mhurhangee/ep-ind-claims huggingface dataset:
A detergent composition comprising alkali metal carbonate, a chelant wherein the chelant is a mixture of methylglycinediacetic acid, glutamic acid N,N-diacetic acid and alkali metal tripolyphosphate, alkali metal percarbonate, and a peroxidation catalyst according to the formula wherein L 1 and L 2 can either be separate ligands or where L 1 and L 2 can combine to be a single molecule; each L independently is an organic ligand containing at least three nitrogen atoms that coordinate with the metal M; M is Mn or Fe; each X independently is a coordinating or bridging group, wherein the coordinating or bridging group is H 2 O, OH -, SH -, HO 2 -, O 2-, O 2 2-, S 2-, F -, Cl -, Br -, I -, NO 3 -, NO 2 -, SO 4 2-, SO 3 2-, PO 4 3-, N 3 -, CN -, NR 3, NCS -, RCN, RS -, RCO 2 -, RO -, or with R being hydrogen or a C 1 to C 6 alkyl group; Y is a counter ion; wherein the molar ratio of chelant to alkali metal percarbonate is in the range of 1.8 to 3.4; wherein said molar ratio is calculated based on the total molar amount of methylglycinediacetic acid, glutamic acid N,N-diacetic acid, and alkali metal tripolyphosphate; wherein for the purpose of calculating said molar ratio alkali metal percarbonate is assumed to have the formula 2(M 2 CO 3)·3H 2 O 2, where M represents an alkali metal; and wherein the total amount of methylglycine diacetic acid, glutamic acid N,N-diacetic acid and alkali metal tripolyphosphate is not more than 35 % by weight. wherein L 1 and L 2 can either be separate ligands or where L 1 and L 2 can combine to be a single molecule; each L independently is an organic ligand containing at least three nitrogen atoms that coordinate with the metal M; M is Mn or Fe; each X independently is a coordinating or bridging group, wherein the coordinating or bridging group is H 2 O, OH -, SH -, HO 2 -, O 2-, O 2 2-, S 2-, F -, Cl -, Br -, I -, NO 3 -, NO 2 -, SO 4 2-, SO 3 2-, PO 4 3-, N 3 -, CN -, NR 3, NCS -, RCN, RS -, RCO 2 -, RO -, or with R being hydrogen or a C 1 to C 6 alkyl group; Y is a counter ion;
A multiple-glazed glass unit adapted to separate an indoor space and an outdoor space, the multiple-glazed glass unit comprising a pair of glass panes (2, 3) opposed across a gap layer to be spaced at a predetermined distance from each other, wherein a first low-emissivity (Low-E) film is formed on one principal surface of one of the pair of glass panes (2, 3) that is located closer to the indoor space, the one principal surface facing the gap layer, and wherein a low-emissivity (Low-E) film is not formed on either of the principal surfaces of the other of the pair of glass panes that is located closer to the outdoor space, a second low-emissivity film is formed on the other principal surface of the one glass pane, the other principal surface facing the indoor space, the second low-emissivity film formed on the other principal surface facing the indoor space has an arithmetic average surface roughness Ra of 14 nm or less, and the gap layer is a vacuum layer having a thickness of 0.1 to 1 mm. a first low-emissivity (Low-E) film is formed on one principal surface of one of the pair of glass panes (2, 3) that is located closer to the indoor space, the one principal surface facing the gap layer, and wherein a low-emissivity (Low-E) film is not formed on either of the principal surfaces of the other of the pair of glass panes that is located closer to the outdoor space, a second low-emissivity film is formed on the other principal surface of the one glass pane, the other principal surface facing the indoor space, the second low-emissivity film formed on the other principal surface facing the indoor space has an arithmetic average surface roughness Ra of 14 nm or less, and the gap layer is a vacuum layer having a thickness of 0.1 to 1 mm.
A hearing device comprising: - a first microphone for provision of a first microphone input signal; - a sound impulse suppression module configured for detecting a sound impulse in the first microphone input signal; - a processor for processing the first microphone input signal in a processing set of frequency bands to obtain an electrical output signal; and - a receiver for converting the electrical output signal to an audio output signal, wherein the sound impulse suppression module is configured to apply a detection scheme on the first microphone input signal, wherein the detection scheme defines a detection set of frequency bands, wherein the frequency bands of the detection set cover a part of the frequency bands of the processing set, and wherein a sound impulse is detected based on the detection set of frequency bands. - a first microphone for provision of a first microphone input signal; - a sound impulse suppression module configured for detecting a sound impulse in the first microphone input signal; - a processor for processing the first microphone input signal in a processing set of frequency bands to obtain an electrical output signal; and - a receiver for converting the electrical output signal to an audio output signal, wherein the sound impulse suppression module is configured to apply a detection scheme on the first microphone input signal, wherein the detection scheme defines a detection set of frequency bands, wherein the frequency bands of the detection set cover a part of the frequency bands of the processing set, and wherein a sound impulse is detected based on the detection set of frequency bands.
Modular cycle lane delineator; suitable for segregating a cycle lane from other traffic lanes; which comprises: initial parts to form one-piece modules; end parts (10b, 10c); and intermediate parts to form multi-piece modules; said parts (10a- 10d) being shaped in the form of a prism, closed at each end; said parts (10a-10d) comprising: an initial side formed by a base resting on the ground; a second side and a third side that converge on a rounded upper corner and along with the initial side on the base they form angles of different sizes; the second side, pointing towards the traffic lane, has a sharp gradient; and the third side, pointing towards the cycle lane, has a very gentle gradient; and said parts (10a-10d) have shafts for the screw bolts to be inserted to secure it to the ground, characterised in that the parts are made from vulcanised rubber; in that the prism is shaped as a hollow triangular prism; in that the initial side is open and in that the said parts have reinforcement ribs on the inside.
A metal pigment composition which is a coloring composition or a composition to be used for preparation of the coloring composition, the metal pigment composition comprising: a metal pigment; a polyoxyalkyleneamine compound; and a liquid medium component, wherein the metal pigment includes metal particles, the metal particles are surface-modified with a surface treatment agent, and the surface treatment agent is at least one selected from the group consisting of a compound represented by the following formula and a compound represented by the following formula (A-R-O) a P 3-a (A-R)P 2 where in the formulas, A represents a hydrogen atom, a carboxy group, a hydroxy group, an amino group, or an oxyalkylene-containing group, R represents a divalent hydrocarbon group having 10 carbon atoms or more, and a represents 1 or 2. a metal pigment; a polyoxyalkyleneamine compound; and a liquid medium component, wherein the metal pigment includes metal particles, the metal particles are surface-modified with a surface treatment agent, and the surface treatment agent is at least one selected from the group consisting of a compound represented by the following formula and a compound represented by the following formula (A-R-O) a P 3-a (A-R)P 2 where in the formulas, A represents a hydrogen atom, a carboxy group, a hydroxy group, an amino group, or an oxyalkylene-containing group, R represents a divalent hydrocarbon group having 10 carbon atoms or more, and a represents 1 or 2.
Storage box (1, 2) for an armoured vehicle, with a turret and at least one fastening point on the turret, the storage box (1, 2) comprising at least one box flap, wherein the storage box (1, 2) is constructed from at least two parts, wherein one of the parts of the storage box may be pivotably arranged at one of the fastening points by means of at least one pivot bearing, wherein each part of the storage box (1, 2) has an opening, which can be closed by a box flap (3, 4).
An exhaust gas-purifying catalyst, characterized by comprising: a support substrate; a first catalyst support layer formed on the support substrate and containing a composite oxide of a first rare earth element and zirconium; a first catalytic metal supported by the first catalyst support layer; a second catalyst support layer formed on the first catalyst support layer and containing a composite oxide of a second rare earth element and zirconium; and a second catalytic metal supported by the second catalyst support layer and differing from the first catalytic metal, wherein all oxides containing the first rare earth element are composite oxides of the first rare earth element and zirconium in which an atomic ratio of zirconium to the first rare earth element is equal to or higher than 0.8, and all oxides containing the second rare earth element are composite oxides of the second rare earth element and zirconium in which an atomic ratio of zirconium to the second rare earth element is equal to or higher than 0.8, and the exhaust gas-purifying catalyst does not contain any composite oxide in which an atomic ratio of zirconium to a rare earth element is lower than 0.8 and any oxide containing only a rare earth element as a metal element, and the exhaust gas-purifying catalyst contains only the composite oxide and the composite oxide as an oxide containing rare earth element. a support substrate; a first catalyst support layer formed on the support substrate and containing a composite oxide of a first rare earth element and zirconium; a first catalytic metal supported by the first catalyst support layer; a second catalyst support layer formed on the first catalyst support layer and containing a composite oxide of a second rare earth element and zirconium; and a second catalytic metal supported by the second catalyst support layer and differing from the first catalytic metal, wherein all oxides containing the first rare earth element are composite oxides of the first rare earth element and zirconium in which an atomic ratio of zirconium to the first rare earth element is equal to or higher than 0.8, and all oxides containing the second rare earth element are composite oxides of the second rare earth element and zirconium in which an atomic ratio of zirconium to the second rare earth element is equal to or higher than 0.8, and the exhaust gas-purifying catalyst does not contain any composite oxide in which an atomic ratio of zirconium to a rare earth element is lower than 0.8 and any oxide containing only a rare earth element as a metal element, and the exhaust gas-purifying catalyst contains only the composite oxide and the composite oxide as an oxide containing rare earth element.
A method of cosmetically whitening the teeth characterised in that it comprises the following steps: i) selecting a substantially rectangular application device; ii) applying composition comprising water, trisodium phosphate, monosodium phosphate and cellulose gum to the surface of the application device iii) followed by applying a non-aqueous composition comprising calcium silicate, calcium silicate coated TIO 2 and glycerol to the same surface of the application device as the first composition was applied to; iv) placing a treated surface of device iii) on the teeth for sustained contact. i) selecting a substantially rectangular application device; ii) applying composition comprising water, trisodium phosphate, monosodium phosphate and cellulose gum to the surface of the application device iii) followed by applying a non-aqueous composition comprising calcium silicate, calcium silicate coated TIO 2 and glycerol to the same surface of the application device as the first composition was applied to; iv) placing a treated surface of device iii) on the teeth for sustained contact.
A method of manufacturing a light emitting device, comprising: providing a substrate (140, 250); forming a plurality of photosensitive bumps over the substrate (140, 250); and forming a photosensitive layer over the plurality of photosensitive bumps; said method characterized by further comprising: forming a buffer layer between the photosensitive layer and the photosensitive bumps; vertically patterning the photosensitive layer and the buffer layer to form a recess (312, 313) through the photosensitive layer and the buffer layer; laterally and partially removing the buffer layer to expand the recess and form a undercut to expose a surface; disposing an organic emissive layer on the surface, and removing the patterned photosensitive layer and the buffer layer. providing a substrate (140, 250); forming a plurality of photosensitive bumps over the substrate (140, 250); and forming a photosensitive layer over the plurality of photosensitive bumps; said method characterized by further comprising: forming a buffer layer between the photosensitive layer and the photosensitive bumps; vertically patterning the photosensitive layer and the buffer layer to form a recess (312, 313) through the photosensitive layer and the buffer layer; laterally and partially removing the buffer layer to expand the recess and form a undercut to expose a surface; disposing an organic emissive layer on the surface, and removing the patterned photosensitive layer and the buffer layer. forming a buffer layer between the photosensitive layer and the photosensitive bumps; vertically patterning the photosensitive layer and the buffer layer to form a recess (312, 313) through the photosensitive layer and the buffer layer; laterally and partially removing the buffer layer to expand the recess and form a undercut to expose a surface; disposing an organic emissive layer on the surface, and removing the patterned photosensitive layer and the buffer layer.
A field emission cathode (100, 202, 210), comprising: - an at least partly electrically conductive base structure (102, 204, 212); and - a plurality of electrically conductive micrometer sized sections (104, 206) spatially distributed at the base structure (102, 204, 212), wherein each of the plurality of micrometer sized sections (104, 206) is provided with a plurality of electrically conductive nanostructures (106, 208), wherein - the micrometer sized sections (104, 206) have an aspect ratio of at least 3:1, height in relation to width; - the plurality of micrometer sized sections (104, 206) have a shape of polygonal or circular, cylinders, having a diameter in width between 5 - 500 micrometer and a length in height up to 10 millimeters, and - at least a portion the plurality of nanostructures (106, 208) has a shape of polygonal or circular cylinders, having a diameter between 5 - 500 nanometer and a length up to 500 nanometers, wherein the plurality nanostructures (106, 208) are provided on the outer tips of the micrometer sized sections (104, 106). - an at least partly electrically conductive base structure (102, 204, 212); and - a plurality of electrically conductive micrometer sized sections (104, 206) spatially distributed at the base structure (102, 204, 212), - the micrometer sized sections (104, 206) have an aspect ratio of at least 3:1, height in relation to width; - the plurality of micrometer sized sections (104, 206) have a shape of polygonal or circular, cylinders, having a diameter in width between 5 - 500 micrometer and a length in height up to 10 millimeters, and - at least a portion the plurality of nanostructures (106, 208) has a shape of polygonal or circular cylinders, having a diameter between 5 - 500 nanometer and a length up to 500 nanometers, wherein the plurality nanostructures (106, 208) are provided on the outer tips of the micrometer sized sections (104, 106).
A method for manufacturing a photoelectric conversion device comprising: forming a first transparent electrode and a second transparent electrode which is adjacent to the first transparent electrode and is separated from the first transparent electrode, on a transparent substrate; forming a photoelectric conversion layer containing a perovskite compound to cover the first transparent electrode and the second transparent electrode, on the transparent substrate; forming a counter electrode on the photoelectric conversion layer, characterised in that the method further comprises: altering a part of the perovskite compound in the photoelectric conversion layer to a substance having electrical resistance higher than electrical resistance of the photoelectric conversion layer to form an inactive region and, separating at least the photoelectric conversion layer into a first photoelectric conversion layer and a second photoelectric conversion layer while corresponding to the first and second transparent electrodes. forming a first transparent electrode and a second transparent electrode which is adjacent to the first transparent electrode and is separated from the first transparent electrode, on a transparent substrate; forming a photoelectric conversion layer containing a perovskite compound to cover the first transparent electrode and the second transparent electrode, on the transparent substrate; forming a counter electrode on the photoelectric conversion layer, characterised in that the method further comprises: altering a part of the perovskite compound in the photoelectric conversion layer to a substance having electrical resistance higher than electrical resistance of the photoelectric conversion layer to form an inactive region and, separating at least the photoelectric conversion layer into a first photoelectric conversion layer and a second photoelectric conversion layer while corresponding to the first and second transparent electrodes.
A preservative for food or feed comprising: an effective amount of acidified clay capable of inactivating a mycotoxin and capable of killing or inhibiting the growth of a microorganism, wherein the acidified clay comprises a clay blended with an acid or an acidic mixture, said acid or acidic mixture comprising a sparingly-soluble Group IIA complex ("AGIIS"), and wherein the weight ratio of the clay to the acid or the acidic mixture ranges from 50: 1 to 1: 5, and wherein the clay is an isolated low-sodium, calcium aluminosilicate clay that is substantially free from dioxins and priority toxic heavy metal contamination, and is capable of binding aflatoxins, wherein the isolated low sodium, calcium aluminosilicate clay has a chemical composition comprising: CaO above about 3.2%; MgO ranging from 4.0 to 5.4%; Fe 2 O 3 ranging from 5.4 to 6.5%; K 2 O ranging from 0.50 to 0.90%; Na 2 O ranging from 0.10 to 0.30%; MnO ranging from 0.01 to 0.03%; Al 2 O 3 ranging from 14.8 to 18.2%; and SiO 2 ranging from 62.4 to 73.5%; wherein, the chemical composition is given as weight percent, and wherein the clay has a substantially uniform particle size of less than about 80 microns.
-A method for determining a resonance frequency of a mechanical system comprising an electric motor coupled to a mechanical load, said method comprising: starting the motor by providing a supply voltage using a motor controller; once the electric motor is running at a predefined target rotational speed, applying a first excitation signal comprising a voltage pulse superimposed to the supply voltage; measuring a mechanical response of the mechanical system by measuring stator currents of the motor using a measurement system coupled to the motor, said measurement system comprising one or more current sensors coupled to input terminals of the stator of the motor; analyzing (S106, S108) the measured response, to determine at least one resonance frequency of the mechanical system based on the measured stator currents, wherein determining the resonance frequency of the mechanical system comprises: calculating, from the measured stator currents, corresponding stator current values (I d, I q) expressed in the synchronous frame of the motor; characterized in that determining the resonance frequency of the mechanical system comprises: calculating phase difference values between the calculated corresponding stator current values (I d, I q); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations. starting the motor by providing a supply voltage using a motor controller; once the electric motor is running at a predefined target rotational speed, applying a first excitation signal comprising a voltage pulse superimposed to the supply voltage; measuring a mechanical response of the mechanical system by measuring stator currents of the motor using a measurement system coupled to the motor, said measurement system comprising one or more current sensors coupled to input terminals of the stator of the motor; analyzing (S106, S108) the measured response, to determine at least one resonance frequency of the mechanical system based on the measured stator currents, wherein determining the resonance frequency of the mechanical system comprises: calculating, from the measured stator currents, corresponding stator current values (I d, I q) expressed in the synchronous frame of the motor; characterized in that determining the resonance frequency of the mechanical system comprises: calculating phase difference values between the calculated corresponding stator current values (I d, I q); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations. calculating phase difference values between the calculated corresponding stator current values (I d, I q); identifying oscillations in the calculated phase difference values; determining the resonance frequency based on the identified oscillations.