mhurhangee/ep-ind-claims huggingface dataset:
Main shaft for a wind turbine, wherein a first end of the main shaft is adapted to be secured to a rotor hub mounting a plurality of rotor blades and a second end of the main shaft is adapted to be connected to a generator capable of converting rotational energy to electrical energy, characterized in that a measuring device for non-destructive testing of the integrity of the main shaft is permanently mounted to the main shaft so as to allow for a continuous measurement of the integrity of the main shaft.
A method for identifying a pepsin resistant alpha amylase enzyme for use in a feed supplement comprising: i) providing an alpha amylase enzyme; ii) admixing said alpha amylase with corn based feed and pepsin, incubating at pH 3 and analysing the alpha amylase activity of said alpha amylase compared to a control sample; wherein said control sample differs in that no pepsin is present during the incubation at pH 3; and iii) selecting an alpha amylase enzyme which substantially maintains alpha amylase activity under the assay conditions. i) providing an alpha amylase enzyme; ii) admixing said alpha amylase with corn based feed and pepsin, incubating at pH 3 and analysing the alpha amylase activity of said alpha amylase compared to a control sample; wherein said control sample differs in that no pepsin is present during the incubation at pH 3; and iii) selecting an alpha amylase enzyme which substantially maintains alpha amylase activity under the assay conditions.
A mixed oxide of Si and at least one metal M, said oxide comprising inorganic groups -SO 3 H, wherein the inorganic groups -SO 3 H are not bound to any moiety containing at least one carbon atom, wherein the at least one metal M is selected from the group consisting of the elements of Group 4, Group 5, Group 6, Group 7, Group 8, Group 9, Group 10, Group 11 of the periodic table, Zn, Al, La and Ce, particularly wherein the at least one metal M is selected from the group consisting of Ce, Co, Cr, Mn.
An aircraft engine system, comprising: a main engine having a main engine speed; a starter coupled to the main engine and configured to drive the main engine with compressed air; and an auxiliary power unit system coupled to the starter and configured to provide the compressed air to the starter, the APU system comprising an APU with a compressor to generate the compressed air, an APU electronic control unit coupled to the APU, characterised in that: the APU ECU is configured to receive the engine speed of the main engine and to control operation of the APU to modify an amount of the compressed air to the starter based on the main engine speed. a main engine having a main engine speed; a starter coupled to the main engine and configured to drive the main engine with compressed air; and an auxiliary power unit system coupled to the starter and configured to provide the compressed air to the starter, the APU system comprising an APU with a compressor to generate the compressed air, an APU electronic control unit coupled to the APU, characterised in that: the APU ECU is configured to receive the engine speed of the main engine and to control operation of the APU to modify an amount of the compressed air to the starter based on the main engine speed. an APU with a compressor to generate the compressed air, an APU electronic control unit coupled to the APU, characterised in that: the APU ECU is configured to receive the engine speed of the main engine and to control operation of the APU to modify an amount of the compressed air to the starter based on the main engine speed.
The process for continuous degumming of plant fibres which involves soaking stalks of fibrous plants in water for a specified time with chemical agents added or without chemical agents and subjecting the stalks to ultrasonic waves, is characterized in that the straw or the decorticated fibre is shaped in the form of a band and enters the technological process area by means of a continuous stream and moves through the zone with a specified linear velocity, and the area is divided into sections, wherein each section having a separate water supply, wherein the water flows through individual sections in a counter-current direction with respect to the direction of the band movement, and the water flows in a closed circuit.
A square bale press comprising a pressing passage, a first knotter arranged at the pressing passage, a blower and a flow guide element, wherein the flow guide element is moveable between a first position in which it directs a blowing air flow of the blower on to the first knotter and at least one second position in which it directs the blowing air flow past the first knotter, characterised in that the flow guide element in the second position directs the blowing air flow on to a second knotter.
Process for manufacturing a cast metal heat exchanger housing for a vehicle heater with a pot-like housing wall elongated in the direction of a housing longitudinal axis and with a plurality of heat transfer ribs extending in the direction of the housing longitudinal axis on an outer side of the housing wall in the area of a circumferential wall and in the area of a bottom wall of the housing wall, the process comprising the following steps: - in a metal casting operation filling liquid metal material into a casting mould via a sprue opening with a sprue cross-sectional area provided in a casting mould in an area near the bottom wall, - after carrying out the metal casting operation, cooling the metal material, - after cooling the metal material, cutting off a sprue from the heat exchanger housing in such a way that that an axial end face of the heat exchanger housing corresponding to the sprue cross-sectional area and essentially at right angles to the housing longitudinal axis is formed, characterized in that the sprue cross-sectional area comprises at least part of the heat transfer ribs and in that the axial end face of the heat exchanger housing corresponding to the sprue cross-sectional area and essentially at right angles to the housing longitudinal axis extends at least into the area of part of the heat transfer ribs. - in a metal casting operation filling liquid metal material into a casting mould via a sprue opening with a sprue cross-sectional area provided in a casting mould in an area near the bottom wall, - after carrying out the metal casting operation, cooling the metal material, - after cooling the metal material, cutting off a sprue from the heat exchanger housing in such a way that that an axial end face of the heat exchanger housing corresponding to the sprue cross-sectional area and essentially at right angles to the housing longitudinal axis is formed,
An external tire pressure gauge mounting structure comprising a base having an externally threaded sidewall and a cap having an internally threaded sidewall; the base and cap are locked together to provide an internal mounting space; characterized in that the mounting structure further comprises a gear, a cushion ring and a locking member; the gear is fixed on a bottom portion of the base and has a plurality of circumferentially distributed teeth; a through hole is defined in the cushion ring and a plurality of teeth is provided on a sidewall of the through hole; an outer periphery of the gear is inserted into the through hole of the cushion ring, and the teeth of the cushion ring and gear mesh each other; the locking member is pressed tightly against the cushion ring and gear; the locking member, gear and base all have their threaded holes for locking with a gas nozzle valve rod.
A yarn feeding mechanism for a flat knitting machine which is configured to form a plurality of yarns (12A, 12B) into a folded yarn by a yarn combining device and to supply said folded yarn to a yarn carrier, characterised by a V-groove guide roller having a substantially V-shaped groove rotatably supported in a feeding path from the yarn combining device to the yarn carrier, and a rotation shaft of the V-groove guide roller inclined relatively to a direction perpendicular to the feeding path for enabling the folded yarn to be easily rolled from one inclined surface of two inclined surfaces (243A, 243B) of the groove to a valley.
A method for preparing an alignment mark for the spacer layer of the color filter substrate of claim 9, wherein the method comprises: providing a substrate; forming a black matrix layer on the substrate and forming (101, 501) at least one first sub-pixel opening area (200, 400) and a plurality of second sub-pixel opening areas, wherein the size of the first sub-pixel opening area (200, 400) is smaller than the size of the second sub-pixel opening area; forming color film layers on the first sub-pixel opening area (200, 400) and the second sub-pixel opening areas respectively, wherein the size of the color film layer on the first sub-pixel opening area (200, 400) is smaller than the size of the color film layer on the second sub-pixel opening area; forming a flat layer on the color film layer; and forming an alignment mark on the flat layer at a designated position around the first sub-pixel opening area (200, 400). providing a substrate; forming a black matrix layer on the substrate and forming (101, 501) at least one first sub-pixel opening area (200, 400) and a plurality of second sub-pixel opening areas, wherein the size of the first sub-pixel opening area (200, 400) is smaller than the size of the second sub-pixel opening area; forming color film layers on the first sub-pixel opening area (200, 400) and the second sub-pixel opening areas respectively, wherein the size of the color film layer on the first sub-pixel opening area (200, 400) is smaller than the size of the color film layer on the second sub-pixel opening area; forming a flat layer on the color film layer; and forming an alignment mark on the flat layer at a designated position around the first sub-pixel opening area (200, 400).
A switch system comprising: a switch assembly that includes a housing having a bottom surface that includes a latch pocket defined therein, wherein the latch pocket includes a top surface, wherein the housing defines a housing interior that includes one of a magnetic switch or a magnetic field generating device disposed therein, wherein the magnetic switch or magnetic field generating device is positioned adjacent the top surface of the latch pocket, and wherein the magnetic switch has a first state and a second state, a latch bolt movable between a latched position and an unlatched position, wherein the other of the magnetic switch or magnetic field generating device is associated with a distal end of the latch bolt, wherein when the latch bolt is in the unlatched position it is not received in the latch pocket and the magnetic switch is in the first state, whereby an electrical component is in a first state, and wherein when the latch bolt is in the latched position it is received in the latch pocket and the magnetic switch is in the second state, whereby the electrical component is switched to a second state; and wherein the switch assembly further comprises an override switch that is movable between a first position and a second position, wherein when the override switch is moved to the second position the electrical component is switched to the second state, whereby the magnetic switch remains in the first state. a switch assembly that includes a housing having a bottom surface that includes a latch pocket defined therein, wherein the latch pocket includes a top surface, wherein the housing defines a housing interior that includes one of a magnetic switch or a magnetic field generating device disposed therein, wherein the magnetic switch or magnetic field generating device is positioned adjacent the top surface of the latch pocket, and wherein the magnetic switch has a first state and a second state, a latch bolt movable between a latched position and an unlatched position, wherein the other of the magnetic switch or magnetic field generating device is associated with a distal end of the latch bolt, wherein when the latch bolt is in the unlatched position it is not received in the latch pocket and the magnetic switch is in the first state, whereby an electrical component is in a first state, and wherein when the latch bolt is in the latched position it is received in the latch pocket and the magnetic switch is in the second state, whereby the electrical component is switched to a second state; and wherein the switch assembly further comprises an override switch that is movable between a first position and a second position, wherein when the override switch is moved to the second position the electrical component is switched to the second state, whereby the magnetic switch remains in the first state.
A computer-implemented method for determining wettability characteristics of a fluid-bearing porous medium, the method comprising the steps of: receiving a plurality of measurement data, each of which is indicative of a relaxation time of fluid present in the porous medium at a defined fluid saturation: i) at different points in time; ii) at different locations in the porous medium; or iii) at different stages before, after and/or during at least one of a primary, secondary or tertiary fluid recovery process; receiving reference data indicative of one or more reference relaxation times of the fluid; calculating a wettability index for each of the plurality of measurement data, respectively, on the basis of differences between the received plurality of measurement data and the received reference data, each said wettability index being indicative of the wettability characteristics of the porous medium at the defined fluid saturation; and calculating, on the basis of a comparison of the calculated wettability indices, a wettability index modification factor indicative of a change in the wettability characteristics of the porous medium. receiving a plurality of measurement data, each of which is indicative of a relaxation time of fluid present in the porous medium at a defined fluid saturation: i) at different points in time; ii) at different locations in the porous medium; or iii) at different stages before, after and/or during at least one of a primary, secondary or tertiary fluid recovery process; i) at different points in time; ii) at different locations in the porous medium; or iii) at different stages before, after and/or during at least one of a primary, secondary or tertiary fluid recovery process; receiving reference data indicative of one or more reference relaxation times of the fluid; calculating a wettability index for each of the plurality of measurement data, respectively, on the basis of differences between the received plurality of measurement data and the received reference data, each said wettability index being indicative of the wettability characteristics of the porous medium at the defined fluid saturation; and calculating, on the basis of a comparison of the calculated wettability indices, a wettability index modification factor indicative of a change in the wettability characteristics of the porous medium.
A formulation comprising citric acid or an alkali metal salt of citric acid, at least one graft copolymer formed from (a) at least one graft base selected from nonionic monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains, obtainable by grafting of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one compound of the general formula where the variables are defined as follows: R 1 is selected from methyl and hydrogen, A 1 is selected from C 2 -C 4 -alkylene, R 2 are the same or different and are selected from C 1 -C 4 -alkyl, X - is selected from halide, mono-C 1 -C 4 -alkylsulfate and sulfate, a total of zero to 0.5% by weight of methylglycinediacetic acid (MGDA) and glutaminediacetic acid (GLDA) and alkali metal salts of MGDA and GLDA. citric acid or an alkali metal salt of citric acid, at least one graft copolymer formed from (a) at least one graft base selected from nonionic monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains, obtainable by grafting of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one compound of the general formula where the variables are defined as follows: R 1 is selected from methyl and hydrogen, A 1 is selected from C 2 -C 4 -alkylene, R 2 are the same or different and are selected from C 1 -C 4 -alkyl, X - is selected from halide, mono-C 1 -C 4 -alkylsulfate and sulfate, (a) at least one graft base selected from nonionic monosaccharides, disaccharides, oligosaccharides and polysaccharides, and side chains, obtainable by grafting of (b) at least one ethylenically unsaturated mono- or dicarboxylic acid and (c) at least one compound of the general formula where the variables are defined as follows: R 1 is selected from methyl and hydrogen, A 1 is selected from C 2 -C 4 -alkylene, R 2 are the same or different and are selected from C 1 -C 4 -alkyl, X - is selected from halide, mono-C 1 -C 4 -alkylsulfate and sulfate, R 1 is selected from methyl and hydrogen, A 1 is selected from C 2 -C 4 -alkylene, R 2 are the same or different and are selected from C 1 -C 4 -alkyl, X - is selected from halide, mono-C 1 -C 4 -alkylsulfate and sulfate, a total of zero to 0.5% by weight of methylglycinediacetic acid (MGDA) and glutaminediacetic acid (GLDA) and alkali metal salts of MGDA and GLDA.
An elevator system (1, 1'), comprising: a hoistway, an elevator car (2, 2') arranged in the hoistway, and an elevator control controlling the elevator car (2, 2') to move vertically in the hoistway between landings of a building, wherein a floor of the elevator car (2, 2') is provided with at least a first and a second roll which are rotatably suspended in the elevator car for rotation around rotation axles which are parallel to a door opening (9, 9') of the elevator car to provide a rolling floor surface, characterized in that a floor section comprising one or more floor elements which are movable between a load bearing position, where the floor elements are aligned on top of the rolling floor surface and provide a fixed floor surface, and a transport position, where the rolling floor surface is revealed in the elevator car (2, 2'). a hoistway, an elevator car (2, 2') arranged in the hoistway, and an elevator control controlling the elevator car (2, 2') to move vertically in the hoistway between landings of a building, wherein a floor of the elevator car (2, 2') is provided with at least a first and a second roll which are rotatably suspended in the elevator car for rotation around rotation axles which are parallel to a door opening (9, 9') of the elevator car to provide a rolling floor surface, characterized in that a floor section comprising one or more floor elements which are movable between a load bearing position, where the floor elements are aligned on top of the rolling floor surface and provide a fixed floor surface, and a transport position, where the rolling floor surface is revealed in the elevator car (2, 2').
A swallowable device comprising: a capsule sized to pass through an intestinal tract; a tissue penetrating member positioned in the capsule, configured to contain a drug, and having a tissue penetrating end for penetrating an intestinal wall of the intestinal tract; a delivery member for delivering the drug from the tissue penetrating member into tissue; an actuating mechanism coupled to at least one of the tissue penetrating member or the delivery member, the actuating mechanism configured to advance the tissue penetrating member into the intestinal wall and advance the delivery member to deliver the drug; and a release element operatively coupled to the actuating mechanism, the release element configured to degrade such that the actuating mechanism is actuated to release the tissue penetrating member to penetrate the intestinal wall and advance the delivery member to deliver the drug, wherein the release element comprises a material configured to degrade upon exposure to a condition in the intestinal tract. a capsule sized to pass through an intestinal tract; a tissue penetrating member positioned in the capsule, configured to contain a drug, and having a tissue penetrating end for penetrating an intestinal wall of the intestinal tract; a delivery member for delivering the drug from the tissue penetrating member into tissue; an actuating mechanism coupled to at least one of the tissue penetrating member or the delivery member, the actuating mechanism configured to advance the tissue penetrating member into the intestinal wall and advance the delivery member to deliver the drug; and a release element operatively coupled to the actuating mechanism, the release element configured to degrade such that the actuating mechanism is actuated to release the tissue penetrating member to penetrate the intestinal wall and advance the delivery member to deliver the drug, wherein the release element comprises a material configured to degrade upon exposure to a condition in the intestinal tract.
Method for applying an adhesive film to a component, comprising the steps a. providing a component, b. providing an adhesive film which comprises an adhesive layer, c. applying the adhesive film to a surface of the component, wherein, to apply the adhesive film, the following measures are taken: d. the adhesive film is positioned between the surface of the component and an elastic membrane, e. the elastic membrane is transferred at least in certain regions into a curved state with a convex and a concave side and is brought into contact with the surface of the component with the convex side first, such that the adhesive layer of the adhesive film is pressed onto the surface of the component in a full-area manner by the elastic membrane, f. the adhesive layer of the adhesive film is pressed onto the surface of the component in a full-area manner by a negative pressure being applied to that side of the elastic membrane which faces towards the adhesive film, and, g. to stabilize the component against deformation brought about by this negative pressure, the elastic membrane along with the adhesive film is pushed against the surface of the component with the aid of a plunger means. a. providing a component, b. providing an adhesive film which comprises an adhesive layer, c. applying the adhesive film to a surface of the component, d. the adhesive film is positioned between the surface of the component and an elastic membrane, e. the elastic membrane is transferred at least in certain regions into a curved state with a convex and a concave side and is brought into contact with the surface of the component with the convex side first, such that the adhesive layer of the adhesive film is pressed onto the surface of the component in a full-area manner by the elastic membrane, f. the adhesive layer of the adhesive film is pressed onto the surface of the component in a full-area manner by a negative pressure being applied to that side of the elastic membrane which faces towards the adhesive film, and, g. to stabilize the component against deformation brought about by this negative pressure, the elastic membrane along with the adhesive film is pushed against the surface of the component with the aid of a plunger means.