mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a fuel cell power system comprising at least one fuel cell stack connected to a fuel processing system, the fuel processing system comprising a vaporizer for vaporizing water or a mixture of hydrocarbon fuel and water, a fuel reformer for converting a hydrocarbon fuel into a hydrogen-rich reformate and a burner in thermal communication with the fuel reformer, the method comprising: supplying a mixture of hydrocarbon fuel and water to the vaporizer of the fuel processing system or supplying water to the vaporizer and mixing steam coming out of the vaporizer with gaseous fuels, supplying the mixture of hydrocarbon fuel and steam to the fuel reformer of the fuel processing system; supplying air to the burner of the fuel processing system; supplying the hydrogen-rich reformate from the fuel processing system to the at least one fuel cell stack; supplying an anode waste gas from the at least one fuel cell stack to the burner; drawing a load from the at least one fuel cell stack; and detecting an operating temperature of the fuel reformer; wherein supplying air and water to the fuel processing system comprises adjusting an amount of air and water to be supplied based on the load drawn from the at least one fuel cell stack; and supplying the hydrocarbon fuel to the fuel processing system comprises adjusting the amount of hydrocarbon fuel to be supplied based solely on the detected operating temperature of the fuel reformer. supplying a mixture of hydrocarbon fuel and water to the vaporizer of the fuel processing system or supplying water to the vaporizer and mixing steam coming out of the vaporizer with gaseous fuels, supplying the mixture of hydrocarbon fuel and steam to the fuel reformer of the fuel processing system; supplying air to the burner of the fuel processing system; supplying the hydrogen-rich reformate from the fuel processing system to the at least one fuel cell stack; supplying an anode waste gas from the at least one fuel cell stack to the burner; drawing a load from the at least one fuel cell stack; and detecting an operating temperature of the fuel reformer; wherein supplying air and water to the fuel processing system comprises adjusting an amount of air and water to be supplied based on the load drawn from the at least one fuel cell stack; and supplying the hydrocarbon fuel to the fuel processing system comprises adjusting the amount of hydrocarbon fuel to be supplied based solely on the detected operating temperature of the fuel reformer. supplying air and water to the fuel processing system comprises adjusting an amount of air and water to be supplied based on the load drawn from the at least one fuel cell stack; and supplying the hydrocarbon fuel to the fuel processing system comprises adjusting the amount of hydrocarbon fuel to be supplied based solely on the detected operating temperature of the fuel reformer.
An electrochromic device or an electrochromic device precursor, comprising: a first electrically conductive layer having a thickness between about 10-500 nm; an electrochromic layer having a thickness between about 200-700 nm; a counter electrode layer comprising a counter electrode material comprising nickel tungsten oxide, the counter electrode layer having a thickness between about 100-400 nm; and a second electrically conductive layer having a thickness between about 100-400 nm, wherein the electrochromic layer and the counter electrode layer are positioned between the first electrically conductive layer and the second electrically conductive layer, and wherein the electrochromic device is all solid state and inorganic, characterized in that the electrochromic layer comprises an electrochromic material comprising tungsten titanium molybdenum oxide having the composition W 1-x-y Ti x Mo y O z, where x is between about 0.05-0.25, y is between about 0.01-0.15, and z is between about 2.5-4.5, and in that the electrochromic layer is nanocrystalline, wherein the term "about" as used herein is intended to mean ±10% with respect to a relevant value. a first electrically conductive layer having a thickness between about 10-500 nm; an electrochromic layer having a thickness between about 200-700 nm; a counter electrode layer comprising a counter electrode material comprising nickel tungsten oxide, the counter electrode layer having a thickness between about 100-400 nm; and a second electrically conductive layer having a thickness between about 100-400 nm, wherein the electrochromic layer and the counter electrode layer are positioned between the first electrically conductive layer and the second electrically conductive layer, and wherein the electrochromic device is all solid state and inorganic, characterized in that the electrochromic layer comprises an electrochromic material comprising tungsten titanium molybdenum oxide having the composition W 1-x-y Ti x Mo y O z, where x is between about 0.05-0.25, y is between about 0.01-0.15, and z is between about 2.5-4.5, and in that the electrochromic layer is nanocrystalline, wherein the term "about" as used herein is intended to mean ±10% with respect to a relevant value.
An endoscope system comprising: a lighting means (11, 28, 29, 40) for applying first illumination light to an object, said first illumination light having a first wavelength band in which oxyhemoglobin and deoxyhemoglobin have different absorption coefficients; an image information obtaining means (41, 70) for imaging said object and obtaining first image information under irradiation with said first illumination light; and an oxygen saturation level calculating means (83, 84, 86) for calculating an oxygen saturation level of blood based on said first image information; characterized by a spectrum information obtaining means for obtaining spectrum information of said first illumination light; and a changing means (85, 101) for changing a calculation method of said oxygen saturation level based on said spectrum information of said first illumination light, wherein said spectrum information is spectrum change information relating to change in a spectrum of said first illumination light. a lighting means (11, 28, 29, 40) for applying first illumination light to an object, said first illumination light having a first wavelength band in which oxyhemoglobin and deoxyhemoglobin have different absorption coefficients; an image information obtaining means (41, 70) for imaging said object and obtaining first image information under irradiation with said first illumination light; and an oxygen saturation level calculating means (83, 84, 86) for calculating an oxygen saturation level of blood based on said first image information; characterized by a spectrum information obtaining means for obtaining spectrum information of said first illumination light; and a changing means (85, 101) for changing a calculation method of said oxygen saturation level based on said spectrum information of said first illumination light, wherein said spectrum information is spectrum change information relating to change in a spectrum of said first illumination light.
An integrated sample acquisition and sample stabilization device comprising: (i) a sample acquisition component comprising one or more piercing elements; (ii) a sample stabilization unit comprising more than one membranes, wherein the more than one membranes are stacked, and wherein the more than one membranes do not contact each other; wherein at least one of the more than one membranes comprise a sample separation phase and a sample collection phase; and (iii) a channel configured to allow a biological sample to move from an opening in the sample acquisition component through the channel onto the more than one membranes, wherein the more than one membranes are configured to separate and stabilize one or more biological components. (i) a sample acquisition component comprising one or more piercing elements; (ii) a sample stabilization unit comprising more than one membranes, wherein the more than one membranes are stacked, and wherein the more than one membranes do not contact each other; wherein at least one of the more than one membranes comprise a sample separation phase and a sample collection phase; and (iii) a channel configured to allow a biological sample to move from an opening in the sample acquisition component through the channel onto the more than one membranes, wherein the more than one membranes are configured to separate and stabilize one or more biological components.
A support for a pole and footrest of a stool comprising: - a lower body which is joined by fastening means to a complementary upper body, wherein the lower body in turn comprises an upper portion and a lower portion: ▪ the upper portion comprises a recess configured to insert the pole and first mortises arranged in side walls of said upper portion and configured for coupling spokes which works as support for a footrest, - the upper body comprises side walls and has a through-opening passing through same and a recess aligned with the recess for inserting the pole, wherein said support is configured to be placed on a base of the stool and support the pole and the footrest of said stool; characterized in that the spokes are tube-shaped, and the side walls of the upper body comprise second mortises arranged in a manner complementary to the first mortises comprised in the upper portion, so that first mortises and second mortises face each other forming a circular cross section, when the upper and lower bodies are joined. - a lower body which is joined by fastening means to a complementary upper body, wherein the lower body in turn comprises an upper portion and a lower portion: ▪ the upper portion comprises a recess configured to insert the pole and first mortises arranged in side walls of said upper portion and configured for coupling spokes which works as support for a footrest, - the upper body comprises side walls and has a through-opening passing through same and a recess aligned with the recess for inserting the pole,
A stator blade structure for a compressor of a gas turbine, comprising: a plurality of inner shroud portions each disposed at each end portion of a plurality of airfoil portions and connected therewith; a holder casing that is attached to the inner shroud portions so as to be detachable therefrom and so that it can be moved by sliding relative to the plurality of inner shroud portions and that forms a space with the plurality of inner shroud portions therebetween; an elastic portion that is disposed in the space, and that biases the plurality of inner shroud portions in a direction that separates them from the holder casing, and that is disposed so as to be able to move relative to the plurality of inner shroud portions, wherein the elastic portion extends parallel to the direction in which the plurality of inner shroud portions form a row and comprises a plurality of plate-like springs each formed in substantially a wave shape, peak portions of the plurality of springs are in contact with the plurality of inner shroud portions and the holder casing, and the plurality of springs are disposed in substantially parallel rows and, relative to peak portions of one of the plurality of springs, peak portions of the other spring of the plurality of springs are disposed shifted therefrom. a plurality of inner shroud portions each disposed at each end portion of a plurality of airfoil portions and connected therewith; a holder casing that is attached to the inner shroud portions so as to be detachable therefrom and so that it can be moved by sliding relative to the plurality of inner shroud portions and that forms a space with the plurality of inner shroud portions therebetween; an elastic portion that is disposed in the space, and that biases the plurality of inner shroud portions in a direction that separates them from the holder casing, and that is disposed so as to be able to move relative to the plurality of inner shroud portions, wherein the elastic portion extends parallel to the direction in which the plurality of inner shroud portions form a row and comprises a plurality of plate-like springs each formed in substantially a wave shape, peak portions of the plurality of springs are in contact with the plurality of inner shroud portions and the holder casing, and the plurality of springs are disposed in substantially parallel rows and, relative to peak portions of one of the plurality of springs, peak portions of the other spring of the plurality of springs are disposed shifted therefrom.
A system for detecting a pressure difference between the interior of a cabin of an aircraft and the exterior of the aircraft, comprising: - a window arrangement which comprises a first windowpane having a first surface and an opposite second surface and is adapted to be mounted in an aircraft such that the first surface of the first windowpane is facing towards the exterior of the aircraft and is subjected to the ambient atmospheric pressure and the second surface faces towards the interior of a cabin of the aircraft, and - a pressure sensor comprising a first pressure port, characterized in that - the first windowpane comprises a first air passage opening extending between the first and second surfaces (4a, 4b) of the first windowpane, and - the pressure sensor is sealingly connected to the first air passage opening such that the first pressure port of the pressure sensor is subjected to pressure acting on the first surface of the first windowpane. - a window arrangement which comprises a first windowpane having a first surface and an opposite second surface and is adapted to be mounted in an aircraft such that the first surface of the first windowpane is facing towards the exterior of the aircraft and is subjected to the ambient atmospheric pressure and the second surface faces towards the interior of a cabin of the aircraft, and - a pressure sensor comprising a first pressure port, - the first windowpane comprises a first air passage opening extending between the first and second surfaces (4a, 4b) of the first windowpane, and - the pressure sensor is sealingly connected to the first air passage opening such that the first pressure port of the pressure sensor is subjected to pressure acting on the first surface of the first windowpane.
A method of making an integrated device comprising an optical stack (6, 8) having a component and silicon substrate opaque to actinic rays stacked on top of the component, wherein the component has a planar surface bonded to a supporting frame with openings therein by an adhesive layer cured by actinic rays, wherein part of the adhesive layer lies in the shadow of opaque portions of the supporting frame, being characterized by comprising: bringing the component and the supporting frame together with a layer of adhesive applied between them; and curing the part of the adhesive layer in the shadow of the opaque portions by directing actinic rays obliquely through the openings so that they are reflected by the silicon substrate into the part of the adhesive layer in the shadow of the opaque portions. bringing the component and the supporting frame together with a layer of adhesive applied between them; and curing the part of the adhesive layer in the shadow of the opaque portions by directing actinic rays obliquely through the openings so that they are reflected by the silicon substrate into the part of the adhesive layer in the shadow of the opaque portions.
A process for producing a perfluoropolyoxyalkylene peroxide compound comprising a step of reacting a perfluoroalkene with oxygen, wherein the reaction of the perfluoroalkene with oxygen is performed in a microreactor without a hydrochlorofluorocarbon solvent or a chlorofluorocarbon solvent.
An electrophotographic photosensitive member comprising a support, a charge generation layer, and a charge transport layer in this order, the charge transport layer containing a charge transport material, the charge transport layer being a surface layer of the electrophotographic photosensitive member, the charge transport layer containing a polycarbonate resin having a structural unit selected from group A and a structural unit selected from group B, the group A including structural units represented by formula: where R 231 to R 234 each independently represent a hydrogen atom or an alkyl, aryl, or alkoxy group, R 235 and R 236 are groups of the same kind, representing an alkyl group containing 1 to 9 carbon atoms, and i 231 represents an integer of 0 to 3; the group B including structural units represented by formulae,, and: where R 241 to R 244 each independently represent a hydrogen atom or an alkyl, aryl, or alkoxy group, and X represents a single bond or a sulfonyl group; where R 251 to R 254 each independently represent a hydrogen atom or an alkyl, aryl, or alkoxy group, and R 256 and R 257 each independently represent a hydrogen atom or an alkyl, aryl, or halogenated alkyl group; where R 261 to R 264 each independently represent a hydrogen atom or an alkyl, aryl, or alkoxy group, and W represents a cycloalkylidene group containing 5 to 12 carbon atoms; wherein the polycarbonate resin has a weight-average molecular weight of 30,000 or more and 100,000 or less.
Wiper blade device comprising a wiper strip unit which has a wind deflector element, a wiper lip and a wiper strip element which comprises a longitudinal guide channel for a support element, wherein, in a fitted state, the wiper strip element forms an interlocking connection with the wiper lip, and comprising a wiper blade adapter, which is fastened to the wiper strip unit, wherein the wiper strip element has a rest surface, wherein the rest surface is located on a rest body, which is arranged centrally in a fastening recess, wherein the fastening recess is adjacent to two side walls (42, 44) of the wind deflector element, and wherein the rest body continues the longitudinal guide channel within the wiper blade adapter receiving region in such a manner that a support element emerges out of the longitudinal guide channel and is subsequently guided in a longitudinal guide unit of a wiper blade adapter, wherein, in a fitted state, the wiper blade adapter rests on the rest surface, characterized in that the side walls (42, 44) enclose a 45° angle with respect to the longitudinal direction.
Semiconductor chip comprising an element with at least two insulated vias passing through the chip from the front face to the rear face in which, on the side of the rear face of the chip, the vias are connected to one and the same conducting strip and, on the side of the front face of the chip, each via is separated from a respective conducting pad (3, 4) by a layer of a dielectric.
A process for degradation of gliadin in flour for bread making, characterized in that it comprises: a step of mixing the flour with water; at least one step of enzymatic hydrolysis to hydrolyze gliadin from the mixture obtained in the mixing step; at least one step of fermenting the mixture obtained in the enzymatic hydrolysis step by using at least one microorganism under controlled-pH conditions; wherein the microorganism is selected from Bacillus amyloliquefaciens, Lactobacillus brevis, Lactobacillus delbrueckii, Lactobacillus reuteri, Lactobacillus helveticus or mixtures thereof; and, a step of drying to obtain a gliadin-free flour.
Water pump with a pump wheel driven by an electric machine, the water pump comprises a housing cover, a spiral with an inlet and an outlet, and a cap, a stator and a rotor of the electric machine are housed within the cap, the stator comprises a stator package with wires and plug connectors for connection to an electronic circuit board, the electronic circuit board is mounted separately on the cap on the side of the pump wheel and is covered by the housing cover characterised in that the stator package is overmoulded with a first plastic material, that at least the stator package, the wires and the plug connectors are overmoulded with a second plastic material so that the cap has the shape of a cylindrical ring with a cylindrical opening therein, and that a heat sink is provided which seals the cylindrical opening, wherein the heat sink is a separate device which carries a rotor shaft and wherein the electronic circuit board is fastened to the surface of the cap near the heat sink, away from the section of the pump wheel, so that the volume of the air enclosed around the electronic circuit board is reduced. the water pump comprises a housing cover, a spiral with an inlet and an outlet, and a cap, a stator and a rotor of the electric machine are housed within the cap, the stator comprises a stator package with wires and plug connectors for connection to an electronic circuit board, the electronic circuit board is mounted separately on the cap on the side of the pump wheel and is covered by the housing cover characterised in that the stator package is overmoulded with a first plastic material, that at least the stator package, the wires and the plug connectors are overmoulded with a second plastic material so that the cap has the shape of a cylindrical ring with a cylindrical opening therein, and that a heat sink is provided which seals the cylindrical opening, wherein the heat sink is a separate device which carries a rotor shaft and wherein the electronic circuit board is fastened to the surface of the cap near the heat sink, away from the section of the pump wheel, so that the volume of the air enclosed around the electronic circuit board is reduced.
An access point, AP, applied to a wireless local area network, WLAN, system, wherein the WLAN system comprises N subchannels, the N subchannels comprise A first subchannels, N is a positive integer greater than or equal to 2, A is a positive integer less than N, characterised in that the AP comprises: a first sending unit, configured to send a beacon indication frame on each subchannel of the N subchannels, wherein the beacon indication frame is used to indicate configuration information of a beacon frame and comprises a channel identifier of each first subchannel on which the beacon frame is sent; and a second sending unit, configured to send the beacon frame on at least one first subchannel. a first sending unit, configured to send a beacon indication frame on each subchannel of the N subchannels, wherein the beacon indication frame is used to indicate configuration information of a beacon frame and comprises a channel identifier of each first subchannel on which the beacon frame is sent; and a second sending unit, configured to send the beacon frame on at least one first subchannel.
A compound having a structure of or a pharmaceutically acceptable salt thereof, for use in the treatment of a lymphoma selected from peripheral T-cell lymphoma (PTCL) in a subject previously treated for lymphoma, wherein a dose of the compound is 300 mg/m 2, wherein the compound is for intravenous administration. or a pharmaceutically acceptable salt thereof, for use in the treatment of a lymphoma selected from peripheral T-cell lymphoma (PTCL) in a subject previously treated for lymphoma, wherein a dose of the compound is 300 mg/m 2, wherein the compound is for intravenous administration.