mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an ophthalmic lens having an anti-reflective stack, said anti-reflective stack being multilayered and comprising at least one layer having a refractive index higher than or equal to 1.55 and at least one layer having a refractive index lower than 1.55, the method comprising: (i) designing said anti-reflective stack which comprises: (a) identifying a range of luminance in the scotopic and/or mesopic vision regime; (b) calculating the average spectral luminous efficiency function V α,β (λ) of the range of luminance according to: V α, β λ = αV λ + βV ′ λ wherein α and β are comprised in the range of 0 to 1, and α = 1-β, and wherein α is selected according to the luminance conditions, β>0, V(λ) is in CIE 1931 and V'(λ) is in CIE 1951; (c) optimizing the anti-reflective stack based on the V α,β (λ) function; (ii) providing an optical article having two main faces; and (iii) forming the anti-reflective stack designed at the end of step (i) on at least one main face of the ophthalmic lens. (i) designing said anti-reflective stack which comprises: (a) identifying a range of luminance in the scotopic and/or mesopic vision regime; (b) calculating the average spectral luminous efficiency function V α,β (λ) of the range of luminance according to: V α, β λ = αV λ + βV ′ λ wherein α and β are comprised in the range of 0 to 1, and α = 1-β, and wherein α is selected according to the luminance conditions, β>0, V(λ) is in CIE 1931 and V'(λ) is in CIE 1951; (c) optimizing the anti-reflective stack based on the V α,β (λ) function; (a) identifying a range of luminance in the scotopic and/or mesopic vision regime; (b) calculating the average spectral luminous efficiency function V α,β (λ) of the range of luminance according to: V α, β λ = αV λ + βV ′ λ wherein α and β are comprised in the range of 0 to 1, and α = 1-β, and wherein α is selected according to the luminance conditions, β>0, V(λ) is in CIE 1931 and V'(λ) is in CIE 1951; (c) optimizing the anti-reflective stack based on the V α,β (λ) function; (ii) providing an optical article having two main faces; and (iii) forming the anti-reflective stack designed at the end of step (i) on at least one main face of the ophthalmic lens.
A sanitizing rinse additive composition comprising: from 1 wt-% to 40 wt-% of a C 1 -C 22 peroxycarboxylic acid; from 1 wt-% to 80 wt-% of a C 1 -C 22 carboxylic acid; from 1 wt-% to 80 wt-% of hydrogen peroxide; and from 1 wt-% to 50 wt-% of a nonionic defoaming and wetting surfactant(s), wherein the concentration of the defoaming surfactant(s) exceeds the concentration of the wetting surfactant(s); wherein the composition is a low odor concentrate having less than 2 wt-% peroxyacetic acid, and wherein the composition when diluted from 0.01% weight/volume to 2% weight/volume provides at least a 5 log reduction in pathogenic organisms at a temperature of at least 37.8 °C (100 F), wherein the nonionic defoaming surfactant is an alkyl-ethylene oxide-propylene oxide copolymer surfactant having a single hydroxyl functional group per molecule according to the following structure Alkyl- m - n -POH, wherein m is an integer in the range from 1 to 20 and n is an integer in the range from 1 to 20, and wherein the nonionic wetting surfactant is an alcohol ethoxylate according to the following structure R-O-(CH 2 CH 2 O) n -H, wherein R is a C 1 -C 12 alkyl group and n is an integer in the range of 1 to 100. from 1 wt-% to 40 wt-% of a C 1 -C 22 peroxycarboxylic acid; from 1 wt-% to 80 wt-% of a C 1 -C 22 carboxylic acid; from 1 wt-% to 80 wt-% of hydrogen peroxide; and from 1 wt-% to 50 wt-% of a nonionic defoaming and wetting surfactant(s), wherein the concentration of the defoaming surfactant(s) exceeds the concentration of the wetting surfactant(s); wherein the composition is a low odor concentrate having less than 2 wt-% peroxyacetic acid, and wherein the composition when diluted from 0.01% weight/volume to 2% weight/volume provides at least a 5 log reduction in pathogenic organisms at a temperature of at least 37.8 °C (100 F), wherein the nonionic defoaming surfactant is an alkyl-ethylene oxide-propylene oxide copolymer surfactant having a single hydroxyl functional group per molecule according to the following structure Alkyl- m - n -POH, wherein m is an integer in the range from 1 to 20 and n is an integer in the range from 1 to 20, and wherein the nonionic wetting surfactant is an alcohol ethoxylate according to the following structure R-O-(CH 2 CH 2 O) n -H, wherein R is a C 1 -C 12 alkyl group and n is an integer in the range of 1 to 100.
A scored tablet comprising Tapentadol or a physiologically acceptable salt thereof embedded in a prolonged release matrix material; wherein the prolonged release matrix material comprises a binder selected from microcrystalline cellulose; wherein the weight content of the binder is within the range of from 35 to 70 wt.-%, relative to the total weight of the scored tablet; wherein the prolonged release matrix material comprises a cellulose derivative selected from hydroxypropylmethylcellulose; wherein the weight content of the cellulose derivative is within the range of from 10 to 50 wt.-%, relative to the total weight of the scored tablet; wherein the scored tablet has been prepared by dry granulation; wherein the scored tablet provides prolonged release of Tapentadol or the physiologically acceptable salt thereof; wherein the scored tablet has a site of mechanical weakness along which it can be manually broken into two separate halves; and wherein the in vitro release profile of the scored tablet essentially corresponds to the in vitro release profile of each of the two separate halves. wherein the prolonged release matrix material comprises a binder selected from microcrystalline cellulose; wherein the weight content of the binder is within the range of from 35 to 70 wt.-%, relative to the total weight of the scored tablet; wherein the prolonged release matrix material comprises a cellulose derivative selected from hydroxypropylmethylcellulose; wherein the weight content of the cellulose derivative is within the range of from 10 to 50 wt.-%, relative to the total weight of the scored tablet; wherein the scored tablet has been prepared by dry granulation; wherein the scored tablet provides prolonged release of Tapentadol or the physiologically acceptable salt thereof; wherein the scored tablet has a site of mechanical weakness along which it can be manually broken into two separate halves; and wherein the in vitro release profile of the scored tablet essentially corresponds to the in vitro release profile of each of the two separate halves.
A method for assembling a gas turbine engine, said method comprising: coupling a combustor including a dome assembly and a combustor liner (110, 112) that extends downstream from the dome assembly to a combustor casing that is positioned radially outwardly from the combustor; coupling a fuel injector including a fuel inlet and an air inlet to the combustor casing such that the fuel injector extends axially through the dome assembly such that fuel may be discharged from the fuel injector into the combustor; and coupling the air inlet to an air source such that cooling air received therethrough is circulated through the fuel injector to facilitate cooling the fuel injector, wherein coupling the air inlet to an air source further comprises coupling the air inlet to an air source such that spent cooling air is discharged from the fuel injector external to the combustor casing. coupling a combustor including a dome assembly and a combustor liner (110, 112) that extends downstream from the dome assembly to a combustor casing that is positioned radially outwardly from the combustor; coupling a fuel injector including a fuel inlet and an air inlet to the combustor casing such that the fuel injector extends axially through the dome assembly such that fuel may be discharged from the fuel injector into the combustor; and coupling the air inlet to an air source such that cooling air received therethrough is circulated through the fuel injector to facilitate cooling the fuel injector, wherein coupling the air inlet to an air source further comprises coupling the air inlet to an air source such that spent cooling air is discharged from the fuel injector external to the combustor casing.
A vehicle body front section structure comprising: a suspension tower that houses a front suspension; an apron upper member that extends in a vehicle front-rear direction along a top wall portion of the suspension tower, and a pair of frames that are disposed at a vehicle front side and a vehicle rear side of the suspension tower, that extend from the apron upper member towards a vehicle lower side and vehicle width direction inner side, and that are integrally formed with a cast-formed suspension tower structural body together with the suspension tower and the apron upper member, characterised in that the front body section structure further comprises: a cross rib that is formed at the apron upper member and that extends along the apron upper member; and a pair of vertical ribs that are respectively formed at the pair of frames, that extend along each of the pair of frames, and that are connected to the cross rib. a suspension tower that houses a front suspension; an apron upper member that extends in a vehicle front-rear direction along a top wall portion of the suspension tower, and a pair of frames that are disposed at a vehicle front side and a vehicle rear side of the suspension tower, that extend from the apron upper member towards a vehicle lower side and vehicle width direction inner side, and that are integrally formed with a cast-formed suspension tower structural body together with the suspension tower and the apron upper member, characterised in that the front body section structure further comprises: a cross rib that is formed at the apron upper member and that extends along the apron upper member; and a pair of vertical ribs that are respectively formed at the pair of frames, that extend along each of the pair of frames, and that are connected to the cross rib. a cross rib that is formed at the apron upper member and that extends along the apron upper member; and a pair of vertical ribs that are respectively formed at the pair of frames, that extend along each of the pair of frames, and that are connected to the cross rib.
A ferroelectric memory (50, 70) comprising: a ferroelectric memory cell comprising a ferroelectric capacitor wherein a maximum remanent charge, Q max, can be stored in said ferroelectric capacitor; and a write circuit that receives a write data value selected from a set of more than two values for storage in said ferroelectric capacitor, characterised by said write circuit measuring Q max for said ferroelectric capacitor, determining a first charge that is a fraction of said measured Q max, said first charge being determined by said write data value, said write circuit causing said first charge to be stored in said ferroelectric capacitor. a ferroelectric memory cell comprising a ferroelectric capacitor wherein a maximum remanent charge, Q max, can be stored in said ferroelectric capacitor; and a write circuit that receives a write data value selected from a set of more than two values for storage in said ferroelectric capacitor, characterised by said write circuit measuring Q max for said ferroelectric capacitor, determining a first charge that is a fraction of said measured Q max, said first charge being determined by said write data value, said write circuit causing said first charge to be stored in said ferroelectric capacitor.
A polyester composition comprising: a) 3 to 40 weight percent, preferably 3 to 30 weight percent, of at least one polyester, preferably polybutylene terephthalate, polytrimethylene terephthalate, polyethylene terephthalate, poly(ethylene 2,6-naphthoate), and poly(1,4-cyclohexyldimethylene terephthalate).; b) 25 to 50 weight percent non-fibrous graphite, preferably a platy or particulate graphite; c) 10 to 40 weight percent inorganic filler selected from the group consisting of wollastonite, glass fibers, aramid fibers, ceramic fibers, potassium titanate whiskers, or combinations of them; d) 3 to 10 weight percent copolyether ester elastomer; wherein: the amount of a + b+ c + d is 100 weight percent of the composition; the amount of b + c is at least 50 weight percent of the composition the weight ratio of copolyether ester elastomer to polyester is from 0.3 to 0.4; and the composition has at least a 0.2 percent elongation as measured using ISO 527-1/2 at 23°C, a thermal conductivity of at least 3 WmK as measured in the in-plane direction using a laser flash method as described in ASTM E1461, and a tensile strength of at least 25 MPa as measured using ISO 527-1/2 at 23°C. a) 3 to 40 weight percent, preferably 3 to 30 weight percent, of at least one polyester, preferably polybutylene terephthalate, polytrimethylene terephthalate, polyethylene terephthalate, poly(ethylene 2,6-naphthoate), and poly(1,4-cyclohexyldimethylene terephthalate).; b) 25 to 50 weight percent non-fibrous graphite, preferably a platy or particulate graphite; c) 10 to 40 weight percent inorganic filler selected from the group consisting of wollastonite, glass fibers, aramid fibers, ceramic fibers, potassium titanate whiskers, or combinations of them; d) 3 to 10 weight percent copolyether ester elastomer; wherein: the amount of a + b+ c + d is 100 weight percent of the composition; the amount of b + c is at least 50 weight percent of the composition the weight ratio of copolyether ester elastomer to polyester is from 0.3 to 0.4; and the composition has at least a 0.2 percent elongation as measured using ISO 527-1/2 at 23°C, a thermal conductivity of at least 3 WmK as measured in the in-plane direction using a laser flash method as described in ASTM E1461, and a tensile strength of at least 25 MPa as measured using ISO 527-1/2 at 23°C. the amount of a + b+ c + d is 100 weight percent of the composition; the amount of b + c is at least 50 weight percent of the composition the weight ratio of copolyether ester elastomer to polyester is from 0.3 to 0.4; and the composition has at least a 0.2 percent elongation as measured using ISO 527-1/2 at 23°C, a thermal conductivity of at least 3 WmK as measured in the in-plane direction using a laser flash method as described in ASTM E1461, and a tensile strength of at least 25 MPa as measured using ISO 527-1/2 at 23°C.
A method of receiving target data, performed by a first device, the method comprising: receiving by the first device provided without a peer-to-peer, P2P, client function from a server information about data that can be received via at least one P2P network and information about at least one peer respectively connected to each of the at least one P2P network; selecting the target data based on the information received from the server about the data that can be received via the at least one P2P network; selecting, by the first device, a second device to receive the target data based on the information about the at least one peer; and receiving the target data without the P2P client function via the second device from the at least one peer connected to a first P2P network of the at least one P2P network which can receive the target data; wherein the information about the data and the information about the at least one peer is directly received from the server by the first device, and wherein the target data is indirectly received via the second device from the at least one peer by the first device. receiving by the first device provided without a peer-to-peer, P2P, client function from a server information about data that can be received via at least one P2P network and information about at least one peer respectively connected to each of the at least one P2P network; selecting the target data based on the information received from the server about the data that can be received via the at least one P2P network; selecting, by the first device, a second device to receive the target data based on the information about the at least one peer; and receiving the target data without the P2P client function via the second device from the at least one peer connected to a first P2P network of the at least one P2P network which can receive the target data; wherein the information about the data and the information about the at least one peer is directly received from the server by the first device, and wherein the target data is indirectly received via the second device from the at least one peer by the first device.
A method, suitable for use in a receiver circuitry, of decimating a digital signal, x( n), associated with a received signal, where n is an integer, the method comprising: determining a signal vector, y ( k), of size M by partitioning samples of the digital signal, x(n) according to sampling phases of the samples, wherein each element of the signal vector, y ( k), is a signal constructed with a same sampling phase; and projecting the signal vector, y ( k), onto an N -dimensional sub-space, wherein N is an integer and N < M characterized in: determining a covariance matrix R y, of the signal vector y ( k); determining N eigen vectors corresponding to N greatest eigen values of the covariance matrix, R y, wherein the N- dimensional sub-space is spanned by the N eigen vectors; determining an M x N or N x M matrix, V, comprising the N eigen vectors; and that the signal vector, y ( k), is projected onto the N -dimensional sub-space in accordance with z n = V H y n or z n = y n V H, wherein V H is the Hermitian transpose of the matrix, V, and z ( n) is a decimated signal. determining a signal vector, y ( k), of size M by partitioning samples of the digital signal, x(n) according to sampling phases of the samples, wherein each element of the signal vector, y ( k), is a signal constructed with a same sampling phase; and projecting the signal vector, y ( k), onto an N -dimensional sub-space, wherein N is an integer and N < M characterized in: determining a covariance matrix R y, of the signal vector y ( k); determining N eigen vectors corresponding to N greatest eigen values of the covariance matrix, R y, wherein the N- dimensional sub-space is spanned by the N eigen vectors; determining an M x N or N x M matrix, V, comprising the N eigen vectors; and that the signal vector, y ( k), is projected onto the N -dimensional sub-space in accordance with z n = V H y n or z n = y n V H, wherein V H is the Hermitian transpose of the matrix, V, and z ( n) is a decimated signal. determining a covariance matrix R y, of the signal vector y ( k); determining N eigen vectors corresponding to N greatest eigen values of the covariance matrix, R y, wherein the N- dimensional sub-space is spanned by the N eigen vectors; determining an M x N or N x M matrix, V, comprising the N eigen vectors; and that the signal vector, y ( k), is projected onto the N -dimensional sub-space in accordance with z n = V H y n or z n = y n V H, wherein V H is the Hermitian transpose of the matrix, V, and z ( n) is a decimated signal.
A dental curable composition comprising: a curable resin, 20 to 99% by weight of a porous inorganic filler, based on the total weight of the dental curable composition, and a polymerization initiator, wherein the porous inorganic filler comprises a silicon dioxide and an oxide comprising at least one kind of the other metallic elements, and has a spherical-shape, a mean particle size of 0.1 to 10 μm, a pore volume of 0.01 to 1.00 cc/g as measured by a gas adsorption method, and a specific surface area of 5 to 500 m 2 /g, wherein the oxide comprising at least one kind of the other metallic elements contained in the porous inorganic filler is contained at 1 to 30 wt% in terms of the oxide, and a ratio (I 1 /I 2) of a maximum absorbance (I 1) of 3730 to 3750 cm -1 to a maximum absorbance (I 2) of 3000 to 3600 cm -1 in infrared absorption spectrum of the porous inorganic filler, is not less than 1 and not more than 3. a curable resin, 20 to 99% by weight of a porous inorganic filler, based on the total weight of the dental curable composition, and a polymerization initiator, wherein the porous inorganic filler comprises a silicon dioxide and an oxide comprising at least one kind of the other metallic elements, and has a spherical-shape, a mean particle size of 0.1 to 10 μm, a pore volume of 0.01 to 1.00 cc/g as measured by a gas adsorption method, and a specific surface area of 5 to 500 m 2 /g, wherein the oxide comprising at least one kind of the other metallic elements contained in the porous inorganic filler is contained at 1 to 30 wt% in terms of the oxide, and a ratio (I 1 /I 2) of a maximum absorbance (I 1) of 3730 to 3750 cm -1 to a maximum absorbance (I 2) of 3000 to 3600 cm -1 in infrared absorption spectrum of the porous inorganic filler, is not less than 1 and not more than 3.
A tissue separating device comprising: a canister device including canister body having a sidewall defining a volume; a tissue retrieval port arranged on the canister device and capable of being arranged in fluid communication with a harvesting device for directing a fatty liposuction aspirate into the volume of the canister device; an adjustable height filtration mesh assembly arranged within the canister body and including a filtering mesh separating the volume into an upper vacuum chamber and a lower vacuum chamber; a tissue harvesting port arranged in the sidewall of the canister body and capable of being arranged in communication with a collection device to allow the tissue harvesting port to atraumatically receive a filtered pure fat collected on the filtering mesh within the upper vacuum chamber; and a fluid evacuation port arranged in the sidewall of the canister body and capable of being arranged in communication with a collection device for receiving a remaining aqueous fluid component collected below the filtration mesh assembly within the lower vacuum chamber; wherein the filtration mesh assembly is movably arranged within the canister body such that the filtering mesh is adjustable with respect to the tissue harvesting port (24. a canister device including canister body having a sidewall defining a volume; a tissue retrieval port arranged on the canister device and capable of being arranged in fluid communication with a harvesting device for directing a fatty liposuction aspirate into the volume of the canister device; an adjustable height filtration mesh assembly arranged within the canister body and including a filtering mesh separating the volume into an upper vacuum chamber and a lower vacuum chamber; a tissue harvesting port arranged in the sidewall of the canister body and capable of being arranged in communication with a collection device to allow the tissue harvesting port to atraumatically receive a filtered pure fat collected on the filtering mesh within the upper vacuum chamber; and a fluid evacuation port arranged in the sidewall of the canister body and capable of being arranged in communication with a collection device for receiving a remaining aqueous fluid component collected below the filtration mesh assembly within the lower vacuum chamber; wherein the filtration mesh assembly is movably arranged within the canister body such that the filtering mesh is adjustable with respect to the tissue harvesting port (24.