mhurhangee/ep-ind-claims huggingface dataset:
Conductor connection terminal comprising an insulating material housing (10, 11, 12, 20, 21, 22) and at least one spring force clamping connection (17, 18) for electrically contacting an electrical conductor inserted through a conductor insertion opening (15, 25) of the insulating material housing (10, 11, 12, 20, 21, 22), wherein the at least one spring force clamping connection (17, 18) comprises at least one busbar and at least one clamping spring comprising at least one clamping limb for clamping the electrical conductor against a clamping location of the busbar and a bearing limb for supporting the clamping spring, wherein the conductor connection terminal furthermore comprises at least one actuation element (14, 24) mounted pivotably in the insulating material housing (10, 11, 12, 20, 21, 22) and serving for opening and closing the spring force clamping connection (17, 18) by acting on an actuation region of the clamping spring, wherein the at least one actuation element (14, 24) is guided along a linear and/or arcuate guideway for guiding the pivoting movement of the actuation element (14, 24), said guideway being formed in the insulating material housing (10, 11, 12, 20, 21, 22), and an actuation force acting on the actuation element (14, 24) in an actuation direction is deflectable by the actuation element (14, 24) in a direction for acting on the clamping spring that deviates from the actuation direction by at least 150 degrees, characterized in that the actuation element (14, 24) has at least one passage region through which an electrical conductor inserted through the conductor insertion opening (15, 25) can be guided through a region surrounded by the actuation element (14, 24) rectilinearly towards the clamping location, wherein the actuation element (14, 24) comprises two outer guide limbs (141, 241), by way of which the actuation element (14, 24) is supported on the guideway and between which the passage region is arranged.
(currently amended) A single step process for treating sulfone containing hydrocarbons in a single vessel comprising contacting a sulfone containing hydrocarbon stream with an aqueous solution of alkali metal hydroxide selected from the group of sodium hydroxide and potassium hydroxide inside a shroud of vertical hanging fibers at a temperature up to about 350°C and at a pressure of up to about 170 atm, where the hydrocarbons and alkali metal hydroxide mix and react to cleave sulfur atoms from the sulfones to form sulfites, allowing the alkali metal hydroxide and hydrocarbons to separate to form an aqueous phase containing the sulfites and a hydrocarbon phase comprising less than 10 ppm total sulfur, wherein the sulfone containing hydrocarbons have previously been subjected to a separate oxidative desulfurization process; and wherein the fibers are composed of a material that will not contaminate the process and are wettable by one of the hydrocarbons and alkali metal hydroxide.
A method of controlling operation of an inlet valve system (20.1, 20.2,...20.n) of each cylinder of an internal combustion piston engine, in which an operation of each cylinder of the engine comprises at least a. Intake phase for admitting combustion air into the cylinder, b. Compression phase for compressing the combustion air in the cylinder by a movement of a piston in the cylinder towards its top dead center position, c. Power phase wherein expanding gas resulted from fuel combustion forces the piston down the cylinder, and turning a crankshaft, and d. Exhaust phase for removal the exhaust gas from the cylinder, wherein the method comprising following steps: I. Measuring cylinder pressure ( p 0) in each cylinder (30.1, 30.2,...,30.n) at least at a one predetermined crank angle position ( θ 0), II. Determining an estimated polytropic index ( γ) for each cylinder (30.1, 30.2,...,30.n) corresponding to the at least one measured cylinder pressure ( p 0) at the predetermined crank angle position ( θ 0), III. determining an estimated compression pressure ( p est) for at least at a second crank angle position ( θ x) by using the at least one measured cylinder pressure ( p 0) and the at least one stimated polytropic index ( γ), characterized in that the steps I to III are executed during a first cycle of the cylinder, and that a step of IV. Controlling the closing timing of a variable inlet valve (20.1, 20.2,...20.n) system of each cylinder in a response to the estimated compression pressure ( p est) of each cylinder to obtain a same pre-determined target peak compression pressure in each cylinder is executed during a second cycle of the cylinder. a. Intake phase for admitting combustion air into the cylinder, b. Compression phase for compressing the combustion air in the cylinder by a movement of a piston in the cylinder towards its top dead center position, c. Power phase wherein expanding gas resulted from fuel combustion forces the piston down the cylinder, and turning a crankshaft, and d. Exhaust phase for removal the exhaust gas from the cylinder, I. Measuring cylinder pressure ( p 0) in each cylinder (30.1, 30.2,...,30.n) at least at a one predetermined crank angle position ( θ 0), II. Determining an estimated polytropic index ( γ) for each cylinder (30.1, 30.2,...,30.n) corresponding to the at least one measured cylinder pressure ( p 0) at the predetermined crank angle position ( θ 0), III. determining an estimated compression pressure ( p est) for at least at a second crank angle position ( θ x) by using the at least one measured cylinder pressure ( p 0) and the at least one stimated polytropic index ( γ),
A heat dissipation module, adapted to be used in an electronic device, the electronic device having a heat source, the heat dissipation module comprising: an evaporator, thermally contacting the heat source; a pipe, having two opposite end portions (E1, E2) to connect to the evaporator to form a loop, characterized in that: at least one of the end portions (E1, E2) of the pipe with a diameter gradually converging towards the evaporator, configured to spray a working fluid, filled in the loop, uniformly to each portion of the evaporator in collaboration with a gradually converging structure of the inner space of the evaporator towards the end portions. an evaporator, thermally contacting the heat source; a pipe, having two opposite end portions (E1, E2) to connect to the evaporator to form a loop, characterized in that: at least one of the end portions (E1, E2) of the pipe with a diameter gradually converging towards the evaporator, configured to spray a working fluid, filled in the loop, uniformly to each portion of the evaporator in collaboration with a gradually converging structure of the inner space of the evaporator towards the end portions.
A mousehole apparatus having a main body configured for holding a drill pipe or similar elongate element, and a carrier connected to a deck structure and movement means (10, 12, 16, 22) operable to move the main body with respect to the carrier, the movement means (10, 12, 16, 22) being connected to the main body, characterized in that the carrier has a support region adapted for releasable supportive interaction with an abutment element on the main body, and that: the carrier further comprises guiding devices (6a,b) for the main body; the movement means (10, 12, 16, 22) comprises a first winch arranged on the carrier, a cable extending from the winch, via a cable sheave and back to a second winch or fixture in the carrier; the main body comprises an elongate tubular element having an interaction member connectable to the movement means (10, 12, 16, 22); and the movement means (10, 12, 16, 22) is operable to move at least a portion of the main body from one side below of the carrier to an opposite top side of the carrier. the carrier further comprises guiding devices (6a,b) for the main body; the movement means (10, 12, 16, 22) comprises a first winch arranged on the carrier, a cable extending from the winch, via a cable sheave and back to a second winch or fixture in the carrier; the main body comprises an elongate tubular element having an interaction member connectable to the movement means (10, 12, 16, 22); and the movement means (10, 12, 16, 22) is operable to move at least a portion of the main body from one side below of the carrier to an opposite top side of the carrier.
Exendin for use in treating and preventing hyperinsulinemic hypoglycemia and associated acute and chronic symptoms and outcomes in a patient by subcutaneous injection of a therapeutically effective dose comprising 2-100 mg of exendin.
A method of migrating face authentication profile data in a user device, the method comprising: updating the user device to include both a current version of firmware and an updated version of the firmware; subsequent to the updating, receiving an indication of a face-authentication attempt and image data associated with a user's face; loading both the current version of the firmware and the updated version of the firmware in a same secure session; executing the current version of the firmware to generate comparison data using the image data; authenticating the user to unlock the user device based on the comparison data substantially matching a first profile, the first profile based on a set of enrolled embeddings that were previously generated using the current version of the firmware on previously-captured image data of the user's face; responsive to authenticating the user to unlock the user device, generating one or more new embeddings by executing the updated version of the firmware using the image data associated with the user's face; storing the one or more new embeddings at a separate location from the set of enrolled embeddings, the one or more new embeddings stored as part of a second profile for the user; and generating additional new embeddings by repeatedly executing the updated version of the firmware over a series of subsequent successful face-authentication attempts until a sufficient amount of the new embeddings are generated and stored to enable the second profile to be usable to authenticate the user. updating the user device to include both a current version of firmware and an updated version of the firmware; subsequent to the updating, receiving an indication of a face-authentication attempt and image data associated with a user's face; loading both the current version of the firmware and the updated version of the firmware in a same secure session; executing the current version of the firmware to generate comparison data using the image data; authenticating the user to unlock the user device based on the comparison data substantially matching a first profile, the first profile based on a set of enrolled embeddings that were previously generated using the current version of the firmware on previously-captured image data of the user's face; responsive to authenticating the user to unlock the user device, generating one or more new embeddings by executing the updated version of the firmware using the image data associated with the user's face; storing the one or more new embeddings at a separate location from the set of enrolled embeddings, the one or more new embeddings stored as part of a second profile for the user; and generating additional new embeddings by repeatedly executing the updated version of the firmware over a series of subsequent successful face-authentication attempts until a sufficient amount of the new embeddings are generated and stored to enable the second profile to be usable to authenticate the user.
A method of making a customized root canal obturation core, the method comprising: generating a three-dimensional image of a root canal having a coronal portion (28; 62), a middle portion, and an apical portion (32; 60), wherein the apical portion includes a physiologic apex of the root canal; generating a three-dimensional model of the root canal and of the root canal obturation core from the three-dimensional image; superimposing the three-dimensional model of the root canal obturation core within the three-dimensional model of the root canal to allow assessment of how the three-dimensional model of the root canal obturation core fills the three-dimensional model of the root canal and to verify that the three-dimensional model of the root canal obturation core fills the entire three-dimensional model of the root canal without forming voids; and using a computer controlled manufacturing system to manufacture the root canal obturation core based on the three-dimensional model of the root canal or of the root canal obturation core, wherein the computer controlled manufacturing system comprises a computer numerically controlled machine or an additive manufacturing machine, and wherein when the contour of the core is inserted in the root canal, the apical portion including the physiologic apex of the root canal, the middle portion of the root canal, and the coronal portion of the root canal are filled with the contour of the core, such that the core fills the entire canal without forming voids. generating a three-dimensional image of a root canal having a coronal portion (28; 62), a middle portion, and an apical portion (32; 60), wherein the apical portion includes a physiologic apex of the root canal; generating a three-dimensional model of the root canal and of the root canal obturation core from the three-dimensional image; superimposing the three-dimensional model of the root canal obturation core within the three-dimensional model of the root canal to allow assessment of how the three-dimensional model of the root canal obturation core fills the three-dimensional model of the root canal and to verify that the three-dimensional model of the root canal obturation core fills the entire three-dimensional model of the root canal without forming voids; and using a computer controlled manufacturing system to manufacture the root canal obturation core based on the three-dimensional model of the root canal or of the root canal obturation core, wherein the computer controlled manufacturing system comprises a computer numerically controlled machine or an additive manufacturing machine, and wherein when the contour of the core is inserted in the root canal, the apical portion including the physiologic apex of the root canal, the middle portion of the root canal, and the coronal portion of the root canal are filled with the contour of the core, such that the core fills the entire canal without forming voids.
A precursor for producing Nb 3 Sn superconducting wires, the precursor having a rectangular cross section having an aspect ratio of 2.30 or less, comprising: a plurality of primary assemblies, wherein the primary assemblies include a bronze region having a Sn concentration of 15% or more by weight and containing at least one additive of Ti and Zr in an amount of 0.3% to 0.5% by weight, and a plurality of Nb filaments embedded in the bronze region, and the primary assemblies satisfy 0.10 ≤ ds/df ≤ 0.35, wherein ds denotes a space between adjacent Nb filaments aligned in a direction toward a central portion of a cross section of each of the primary assemblies viewed in an axial direction of the corresponding primary assembly, and df denotes the diameter of the Nb filaments. a plurality of primary assemblies, wherein the primary assemblies include a bronze region having a Sn concentration of 15% or more by weight and containing at least one additive of Ti and Zr in an amount of 0.3% to 0.5% by weight, and a plurality of Nb filaments embedded in the bronze region, and the primary assemblies satisfy 0.10 ≤ ds/df ≤ 0.35, wherein ds denotes a space between adjacent Nb filaments aligned in a direction toward a central portion of a cross section of each of the primary assemblies viewed in an axial direction of the corresponding primary assembly, and df denotes the diameter of the Nb filaments.
Pipe for conveying fluids, and in particular liquids, in a hollow conveying space in the pipe which is surrounded by a wall of the pipe, the pipe wall having, on its inner surface which defines the hollow conveying space, a succession of ribs spaced apart from one another, a depression being arranged between any two ribs which are arranged adjacent to one another and the ribs projecting further into the hollow conveying space than the depressions, the ribs, when seen in a cross-section through the pipe taken orthogonally to a direction of longitudinal extent of the pipe, being of a form which, at least in a region or regions, narrows in a direction pointing into the hollow conveying space, characterised in that, when seen in the cross-section through the pipe taken orthogonally to the direction of longitudinal extent of the pipe, the ribs and depressions have an external contour which, at least in a region or regions, is rounded.
A method for regenerating an adsorber, which has a porous body and does not have an enzyme, said adsorber being part of a dialysis system including further a dialysate circulation unit and a regenerating water flow unit which is connectable to the adsorber, and which system is configured to perform a dialysis step in which the adsorber is connected to the dialysate circulation unit to adsorb uremic substances in a dialysate onto the adsorber, the method comprising: a regenerating step following the dialysis step, in which the uremic substances which are adsorbed on the adsorber are removed by regenerating water that flows in the regenerating water flow unit, wherein the regenerating step includes electrolyzing urea which is contained in the regenerating water that flows in the regenerating water flow unit. a regenerating step following the dialysis step, in which the uremic substances which are adsorbed on the adsorber are removed by regenerating water that flows in the regenerating water flow unit, wherein the regenerating step includes electrolyzing urea which is contained in the regenerating water that flows in the regenerating water flow unit.
A lip cosmetic, comprising: at least 5% by mass of ultra-violet ray absorbers; wherein said ultra-violet ray absorbers comprises: at least one ultra-violet ray absorber selected from a group consisting of octocrylene, dimethicodiethylbenzalmalonate and diethylamino hydroxybenzoyl hexyl benzoate, and ethylhexyl methoxycinnamate; a high-viscosity oil component having a viscosity, measured with a B type viscometer at 30°C, of 2,000 mPas or more in a range of 30% by mass to 70% by mass thereof; a low-viscosity oil component having a viscosity, measured with a B type viscometer at 30°C, of less than 2,000 mPas in a range of 20% by mass to 40% by mass thereof, and a total content of titanium dioxide and zinc oxide of 0.5% by mass or less; wherein a content ratio between said high-viscosity oil component and said low-viscosity oil component, expressed by /, is in a range of 1 to 5. at least 5% by mass of ultra-violet ray absorbers; wherein said ultra-violet ray absorbers comprises: at least one ultra-violet ray absorber selected from a group consisting of octocrylene, dimethicodiethylbenzalmalonate and diethylamino hydroxybenzoyl hexyl benzoate, and ethylhexyl methoxycinnamate; a high-viscosity oil component having a viscosity, measured with a B type viscometer at 30°C, of 2,000 mPas or more in a range of 30% by mass to 70% by mass thereof; a low-viscosity oil component having a viscosity, measured with a B type viscometer at 30°C, of less than 2,000 mPas in a range of 20% by mass to 40% by mass thereof, and a total content of titanium dioxide and zinc oxide of 0.5% by mass or less; wherein a content ratio between said high-viscosity oil component and said low-viscosity oil component, expressed by /, is in a range of 1 to 5.
An in vitro method for detecting coronary artery disease, comprising a step for determining the amount of phosphatidylinositol (36:5) in a blood sample derived from a subject, wherein the fact that the determined value is smaller than a reference value corresponding to the amount of phosphatidylinositol (36:5) in a control sample derived from a person without coronary artery disease, is used as an indicator that the test sample is a sample derived from a person with coronary artery disease.
A freeze-drying system comprising: a freeze dryer chamber having one or more shelves disposed therein; a refrigeration system comprising a refrigerant condenser (202, 302) a warm liquid line (205b, 305b) connected to said refrigerant condenser (202, 302) wherein said warm liquid line (205b, 305b) is adapted to receive a warm liquid refrigerant from said refrigerant condenser (202, 302); a heat exchanger (206, 306); a first fluid line (204, 304) to thermally couple the refrigerant condenser (202, 302) to the heat exchanger (206, 306), wherein said first fluid line (204, 304) is different from said warm liquid line (205b, 305b); and a second fluid line (220, 320) to thermally couple the one or more shelves to the heat exchanger (206, 306). a freeze dryer chamber having one or more shelves disposed therein; a refrigeration system comprising a refrigerant condenser (202, 302) a warm liquid line (205b, 305b) connected to said refrigerant condenser (202, 302) wherein said warm liquid line (205b, 305b) is adapted to receive a warm liquid refrigerant from said refrigerant condenser (202, 302); a heat exchanger (206, 306); a first fluid line (204, 304) to thermally couple the refrigerant condenser (202, 302) to the heat exchanger (206, 306), wherein said first fluid line (204, 304) is different from said warm liquid line (205b, 305b); and a second fluid line (220, 320) to thermally couple the one or more shelves to the heat exchanger (206, 306).
Device for producing fibre-reinforced components by a three-dimensional winding method, comprising at least one computer-controlled winding machine for wrapping at least one fibre carrier, disposed on a rotating axle, with thread-shaped continuous fibre strands which are provided on at least one package and have at least one winding pattern, characterized in that the at least one winding machine is embodied as a robotic arm which has six rotation axes and deposits at least two fibre strands simultaneously, wherein the at least one robotic arm is specified for simultaneously depositing the at least two fibre strands so as to be distributed on at least two fibre carriers which are in each case disposed on a separate rotating axle.
A drive circuit configured to drive a load, the circuit comprising: a transformer (1212, 2412) comprising: a transformer primary comprising one or more primary windings each connected to an arm that passes through a magnetic material; a transformer secondary comprising secondary windings connected to secondary conductors which pass through the inside of the arms; a voltage source configured to apply a voltage across the transformer primary, and two switching elements (2406, 2408) configured to enable current to be passed through the transformer primary in a first and a second direction, the second direction being opposing to the first direction; characterised in that a larger face of each secondary conductor is offset from parallel from a larger face of the secondary conductors adjacent to it. a transformer (1212, 2412) comprising: a transformer primary comprising one or more primary windings each connected to an arm that passes through a magnetic material; a transformer secondary comprising secondary windings connected to secondary conductors which pass through the inside of the arms; a transformer primary comprising one or more primary windings each connected to an arm that passes through a magnetic material; a transformer secondary comprising secondary windings connected to secondary conductors which pass through the inside of the arms; a voltage source configured to apply a voltage across the transformer primary, and two switching elements (2406, 2408) configured to enable current to be passed through the transformer primary in a first and a second direction, the second direction being opposing to the first direction;