mhurhangee/ep-ind-claims huggingface dataset:
A method for producing an ethylene-based copolymer, comprising a producing mode, wherein the producing mode includes: a) hyper-compressing primarily compressed ethylene, a mixture containing a carboxylic acid-containing comonomer and a polar solvent to produce a compressed material; b) reacting the compressed material to produce a reaction product including an ethylene-based copolymer; and c) separating and recovering unreacted residues from the reaction product and introducing the unreacted residue into the mixture of the step a), characterized in that the method further comprises a washing mode, wherein one of the producing mode and the washing mode is selectively performed, wherein the washing mode includes: re-supplying the compressed material produced in the step a) to the step a) as a mixture, without performing the step b). wherein the producing mode includes: a) hyper-compressing primarily compressed ethylene, a mixture containing a carboxylic acid-containing comonomer and a polar solvent to produce a compressed material; b) reacting the compressed material to produce a reaction product including an ethylene-based copolymer; and c) separating and recovering unreacted residues from the reaction product and introducing the unreacted residue into the mixture of the step a), characterized in that a) hyper-compressing primarily compressed ethylene, a mixture containing a carboxylic acid-containing comonomer and a polar solvent to produce a compressed material; b) reacting the compressed material to produce a reaction product including an ethylene-based copolymer; and c) separating and recovering unreacted residues from the reaction product and introducing the unreacted residue into the mixture of the step a), characterized in that the method further comprises a washing mode, wherein one of the producing mode and the washing mode is selectively performed, wherein the washing mode includes: re-supplying the compressed material produced in the step a) to the step a) as a mixture, without performing the step b).
A method of manufacturing an intraocular lens, IOL comprising an optic having an anterior surface and a posterior surface configured to be implanted in a patient's eye, wherein for each lens power in a range of lens powers from 6 to 35 diopters, the method comprising: selecting a curvature of the anterior surface, the anterior surface having an anterior surface radius of curvature (R 1) and an anterior surface power (P 1), the anterior surface power defined as: P 1 = n 2 − n 1 R 1; selecting a curvature of the posterior surface, the posterior surface having a posterior surface radius of curvature (R 2) and a posterior surface power (P 2), the posterior surface power defined as: P 2 = n 1 − n 2 R 2; wherein: n 1 is a refractive index of aqueous humor of a patient's eye; n 2 is a refractive index of the optic; and selecting a shape factor, wherein the shape factor is defined as: X = R 2 − R 1 R 2 + R 1; wherein the shape factor is greater than zero and corresponds to a curve defining shape factor as a function of lens power, the curve monotonically decreasing with increased lens power, wherein the curve is defined by the following cubic equation: X = X 0 + X 1 P + X 2 P 2 + X 3 P 3; wherein X 0, X 1, X 2, and X 3 are constants having values that are real numbers. selecting a curvature of the anterior surface, the anterior surface having an anterior surface radius of curvature (R 1) and an anterior surface power (P 1), the anterior surface power defined as: P 1 = n 2 − n 1 R 1; selecting a curvature of the posterior surface, the posterior surface having a posterior surface radius of curvature (R 2) and a posterior surface power (P 2), the posterior surface power defined as: P 2 = n 1 − n 2 R 2; wherein: n 1 is a refractive index of aqueous humor of a patient's eye; n 2 is a refractive index of the optic; and n 1 is a refractive index of aqueous humor of a patient's eye; n 2 is a refractive index of the optic; and selecting a shape factor, wherein the shape factor is defined as: X = R 2 − R 1 R 2 + R 1;
A process comprising contacting CO, H 2, and at least one olefin in the presence of a hydroformylation catalyst in a reaction fluid in at least one reactor under hydroformylation conditions sufficient to form at least one aldehyde product, removing a stream of the reaction fluid from the at least one reactor and passing the stream to a heat exchanger, removing a quantity of heat from the stream to form a cooled stream, and returning the cooled stream to the reactor, wherein the flow rate of at least a portion of at least one of the stream and/or the cooled stream is controlled in order to control the temperature in the reactor; wherein the steady state reaction temperature is controlled within +/- 1°C of the set point.
Lightweight molding with a density between 0.1 g/cm 3 and 2.5 g/cm 3 and with a thermal conductivity measured according to EN ISO 2007-2: 2015 of at least 0.5 W/mK, characterized in that the lightweight molding is made from a dry mixture comprising graphite particles and a binder for setting the dry mixture by means of water, alkali and/or aqueous salt solution, wherein the proportion by mass of the graphite particles in the dry mixture is more than 0.05, wherein the binder comprises magnesia binder, cement, caustic-calcined magnesite, lime and/or clay powder.
Valve gun for a high-pressure cleaning appliance, comprising a housing (12; 122) and a valve (20; 132) which is arranged in the housing (12; 122) and has a closing body which in a closed position lies tight against a valve seat and is adapted to be acted upon by a valve plunger with an opening force for moving the closing body into an open position at a distance from the valve seat, and comprising a triggering lever (34; 154) mounted so as to be pivotable about a first pivot axis (36; 156), the triggering lever (34; 154) being mechanically coupled to the valve plunger and manually pivotable from a rest position in which the closing body assumes its closed position to a release position in which the closing body assumes its open position, wherein the triggering lever (34; 154) is coupled to the valve plunger via a coupling lever (32; 142) mounted so as to be pivotable about a second pivot axis (60; 158), the coupling lever (32; 142) having an actuating element (64; 144) via which the valve plunger is adapted to be acted upon with the opening force, and the coupling lever (32; 142) having a first and a second force receiving element, the first force receiving element being adapted to be acted upon first and the second force receiving element subsequently with a triggering force when the triggering lever (34; 154) is pivoted from the rest position to the release position, the first force receiving element being at a greater distance from the second pivot axis (60; 158) than the second force receiving element, wherein the triggering lever (34; 154) has a first and a second force application element, the first force receiving element being positionable on the first force application element, and the second force receiving element being positionable on the second force application element, wherein the first force receiving element and the first force application element form a first guide surface (54; 162) and a first contact element (82; 146) contacting the first guide surface (54; 162) and movable along the first guide surface (54; 162), and wherein the second force receiving element and the second force application element form a second guide surface (56; 164) and a second contact element (86; 150) contacting the second guide surface (56; 164) and movable along the second guide surface (56; 164), characterized in that the first contact element (82; 146) and/or the second contact element (86; 150) are configured as freely rotatable contact rollers (84, 88; 148, 152).
A computer-implemented method for acquiring a plurality of images of breast tissue during a scan of the breast tissue by an image acquisition device, the method comprising: a computer-controlled image acquisition device acquiring a first image of the breast tissue, the first image comprising a 2D projection image; the image acquisition device processing the first image to determine a physical characteristic of the breast tissue; the image acquisition device modifying at least one operating parameter that was previously utilized during acquisition of the first image based upon the physical characteristic, the at least one modified operating parameter comprising a motion parameter of the image acquisition device; and the image acquisition device acquiring a plurality of projection images of the breast tissue using the modified motion parameter, wherein the plurality of projection images comprises projection images being acquired as a series of images for tomosynthesis image acquisition, wherein each of the plurality of projection images of the breast is obtained as an x-ray source of the image acquisition device moves during a scan over an angular range. a computer-controlled image acquisition device acquiring a first image of the breast tissue, the first image comprising a 2D projection image; the image acquisition device processing the first image to determine a physical characteristic of the breast tissue; the image acquisition device modifying at least one operating parameter that was previously utilized during acquisition of the first image based upon the physical characteristic, the at least one modified operating parameter comprising a motion parameter of the image acquisition device; and the image acquisition device acquiring a plurality of projection images of the breast tissue using the modified motion parameter, wherein the plurality of projection images comprises projection images being acquired as a series of images for tomosynthesis image acquisition, wherein each of the plurality of projection images of the breast is obtained as an x-ray source of the image acquisition device moves during a scan over an angular range.
A normally OFF composite semiconductor device for use in a noisy system, said normally OFF composite semiconductor device including a turn-on prevention control, said normally OFF composite semiconductor device comprising: a normally ON III-nitride power transistor; and a low voltage, LV, group IV device cascoded with said normally ON III-nitride power transistor to form said normally OFF composite semiconductor device; said low voltage LV group IV device is configured to hold said normally ON III-nitride power transistor OFF when said normally OFF composite semiconductor device is OFF; wherein a gate of said normally ON III-nitride power transistor is coupled to a source and/or anode of said LV group IV device characterized in that said LV group IV device having a voltage rating of up to 50 volts and having a low-k dielectric with a thickness configured to provide said LV group IV device with a noise-resistant threshold voltage of greater than 1.8 V to provide said turn-on prevention control for said normally OFF composite semiconductor device by preventing noise current from flowing through a channel of said normally ON III-nitride power transistor in said noisy system. a normally ON III-nitride power transistor; and a low voltage, LV, group IV device cascoded with said normally ON III-nitride power transistor to form said normally OFF composite semiconductor device; said low voltage LV group IV device is configured to hold said normally ON III-nitride power transistor OFF when said normally OFF composite semiconductor device is OFF; wherein a gate of said normally ON III-nitride power transistor is coupled to a source and/or anode of said LV group IV device characterized in that said LV group IV device having a voltage rating of up to 50 volts and having a low-k dielectric with a thickness configured to provide said LV group IV device with a noise-resistant threshold voltage of greater than 1.8 V to provide said turn-on prevention control for said normally OFF composite semiconductor device by preventing noise current from flowing through a channel of said normally ON III-nitride power transistor in said noisy system.
A compound for a brancher represented by the following Chemical Formula 1: In Chemical Formula 1, R1 to R10 are the same as or different from each other, and each independently hydrogen or a halogen group; two of R1 to R5 are a halogen group; two of R6 to R10 are a halogen group; X 1 and X 2 are the same as or different from each other, and each independently NR, O, S or SO 2; R is hydrogen; deuterium; or a substituted or unsubstituted alkyl group; and n is an integer of 1 to 6, wherein; the term "substituted" means being substituted with one or more substituents selected from the group consisting of deuterium; a halogen group; an alkoxy group; an alkyl group; and a phenyl group. R1 to R10 are the same as or different from each other, and each independently hydrogen or a halogen group; two of R1 to R5 are a halogen group; two of R6 to R10 are a halogen group; X 1 and X 2 are the same as or different from each other, and each independently NR, O, S or SO 2; R is hydrogen; deuterium; or a substituted or unsubstituted alkyl group; and n is an integer of 1 to 6, wherein; the term "substituted" means being substituted with one or more substituents selected from the group consisting of deuterium; a halogen group; an alkoxy group; an alkyl group; and a phenyl group.
An apparatus for a head mounted display device, the apparatus comprising: an electronic component (103, 172) that generates heat during operation; a housing (24A, 24B) that includes a heat dissipation structure to dissipate heat generated by the electronic component (103, 172), the heat dissipation structure having a hollow channel (25A, 25B), the hollow channel (25A, 25B) having an interior surface from which heat is to be dissipated into air external to the apparatus, the interior surface of the hollow channel (25A, 25B) defining at least a portion of an exterior surface of the housing (24A, 24B) so as to define an air channel (25A, 25B) completely through the housing (24A, 24B), and a flexible thermal conduit having a first end coupled to the heat dissipation structure and a second end coupled to the electronic component (103, 172). an electronic component (103, 172) that generates heat during operation; a housing (24A, 24B) that includes a heat dissipation structure to dissipate heat generated by the electronic component (103, 172), the heat dissipation structure having a hollow channel (25A, 25B), the hollow channel (25A, 25B) having an interior surface from which heat is to be dissipated into air external to the apparatus, the interior surface of the hollow channel (25A, 25B) defining at least a portion of an exterior surface of the housing (24A, 24B) so as to define an air channel (25A, 25B) completely through the housing (24A, 24B), and a flexible thermal conduit having a first end coupled to the heat dissipation structure and a second end coupled to the electronic component (103, 172).
A saddle riding type vehicle comprising: a head tube; main frames connected to the head tube; a down frame connected to the head tube and disposed below the main frames; a fuel tank placed on the main frames; a fuel pump which is partly contained in the fuel tank, wherein the fuel pump is inserted into the fuel tank from the bottom thereof, a lower part of the fuel pump is exposed outside the fuel tank, an engine suspended from the main frames and including a cylinder extending upward and inclined forward; and a fuel injection device disposed rearward of the cylinder of the engine; subframes connecting the main frames and the down frame; a fuel filter which is arranged within a space between the fuel tank and a cylinder head of the engine using the space under the fuel tank for feeding fuel discharged from fuel pump forward to pass through the fuel filter and a pressure regulator, and again to pass through an area below the fuel pump; the fuel filter is arranged in front of the fuel pump; a fuel hose connecting the fuel pump and the fuel filter; a fuel hose connecting the fuel filter and the pressure regulator, a fuel hose connecting the pressure regulator and the fuel pump, and a fuel hose connecting the pressure regulator and fuel injection device, wherein the fuel filter is attached below the subframes, the fuel filter, as seen from a side, is disposed in an area surrounded by the head tube, the main frames and the down frame, and in a position not overlapping any one of the main frames, the down frame and the engine. a head tube; main frames connected to the head tube; a down frame connected to the head tube and disposed below the main frames; a fuel tank placed on the main frames; a fuel pump which is partly contained in the fuel tank, wherein the fuel pump is inserted into the fuel tank from the bottom thereof, a lower part of the fuel pump is exposed outside the fuel tank, an engine suspended from the main frames and including a cylinder extending upward and inclined forward; and a fuel injection device disposed rearward of the cylinder of the engine; subframes connecting the main frames and the down frame; a fuel filter which is arranged within a space between the fuel tank and a cylinder head of the engine using the space under the fuel tank for feeding fuel discharged from fuel pump forward to pass through the fuel filter and a pressure regulator, and again to pass through an area below the fuel pump; the fuel filter is arranged in front of the fuel pump; a fuel hose connecting the fuel pump and the fuel filter; a fuel hose connecting the fuel filter and the pressure regulator, a fuel hose connecting the pressure regulator and the fuel pump, and a fuel hose connecting the pressure regulator and fuel injection device, wherein the fuel filter is attached below the subframes, the fuel filter, as seen from a side, is disposed in an area surrounded by the head tube, the main frames and the down frame, and in a position not overlapping any one of the main frames, the down frame and the engine.
An adhesive mounting article, comprising: a flexible adhesive tape structure including a flexible backing layer having a first major surface and a second major surface opposite to the first major surface, the flexible adhesive tape structure including a peelable adhesive disposed on the first major surface and a first separable connecting member disposed on the second major surface, the peelable adhesive being capable of adhering to a mounting surface and thereafter being manually removable from the mounting surface by peeling; and a rigid faceplate structure including a rigid faceplate having a first major surface and a second major surface opposite to the first major surface, and a second separable connecting member disposed on the second major surface of the rigid faceplate, the first and second separable connecting members (162, 164) being configured to engage with each other to form a separable connection to connect the flexible adhesive tape structure and the rigid faceplate structure, wherein the rigid faceplate structure further includes an apron (1 44') disposed around a periphery of the rigid faceplate to form a recess, and the apron is positioned such that when the rigid faceplate structure is connected, via the separable connection, to the flexible adhesive tape structure at least a portion of the apron is pressed against the mounting surface and in direct contact with the mounting surface, characterised in that the apron includes a compressible material. a flexible adhesive tape structure including a flexible backing layer having a first major surface and a second major surface opposite to the first major surface, the flexible adhesive tape structure including a peelable adhesive disposed on the first major surface and a first separable connecting member disposed on the second major surface, the peelable adhesive being capable of adhering to a mounting surface and thereafter being manually removable from the mounting surface by peeling; and a rigid faceplate structure including a rigid faceplate having a first major surface and a second major surface opposite to the first major surface, and a second separable connecting member disposed on the second major surface of the rigid faceplate, the first and second separable connecting members (162, 164) being configured to engage with each other to form a separable connection to connect the flexible adhesive tape structure and the rigid faceplate structure, wherein the rigid faceplate structure further includes an apron (1 44') disposed around a periphery of the rigid faceplate to form a recess, and the apron is positioned such that when the rigid faceplate structure is connected, via the separable connection, to the flexible adhesive tape structure at least a portion of the apron is pressed against the mounting surface and in direct contact with the mounting surface, characterised in that the apron includes a compressible material.
A method for decontaminating a contaminated gas, said method comprising the steps of i) providing a tube filter comprising a solid support defining a flow passage, said flow passage comprising a first opening and a second opening, or providing a biofilter system comprising a plurality of such tube filters, ii) contacting said tube filter or biofilter system with a contaminated gas diverted to said tube filter(s) through said first tube filter opening, iii) contacting said contaminated gas and a biomass adhered to a carrier material attached to the inner surface of the flow passage, with a liquid diverted to said tube filter(s) through said second tube filter opening, the carrier material exerting a capillary force on liquid passing through the flow passage, wherein said first and second tube filter openings are located at opposite ends of the solid support, wherein said liquid and said contaminated gas are flowing counter currently, wherein the inner surface of said flow passage is impermeable to liquid, wherein the contacting of the contaminated gas and the liquid brings the contaminants of the contaminated gas to contact the biomass, and iv) decontaminating said contaminated gas as a result of the contacting of the contaminated gas and the biomass. i) providing a tube filter comprising a solid support defining a flow passage, said flow passage comprising a first opening and a second opening, or providing a biofilter system comprising a plurality of such tube filters, ii) contacting said tube filter or biofilter system with a contaminated gas diverted to said tube filter(s) through said first tube filter opening, iii) contacting said contaminated gas and a biomass adhered to a carrier material attached to the inner surface of the flow passage, with a liquid diverted to said tube filter(s) through said second tube filter opening, the carrier material exerting a capillary force on liquid passing through the flow passage, wherein said first and second tube filter openings are located at opposite ends of the solid support, wherein said liquid and said contaminated gas are flowing counter currently, wherein the inner surface of said flow passage is impermeable to liquid, wherein the contacting of the contaminated gas and the liquid brings the contaminants of the contaminated gas to contact the biomass, and iv) decontaminating said contaminated gas as a result of the contacting of the contaminated gas and the biomass.