mhurhangee/patent-ind-claim-en huggingface dataset:
A precleaner arrangement for separating a portion of entrained material from air flow air entering an engine air cleaner; the precleaner arrangement comprising: (a) a precleaner housing ; and (b) a plurality of air deflection vanes , each having a fixed portion secured to the precleaner housing and a deflectable portion ; the fixed portion of the first air deflection vane defines an upper terminal edge ; (i) the deflectable portion including a curved section extending from the fixed portion and a tail section extending from the curved section ; (ii) the deflectable portion including an inner side edge and an outer side edge ; (iii) the curved section has a center of curvature along the inner side edge and a center of curvature along the outer side edge ; wherein the air deflection vanes are arranged to induce a vortical air flow; and wherein the center of curvature along the inner side edge is spaced from the upper terminal edge a greater axial distance than the center of curvature along the outer side edge is spaced from the upper terminal edge . (a) a precleaner housing ; and (b) a plurality of air deflection vanes , each having a fixed portion secured to the precleaner housing and a deflectable portion ; the fixed portion of the first air deflection vane defines an upper terminal edge ; (i) the deflectable portion including a curved section extending from the fixed portion and a tail section extending from the curved section ; (ii) the deflectable portion including an inner side edge and an outer side edge ; (iii) the curved section has a center of curvature along the inner side edge and a center of curvature along the outer side edge ; (i) the deflectable portion including a curved section extending from the fixed portion and a tail section extending from the curved section ; (ii) the deflectable portion including an inner side edge and an outer side edge ; (iii) the curved section has a center of curvature along the inner side edge and a center of curvature along the outer side edge ;
A method of chemically modifying a polyolefin formulation in such a way as to modify melt viscosity thereof without completely curing the polyolefin formulation, which comprises, prior to the chemical modification, from 60 to 99.45 weight percent (wt%) of (A) an ethylenic-based (co)polymer composition consisting essentially of an ethylenic-based (co)polymer or a combination of the ethylenic-based (co)polymer and a polypropylene polymer, with the proviso that the polypropylene polymer is from 0 to < 40 wt% of the polyolefin formulation; from 0.05 to less than 2.00 wt% of (B) an antioxidant; and from 0.15 to 1.00 weight percent (wt%) of (C) a first organic peroxide having a 1-hour half-life temperature of less than or equal to 155 degrees Celsius (° C.) and/or a 10-hour half-life temperature of less than or equal to 135° C., when measured according to the Half-Life Temperature Test Method; wherein all weight percents are based on total weight of the polyolefin formulation; the method comprising heating a melt of the polyolefin formulation, which has been kept at a temperature less than 160.0° C., to a temperature of greater than or equal to 160.0° C., thereby substantially decomposing the (C) first organic peroxide in the melt so as to chemically modify melt viscosity of the polyolefin formulation to give a first intermediate composition having a melt viscosity that is greater than the melt viscosity of the polyolefin formulation, all without completely curing the polyolefin formulation or the first intermediate composition; wherein the melt of the polyolefin formulation comprises a melt of the (A) ethylenic-based (co)polymer composition in contact with the (B) antioxidant and the (C) first organic peroxide, with the proviso that the polyolefin formulation prior to and during the heating step is free of (D) a second organic peroxide, which may be the same as or different than the (C) first organic peroxide.
An optical fiber cable connector comprising a ferrule subassembly in which a ferrule is mounted into a lead end of a receptacle, and a plug housing into which the ferrule subassembly is loaded, further comprising: a flange extension member mounted to the tail end of the receptacle; and an extender having an internal opening closely fitting around the flange extension member ; wherein the ferrule subassembly , extender , and plug housing have a common longitudinal axis, wherein the ferrule subassembly and extender are continuously rotatable within the plug housing , wherein the rotation of the ferrule subassembly and extender within the plug housing is controlled by rotation of an exposed rear end of the extender , and wherein the flange extension member and the extender internal opening have a polygonal perimeter or a D-shaped perimeter. a flange extension member mounted to the tail end of the receptacle; and an extender having an internal opening closely fitting around the flange extension member ; wherein the ferrule subassembly , extender , and plug housing have a common longitudinal axis, wherein the ferrule subassembly and extender are continuously rotatable within the plug housing , wherein the rotation of the ferrule subassembly and extender within the plug housing is controlled by rotation of an exposed rear end of the extender , and wherein the flange extension member and the extender internal opening have a polygonal perimeter or a D-shaped perimeter.
Nasal composition comprising: - a saline base comprising sodium chloride; - an active agent comprising copper, a mixture of copper and manganese, manganese, a combination of manganese and a calcium salt, or sulfur; - a mixture of a first hyaluronic acid with a second hyaluronic acid; wherein the first hyaluronic acid has a molecular weight of at most 50 000 daltons; and wherein the second hyaluronic acid has a molecular weight of at least 100 000 daltons and at most 500 000 daltons. - a saline base comprising sodium chloride; - an active agent comprising copper, a mixture of copper and manganese, manganese, a combination of manganese and a calcium salt, or sulfur; - a mixture of a first hyaluronic acid with a second hyaluronic acid; wherein the first hyaluronic acid has a molecular weight of at most 50 000 daltons; and wherein the second hyaluronic acid has a molecular weight of at least 100 000 daltons and at most 500 000 daltons.
An optical device comprising: a first posterior component comprising a gas-permeable optical material and an anterior surface ; a posterior support component comprising a gas-impermeable material; an anterior component comprising a posterior surface ; an anterior skirt comprising a gas-permeable optical material; and a primary space between the posterior surface of the anterior component and the anterior surface of the first posterior component , wherein the primary space is configured to permit diffusion of a gas from a perimeter of the primary space through the primary space and across the anterior surface of the first posterior component ; wherein the anterior skirt is configured to permit diffusion of a gas between an optical device anterior peripheral surface and the perimeter of the primary space , to the primary space and then through the first posterior component . a first posterior component comprising a gas-permeable optical material and an anterior surface ; a posterior support component comprising a gas-impermeable material; an anterior component comprising a posterior surface ; an anterior skirt comprising a gas-permeable optical material; and a primary space between the posterior surface of the anterior component and the anterior surface of the first posterior component , wherein the primary space is configured to permit diffusion of a gas from a perimeter of the primary space through the primary space and across the anterior surface of the first posterior component ; wherein the anterior skirt is configured to permit diffusion of a gas between an optical device anterior peripheral surface and the perimeter of the primary space , to the primary space and then through the first posterior component .
A rotor comprising: a rotor core that is formed by stacking a plurality of steel plates each of which has an opening; a magnet that is inserted in a magnet hole formed by disposing the openings such that the openings overlap each other; and a magnetic plate that is disposed between an inner wall defining the magnet hole and the magnet so as to prevent contact between the inner wall defining the magnet hole and the magnet , wherein: at least a contact portion of the magnetic plate is coated with an insulating film, the contact portion of the magnetic plate contacting the magnet , each of the magnet and the magnet hole has a rectangular parallelepiped shape, and characterized in that the magnetic plate that is disposed on a surface of the magnet extends outward from a width of the magnet . a rotor core that is formed by stacking a plurality of steel plates each of which has an opening; a magnet that is inserted in a magnet hole formed by disposing the openings such that the openings overlap each other; and a magnetic plate that is disposed between an inner wall defining the magnet hole and the magnet so as to prevent contact between the inner wall defining the magnet hole and the magnet , wherein: at least a contact portion of the magnetic plate is coated with an insulating film, the contact portion of the magnetic plate contacting the magnet , each of the magnet and the magnet hole has a rectangular parallelepiped shape, and characterized in that the magnetic plate that is disposed on a surface of the magnet extends outward from a width of the magnet . at least a contact portion of the magnetic plate is coated with an insulating film, the contact portion of the magnetic plate contacting the magnet , each of the magnet and the magnet hole has a rectangular parallelepiped shape, and characterized in that the magnetic plate that is disposed on a surface of the magnet extends outward from a width of the magnet .
An avionics system for an aircraft, the avionics system comprising: a storage device for storing instructions for monitoring an actual performance of the aircraft; and one or more data processors configured to execute the instructions to: generate a lateral position offset based on a lateral component of a measured moving air mass relative to the aircraft; generate a longitudinal position offset based on a longitudinal component of the measured moving air mass relative to the aircraft; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along a potential aircraft trajectory using a prediction model and repeatedly using the lateral position offset and the longitudinal position offset to offset the wind independent positions along the potential aircraft trajectory. a storage device for storing instructions for monitoring an actual performance of the aircraft; and one or more data processors configured to execute the instructions to: generate a lateral position offset based on a lateral component of a measured moving air mass relative to the aircraft; generate a longitudinal position offset based on a longitudinal component of the measured moving air mass relative to the aircraft; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along a potential aircraft trajectory using a prediction model and repeatedly using the lateral position offset and the longitudinal position offset to offset the wind independent positions along the potential aircraft trajectory. generate a lateral position offset based on a lateral component of a measured moving air mass relative to the aircraft; generate a longitudinal position offset based on a longitudinal component of the measured moving air mass relative to the aircraft; and generate a plurality of wind corrected positions of the aircraft by repeatedly generating wind independent positions along a potential aircraft trajectory using a prediction model and repeatedly using the lateral position offset and the longitudinal position offset to offset the wind independent positions along the potential aircraft trajectory.
A fuel composition comprising: a hydrocarbon fuel boiling in the gasoline or diesel range; and a primary additive having a structure given by or a salt thereof; wherein A is a ring moiety; wherein R 1 and R 2 are independently H, C 1 -C 20 hydrocarbyl group, carboxyl group, ether, or hydroxyl group; wherein R 3 and R 4 are independently H, C 1 -C 20 hydrocarbyl group, carboxyl group, ether, amino, or hydroxyl group or wherein R 3 and R 4 are part of a cyclic group; R 5 is C 1 -C 100 hydrocarbyl group, carboxyl group, ether, or hydroxyl group; and wherein p is 0 to 2, n is 1 to 3, m is 1 to 3, and p+n+m is less than 5. a hydrocarbon fuel boiling in the gasoline or diesel range; and a primary additive having a structure given by or a salt thereof; wherein A is a ring moiety; wherein R 1 and R 2 are independently H, C 1 -C 20 hydrocarbyl group, carboxyl group, ether, or hydroxyl group; wherein R 3 and R 4 are independently H, C 1 -C 20 hydrocarbyl group, carboxyl group, ether, amino, or hydroxyl group or wherein R 3 and R 4 are part of a cyclic group; R 5 is C 1 -C 100 hydrocarbyl group, carboxyl group, ether, or hydroxyl group; and wherein p is 0 to 2, n is 1 to 3, m is 1 to 3, and p+n+m is less than 5.
A composition for use in enhancing, boosting, restoring and/or preventing the decline of cognitive functions in a subject in need thereof, said composition comprising: - from 400 mg to 600 mg of glutathione; - from 500 mg to 700 mg of docosahexaenoic acid; - from 300 mg to 500 mg of curcumin; - from 125 mg to 175 mg of resveratrol; and - from 300 mg to 500 mg of phosphatidylcholine. - from 400 mg to 600 mg of glutathione; - from 500 mg to 700 mg of docosahexaenoic acid; - from 300 mg to 500 mg of curcumin; - from 125 mg to 175 mg of resveratrol; and - from 300 mg to 500 mg of phosphatidylcholine.
A honeycomb filter for collecting fine particles, the honeycomb filter comprising: the honeycomb filter is partitioned by a wall portion and includes a plurality of cells that extend from a first end, which is located at one end side of the honeycomb filter, to a second end, which is located at the other end side of the honeycomb filter, and the cells include a first cell that has an open end located at the first end and a sealed end located at the second end, a second cell that is adjacent to the first cell and has a sealed end located at the first end and an open end located at the second end, the wall portion is formed from a base material containing ceria-zirconia composite oxide and an inorganic binder, wherein the wall portion has a gas permeability coefficient of 1.0 μm 2 or greater and 3.0 μm 2 or less, and wherein the wall portion includes linear pores that extend through the wall portion and have a diameter of 1 μm or greater and 200 μm or less. the honeycomb filter is partitioned by a wall portion and includes a plurality of cells that extend from a first end, which is located at one end side of the honeycomb filter, to a second end, which is located at the other end side of the honeycomb filter, and the cells include a first cell that has an open end located at the first end and a sealed end located at the second end, a second cell that is adjacent to the first cell and has a sealed end located at the first end and an open end located at the second end, the wall portion is formed from a base material containing ceria-zirconia composite oxide and an inorganic binder, wherein the wall portion has a gas permeability coefficient of 1.0 μm 2 or greater and 3.0 μm 2 or less, and wherein the wall portion includes linear pores that extend through the wall portion and have a diameter of 1 μm or greater and 200 μm or less.
A method for enhancing performance of a clutch that engages with a prime mover to provide power to a transport climate control system that includes a compressor and a controller , the method comprising: burnishing the clutch prior to utilization thereof by the transport climate control system , the burnishing comprising: establishing engagement cycling parameters for the clutch ; automatically cycling the clutch through a repetition of engagement and disengagement in accordance with the established engagement cycling parameters; and terminating the cycling upon achievement of at least one predetermined criterion. establishing engagement cycling parameters for the clutch ; automatically cycling the clutch through a repetition of engagement and disengagement in accordance with the established engagement cycling parameters; and terminating the cycling upon achievement of at least one predetermined criterion.
Method for producing an optoelectronic component , which component has a light passage surface and a deflecting mirror that is made of an optically transparent material and has a mirrored rear surface, the deflecting mirror deflecting the passing light radiation by a predetermined angle, the optoelectronic component being located on a wafer , and the deflecting mirror being made of a material suitable for moulding and curing, the material suitable for moulding and curing being applied directly to a light passage surface of the optoelectronic component and being shaped thereon in a region corresponding to the desired deflecting mirror, after which the shaped material is cured in the region of the deflecting mirror, characterised in that the shaped material in the region of the deflecting mirror is mirrored with a metal coating by means of vapour deposition from a vapour deposition direction that is oriented obliquely with respect to the shaped rear surface of said deflecting mirror.
A packaging comprising or being made from heat-sealable paperboard, the heat-sealable paperboard comprising: - a paperboard substrate comprising a first side and a second side, - a first dispersion coating layer on the first side of the paperboard substrate , wherein the first dispersion coating layer has a grammage in a range from ≥ 5 g/m 2 to ≤ 10 g/m 2 , - a second dispersion coating layer on the first dispersion coating layer , wherein the second dispersion coating layer has a grammage in a range from ≥ 5 g/m 2 to ≤ 10 g/m 2 , and - a third dispersion coating layer on the second side of the paperboard substrate , wherein the first dispersion coating layer comprises a latex and pigment, the second dispersion coating layer comprises a polyolefin in an amount in a range from ≥ 90 wt% to ≤ 100 wt%, based on the dry solid content of the layer, and the third dispersion coating layer comprises polyolefin in an amount in a range from ≥ 90 wt% to ≤ 100 wt%, based on the dry solid content of the layer, wherein the coated first side of the paperboard substrate forms an inside of the packaging and the coated second side of the paperboard substrate forms a print side of the packaging, and wherein the reject level determined according to PTS test method RH021/97 received from the repulping of the paperboard is less than 12 wt%, based on a dry weight of the paperboard of 100 wt%. - a paperboard substrate comprising a first side and a second side, - a first dispersion coating layer on the first side of the paperboard substrate , wherein the first dispersion coating layer has a grammage in a range from ≥ 5 g/m 2 to ≤ 10 g/m 2 , - a second dispersion coating layer on the first dispersion coating layer , wherein the second dispersion coating layer has a grammage in a range from ≥ 5 g/m 2 to ≤ 10 g/m 2 , and - a third dispersion coating layer on the second side of the paperboard substrate , wherein the first dispersion coating layer comprises a latex and pigment, the second dispersion coating layer comprises a polyolefin in an amount in a range from ≥ 90 wt% to ≤ 100 wt%, based on the dry solid content of the layer, and the third dispersion coating layer comprises polyolefin in an amount in a range from ≥ 90 wt% to ≤ 100 wt%, based on the dry solid content of the layer, wherein the coated first side of the paperboard substrate forms an inside of the packaging and the coated second side of the paperboard substrate forms a print side of the packaging, and wherein the reject level determined according to PTS test method RH021/97 received from the repulping of the paperboard is less than 12 wt%, based on a dry weight of the paperboard of 100 wt%.
A method for processing a plurality of electronic items, each item of the electronic items being a document file, an image file, an audio file, a video file, or an email, the method comprising: for each item of the electronic items, each item being associated with an item identifier, segmenting, on a processing device comprising a processor and memory, each item into a plurality of segments, each of the segments being a logical subunit of the item, and for each segment of the plurality of segments: hashing the segment to produce a segment hash value; determining whether the segment hash value exists in a first table; in response to determining that the segment hash value does not exist in the first table, creating a new entry for the segment in the first table, wherein the entry associates the segment hash value with the segment; and adding an entry to a second table, the entry comprising the item identifier, metadata related to the segment in the item, and the segment hash value; and outputting, from the processing device, the first table and the second table. hashing the segment to produce a segment hash value; determining whether the segment hash value exists in a first table; in response to determining that the segment hash value does not exist in the first table, creating a new entry for the segment in the first table, wherein the entry associates the segment hash value with the segment; and adding an entry to a second table, the entry comprising the item identifier, metadata related to the segment in the item, and the segment hash value; and outputting, from the processing device, the first table and the second table.
Method for cleaning gases containing VOCs, characterized in that - the gas containing VOCs is led through an inlet pipe to an inlet zone, from which the gas is transferred to a first catalyser zone, in which most of the VOCs are oxidated, and the gas thus obtained is led to a second catalyser zone, where the rest of the VOCs are oxidated, - after which the gas is led to an exhaust zone, from which the gas is removed with the aid of an exhaust pipe, wherein - each catalyser zone is located in its own chamber and the inlet zone and correspondingly the exhaust zone are located in an intermediate space, which separates the catalyser zones from each other, - the heat released in connection with the oxidated of the VOCs is recovered using heat exchangers arranged in at least the second catalyser zone, and - the flow of the gas from the inlet zone to the first catalyser zone is controlled using a direction control valve. - the gas containing VOCs is led through an inlet pipe to an inlet zone, from which the gas is transferred to a first catalyser zone, in which most of the VOCs are oxidated, and the gas thus obtained is led to a second catalyser zone, where the rest of the VOCs are oxidated, - after which the gas is led to an exhaust zone, from which the gas is removed with the aid of an exhaust pipe, - each catalyser zone is located in its own chamber and the inlet zone and correspondingly the exhaust zone are located in an intermediate space, which separates the catalyser zones from each other, - the heat released in connection with the oxidated of the VOCs is recovered using heat exchangers arranged in at least the second catalyser zone, and - the flow of the gas from the inlet zone to the first catalyser zone is controlled using a direction control valve.