mhurhangee/ep-ind-claims huggingface dataset:
A method of processing data received from a digital broadcast receiver to generate an electronic programme guide for the content of a plurality of service channels received by said receiver, the method comprising: i) processing a sub-channel providing electronic programme guide data, the data comprising a plurality of files, each file comprising a sequential listing of electronic programme information for a plurality of programmes of an individual service-channel which are scheduled for broadcast within a predetermined period of time, the processing step being arranged to extract data from each said file indicating for each of said plurality of programmes at least one informational element comprising a characteristic of said programme; ii) generating a data record for each individual programme, the data record having a structure which includes at least one said informational element as a searchable index enabling subsequent retrieval of said information; iii) storing each said data record received in a data store, wherein said data store is configured to be searchable using said one or more indices, characterized in that each time a new electronic programme guide information file is downloaded, a check is performed to determine if a data record has been already generated containing the same information elements for a programme and if a record already exists with the same information element, the previous record is not overwritten and the processing for that data record terminates, and the processing of the next programme in the file commences. i) processing a sub-channel providing electronic programme guide data, the data comprising a plurality of files, each file comprising a sequential listing of electronic programme information for a plurality of programmes of an individual service-channel which are scheduled for broadcast within a predetermined period of time, the processing step being arranged to extract data from each said file indicating for each of said plurality of programmes at least one informational element comprising a characteristic of said programme; ii) generating a data record for each individual programme, the data record having a structure which includes at least one said informational element as a searchable index enabling subsequent retrieval of said information; iii) storing each said data record received in a data store, wherein said data store is configured to be searchable using said one or more indices, characterized in that each time a new electronic programme guide information file is downloaded, a check is performed to determine if a data record has been already generated containing the same information elements for a programme and if a record already exists with the same information element, the previous record is not overwritten and the processing for that data record terminates, and the processing of the next programme in the file commences.
Use of a compound represented by the following formula and/or a resin derived from the compound as a monomer for forming a resist pattern: wherein R 1 is a 2n-valent group of 1 to 30 carbon atoms; R 2 to R 5 are each independently a linear, branched, or cyclic alkyl group of 1 to 10 carbon atoms, an aryl group of 6 to 10 carbon atoms, an alkenyl group of 2 to 10 carbon atoms, an alkoxy group of 1 to 30 carbon atoms, a halogen atom, a thiol group, or a hydroxyl group, wherein at least one selected from R 1 to R 5 is a group containing an iodine atom, and at least one of R 4 and/or at least one of R 5 is one or more kinds selected from a hydroxyl group and a thiol group; m 2' and m 3' are each independently an integer of 0 to 4; and m 4' and m 5' are each independently an integer of 0 to 5, wherein m 4' and m 5' are not 0 at the same time; and n is an integer of 1 to 4; and wherein the resin is a resin obtained by reacting the compound represented by the formula with a compound having crosslinking reactivity, wherein the compound having crosslinking reactivity is an aldehyde.
A glass-ceramic comprising: a. a composition, in mole%, comprising: i. 62-75 SiO 2; ii. 10.5-17 Al 2 O 3; iii. 5-13 Li 2 O; iv. 0-4 ZnO; v. 0-8 MgO; vi. 2-5 TiO 2; vii. 0-4 B 2 O 3; viii. 0-5 Na 2 O; ix. 0-4 K 2 O; x. 0-2 ZrO 2; xi. 0-7 P 2 O 5 xii. 0-0.3 Fe 2 O 3; xiii. 0-2 MnOx; and xiv. 0.05-0.20 SnO 2; b. a ratio: [ Li 2 O+Na 2 O+K 2 O+MgO+ZnO] [Al 2 O 3 +B 2 O 3] between 0.7 to 1.5; c. a ratio: [ TiO 2 +SnO 2] [SiO 2 +B 2 O 3] greater than 0.04; d. one or more β-spodumene solid solutions comprising: i. at least 70wt% of the crystalline phases of the glass-ceramic and ii. one or more Li 2 O:Al 2 O 3:SiO 2 ratios between 1:1:4.5-1:1:8; e. at least one Ti-containing crystalline phase comprising: i. 2.5-8wt% of the crystalline phases of the glass-ceramic, ii. an acicular morphology exhibiting a length ≥ 20nm, and iii. rutile in an amount of 2.5-6 wt% of the crystalline phases of the glass-ceramic; f. an opacity comprising ≥ 85% over the wavelength range of 400-700nm for an 0.8mm thickness; and g. optionally, one or more crystalline phase comprising: i. up to 10wt% of the crystalline phases of the glass-ceramic and ii. a spinel structure. a. a composition, in mole%, comprising: i. 62-75 SiO 2; ii. 10.5-17 Al 2 O 3; iii. 5-13 Li 2 O; iv. 0-4 ZnO; v. 0-8 MgO; vi. 2-5 TiO 2; vii. 0-4 B 2 O 3; viii. 0-5 Na 2 O; ix. 0-4 K 2 O; x. 0-2 ZrO 2; xi. 0-7 P 2 O 5 xii. 0-0.3 Fe 2 O 3; xiii. 0-2 MnOx; and xiv. 0.05-0.20 SnO 2; i. 62-75 SiO 2; ii. 10.5-17 Al 2 O 3; iii. 5-13 Li 2 O; iv. 0-4 ZnO; v. 0-8 MgO; vi. 2-5 TiO 2; vii. 0-4 B 2 O 3; viii. 0-5 Na 2 O; ix. 0-4 K 2 O; x. 0-2 ZrO 2; xi. 0-7 P 2 O 5 xii. 0-0.3 Fe 2 O 3; xiii. 0-2 MnOx; and xiv. 0.05-0.20 SnO 2; b. a ratio: [ Li 2 O+Na 2 O+K 2 O+MgO+ZnO] [Al 2 O 3 +B 2 O 3] between 0.7 to 1.5; c. a ratio: [ TiO 2 +SnO 2] [SiO 2 +B 2 O 3] greater than 0.04; d. one or more β-spodumene solid solutions comprising: i. at least 70wt% of the crystalline phases of the glass-ceramic and ii. one or more Li 2 O:Al 2 O 3:SiO 2 ratios between 1:1:4.5-1:1:8; i. at least 70wt% of the crystalline phases of the glass-ceramic and ii. one or more Li 2 O:Al 2 O 3:SiO 2 ratios between 1:1:4.5-1:1:8; e. at least one Ti-containing crystalline phase comprising: i. 2.5-8wt% of the crystalline phases of the glass-ceramic, ii. an acicular morphology exhibiting a length ≥ 20nm, and iii. rutile in an amount of 2.5-6 wt% of the crystalline phases of the glass-ceramic; i. 2.5-8wt% of the crystalline phases of the glass-ceramic, ii. an acicular morphology exhibiting a length ≥ 20nm, and iii. rutile in an amount of 2.5-6 wt% of the crystalline phases of the glass-ceramic; f. an opacity comprising ≥ 85% over the wavelength range of 400-700nm for an 0.8mm thickness; and g. optionally, one or more crystalline phase comprising: i. up to 10wt% of the crystalline phases of the glass-ceramic and ii. a spinel structure. i. up to 10wt% of the crystalline phases of the glass-ceramic and ii. a spinel structure.
Light-emitting module including: - at least two sub-modules each including at least two light sources activatable selectively so that each produces a segment of a partial light beam (5A, 5B, 5C, 5D), and - a projection optic common to the two sub-modules for projecting said light-emitting segments, the sub-modules and the projection optic being adapted to produce a homogeneous segmented beam when all the segments are activated together; characterized in that each sub-module includes one optical element in the vicinity of the light sources and forming a primary optic adapted to cooperate with the single projection optic to form a secondary optic; in that each primary optic is formed by microlenses facing the light sources, each light source collaborating with one microlens; and in that at least one sub-module is adapted to be adjusted in rotation and/or in translation, to produce the homogeneous segmented beam. - at least two sub-modules each including at least two light sources activatable selectively so that each produces a segment of a partial light beam (5A, 5B, 5C, 5D), and - a projection optic common to the two sub-modules for projecting said light-emitting segments, the sub-modules and the projection optic being adapted to produce a homogeneous segmented beam when all the segments are activated together; characterized in that each sub-module includes one optical element in the vicinity of the light sources and forming a primary optic adapted to cooperate with the single projection optic to form a secondary optic; in that each primary optic is formed by microlenses facing the light sources, each light source collaborating with one microlens; and in that at least one sub-module is adapted to be adjusted in rotation and/or in translation, to produce the homogeneous segmented beam.
A mounting clip for floating mounting of wall and ceiling panels (13, 14) made of composite wood materials, which panels are connected to one another without adhesive by means of corresponding interlocking profiles so as to form a wall or ceiling covering and, on a substructure, are fastened to - a base board, - a receiving portion integrally formed with the base board for engaging in an interlocking profile of a panel (13, 14), wherein - the receiving portion comprises a distancing piece, which is arranged so as to be substantially perpendicular to the plane of the base board, and a contacting piece, which adjoins the distancing piece and is arranged so as to be substantially parallel to the plane of the base board, - a slot in the base board for fastening the mounting clip on the substructure by means of a fastening means, - wherein the slot extends in the direction of the longitudinal axis of the mounting clip and transversely to the contacting piece, characterized in that the slot is at least 1.5 cm - 4 cm long, and a bead that extends around the slot is formed on the edge of the slot in the base board. - a base board, - a receiving portion integrally formed with the base board for engaging in an interlocking profile of a panel (13, 14), wherein - the receiving portion comprises a distancing piece, which is arranged so as to be substantially perpendicular to the plane of the base board, and a contacting piece, which adjoins the distancing piece and is arranged so as to be substantially parallel to the plane of the base board, - a slot in the base board for fastening the mounting clip on the substructure by means of a fastening means, - wherein the slot extends in the direction of the longitudinal axis of the mounting clip and transversely to the contacting piece,
Method for separating gases of a gas mixture in the form of a gas stream, wherein - the gas mixture in the form of the gas stream is compressed in a compression process and allowed to expand in an expansion process, - the gas stream is irradiated with electromagnetically emitted radiation in the microwave or tetrahertz range, - scattered radiation is detected, the scattered radiation arising due to scattering of the emitted radiation at at least one object in the gas stream, - a difference in frequency between the scattered radiation and the emitted radiation is detected, characterized in that - a presence, a number and/or a proportion of moving objects in the gas stream is/are determined from the difference in frequency before and/or after the compression process and/or the expansion process and - the separation of the gases of the gas mixture is carried out while taking into account the determined presence, the determined number and/or the determined proportion of moving objects in the gas stream, measures for protecting elements that are used in the course of the separation of gases and that could be damaged by the moving objects in the gas stream being carried out in dependence on the determined presence, the determined number and/or the determined proportion. - the gas mixture in the form of the gas stream is compressed in a compression process and allowed to expand in an expansion process, - the gas stream is irradiated with electromagnetically emitted radiation in the microwave or tetrahertz range, - scattered radiation is detected, the scattered radiation arising due to scattering of the emitted radiation at at least one object in the gas stream, - a difference in frequency between the scattered radiation and the emitted radiation is detected, - a presence, a number and/or a proportion of moving objects in the gas stream is/are determined from the difference in frequency before and/or after the compression process and/or the expansion process and - the separation of the gases of the gas mixture is carried out while taking into account the determined presence, the determined number and/or the determined proportion of moving objects in the gas stream, measures for protecting elements that are used in the course of the separation of gases and that could be damaged by the moving objects in the gas stream being carried out in dependence on the determined presence, the determined number and/or the determined proportion.
A method of measuring movement of an object and a user's input device relative to each other, which movement comprises at least one scroll movement or a click movement, whereby use is made of an input device comprising at least one optical sensor unit, whereby the measurement performed by the sensor unit comprises the steps of illuminating an object surface with a measuring laser beam, capturing measuring beam radiation reflected by the object by the diode laser cavity that emits the measuring beam and measuring changes in operation of the laser caused by interference of the re-entering measuring beam radiation and the optical wave in the laser cavity, characterized in that one sensor unit is used to measure both a scroll motion and a click motion.
A variable transmission optical device comprising: a cell comprising a guest-host mixture of a negative dielectric anisotropy liquid crystal host and a dichroic guest dye material contained between a pair of plastic substrates, said cell has a cell gap greater than 3 microns but less than 20 microns; wherein the liquid crystal host has an axis orientation that is alterable between a clear state orientation and a dark state orientation perpendicular thereto; wherein the liquid crystal host comprises a chiral nematic material with a thickness to pitch ratio ( d / p) of less than 0.9 but greater than 0.25; wherein the dichroic guest dye material comprises one or more dichroic dyes having a positive dichroic ratio >11.5; wherein said guest-host mixture has an order parameter, S mix, greater than 0.78 and a nematic-isotropic transition temperature T NI greater than 40°C; wherein said pair of plastic substrates have an optical retardation with less than ±20% variation in uniformity for any given wavelength within 400-700nm of incident light; wherein the optical device does not use polarizers; wherein the optical device exhibits a wide absorption band that is greater than 175nm within a visible wavelength range of 400-700nm; and wherein the optical device has a dark state transmission equal to or below 40% and a transmission swing being the difference between the clear state orientation and the dark state orientation is greater than or equal to 30%. a cell comprising a guest-host mixture of a negative dielectric anisotropy liquid crystal host and a dichroic guest dye material contained between a pair of plastic substrates, said cell has a cell gap greater than 3 microns but less than 20 microns; wherein the liquid crystal host has an axis orientation that is alterable between a clear state orientation and a dark state orientation perpendicular thereto; wherein the liquid crystal host comprises a chiral nematic material with a thickness to pitch ratio ( d / p) of less than 0.9 but greater than 0.25; wherein the dichroic guest dye material comprises one or more dichroic dyes having a positive dichroic ratio >11.5; wherein said guest-host mixture has an order parameter, S mix, greater than 0.78 and a nematic-isotropic transition temperature T NI greater than 40°C; wherein said pair of plastic substrates have an optical retardation with less than ±20% variation in uniformity for any given wavelength within 400-700nm of incident light; wherein the optical device does not use polarizers; wherein the optical device exhibits a wide absorption band that is greater than 175nm within a visible wavelength range of 400-700nm; and
A composition for use as an artificial tear, which comprises a mixture of castor oil with linseed oil, wherein said mixture comprises from 20 to 80 weight percent castor oil and from 20 to 80 weight percent linseed oil, wherein said mixture of castor oil and linseed oil is emulsified in an aqueous phase.
A method for manufacturing a surface emitting laser made of a group-III nitride semiconductor by an MOVPE method, comprising: (a) a step of growing a first cladding layer of a first conductive type on a substrate; (b) a step of growing a first optical guide layer of said first conductive type on said first cladding layer; (c) a step of forming holes by etching, each hole having an opening at an upper surface of said first optical guide layer and extending from the upper surface of said first optical guide layer to the inside thereof, said holes having a two-dimensional periodicity in a plane parallel to said first optical guide layer; (d) a step of supplying a gas containing a group-III material and a nitrogen source and performing growth to close the openings of said holes thereby forming cavities within said first optical guide layer and pyramidal recessed portions above said cavities, wherein said recessed portions are having at least one facet of a predetermined plane direction; and (e) a step of planarizing the upper surface of said first optical guide layer by mass transport, after said step (d) has been performed, whereby a photonic crystal layer is formed within said first optical guide layer. (a) a step of growing a first cladding layer of a first conductive type on a substrate; (b) a step of growing a first optical guide layer of said first conductive type on said first cladding layer; (c) a step of forming holes by etching, each hole having an opening at an upper surface of said first optical guide layer and extending from the upper surface of said first optical guide layer to the inside thereof, said holes having a two-dimensional periodicity in a plane parallel to said first optical guide layer; (d) a step of supplying a gas containing a group-III material and a nitrogen source and performing growth to close the openings of said holes thereby forming cavities within said first optical guide layer and pyramidal recessed portions above said cavities, wherein said recessed portions are having at least one facet of a predetermined plane direction; and (e) a step of planarizing the upper surface of said first optical guide layer by mass transport, after said step (d) has been performed, whereby a photonic crystal layer is formed within said first optical guide layer.
Apparatus for making a metal tin by assembling a lid and a bottom to the ends of a tubular shaped shell, it comprises: at least coupling means (31, 33, 45, 48) by means of which said shell is able to be coupled with said lid and with said bottom in correspondence with respective joining zones (27, 30); pressure means (36, 37; 46, 47), characterized in that said pressure means comprise knurling rollers, respectively external (36; 46) and internal (37; 47), wherein said external knurling roller (36; 46) has a relief on its circumference, and the internal knurling roller (37; 47), disposed in use inside said shell, has a groove mating in section with said relief, in order to achieve, in correspondence with said joining zones (27, 30), at least an interpenetration (138, 149) both between said shell and said lid, and between said shell and said bottom; and welding means (41, 51) comprising respective supports (39, 54), holding devices (40, 50) and welding devices with rollers (41, 51) having respectively external roller or electrodes (42, 52) and internal roller or electrodes (43, 53) able to weld said shell to said lid and said bottom in proximity or in correspondence with said interpenetration (138, 149).
A common-mode voltage cancellation (CMVC) circuit, comprising: a first set of coupled inductors, each coupled inductor (510, 520, 530) of the first set of coupled inductors having a respective primary winding (511, 521, 531), and a respective secondary winding (512, 522, 532), each primary winding of the first set of coupled inductors (511, 521, 531) configured to receive a respective first phase voltage (VA1, VB1, VC1) having a common mode voltage component (Vcm) from a corresponding input line, wherein the respective secondary windings (512, 522, 532) of the first set of coupled inductors are electrically coupled in series; and a second set of coupled inductors comprising at least one primary winding in signal communication with the series connected secondary windings (512, 522, 532) of the first set of coupled inductors to receive a second voltage therefrom (VA2, VB2, VC2), the second set of coupled inductors further comprising secondary windings (612, 622, 632), each of which coupled in series with a respective input line and to a respective output line, electrically downstream from the respective input line. a first set of coupled inductors, each coupled inductor (510, 520, 530) of the first set of coupled inductors having a respective primary winding (511, 521, 531), and a respective secondary winding (512, 522, 532), each primary winding of the first set of coupled inductors (511, 521, 531) configured to receive a respective first phase voltage (VA1, VB1, VC1) having a common mode voltage component (Vcm) from a corresponding input line, wherein the respective secondary windings (512, 522, 532) of the first set of coupled inductors are electrically coupled in series; and a second set of coupled inductors comprising at least one primary winding in signal communication with the series connected secondary windings (512, 522, 532) of the first set of coupled inductors to receive a second voltage therefrom (VA2, VB2, VC2), the second set of coupled inductors further comprising secondary windings (612, 622, 632), each of which coupled in series with a respective input line and to a respective output line, electrically downstream from the respective input line.
A method of testing and validating a complex airframe structure, comprising: determine flight loads acting on the complex airframe structure; identifying fatigue sensitive points in the complex airframe structure in response to the flight loads acting on the complex airframe structure; grouping the fatigue sensitive points into a plurality of families; selecting at least one representative fatigue sensitive point from each family; creating at least one detail specimen that replicates the representative fatigue sensitive point from each family, wherein the detail specimen is created with geometry that yields a lower fatigue life than actual geometry of a fatigue sensitive point in the complex airframe structure; fatigue testing the detail specimens; and comparing results determined in response to fatigue testing the detail specimens to the determined flight loads. determine flight loads acting on the complex airframe structure; identifying fatigue sensitive points in the complex airframe structure in response to the flight loads acting on the complex airframe structure; grouping the fatigue sensitive points into a plurality of families; selecting at least one representative fatigue sensitive point from each family; creating at least one detail specimen that replicates the representative fatigue sensitive point from each family, wherein the detail specimen is created with geometry that yields a lower fatigue life than actual geometry of a fatigue sensitive point in the complex airframe structure; fatigue testing the detail specimens; and comparing results determined in response to fatigue testing the detail specimens to the determined flight loads.