mhurhangee/ep-ind-claims huggingface dataset:
A ceiling fan motor comprising: a stator comprising a shaft and an iron core; a rotor rotatably coupled with the shaft; and a circuit box adapted to be attached to or detached from the stator and comprising a circuit board, at least one opening and a shaft hole, wherein the circuit board is electrically connected to at least one electrical connection portion, wherein the shaft extends through the shaft hole, and wherein each of the at least one opening extends through one surface to another surface of the circuit box, and wherein the at least one electrical connection portion is adapted to be connected to an external accessory or at least one wire via the at least one opening, wherein the ceiling fan motor is characterized in that the circuit box further comprises two longitudinally extending faces, an assembly channel, a top face and two support faces, wherein each longitudinally extending face is connected between the top face and one of the two support faces, wherein the top face has a different height than each support face in an extending direction of the shaft, wherein each longitudinally extending face extends from the shaft hole to an outer periphery of the circuit box, wherein an opening is arranged in each longitudinally extending face, wherein the assembly channel extends in a radial direction perpendicular to the shaft and between the two longitudinally extending faces, wherein each support face extends from a respective one of the longitudinally extending faces to the assembly channel, and wherein the shaft is capable of extending through the assembly channel. a stator comprising a shaft and an iron core; a rotor rotatably coupled with the shaft; and a circuit box adapted to be attached to or detached from the stator and comprising a circuit board, at least one opening and a shaft hole, wherein the circuit board is electrically connected to at least one electrical connection portion, wherein the shaft extends through the shaft hole, and wherein each of the at least one opening extends through one surface to another surface of the circuit box, and wherein the at least one electrical connection portion is adapted to be connected to an external accessory or at least one wire via the at least one opening, wherein the ceiling fan motor is characterized in that the circuit box further comprises two longitudinally extending faces, an assembly channel, a top face and two support faces, wherein each longitudinally extending face is connected between the top face and one of the two support faces, wherein the top face has a different height than each support face in an extending direction of the shaft, wherein each longitudinally extending face extends from the shaft hole to an outer periphery of the circuit box, wherein an opening is arranged in each longitudinally extending face, wherein the assembly channel extends in a radial direction perpendicular to the shaft and between the two longitudinally extending faces, wherein each support face extends from a respective one of the longitudinally extending faces to the assembly channel, and wherein the shaft is capable of extending through the assembly channel.
A method of manufacturing 1,4-butanediol, using a microbe and/or a culture thereof, by an enzyme reaction system that uses acetoacetyl-CoA reductase and enoyl-CoA hydratase, via acetoacetyl-CoA, 3-hydroxybutyryl-CoA and crotonyl-CoA in this order, wherein the acetoacetyl-CoA reductase is -3-hydroxybutyryl-CoA selective acetoacetyl-CoA reductase and the enoyl CoA reductase is -3-hydroxybutyryl-CoA selective enoyl-CoA hydratase, and wherein the microbe includes a gene that codes the -3-hydroxybutyryl-CoA selective acetoacetyl-CoA reductase, and a gene that codes the -3-hydroxybutyryl-CoA selective enoyl-CoA hydratase. a gene that codes the -3-hydroxybutyryl-CoA selective acetoacetyl-CoA reductase, and a gene that codes the -3-hydroxybutyryl-CoA selective enoyl-CoA hydratase.
An electric-arc evaporation method for coating surfaces, wherein the current supply of the cathode takes place as a unipolar pulsed DC current supply with a minimum and a maximum current, or as a high-current pulsation with different amplitudes, wherein at least two active consumption targets are used in the method, wherein the consumption targets are alternately connected as a cathode and an anode during the coating process.
A photoelectric conversion apparatus comprising: a first chip including a first semiconductor element layer including a plurality of pixel circuits arranged in rows and columns; and a second chip including a second semiconductor element layer, wherein the first chip and the second chip are bonded by a plurality of metal bonding portions between the first semiconductor element layer and the second semiconductor element layer, wherein the plurality of pixel circuits includes a first pixel block including n pixel circuits, where n is an integer larger than or equal to 3, a second pixel block including a same number of pixel circuits as the first pixel block, and a third pixel block including the same number of pixel circuits as the first pixel block, wherein the plurality of metal bonding portions includes first metal bonding portions connecting the first semiconductor element layer and the second semiconductor element layer, wherein an arrangement pattern in the first pixel block of the first metal bonding portions arranged at positions overlapping the first pixel block in a planar view and an arrangement pattern in the second pixel block of the first metal bonding portions arranged at positions overlapping the second pixel block in a planar view are different, and characterized in that at least three adjacent pixel blocks, each of the at least three adjacent pixel blocks having pixel circuits included in the plurality of pixel circuits arranged in one row, have arrangement patterns of metal bonding portions different from each other. a first chip including a first semiconductor element layer including a plurality of pixel circuits arranged in rows and columns; and a second chip including a second semiconductor element layer, wherein the first chip and the second chip are bonded by a plurality of metal bonding portions between the first semiconductor element layer and the second semiconductor element layer, wherein the plurality of pixel circuits includes a first pixel block including n pixel circuits, where n is an integer larger than or equal to 3, a second pixel block including a same number of pixel circuits as the first pixel block, and a third pixel block including the same number of pixel circuits as the first pixel block, wherein the plurality of metal bonding portions includes first metal bonding portions connecting the first semiconductor element layer and the second semiconductor element layer, wherein an arrangement pattern in the first pixel block of the first metal bonding portions arranged at positions overlapping the first pixel block in a planar view and an arrangement pattern in the second pixel block of the first metal bonding portions arranged at positions overlapping the second pixel block in a planar view are different, and characterized in that at least three adjacent pixel blocks, each of the at least three adjacent pixel blocks having pixel circuits included in the plurality of pixel circuits arranged in one row, have arrangement patterns of metal bonding portions different from each other.
A copolymer of formula wherein n is 4 to 1000, A is a repeating unit of formula wherein R 1 is selected from hydrogen, or C 1 -C 25 alkyl, R 301 is C 1 -C 18 alkyl, phenyl, phenyl, which is substituted by one, or more groups selected from C 1 -C 18 alkyl, halogen, OR 69, CN, or CF 3; wherein R 69 is C 1 -C 18 alkyl, or phenyl; R 601 and R 602 are hydrogen; and is a group of formula wherein R 3 and R 4 are independently of each other hydrogen, or C 1 -C 25 alkyl; and R 201 is a C 1 -C 38 alkyl group. R 1 is selected from hydrogen, or C 1 -C 25 alkyl, R 301 is C 1 -C 18 alkyl, phenyl, phenyl, which is substituted by one, or more groups selected from C 1 -C 18 alkyl, halogen, OR 69, CN, or CF 3; wherein R 69 is C 1 -C 18 alkyl, or phenyl; R 601 and R 602 are hydrogen; and is a group of formula
A plug connector for connecting pipes for liquid or gaseous media, comprising - a connector body, which has at least a first casing section, which forms a receiving space for receiving a part of the mating plug connector, wherein at least two passages are formed in the first casing section; - a locking element, which is provided for securing the plug connector relative to the mating plug connector, wherein the passages in the connector body serve to receive the locking element, wherein an indicator element is formed, which has an indicator surface, wherein the indicator element has a first partial section and a second partial section, wherein the first partial section and the second partial section are flexibly coupled to one another by means of a spring section, characterized in that the first partial section is fixedly connected to the locking element, and the indicator surface is formed on the second partial section, wherein the indicator element is formed such that, in a locking position of the locking element and simultaneous correct positioning of the mating plug connector, the second partial section is deformed relative to the first partial section, so that the indicator surface is pushed into an indicator position. - a connector body, which has at least a first casing section, which forms a receiving space for receiving a part of the mating plug connector, wherein at least two passages are formed in the first casing section; - a locking element, which is provided for securing the plug connector relative to the mating plug connector, wherein the passages in the connector body serve to receive the locking element,
A transmission apparatus configured to transmit, based on single carrier block transmission, a block symbol including N symbols, N being a natural number, and N cp symbols corresponding to a cyclic prefix, N cp being a natural number less than N, comprising: a fixed symbol arrangement unit configured to arrange a fixed symbol at a head of N cp symbols that are terminally arranged in the N symbols, a phase and an amplitude of the fixed symbol being fixed; a cyclic prefix insertion unit configured to generate the block symbol in which last N cp symbols in the N symbols with the arranged fixed symbol are added at a head of the N symbols as the cyclic prefix; an interpolation unit configured to perform interpolation processing on the block symbol; and a transmission unit configured to transmit, based on the single carrier block transmission, the block symbol after the interpolation processing. a fixed symbol arrangement unit configured to arrange a fixed symbol at a head of N cp symbols that are terminally arranged in the N symbols, a phase and an amplitude of the fixed symbol being fixed; a cyclic prefix insertion unit configured to generate the block symbol in which last N cp symbols in the N symbols with the arranged fixed symbol are added at a head of the N symbols as the cyclic prefix; an interpolation unit configured to perform interpolation processing on the block symbol; and a transmission unit configured to transmit, based on the single carrier block transmission, the block symbol after the interpolation processing.
Rotary percussion drill bit which, after running through an outer casing, upon ground contact, opens, automatically folds out and drills to a larger dimension than the diameter of the outer casing, wherein - the movable parts of the rotary percussion drill bit are rotatably mounted transversely with respect to the bit shaft, - form a drilling head, - the rotary percussion drill bit has the energy required for drilling supplied by hydraulic hammers or down-the-hole hammers, - to change rods or after work is completed, the rotary percussion drill bit can be simply retracted into the outer tube without rotation against the working direction of rotation, - the movable parts comprise at least two swing wings (32, 34), - characterized in that each of the swing wings (32, 34) comprises a swing wing head formed in the manner of a circular segment, wherein each swing wing (32, 34) - has an end face with a radially outwardly arranged bevelled edge, and a nose which extends radially inwards from the bevelled edge, wherein a recess is formed next to the nose and can receive the nose of the opposite swing wing (32, 34), wherein - cutting elements are inserted on the end face and the bevelled edge. - the movable parts of the rotary percussion drill bit are rotatably mounted transversely with respect to the bit shaft, - form a drilling head, - the rotary percussion drill bit has the energy required for drilling supplied by hydraulic hammers or down-the-hole hammers, - to change rods or after work is completed, the rotary percussion drill bit can be simply retracted into the outer tube without rotation against the working direction of rotation, - the movable parts comprise at least two swing wings (32, 34), - characterized in that each of the swing wings (32, 34) comprises a swing wing head formed in the manner of a circular segment, wherein each swing wing (32, 34) - has an end face with a radially outwardly arranged bevelled edge, and a nose which extends radially inwards from the bevelled edge, wherein a recess is formed next to the nose and can receive the nose of the opposite swing wing (32, 34), wherein - cutting elements are inserted on the end face and the bevelled edge.
A method, comprising: manufacturing an impeller of a blood pump by: forming a structure having first and second bushings (64, 58) at proximal and distal ends of the structure, the first and second bushings (64, 58) being connected to one another by at least one elongate element; causing the at least one elongate element to radially expand and form at least one helical elongate element, at least partially by axially compressing the structure; and coupling an elastomeric material to the at least one helical elongate element, such that the at least one helical elongate element with the elastomeric material coupled thereto defines a blade of the impeller, the coupling being performed such that a layer of the material is disposed around a radially outer edge of the at least one helical elongate element, the layer of material forming the effective edge of the impeller blade; characterized in that the method comprises performing a step to enhance bonding of the elastomeric material to the at least one helical elongate element in a manner that does not cause a protrusion from the effective edge of the impeller blade. forming a structure having first and second bushings (64, 58) at proximal and distal ends of the structure, the first and second bushings (64, 58) being connected to one another by at least one elongate element; causing the at least one elongate element to radially expand and form at least one helical elongate element, at least partially by axially compressing the structure; and coupling an elastomeric material to the at least one helical elongate element, such that the at least one helical elongate element with the elastomeric material coupled thereto defines a blade of the impeller, the coupling being performed such that a layer of the material is disposed around a radially outer edge of the at least one helical elongate element, the layer of material forming the effective edge of the impeller blade; characterized in that the method comprises performing a step to enhance bonding of the elastomeric material to the at least one helical elongate element in a manner that does not cause a protrusion from the effective edge of the impeller blade.
A solid detergent composition comprising: an alkaline source in an amount effective to provide a use solution having a pH of at least 8; a cleaning agent including 1 to 40 wt. % of a surfactant or surfactant system; between 10 to 80 wt. % of sodium carbonate, sodium hydroxide or sodium metasilicate, or combinations thereof as solidification agent; and at least 0.2 wt. % of a branched fatty acid disintegrator selected from the group of sodium isononanoate, isononanoic acid, sodium isooctanoate, isooctanoic acid, sodium neodecanote, neodecanoic acid, sodium neopentanoate, neopentanoic acid, sodium neoheptanote, neoheptanoic acid, 3,5,5-trimethylhexanoic acid, 6-methyl-heptanoic acid, 2,2-dimethyloctanoic acid, neopentanoic acid (2,2-dimethylpropanoic acid), 2,2-dimethylpentanoic acid, and salts thereof, or mixtures thereof; wherein the solid detergent composition has a dissolution rate when exposed to 4000 mL of aqueous solution at 68 °C (155 °F) of at least 15g/minute; and wherein the solid detergent composition is not in powder form. an alkaline source in an amount effective to provide a use solution having a pH of at least 8; a cleaning agent including 1 to 40 wt. % of a surfactant or surfactant system; between 10 to 80 wt. % of sodium carbonate, sodium hydroxide or sodium metasilicate, or combinations thereof as solidification agent; and at least 0.2 wt. % of a branched fatty acid disintegrator selected from the group of sodium isononanoate, isononanoic acid, sodium isooctanoate, isooctanoic acid, sodium neodecanote, neodecanoic acid, sodium neopentanoate, neopentanoic acid, sodium neoheptanote, neoheptanoic acid, 3,5,5-trimethylhexanoic acid, 6-methyl-heptanoic acid, 2,2-dimethyloctanoic acid, neopentanoic acid (2,2-dimethylpropanoic acid), 2,2-dimethylpentanoic acid, and salts thereof, or mixtures thereof; wherein the solid detergent composition has a dissolution rate when exposed to 4000 mL of aqueous solution at 68 °C (155 °F) of at least 15g/minute; and wherein the solid detergent composition is not in powder form.
A district heating center, which comprises at least one protective module (1; 20, 21) and a machine unit (2; 22) located in the at least one protective module (1; 20, 21), a district heating medium circuit connectable to the machine unit (2; 22) from a district heating plant and at least one heating medium circuit connectable from the machine unit (2; 22) to a building being heated, and in which district heating center at least the machine unit (2; 22) is placeable outside the outer walls of the building being heated, in the least one protective module (1; 20, 21) for being at least partly underground, and wherein the at least one protective module (1; 20, 21) comprises a bottom and at least one side wall, as well as a cover equipped with a service hatch that can be opened and closed, characterized in that - all the walls of the at least one protective module (1; 20, 21) are thermally insulated on its outer or inner surface by a polyurethane foam layer injected or molded onto the outer or inner surface of the walls of the at least one protective module (1; 20, 21); and said polyurethane foam layer is coated by an outer damp proofing layer, such as, for example, a plastic or a metal cover or a bituminous mass layer. - all the walls of the at least one protective module (1; 20, 21) are thermally insulated on its outer or inner surface by a polyurethane foam layer injected or molded onto the outer or inner surface of the walls of the at least one protective module (1; 20, 21); and said polyurethane foam layer is coated by an outer damp proofing layer, such as, for example, a plastic or a metal cover or a bituminous mass layer.
Fitting for a window, a door or the like, having a closing element that can be moved along a linear path, said closing element being mounted such that it can be rotated about a rotational axis extending transverse in relation to the linear path and including a tooth system on its circumference, and said fitting having a basic element that is arranged stationary and includes at least one counter tooth system (29, 29') for cooperation with the tooth system along at least one linear segment (28, 28'), characterized in that the linear path is longer than the linear segment (28, 28').
A battery cell arrangement, comprising: at least three pouch cells stacked along a stacking direction, wherein each pouch cell is made of two foils, which are welded together at a border of the pouch cell; a support frame arranged between adjacent pouch cells, the support frame having a cooling frame sandwiched between the pouch cells and the support frame having a border that is thicker than the cooling frame in the stacking direction; wherein the cooling frame is a flat and/or plate like part of the support frame, which has two flat faces facing pouches of the adjacent pouch cells; wherein the cooling frame has a cooling channel running through the cooling frame between an outlet and an inlet; wherein the cooling channel is covered by a foil attached to the cooling frame for forming a tubular passage through the cooling frame; wherein a pouch cell is mechanically supported at the circumferential border by two adjacent support frames, which clamp the border of the pouch cell between them; wherein a pouch of one of the pouch cells lies on the foil attached to the cooling frame. at least three pouch cells stacked along a stacking direction, wherein each pouch cell is made of two foils, which are welded together at a border of the pouch cell; a support frame arranged between adjacent pouch cells, the support frame having a cooling frame sandwiched between the pouch cells and the support frame having a border that is thicker than the cooling frame in the stacking direction; wherein the cooling frame is a flat and/or plate like part of the support frame, which has two flat faces facing pouches of the adjacent pouch cells; wherein the cooling frame has a cooling channel running through the cooling frame between an outlet and an inlet; wherein the cooling channel is covered by a foil attached to the cooling frame for forming a tubular passage through the cooling frame; wherein a pouch cell is mechanically supported at the circumferential border by two adjacent support frames, which clamp the border of the pouch cell between them; wherein a pouch of one of the pouch cells lies on the foil attached to the cooling frame.
A process for producing a substitute natural gas comprising the steps of: feeding a first synthesis gas feed stream comprising hydrogen, methane, carbon monoxide and/or carbon dioxide in parallel to two or more bulk methanators in a first bulk methanation zone comprising a first bulk methanator and a final bulk methanator wherein the bulk methanators in the first bulk methanation zone are connected in series, feeding a second synthesis gas feed stream comprising hydrogen, carbon monoxide and/or carbon dioxide to two or more bulk methanators in a second bulk methanation zone comprising a first bulk methanator, wherein the bulk methanators in the second bulk methanation zone are connected in series, each bulk methanator containing a methanation catalyst such that the feed streams are at least partially methanated, dividing the methanated gas stream recovered from the final bulk methanator in the first bulk methanation zone into a first portion and a second portion, recirculating the first portion in a recirculation loop to the first bulk methanator of the first bulk methanation zone to dilute the first synthesis gas feed stream fed to said first bulk methanator, and feeding the second portion to the first bulk methanator of the second bulk methanation zone to dilute the second synthesis gas feed stream fed to said first bulk methanator, wherein the feed pressure of the second synthesis gas feed stream is lower than the feed pressure of the first synthesis gas feed stream and the difference in pressure between the first and second feed streams is at least the pressure drop through the first bulk methanation zone.