mhurhangee/ep-ind-claims huggingface dataset:
A steam turbine rotor, comprising a rotor disk for mounting blades of a low pressure final stage L-0; another rotor disk for mounting blades of stages L-1 and L-2 positioned adjacently to the rotor disk of the low pressure final stage L-0 on the high pressure side of the rotor disk of the low pressure final stage L-0; and another rotor disk for mounting blades of a plurality of stages including stage L-3, said rotor disk being positioned adjacently to the rotor disk of the stages L-1 and L-2 on a high pressure side of the rotor disk of stages L-1 and L-2, the three rotor disks (1, 2, 3) of the stages L-0, L-1, L-2 and L-3 being joined by welding, characterized in that: a material of both the rotor disk of the low pressure final stage L-0 and the rotor disk of the stages L-1 and L-2 is a 12Cr steel and has a tensile strength of 900 to 1200 MPa; the 12Cr steel contains, by mass, C of 0.10 to 0.35%, Mo of 1.5 to 4.0% or the total of Mo, W and Co of 1.5 to 4.0%, Ni of 0.8 to 3.2%, V of 0.15 to 0.3%, Nb of 0.1 to 0.3% or the total of Nb and Ta of 0.1 to 0.3%, N of 0.04 to 0.10%, and Cr of 8.0 to 13%, with the balance being Fe and inevitable impurities; and a material of the rotor disk of stage L-3 is a 3.5%NiCrMoV steel or a 1%CrMoV steel and has a tensile strength of 600 to 750 MPa. a material of both the rotor disk of the low pressure final stage L-0 and the rotor disk of the stages L-1 and L-2 is a 12Cr steel and has a tensile strength of 900 to 1200 MPa; the 12Cr steel contains, by mass, C of 0.10 to 0.35%, Mo of 1.5 to 4.0% or the total of Mo, W and Co of 1.5 to 4.0%, Ni of 0.8 to 3.2%, V of 0.15 to 0.3%, Nb of 0.1 to 0.3% or the total of Nb and Ta of 0.1 to 0.3%, N of 0.04 to 0.10%, and Cr of 8.0 to 13%, with the balance being Fe and inevitable impurities; and a material of the rotor disk of stage L-3 is a 3.5%NiCrMoV steel or a 1%CrMoV steel and has a tensile strength of 600 to 750 MPa.
A method for operating an oxygen concentrator, the method comprising: measuring a product gas within the oxygen concentrator to produce a product gas measurement; determining whether an output of the oxygen concentrator is fluidly connected to a respiratory ventilation device based on the product gas measurement; only in response to determining that the oxygen concentrator is fluidly connected to the respiratory ventilation device, determining whether the output of the oxygen concentrator meets a supply gas requirement of the respiratory ventilation device; and only in response to determining that the output of the oxygen concentrator does not meet the supply gas requirement, adjusting a control output in the oxygen concentrator to modify operation of the oxygen concentrator. measuring a product gas within the oxygen concentrator to produce a product gas measurement; determining whether an output of the oxygen concentrator is fluidly connected to a respiratory ventilation device based on the product gas measurement; only in response to determining that the oxygen concentrator is fluidly connected to the respiratory ventilation device, determining whether the output of the oxygen concentrator meets a supply gas requirement of the respiratory ventilation device; and only in response to determining that the output of the oxygen concentrator does not meet the supply gas requirement, adjusting a control output in the oxygen concentrator to modify operation of the oxygen concentrator.
A method for processing potatoes, comprising the provision of potatoes and the possible removal of the skin from said potatoes before further processing of the potatoes takes place, which method comprises the following steps: ia) cutting potatoes and putting said potatoes thus cut on a conveyor belt; ib) visually monitoring said cut potatoes for defects; ii) grading potatoes as visually approved potatoes and visually rejected potatoes on the basis of step ib); iii) separating the visually approved potatoes from the visually rejected potatoes, wherein said separation is carried out by removing the visually rejected potatoes by pushing them aside using air, a push rod, a water jet or a combination thereof; iv) subjecting the aforesaid visually rejected potatoes to further treatment, comprising the selective removal of defective elements from the visually rejected potatoes by using one or more cutting means selected from the group of water jet, laser jet, drill, cutting dies and knife so as to obtain additionally treated potatoes and potatoes comprising defective elements; v) subjecting the aforesaid additionally treated potatoes to further processing, wherein step iv) comprises taking one or more digital images of visually rejected potatoes, analysing the one or more digital images, positioning the cutting means on the basis of said one or more analysed digital images and selectively removing defective elements from the visually rejected potatoes by cutting out the aforesaid defective elements, wherein the aforesaid one or more cutting means are brought into contact with the aforesaid, visually rejected potatoes. ia) cutting potatoes and putting said potatoes thus cut on a conveyor belt; ib) visually monitoring said cut potatoes for defects; ii) grading potatoes as visually approved potatoes and visually rejected potatoes on the basis of step ib); iii) separating the visually approved potatoes from the visually rejected potatoes, wherein said separation is carried out by removing the visually rejected potatoes by pushing them aside using air, a push rod, a water jet or a combination thereof; iv) subjecting the aforesaid visually rejected potatoes to further treatment, comprising the selective removal of defective elements from the visually rejected potatoes by using one or more cutting means selected from the group of water jet, laser jet, drill, cutting dies and knife so as to obtain additionally treated potatoes and potatoes comprising defective elements; v) subjecting the aforesaid additionally treated potatoes to further processing, wherein step iv) comprises taking one or more digital images of visually rejected potatoes, analysing the one or more digital images, positioning the cutting means on the basis of said one or more analysed digital images and selectively removing defective elements from the visually rejected potatoes by cutting out the aforesaid defective elements, wherein the aforesaid one or more cutting means are brought into contact with the aforesaid, visually rejected potatoes.
A reactor for decomposition of a liquid ammonium dinitramide-based monopropellant into hot, combustible gases, comprising a hollow body of a thermally conductive, heat resistant metallic material provided with, from the upstream end; an injector; a heat bed; a heat bed retainer; a catalyst bed of porous catalyst pellets which are heat resistant up to a temperature of at least 1000°C, and; a catalyst bed retainer, wherein the heat bed comprises a heat bed material exhibiting catalytic activity, which material is formed from non-porous or low-porous high-temperature-resistant ceramic and/or metallic materials, coated with a catalyticcally active noble metal, characterized in that the heat bed retainer exhibits flanges extending upstream into the heat bed and/or downstream into the catalyst bed. an injector; a heat bed; a heat bed retainer; a catalyst bed of porous catalyst pellets which are heat resistant up to a temperature of at least 1000°C, and; a catalyst bed retainer, wherein the heat bed comprises a heat bed material exhibiting catalytic activity, which material is formed from non-porous or low-porous high-temperature-resistant ceramic and/or metallic materials, coated with a catalyticcally active noble metal, characterized in that the heat bed retainer exhibits flanges extending upstream into the heat bed and/or downstream into the catalyst bed.
Sunroof unit for a motor vehicle having - a basic structural unit for stationary arrangement on the chassis of the motor vehicle, - a cover which is guided relative to the basic structural unit by two cover guide rails of the basic structural unit and is displaceable between a closed position and an opened position, and - a shade element (44, 46) guided relative to the basic structural unit by two shade guide rails and displaceable between a function position and a stowed position, characterized in that - a common drive motor is provided for displacement of the cover between the closed position and the opened position and for displacement of the shade element (44, 46) between the function position and the stowed position, and - a cover cable is provided inside the cover guide rail for movement of the cover and a shade element cable in the shade guide rail for movement of the shade element (44, 46), where the cover cable and the shade element cable are permanently coupled to the common drive motor such that they are driven by this drive motor simultaneously and at different speeds. - a basic structural unit for stationary arrangement on the chassis of the motor vehicle, - a cover which is guided relative to the basic structural unit by two cover guide rails of the basic structural unit and is displaceable between a closed position and an opened position, and - a shade element (44, 46) guided relative to the basic structural unit by two shade guide rails and displaceable between a function position and a stowed position, - a common drive motor is provided for displacement of the cover between the closed position and the opened position and for displacement of the shade element (44, 46) between the function position and the stowed position, and - a cover cable is provided inside the cover guide rail for movement of the cover and a shade element cable in the shade guide rail for movement of the shade element (44, 46), where the cover cable and the shade element cable are permanently coupled to the common drive motor such that they are driven by this drive motor simultaneously and at different speeds.
A direct emitting LED illumination module for eliminating chromatic dispersion, the direct emitting LED illumination module comprising: a LED light source emitting light; and a plano-convex lens having a convex surface and a plane and neighboring on the LED light source, wherein the LED light source is located at a focus of the plano-convex lens, the light is emitted onto the plane and exits from the convex surface, and the plane has a microstructure thereon, wherein the microstructure comprises a plurality of pillars protruding outwards from the plane of the plano-convex lens, wherein the dimension of the microstructure is a width or a height of each of the plurality of pillars and a size of each dimension of the microstructure is 0.8-4.0 mm, and the microstructure is distributed on a region on which the light is incident with an incident angle larger than 15 degrees relative to an optic axis of the LED light source, and wherein the plano-convex lens consists of a plurality of confocal lenses that are horizontally combined with each other and arranged side-by-side in a direction perpendicular to the optic axis of the LED light source to form a single multi-focusing lens, wherein the LED light source is located at a common focus of the plurality of confocal lenses. a LED light source emitting light; and a plano-convex lens having a convex surface and a plane and neighboring on the LED light source, wherein the LED light source is located at a focus of the plano-convex lens, the light is emitted onto the plane and exits from the convex surface, and the plane has a microstructure thereon, wherein the microstructure comprises a plurality of pillars protruding outwards from the plane of the plano-convex lens, wherein the dimension of the microstructure is a width or a height of each of the plurality of pillars and a size of each dimension of the microstructure is 0.8-4.0 mm, and the microstructure is distributed on a region on which the light is incident with an incident angle larger than 15 degrees relative to an optic axis of the LED light source, and wherein the plano-convex lens consists of a plurality of confocal lenses that are horizontally combined with each other and arranged side-by-side in a direction perpendicular to the optic axis of the LED light source to form a single multi-focusing lens, wherein the LED light source is located at a common focus of the plurality of confocal lenses.
A building material manufacturing apparatus comprising: a screen part that includes at least one screen sheet that has an inclination and that has a screen mesh, wherein the screen part is configured to cause the at least one screen sheet to perform a wave motion; and a cleaning mechanism (40, 40A) part that includes a scraping part, wherein, when the apparatus operates in a building material manufacturing mode in which a building raw material is supplied to the screen sheet and the screen sheet is performing a wave motion, the scraping part is configured to be separated from the screen sheet, and wherein, when the apparatus operates in a cleaning mode in which the building raw material is not supplied to the screen sheet and the screen sheet is not performing a wave motion, the scraping part is configured to rotate in contact with the screen sheet, characterized in that the cleaning mechanism part (40, 40A) includes a suction part for sucking the building raw material that is scraped from the screen sheet by the scraping part. a screen part that includes at least one screen sheet that has an inclination and that has a screen mesh, wherein the screen part is configured to cause the at least one screen sheet to perform a wave motion; and a cleaning mechanism (40, 40A) part that includes a scraping part, wherein, when the apparatus operates in a building material manufacturing mode in which a building raw material is supplied to the screen sheet and the screen sheet is performing a wave motion, the scraping part is configured to be separated from the screen sheet, and wherein, when the apparatus operates in a cleaning mode in which the building raw material is not supplied to the screen sheet and the screen sheet is not performing a wave motion, the scraping part is configured to rotate in contact with the screen sheet, characterized in that the cleaning mechanism part (40, 40A) includes a suction part for sucking the building raw material that is scraped from the screen sheet by the scraping part.
Electrolysis device having - a plurality of electrolytic cells which are electrically connected in series and which are arranged at least partially in a stacking direction one after the other in a cell stack, wherein the series circuit is electrically couplable to an electrical energy source, - a cell supply unit for supplying the electrolytic cells with at least one fuel during operation as intended, and - supply lines attached to the cell supply unit and to the cell stack, wherein a material of the supply lines has metal, characterized in that the supply lines are attached exclusively to a first end of the cell stack, such that the first end of the cell stack is electrically coupled to the cell supply unit, wherein the first end of the cell stack is couplable to a negative electrical potential of the electrical energy source. - a plurality of electrolytic cells which are electrically connected in series and which are arranged at least partially in a stacking direction one after the other in a cell stack, wherein the series circuit is electrically couplable to an electrical energy source, - a cell supply unit for supplying the electrolytic cells with at least one fuel during operation as intended, and - supply lines attached to the cell supply unit and to the cell stack, wherein a material of the supply lines has metal,
A computer-implemented method, comprising: recognizing a first tap input (714, 726) to a displayed object (710, 720) at a first screen (104, 704) of a multi-screen system (102, 702); recognizing a second tap input (716, 728) to the displayed object (712, 720) at a second screen (106, 706) of the multi-screen system (102, 702), the second tap input (716, 728) being recognized approximately when the first tap input (714, 726) is recognized; and determining a dual tap gesture from the first and second tap inputs (714, 726, 716, 728) recognized at approximately the same time, wherein the dual tap gesture is identified as a cross-screen combination of the first and second tap inputs (714, 726, 716, 728), wherein the dual tap gesture is effective to one of expand or pocket the displayed object (710, 712, 720), the displayed object being expanded for full-screen display on the first and second screens (104, 704, 106, 706) when the dual tap gesture is determined while the displayed object (710, 712) is pocketed, and the displayed object (710, 712) being pocketed when the dual tap gesture is determined while the displayed object (710, 712) is displayed full-screen on the first and second screens (104, 704, 106, 706). recognizing a first tap input (714, 726) to a displayed object (710, 720) at a first screen (104, 704) of a multi-screen system (102, 702); recognizing a second tap input (716, 728) to the displayed object (712, 720) at a second screen (106, 706) of the multi-screen system (102, 702), the second tap input (716, 728) being recognized approximately when the first tap input (714, 726) is recognized; and determining a dual tap gesture from the first and second tap inputs (714, 726, 716, 728) recognized at approximately the same time, wherein the dual tap gesture is identified as a cross-screen combination of the first and second tap inputs (714, 726, 716, 728), wherein the dual tap gesture is effective to one of expand or pocket the displayed object (710, 712, 720), the displayed object being expanded for full-screen display on the first and second screens (104, 704, 106, 706) when the dual tap gesture is determined while the displayed object (710, 712) is pocketed, and the displayed object (710, 712) being pocketed when the dual tap gesture is determined while the displayed object (710, 712) is displayed full-screen on the first and second screens (104, 704, 106, 706).
Dental implant or abutment comprising a ceramic body having a surface, the ceramic body comprising zirconia as the main component, wherein at least a first surface area of the ceramic body is covered with an at least essentially monomolecular phosphate layer having a thickness of less than 1.0 nm, wherein the phosphate layer contains phosphates selected from the group consisting of ortho-phosphate, poly-phosphates, cyclo-phosphates, and mixtures thereof.
Cooling element arrangement for metallurgical furnaces having the following features: a. cooling plates are provided to be arranged on a metallic wall of the furnace, wherein their hot sides are facing towards the interior of the furnace and their cold sides are facing towards the wall of the furnace; b. the cooling plates (6, 6') have coolant connections (8, 9) for at least one internal coolant channel respectively; c. the cooling plates have pre-configured openings (11, 12) into which cylindrical cooling rods are releasably integrated, wherein the cooling rods protrude over the hot sides of the cooling plates (6, 6') in the direction of the interior of the furnace in the installation position; d. a coating is positively fastened to the cooling plates, wherein the coating is or comprises either a pre-configured slag creator layer (17, 17') or a pre-configured wear protection layer (13,18), wherein the cooling rods engage with the coating, characterised in that e. several cooling rods are connected to a mutual cooling circuit. a. cooling plates are provided to be arranged on a metallic wall of the furnace, wherein their hot sides are facing towards the interior of the furnace and their cold sides are facing towards the wall of the furnace; b. the cooling plates (6, 6') have coolant connections (8, 9) for at least one internal coolant channel respectively; c. the cooling plates have pre-configured openings (11, 12) into which cylindrical cooling rods are releasably integrated, wherein the cooling rods protrude over the hot sides of the cooling plates (6, 6') in the direction of the interior of the furnace in the installation position; d. a coating is positively fastened to the cooling plates, wherein the coating is or comprises either a pre-configured slag creator layer (17, 17') or a pre-configured wear protection layer (13,18), wherein the cooling rods engage with the coating, characterised in that e. several cooling rods are connected to a mutual cooling circuit.
A compound as represented by general formula, medicinal salts and hydrates or solvates thereof: wherein, R 1 is located at position 6 on the naphthalene ring, and the compound is a compound represented by following general formula: is located at position 1 on the naphthalene ring; R 3 is selected from the group consisting of hydrogen, C1-C6 alkyl, C3-C6 cycloalkyl, a substituted or unsubstituted phenyl and a substituted or unsubstituted 5-10 membered heteroaryl containing 1-5 hetero atoms selected from N, O and S; in the case of substitution, the substituent is 1 to 3 substituents and each substituent is independently selected from the group consisting of C1-C3 alkyl, C1-C3 alkoxy, C1-C3 haloalkyl, C1-C3 haloalkoxy, hydroxy, amino, nitro and halogen; R 2 is located at any one of positions 1-8 on the naphthalene ring except R 1 and is hydrogen or halogen;, and Z is C(R 5)=CH, S or O; Y is NH, NMe, O, CH=C(R 6) or CH=N; R 5 is selected from the group consisting of hydrogen, halogen, C1-C3 alkyl and C1-C3 alkoxy, preferably from the group consisting of hydrogen, F, Cl, Br, methyl and methoxy; R6 is selected from the group consisting of hydrogen, pyrazolyl, C1-C3 alkyl-substituted pyrazolyl and C1-C3 hydroxyalkyl-substituted pyrazolyl, preferably from the group consisting of hydrogen, pyrazolyl, methyl-substituted pyrazolyl and hydroxyethyl-substituted pyrazolyl. R 3 is selected from the group consisting of hydrogen, C1-C6 alkyl, C3-C6 cycloalkyl, a substituted or unsubstituted phenyl and a substituted or unsubstituted 5-10 membered heteroaryl containing 1-5 hetero atoms selected from N, O and S; in the case of substitution, the substituent is 1 to 3 substituents and each substituent is independently selected from the group consisting of C1-C3 alkyl, C1-C3 alkoxy, C1-C3 haloalkyl, C1-C3 haloalkoxy, hydroxy, amino, nitro and halogen; R 2 is located at any one of positions 1-8 on the naphthalene ring except R 1 and is hydrogen or halogen;, and Z is C(R 5)=CH, S or O; Y is NH, NMe, O, CH=C(R 6) or CH=N; R 5 is selected from the group consisting of hydrogen, halogen, C1-C3 alkyl and C1-C3 alkoxy, preferably from the group consisting of hydrogen, F, Cl, Br, methyl and methoxy; R6 is selected from the group consisting of hydrogen, pyrazolyl, C1-C3 alkyl-substituted pyrazolyl and C1-C3 hydroxyalkyl-substituted pyrazolyl, preferably from the group consisting of hydrogen, pyrazolyl, methyl-substituted pyrazolyl and hydroxyethyl-substituted pyrazolyl.