mhurhangee/ep-ind-claims huggingface dataset:
A gas sensor device configured to detect CO or H 2 and comprising: an interface for the attachment of a mouthpiece to the gas sensor device, the interface comprising: a first mouthpiece engaging means for engaging a first type of mouthpiece, and a second mouthpiece engaging means for engaging a second type of mouthpiece, the interface comprising an inlet positioned such that in use it is in fluid communication with the lumen of a mouthpiece mounted on either the first or the second mouthpiece engaging means, wherein the first and second mouthpiece engaging means are defined by a flange, the outside of the flange defining the first mouthpiece engaging means and tapering outwards in a proximal direction, the proximal direction being towards a proximal end of the flange nearer the inlet than a distal end of the flange, and the inside of the flange defining the second mouthpiece engaging means and tapering inwards in the proximal direction. a first mouthpiece engaging means for engaging a first type of mouthpiece, and a second mouthpiece engaging means for engaging a second type of mouthpiece, the interface comprising an inlet positioned such that in use it is in fluid communication with the lumen of a mouthpiece mounted on either the first or the second mouthpiece engaging means, wherein the first and second mouthpiece engaging means are defined by a flange, the outside of the flange defining the first mouthpiece engaging means and tapering outwards in a proximal direction, the proximal direction being towards a proximal end of the flange nearer the inlet than a distal end of the flange, and the inside of the flange defining the second mouthpiece engaging means and tapering inwards in the proximal direction.
A method for generating sound by an electronic device, comprising: obtaining at least one image including a plurality of objects corresponding to a plurality of musical instruments, respectively, the plurality of musical instruments including a first musical instrument and a second musical instrument, wherein the obtained at least one image comprises at least one of a hand drawn image, a printed image, an image template, a digital surface pattern, a digital format image or at least one text; mapping the plurality of objects to the plurality of musical instruments, respectively; displaying, on a display of the electronic device, the plurality of objects; identifying a user input associated with a first object related to the first musical instrument among the plurality of objects; and generating sound based on the user input, sound data of the first musical instrument and sound data of the second musical instrument. obtaining at least one image including a plurality of objects corresponding to a plurality of musical instruments, respectively, the plurality of musical instruments including a first musical instrument and a second musical instrument, wherein the obtained at least one image comprises at least one of a hand drawn image, a printed image, an image template, a digital surface pattern, a digital format image or at least one text; mapping the plurality of objects to the plurality of musical instruments, respectively; displaying, on a display of the electronic device, the plurality of objects; identifying a user input associated with a first object related to the first musical instrument among the plurality of objects; and generating sound based on the user input, sound data of the first musical instrument and sound data of the second musical instrument.
Master cylinder, particularly for a hydraulic clutch actuating device in motor vehicles, comprising a cylinder housing in which a piston is guided to be longitudinally displaceable, the piston variably bounding a pressure chamber and being displaceable from a rest position to an actuating position and conversely by means of a piston rod pivotably connected with the piston, wherein the piston rod has a ball head which is received in a recess of the piston remote from the pressure chamber and is retained therein by an insert member with an undercut, which insert member is secured by means of a mechanically positive connection to the piston in the recess and on the side of the piston remote from the pressure chamber projects by an abutment end beyond the recess, wherein the ball head of the piston rod bears directly against the piston in the recess, so that pressure forces applied by way of the piston rod are directly transmissible to the piston, and wherein the mechanically positive connection of the insert member with the piston is disposed between the undercut and the abutment end of the insert member so that tension forces applied by way of the piston rod in an actuating position of the piston reinforce the mechanically positive connection of the insert member with the piston, characterized in that, in the rest position of the piston, the abutment end of the insert member comes into contact with an associated abutment surface of the cylinder housing in order to keep away tension forces from the mechanically positive connection between insert member and piston.
An apparatus for measuring the circumferential distribution of temperature in a fluid, comprising a plurality of equally spaced circumferential sensor locations, and further comprising a plurality of sensor ladders (401-404; 501-506), each incorporating a plurality of temperature sensors (400a, 400b; 600a, 600b), and each ladder partially overlapping an adjacent one of the ladders, wherein, as between adjacent sensor ladders, a first one of the adjacent sensor ladders incorporates a first plurality of temperature sensors, each of which is located at a respective one of the sensor locations, a second one of the adjacent sensor ladders incorporates a second plurality of temperature sensors, each of which is located at a respective one of the sensor locations, and at least one sensor of the first plurality of sensors is located at the same sensor location as at least one sensor of the second plurality of sensors, and at least another one sensor of the first plurality of sensors is located at one of the sensors locations not also accommodating one of the second plurality of sensors so that the first one of the adjacent sensor ladders partially overlaps the second one of the adjacent sensor ladders, part of the first one of the adjacent sensor ladders not overlapping the second one of the adjacent sensor ladders, characterised in that at least two temperature sensors (400a, 400b; 600a, 600b) are located at each sensor location.
A measuring device having at least two measuring channels (2a, 2b), each measuring channel (2a, 2b) comprising: - an A/D converter (4a, 4b) for converting an analogue voltage into a digital voltage value, and - a logic unit (5a, 5b), which is connected to the A/D converter (4a, 4b) in order to receive the digital voltage value, wherein at least one measuring channel (2a, 2b) is designed as a secure measuring channel (2a, 2b) with a high reliability and has a multiplexer (3a, 3b), wherein the analogue voltage can be switched over by means of the multiplexer (3a, 3b) between a measuring voltage (U Mess1, U Mess2) and a reference voltage (U Ref1, U Ref2), characterised in that the logic unit (5a, 5b) of each secure measuring channel (2a, 2b) is designed as a reference generator for at least one other secure measuring channel (2a, 2b) in order to provide the reference voltage (U Ref1, U Ref2) and to switch the multiplexer (3a, 3b) between the measuring voltage (U Mess1, U Mess2) and the reference voltage (U Ref1, U Ref2), wherein the reference generator is designed to provide the reference voltage (U Ref1, U Ref2) on the basis of the digital value applied thereto, and a value from which the reference voltage (U Ref1, U Ref2) is provided is derived in the reference generator from the digital value. - an A/D converter (4a, 4b) for converting an analogue voltage into a digital voltage value, and - a logic unit (5a, 5b), which is connected to the A/D converter (4a, 4b) in order to receive the digital voltage value,
A method of forming a photonic device comprising: providing a two-dimensional photonic crystal layer having a principal surface and an array of optical scatterers comprising holes extending into the photonic crystal layer from the principal surface; and forming on the principal surface of the photonic crystal layer, over a region of the photonic crystal layer containing a plurality of optical scatterers of said array of optical scatterers, a layer of material suitable for inkjet printing by inkjet printing so as to create defect(s) in the photonic bandgap, wherein forming the layer comprises: forming a continuous layer (20 1) which spans said plurality of optical scatterers of said array of optical scatterers, or forming a perforated layer (20 2) which goes around said plurality of optical scatterers of said array of optical scatterers, wherein said plurality of optical scatterers of said array of optical scatterers are not infiltrated with the material. providing a two-dimensional photonic crystal layer having a principal surface and an array of optical scatterers comprising holes extending into the photonic crystal layer from the principal surface; and forming on the principal surface of the photonic crystal layer, over a region of the photonic crystal layer containing a plurality of optical scatterers of said array of optical scatterers, a layer of material suitable for inkjet printing by inkjet printing so as to create defect(s) in the photonic bandgap, wherein forming the layer comprises: forming a continuous layer (20 1) which spans said plurality of optical scatterers of said array of optical scatterers, or forming a perforated layer (20 2) which goes around said plurality of optical scatterers of said array of optical scatterers, wherein said plurality of optical scatterers of said array of optical scatterers are not infiltrated with the material. forming a continuous layer (20 1) which spans said plurality of optical scatterers of said array of optical scatterers, or forming a perforated layer (20 2) which goes around said plurality of optical scatterers of said array of optical scatterers, wherein said plurality of optical scatterers of said array of optical scatterers are not infiltrated with the material.
A manufacturing device of an organic semiconductor film for manufacturing an organic semiconductor film by using an organic semiconductor solution, the manufacturing device comprising: a coating member that is disposed to face a surface of a substrate to be spaced therefrom for forming the organic semiconductor film and forms a liquid reservoir of the organic semiconductor solution between the coating member and the substrate; a supply portion that supplies the organic semiconductor solution to a portion between the substrate and the coating member; and a cover portion that covers at least a crystal growth portion of the organic semiconductor solution, wherein the cover portion includes a guide to which an evaporated solvent of the organic semiconductor solution is deposited and which guides a deposit formed of the evaporated solvent of the organic semiconductor solution to a film-unformed region of the organic semiconductor film, and wherein, while the organic semiconductor solution is supplied to a portion between the coating member and the surface of the substrate by the supply portion, the coating member is moved in a first direction parallel to the surface of the substrate in a state of being in contact with the organic semiconductor solution, to form the organic semiconductor film with the crystal growth portion as a starting point. a coating member that is disposed to face a surface of a substrate to be spaced therefrom for forming the organic semiconductor film and forms a liquid reservoir of the organic semiconductor solution between the coating member and the substrate; a supply portion that supplies the organic semiconductor solution to a portion between the substrate and the coating member; and a cover portion that covers at least a crystal growth portion of the organic semiconductor solution, wherein the cover portion includes a guide to which an evaporated solvent of the organic semiconductor solution is deposited and which guides a deposit formed of the evaporated solvent of the organic semiconductor solution to a film-unformed region of the organic semiconductor film, and wherein, while the organic semiconductor solution is supplied to a portion between the coating member and the surface of the substrate by the supply portion, the coating member is moved in a first direction parallel to the surface of the substrate in a state of being in contact with the organic semiconductor solution, to form the organic semiconductor film with the crystal growth portion as a starting point.
A method for evaluating an effective component content of a reducing agent for engine exhaust gas processing arranged in a container in which a heat transfer provision arrangement is provided, comprising the steps of: - determining a prevailing volume of said reducing agent in said container; - determining a prevailing temperature of said reducing agent; - determining a prevailing temperature of said heat transfer provision arrangement; and - determining a prevailing temperature of a medium surrounding said container, characterized by the steps of: - for a predetermined time period, determining a mean temperature change rate (Tprim) for said reducing agent; and - determining said effective component content of said reducing agent on the basis of said mean temperature change rate (Tprim), said prevailing volume of said reducing agent, said prevailing temperature of said reducing agent, said prevailing temperature of said heat transfer provision arrangement and said prevailing temperature of said medium surrounding said container. - determining a prevailing volume of said reducing agent in said container; - determining a prevailing temperature of said reducing agent; - determining a prevailing temperature of said heat transfer provision arrangement; and - determining a prevailing temperature of a medium surrounding said container, - for a predetermined time period, determining a mean temperature change rate (Tprim) for said reducing agent; and - determining said effective component content of said reducing agent on the basis of said mean temperature change rate (Tprim), said prevailing volume of said reducing agent, said prevailing temperature of said reducing agent, said prevailing temperature of said heat transfer provision arrangement and said prevailing temperature of said medium surrounding said container.
A biocontainer adapted to receive a biopharmaceutical material therein, wherein said biocontainer comprises at least one temperature sensor (110, 220) positioned at the geometric center of said biocontainer and a storage element adapted to store data obtained by said temperature sensor, a sensor attachment mechanism, which is attached to one or more points on the biocontainer and is used to hold the temperature sensor (110, 220) in place, and a processing unit, which is adapted to compare data obtained by said temperature sensor (110, 220) to predetermined values, characterized in that said temperature sensor (110, 220) is a wireless temperature sensor and in that said sensor attachment mechanism is affixed to opposite edges of said biocontainer, disposed within said biocontainer and passing through the geometric center of said biocontainer, said sensor attachment mechanism comprising a sealed enclosure holding at least one wireless temperature sensor (110, 220) positioned at said geometric center of said biocontainer. at least one temperature sensor (110, 220) positioned at the geometric center of said biocontainer and a storage element adapted to store data obtained by said temperature sensor, a sensor attachment mechanism, which is attached to one or more points on the biocontainer and is used to hold the temperature sensor (110, 220) in place, and a processing unit, which is adapted to compare data obtained by said temperature sensor (110, 220) to predetermined values, characterized in that said temperature sensor (110, 220) is a wireless temperature sensor and in that said sensor attachment mechanism is affixed to opposite edges of said biocontainer, disposed within said biocontainer and passing through the geometric center of said biocontainer, said sensor attachment mechanism comprising a sealed enclosure holding at least one wireless temperature sensor (110, 220) positioned at said geometric center of said biocontainer.
Insulating cover for a submerged element of a fluid exploitation facility in a body of water, comprising: - a deformable jacket, intended to be placed around the submerged element; characterized in that the deformable jacket has an internal volume, the cover comprising: - a plurality of insulating elements arranged in the internal volume, able to move freely relative to one another; - at least one opening for selective access to the internal volume through the deformable jacket, for allowing the internal volume to be flooded by a liquid during the deployment of the insulating cover towards the submerged element, and for allowing suction of the liquid contained in the internal volume during the application of the insulating cover on the submerged element. - a deformable jacket, intended to be placed around the submerged element; characterized in that the deformable jacket has an internal volume, the cover comprising: - a plurality of insulating elements arranged in the internal volume, able to move freely relative to one another; - at least one opening for selective access to the internal volume through the deformable jacket, for allowing the internal volume to be flooded by a liquid during the deployment of the insulating cover towards the submerged element, and for allowing suction of the liquid contained in the internal volume during the application of the insulating cover on the submerged element.
An anti-reflection structure, comprising: a retardation film, a linear polarizer sheet, provided on a side of the retardation film, wherein the retardation film and the linear polarizer sheet include liquid crystal, and at least one alignment layer (103, 109, 130), configured to align the retardation film and to align the linear polarizer sheet, characterized by a light cutoff layer, provided on a side of the linear polarizer sheet away from the retardation film and configured to cut off light with a wavelength in a specific range. a retardation film, a linear polarizer sheet, provided on a side of the retardation film, wherein the retardation film and the linear polarizer sheet include liquid crystal, and at least one alignment layer (103, 109, 130), configured to align the retardation film and to align the linear polarizer sheet, characterized by a light cutoff layer, provided on a side of the linear polarizer sheet away from the retardation film and configured to cut off light with a wavelength in a specific range.
A vehicle behavior estimation computer implemented method comprising: detecting a speed of a first preceding vehicle traveling in front of a host vehicle in a first lane where the host vehicle is traveling; detecting a speed of an adjacent vehicle traveling in a second lane adjacent to the first lane; calculating a relative speed between the first preceding vehicle and the adjacent vehicle; predicting whether or not an absolute value of the relative speed will be at or below a speed threshold value (Tv) within a predetermined time from a point time when a decrease in the absolute value of the relative speed starts to be detected; and estimating that the adjacent vehicle is likely to change lanes into the first lane when the absolute value of the relative speed is predicted to be at or below the speed threshold value (Tv) within the predetermined time. detecting a speed of a first preceding vehicle traveling in front of a host vehicle in a first lane where the host vehicle is traveling; detecting a speed of an adjacent vehicle traveling in a second lane adjacent to the first lane; calculating a relative speed between the first preceding vehicle and the adjacent vehicle; predicting whether or not an absolute value of the relative speed will be at or below a speed threshold value (Tv) within a predetermined time from a point time when a decrease in the absolute value of the relative speed starts to be detected; and estimating that the adjacent vehicle is likely to change lanes into the first lane when the absolute value of the relative speed is predicted to be at or below the speed threshold value (Tv) within the predetermined time.
A carbon-dioxide-recovery-type steam power generation system comprising: a boiler that generates steam through the combustion of fuel and generates an exhaust gas; an absorption tower that is supplied with the exhaust gas from the boiler, and allows carbon dioxide contained in the exhaust gas to be absorbed in an absorption liquid; a regeneration tower that is supplied with the absorption liquid having absorbed carbon dioxide from the absorption tower, discharges a carbon dioxide gas from the absorption liquid, and discharges the carbon dioxide gas; a reboiler that heats the absorption liquid discharged from the regeneration tower and supplies generated steam to the regeneration tower; a turbine (21, 22, 23) that is supplied with steam from the boiler and is rotationally driven; characterised in that the system further comprises: a first condenser that generates condensate by cooling steam exhausted from the turbine; a second condenser that is supplied with a part of the condensate as cooling water, condenses the carbon dioxide gas, and generates hot water; and a desuperheater that is supplied with the hot water, lowers the temperature of the steam exhausted from the turbine (21, 22, 23) by spraying the hot water on the steam, and supplies the steam of which the temperature is lowered to the reboiler. a boiler that generates steam through the combustion of fuel and generates an exhaust gas; an absorption tower that is supplied with the exhaust gas from the boiler, and allows carbon dioxide contained in the exhaust gas to be absorbed in an absorption liquid; a regeneration tower that is supplied with the absorption liquid having absorbed carbon dioxide from the absorption tower, discharges a carbon dioxide gas from the absorption liquid, and discharges the carbon dioxide gas; a reboiler that heats the absorption liquid discharged from the regeneration tower and supplies generated steam to the regeneration tower; a turbine (21, 22, 23) that is supplied with steam from the boiler and is rotationally driven; a first condenser that generates condensate by cooling steam exhausted from the turbine; a second condenser that is supplied with a part of the condensate as cooling water, condenses the carbon dioxide gas, and generates hot water; and a desuperheater that is supplied with the hot water, lowers the temperature of the steam exhausted from the turbine (21, 22, 23) by spraying the hot water on the steam, and supplies the steam of which the temperature is lowered to the reboiler.