mhurhangee/patent-ind-claim-en huggingface dataset:
An apparatus comprising: a transmitter configured to emit modulated light upon which data is encoded; a plurality of focusing lenses having an optical axis and being configured to focus the modulated light into respective optical fiber ferrules configured to receive respective optical fibers along a main direction, a lens holder sub-assembly that couples the plurality of focusing lenses to the respective optical fiber ferrules , and a connector coupled to the lens holder sub-assembly that directs the modulated light into one or more optical fibers, the connector being a Multiple-Fiber Push-On connector , wherein the optical axis of the plurality of focusing lenses is parallel to but not aligned with the main direction along which the optical fiber ferrules are configured to receive the optical fibers; and wherein the lens holder sub-assembly is tilted with respect to a propagation axis of the modulated light as it is directed into the plurality of focusing lenses , to an angle enabling the modulated light to pass through the lens holder sub-assembly despite the optical axis of the plurality of focusing lenses not being aligned with the main direction along which the optical fiber ferrules configured to receive the respective optical fibers. a transmitter configured to emit modulated light upon which data is encoded; a plurality of focusing lenses having an optical axis and being configured to focus the modulated light into respective optical fiber ferrules configured to receive respective optical fibers along a main direction, a lens holder sub-assembly that couples the plurality of focusing lenses to the respective optical fiber ferrules , and a connector coupled to the lens holder sub-assembly that directs the modulated light into one or more optical fibers, the connector being a Multiple-Fiber Push-On connector , wherein the optical axis of the plurality of focusing lenses is parallel to but not aligned with the main direction along which the optical fiber ferrules are configured to receive the optical fibers; and wherein the lens holder sub-assembly is tilted with respect to a propagation axis of the modulated light as it is directed into the plurality of focusing lenses , to an angle enabling the modulated light to pass through the lens holder sub-assembly despite the optical axis of the plurality of focusing lenses not being aligned with the main direction along which the optical fiber ferrules configured to receive the respective optical fibers. wherein the optical axis of the plurality of focusing lenses is parallel to but not aligned with the main direction along which the optical fiber ferrules are configured to receive the optical fibers; and wherein the lens holder sub-assembly is tilted with respect to a propagation axis of the modulated light as it is directed into the plurality of focusing lenses , to an angle enabling the modulated light to pass through the lens holder sub-assembly despite the optical axis of the plurality of focusing lenses not being aligned with the main direction along which the optical fiber ferrules configured to receive the respective optical fibers.
An aqueous composition comprising a first compound having at least two thiol groups; a second compound having the general structure of wherein R1 is an alkyl, a dialkyl ether, dialkyl ester, dialkyl urethane or a dialkyl amide group, R2 is an at least one allyl or alkyne containing group, R3 is hydrogen, an alkyl group or an at least one allyl containing group, or an alkyne group or an at least one alkyne containing group, and R4 is hydrogen, an alkyl group or an at least one allyl containing group, or an alkyne group or an at least one alkyne containing group; wherein the first compound or the second compound comprises at least one phosphonic acid containing group X with the proviso that when the second compound comprises the at least one phosphonic acid containing group said group is bound to the R1 group; and a third compound or additional compounds comprising at least one alkyne containing group; preferably also a fourth compound or additional compounds comprising at least one allyl containing group or at least one thiol containing group or at least one alkyne; and a photo initiator. a first compound having at least two thiol groups; a second compound having the general structure of wherein R1 is an alkyl, a dialkyl ether, dialkyl ester, dialkyl urethane or a dialkyl amide group, R2 is an at least one allyl or alkyne containing group, R3 is hydrogen, an alkyl group or an at least one allyl containing group, or an alkyne group or an at least one alkyne containing group, and R4 is hydrogen, an alkyl group or an at least one allyl containing group, or an alkyne group or an at least one alkyne containing group; wherein the first compound or the second compound comprises at least one phosphonic acid containing group X with the proviso that when the second compound comprises the at least one phosphonic acid containing group said group is bound to the R1 group; and a third compound or additional compounds comprising at least one alkyne containing group; preferably also a fourth compound or additional compounds comprising at least one allyl containing group or at least one thiol containing group or at least one alkyne; and a photo initiator.
An antenna module comprising: an antenna array radiating a beam through a top surface of the antenna array ; a dielectric disposed to be spaced apart from the top surface of the antenna array by a first length; a first reflector including a metallic material and disposed to be spaced apart from a bottom surface of the dielectric by a second length, wherein the first reflector is disposed to surround the antenna array on a horizontal plane on which the antenna array is disposed; and a second reflector including a metallic material and disposed in a partial region of the bottom surface of the dielectric, which faces the top surface of the antenna array , characterized in that the second reflector has a grid shape composed of a plurality of grid patterns comprising grid elements, and a grid pattern overlapped with the antenna array among the plurality of grid patterns has grid elements of a larger size than grid elements of a grid pattern not overlapped with the antenna array among the plurality of grid patterns, wherein the antenna module further comprises a housing formed to surround the antenna module, wherein the dielectric and the second reflector ) are disposed on one surface of the housing along an outer periphery of the housing , and wherein the housing , the second reflector , and the dielectric are formed to have a curved shape. an antenna array radiating a beam through a top surface of the antenna array ; a dielectric disposed to be spaced apart from the top surface of the antenna array by a first length; a first reflector including a metallic material and disposed to be spaced apart from a bottom surface of the dielectric by a second length, wherein the first reflector is disposed to surround the antenna array on a horizontal plane on which the antenna array is disposed; and a second reflector including a metallic material and disposed in a partial region of the bottom surface of the dielectric, which faces the top surface of the antenna array , characterized in that the second reflector has a grid shape composed of a plurality of grid patterns comprising grid elements, and a grid pattern overlapped with the antenna array among the plurality of grid patterns has grid elements of a larger size than grid elements of a grid pattern not overlapped with the antenna array among the plurality of grid patterns, wherein the antenna module further comprises a housing formed to surround the antenna module, wherein the dielectric and the second reflector ) are disposed on one surface of the housing along an outer periphery of the housing , and wherein the housing , the second reflector , and the dielectric are formed to have a curved shape.
A fitting for encasing an extended length of pipe comprising a plurality of segments jointed end-to-end to axially extend over the length of pipe, each of the segments being formed by a pair of mating semi-cylindrical sections , the pairs of mating sections having arcuate ends forming longitudinally extending opposed faces mating at a diametral plane, the longitudinal opposed faces being sealed together, the adjacent axial ends of the segments being circumferentially sealed together, ends of the fitting having internal seals arranged to contact and seal onto the exterior of the pipe whereby the space between said internal seals within said fitting is closed, characterised in that the segments have radial end flanges , with axially oriented through bolt holes the end flanges of adjacent segments being fixed together by common bolts , through the bolt holes and in that the radial end flanges of adjacent segments are sealed by intermediate arcuate seals .
A liquid crystal display comprising a backlight with a polymeric multilayer optical film , the polymeric multilayer optical film comprising: a first optical packet; and a second optical packet disposed on the first optical packet; wherein the first optical packet includes a plurality of 2-microlayer optical repeat units having a substantially linear layer thickness profile with a negative slope, the slope being measured from an external side of the first optical packet on which light is first incident towards the second optical packet, wherein a group of layers of the first optical packet proximate the external side of the first optical packet is configured to reflect red light of the visible light spectrum; wherein the second optical packet includes a plurality of 2-microlayer optical repeat units having a substantially linear layer thickness profile ; wherein the polymeric multilayer optical film is a multilayer polymeric reflector that reflects more than 95% of light from 420 nm to 700 nm incident from all possible directions and all polarization states within a hemisphere centered about a normal direction on the external side of the first optical packet; and wherein the backlight is oriented such that light is first incident on the external side of the first optical packet. a first optical packet; and a second optical packet disposed on the first optical packet; wherein the first optical packet includes a plurality of 2-microlayer optical repeat units having a substantially linear layer thickness profile with a negative slope, the slope being measured from an external side of the first optical packet on which light is first incident towards the second optical packet, wherein a group of layers of the first optical packet proximate the external side of the first optical packet is configured to reflect red light of the visible light spectrum; wherein the second optical packet includes a plurality of 2-microlayer optical repeat units having a substantially linear layer thickness profile ; wherein the polymeric multilayer optical film is a multilayer polymeric reflector that reflects more than 95% of light from 420 nm to 700 nm incident from all possible directions and all polarization states within a hemisphere centered about a normal direction on the external side of the first optical packet; and
An array of colored footwear articles, the array comprising: a first footwear article comprising a first concealed portion; the first concealed portion comprising a first substrate and a first concealing layer; the first substrate comprising a first color and a first characteristic chosen from at least one of a first composition, a first basis weight, a first thickness, a first construction, and a first surface topography, wherein the first color of the first substrate is obscured from view by the first concealing layer, which includes a second color; and a second footwear article comprising a second concealed portion; the second concealed portion comprising a second substrate and a second concealing layer; the second substrate comprising a third color and a second characteristic chosen from at least one of a second composition, a second basis weight, a second thickness, a second construction, and a second surface topography, wherein the third color of the second substrate is obscured from view by the second concealing layer, which includes a fourth color; and the second color and the fourth color are visually similar to one another, wherein the first color and the third color are visually different from one another, and the first characteristic of the first substrate is different than a corresponding second characteristic of the second substrate, wherein the first concealing layer and the second concealing layer are configured to abrade, after which the first color and the third color are presented. a first footwear article comprising a first concealed portion; the first concealed portion comprising a first substrate and a first concealing layer; the first substrate comprising a first color and a first characteristic chosen from at least one of a first composition, a first basis weight, a first thickness, a first construction, and a first surface topography, wherein the first color of the first substrate is obscured from view by the first concealing layer, which includes a second color; and a second footwear article comprising a second concealed portion; the second concealed portion comprising a second substrate and a second concealing layer; the second substrate comprising a third color and a second characteristic chosen from at least one of a second composition, a second basis weight, a second thickness, a second construction, and a second surface topography, wherein the third color of the second substrate is obscured from view by the second concealing layer, which includes a fourth color; and the second color and the fourth color are visually similar to one another, wherein the first color and the third color are visually different from one another, and the first characteristic of the first substrate is different than a corresponding second characteristic of the second substrate, wherein the first concealing layer and the second concealing layer are configured to abrade, after which the first color and the third color are presented.
A method of aligning memory access operations to a geometry of single storage devices in a storage array comprising a storage array controller coupled to a plurality of single storage devices via a midplane , the method comprising: receiving , by the storage array controller , information from a single storage device describing the layout of memory in the respective single storage device , which includes a size of a smallest writeable memory unit in the respective single storage device; determining , by the storage array controller , for the single storage device in dependence upon the layout of memory in the respective single storage device , a write size corresponding to the size of the smallest writeable memory unit and a physical address; and sending , by the storage array controller , to the storage device a write request having a size corresponding to the write size and addressed to the physical address within the single storage device . receiving , by the storage array controller , information from a single storage device describing the layout of memory in the respective single storage device , which includes a size of a smallest writeable memory unit in the respective single storage device; determining , by the storage array controller , for the single storage device in dependence upon the layout of memory in the respective single storage device , a write size corresponding to the size of the smallest writeable memory unit and a physical address; and sending , by the storage array controller , to the storage device a write request having a size corresponding to the write size and addressed to the physical address within the single storage device .
A gas turbine engine comprising: a high spool including a thrust bearing configured to react thrust forces generated by the high spool ; a first non-contacting dynamic seal that seals on an outer diameter with respect to said high spool , the seal comprising a first floating shoe adjacent to the high spool and radially outboard of a first static main body ; a second non-contacting dynamic seal that seals on the outer diameter, the seal comprising a second floating shoe adjacent to the high spool and radially outboard of a second static main body ; and a third non-contacting dynamic seal that seals on an inner diameter with respect to said high spool , the seal comprising a third floating shoe adjacent to the high spool and radially inboard of a third static main body , wherein the third seal and the first seal define a first secondary flow cavity (C1), the third seal and the second seal define a second secondary flow cavity (T1), said first seal is positioned aft of a high pressure compressor of said high spool, and said third seal is positioned radially between an outer shaft of said high spool and an inner diffuser case , said first seal is positioned radially inboard of an aft most high pressure compressor vane , said second seal is positioned forward of a high pressure turbine of the high spool and radially inboard of a forward most high pressure turbine vane , said third seal is located between the high pressure compressor and the high pressure turbine, and the first, second and third seals are configured to seal between rotating and static components. a high spool including a thrust bearing configured to react thrust forces generated by the high spool ; a first non-contacting dynamic seal that seals on an outer diameter with respect to said high spool , the seal comprising a first floating shoe adjacent to the high spool and radially outboard of a first static main body ; a second non-contacting dynamic seal that seals on the outer diameter, the seal comprising a second floating shoe adjacent to the high spool and radially outboard of a second static main body ; and a third non-contacting dynamic seal that seals on an inner diameter with respect to said high spool , the seal comprising a third floating shoe adjacent to the high spool and radially inboard of a third static main body , wherein the third seal and the first seal define a first secondary flow cavity (C1), the third seal and the second seal define a second secondary flow cavity (T1), said first seal is positioned aft of a high pressure compressor of said high spool, and said third seal is positioned radially between an outer shaft of said high spool and an inner diffuser case , said first seal is positioned radially inboard of an aft most high pressure compressor vane , said second seal is positioned forward of a high pressure turbine of the high spool and radially inboard of a forward most high pressure turbine vane , said third seal is located between the high pressure compressor and the high pressure turbine, and the first, second and third seals are configured to seal between rotating and static components.
A method for reading data from sensors , comprising: determining a time sequence of measured data by means of a sensor , wherein the time sequence of measured data is generated by step-by-step changes in the measured data at read-in times, which are determined by a read-in frequency f a and have a time interval of a period duration 1/f a of the read-in frequency; reading output data from the sensor at read-out times, which are determined by a read-out frequency f s and have a time interval of a period duration 1/f s of the read-out frequency, with the read-out frequency f s being smaller than the read-in frequency f a ; determining, by means of a low-pass filter of the sensor , the ratio N between the read-in frequency f a and the read-out frequency f s from the time sequence of the numbers of read-in times lying between two adjacent read-out times; wherein the output data to be read at the read-out times is generated in the sensor by extrapolation of elements of the time sequence of measured data generated before the particular read-out times based on the ratio N between the read-in frequency f a and the read-out frequency f s . determining a time sequence of measured data by means of a sensor , wherein the time sequence of measured data is generated by step-by-step changes in the measured data at read-in times, which are determined by a read-in frequency f a and have a time interval of a period duration 1/f a of the read-in frequency; reading output data from the sensor at read-out times, which are determined by a read-out frequency f s and have a time interval of a period duration 1/f s of the read-out frequency, with the read-out frequency f s being smaller than the read-in frequency f a ; determining, by means of a low-pass filter of the sensor , the ratio N between the read-in frequency f a and the read-out frequency f s from the time sequence of the numbers of read-in times lying between two adjacent read-out times; wherein the output data to be read at the read-out times is generated in the sensor by extrapolation of elements of the time sequence of measured data generated before the particular read-out times based on the ratio N between the read-in frequency f a and the read-out frequency f s .
A tire tread composition comprising: (a) a rubber component comprising a natural rubber or a synthetic rubber polymer or a combination thereof; (b) at least one filler in the amount of from 5 to 250 phr; and (c) a terpene-based resin having (i) a softening point of from 80 °C to 130 °C; (ii) a number average molecular weight (M n ) ranging from 500 g/mol to 775 g/mol; and (iii) a glass transition temperature (T g ) of from 38 °C to 81 °C ; wherein the terpene-based resin is a homopolymer of a terpene monomer or a heteropolymer of a mixture of terpene monomers, and wherein the terpene-based resin is substantially free of limonene, wherein substantially free of limonene means that the amount of limonene is less than 10 wt. % based upon the total amount of the terpene-based resin. (a) a rubber component comprising a natural rubber or a synthetic rubber polymer or a combination thereof; (b) at least one filler in the amount of from 5 to 250 phr; and (c) a terpene-based resin having (i) a softening point of from 80 °C to 130 °C; (ii) a number average molecular weight (M n ) ranging from 500 g/mol to 775 g/mol; and (iii) a glass transition temperature (T g ) of from 38 °C to 81 °C ; wherein the terpene-based resin is a homopolymer of a terpene monomer or a heteropolymer of a mixture of terpene monomers, and wherein the terpene-based resin is substantially free of limonene, wherein substantially free of limonene means that the amount of limonene is less than 10 wt. % based upon the total amount of the terpene-based resin. (i) a softening point of from 80 °C to 130 °C; (ii) a number average molecular weight (M n ) ranging from 500 g/mol to 775 g/mol; and (iii) a glass transition temperature (T g ) of from 38 °C to 81 °C ; wherein the terpene-based resin is a homopolymer of a terpene monomer or a heteropolymer of a mixture of terpene monomers, and wherein the terpene-based resin is substantially free of limonene, wherein substantially free of limonene means that the amount of limonene is less than 10 wt. % based upon the total amount of the terpene-based resin.