mhurhangee/ep-ind-claims huggingface dataset:
Method for operating a vehicle, the vehicle comprising an electric machine, for driving the vehicle, and a brake system, the vehicle being configured to recover electric energy from a movement of the vehicle by means of the electric machine, the method comprising: - determining of a state of the brake system of the vehicle, - detecting of an actuation of a brake pedal of the vehicle, and - setting of a brake pressure of the brake system and of an energy recovery operation by means of the electric machine in a manner which is dependent on the state of the brake system and the actuation of the brake pedal, characterized in that the determining of the state of the brake system comprises a detection of activations of the brake system at a predefined time interval before the detection of the actuation of the brake pedal. - determining of a state of the brake system of the vehicle, - detecting of an actuation of a brake pedal of the vehicle, and - setting of a brake pressure of the brake system and of an energy recovery operation by means of the electric machine in a manner which is dependent on the state of the brake system and the actuation of the brake pedal,
A method of determining a process dose and a process bias for a beam lithography process, comprising accessing a data set (440, 460) that enables to associate (i) a plurality of measured dimensions of features exposed by beam lithography with (ii) a plurality of different exposure doses, wherein the features were exposed with the different exposure doses, and with (iii) at least one of a plurality of different feature densities of the exposed features and a plurality of different nominal dimensions of the exposed features; providing a model that is parameterized in at least the following parameters (i) measured feature dimension; (ii) exposure dose; (iii) at least one of feature density and nominal feature dimension; (iv) process dose; and (v) at least one process bias; fitting the model with the data set to determine the process dose and the process bias. accessing a data set (440, 460) that enables to associate (i) a plurality of measured dimensions of features exposed by beam lithography with (ii) a plurality of different exposure doses, wherein the features were exposed with the different exposure doses, and with (iii) at least one of a plurality of different feature densities of the exposed features and a plurality of different nominal dimensions of the exposed features; (i) a plurality of measured dimensions of features exposed by beam lithography with (ii) a plurality of different exposure doses, wherein the features were exposed with the different exposure doses, and with (iii) at least one of a plurality of different feature densities of the exposed features and a plurality of different nominal dimensions of the exposed features; providing a model that is parameterized in at least the following parameters (i) measured feature dimension; (ii) exposure dose; (iii) at least one of feature density and nominal feature dimension; (iv) process dose; and (v) at least one process bias; (i) measured feature dimension; (ii) exposure dose; (iii) at least one of feature density and nominal feature dimension; (iv) process dose; and (v) at least one process bias; fitting the model with the data set to determine the process dose and the process bias.
Method for producing steel in a metallurgical vessel, in which crude steel is melted in the metallurgical vessel and oxygen is introduced into the crude steel, wherein an exhaust air system in which a predetermined target pressure (p Soll) is maintained by regulation is arranged above the metallurgical vessel, characterised in that the actual pressure (p lst) present in the exhaust air system is determined by means of a computer model to which instantaneous process data are fed, wherein the computer model determines the prevailing actual pressure (p lst) in the exhaust air system from stored data of methods performed earlier and with respect thereto produces a correlation between the process data and the actual pressure (p lst) in the exhaust air system, wherein the process data comprise at least: - oxygen fed to the volume flow in the metallurgical vessel and - the concentration of carbon monoxide and/or carbon dioxide (CO 2) in the exhaust air system. - oxygen fed to the volume flow in the metallurgical vessel and - the concentration of carbon monoxide and/or carbon dioxide (CO 2) in the exhaust air system.
A material delivery system comprising: a surgical instrument having a first jaw (20, 22) including a tissue contacting surface and a longitudinally extending knife slot (32, 62) through the jaw (20, 22): at least one pocket (34, 36, 52, 54, 96, 98); a source of treatment material (38, 56) positioned within the at least one pocket (34, 36, 52, 54, 96, 98); and wherein the at least one pocket (34, 36, 52, 54, 96, 98) is a depression formed in the tissue contacting surface, characterized in that the at least one depression is intersected by the knife slot (32, 62) such that a portion of each pocket (34, 36, 52, 54, 96, 98) is open to the knife slot (32, 62). a surgical instrument having a first jaw (20, 22) including a tissue contacting surface and a longitudinally extending knife slot (32, 62) through the jaw (20, 22): at least one pocket (34, 36, 52, 54, 96, 98); a source of treatment material (38, 56) positioned within the at least one pocket (34, 36, 52, 54, 96, 98); and wherein the at least one pocket (34, 36, 52, 54, 96, 98) is a depression formed in the tissue contacting surface, characterized in that the at least one depression is intersected by the knife slot (32, 62) such that a portion of each pocket (34, 36, 52, 54, 96, 98) is open to the knife slot (32, 62).
Nanoparticles of flame retardant magnesium hydroxide having hexagonal plate-like structure, a specific surface area determined by the BET method of up to 20 m 2 /g, an average diameter of the secondary particles determined by the laser diffraction method of up to 2 μm, optionally surface processed, characterized in that the diameter of 10 % of the secondary particles does not exceed 0.8 μm, the diameter of 90% of the secondary particles does not exceed 5 μm, wherein the primary particles of said magnesium hydroxide have a shape of hexagonal plates with a longitudinal size of from 150 to 900 nm, and a thickness of from 15 to 150 nm, and wherein the nanoparticles have an oil carrying capacity of up to 50 g of linseed oil per 100 g of magnesium hydroxide and a pore volume of up to 10,5x10 -3 cm 3 /g.
A lipid nanoparticle comprising: - at least one antibiotic from the polymyxin family selected from colistin and colistinmethate sodium, - a lipid fraction comprising one or more lipids selected from the group consisting of monoglycerides and/or diglycerides and/or triglycerides, and/or fatty acids and/or mixtures thereof, and - one or more surfactants, wherein the lipid fraction comprises mixtures of one or more solid lipids under 45°C and one or more liquid lipids under 45°C, wherein the weight ratio of liquid lipid with respect to solid lipid is comprised between 0.5:10 and 5:10. - at least one antibiotic from the polymyxin family selected from colistin and colistinmethate sodium, - a lipid fraction comprising one or more lipids selected from the group consisting of monoglycerides and/or diglycerides and/or triglycerides, and/or fatty acids and/or mixtures thereof, and - one or more surfactants,
Hydraulic damper comprising a cylindrical body, a damper piston fixed to the end of a rod, sliding axially in this body, and a hydraulic end-of-stroke braking stop arranged between the damper piston and a bottom of the body, the end-of-stroke stop comprises a stop piston delimiting an adjustment chamber between this end-of-stroke stop and the bottom of the body, equipped with a valve leaving a passage free for filling the adjusting chamber and a restriction channel for emptying it, characterized in that the damper has a device for maximum axial spacing between the limit stop and the damper piston and has a spacing spring which tends to increase this spacing.
A system for integrating failure data for different failure analysis layouts, the system comprising: a data validator configured to receive and validate failure analysis data for a complex system including a plurality of systems, characterized by: the following features: the failure analysis data includes failure data and design data, the failure data identifying one or more failed systems of the plurality of systems, and the design data describing the complex system and possible failures of at least some of its systems, and the data validator being configured to validate the failure analysis data includes being configured to perform one or more consistency checks between the failure data and design data to thereby integrate the failure data for a plurality of different failure analysis layouts; and a layout engine coupled to the data validator and configured to selectively generate any one or more of the plurality of different layouts of the failure analysis data, at least some of the validated failure analysis data being shared between at least some of the different layouts. a data validator configured to receive and validate failure analysis data for a complex system including a plurality of systems, characterized by: the following features: the failure analysis data includes failure data and design data, the failure data identifying one or more failed systems of the plurality of systems, and the design data describing the complex system and possible failures of at least some of its systems, and the data validator being configured to validate the failure analysis data includes being configured to perform one or more consistency checks between the failure data and design data to thereby integrate the failure data for a plurality of different failure analysis layouts; and the failure analysis data includes failure data and design data, the failure data identifying one or more failed systems of the plurality of systems, and the design data describing the complex system and possible failures of at least some of its systems, and the data validator being configured to validate the failure analysis data includes being configured to perform one or more consistency checks between the failure data and design data to thereby integrate the failure data for a plurality of different failure analysis layouts; and a layout engine coupled to the data validator and configured to selectively generate any one or more of the plurality of different layouts of the failure analysis data, at least some of the validated failure analysis data being shared between at least some of the different layouts.
A compound of following formula: where: - R 1 is H or a straight-chain or branched alkyl group comprising 1 to 20 carbon atoms, - A 1 is a divalent straight-chain alkylene radical comprising 7 carbon atoms, and - A 2 is a -O-A 4 -O- radical, A 4 being a divalent straight-chain or branched alkylene radical comprising 1 to 20 carbon atoms, being possibly interrupted by one or more groups chosen from the group formed by the phenylene radical and the radical of formula - (CH 2 OCH 2) n -, n representing an integer of between 1 and 100. - R 1 is H or a straight-chain or branched alkyl group comprising 1 to 20 carbon atoms, - A 1 is a divalent straight-chain alkylene radical comprising 7 carbon atoms, and - A 2 is a -O-A 4 -O- radical, A 4 being a divalent straight-chain or branched alkylene radical comprising 1 to 20 carbon atoms, being possibly interrupted by one or more groups chosen from the group formed by the phenylene radical and the radical of formula - (CH 2 OCH 2) n -, n representing an integer of between 1 and 100.
Method for allocating a heating-circuit temperature sensor (7, 7', 7", 7''') of a heating and/or cooling system to the related heating circuit (5, 5', 5", 5''') or for checking the allocation of a heating-circuit temperature sensor (7, 7', 7", 7''') of a heating and/or cooling system to the related heating circuit (5, 5', 5", 5'''), wherein a temperature-control medium is heated or cooled in a temperature-control element in the heating and/or cooling system, conducted to a feed heating-circuit manifold via a feed line, distributed by the feed heating-circuit manifold to heating circuits (5, 5', 5", 5'''), which each comprise a valve (6, 6', 6", 6") having a control element allocated thereto, a feed, a consumer, a return and a heating-circuit temperature sensor (7, 7', 7", 7'''), flows through the heating circuits (5, 5', 5", 5''') and is conducted via a return heating-circuit manifold into a return line and via the return line to the temperature-control element, the method comprising the following steps: (i) opening one of the valves (6, 6', 6", 6") such that temperature-control medium flows through the heating circuit allocated to the open valve, with the other valves (6', 6", 6") being closed; (ii) detecting a temperature change, caused by temperature-control medium flowing into the heating circuit after opening the valve, at one of the heating-circuit temperature sensors (7, 7', 7", 7'''); (iii) transmitting information to a regulating unit stating that the heating-circuit temperature sensor needs to be allocated to the heating circuit; and (iv) storing the information by means of the regulating unit, characterised in that the method is carried out while the regulating unit is being initialised. (i) opening one of the valves (6, 6', 6", 6") such that temperature-control medium flows through the heating circuit allocated to the open valve, with the other valves (6', 6", 6") being closed; (ii) detecting a temperature change, caused by temperature-control medium flowing into the heating circuit after opening the valve, at one of the heating-circuit temperature sensors (7, 7', 7", 7'''); (iii) transmitting information to a regulating unit stating that the heating-circuit temperature sensor needs to be allocated to the heating circuit; and (iv) storing the information by means of the regulating unit,
An applicator for a tampon comprising an inner tube and an outer tube, the inner tube being slideable within the outer tube, the applicator having a forward end and a rear end, wherein the inner tube comprises at least one inwardly protruding flange, and wherein the flange or flanges is/are located at between 10% and 90% of the longitudinal length of the inner tube.
A method of packaging a drug in a cartridge according to claim 10,said cylindrical bore prefilled in a distal portion thereof with the drug, the method comprising: providing the plunger seal inserted into said bore in a first state, the plunger seal including a cavity; moving said plunger seal distally in said bore while the plunger seal is in said first state from outside the bore to a sealing position in the bore between said drug and said proximal opening; supplying the core shaped toe fill at least a portion of the cavity and switching said plunger seal to a parked state in said sealing position, wherein said core applies the radially outward force against the inner wall of said cavity in said parked state, thereby increasing friction resistance to longitudinal movement of the plunger seal against the inner wall of the reservoir of at least 30% with respect to said first state, and wherein a distortion in the shape of said sealing region between said first state and said parked state is less than 0.2 mm. providing the plunger seal inserted into said bore in a first state, the plunger seal including a cavity; moving said plunger seal distally in said bore while the plunger seal is in said first state from outside the bore to a sealing position in the bore between said drug and said proximal opening; supplying the core shaped toe fill at least a portion of the cavity and switching said plunger seal to a parked state in said sealing position, wherein said core applies the radially outward force against the inner wall of said cavity in said parked state, thereby increasing friction resistance to longitudinal movement of the plunger seal against the inner wall of the reservoir of at least 30% with respect to said first state, and wherein a distortion in the shape of said sealing region between said first state and said parked state is less than 0.2 mm.
Acoustic absorber having a wall provided with a plurality of apertures as well as a substantially non-perforated second wall, with the first wall and the second wall being spacedly arranged to one another, and at least one honeycomb structure being provided between the walls (2, 3), with the honeycomb structure having a substantially cylindrical recess in at least one area, with a funnel element opening towards the first and second walls being provided in the recess, and having a height greater than the distance of the walls (2, 3), with the second wall being designed pot-like in the area of the funnel element.
A method of obtaining a detergent composition comprising introducing (a) a lipase variant of a parent lipase which variant has at least 60% sequence identity with SEQ ID NO: 2, a substitution at a position corresponding to T231R+N233R and D254STNYHQ of the mature polypeptide of SEQ ID NO: 2 and has lipase activity and (b) an anionic surfactant, wherein said composition has increased stability in comparison with a corresponding composition comprising the parent lipase.
A method for the electrically conductive connection of a contact piece to a conductor, which comprises a plurality of individual wires made of aluminum or an aluminum alloy, wherein the method has the steps - insertion of the conductor into a cavity in the contact piece; - lowering a tool for friction stir welding onto the contact piece, wherein the method is characterized by the steps - two-dimensional movement of the tool for friction stir welding onto the contact piece in a plane, which lies substantially perpendicular to a direction, in which the lowering of the tool is carried out, which results in a flat material connection between the contact piece and the conductor. - insertion of the conductor into a cavity in the contact piece; - lowering a tool for friction stir welding onto the contact piece, - two-dimensional movement of the tool for friction stir welding onto the contact piece in a plane, which lies substantially perpendicular to a direction, in which the lowering of the tool is carried out, which results in a flat material connection between the contact piece and the conductor.
A fastener assembly for affixing an insulation blanket to an engine nacelle of an aircraft, comprising: a substrate; an insulation blanket having a mounting hole; an attachment member including a base adhered to said substrate and a male threaded element; a cap fastener including a radially enlarged cap member having a radial size and shape greater than said mounting hole, said cap member having an exterior side and an interior side, said cap fastener further including a second fastener element (45,47) made of metal which includes a head and a metal female threaded element extending from said cap member's interior side projecting at least partially through said mounting hole to threadably affix to said male threaded element, wherein said cap member's interior side overlies and engages said insulation blanket in a region surrounding said mounting hole so as to affix said insulation blanket to said substrate; and said cap member's interior side having a substantially concave surface forming a circular recess surrounding said second fastener element (45, 47) creating a circular insulating cavity in conjunction with said insulation blanket, characterized in that the cap fastener is made of a composite plastic material and that said cap member encapsulates said head so as to prevent rotation of said cap member relative to said second fastener element (45, 47). a substrate; an insulation blanket having a mounting hole; an attachment member including a base adhered to said substrate and a male threaded element; a cap fastener including a radially enlarged cap member having a radial size and shape greater than said mounting hole, said cap member having an exterior side and an interior side, said cap fastener further including a second fastener element (45,47) made of metal which includes a head and a metal female threaded element extending from said cap member's interior side projecting at least partially through said mounting hole to threadably affix to said male threaded element, wherein said cap member's interior side overlies and engages said insulation blanket in a region surrounding said mounting hole so as to affix said insulation blanket to said substrate; and said cap member's interior side having a substantially concave surface forming a circular recess surrounding said second fastener element (45, 47) creating a circular insulating cavity in conjunction with said insulation blanket, characterized in that the cap fastener is made of a composite plastic material and that said cap member encapsulates said head so as to prevent rotation of said cap member relative to said second fastener element (45, 47).
A method for forming a unitized crucible assembly for holding a melt of silicon for forming a silicon ingot by the Czochralski method, the method comprising: providing a crucible mold, the mold having a channel network comprising: a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; introducing a slip slurry into the channel network to fill the bottom channel, outer sidewall channel, central weir channel, and inner weir channel with the slip slurry, the slip slurry comprising silica and a liquid carrier; removing at least a portion of the liquid carrier from the channel network to form a green body; separating the green body from the crucible mold; and sintering the green body to dry and densify the green body to form the unitized crucible assembly. providing a crucible mold, the mold having a channel network comprising: a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; a bottom channel; an outer sidewall channel that extends from the bottom channel; a central weir channel that extends from the bottom channel; and an inner weir channel that extends from the bottom channel, the central weir channel being disposed between the outer sidewall channel and the inner weir channel; introducing a slip slurry into the channel network to fill the bottom channel, outer sidewall channel, central weir channel, and inner weir channel with the slip slurry, the slip slurry comprising silica and a liquid carrier; removing at least a portion of the liquid carrier from the channel network to form a green body; separating the green body from the crucible mold; and sintering the green body to dry and densify the green body to form the unitized crucible assembly.