mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining the value of a cell voltage U m of an m-th cell of series-connected cells, comprising the steps of: providing an electrical reference voltage V ref changing over time; comparing the electrical reference voltage V ref with the electrical voltages V n and V n+1 ; outputting a first signal S1 when the electrical reference voltage V ref reaches the value of the electrical voltage V n in terms of value; determining the value of the electrical voltage V n by means of the signal S1; outputting a second signal S2 when the electrical reference voltage V ref reaches the value of the electrical voltage V n+1 in terms of value; determining the value of the electrical voltage V n+1 by means of the signal S2; calculating the cell voltage U m based on the following equation: U m = V n + 1 − V n , wherein an electrical voltage V n is applied between a reference potential P and a first electrode of the m-th cell and an electrical voltage V n+1 is applied between the reference potential P and a second electrode of the m-th cell characterized in that the signals S1 and/or S2 are interrupt signals and are output via a common signal line. providing an electrical reference voltage V ref changing over time; comparing the electrical reference voltage V ref with the electrical voltages V n and V n+1 ; outputting a first signal S1 when the electrical reference voltage V ref reaches the value of the electrical voltage V n in terms of value; determining the value of the electrical voltage V n by means of the signal S1; outputting a second signal S2 when the electrical reference voltage V ref reaches the value of the electrical voltage V n+1 in terms of value; determining the value of the electrical voltage V n+1 by means of the signal S2; calculating the cell voltage U m based on the following equation: U m = V n + 1 − V n , wherein an electrical voltage V n is applied between a reference potential P and a first electrode of the m-th cell and an electrical voltage V n+1 is applied between the reference potential P and a second electrode of the m-th cell characterized in that the signals S1 and/or S2 are interrupt signals and are output via a common signal line.
A device (14, 16; 204) for rendering audio data, the device comprising: a memory configured to store encoded audio data of an encoded audio bitstream ; and one or more processors in communication with the memory, the one or more processors being configured to: parse a portion of the encoded audio data stored to the memory to select a renderer for the encoded audio data, the selected renderer comprising one of an object-based renderer or an ambisonic renderer; and render the encoded audio data using the selected renderer to generate one or more rendered speaker feeds . a memory configured to store encoded audio data of an encoded audio bitstream ; and one or more processors in communication with the memory, the one or more processors being configured to: parse a portion of the encoded audio data stored to the memory to select a renderer for the encoded audio data, the selected renderer comprising one of an object-based renderer or an ambisonic renderer; and render the encoded audio data using the selected renderer to generate one or more rendered speaker feeds . parse a portion of the encoded audio data stored to the memory to select a renderer for the encoded audio data, the selected renderer comprising one of an object-based renderer or an ambisonic renderer; and render the encoded audio data using the selected renderer to generate one or more rendered speaker feeds .
A power control method, comprising: configuring, by a first communication node for a second communication node, an association between a first power control parameter and reference signal information; configuring, by the first communication node for the second communication node, a reference signal resource set including a plurality of reference signal resources; and sending, by the first communication node, an indication indicating a reference signal of a transmission to a second communication node, wherein the reference signal and the association are used by the second communication node to determine a second power control parameter of the transmission, wherein for a codebook based transmission, the association is between the first power control parameter and each of the plurality of reference signal resources, and wherein for a non codebook based transmission, the association is between the first power control parameter and each of at least a part of possible combinations of the plurality of reference signal resources. configuring, by a first communication node for a second communication node, an association between a first power control parameter and reference signal information; configuring, by the first communication node for the second communication node, a reference signal resource set including a plurality of reference signal resources; and sending, by the first communication node, an indication indicating a reference signal of a transmission to a second communication node, wherein the reference signal and the association are used by the second communication node to determine a second power control parameter of the transmission, wherein for a codebook based transmission, the association is between the first power control parameter and each of the plurality of reference signal resources, and wherein for a non codebook based transmission, the association is between the first power control parameter and each of at least a part of possible combinations of the plurality of reference signal resources.
A compound of Formula (I), or a pharmaceutically acceptable salt thereof, wherein: Z is -(CH 2 ) m -, which is unsubstituted or substituted by one or more substituents selected from the group consisting of hydroxy, carbonyl and C 1-5 alkyl, m is an integer of 3 ∼ 5; Y is O or S; Q is N or CH; n = 1, 2 or 3; R 1 , R 2 , R 3 or R 4 is each independently hydrogen, halogen, C 1-5 alkyl, wherein the C 1-5 alkyl is unsubstituted or substituted by one or more substituents selected from the group consisting of halogen, amino and hydroxy; R is phenyl, or a group of Formula (II), Formula (III) or Formula (IV), wherein the above groups are unsubstituted or substituted by one or more substituents selected from the group consisting of halogen, cyano, C 1-5 alkyl, C 1-5 alkoxyl and hydroxy; wherein, X in Formula (II) is O, R 5 is H or halogen. Z is -(CH 2 ) m -, which is unsubstituted or substituted by one or more substituents selected from the group consisting of hydroxy, carbonyl and C 1-5 alkyl, m is an integer of 3 ∼ 5; Y is O or S; Q is N or CH; n = 1, 2 or 3; R 1 , R 2 , R 3 or R 4 is each independently hydrogen, halogen, C 1-5 alkyl, wherein the C 1-5 alkyl is unsubstituted or substituted by one or more substituents selected from the group consisting of halogen, amino and hydroxy; R is phenyl, or a group of Formula (II), Formula (III) or Formula (IV), wherein the above groups are unsubstituted or substituted by one or more substituents selected from the group consisting of halogen, cyano, C 1-5 alkyl, C 1-5 alkoxyl and hydroxy; wherein, X in Formula (II) is O, R 5 is H or halogen.
A security and/or valuable document having a security element, wherein the security element has a photonic crystal arranged on a substrate and a luminescent substance, characterized in that the particles, by which the photonic crystal is formed, are adjusted with regard to an emission wavelength lambda of the luminescent substance such that an emission wavelength lambda of the luminescent substance complies with the formula lambda = m * 2 * d wherein d is a distance between two lattice planes of the photonic crystal and d and the grid constant a have the following relation: d = a / (h 2 + k 2 + l 2 ) 0.5 , and m is a positive integer, such that the intensity of the luminescence radiation is different under different viewing angles.
A light-emitting electrochemical cell comprising a first electrode, a second electrode, and a light-emitting layer disposed between the first electrode and the second electrode, wherein the light-emitting layer contains an ionic compound, and characterized in that the ionic compound contains an anion having a silicon atom. the light-emitting layer contains an ionic compound, and characterized in that the ionic compound contains an anion having a silicon atom.
An antenna module comprising: a printed circuit board on which at least one layer is stacked and including a feed port formed at a portion of a upper surface thereof; a first antenna array disposed on the upper surface of the printed circuit board; a second antenna array disposed on the upper surface of the printed circuit board and spaced apart from the first antenna array ; a first feed line to electrically connect the feed port and the first antenna array , the first feed line including a compensator to adjust a length of the first feed line ; wherein the compensator comprises a planar metal pattern on the upper surface of the printed circuit board comprising a repeating series of unit patterns , each unit pattern comprising inductance components connected in series and capacitance components connected in parallel, a dielectric layer disposed on the upper surface of the metal pattern , a metal layer disposed on the upper surface of the dielectric layer so as to be spaced apart by a preset distance from the metal pattern , and a ground layer on a bottom surface of the printed circuit board; and a second feed line to electrically connect the feed port and the second antenna array , wherein the length of the first feed line is shorter than a length of the second feed line ; and wherein the compensator generates a phase shift of 360 degrees in an electrical signal supplied by the first feed line to the first antenna array so as make the electrical length of the first feed line identical to the electrical length of the second feed line . a printed circuit board on which at least one layer is stacked and including a feed port formed at a portion of a upper surface thereof; a first antenna array disposed on the upper surface of the printed circuit board; a second antenna array disposed on the upper surface of the printed circuit board and spaced apart from the first antenna array ; a first feed line to electrically connect the feed port and the first antenna array , the first feed line including a compensator to adjust a length of the first feed line ; wherein the compensator comprises a planar metal pattern on the upper surface of the printed circuit board comprising a repeating series of unit patterns , each unit pattern comprising inductance components connected in series and capacitance components connected in parallel, a dielectric layer disposed on the upper surface of the metal pattern , a metal layer disposed on the upper surface of the dielectric layer so as to be spaced apart by a preset distance from the metal pattern , and a ground layer on a bottom surface of the printed circuit board; and a second feed line to electrically connect the feed port and the second antenna array , wherein the length of the first feed line is shorter than a length of the second feed line ; and wherein the compensator generates a phase shift of 360 degrees in an electrical signal supplied by the first feed line to the first antenna array so as make the electrical length of the first feed line identical to the electrical length of the second feed line .
A method of forming an aluminum, an aluminum alloy or other aluminum-based composition that generates hydrogen gas upon contact with water or other aqueous compositions, the method comprising: providing aluminum, an aluminum alloy or another aluminum-based composition; providing a second metal, second alloy or other second metal-based composition selected from the group consisting of: tin (Sn), bismuth (Bi), lead (Pb), gallium (Ga), indium (In), and mixtures and alloys thereof; milling the aluminum, aluminum alloy or other aluminum-based composition and the second metal, alloy or other metal-based composition to produce a powder; producing a milled, powder composition that comprises grains or subgrains of aluminum, which comprise small particles of the dispersed second metal, second alloy or other second metal-based composition having a particle size of no more than about 100 nm, the grains or subgrains of aluminum providing an anodic matrix and the small particles providing a cathodic disperse phase, wherein the cathodic disperse phase forms galvanic couples with the anodic matrix, wherein the milled, powder composition produces hydrogen at a hydrogen production reaction rate greater than 74 % of the theoretical yield for aluminum at 25 °C (298 K) and 1 atm. in 5 minutes when contacted with water, a water containing liquid, or another electrolyte. providing aluminum, an aluminum alloy or another aluminum-based composition; providing a second metal, second alloy or other second metal-based composition selected from the group consisting of: tin (Sn), bismuth (Bi), lead (Pb), gallium (Ga), indium (In), and mixtures and alloys thereof; milling the aluminum, aluminum alloy or other aluminum-based composition and the second metal, alloy or other metal-based composition to produce a powder; producing a milled, powder composition that comprises grains or subgrains of aluminum, which comprise small particles of the dispersed second metal, second alloy or other second metal-based composition having a particle size of no more than about 100 nm, the grains or subgrains of aluminum providing an anodic matrix and the small particles providing a cathodic disperse phase, wherein the cathodic disperse phase forms galvanic couples with the anodic matrix, wherein the milled, powder composition produces hydrogen at a hydrogen production reaction rate greater than 74 % of the theoretical yield for aluminum at 25 °C (298 K) and 1 atm. in 5 minutes when contacted with water, a water containing liquid, or another electrolyte.
A method for manufacturing an overmoulded part forming a structural part of a motor vehicle, comprising : - a moulding step during which at least one element of the part is moulded from a first thermosetting resin-based material, using a mould shaped so that at least one portion of the element forms a coverplate of material closing a non-through orifice , - an injection overmoulding step in which a second material based on thermoplastic resin is overmoulded, so that the closure breaks under the injection pressure and the orifice is filled with the second material through the element , characterized in that, the portion of the element made of a first material being delimited, at the level of the coverplate , by two opposite walls , and the coverplate being delimited by at least two opposite surfaces , the coverplate is formed in the thickness of the element , such that each of the surfaces of the coverplate are at a non-zero distance from the walls of the element. - a moulding step during which at least one element of the part is moulded from a first thermosetting resin-based material, using a mould shaped so that at least one portion of the element forms a coverplate of material closing a non-through orifice , - an injection overmoulding step in which a second material based on thermoplastic resin is overmoulded, so that the closure breaks under the injection pressure and the orifice is filled with the second material through the element ,
A method for producing iron-based alloy powders or particulate material, comprising the steps of: a) providing an alloy composition with a melting point above 1040 °C, b) melting the composition, and c) atomizing the molten composition by means of centrifugal atomization or rotating atomization, wherein the atomization is carried out using a rotating atomization device comprising an atomization vessel having an atomizing rotating element located in said atomization vessel, wherein the rotating element presents protuberances with a radial component, and wherein when the molten metal is poured on the atomizing rotating element, the geometry of the rotating element allows the distribution and flow of the liquid metal in a normal direction to the surface of the base of the rotating element, and wherein under the action of centrifugal forces, the particles are released from the periphery of the atomizing rotating element and projected in an outwardly direction into the atomization vessel, wherein the atomized particles begin to solidify, in contact with the atmosphere of the atomization vessel following a parabolic flight path, and wherein the produced powder has a sphericity greater than 0.92, wherein the sphericity refers to the average sphericity of the 60% of the volume of the produced powder or more, the sphericity being a dimensionless parameter defined as the ratio between the surface area of a sphere having the same volume as the particle and the surface area of the particle. a) providing an alloy composition with a melting point above 1040 °C, b) melting the composition, and c) atomizing the molten composition by means of centrifugal atomization or rotating atomization, wherein the atomization is carried out using a rotating atomization device comprising an atomization vessel having an atomizing rotating element located in said atomization vessel, wherein the rotating element presents protuberances with a radial component, and wherein when the molten metal is poured on the atomizing rotating element, the geometry of the rotating element allows the distribution and flow of the liquid metal in a normal direction to the surface of the base of the rotating element, and wherein under the action of centrifugal forces, the particles are released from the periphery of the atomizing rotating element and projected in an outwardly direction into the atomization vessel, wherein the atomized particles begin to solidify, in contact with the atmosphere of the atomization vessel following a parabolic flight path,
Autoclave for welding thermoplastic composite parts , comprising: a sealed process chamber , a pressure source , a microwave source , a workpiece supporting member configured to support at least two thermoplastic composite parts which contact each other in an abutting section within the process chamber , a control unit , and a monitoring device adapted to monitor the shape of the thermoplastic composite parts in the process chamber , wherein the pressure source is configured to generate positive pressure in the process chamber which is higher than an ambient pressure surrounding the process chamber while the microwave source emits microwaves towards the abutting section in order to locally melt the thermoplastic composite parts and weld them together in the region of the abutting section , characterized in that the pressure source is configured to reduce the pressure within the process chamber upon detection of a change of the shape of the thermoplastic composite parts in comparison to their initial shape upon placement in the process chamber and the control unit is adapted to control the operation of the pressure source . a sealed process chamber , a pressure source , a microwave source , a workpiece supporting member configured to support at least two thermoplastic composite parts which contact each other in an abutting section within the process chamber , a control unit , and a monitoring device adapted to monitor the shape of the thermoplastic composite parts in the process chamber , wherein the pressure source is configured to generate positive pressure in the process chamber which is higher than an ambient pressure surrounding the process chamber while the microwave source emits microwaves towards the abutting section in order to locally melt the thermoplastic composite parts and weld them together in the region of the abutting section , characterized in that the pressure source is configured to reduce the pressure within the process chamber upon detection of a change of the shape of the thermoplastic composite parts in comparison to their initial shape upon placement in the process chamber and the control unit is adapted to control the operation of the pressure source .
A nutritional composition containing non-denatured lactoferrin for use in the prevention or treatment of allergy, allergic rhinitis, asthma, urticaria, atopic eczema, allergic conjunctivitis, atopic dermatitis or atopic diseases in an infant or a toddler, said nutritional composition being selected from infant formula, follow-on formula and growing up-milk, said nutritional composition comprising 0.03-14 wt.% non-denatured lactoferrin, calculated by weight of total protein.
A sampling port comprising: an elongated flexible support tube having an interior surface bounding a first passageway extending between a first end and an opposing second end, the first passageway being closed at the first end of the support tube and open at the second end of the support tube; an elongated flexible sampling tube having an interior surface bounding a second passageway extending between a first end and an opposing second end, the second passageway being open at the first end of the sampling tube, with at least a portion of the sampling tube adjacently extending along the length of the support tube and being connected to the support tube; and a flange encircling and radially outwardly projecting from the support tube and the sampling tube at a location spaced apart from the first end of the support tube and the first end of the sampling tube. an elongated flexible support tube having an interior surface bounding a first passageway extending between a first end and an opposing second end, the first passageway being closed at the first end of the support tube and open at the second end of the support tube; an elongated flexible sampling tube having an interior surface bounding a second passageway extending between a first end and an opposing second end, the second passageway being open at the first end of the sampling tube, with at least a portion of the sampling tube adjacently extending along the length of the support tube and being connected to the support tube; and a flange encircling and radially outwardly projecting from the support tube and the sampling tube at a location spaced apart from the first end of the support tube and the first end of the sampling tube.