mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a tumble dryer for drying damp laundry, comprising the following steps: - after a start of a drying process for said damp laundry in said tumble dryer, a profile of moisture (CO1, CO2, PE, WO) of air in said tumble dryer is measured, wherein measurement is performed in an ascent region of said profile of said moisture and/or during an initial phase of said drying process, - in a following step, said profile of said measured moisture is compared with stored profiles for moisture and/or a gradient of said profile of said measured moisture is compared with stored gradient threshold values (S GU, S GO) for moisture, wherein profiles and/or gradient threshold values (SGU, SGO) are stored for fibres from the following group: cotton, wool and synthetic fibres, wherein an upper gradient threshold value and a lower gradient threshold value are stored, - wherein a major fabric content comprising synthetic fibres is identified when said upper gradient threshold value (S GO) for said laundry is exceeded, a major fabric content comprising wool is identified when said lower gradient threshold value (S GU) is undershot, and a major fabric content comprising cotton (CO1, CO2) is identified between said upper gradient threshold value (S GO) and said lower gradient threshold value (S GU), - an operation of said tumble dryer is matched to a material of said identified fibres in respect of temperature profile, maximum temperature, drum movement, rotation speed and/or duration of said drying process. - after a start of a drying process for said damp laundry in said tumble dryer, a profile of moisture (CO1, CO2, PE, WO) of air in said tumble dryer is measured, wherein measurement is performed in an ascent region of said profile of said moisture and/or during an initial phase of said drying process, - in a following step, said profile of said measured moisture is compared with stored profiles for moisture and/or a gradient of said profile of said measured moisture is compared with stored gradient threshold values (S GU, S GO) for moisture, wherein profiles and/or gradient threshold values (SGU, SGO) are stored for fibres from the following group: cotton, wool and synthetic fibres, wherein an upper gradient threshold value and a lower gradient threshold value are stored, - wherein a major fabric content comprising synthetic fibres is identified when said upper gradient threshold value (S GO) for said laundry is exceeded, a major fabric content comprising wool is identified when said lower gradient threshold value (S GU) is undershot, and a major fabric content comprising cotton (CO1, CO2) is identified between said upper gradient threshold value (S GO) and said lower gradient threshold value (S GU), - an operation of said tumble dryer is matched to a material of said identified fibres in respect of temperature profile, maximum temperature, drum movement, rotation speed and/or duration of said drying process.
A membrane transmissive to EUV radiation, comprising: one or more high doped regions where said membrane is doped with a high dopant concentration, and one or more low doped regions where said membrane has no doping or a low dopant concentration; wherein a high dopant concentration is defined as dopant concentration greater than 10 17 cm -3 and a low dopant concentration is defined as a dopant concentration less than 10 17 cm -3. one or more high doped regions where said membrane is doped with a high dopant concentration, and one or more low doped regions where said membrane has no doping or a low dopant concentration;
Procedure for the production of a temperature sensor for use at temperatures above approximately 200 °C, said sensor having at least a temperature sensor element with at least a partially metalized side and a housing wall of a housing, said procedure comprising at least the following steps: - Application of a connecting layer on the housing wall, said layer comprising at least gold, silver and/or palladium; - Application of a silver sintering paste; - Arrangement of the temperature sensor element on the housing wall in such a way that the temperature sensor element is connected, with the at least partially metalized side, to the housing wall via the connecting layer and the silver paste layer; - Sintering of the silver sintering paste layer to connect the temperature sensor element to the housing wall. - Application of a connecting layer on the housing wall, said layer comprising at least gold, silver and/or palladium; - Application of a silver sintering paste; - Arrangement of the temperature sensor element on the housing wall in such a way that the temperature sensor element is connected, with the at least partially metalized side, to the housing wall via the connecting layer and the silver paste layer; - Sintering of the silver sintering paste layer to connect the temperature sensor element to the housing wall.
A replacement prosthetic heart valve adapted for engagement with a structure of an original prosthetic heart valve that comprises at least one visually detectable marker (30, 32, 34), the replacement heart valve comprising: a stent structure comprising: a generally tubular body portion; and at least one visually detectable and directionally distinguishable marker in a commissure area of the stent structure; and at least two leaflets attached within the interior area of the tubular body portion of the stent structure; wherein the at least one visually detectable and directionally distinguishable marker of the stent structure is positionable relative to at least one visually detectable marker (30, 32, 34) of the original prosthetic heart valve. a stent structure comprising: a generally tubular body portion; and at least one visually detectable and directionally distinguishable marker in a commissure area of the stent structure; and a generally tubular body portion; and at least one visually detectable and directionally distinguishable marker in a commissure area of the stent structure; and at least two leaflets attached within the interior area of the tubular body portion of the stent structure; wherein the at least one visually detectable and directionally distinguishable marker of the stent structure is positionable relative to at least one visually detectable marker (30, 32, 34) of the original prosthetic heart valve.
An area element of a fire protection glazing, in particular a glass door for fire protection purposes for preventing fire and smoke from spreading from one room into another one in the event of a fire, comprising a pane which is held by a frame consisting of frame profiles (4, 5; 23, 24) which are arranged on both sides of the pane and are connected to each other by means of a connection device, wherein the frame profiles (4, 5; 23, 24) are arranged on both sides of the pane such that they protrude beyond the border of this one, wherein a groove-shaped free space is provided between the frame profiles (4, 5; 23, 24) on both sides, in which free space the connection device is arranged, and wherein a form strip made of fire protection material is arranged within the free space such that it covers or encompasses the connection device, wherein the form strip made of fire protection material essentially fills the free space out completely, encompasses the connector and is in direct or indirect contact with the frame profiles (4, 5 or 23, 24), characterized in that the pane is a fire protection pane containing a fire protection agent and the connection device consists of - an essentially pot-shaped connecting sleeve, the bottom of which is provided with a threaded part that can be screwed into the one frame profile and the wall of which is provided with a transverse bore, - a connecting bolt having a threaded part for the connection with the other opposite frame profile and a cylinder part for being inserted into the hollow space of the pot-shaped connecting sleeve, which cylinder part is provided with a radial groove, as well as - a fixation element for positively fixing the connecting bolt in the connecting sleeve, wherein the fixation element can be screwed through the form strip into the connecting sleeve for positively fixing the connecting bolt. - an essentially pot-shaped connecting sleeve, the bottom of which is provided with a threaded part that can be screwed into the one frame profile and the wall of which is provided with a transverse bore, - a connecting bolt having a threaded part for the connection with the other opposite frame profile and a cylinder part for being inserted into the hollow space of the pot-shaped connecting sleeve, which cylinder part is provided with a radial groove, as well as - a fixation element for positively fixing the connecting bolt in the connecting sleeve,
Flow control, adapted for use in an accumulator tank or a boiler for a heating system for reducing the flow velocity of a liquid heating medium flowing into the accumulator tank or boiler, wherein the flow control comprises an inner substantially tubular member and an outer substantially cylindrical member which defines a space for accommodating at least a part of said inner tubular member, and the inner tubular member is at one end thereof configured with an inlet opening for a liquid heating medium flowing into an accumulator tank or boiler, and at least one outlet opening in a side wall thereof, characterized in that a deflector means is provided in the inner tubular member at the outlet opening for deflecting the flow of liquid heating medium out of the inner tubular member through said outlet opening, that a perforated member is provided on the inner tubular member covering at least the outlet opening such that the flow of liquid heating medium deflected through said outlet opening passes through perforations in said perforated member, that the outer cylindrical member comprises a solid part and a perforated part, and that the outer cylindrical member is positioned around the inner tubular member such that the solid part thereof is located substantially opposite to the outlet opening in the inner tubular member for deflecting the flow of liquid heating medium from said inner tubular member towards the perforated part of the outer cylindrical member and through perforations therein into the interior (2a, 2b, 2c) of the accumulator tank or boiler.
A polymeric coordination compound capable of forming a microporous metal organic framework, characterized by repeating structural units of formula of M 2 (L 1)· x DMA, wherein M is selected from Zn, Cd, and Zr; L 1 is selected from 4',4"',4""',4"""'-(ethene-1,1,2,2-tetrayl)tetrakis([1,1'-biphenyl]-3-fluoro-4- carboxylic acid) (tcbpe-F), or 4',4"',4""',4"""'-(ethene-1,1,2,2-tetrayl)tetrakis([1,1'-biphenyl]-4-carboxylic acid) (tcbpe); and x is 0 or an integer.
Transparent pane with an electrical heating layer, which extends at least over a part of the pane surface and can be electrically connected via connection means (10, 11, 12, 13, 13') to a power source, wherein the connection means comprise a strip-shaped first bus bar and a strip-shaped second bus bar, which, in each case, are electrically conductively connected directly to the heating layer over the entire strip length such that after application of a supply voltage, a heating current flows over a heating field formed by the heating layer, wherein the first bus bar is electrically conductively connected in direct contact to at least one first flat ribbon cable and the second bus bar is electrically conductively connected in direct contact to at least one second flat ribbon cable (13, 13'), and wherein the pane has at least one heating-field-free pane zone, in which at least one electrical zone heating element is disposed, which has an ohmic resistance such that the heating-field-free pane zone is heatable by applying the supply voltage, characterized in that the zone heating element is electrically conductively connected in direct contact to the at least one first flat ribbon cable and to the at least one second flat ribbon cable in an electrical parallel circuit with respect to the heating field.
An electromagnetic valve comprising: a fixed core having a closed end and forming a magnetic circuit in an inner periphery of an electromagnetic coil; and a moveable core configured to be sucked to the fixed core and allowed to be axially displaced, wherein a magnetic void is formed between the moveable core (302, 305) and a suction surface of the fixed core to which the moveable core (302, 305) is sucked, a magnetic resistance increasing part is provided around the magnetic void, the magnetic resistance increasing part is formed of a member different from the fixed core and the moveable core (302, 305), and a cylindrical void is provided at the magnetic resistance increasing part, and the cylindrical void surrounds the magnetic void and extends axially on both sides of the fixed core and the moveable core (302, 305), wherein a center of the fixed core facing the moveable core is provided with a cavity communicating with the magnetic void, wherein the magnetic void is configured to store a spring, characterized in that the moveable core is configured to be sucked into the fixed core. a fixed core having a closed end and forming a magnetic circuit in an inner periphery of an electromagnetic coil; and a moveable core configured to be sucked to the fixed core and allowed to be axially displaced, wherein a magnetic void is formed between the moveable core (302, 305) and a suction surface of the fixed core to which the moveable core (302, 305) is sucked, a magnetic resistance increasing part is provided around the magnetic void, the magnetic resistance increasing part is formed of a member different from the fixed core and the moveable core (302, 305), and a cylindrical void is provided at the magnetic resistance increasing part, and the cylindrical void surrounds the magnetic void and extends axially on both sides of the fixed core and the moveable core (302, 305), wherein a center of the fixed core facing the moveable core is provided with a cavity communicating with the magnetic void, wherein the magnetic void is configured to store a spring, characterized in that the moveable core is configured to be sucked into the fixed core.
A blown film extrusion device with a blow head and with an insulation which has a thermal resistance for the thermal insulation of the blow head in relation to the outer ambient air, wherein the blown film extrusion device has elements for controlling the thermal resistance, wherein the thermal resistance comprises means for the thermal separation, wherein the means for the thermal separation comprise at least one air gap, wherein the elements for controlling the thermal resistance influence the air flow in the at least one air gap, characterized in that movable flaps are provided to influence the air flow.
A rapid thermal cycling device (100, 200), comprising a microfluidic reaction chamber defined between a substrate and a cover; a dry reagent positioned within the microfluidic reaction chamber; and a heating element thermally coupled to the microfluidic reaction chamber to heat a fluid when introduced therein, wherein the substrate includes a thermal diffusing layer has a thermal conductivity that ranges from 20 W/m/K to 2,000 W/m/K; and characterized in that the heating element is immediately adjacent to the microfluidic reaction chamber; the microfluidic reaction chamber has an average space between the substrate and the cover from 4 μm to 150 μm; and the thermal diffusing layer has a thickness that is 3 to 40 times greater than the average space between the substrate and the cover. a microfluidic reaction chamber defined between a substrate and a cover; a dry reagent positioned within the microfluidic reaction chamber; and a heating element thermally coupled to the microfluidic reaction chamber to heat a fluid when introduced therein, wherein the substrate includes a thermal diffusing layer has a thermal conductivity that ranges from 20 W/m/K to 2,000 W/m/K; and characterized in that the heating element is immediately adjacent to the microfluidic reaction chamber; the microfluidic reaction chamber has an average space between the substrate and the cover from 4 μm to 150 μm; and the thermal diffusing layer has a thickness that is 3 to 40 times greater than the average space between the substrate and the cover.
Device for producing a brewed beverage, having a brewing chamber which has an inlet for hot water and an outlet, wherein a closure element is provided on the outlet by means of which the outlet can be opened or closed, and the brewing chamber has a lateral opening to which a capsule with an extraction material can be applied in a sealed manner in order to produce a fluid connection between an interior of the capsule and an interior of the brewing chamber, characterized in that an edge of the lateral opening forms a plane which is oriented inclined to the vertical.
Method for fixing a printed circuit board in a housing (48, 58), in which method the printed circuit board is firmly clamped in the housing (48, 58), wherein the printed circuit board is fitted with at least one fixing element which comprises an elastically resilient contact-pressure part which, when the printed circuit board is firmly clamped in the housing, is brought into contact with a part of the housing (48, 58) and is pressed against the said part with deformation, wherein, when the printed circuit board is firmly clamped in the housing (48, 58), a projection or, respectively, a recess of the contact-pressure part interacts with a recess or, respectively, a projection of the housing (48, 58), characterized in that the projection (50, 54) engages into the recess (46, 56) with radial play, and in that the contact-pressure part is at least partially composed of an elastomeric material or a rubber-elastic material.
Method for forming a corrugated fluoropolymer tube comprising the steps of: providing a fluoropolymer tube on a mandrel, which fluoropolymer tube is an extruded fluoropolymer tube without corrugations or convolutions; and exerting external force on outer surface regions of the tube beyond the elastic limit of the fluropolymer material of the tube to form corrugations having adjacent peaks and roots by displacing material from the root regions at a temperature below the melting temperature, while maintaining a relatively smooth inner bore; characterized in that said exerting of external force is performed by moving the tube along the mandrel which has a first cylindrical portion and a flaring portion extending to a second cylindrical portion having an enlarged diameter to expand the tube in the flaring portion, and by forcing the outer surface of the tube into profiles of flights of a plurality of thread rollers to displace material in the tube wall by the flights in a cold forming process manner, which thread rollers are mounted circumferentially distributed around the mandrel along the flaring portion and/or the enlarged diameter second cylindrical portion and which are rotating around their longitudinal roller axes and which are rotating around the tube relative to the tube, said flights of the thread rollers being disposed at a pitch angle with respect to a plane perpendicular to the longitudinal axis of the mandrel. providing a fluoropolymer tube on a mandrel, which fluoropolymer tube is an extruded fluoropolymer tube without corrugations or convolutions; and exerting external force on outer surface regions of the tube beyond the elastic limit of the fluropolymer material of the tube to form corrugations having adjacent peaks and roots by displacing material from the root regions at a temperature below the melting temperature, while maintaining a relatively smooth inner bore; characterized in that said exerting of external force is performed by moving the tube along the mandrel which has a first cylindrical portion and a flaring portion extending to a second cylindrical portion having an enlarged diameter to expand the tube in the flaring portion, and by forcing the outer surface of the tube into profiles of flights of a plurality of thread rollers to displace material in the tube wall by the flights in a cold forming process manner, which thread rollers are mounted circumferentially distributed around the mandrel along the flaring portion and/or the enlarged diameter second cylindrical portion and which are rotating around their longitudinal roller axes and which are rotating around the tube relative to the tube, said flights of the thread rollers being disposed at a pitch angle with respect to a plane perpendicular to the longitudinal axis of the mandrel.
A nitrogen stabilizing composition comprising: 10% to 18% w/w N-(n-butyl) thiophosphoric triamide (NBPT); a solvent comprising N-methyl-2-pyrrolidone, and two or more of propylene glycol, ethylene glycol, morpholine and glycerine; 1% to 5% w/w vegetable oil; and 1% to 5% emulsifier. 10% to 18% w/w N-(n-butyl) thiophosphoric triamide (NBPT); a solvent comprising N-methyl-2-pyrrolidone, and two or more of propylene glycol, ethylene glycol, morpholine and glycerine; 1% to 5% w/w vegetable oil; and 1% to 5% emulsifier.
A method of controlling a wind turbine connected to an electrical grid, the method comprising: generating a turbine control reference signal comprising a primary static power level signal and one or more secondary control system signals, the secondary control system signals include damping signals to dampen oscillations in the turbine, and wherein the turbine control reference signal is the sum of the primary static power level signal and the one or more secondary control system signals, and wherein a time-dependent difference between the turbine control reference signal and the grid control reference signal averages to zero within a predetermined time window; generating a grid control reference signal as the primary static power level signal; providing the turbine control reference signal to a machine side unit of a power or torque control system of the turbine; controlling, using the machine side unit, the amount of energy generated by the turbine based on the turbine control reference signal; providing the grid control reference signal to a line side unit of the power or torque control system; and controlling, using the line side unit, the amount of energy transferred to the electrical grid based on the grid control reference signal. generating a turbine control reference signal comprising a primary static power level signal and one or more secondary control system signals, the secondary control system signals include damping signals to dampen oscillations in the turbine, and wherein the turbine control reference signal is the sum of the primary static power level signal and the one or more secondary control system signals, and wherein a time-dependent difference between the turbine control reference signal and the grid control reference signal averages to zero within a predetermined time window; generating a grid control reference signal as the primary static power level signal; providing the turbine control reference signal to a machine side unit of a power or torque control system of the turbine; controlling, using the machine side unit, the amount of energy generated by the turbine based on the turbine control reference signal; providing the grid control reference signal to a line side unit of the power or torque control system; and controlling, using the line side unit, the amount of energy transferred to the electrical grid based on the grid control reference signal.