mhurhangee/ep-ind-claims huggingface dataset:
A multi-component room-temperature-curable silicone elastomer composition comprising: 100 parts by weight of a diorganopolysiloxane capped at the molecular terminals by alkoxysilyl groups or hydroxysilyl groups, having a viscosity at 25°C of 20 to 1,000,000 mPa•s measured using a V-type rotational viscometer; from 0.1 to 20 parts by weight of a silicon-bonded aryl group-containing alkoxysilane; from 0.1 to 10 parts by weight of an organic compound having at least two alkoxysilyl groups in one molecule, and being free of siloxane bonds (however, a weight ratio of the component to the component is from 95:5 to 30:70); from 0.001 to 0.2 parts by weight of a curing catalyst; and less than 0.02 part by weight of an aminoalkylmethoxysilane per 100 parts by weight of the component, or free of aminoalkylmethoxysilane; wherein the multi-component room-temperature-curable silicone elastomer composition is a two-component room-temperature-curable silicone elastomer composition comprising: a composition including the component, but not the component, not the component, and not the component; and a composition including the component, the component, and the component, but not the component. 100 parts by weight of a diorganopolysiloxane capped at the molecular terminals by alkoxysilyl groups or hydroxysilyl groups, having a viscosity at 25°C of 20 to 1,000,000 mPa•s measured using a V-type rotational viscometer; from 0.1 to 20 parts by weight of a silicon-bonded aryl group-containing alkoxysilane; from 0.1 to 10 parts by weight of an organic compound having at least two alkoxysilyl groups in one molecule, and being free of siloxane bonds (however, a weight ratio of the component to the component is from 95:5 to 30:70); from 0.001 to 0.2 parts by weight of a curing catalyst; and less than 0.02 part by weight of an aminoalkylmethoxysilane per 100 parts by weight of the component, or free of aminoalkylmethoxysilane; wherein the multi-component room-temperature-curable silicone elastomer composition is a two-component room-temperature-curable silicone elastomer composition comprising: a composition including the component, but not the component, not the component, and not the component; and a composition including the component, the component, and the component, but not the component. a composition including the component, but not the component, not the component, and not the component; and a composition including the component, the component, and the component, but not the component.
System for forming a temporary water-retaining structure, comprising: • a plurality of water-retaining elements, and, • at least one connecting piece; wherein each said water-retaining element comprises a bottom, side walls, and first connecting means; wherein the side walls comprise longitudinal side walls extending substantially parallel to the lengthwise direction of the temporary water-retaining structure to be formed, wherein said at least one connecting piece differs in shape and/or size from the shape and/or size of the water-retaining elements and is provided with second connecting means which are complementary to the first connecting means of the water-retaining elements; wherein the first connecting means are designed to connect a said water-retaining element in a water-retaining manner to at least one adjacent said water-retaining element by means of a said connecting piece;and wherein each said water retaining element is open at the top and the side walls diverge from the botton relative to each other to receive a substantially identically shaped second said water-retaining element during transport and/or storage in a nesting stackable manner; characterized, in that the side walls further comprise transverse side walls extending substantially transversely to the lengthwise direction of the temporary water-retaining structure to be formed; in that the longitudinal and transverse side walls of each water-retaining element are immovably connected to the bottom of said water retaining-element and extend upwards from the bottom relative to each other such that each said water-retaining element forms a water-fillable container. • a plurality of water-retaining elements, and, • at least one connecting piece;
A process for the production of methyl acetate which process comprises the carbonylation of a dimethyl ether feed with carbon monoxide under substantially anhydrous conditions such that water is present in the dimethyl ether feed in an amount of 2.5wt% or less, in the presence of a zeolite catalyst effective for said carbonylation, wherein said carbonylation is carried out at a temperature in the range of greater than 250 °C to 350 °C and at a pressure in the range of 30 to 80 barg.
Method for manufacturing of a flavouring concentrate comprising the following steps: - preparing an aqueous starting solution from foodstuff, wherein the aqueous starting solution being a vapour condensate from fruits or vegetables, - concentrating the aqueous starting solution by osmosis using a semipermeable biomimetic membrane, and - forming a flavouring concentrate as retentate, wherein the semipermeable biomimetic membrane comprises: vesicles of liposomes or polymersomes containing at least one aquaporine protein; a thin-film composite matrix containing embedded vesicles; and a carrier layer; wherein the method is performed at a temperature in a range of 10 to 40°C; and wherein the aqueous starting solution is concentrated by the factor 20 to 1000. - preparing an aqueous starting solution from foodstuff, wherein the aqueous starting solution being a vapour condensate from fruits or vegetables, - concentrating the aqueous starting solution by osmosis using a semipermeable biomimetic membrane, and - forming a flavouring concentrate as retentate, vesicles of liposomes or polymersomes containing at least one aquaporine protein; a thin-film composite matrix containing embedded vesicles; and a carrier layer; wherein the method is performed at a temperature in a range of 10 to 40°C; and wherein the aqueous starting solution is concentrated by the factor 20 to 1000.
A refrigeration system, comprising a main refrigeration circuit including a compressor, a heat-source-side heat exchanger, and a user-side heat exchanger; a discharge temperature detecting mechanism (Td) provided in the main refrigerant circuit and configured to detect the discharge temperature (td) of the refrigerant at the discharge side of the compressor; a bypass refrigerant circuit connected to the main refrigerant circuit and configured such that a portion of the refrigerant flowing from the heat-source-side heat exchanger to the user-side heat exchanger is diverted from the main refrigerant circuit and returned to the intake side of the compressor; a bypass expansion mechanism provided in the bypass refrigerant circuit and configured to regulate the flow rate of the refrigerant flowing through the bypass refrigerant circuit; a cooling device configured and arranged to cool the refrigerant flowing from the heat-source-side heat exchanger to the user-side heat exchanger in the main refrigerant circuit using the refrigerant that exits the bypass expansion mechanism and returns to the intake side of the compressor; a superheating degree detecting mechanism (Tsh) is provided in the bypass refrigerant circuit and configured to detect the superheating degree (tSHa) of the refrigerant at the outlet side of the cooling device; an expansion mechanism control means configured to control the bypass expansion mechanism based on the superheating degree (tSHa) detected by the superheating degree detecting mechanism such that the superheating degree of the refrigerant flowing through the bypass refrigerant circuit is substantially equal to a prescribed superheating degree (tSHs), characterized by the value of the prescribed superheating degree (tSHs) being set based on the discharge temperature (td) detected by the discharge temperature detecting mechanism such that wet compression does not occur in the compressor.
Hydraulic valve for a pivoting motor adjuster of a camshaft, having a valve housing with a longitudinal axis and a valve piston which can be positioned in the valve housing such that it can be displaced axially along the longitudinal axis, it being possible for a first working connector of the valve housing and a second working connector of the valve housing to be opened and closed with the aid of the valve piston, the first working connector and the second working connector being spaced apart from one another axially, and having a supply connector of the valve housing which serves to supply the hydraulic valve with a hydraulic fluid which is delivered with the aid of a delivery device, it being possible for the hydraulic fluid to flow through the hydraulic valve in different ways with the aid of a duct system of the valve piston, through which duct system flow can pass, and a first tank connector of the hydraulic valve being configured on the valve housing for discharging the hydraulic fluid from the hydraulic valve, and a first check valve being positioned on the valve piston in a positioning groove of the valve piston in order to avoid a discharge of hydraulic fluid from the positioning groove into the duct system, characterized in that the hydraulic valve has a limiting element which encloses the first check valve at least partially in order to limit a radial extent of the first check valve.
A tracheal tube configured to be inserted through the trachea and bronchi of a subject, comprising: a tube body including a main tube configured to be inserted into the trachea of the subject and a branch tube configured to be inserted into the bronchus of the subject and having a through hole on an outer circumferential surface thereof, a bronchial cuff provided on an outer circumferential surface of the branch tube and configured to press an inner circumferential surface of the bronchus; wherein the bronchial cuff is spaced apart in the axial direction of the tube body and forms a plurality of ventilation spaces (V1, V2, V3, V4, V5, V6); wherein the ventilation spaces (V1, V2, V3, V4, V5, V6) are in communication with each other; wherein the through hole communicate with the ventilation space (V1, V2, V3, V4, V5, V6); wherein the bronchial cuff is formed into a continuous helical shape. wherein the ventilation spaces (V1, V2, V3, V4, V5, V6) are in communication with each other; wherein the through hole communicate with the ventilation space (V1, V2, V3, V4, V5, V6); wherein the bronchial cuff is formed into a continuous helical shape.
A cosmetic composition comprising: a) bisabolol and niacinamide, and b) a first material which is N-undecylenoyl-L-phenylalanine, and c) a second material selected from the group consisting of ethyl palmitate, bis (2-ethylhexyl) adipate, bis (2-ethylhexyl) maleate, bis (2-ethylhexyl) sebacate, and mixtures thereof, or a) bisabolol and niacinamide, and b) a first material which is hexyldecanol, and c) a second material selected from the group consisting of ethyl palmitate, (2-ethylhexyl) maleate, 5-pentadecanol, 2-ethylhexyl sebacate, or mixtures thereof; a) bisabolol and niacinamide, and b) a first material which is N-undecylenoyl-L-phenylalanine, and c) a second material selected from the group consisting of ethyl palmitate, bis (2-ethylhexyl) adipate, bis (2-ethylhexyl) maleate, bis (2-ethylhexyl) sebacate, and mixtures thereof, or a) bisabolol and niacinamide, and b) a first material which is hexyldecanol, and c) a second material selected from the group consisting of ethyl palmitate, (2-ethylhexyl) maleate, 5-pentadecanol, 2-ethylhexyl sebacate, or mixtures thereof;
A fuel system (1, 1A) which supplies fuel to a jet engine, comprising: a fuel pump that is formed of a constant-volume pump for changing a discharge flow rate in conjunction with a variation in a speed of revolution of a drive shaft; a boost pump (4, 10, 20) that is disposed upstream from the fuel pump and that is formed of a constant-volume pump of which a discharge flow rate per unit of revolution of a drive shaft is greater than that of the fuel pump; a return flow channel that connects an upstream side and a downstream side of the boost pump (4, 10, 20); and a relief valve that is disposed in the return flow channel and opened when an internal pressure of the return flow channel is greater than a reference pressure; characterized in that: the system further comprises a single electric motor that rotationally drives the drive shaft of the fuel pump and the drive shaft of the boost pump (4, 10, 20) in a state in which the speed of revolutions thereof are equal to each other; and that the reference pressure is a pressure determined such that cavitation does not occur in the fuel pump, wherein a surplus of the fuel discharged from the boost pump is returned to the upstream side of the boost pump only when the internal pressure of the return flow channel is greater than the reference pressure. a fuel pump that is formed of a constant-volume pump for changing a discharge flow rate in conjunction with a variation in a speed of revolution of a drive shaft; a boost pump (4, 10, 20) that is disposed upstream from the fuel pump and that is formed of a constant-volume pump of which a discharge flow rate per unit of revolution of a drive shaft is greater than that of the fuel pump; a return flow channel that connects an upstream side and a downstream side of the boost pump (4, 10, 20); and a relief valve that is disposed in the return flow channel and opened when an internal pressure of the return flow channel is greater than a reference pressure; characterized in that: the system further comprises a single electric motor that rotationally drives the drive shaft of the fuel pump and the drive shaft of the boost pump (4, 10, 20) in a state in which the speed of revolutions thereof are equal to each other; and that the reference pressure is a pressure determined such that cavitation does not occur in the fuel pump, wherein a surplus of the fuel discharged from the boost pump is returned to the upstream side of the boost pump only when the internal pressure of the return flow channel is greater than the reference pressure. the system further comprises a single electric motor that rotationally drives the drive shaft of the fuel pump and the drive shaft of the boost pump (4, 10, 20) in a state in which the speed of revolutions thereof are equal to each other; and that the reference pressure is a pressure determined such that cavitation does not occur in the fuel pump,
Measuring system having a carrying body, on which are fitted guides (10, 11) for displaceable and adjustable measuring devices (12, 13), having a substructure, which supports the carrying body and defines a frame which is formed from frame carriers, surrounds an essentially rectangular frame opening and is fastened on supporting elements for providing support on a foundation, and having a measuring panel for accommodating a workpiece which is to be measured, characterized in that, with two frame carriers being located opposite one another, a respective carrying beam is fitted alongside the frame carriers, within the frame opening, and has each of its ends supported, via a point of articulation, on a surface of a supporting element, said surface projecting, on the underside of the frame, into the surface area defined by the frame opening, wherein the measuring panel is supported laterally on each of the two carrying beams.
System for assembling or disassembling a blade of a wind turbine, the wind turbine comprising a tower resting on a base, a rotor comprising at least one rotor blade having a blade connection flange and a nacelle mounted atop the tower, a hub rotatably connected to the nacelle and comprising a hub connection flange adapted to be detachably connected to the blade connection flange of a rotor blade, the hub connection flange being connected to a blade pitch bearing comprising holes, wherein the system comprises: • a first positioning element (1, 36) adapted to be attached to the nacelle or to the tower in a top area; • a second positioning element adapted to be joined to the blade; being the first (1, 36) and second positioning elements configured to cooperate to provide an accurate position of the blade connection flange prior to connection to the hub connection flange, characterized in that the second positioning element is adapted to be joined to the blade in a root blade area, wherein the system further comprises: • a first guiding element configured to be movably connected to the first positioning element (1, 36) and / or the second positioning element, for guiding the first positioning element (1, 36) and / or the second positioning element, in such a way that, when the first and second positioning elements cooperate, a trajectory of the blade substantially parallel to the axis of the holes is provided. • a first positioning element (1, 36) adapted to be attached to the nacelle or to the tower in a top area; • a second positioning element adapted to be joined to the blade; being the first (1, 36) and second positioning elements configured to cooperate to provide an accurate position of the blade connection flange prior to connection to the hub connection flange, characterized in that the second positioning element is adapted to be joined to the blade in a root blade area, wherein the system further comprises: • a first guiding element configured to be movably connected to the first positioning element (1, 36) and / or the second positioning element, for guiding the first positioning element (1, 36) and / or the second positioning element, in such a way that, when the first and second positioning elements cooperate, a trajectory of the blade substantially parallel to the axis of the holes is provided.
Cellulosic banknote comprising a cellulosic banknote substrate having a surface, wherein the cellulosic banknote substrate comprises all security features within the substrate and applied on the surface of the substrate, and an amphiphobic coating, wherein the amphiphobic coating comprises an inorganic material selected from the group of ceramic oxides and an organic fluoro material selected from the group consisting of fluoroalkylsilane polymers, acrylic fluoropolymers, and perfluoropolyalkylether polymers, and is arranged on at least part of a surface of the cellulosic banknote substrate, characterized in that the inorganic material is configured as a layer having a nanostructured surface on at least part of the surface of the cellulosic banknote substrate, wherein the layer of inorganic material has a mean thickness of less than 1 μm and wherein the nanostructured surface of the inorganic material layer is at least partly coated with the organic fluoro material thereby forming a fluorinated inorganic material layer exhibiting a nanostructured surface as the amphiphobic coating having i. a static water contact angle > 110°, preferably ≥ 120°, preferably ≥ 140° measured at room temperature with a sessile drop method using 1 μl per drop deionized water, ii. a static n-hexadecane contact angle ≥ 60°, preferably ≥ 80°, more preferably ≥ 100° measured at room temperature with a sessile drop method using 1 μl per drop n-hexadecane, iii. optionally a melted sebum contact angle ≥ 60°, preferably ≥ 80° measured at 50 °C with a sessile drop method using 1 μl per drop synthetic sebum, and iv. optionally a surface energy ≤ 20 mJ/m 2, preferable ≤ 15 mJ/m 2, more preferable ≤ 10 mJ/m 2 determined with the Owens, Wendt, Rabel and Kaelble (OWRK) method. i. a static water contact angle > 110°, preferably ≥ 120°, preferably ≥ 140° measured at room temperature with a sessile drop method using 1 μl per drop deionized water, ii. a static n-hexadecane contact angle ≥ 60°, preferably ≥ 80°, more preferably ≥ 100° measured at room temperature with a sessile drop method using 1 μl per drop n-hexadecane, iii. optionally a melted sebum contact angle ≥ 60°, preferably ≥ 80° measured at 50 °C with a sessile drop method using 1 μl per drop synthetic sebum, and iv. optionally a surface energy ≤ 20 mJ/m 2, preferable ≤ 15 mJ/m 2, more preferable ≤ 10 mJ/m 2 determined with the Owens, Wendt, Rabel and Kaelble (OWRK) method.
Lock with a lock housing, a catch, and a latch nut divided in two nut halves (32 and 34) rotatably mounted in the lock housing, of which one nut half is operable from one side of the lock and the other nut half is operable from the other side of the lock, with a nut middle part engaging the catch tail of the catch, wherein the nut halves (32 and 34) and the nut middle part are provided with receiving openings for a coupling part which is coupleable with the nut middle part and with either one or the other nut half (32 and 34) by displacement within the receiving opening, wherein the coupling part, the nut halves (32, 34) and/or the nut middle part comprise at least one means which secures the current position of the coupling part, wherein the coupling part is formed as a pin or bolt, wherein the pin or bolt has a peripheral bead, characterized in that the peripheral bead is as a separate component in the form of a spring ring or o-ring.
A nozzle for a floor cleaning device, suitable for both wet and dry cleaning, the nozzle comprising: an airflow inlet at a front end of the nozzle, and a detachable cleaning device that, if mounted on the nozzle, lifts a rear end of the nozzle, characterized by a squeegee that reaches substantially close to a surface to be cleaned with the detachable cleaning device being attached to the nozzle. an airflow inlet at a front end of the nozzle, and a detachable cleaning device that, if mounted on the nozzle, lifts a rear end of the nozzle, characterized by a squeegee that reaches substantially close to a surface to be cleaned with the detachable cleaning device being attached to the nozzle.