mhurhangee/ep-ind-claims huggingface dataset:
A coin selector comprising: an identification unit configured to identify a denomination of a coin entering from a depositing port; a storage port configured to discharge a coin of a predetermined denomination; a dispensing port configured to discharge a coin of a denomination other than the predetermined denomination; a gate disposed in the middle of a path along which a coin moves between the depositing port and the dispensing port, the gate branching a course of the coin to the storage port or the dispensing port; and a pushing portion (29, 32, 99) configured to push or vibrate the coin remaining in the middle of the path from the identification unit to the dispensing port along which the coin moves, thereby moving the coin, wherein the pushing portion is disposed in the middle of the path along which the coin moves, and moves the coin by pushing and swinging a flap that supports the coin, and the coin selector further comprises: a support portion configured to pivotally support the flap on one side of the flap in a lateral direction, wherein the pushing portion pushes the flap from a back surface side of the flap to move the coin placed on a front surface side of the flap. an identification unit configured to identify a denomination of a coin entering from a depositing port; a storage port configured to discharge a coin of a predetermined denomination; a dispensing port configured to discharge a coin of a denomination other than the predetermined denomination; a gate disposed in the middle of a path along which a coin moves between the depositing port and the dispensing port, the gate branching a course of the coin to the storage port or the dispensing port; and a pushing portion (29, 32, 99) configured to push or vibrate the coin remaining in the middle of the path from the identification unit to the dispensing port along which the coin moves, thereby moving the coin, wherein the pushing portion is disposed in the middle of the path along which the coin moves, and moves the coin by pushing and swinging a flap that supports the coin, and the coin selector further comprises: a support portion configured to pivotally support the flap on one side of the flap in a lateral direction, wherein the pushing portion pushes the flap from a back surface side of the flap to move the coin placed on a front surface side of the flap. a support portion configured to pivotally support the flap on one side of the flap in a lateral direction, wherein the pushing portion pushes the flap from a back surface side of the flap to move the coin placed on a front surface side of the flap.
A CARBON DIOXIDE application device (100, 200) that captures carbon dioxide contained in a combustion exhaust gas and supplies the carbon dioxide into a greenhouse, the carbon dioxide application device (100, 200) comprising: a cooler that receives a supply of a combustion exhaust gas generated by combustion of heavy oil in a combustion part and cools the combustion exhaust gas; a dehumidifier that decreases relative humidity of the combustion exhaust gas cooled by the cooler; characterized by a sulfur oxide remover that removes sulfur oxide contained in the combustion exhaust gas with the relative humidity decreased by the dehumidifier; an oxidation catalyst (102, 50, 70) that oxidizes carbon monoxide contained in the combustion exhaust gas supplied from the sulfur oxide remover; and an adsorbent that adsorbs carbon dioxide contained in the combustion exhaust gas supplied from the oxidation catalyst (102, 50, 70), wherein the dehumidifier heats the combustion exhaust gas cooled by the cooler by using heat discharged from the combustion part or the cooler during operation.
Method for operating a gas turbine engine system under baseload and/or high part load conditions, said gas turbine engine system comprising a gas turbine engine with at least one compressor with at least one row of adjustable variable vanes for control of the inlet air mass flow; at least one combustor; at least one turbine, wherein a control system, on the basis of and as a function of at least one measured temperature value (T amb) measured upstream of the compressor or a measurable quantity directly functionally related thereto, controls the position of the variable vanes such that at least one measured pressure value (P cd) varying with the angular position of the variable vanes is at a predefined target pressure which is a function of said first temperature (T amb), wherein said predefined target pressure is a function of a turbine exhaust temperature (T ex), wherein the turbine exhaust temperature (T ex) is measured using one or a plurality of measuring points with a corresponding averaging scheme.
A solid oxide fuel cell (SC1, SC2) comprising: a solid electrolyte layer (2b, 22b) that is formed in a layer; a fuel electrode (1, 21) that is formed on a first side of the solid electrolyte layer (2b, 22b) wherein a fuel gas flows through the fuel electrode (1, 21) to reach the solid electrolyte layer (2b, 22b); and an air electrode (3, 23) that is formed on a second side of the solid electrolyte layer (2b, 22b) wherein an oxidant gas flows through the air electrode (3, 23) to reach the solid electrolyte layer (2b, 22b), wherein the fuel electrode (1, 21) comprises at least one of Ni and NiO, wherein the solid electrolyte layer (2b, 22b) comprises a lanthanum gallate oxide represented by a general formula of La 1-a Sr a Ga 1-b Mg b O 3 (wherein 0.05≤a≤0.3, 0≤b≤0.3), and wherein in the solid electrolyte layer (2b, 22b) MgO particles are spotted at grain boundaries of particles made of the lanthanum gallate oxide as a main component thereof, said grain boundaries comprising an interface between the particles; wherein at an interface between the fuel electrode (1, 21) and the solid electrolyte layer (2b, 22b), a volume ratio of the particles made of the lanthanum gallate oxide as the main component thereof to the MgO particles is 80:20 to 20:80. a solid electrolyte layer (2b, 22b) that is formed in a layer; a fuel electrode (1, 21) that is formed on a first side of the solid electrolyte layer (2b, 22b) wherein a fuel gas flows through the fuel electrode (1, 21) to reach the solid electrolyte layer (2b, 22b); and an air electrode (3, 23) that is formed on a second side of the solid electrolyte layer (2b, 22b) wherein an oxidant gas flows through the air electrode (3, 23) to reach the solid electrolyte layer (2b, 22b), wherein the fuel electrode (1, 21) comprises at least one of Ni and NiO, wherein the solid electrolyte layer (2b, 22b) comprises a lanthanum gallate oxide represented by a general formula of La 1-a Sr a Ga 1-b Mg b O 3 (wherein 0.05≤a≤0.3, 0≤b≤0.3), and wherein in the solid electrolyte layer (2b, 22b) MgO particles are spotted at grain boundaries of particles made of the lanthanum gallate oxide as a main component thereof, said grain boundaries comprising an interface between the particles; wherein at an interface between the fuel electrode (1, 21) and the solid electrolyte layer (2b, 22b), a volume ratio of the particles made of the lanthanum gallate oxide as the main component thereof to the MgO particles is 80:20 to 20:80.
A system for generating an audio signal with a configurable distance cue comprising a signal characteristic modification module configured to receive an input audio signal that has at least one signal characteristic; the at least one signal characteristic contributes to a listener's auditory distance perception and changes at least one characteristic in accordance with a distance control signal that is representative of the perceived distance; where the at least one signal characteristic affects a phase coherence of harmonics; characterised in that the input audio signal comprises a multiplicity of harmonics and the signal characteristic modification module comprises: a harmonic extraction module configured to receive the input audio signal and to extract the input audio signal's harmonics to provide signals representative of the input audio signal's harmonics, each of the signals representative of the harmonics having respective frequencies and phases; a phase shifting module configured to change the phases of the signals representative of the harmonics in accordance with a distance control signal that is representative of the perceived distance; and a summer module configured to sum up the signals representative of the harmonics to provide an output audio signal. a harmonic extraction module configured to receive the input audio signal and to extract the input audio signal's harmonics to provide signals representative of the input audio signal's harmonics, each of the signals representative of the harmonics having respective frequencies and phases; a phase shifting module configured to change the phases of the signals representative of the harmonics in accordance with a distance control signal that is representative of the perceived distance; and a summer module configured to sum up the signals representative of the harmonics to provide an output audio signal.
A method performed by a computing device, the method comprising: continuously receiving, from a sensor of the computing device, media content collected from an ambient environment of the computing device on an ongoing basis; storing in a buffer an amount of the media content collected over a sliding time window, wherein the sliding time window covers a predetermined time period that moves forward in time; removing stored media content from the buffer as the predetermined time period expires; providing, by an operating system of the computing device, a listing of one or more applications configured to run on the computing device, wherein each application in the listing is configured to use the media content; receiving, by the operating system of the computing device, a selection of an application from the listing of the one or more applications, wherein the selection indicates to share at least a portion of the media content stored in the buffer with the selected application, wherein the selection further indicates to share with the selected application subsequent compatible media content collected by the sensor, wherein the subsequent compatible media content is media content that the selected application is configured to use and is stored in the buffer subsequent to receiving the selection; based on receiving the selection, causing the selected application to be initiated on the computing device; and providing at least the portion of the media content and the subsequent compatible media content to the application. continuously receiving, from a sensor of the computing device, media content collected from an ambient environment of the computing device on an ongoing basis; storing in a buffer an amount of the media content collected over a sliding time window, wherein the sliding time window covers a predetermined time period that moves forward in time; removing stored media content from the buffer as the predetermined time period expires; providing, by an operating system of the computing device, a listing of one or more applications configured to run on the computing device, wherein each application in the listing is configured to use the media content; receiving, by the operating system of the computing device, a selection of an application from the listing of the one or more applications, wherein the selection indicates to share at least a portion of the media content stored in the buffer with the selected application, wherein the selection further indicates to share with the selected application subsequent compatible media content collected by the sensor, wherein the subsequent compatible media content is media content that the selected application is configured to use and is stored in the buffer subsequent to receiving the selection; based on receiving the selection, causing the selected application to be initiated on the computing device; and providing at least the portion of the media content and the subsequent compatible media content to the application.
Method for implementing a scanning electron microscopy characterisation technique for the determination of at least one critical dimension of the structure of a sample in the field of dimensional metrology, known as CD-SEM technique, said method comprising the following steps: - producing an experimental image representative of the structure of the sample and derived from a scanning electron microscope; - from a first theoretical model based on parametric mathematical functions, calculating a second theoretical model obtained by algebraic summation of a corrective term, said corrective term being the convolution product between a given convolution kernel and the first theoretical model, said second theoretical model comprising a set of parameters to be determined, the first and second theoretical models being a mathematical representation of the structure of the sample in the experimental image; - determination of the set of parameters present in the second theoretical model by means of an adjustment between said second theoretical model and said experimental image, the adjustment corresponding to a minimisation of a difference between said second theoretical model and said experimental image. - producing an experimental image representative of the structure of the sample and derived from a scanning electron microscope; - from a first theoretical model based on parametric mathematical functions, calculating a second theoretical model obtained by algebraic summation of a corrective term, said corrective term being the convolution product between a given convolution kernel and the first theoretical model, said second theoretical model comprising a set of parameters to be determined, the first and second theoretical models being a mathematical representation of the structure of the sample in the experimental image; - determination of the set of parameters present in the second theoretical model by means of an adjustment between said second theoretical model and said experimental image, the adjustment corresponding to a minimisation of a difference between said second theoretical model and said experimental image.
Method for detecting the possible presence of an object by a reader, both capable of mutually communicating by at least one contactless communication protocol, comprising a detection phase including a transmission by an antenna of the reader of a magnetic field on a carrier signal having a subcarrier modulated by a first sequence of data, said modulation being at least not interpretable by said object, a reception at the antenna of the reader of a signal resulting from this transmission, a demodulation in the reader of the subcarrier of said resulting signal in such a way as to extract therefrom a second sequence of data, a correlation between the two sequences of data and a detection of the possible presence or the absence of said object based on the result of the correlation.
A transfer center for machining workpieces having a machine frame, having a plurality of preferably stationary machining spindles arranged in the machine frame, more particularly in a machining head, having a workpiece carrier an which the workpieces to be machined are arranged by means of a respective clamping device, and having a workpiece manipulator arranged in the machine frame, onto which workpiece manipulator the workpiece carrier is flange-mounted and which is movable by drive means in at least one spatial direction in relation to the machine frame, and having a position compensation system in order to compensate a deviation between the actual position and the desired position of the workpieces with between the workpieces and the machine frame situated pressure elements, characterized in that, the position compensation system comprises at least two pressure elements situated between the workpieces and the machine frame, whose operating directions enclose an angle with each other for position compensation of the workpieces to each other for precise parallel machining in the transfer center.
A curable composition comprising at least one (meth)acrylate ester polymer containing at least one reactive silyl group of the general formula -Si(R a) k (R b) 3-k, wherein each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; at least one tertiary aminosilane; at least one fumed silica; and, at least one curing catalyst. at least one (meth)acrylate ester polymer containing at least one reactive silyl group of the general formula -Si(R a) k (R b) 3-k, wherein each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; each R a is, independently of one another, selected from hydrocarbon residues containing 1 to 20 carbon atoms; each R b is, independently of one another, selected from a hydroxyl group or hydrolysable groups; and, k is 0, 1, or 2; at least one tertiary aminosilane; at least one fumed silica; and, at least one curing catalyst.
A detachable toy structure, comprising: a toy top which comprises a first part and a second part (54, 57) engaged with the first part; characterised in that the detachable toy structure includes a detaching tool which comprises a presser and elastic holders with holding parts that are at any one of a holding position and a holding releasable position, wherein the first part is elastic and comprises an elastic engaging hook that is at any one of an engaged position and an engagement releasing position, wherein the second part (54, 57) engages with the first part when the second part is brought to the first part in a certain direction so that the second part slidably contacts the first part to move the elastic engaging hook to the engagement releasing position and then further to the engaged position, and wherein (i) when the detaching tool is brought to the toy top in the certain direction, the presser slidably contacts the engaging hook to move the engaging hook to the engagement releasing position; (ii) subsequently the holding parts slidably contact the second part (54, 57) to move to the holding position to hold the second part while the engaging hook is at the engagement releasing position; and (iii) then the second part (54, 57) and the detaching tool together are separated from the first part. a toy top which comprises a first part and a second part (54, 57) engaged with the first part; characterised in that the detachable toy structure includes a detaching tool which comprises a presser and elastic holders with holding parts that are at any one of a holding position and a holding releasable position, wherein the first part is elastic and comprises an elastic engaging hook that is at any one of an engaged position and an engagement releasing position, wherein the second part (54, 57) engages with the first part when the second part is brought to the first part in a certain direction so that the second part slidably contacts the first part to move the elastic engaging hook to the engagement releasing position and then further to the engaged position, and wherein (i) when the detaching tool is brought to the toy top in the certain direction, the presser slidably contacts the engaging hook to move the engaging hook to the engagement releasing position; (ii) subsequently the holding parts slidably contact the second part (54, 57) to move to the holding position to hold the second part while the engaging hook is at the engagement releasing position; and (iii) then the second part (54, 57) and the detaching tool together are separated from the first part.
An optical transmitting apparatus for transmitting a modulated optical signal corresponding to a data signal, comprising: a phase shift unit adapted for controlling a phase of at least one of a first optical signal and a second optical signal, obtained by splitting an optical input, so that the first and the second optical signals have a prescribed phase difference on an optical waveguide; and a data modulator unit adapted for modulating the first and second optical signals using the data signal on the optical waveguide; wherein the apparatus is characterised by further comprising: an extraction unit (31, 32) adapted for extracting at least a part of a frequency component except for a frequency, which is an integral multiple of a symbol frequency, from an optical signal that is dependent upon a modulated optical signal obtained by coupling the first and the second optical signals modulated by said data modulator unit; and a phase difference control unit adapted for controlling said phase shift unit so as to minimize the frequency component extracted by said extraction unit (31, 32). a phase shift unit adapted for controlling a phase of at least one of a first optical signal and a second optical signal, obtained by splitting an optical input, so that the first and the second optical signals have a prescribed phase difference on an optical waveguide; and a data modulator unit adapted for modulating the first and second optical signals using the data signal on the optical waveguide; wherein the apparatus is characterised by further comprising: an extraction unit (31, 32) adapted for extracting at least a part of a frequency component except for a frequency, which is an integral multiple of a symbol frequency, from an optical signal that is dependent upon a modulated optical signal obtained by coupling the first and the second optical signals modulated by said data modulator unit; and a phase difference control unit adapted for controlling said phase shift unit so as to minimize the frequency component extracted by said extraction unit (31, 32). an extraction unit (31, 32) adapted for extracting at least a part of a frequency component except for a frequency, which is an integral multiple of a symbol frequency, from an optical signal that is dependent upon a modulated optical signal obtained by coupling the first and the second optical signals modulated by said data modulator unit; and a phase difference control unit adapted for controlling said phase shift unit so as to minimize the frequency component extracted by said extraction unit (31, 32).