said elastic membrane portion mechanically connecting the radial membrane portion with the central plunger ; the piezoelectric sensor (S) comprises a housing , said radial membrane portion being supported in a planar manner on a radially inner end face of said housing ; the central plunger supports the piezoelectric transducer ; and in that the passages directly aim at the radial membrane portion .
A drilling tool for producing holes or recesses in workpieces, comprising a mounting shaft for mounting on a drive unit and a urging portion that is tapered towards a workpiece-side end of the drilling tool , wherein the urging portion is adapted for at least partially deforming and at least partially cutting a workpiece, wherein the urging portion comprises, at least sectionally, a polygonal cross-section and is provided, at its workpiece-side end, with at least one cutting edge , which is adjoined by a chip groove , which extends in a region in which the polygonal cross-section has a convex elevation , wherein the chip groove is designed and arranged such that during an initial stage of a bore there is initially no contact between the affected convex elevation of the polygonal cross-section of the urging portion and the workpiece, characterized in that a flattened portion is formed in the urging portion , adjoining the chip groove , which flattened portion extends towards a rear end of the urging portion that is facing away from the workpiece-side end.
A method for packing ceramic slabs (C) by means of a packing station , wherein the packing station comprises: - a conveyor adapted to support and advance a ceramic slab (C) or a stack of ceramic slabs (C), - a packaging head adapted to form a protective casing around the ceramic slab (C) or the stack of ceramic slabs (C), - a handling head adapted to directly grip the ceramic slab (C) or the stack of ceramic slabs (C), - a tooling area (U15) adapted to receive the packaging head and the handling head , - a robot adapted to selectively pick up the packaging head or the handling head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , and wherein the method provides for performing a first activity, if the conveyor brings inside a work space (U10) a ceramic slab (C) or a stack of ceramic slabs (C) of a first type, and a second activity, if the conveyor brings inside the work space (U10) a ceramic slab (C) or a stack of ceramic slabs (C) of a second type, the first activity including the steps of: - controlling the robot to pick up the handling head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , - using the robot equipped with the handling head to directly grip the ceramic slab (C) or the stack of ceramic slabs (C), and - transferring the ceramic slab (C) or the stack of ceramic slabs (C) to a supporting element the second activity including the steps of: - controlling the robot to pick up the packaging head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , - using the robot equipped with the packaging head to form a protective casing around the ceramic slab (C) or the stack of ceramic slabs (C). - a conveyor adapted to support and advance a ceramic slab (C) or a stack of ceramic slabs (C), - a packaging head adapted to form a protective casing around the ceramic slab (C) or the stack of ceramic slabs (C), - a handling head adapted to directly grip the ceramic slab (C) or the stack of ceramic slabs (C), - a tooling area (U15) adapted to receive the packaging head and the handling head , - a robot adapted to selectively pick up the packaging head or the handling head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , - controlling the robot to pick up the handling head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , - using the robot equipped with the handling head to directly grip the ceramic slab (C) or the stack of ceramic slabs (C), and - transferring the ceramic slab (C) or the stack of ceramic slabs (C) to a supporting element - controlling the robot to pick up the packaging head from the tooling area (U15) and bring it to operate at the ceramic slab (C) or the stack of ceramic slabs (C) on the conveyor , - using the robot equipped with the packaging head to form a protective casing around the ceramic slab (C) or the stack of ceramic slabs (C).
A determination device comprising: a first storage unit configured to store one or more predetermined processing rules of a post-printing processor based on processing know-how for a post-printing process; a second storage unit configured to store a specification of the post-printing processor ; a first input unit configured to receive input of information about an update of the processing rules; an update unit configured to update the processing rules stored in the first storage unit based on the input of information about the update of the processing rules; and a determination unit configured to determine whether a post-printing processing instruction information generated by a pre-printing processor satisfies the one or more processing rules, characterized in that the determination unit configured to be communicable with the pre-printing processor via a network (N1, N2), wherein when the post-printing processing instruction information is received from the pre-printing processor , the determination unit is configured to determine whether the received post-printing processing instruction information satisfies the one or more processing rules and the specification of the post-printing processor , and to transmit the determination result to the pre-printing processor when the determination unit determines that the received post-printing processing instruction information does not satisfy at least one of the specification or the processing rules of the post-printing processor . a first storage unit configured to store one or more predetermined processing rules of a post-printing processor based on processing know-how for a post-printing process; a second storage unit configured to store a specification of the post-printing processor ; a first input unit configured to receive input of information about an update of the processing rules; an update unit configured to update the processing rules stored in the first storage unit based on the input of information about the update of the processing rules; and a determination unit configured to determine whether a post-printing processing instruction information generated by a pre-printing processor satisfies the one or more processing rules, that the determination unit configured to be communicable with the pre-printing processor via a network (N1, N2), wherein when the post-printing processing instruction information is received from the pre-printing processor , the determination unit is configured to determine whether the received post-printing processing instruction information satisfies the one or more processing rules and the specification of the post-printing processor , and to transmit the determination result to the pre-printing processor when the determination unit determines that the received post-printing processing instruction information does not satisfy at least one of the specification or the processing rules of the post-printing processor .
A hybrid multi-spool gas turbine engine comprising a low-pressure (LP) spool and a high-pressure (HP) spool rotatable independently of one another about a central axis, the LP spool having an LP compressor and an LP turbine drivingly engaged to the LP compressor via an LP shaft , the LP shaft drivingly engaged to a rotatable load at a first end thereof, the HP spool having an HP turbine and an HP compressor drivingly engaged to the HP turbine via a HP shaft , characterized in that the engine further comprises: an accessory gearbox (AGB) drivingly engaged to both of the LP shaft and the HP shaft and located proximate a second end of the LP shaft , the AGB having at least one accessory output drivingly engageable to at least one accessory and at least one input ; and at least one electric motor drivingly engaged to the at least one input of the AGB , the at least one electric motor drivingly engaged to the rotatable load via the AGB and the LP shaft . an accessory gearbox (AGB) drivingly engaged to both of the LP shaft and the HP shaft and located proximate a second end of the LP shaft , the AGB having at least one accessory output drivingly engageable to at least one accessory and at least one input ; and at least one electric motor drivingly engaged to the at least one input of the AGB , the at least one electric motor drivingly engaged to the rotatable load via the AGB and the LP shaft .