mhurhangee/patent-ind-claim-en huggingface dataset:
A cable comprising: a core comprising a first twisted pair of insulated conductors and a second twisted pair of insulated conductors ; a shielding tape surrounding the first and second twisted pairs of insulated conductors and defining a longitudinal centerline (C1), the shielding tape comprising: a dielectric substrate ; and a shielding substrate disposed on the dielectric substrate and comprising a plurality of conductive shielding segments , each conductive shielding segment of the plurality of conductive shielding segments being spaced from an immediately adjacent conductive shielding segment such that the plurality of conductive shielding segments cooperate to define a path of electrical discontinuity that is routed longitudinally along the dielectric substrate in an oscillating pattern about the longitudinal centerline (C1); and an outer jacket surrounding the first and second twisted pairs of insulated conductors and the shielding tape , characterized in that the path is a single line path and comprises a first cycle portion and a second cycle portion and said second cycle portion is more longitudinally compact than said first cycle portion , wherein each of said first cycle portion and said second cycle portion comprises a positive half cycle segment and a negative half cycle segment. a core comprising a first twisted pair of insulated conductors and a second twisted pair of insulated conductors ; a shielding tape surrounding the first and second twisted pairs of insulated conductors and defining a longitudinal centerline (C1), the shielding tape comprising: a dielectric substrate ; and a shielding substrate disposed on the dielectric substrate and comprising a plurality of conductive shielding segments , each conductive shielding segment of the plurality of conductive shielding segments being spaced from an immediately adjacent conductive shielding segment such that the plurality of conductive shielding segments cooperate to define a path of electrical discontinuity that is routed longitudinally along the dielectric substrate in an oscillating pattern about the longitudinal centerline (C1); and a dielectric substrate ; and a shielding substrate disposed on the dielectric substrate and comprising a plurality of conductive shielding segments , each conductive shielding segment of the plurality of conductive shielding segments being spaced from an immediately adjacent conductive shielding segment such that the plurality of conductive shielding segments cooperate to define a path of electrical discontinuity that is routed longitudinally along the dielectric substrate in an oscillating pattern about the longitudinal centerline (C1); and an outer jacket surrounding the first and second twisted pairs of insulated conductors and the shielding tape , characterized in that the path is a single line path and comprises a first cycle portion and a second cycle portion and said second cycle portion is more longitudinally compact than said first cycle portion , wherein each of said first cycle portion and said second cycle portion comprises a positive half cycle segment and a negative half cycle segment.
A method of fabricating a solar cell, comprising: providing a silicon wafer as a central substrate; depositing or growing an interface passivation layer directly on the substrate, wherein the interface layer is amorphous SiO 2 and has a thickness of less than 10 nm; depositing a conductive layer directly on the interface passivation layer, wherein the conductive layer is amorphous silicon carbide; providing thermal treatment at a temperature of 500°C or higher to activate doping atoms in the amorphous silicon carbide and result in diffusion of dopant atoms into the substrate to provide a high-low junction or a p-n junction, and to crystallize the amorphous silicon carbide layer into a polycrystalline layer; and providing metallization as electrodes. providing a silicon wafer as a central substrate; depositing or growing an interface passivation layer directly on the substrate, wherein the interface layer is amorphous SiO 2 and has a thickness of less than 10 nm; depositing a conductive layer directly on the interface passivation layer, wherein the conductive layer is amorphous silicon carbide; providing thermal treatment at a temperature of 500°C or higher to activate doping atoms in the amorphous silicon carbide and result in diffusion of dopant atoms into the substrate to provide a high-low junction or a p-n junction, and to crystallize the amorphous silicon carbide layer into a polycrystalline layer; and providing metallization as electrodes.
A vacuum adiabatic body comprising: a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different from the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first temperature and the second temperature and is in a vacuum state; a support that supports the first and second plates and is provided in the third space ; an exhaust port through which a gas in the third space is exhausted; a peripheral adiabatic mold fixed to an edge of the first plate and second plate ; and a gasket having at least one portion fixed to the peripheral adiabatic mold and provided adjacent to the first plate ; characterized in that the vacuum adiabatic body comprises at least one conductive resistance sheet provided as a curved surface thinner than each of the first and second plates to resist heat conduction flowing along a wall for the third space to decrease a heat transfer amount between the first plate and the second plate . a first plate defining at least one portion of a first side of a wall adjacent to a first space having a first temperature; a second plate defining at least one portion of a second side of the wall adjacent to a second space having a second temperature different from the first temperature; a seal that seals the first plate and the second plate to provide a third space that has a third temperature between the first temperature and the second temperature and is in a vacuum state; a support that supports the first and second plates and is provided in the third space ; an exhaust port through which a gas in the third space is exhausted; a peripheral adiabatic mold fixed to an edge of the first plate and second plate ; and a gasket having at least one portion fixed to the peripheral adiabatic mold and provided adjacent to the first plate ; characterized in that the vacuum adiabatic body comprises at least one conductive resistance sheet provided as a curved surface thinner than each of the first and second plates to resist heat conduction flowing along a wall for the third space to decrease a heat transfer amount between the first plate and the second plate .
A belt for suspending and/or driving an elevator car , comprising: a plurality of tension elements extending along a length of the belt , wherein the tension elements are formed from a metallic material; a plurality of belt fibers transverse to the plurality of tension elements and interlaced therewith, wherein the belt fibers are formed from a non-metallic material; characterized by : the belt fibers defining at least one traction surface of the belt ; and an edge fiber disposed at a lateral end of the belt transverse and secured to the plurality of belt fibers to secure the belt fibers in a selected position; the edge fiber including a thermally-activated material to secure the edge fiber to the plurality of belt fibers ; and the edge fiber disposed parallel to the plurality of tension elements . a plurality of tension elements extending along a length of the belt , wherein the tension elements are formed from a metallic material; a plurality of belt fibers transverse to the plurality of tension elements and interlaced therewith, wherein the belt fibers are formed from a non-metallic material; characterized by : the belt fibers defining at least one traction surface of the belt ; and an edge fiber disposed at a lateral end of the belt transverse and secured to the plurality of belt fibers to secure the belt fibers in a selected position; the edge fiber including a thermally-activated material to secure the edge fiber to the plurality of belt fibers ; and the edge fiber disposed parallel to the plurality of tension elements . the belt fibers defining at least one traction surface of the belt ; and an edge fiber disposed at a lateral end of the belt transverse and secured to the plurality of belt fibers to secure the belt fibers in a selected position; the edge fiber including a thermally-activated material to secure the edge fiber to the plurality of belt fibers ; and the edge fiber disposed parallel to the plurality of tension elements .
An adhesive tape comprising: a base material; and an adhesive sheet provided on one surface of the base material and comprising cured products of an aqueous acrylic adhesive composition, wherein the adhesive sheet has a porous structure comprising pores, wherein the adhesive tape has a water vapor transmission rate of 3,000 g/m 2 ·day or more and 5,000 g/m 2 ·day or less under conditions of a temperature of 40°C and a relative humidity of 20% in accordance with the ASTM E96, wherein the aqueous acrylic adhesive composition comprises an acrylic resin, a thermal foaming agent, a curing agent and a surfactant, and wherein the thermal foaming agent includes one or more selected from the group consisting of azo dicarbon amide, p,p'-oxybis(benzenesulfonyl hydrazide), p-toluenesulfonyl hydrazide, and sodium bicarbonate. a base material; and an adhesive sheet provided on one surface of the base material and comprising cured products of an aqueous acrylic adhesive composition, wherein the adhesive sheet has a porous structure comprising pores, wherein the adhesive tape has a water vapor transmission rate of 3,000 g/m 2 ·day or more and 5,000 g/m 2 ·day or less under conditions of a temperature of 40°C and a relative humidity of 20% in accordance with the ASTM E96, wherein the aqueous acrylic adhesive composition comprises an acrylic resin, a thermal foaming agent, a curing agent and a surfactant, and wherein the thermal foaming agent includes one or more selected from the group consisting of azo dicarbon amide, p,p'-oxybis(benzenesulfonyl hydrazide), p-toluenesulfonyl hydrazide, and sodium bicarbonate.
A bridge tape comprised of a foamable composition on a backing material with an adhesive coating in the form of a die-cut patch, having a plurality of holes passing through said die-cut patch.
Use of a carbon film as a charge stripping film configured to be part of an ion beam charge stripping device, wherein the carbon film has a thermal conductivity in a film surface direction at 25°C of not less than 300 W/mK, and the carbon film has a film thickness of not less than 10 μm and not more than 150 μm, an area of not less than 4 cm 2 , an atomic concentration of carbon of not less than 97%, and a weight per unit area of not less than 1.5 mg/cm 2 and not more than 30 mg/cm 2 . the carbon film has a thermal conductivity in a film surface direction at 25°C of not less than 300 W/mK, and the carbon film has a film thickness of not less than 10 μm and not more than 150 μm, an area of not less than 4 cm 2 , an atomic concentration of carbon of not less than 97%, and a weight per unit area of not less than 1.5 mg/cm 2 and not more than 30 mg/cm 2 .
Filter device with a filter housing in which a replaceable filter element is received, wherein the filter element comprises a fixing device , which can be inserted axially into a receiving device of the filter housing , and wherein, after carrying out a rotation movement, the fixing device is latched in a latching position with the receiving device by latching means , characterised in that the fixing device can be inserted in the receiving device of the filter housing against the force of an energy accumulator acting on the filter element .
A sealing structure, comprising: two members (200, 300; 200a, 300a) fixed to each other; and a gasket (100; 100a) that is mounted in an annular mounting groove (210; 210a) provided to one of the two members (200; 200a) and makes tight contact with a groove bottom surface of the mounting groove (210; 210a) and an end face of the other one of the two members (300; 300a), to seal a gap between the two members, wherein a perimeter (L1(MAX)) of an outer circumferential surface of the gasket (100; 100a) is designed to be not greater than a perimeter (L2(MAX)) of a radially outer side wall surface (212; 212a) of the mounting groove (210; 210a) in a condition with a temperature of 100°C characterised in the perimeter (L1(MAX)) of the outer circumferential surface of the gasket (100; 100a) is designed to be between 98% and 99% of the perimeter (L2(MAX)) of the radially outer side wall surface (212; 212a) of the mounting groove (210;210a) in the condition with the temperature of 100°C. two members (200, 300; 200a, 300a) fixed to each other; and a gasket (100; 100a) that is mounted in an annular mounting groove (210; 210a) provided to one of the two members (200; 200a) and makes tight contact with a groove bottom surface of the mounting groove (210; 210a) and an end face of the other one of the two members (300; 300a), to seal a gap between the two members, wherein a perimeter (L1(MAX)) of an outer circumferential surface of the gasket (100; 100a) is designed to be not greater than a perimeter (L2(MAX)) of a radially outer side wall surface (212; 212a) of the mounting groove (210; 210a) in a condition with a temperature of 100°C characterised in the perimeter (L1(MAX)) of the outer circumferential surface of the gasket (100; 100a) is designed to be between 98% and 99% of the perimeter (L2(MAX)) of the radially outer side wall surface (212; 212a) of the mounting groove (210;210a) in the condition with the temperature of 100°C.
Process for producing pulverulent solids (S) comprising alkali metal organosiliconates, wherein aqueous solutions of the alkali metal organosiliconates are prepared by reaction of one or more organosilanes of the general formula 1 (R 1 ) a Si(Y) b (-Si(R 2 ) 3-c (Y) c ) d or hydrolysis/condensation products thereof, or by reaction of the organosilanes of the general formula 1 together with hydrolysis/condensation products thereof, with water and a basic alkali metal salt and removal of the dissociation products HY liberated, where R 1, R 2 are each a methyl radical, Y is hydrogen, F, Cl, Br or O R 4 and R 4 is a methyl, ethyl, 1-propyl or 2-propyl group, a is 1, 2 or 3 and b, c, d are each 0, 1, 2 or 3, with the proviso that b+c ≥ 1 and a+b+d = 4, where the amount of basic alkali metal salt is such that there is at least 0.1 mol and not more than 3 mol of alkali metal cations per 1 mol of silicon, wherein the water is removed from the aqueous solutions of alkali metal organosiliconates having a molar ratio of alkali metal to silicon of from 0.1 to 3, a content of alcohols of less than 0.02% by weight and a content of halide anions of not more than 1% by weight by spray drying. or hydrolysis/condensation products thereof, or by reaction of the organosilanes of the general formula 1 together with hydrolysis/condensation products thereof, with water and a basic alkali metal salt and removal of the dissociation products HY liberated, where R 1, R 2 are each a methyl radical, Y is hydrogen, F, Cl, Br or O R 4 and R 4 is a methyl, ethyl, 1-propyl or 2-propyl group, a is 1, 2 or 3 and b, c, d are each 0, 1, 2 or 3, R 1, R 2 are each a methyl radical, Y is hydrogen, F, Cl, Br or O R 4 and R 4 is a methyl, ethyl, 1-propyl or 2-propyl group, a is 1, 2 or 3 and b, c, d are each 0, 1, 2 or 3, with the proviso that b+c ≥ 1 and a+b+d = 4, where the amount of basic alkali metal salt is such that there is at least 0.1 mol and not more than 3 mol of alkali metal cations per 1 mol of silicon, wherein the water is removed from the aqueous solutions of alkali metal organosiliconates having a molar ratio of alkali metal to silicon of from 0.1 to 3, a content of alcohols of less than 0.02% by weight and a content of halide anions of not more than 1% by weight by spray drying.
A surgical tool, comprising: a drive housing having an input shaft (1010a-d) and a drive cable capstan (1012a-d) arranged within the drive housing, the input shaft including a drive gear and the drive cable capstan including a driven gear intermeshed with the drive gear such that rotation of the input shaft rotates the drive cable capstan; an elongate shaft that extends from the drive housing; an end effector operatively coupled to a distal end of the elongate shaft; a drive cable (808a-d) coupled to the drive cable capstan and extending to the end effector; and a spring assembly (1106a-d) including a winder drum and a constant force spring extending between the winder drum and the input shaft, wherein the constant force spring provides a constant torque force that resists rotation of the input shaft and thereby prevents the drive cable from slackening. a drive housing having an input shaft (1010a-d) and a drive cable capstan (1012a-d) arranged within the drive housing, the input shaft including a drive gear and the drive cable capstan including a driven gear intermeshed with the drive gear such that rotation of the input shaft rotates the drive cable capstan; an elongate shaft that extends from the drive housing; an end effector operatively coupled to a distal end of the elongate shaft; a drive cable (808a-d) coupled to the drive cable capstan and extending to the end effector; and a spring assembly (1106a-d) including a winder drum and a constant force spring extending between the winder drum and the input shaft, wherein the constant force spring provides a constant torque force that resists rotation of the input shaft and thereby prevents the drive cable from slackening.
A control unit for controlling a moveable crowd gate of a holding area at an entrance of a milking parlour at a farm , wherein the control unit is configured to: obtain information from at least one sensor regarding animals present in the holding area , wherein the obtained information relates to head movements of a number of animals, among the animals in the holding area or wherein the obtained information relates to an estimated heart rate of animals within the holding area ; determine a stress level among the animals in the holding area , based on the obtained information; and control movement of the crowd gate , via an actuator configured to adjust position of the moveable crowd gate , based on the determined stress level . obtain information from at least one sensor regarding animals present in the holding area , wherein the obtained information relates to head movements of a number of animals, among the animals in the holding area or wherein the obtained information relates to an estimated heart rate of animals within the holding area ; determine a stress level among the animals in the holding area , based on the obtained information; and control movement of the crowd gate , via an actuator configured to adjust position of the moveable crowd gate , based on the determined stress level .
Method for producing electrode foils for capacitors , comprising the method steps of: A) providing a metal foil , B) transferring microstructures located on a stamping die to a main surface of the metal foil by a reforming process, with a method step C) following the method step B) of producing a metal oxide layer on the metal foil, wherein - the electrode foils are not perforated, - in method step B) the microstructures are produced with trenches with an aspect ratio of at least 4:1 and - in method step B) the trenches with a depth of at least 20 μm and a width of at most 5 μm are produced. A) providing a metal foil , B) transferring microstructures located on a stamping die to a main surface of the metal foil by a reforming process, with a method step C) following the method step B) of producing a metal oxide layer on the metal foil, wherein - the electrode foils are not perforated, - in method step B) the microstructures are produced with trenches with an aspect ratio of at least 4:1 and - in method step B) the trenches with a depth of at least 20 μm and a width of at most 5 μm are produced. - the electrode foils are not perforated, - in method step B) the microstructures are produced with trenches with an aspect ratio of at least 4:1 and - in method step B) the trenches with a depth of at least 20 μm and a width of at most 5 μm are produced.
Lubricating nozzle comprising: - a metal spray nozzle body comprising a first end , said first end having a contact surface , the spray nozzle body comprising an axial channel opening out onto the contact surface , and thus forming an oil inlet , the spray nozzle body further comprising a lateral channel communicating with the axial channel, the spray nozzle body further comprising a second end connected to the first end via a lateral surface , the lateral channel opening out onto the lateral surface to form an oil outlet ; - a retaining screw , opening out onto the contact surface of the spray nozzle body , intended to imperviously clamp the contact surface of the spray nozzle body against the block of an engine, and imperviously connect the oil inlet of the spray nozzle body to an oil supply of said casing; - an orienting plate comprising a hole into which the spray nozzle is inserted; the nozzle being characterised in that the spray nozzle body is mounted inside the hole , such that it abuts against a first face of the orienting plate via abutment means , and such that the contact surface of said body is flush with a second face of the orienting plate opposite the first face , the spray nozzle body and the orienting plate comprising first complementary orienting means which engage such that the oil outlet is oriented, according to a predetermined orientation relative to said first orienting means, the orienting plate further comprising second orienting means designed to orient said plate on the engine block. - a metal spray nozzle body comprising a first end , said first end having a contact surface , the spray nozzle body comprising an axial channel opening out onto the contact surface , and thus forming an oil inlet , the spray nozzle body further comprising a lateral channel communicating with the axial channel, the spray nozzle body further comprising a second end connected to the first end via a lateral surface , the lateral channel opening out onto the lateral surface to form an oil outlet ; - a retaining screw , opening out onto the contact surface of the spray nozzle body , intended to imperviously clamp the contact surface of the spray nozzle body against the block of an engine, and imperviously connect the oil inlet of the spray nozzle body to an oil supply of said casing; - an orienting plate comprising a hole into which the spray nozzle is inserted; the nozzle being characterised in that the spray nozzle body is mounted inside the hole , such that it abuts against a first face of the orienting plate via abutment means , and such that the contact surface of said body is flush with a second face of the orienting plate opposite the first face , the spray nozzle body and the orienting plate comprising first complementary orienting means which engage such that the oil outlet is oriented, according to a predetermined orientation relative to said first orienting means, the orienting plate further comprising second orienting means designed to orient said plate on the engine block.