mhurhangee/patent-ind-claim-en huggingface dataset:
A method for producing a nanofiber-nanowire composite, the method comprising: preparing nanoparticles; producing a nanofiber-nanoparticle composite in an electrospinning synthesis solution through electrospinning, which electrospinning synthesis solution includes the nanoparticles and a dipolar solvent; and growing nanowires from the nanoparticles of the nanofiber-nanoparticle composite by hydrothermal synthesis, wherein producing the nanofiber-nanoparticle composite in the electrospinning synthesis solution comprises: dissolving a nanofiber synthesis polymer in an organic solvent to produce an electrospinning composite solution; dispersing the nanoparticles in the dipolar solvent; injecting a solution including the nanoparticles into the electrospinning composite solution and agitating the injected solution with the electrospinning composite solution; and producing a nanofiber-nanoparticle composite from the electrospinning composite solution using an electrospinning device. preparing nanoparticles; producing a nanofiber-nanoparticle composite in an electrospinning synthesis solution through electrospinning, which electrospinning synthesis solution includes the nanoparticles and a dipolar solvent; and growing nanowires from the nanoparticles of the nanofiber-nanoparticle composite by hydrothermal synthesis, wherein producing the nanofiber-nanoparticle composite in the electrospinning synthesis solution comprises: dissolving a nanofiber synthesis polymer in an organic solvent to produce an electrospinning composite solution; dispersing the nanoparticles in the dipolar solvent; injecting a solution including the nanoparticles into the electrospinning composite solution and agitating the injected solution with the electrospinning composite solution; and producing a nanofiber-nanoparticle composite from the electrospinning composite solution using an electrospinning device. dissolving a nanofiber synthesis polymer in an organic solvent to produce an electrospinning composite solution; dispersing the nanoparticles in the dipolar solvent; injecting a solution including the nanoparticles into the electrospinning composite solution and agitating the injected solution with the electrospinning composite solution; and producing a nanofiber-nanoparticle composite from the electrospinning composite solution using an electrospinning device.
An organosilicon compound having the structural formula : wherein each R 1 is independently a C 1 -C 10 alkyl group or C 6 -C 10 aryl group, each R 2 is independently a C 1 -C 10 alkyl group or C 6 -C 10 aryl group, wherein some or all of the hydrogen atoms in R 1 and R 2 may be substituted by a halogen atom or cyano group, and the C 1 -C 10 alkyl groups represented by R 1 and R 2 may be straight, branched or cyclic, R 5 is an unsubstituted C 1 -C 10 alkylene group which may be a straight or branched alkylene, or cycloalkylene group. each R 2 is independently a C 1 -C 10 alkyl group or C 6 -C 10 aryl group, wherein some or all of the hydrogen atoms in R 1 and R 2 may be substituted by a halogen atom or cyano group, and the C 1 -C 10 alkyl groups represented by R 1 and R 2 may be straight, branched or cyclic, R 5 is an unsubstituted C 1 -C 10 alkylene group which may be a straight or branched alkylene, or cycloalkylene group.
Controller of a gyroscope structure associated with a floating hull and equipped with an electrical converter suitable for converting the rotational energy of said floating hull into electrical energy, said controller receiving in input a perturbed output state (x) comprising operating variables of said gyroscope structure , characterised by determining a driving signal (u) to drive said electric converter , comprising: a first signal portion (v) determined using a predictive control model of said gyroscope structure computed on the basis of said perturbed output state (x), and a second signal portion (v*) determined using a tube convergence computed on parametric deviations (r) of the operating variables of said gyroscope structure , said parametric deviations (r) being computed as the difference of said operating variables of said perturbed output state (x) with respect to a unperturbed output nominal state (z NP ). a first signal portion (v) determined using a predictive control model of said gyroscope structure computed on the basis of said perturbed output state (x), and a second signal portion (v*) determined using a tube convergence computed on parametric deviations (r) of the operating variables of said gyroscope structure , said parametric deviations (r) being computed as the difference of said operating variables of said perturbed output state (x) with respect to a unperturbed output nominal state (z NP ).
A device for the storage or intermediate storage of granulate or bulk material such as wood pellets, animal feed or the like, with a tank , which has a filling opening and an emptying opening which is spatially separated from the filling opening and which is arranged opposite to the filling opening on the bottom side, the filling opening and the emptying opening being adjustable between an open position and a closed position, with a supply line system of a line system connected to the filling opening , for conveying the granulate or the bulk material into the tank , with an emptying line system of the line system connected to the emptying opening for conveying the granulate or the bulk material out of the tank , and with a pressure line system connected to a pressure port of the tank , comprising: - a pressure line connected to the pressure port ; - a filter line , in which a filter and a pressure-vacuum valve (12.1) are arranged, being connected to the pressure line ; - a compressor line , in which a compressor in the form of a unit for generating a negative pressure inside the tank in a filling configuration and in the form of a unit for generating a positive pressure inside the tank in an emptying configuration is arranged, being connected to the filter line ; - a suction line , in which a suction valve (12.2) is arranged, being connected to the compressor line upstream of the compressor ; - an exhaust line , in which an exhaust filter and an exhaust valve (12.3) are arranged, being connected to the compressor line downstream of the compressor ; - a flow line , in which a drain line system valve (12.4) is disposed, the flow line being connected to said compressor line and further being connected to the emptying line system ; and - a control line , in which a control valve (12.5) is arranged, the control line being connected to the flow line and further being connected to the pressure line . - a pressure line connected to the pressure port ; - a filter line , in which a filter and a pressure-vacuum valve (12.1) are arranged, being connected to the pressure line ; - a compressor line , in which a compressor in the form of a unit for generating a negative pressure inside the tank in a filling configuration and in the form of a unit for generating a positive pressure inside the tank in an emptying configuration is arranged, being connected to the filter line ; - a suction line , in which a suction valve (12.2) is arranged, being connected to the compressor line upstream of the compressor ; - an exhaust line , in which an exhaust filter and an exhaust valve (12.3) are arranged, being connected to the compressor line downstream of the compressor ; - a flow line , in which a drain line system valve (12.4) is disposed, the flow line being connected to said compressor line and further being connected to the emptying line system ; and - a control line , in which a control valve (12.5) is arranged, the control line being connected to the flow line and further being connected to the pressure line .
An isolated cell comprising a nucleic acid molecule, a nucleic acid vector or a lentiviral vector encoding a chimeric antigen receptor, the said chimeric antigen receptor comprising: - a binding domain; - a transmembrane domain; - a hook-binding domain comprising a streptavidin-binding peptide; and an activation domain comprising: - a T cell activating fragment of at least 100 contiguous amino acids of SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:7, or SEQ ID NO:8, SEQ ID NO:33, or SEQ ID NO:34, or - a T cell activating fragment of at least 90 contiguous amino acids of SEQ ID NO:6, the hook-binding domain being located in the intracytoplasmic region of the chimeric antigen receptor, the isolated cell being a cell of the immune system. - a binding domain; - a transmembrane domain; - a hook-binding domain comprising a streptavidin-binding peptide; and an activation domain comprising: - a T cell activating fragment of at least 100 contiguous amino acids of SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:7, or SEQ ID NO:8, SEQ ID NO:33, or SEQ ID NO:34, or - a T cell activating fragment of at least 90 contiguous amino acids of SEQ ID NO:6, - a T cell activating fragment of at least 100 contiguous amino acids of SEQ ID NO:3; SEQ ID NO:4; SEQ ID NO:5; SEQ ID NO:7, or SEQ ID NO:8, SEQ ID NO:33, or SEQ ID NO:34, or - a T cell activating fragment of at least 90 contiguous amino acids of SEQ ID NO:6,
A tire comprising, at a tread: a plurality of main grooves that extend in a tire circumferential direction (C); land portions that are demarcated in a tire transverse direction (W) by the main grooves ; sipes (S) that communicate with a tread surface side of the land portions , and that have two arc-shaped sipe portions (S1, S2) whose convex directions as seen from a tread surface are directions opposite to one another in the tire circumferential direction (C), whose convex directions are directed toward a tire transverse direction central side of the land portion , and that communicate with the main grooves ; characterised in that : chamfered portions of the land portion ends that are at the tread surface side and that run along the sipes (S) are provided. a plurality of main grooves that extend in a tire circumferential direction (C); land portions that are demarcated in a tire transverse direction (W) by the main grooves ; sipes (S) that communicate with a tread surface side of the land portions , and that have two arc-shaped sipe portions (S1, S2) whose convex directions as seen from a tread surface are directions opposite to one another in the tire circumferential direction (C), whose convex directions are directed toward a tire transverse direction central side of the land portion , and that communicate with the main grooves ; characterised in that : chamfered portions of the land portion ends that are at the tread surface side and that run along the sipes (S) are provided.
Method for producing a foundation element in the ground by means of a construction apparatus, wherein by means of a ground working tool a hole is formed in the ground, in which the foundation element is produced, wherein by means of a control and evaluation unit at least one operating variable of the construction apparatus, which changes depending on a ground composition, is detected as a function of a working depth, characterized in that in the control and evaluation unit a ground profile to be expected is entered, which indicates a layer structure of the ground with ground layers of different ground composition, and in that by the control and evaluation unit at least one operating variable is set in correlation with the entered ground profile in order to establish, at which working depth a transition between ground layers of different ground composition is present.
A member for electrophotography, comprising: a substrate ; a cured silicone rubber elastic layer containing an unsaturated aliphatic group; and a fluorine resin surface layer obtainable by melting a fluorine resin powder on the cured silicon rubber elastic layer , wherein: when a microhardness of a cured rubber forming the cured silicone rubber elastic layer is defined as H μ0 , and a microhardness of a rubber obtained by soaking the cured rubber in a methyl hydrogen silicone oil for 24 hours, and then further curing the cured rubber is defined as H μ1 , H μ1 /H μ0 is 2.5 or more and 5.0 or less; and the cured silicone rubber elastic layer comprises, as a first filler, an anatase-type titanium oxide-containing titanium oxide particle. a substrate ; a cured silicone rubber elastic layer containing an unsaturated aliphatic group; and a fluorine resin surface layer obtainable by melting a fluorine resin powder on the cured silicon rubber elastic layer , wherein: when a microhardness of a cured rubber forming the cured silicone rubber elastic layer is defined as H μ0 , and a microhardness of a rubber obtained by soaking the cured rubber in a methyl hydrogen silicone oil for 24 hours, and then further curing the cured rubber is defined as H μ1 , H μ1 /H μ0 is 2.5 or more and 5.0 or less; and the cured silicone rubber elastic layer comprises, as a first filler, an anatase-type titanium oxide-containing titanium oxide particle.
Transportation system for a building with multiple floors (14; 15) comprising: - a shaft , - a traction sheave drive type elevator for vertically conveying persons having an elevator car which is movable in the shaft and at least one counterweight which is movable together with the car in the shaft in a direction of movement opposite to the direction of movement of the elevator car , the elevator car and the counterweight being driven by at least one drive engine with a traction sheave , the shaft comprising a plurality of elevator shaft doors for providing access for passengers into the elevator car , the plurality of elevator shaft doors being arranged at a front side of the shaft , whereby at least one of the elevator shaft doors being arranged at each of multiple floors , characterized in that the transportation system comprises - a self-propelled lift for vertically conveying objects based on a different drive type than the elevator , the lift having a lift platform which is movable in the shaft and which comprises at least one climbing drive unit for climbing up and down in the shaft , the shaft comprising a plurality of lift shaft doors for providing access for the lift platform or for objects onto the lift platform , the plurality of lift shaft doors being arranged at a rear side opposite to the front side or at one of the lateral sides of of the shaft and at least one of the lift shaft doors being arranged at each of multiple floors , each of the latter floors preferably being arranged on the same level as a neighbouring floor of the floors at the front side of the shaft . - a shaft , - a traction sheave drive type elevator for vertically conveying persons having an elevator car which is movable in the shaft and at least one counterweight which is movable together with the car in the shaft in a direction of movement opposite to the direction of movement of the elevator car , the elevator car and the counterweight being driven by at least one drive engine with a traction sheave , - a self-propelled lift for vertically conveying objects based on a different drive type than the elevator , the lift having a lift platform which is movable in the shaft and which comprises at least one climbing drive unit for climbing up and down in the shaft , the shaft comprising a plurality of lift shaft doors for providing access for the lift platform or for objects onto the lift platform , the plurality of lift shaft doors being arranged at a rear side opposite to the front side or at one of the lateral sides of of the shaft and at least one of the lift shaft doors being arranged at each of multiple floors , each of the latter floors preferably being arranged on the same level as a neighbouring floor of the floors at the front side of the shaft .
Method for producing brake discs for motor vehicles, wherein the method comprises the steps: - heating (A) the brake disc blank, consisting of a lamellar cast-iron material, to a temperature of 830-870°C, - holding (B) this temperature for 60-120 min, - quenching (C) the brake disc blank in a salt bath at a temperature of 210-230°C, - holding (D) this temperature for longer than 90 min, characterized by - heating (E) the brake disc blank to a temperature of 260-300°C, and - holding (F) this temperature for longer than 210 min. - heating (A) the brake disc blank, consisting of a lamellar cast-iron material, to a temperature of 830-870°C, - holding (B) this temperature for 60-120 min, - quenching (C) the brake disc blank in a salt bath at a temperature of 210-230°C, - holding (D) this temperature for longer than 90 min, - heating (E) the brake disc blank to a temperature of 260-300°C, and - holding (F) this temperature for longer than 210 min.
A fire-resistant optical fibre cable comprising: - a core comprising a central strength member , and a plurality of buffer tubes arranged around the central strength member , each buffer tube containing a plurality of optical fibres ; - a layer arranged around the core ; - a glass yarn layer surrounding and in direct contact with the layer ; - a metal armour surrounding the glass yarn layer ; and - a sheath made of an LSOH flame-retardant material surrounding and in direct contact with the metal armour , characterized in that the layer arranged around the core is a mica layer; the sheath is a multi-layered sheath, and in that the multi-layered sheath comprises a first layer , a second layer surrounding and in contact with the first layer , and a third layer in a radial inner position with respect to the first layer and in direct contact thereto, the first, second and third layers being made of an LSOH flame-retardant material, the LSOH material of the first layer having a limiting oxygen index, LOI, higher than the LOI of the LSOH material of the second layer and of third layer , and the second layer is the cable outermost layer. - a core comprising a central strength member , and a plurality of buffer tubes arranged around the central strength member , each buffer tube containing a plurality of optical fibres ; - a layer arranged around the core ; - a glass yarn layer surrounding and in direct contact with the layer ; - a metal armour surrounding the glass yarn layer ; and - a sheath made of an LSOH flame-retardant material surrounding and in direct contact with the metal armour ,
A gas collection device of a printing press, comprising: a gas treatment unit including a gas chamber ; a cover portion that covers a print unit of a printing press; and a gas transfer unit configured to suck a gas of a volatile organic compound produced in the print unit from an inside of the cover portion and transfer the gas to the gas chamber , characterized in that the print unit comprises a cleaning device configured to supply the volatile organic compound in a liquid state to a roller for ink supply, and the gas collection device further comprises a control device configured to control operations of the gas treatment unit and the gas transfer unit based on an operation of the cleaning device , wherein the cleaning device is connected to and controlled by the control device . a gas treatment unit including a gas chamber ; a cover portion that covers a print unit of a printing press; and a gas transfer unit configured to suck a gas of a volatile organic compound produced in the print unit from an inside of the cover portion and transfer the gas to the gas chamber , characterized in that the print unit comprises a cleaning device configured to supply the volatile organic compound in a liquid state to a roller for ink supply, and the gas collection device further comprises a control device configured to control operations of the gas treatment unit and the gas transfer unit based on an operation of the cleaning device , wherein the cleaning device is connected to and controlled by the control device .
A method of using a surface treatment facility comprising a chamber for continuously forming coatings by a physical vapor deposition method on both surfaces of a coating formation-target material (S) conveyed in the chamber in a longitudinal direction, the facility further comprising: a conveyance mechanism for conveying the coating formation-target material (S); and a blowing mechanism for blowing a coating forming gas (G) in a longitudinal direction on both surface sides of the coating formation-target material (S) in the chamber , the method characterized in that , when a blowing speed of the coating forming gas is X in a unit of m/minute while a conveyance speed of the coating formation-target material is Y in a unit of m/minute, a ratio expressed by X/Y falls within a range of 0.4 to 3.0. a conveyance mechanism for conveying the coating formation-target material (S); and a blowing mechanism for blowing a coating forming gas (G) in a longitudinal direction on both surface sides of the coating formation-target material (S) in the chamber , the method characterized in that , when a blowing speed of the coating forming gas is X in a unit of m/minute while a conveyance speed of the coating formation-target material is Y in a unit of m/minute, a ratio expressed by X/Y falls within a range of 0.4 to 3.0.
A neural circuit capable of producing a weighted sum of digitised input signals , which are encoded on a given number of bits, and of applying an activation function to said weighted sum in order to produce a digitised activation signal at the output , said circuit having at least: - one multiplier multiplying each input signal ( x 1 to x n ) by a weight value ( w 1j to W nj ); - one accumulator accumulating the results of said multiplier in order to produce said weighted sum, and; - one activation unit performing said activation function ; characterised in that said activation unit has at least one shift unit capable of approximating a nonlinear activation function, the result of said approximated activation function being obtained by one or more arithmetic shifts of the bits of said weighted sum, the shift unit being capable of performing a saturation operation directly on said weighted sum or on a temporary result of the activation function before saturation, the saturated datum being delivered at the output of said activation unit, the saturation being performed by a right shift on said sum, the value of which is deduced from the desired saturation position, by preserving the least significant bits according to the desired final precision, the activation unit having a linear rectifier capable of further performing a linear rectification on the datum present at the output of the shift unit , said datum being the result of a saturation performed directly on said weighted sum present at the input of said activation unit, said linear rectification carrying out said activation function. - one multiplier multiplying each input signal ( x 1 to x n ) by a weight value ( w 1j to W nj ); - one accumulator accumulating the results of said multiplier in order to produce said weighted sum, and; - one activation unit performing said activation function ;