mhurhangee/patent-ind-claim-en huggingface dataset:
A cooking system for cooking a product, comprising: a supply of steam provided at a supply pressure; a steam pressure control valve having an input to receive the supply of steam at the supply pressure and an output controlled to provide the supply of steam at a regulated pressure; a steam supply pipeline to provide the supply of steam at the regulated pressure; a plurality of steam injection cookers each having a product input , a product output , a steam inlet and a steam modulator, wherein the steam inlet receive the supply of steam at the regulated pressure; and product supply pipeline having a product input and a product output , wherein product supply pipeline receives a product flow of the product at the product input, wherein the plurality of steam injection cookers are located along the product supply pipeline to heat the product flow as the product flows to the product output; and a control unit operable to control the steam pressure control valve and the steam modulator. a supply of steam provided at a supply pressure; a steam pressure control valve having an input to receive the supply of steam at the supply pressure and an output controlled to provide the supply of steam at a regulated pressure; a steam supply pipeline to provide the supply of steam at the regulated pressure; a plurality of steam injection cookers each having a product input , a product output , a steam inlet and a steam modulator, wherein the steam inlet receive the supply of steam at the regulated pressure; and product supply pipeline having a product input and a product output , wherein product supply pipeline receives a product flow of the product at the product input, wherein the plurality of steam injection cookers are located along the product supply pipeline to heat the product flow as the product flows to the product output; and a control unit operable to control the steam pressure control valve and the steam modulator.
A light distribution characteristic measurement apparatus for measuring a light distribution characteristic of a light source , comprising: a detecting unit adapted to detect light from the light source ; a mirror adapted to reflect the light from the light source to direct the light to the detecting unit ; a movement mechanism adapted to move the detecting unit and the mirror relatively to the light source ; wherein the movement mechanism is adapted to rotate the detecting unit and the mirror integrally with each other around the light source about a first axis (X, Y) and a second axis (Y, X), the second axis being orthogonal to the first axis; and a rotation mechanism is adapted to rotate the mirror about an axis parallel to the second axis while maintaining an optical path length from the light source to the detecting unit , and the center of the light source being located at an intersection of the first axis (X, Y) and the second axis (Y, X); and a processor is adapted to calculate the light distribution characteristic of the light source , based on a plurality of measurement results that are detected by the detecting unit under a condition that the detecting unit and the mirror are arranged at a plurality of measurement positions relative to the light source and the mirror is oriented at different rotational angles for each measurement position. a detecting unit adapted to detect light from the light source ; a mirror adapted to reflect the light from the light source to direct the light to the detecting unit ; a movement mechanism adapted to move the detecting unit and the mirror relatively to the light source ; wherein the movement mechanism is adapted to rotate the detecting unit and the mirror integrally with each other around the light source about a first axis (X, Y) and a second axis (Y, X), the second axis being orthogonal to the first axis; and a rotation mechanism is adapted to rotate the mirror about an axis parallel to the second axis while maintaining an optical path length from the light source to the detecting unit , and the center of the light source being located at an intersection of the first axis (X, Y) and the second axis (Y, X); and a processor is adapted to calculate the light distribution characteristic of the light source , based on a plurality of measurement results that are detected by the detecting unit under a condition that the detecting unit and the mirror are arranged at a plurality of measurement positions relative to the light source and the mirror is oriented at different rotational angles for each measurement position.
A water-based electrodeposition dispersion for forming an insulating film, comprising: polymer particles; an organic solvent; a basic compound; and water, wherein the polymer particles are made of polyamide-imide, the basic compound is a nitrogen-containing compound in which a HSP distance from water is 35 or greater, the basic compound is any one of primary alkylamines, secondary alkylamines, tripropylamine, tributylamine, triamylamine and trihexylamine, the HSP distance (Ra) refers to an inter-vector distance or a distance between the coordinates given by the HSP values of two substances, and is calculated through Formula , HSP Distance = 4 × dD 1 − dD 2 2 + dP 1 − dP 2 2 + dH 1 − dH 2 2 1 / 2 in Formula , dD 1 , dP 1 , and dH 1 are an HSP value of one of two substances, and dD 2 , dP 2 , and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater. polymer particles; an organic solvent; a basic compound; and water, wherein the polymer particles are made of polyamide-imide, the basic compound is a nitrogen-containing compound in which a HSP distance from water is 35 or greater, the basic compound is any one of primary alkylamines, secondary alkylamines, tripropylamine, tributylamine, triamylamine and trihexylamine, the HSP distance (Ra) refers to an inter-vector distance or a distance between the coordinates given by the HSP values of two substances, and is calculated through Formula , HSP Distance = 4 × dD 1 − dD 2 2 + dP 1 − dP 2 2 + dH 1 − dH 2 2 1 / 2 in Formula , dD 1 , dP 1 , and dH 1 are an HSP value of one of two substances, and dD 2 , dP 2 , and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater. in Formula , dD 1 , dP 1 , and dH 1 are an HSP value of one of two substances, and dD 2 , dP 2 , and dH 2 are an HSP value of the other substance, and the nitrogen-containing compound in which the HSP distance from water is 35 or greater refers to a nitrogen-containing compound in which the value of the HSP distance calculated by substituting the HSP value (dD=15.5, dP=16, dH=42.3) of water and the HSP value of the nitrogen-containing compound into Formula is 35 or greater.
A method for arranging support structures for an additive manufacturing process on a dental restoration , comprising the steps of: - detecting (S101) a flash line in a digital model of the dental restoration ; and - adding (S102) digital support structures to the digital model for supporting the dental restoration in the additive manufacturing process along the flash line . - detecting (S101) a flash line in a digital model of the dental restoration ; and - adding (S102) digital support structures to the digital model for supporting the dental restoration in the additive manufacturing process along the flash line .
A luminaire comprising: at least one light source arranged to emit light to illuminate an outdoor environment of the luminaire; a microphone integrated into the luminaire and arranged to provide a microphone output signal; a control module arranged to receive the microphone output signal from the microphone, to use the microphone output signal to monitor traffic volume of vehicles passing by in the vicinity of the luminaire by execution of a traffic monitoring algorithm and configured to communicate with a component of the luminaire based on the monitored traffic; a memory storing reference precipitation information; and a precipitation detection module configured to receive the microphone output signal from the microphone, wherein the precipitation detection module is configured to convert the microphone output signal into a frequency domain waveform and compare the frequency domain waveform to the reference precipitation information, wherein the precipitation detection module is configured to detect precipitation in the outdoor environment based on said comparison, wherein the precipitation detection module is configured to control the light emitted from the at least one light source based on said detection. at least one light source arranged to emit light to illuminate an outdoor environment of the luminaire; a microphone integrated into the luminaire and arranged to provide a microphone output signal; a control module arranged to receive the microphone output signal from the microphone, to use the microphone output signal to monitor traffic volume of vehicles passing by in the vicinity of the luminaire by execution of a traffic monitoring algorithm and configured to communicate with a component of the luminaire based on the monitored traffic; a memory storing reference precipitation information; and a precipitation detection module configured to receive the microphone output signal from the microphone, wherein the precipitation detection module is configured to convert the microphone output signal into a frequency domain waveform and compare the frequency domain waveform to the reference precipitation information, wherein the precipitation detection module is configured to detect precipitation in the outdoor environment based on said comparison, wherein the precipitation detection module is configured to control the light emitted from the at least one light source based on said detection.
An electrostatic charge image developing carrier, comprising: a magnetic particle; and a coating resin layer coating the magnetic particle and containing inorganic particles, wherein a weight average molecular weight of the resin contained in the coating resin layer is less than 300,000, wherein the weight average molecular weight of the resin is measured as described in the description, and wherein an area ratio of the inorganic particles that is a ratio of a total area of the inorganic particles to an area of the coating resin layer in a cut surface of the coating resin layer along a thickness direction of the coating resin layer is 10% or more and 50% or less, wherein the area ratio of the inorganic particles is measured according to the description, and calculating the area ratio of the inorganic particles is calculated by an equation: the area ratio of the inorganic particles = a total area of the inorganic particles/the area of the coating resin layer × 100. a magnetic particle; and a coating resin layer coating the magnetic particle and containing inorganic particles, wherein a weight average molecular weight of the resin contained in the coating resin layer is less than 300,000, wherein the weight average molecular weight of the resin is measured as described in the description, and wherein an area ratio of the inorganic particles that is a ratio of a total area of the inorganic particles to an area of the coating resin layer in a cut surface of the coating resin layer along a thickness direction of the coating resin layer is 10% or more and 50% or less, wherein the area ratio of the inorganic particles is measured according to the description, and calculating the area ratio of the inorganic particles is calculated by an equation: the area ratio of the inorganic particles = a total area of the inorganic particles/the area of the coating resin layer × 100.
A thermoplastic molding composition comprising a) from 30 to 92.5% by weight of at least one thermoplastic polyamide as component A, b) from 1 to 15% by weight of melamine cyanurate as component B, c) from 1 to 50% by weight of glass microspheres with an arithmetic mean sphere diameter d 50 in the range from 10 to 100 μm, as component C, d) from 5 to 20% by weight of short glass fibers with an arithmetic mean fiber length d 50 of from 100 to 900 μm, as component D, e) from 0.5 to 10% by weight of other additional substances and processing aids as component E, where the sum of the percentages by weight of components A to E is 100% by weight and the thermoplastic molding composition contains less than 0.1 wt%, based on the total weight of the molding composition, of organic phosphorous compounds which contain 9,10-dihydro-9-oxa-10-phosphaphenanthrene-10-oxide (DOPO) structures in their skeletal structure. a) from 30 to 92.5% by weight of at least one thermoplastic polyamide as component A, b) from 1 to 15% by weight of melamine cyanurate as component B, c) from 1 to 50% by weight of glass microspheres with an arithmetic mean sphere diameter d 50 in the range from 10 to 100 μm, as component C, d) from 5 to 20% by weight of short glass fibers with an arithmetic mean fiber length d 50 of from 100 to 900 μm, as component D, e) from 0.5 to 10% by weight of other additional substances and processing aids as component E,
An anchoring assembly for anchoring a rod to a bone or a vertebra, the anchoring assembly including: a bone anchoring device including a shank and a receiving part pivotably connectable to said shank , the receiving part comprising a channel for receiving a rod; a pressure element configured to lock an angular position of the shank relative to the receiving part ; at least a first rod and a second rod having different diameters and configured to be interchangeably received in the channel ; a first closure element cooperating with the receiving part, the first closure element acting upon the first rod or the second rod such that the first rod or the second rod exert pressure onto the pressure element to lock an angular position of the receiving part relative to the shank and to fix the first rod or the second rod in the channel simultaneously; a second closure element cooperating with the receiving part, the second closure element acting on the pressure element and on the first rod or the second rod to lock an angular position of the receiving part relative to the shank and to fix the first rod or the second rod , separately from one another; wherein the first closure element and the second closure element are interchangeable. a bone anchoring device including a shank and a receiving part pivotably connectable to said shank , the receiving part comprising a channel for receiving a rod; a pressure element configured to lock an angular position of the shank relative to the receiving part ; at least a first rod and a second rod having different diameters and configured to be interchangeably received in the channel ; a first closure element cooperating with the receiving part, the first closure element acting upon the first rod or the second rod such that the first rod or the second rod exert pressure onto the pressure element to lock an angular position of the receiving part relative to the shank and to fix the first rod or the second rod in the channel simultaneously; a second closure element cooperating with the receiving part, the second closure element acting on the pressure element and on the first rod or the second rod to lock an angular position of the receiving part relative to the shank and to fix the first rod or the second rod , separately from one another; wherein the first closure element and the second closure element are interchangeable.
A wing for an aircraft , comprising: a main wing having an outer skin defining an interior space of the main wing, a slat , and a connection assembly for movably connecting the slat to the main wing, such that the slat is movable in a predefined motion between a retracted position and at least one extended position, wherein the connection assembly comprises a slat track , wherein a first end section of the slat track is connected to the slat, wherein the connection assembly comprises a first bearing , which is at least partly arranged outside the interior space of the main wing, and wherein the connection assembly comprises a second bearing , which is spaced apart from the first bearing and arranged within the interior space of the main wing, wherein the slat track is an elongate and curved slat track , wherein the slat track is movably and rotatably supported on the main wing by the first and second bearing, such that the first and second bearing are configured to guide the slat track and to ensure the predefined motion of the slat , and characterized in that each of the bearings are mechanically fixed to at least one internal structural component of the main wing , wherein the at least one internal structural component is at least one spar, at least one rib and/or at least one stringer. a main wing having an outer skin defining an interior space of the main wing, a slat , and a connection assembly for movably connecting the slat to the main wing, such that the slat is movable in a predefined motion between a retracted position and at least one extended position, wherein the connection assembly comprises a slat track , wherein a first end section of the slat track is connected to the slat, wherein the connection assembly comprises a first bearing , which is at least partly arranged outside the interior space of the main wing, and wherein the connection assembly comprises a second bearing , which is spaced apart from the first bearing and arranged within the interior space of the main wing, wherein the slat track is an elongate and curved slat track , wherein the slat track is movably and rotatably supported on the main wing by the first and second bearing, such that the first and second bearing are configured to guide the slat track and to ensure the predefined motion of the slat , and characterized in that each of the bearings are mechanically fixed to at least one internal structural component of the main wing , wherein the at least one internal structural component is at least one spar, at least one rib and/or at least one stringer.
An electronic device comprising: a pixel array layer disposed on a substrate and including a plurality of pixels (SP), each of the plurality of pixels (SP) including a thin film transistor and an organic light emitting device; an encapsulation layer covering the pixel array layer ; an electrical shielding layer disposed on the encapsulation layer ; and a touch sensing layer disposed on the electrical shielding layer and configured to sense coordinates of a touch input, wherein the touch sensing layer includes a pressure response member for sensing a touch force of the touch input, wherein the electrical shielding layer includes: a transparent conductive layer disposed on an upper surface of the encapsulation layer ; a metal pattern layer disposed on the transparent conductive layer ; and an insulating layer disposed on the transparent conductive layer and covering an upper surface and a lateral surface of the metal pattern layer . a pixel array layer disposed on a substrate and including a plurality of pixels (SP), each of the plurality of pixels (SP) including a thin film transistor and an organic light emitting device; an encapsulation layer covering the pixel array layer ; an electrical shielding layer disposed on the encapsulation layer ; and a touch sensing layer disposed on the electrical shielding layer and configured to sense coordinates of a touch input, wherein the touch sensing layer includes a pressure response member for sensing a touch force of the touch input, wherein the electrical shielding layer includes: a transparent conductive layer disposed on an upper surface of the encapsulation layer ; a metal pattern layer disposed on the transparent conductive layer ; and an insulating layer disposed on the transparent conductive layer and covering an upper surface and a lateral surface of the metal pattern layer . a transparent conductive layer disposed on an upper surface of the encapsulation layer ; a metal pattern layer disposed on the transparent conductive layer ; and an insulating layer disposed on the transparent conductive layer and covering an upper surface and a lateral surface of the metal pattern layer .
A wireless communication method , comprising: sending and/or receiving (S310), by a first terminal device, sidelink data in at least two modes, the method characterized in that the at least two modes are used to send and/or receive sidelink data under different situations, respectively; wherein the different situations comprise: different situations of any one of a destination address, a source address, provider service identification, PSID, an intelligent transportation systems application identification, ITS-AID, a bearer, a logical channel, a channel condition, a speed and a synchronization type. sending and/or receiving (S310), by a first terminal device, sidelink data in at least two modes, the method characterized in that the at least two modes are used to send and/or receive sidelink data under different situations, respectively; wherein the different situations comprise: different situations of any one of a destination address, a source address, provider service identification, PSID, an intelligent transportation systems application identification, ITS-AID, a bearer, a logical channel, a channel condition, a speed and a synchronization type.