mhurhangee/ep-ind-claims huggingface dataset:
A video recording apparatus comprising: an illumination apparatus adapted to apply a modulated illumination light; a control apparatus adapted to control the illumination apparatus; an imaging apparatus adapted to image the illumination light and an object at the same time to generate video data; and a storage apparatus (14;314) adapted to store the video data generated by the imaging apparatus; characterized in that the control apparatus is adapted to generate encrypted data by using at least a portion of the video data imaged by the imaging apparatus and encryption information generated as information changing in accordance with a date and time and used for encryption and to control the illumination apparatus such that the illumination light is modulated by the generated encrypted data. an illumination apparatus adapted to apply a modulated illumination light; a control apparatus adapted to control the illumination apparatus; an imaging apparatus adapted to image the illumination light and an object at the same time to generate video data; and a storage apparatus (14;314) adapted to store the video data generated by the imaging apparatus; characterized in that the control apparatus is adapted to generate encrypted data by using at least a portion of the video data imaged by the imaging apparatus and encryption information generated as information changing in accordance with a date and time and used for encryption and to control the illumination apparatus such that the illumination light is modulated by the generated encrypted data.
Feedthrough arrangement comprising a tested and/or approved wooden wall construction or wooden ceiling construction for buildings, and a feedthrough module for cables, cable bundles, cable runs, pipes, conduits, ducts and/or combinations thereof, consisting of hardwood, softwood or mixtures thereof, wherein the feedthrough module is installed in the wooden wall construction or wooden ceiling construction, wherein a flush connection to the wooden wall construction or wooden ceiling construction is achieved by means of bolts, rivets, threaded rods, wooden dowels, clamps, high-temperature-resistant adhesives or other carpentry-type connections, wherein the tested and/or approved wooden wall construction and/or ceiling construction has an equal or lower burning rate than the feedthrough module, wherein the feedthrough module has a cuboid body with edge lengths a, b, c, wherein c represents the edge length corresponding to the installation thickness of the feedthrough module, and wherein the feedthrough module has a nominal burning rate of 0.7 mm/min or less, measured using a cone calorimeter according to ISO 5660.
An electrophotographic photosensitive member which comprises a surface layer containing a polymeric product obtained by polymerizing an adamantane compound represented by the following general formula: wherein R 1 to R 6 each independently represent a hydrogen atom, an alkyl group, a haloalkyl group, a hydroxyl group, an alkoxyl group, an amino group, an alkylamino group, a trialkylsilyl group or a halogen atom; and X 1 to X 10 each independently represent a hydrogen atom, an alkyl group, a haloalkyl group, a hydroxyl group, an alkoxyl group, an amino group, an alkylamino group, a trialkylsilyl group, a halogen atom or an organic group having a chain polymerizable functional group; where R 1 and X 1 may combine to form an oxo group (=O), R 2 and X 2 may combine to form an oxo group (=O), R 3 and X 3 may combine to form an oxo group (=O), R 4 and X 4 may combine to form an oxo group (=O), R 5 and X 5 may combine to form an oxo group (=O) and R 6 and X 6 may combine to form an oxo group (=O), provided that at least two of X 1 to X 10 are organic groups having chain polymerizable functional groups, and, where X 1 is an organic group having a chain polymerizable functional group, R 1 is a hydrogen atom, where X 2 is an organic group having a chain polymerizable functional group, R 2 is a hydrogen atom, where X 3 is an organic group having a chain polymerizable functional group, R 3 is a hydrogen atom, where X 4 is an organic group having a chain polymerizable functional group, R 4 is a hydrogen atom, where X 5 is an organic group having a chain polymerizable functional group, R 5 is a hydrogen atom, and where X 6 is an organic group having a chain polymerizable functional group, R 6 is a hydrogen atom; wherein the organic group having a chain polymerizable functional group is a group constituted of a chain polymerizable functional group and a divalent organic residual group that intervenes between the chain polymerizable functional group and an adamantane structure of the adamantane compound, or a group constituted of a chain polymerizable functional group only, wherein the chain polymerizable functional group is an unsaturation polymerizable functional group, or a ring-opening polymerizable functional group, and wherein the divalent organic residual group is an alkylene group, or an arylene group.
A sludge tank with a device for gas injection, comprising: - at least one conduit (47, 58) for introducing gas above the bottom of the sludge tank filled with a fluid, in particular containing solids or particles, - a tube (43, 44, 45, 54, 55, 56) disposed substantially vertically in the sludge tank and open on both ends, wherein the at least one conduit (47, 58) opens into the tube (43, 44, 45, 54, 55, 56) at least on the lower end of the tube (43, 44, 45, 54, 55, 56) for introducing gas, wherein the tube is comprised of a plurality of adjacent single tubes (43, 44, 45, 54, 55, 56), wherein each single tube has a respectively larger diameter than the single tube disposed therebelow, characterized in that single tubes (43, 44, 45, 54, 55, 56) adjacent in the vertical direction are mutually coupled by a flexible suspension (48, 59). - at least one conduit (47, 58) for introducing gas above the bottom of the sludge tank filled with a fluid, in particular containing solids or particles, - a tube (43, 44, 45, 54, 55, 56) disposed substantially vertically in the sludge tank and open on both ends,
A method of manufacturing an ink composition for depositing of a photoactive layer of an optoelectronic device, the method comprising - providing a first phase liquid comprising a nonpolar solvent with nanoparticles dispersed in the nonpolar solvent, which nanoparticles are capped with a shell of first ligands, the first ligands comprising a surface binding head group and an alkyl or alkenyl tail for, at least initially, keeping the nanoparticles in a colloidal suspension in the nonpolar solvent; - providing a second phase liquid comprising a first polar solvent with second ligands dissolved therein, the second ligands having a molecular architecture including: ∘ a thiol head group for binding to a surface site of said nanoparticle; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, - a biphasic ligand exchange process wherein the second ligands displace the first ligands that are bound to the nanoparticles thereby releasing the first ligands to the first phase liquid, the biphasic ligand exchange process comprising contacting the first and second phase liquid to form a dispersion of the nanoparticles that are capped with a shell of the second ligands in the second phase liquid. - providing a first phase liquid comprising a nonpolar solvent with nanoparticles dispersed in the nonpolar solvent, which nanoparticles are capped with a shell of first ligands, the first ligands comprising a surface binding head group and an alkyl or alkenyl tail for, at least initially, keeping the nanoparticles in a colloidal suspension in the nonpolar solvent; - providing a second phase liquid comprising a first polar solvent with second ligands dissolved therein, the second ligands having a molecular architecture including: ∘ a thiol head group for binding to a surface site of said nanoparticle; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, ∘ a thiol head group for binding to a surface site of said nanoparticle; ∘ an ionically charged tail group having a counter ion associated therewith; and ∘ an alkyl spacer separating the head group and the tail group having a total number of carbon atoms in a range from 1 to 3, - a biphasic ligand exchange process wherein the second ligands displace the first ligands that are bound to the nanoparticles thereby releasing the first ligands to the first phase liquid, the biphasic ligand exchange process comprising contacting the first and second phase liquid to form a dispersion of the nanoparticles that are capped with a shell of the second ligands in the second phase liquid.
A combination comprising a capture oligomer and a complementary oligomer, wherein: (a) the capture oligomer comprises, in the 5' to 3' direction: a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and (b) the complementary oligomer comprises, in the 3' to 5' direction: a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence. (a) the capture oligomer comprises, in the 5' to 3' direction: a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and a capture sequence comprising first and second portions, an internal extension blocker, a spacer sequence comprising first and second portions, and a target-hybridizing sequence; and (b) the complementary oligomer comprises, in the 3' to 5' direction: a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence. a complement of the second portion of the capture sequence, and a complement of at least the first portion of the spacer sequence, wherein the complement of the second portion of the capture sequence and the complement of the at least first portion of the spacer sequence are configured to anneal simultaneously to the capture oligomer in the absence of a complement of the spacer sequence.
A cannabinoid containing oral solution comprising: a cannabinoid present in an amount of from 5 to 40% (w/v), an ultrahigh potency sweetener present in an amount of less than 0.05% (w/v), ethanol present in an amount of less than 2% (w/v), a flavourant present in an amount of less 0.2% (w/v) and a lipid solvent q.s. to 100%, characterised in that the sweetener is N-[N-(3,3-dimethylbutyl)-L-α-aspartyl]-L-phenylalanine 1-methyl ester) or N-[n-3-(3-hydroxy-4methoxyphenyl)propyl-α-L-aspartyl]-L-phenylalanine 1-methyl ester).
Circuit arrangement for suppressing interference signals with the aid of a band-stop filter; the circuit arrangement has the following: a first local oscillator and a second local oscillator for generating a first local oscillator signal and a second local oscillator signal, respectively, with a respectively adjustable frequency; a first mixer for converting a radio-frequency signal (RF_IN) into a corresponding intermediate-frequency signal as determined by the first local oscillator signal with adjustable frequency; a second mixer for converting the intermediate-frequency signal into a corresponding baseband signal as determined by the second local oscillator signal with adjustable frequency; a notch filter having a stop band defined by a predetermined frequency response, which filter is designed for filtering the intermediate-frequency; a control unit which is designed for estimating the frequency (f S) of an interference signal contained in the intermediate-frequency signal and which is also designed for adapting the frequency of the local oscillator signals (L01, LO2) to the estimated frequency (f S) of the interference signal in such a manner that the frequency (f S) of the interference signal lies within the stop band of the notch filter. a first local oscillator and a second local oscillator for generating a first local oscillator signal and a second local oscillator signal, respectively, with a respectively adjustable frequency; a first mixer for converting a radio-frequency signal (RF_IN) into a corresponding intermediate-frequency signal as determined by the first local oscillator signal with adjustable frequency; a second mixer for converting the intermediate-frequency signal into a corresponding baseband signal as determined by the second local oscillator signal with adjustable frequency; a notch filter having a stop band defined by a predetermined frequency response, which filter is designed for filtering the intermediate-frequency; a control unit which is designed for estimating the frequency (f S) of an interference signal contained in the intermediate-frequency signal and which is also designed for adapting the frequency of the local oscillator signals (L01, LO2) to the estimated frequency (f S) of the interference signal in such a manner that the frequency (f S) of the interference signal lies within the stop band of the notch filter.
Method for producing a metal composite material with an embedded functional structure, in which method a layer structure composed of a plurality of layers (4, 5, 6), which are arranged above one another in a vertical direction, is produced and compressed, wherein the layer structure is produced by way of the following steps: - providing a lower layer from a metal substrate, - arranging an intermediate layer at least in certain portions in the vertical direction above the lower layer, said intermediate layer contacting the lower layer, and - arranging one or more functional structures in each case in a portion of the layer structure, characterized in that, prior to the compression operation, the layer structure in the respective portion with the functional structure, at least in a partial portion or over the entire longitudinal and/or transverse extent of the portion with the functional structure, has the same thickness as in the rest of the layer structure; the lower layer is deformed or provided with profiling in certain portions, as a result of which at least one recessed portion is formed; a functional structure is inserted in the respective recessed portions and the functional structure is provided with electrical contacts before or after insertion into the respective recessed portion. - providing a lower layer from a metal substrate, - arranging an intermediate layer at least in certain portions in the vertical direction above the lower layer, said intermediate layer contacting the lower layer, and - arranging one or more functional structures in each case in a portion of the layer structure,
A main rotor arrangement for a wind turbine, comprising: a shaft which is rotatable within a shaft housing about a rotational axis, a bearing including an inner ring and an outer ring, and a plurality of rolling elements, wherein the bearing is located between the shaft and the housing thereby to enable the shaft to rotate within the shaft housing; wherein the shaft housing includes a first lubrication passage for carrying lubricating fluid through the shaft housing, wherein the outer ring of the bearing includes a second lubricating passage to direct lubricating fluid from the first lubricating passage in the direction of the plurality of rolling elements, wherein the second lubricating passage defines a raceway opening at a position over which rollers travel as the shaft rotates. a shaft which is rotatable within a shaft housing about a rotational axis, a bearing including an inner ring and an outer ring, and a plurality of rolling elements, wherein the bearing is located between the shaft and the housing thereby to enable the shaft to rotate within the shaft housing; wherein the shaft housing includes a first lubrication passage for carrying lubricating fluid through the shaft housing, wherein the outer ring of the bearing includes a second lubricating passage to direct lubricating fluid from the first lubricating passage in the direction of the plurality of rolling elements, wherein the second lubricating passage defines a raceway opening at a position over which rollers travel as the shaft rotates.
A method for wireless communication, executed at a user equipment, UE, comprising: determining a first encoding scheme used to encode first downlink control information, DCI, and a second encoding scheme used to encode second DCI, wherein the determination is based on a type of radio network temporary identifier, RNTI, associated with the first DCI or the second DCI and wherein a DCI associated with SI-/P-/RA-/G-/SC-/TPC-PUCCH-/PUSCH-RNTI is encoded using a tail-biting convolution code, TBCC, scheme and a DCI associated with C-/SPS-C-RNTI is encoded using polar coding; and detecting one or more first decoding candidates for the first DCI based on the first encoding scheme and one or more second decoding candidates for the second DCI based on the second encoding scheme. determining a first encoding scheme used to encode first downlink control information, DCI, and a second encoding scheme used to encode second DCI, wherein the determination is based on a type of radio network temporary identifier, RNTI, associated with the first DCI or the second DCI and wherein a DCI associated with SI-/P-/RA-/G-/SC-/TPC-PUCCH-/PUSCH-RNTI is encoded using a tail-biting convolution code, TBCC, scheme and a DCI associated with C-/SPS-C-RNTI is encoded using polar coding; and detecting one or more first decoding candidates for the first DCI based on the first encoding scheme and one or more second decoding candidates for the second DCI based on the second encoding scheme.
A method comprising: (i) applying cells extracted from peripheral blood of a mammalian donor to one or more gradients suitable for selecting cells having a density less than 1.072 g/ml and deriving an initiating cell population from the cells applied to the gradient, wherein the ICP comprises at least 5 million cells that have a density of less than 1.072 g/ml, and at least 1% of which are CD34+CD45-/dim,and (ii) in vitro stimulating the ICP with one or more factors selected from the group consisting of growth factors and steroids, to differentiate into a progenitor/precursor cell population, wherein the progenitor/precursor cell population includes one or more cell types selected from the group consisting of: angiogenic cell precursors (ACPs), and cardiomyocyte precursors (CMCs). (i) applying cells extracted from peripheral blood of a mammalian donor to one or more gradients suitable for selecting cells having a density less than 1.072 g/ml and deriving an initiating cell population from the cells applied to the gradient, wherein the ICP comprises at least 5 million cells that have a density of less than 1.072 g/ml, and at least 1% of which are CD34+CD45-/dim,and (ii) in vitro stimulating the ICP with one or more factors selected from the group consisting of growth factors and steroids, to differentiate into a progenitor/precursor cell population, wherein the progenitor/precursor cell population includes one or more cell types selected from the group consisting of: angiogenic cell precursors (ACPs), and cardiomyocyte precursors (CMCs).
A speaker assembly, comprising: a shellpot for receiving a speaker motor, the shellpot including a groove extending along an outer surface thereof; and a speaker basket including a base portion having an opening therein for receiving the shellpot, the speaker basket including a plurality of flexible tabs substantially surrounding a perimeter of the opening, each tab having a width extending along the perimeter of the opening wherein each tab tapers along its width from a central portion thereof outwardly to peripheral portions at both ends thereof for providing more flexibility at the ends of the tabs and more rigidity and strength at the central portion of the tabs, wherein the plurality of tabs are received in the groove to couple the shellpot to the speaker basket. a shellpot for receiving a speaker motor, the shellpot including a groove extending along an outer surface thereof; and a speaker basket including a base portion having an opening therein for receiving the shellpot, the speaker basket including a plurality of flexible tabs substantially surrounding a perimeter of the opening, each tab having a width extending along the perimeter of the opening wherein each tab tapers along its width from a central portion thereof outwardly to peripheral portions at both ends thereof for providing more flexibility at the ends of the tabs and more rigidity and strength at the central portion of the tabs, wherein the plurality of tabs are received in the groove to couple the shellpot to the speaker basket.
A method for determining the presence or absence of a microorganism nucleic acid in a test sample, the method comprising: i) contacting the test sample with a discriminatory positive control nucleic acid; ii) preparing an extract from at least some of the test sample, the extract comprising the discriminatory positive control nucleic acid and, if present in the sample, the microorganism nucleic acid; iii) contacting the extract with a primer, wherein the primer is capable of binding to the discriminatory positive control nucleic acid and, if present, to the microorganism nucleic acid; iv) amplifying at least some of the discriminatory positive control nucleic acid resulting in a discriminatory positive control amplicon, and, if present, the microorganism nucleic acid resulting in a microorganism amplicon; wherein amplification is performed in the presence of an intercalating dye; v) detecting the presence or absence of the microorganism amplicon; and detecting the presence or absence of the discriminatory positive control amplicon; wherein detection comprises measuring a detectable signal of the intercalating dye over a change in temperature; and generating a first melt curve for the discriminatory positive control amplicon and a second melt curve for a microorganism amplicon if present; wherein an apex in a melt curve indicates the dissociation temperature of a double stranded amplicon; and wherein the presence of a microorganism amplicon indicates the presence of the microorganism nucleic acid in the test sample; the presence of the discriminatory positive control amplicon and the absence of a microorganism amplicon indicates the absence of microorganism nucleic acid in the test sample; and the absence of the discriminatory positive control amplicon indicates that the method is inconclusive. i) contacting the test sample with a discriminatory positive control nucleic acid; ii) preparing an extract from at least some of the test sample, the extract comprising the discriminatory positive control nucleic acid and, if present in the sample, the microorganism nucleic acid; iii) contacting the extract with a primer, wherein the primer is capable of binding to the discriminatory positive control nucleic acid and, if present, to the microorganism nucleic acid; iv) amplifying at least some of the discriminatory positive control nucleic acid resulting in a discriminatory positive control amplicon, and, if present, the microorganism nucleic acid resulting in a microorganism amplicon; wherein amplification is performed in the presence of an intercalating dye; v) detecting the presence or absence of the microorganism amplicon; and detecting the presence or absence of the discriminatory positive control amplicon;