mhurhangee/ep-ind-claims huggingface dataset:
A device for heating a flow of liquid from an initial temperature to a desired temperature for intravenous delivery, the device comprising: (a) an elongated conduit having an inlet for receiving the flow of liquid at the initial temperature and an outlet for delivering the flow of liquid at the desired temperature; (b) at least one temperature sensing arrangement (160, 162, 224) associated with said conduit and deployed to generate an output indicative of a temperature of the liquid at at least one location along said conduit; and (c) a controller associated with said temperature sensing arrangement and deployed to apply a voltage to generate electrical current flowing within at least one length of the wall of said conduit, thereby controlling heating of the flow of liquid to reach the desired temperature at said outlet, characterized in that said conduit is a metal conduit having a wall thickness of no more than 0.4 mm, and wherein said inlet and said outlet are provided with connectors for connection to a medical infusion set. (a) an elongated conduit having an inlet for receiving the flow of liquid at the initial temperature and an outlet for delivering the flow of liquid at the desired temperature; (b) at least one temperature sensing arrangement (160, 162, 224) associated with said conduit and deployed to generate an output indicative of a temperature of the liquid at at least one location along said conduit; and (c) a controller associated with said temperature sensing arrangement and deployed to apply a voltage to generate electrical current flowing within at least one length of the wall of said conduit, thereby controlling heating of the flow of liquid to reach the desired temperature at said outlet,
Positioning device (10, 20, 30 40, 50, 60) comprising: - a chassis, - a plate to be positioned, characterized in that it further comprises: - a motor comprising a stator which is connected to the chassis and a rotor, - a shaft, which is connected to the rotor driven by the motor and which is mobile in rotation relative to the chassis in a first direction and in a second direction opposing the first direction, - a first element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the first direction and to be free in the second direction, - a second element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the second direction and to be free in the first direction, - a first connecting rod which is connected to the plate by a first pivot connection and which is connected to the first element for the transmission of rotational movement by a second pivot connection which is offset from the axis of rotation of the first element for the transmission of rotational movement, - a second connecting rod which is connected to the plate by a third pivot connection and which is connected to the second element for the transmission of rotational movement by a fourth pivot connection which is offset from the axis of rotation of the second element for the transmission of rotational movement, - a connecting element having at least two degrees of rotational freedom between the plate and the chassis. - a chassis, - a plate to be positioned, - a motor comprising a stator which is connected to the chassis and a rotor, - a shaft, which is connected to the rotor driven by the motor and which is mobile in rotation relative to the chassis in a first direction and in a second direction opposing the first direction, - a first element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the first direction and to be free in the second direction, - a second element for the transmission of rotational movement which is configured to be driven in rotation by the shaft in the second direction and to be free in the first direction, - a first connecting rod which is connected to the plate by a first pivot connection and which is connected to the first element for the transmission of rotational movement by a second pivot connection which is offset from the axis of rotation of the first element for the transmission of rotational movement, - a second connecting rod which is connected to the plate by a third pivot connection and which is connected to the second element for the transmission of rotational movement by a fourth pivot connection which is offset from the axis of rotation of the second element for the transmission of rotational movement, - a connecting element having at least two degrees of rotational freedom between the plate and the chassis.
A device for recovering residual heat from exhaust gas, the device comprising: a dry economizer which is configured to heat to-be-heated water by utilizing sensible heat of the exhaust gas, the dry economizer being provided in a duct extending to a funnel through which the exhaust gas is emitable to the atmosphere; and a condensation economizer which is configured to heat to-be-heated water by utilizing latent heat of condensation of the exhaust gas, the condensation economizer being provided on a downstream side of the dry economizer with respect to the flow direction of the exhaust gas flowing through the duct, wherein the duct comprises an upstream duct in which the dry economizer is provided and a downstream duct connected to the upstream duct, wherein the downstream duct is configured to direct the exhaust gas to flow upwardly, characterized in that the condensation economizer is arranged in the downstream duct so that, during operation of the device, the temperature of the exhaust gas amounts to condensation temperature and vapour in the exhaust gas is condensed and becomes a condensed water in a vicinity of an upper part of the condensation economizer, such that the generated drain falls down from vicinity of the upper part of the condensation economizer and comes into contact with a water pipe group constituting the condensation economizer, and thus, an outer wall of the water pipes is kept in a wet state from the upper part of the condensation economizer to a lower part. a dry economizer which is configured to heat to-be-heated water by utilizing sensible heat of the exhaust gas, the dry economizer being provided in a duct extending to a funnel through which the exhaust gas is emitable to the atmosphere; and a condensation economizer which is configured to heat to-be-heated water by utilizing latent heat of condensation of the exhaust gas, the condensation economizer being provided on a downstream side of the dry economizer with respect to the flow direction of the exhaust gas flowing through the duct, wherein the duct comprises an upstream duct in which the dry economizer is provided and a downstream duct connected to the upstream duct, wherein the downstream duct is configured to direct the exhaust gas to flow upwardly, characterized in that the condensation economizer is arranged in the downstream duct so that, during operation of the device, the temperature of the exhaust gas amounts to condensation temperature and vapour in the exhaust gas is condensed and becomes a condensed water in a vicinity of an upper part of the condensation economizer, such that the generated drain falls down from vicinity of the upper part of the condensation economizer and comes into contact with a water pipe group constituting the condensation economizer, and thus, an outer wall of the water pipes is kept in a wet state from the upper part of the condensation economizer to a lower part.
An in vitro method for modifying mitochondrial DNA within a cell, comprising introducing into the cell a recombinant DNA endonuclease targeted to a selected sequence within the mitochondrial DNA, and introducing into the cell a second recombinant DNA endonuclease targeted to a second selected sequence within the mitochondrial DNA, wherein the first DNA endonuclease and the second DNA endonuclease are targeted to different sequences within the mitochondrial DNA, wherein the method is not a process for modifying the germ line genetic identity of human beings.
An RF amplifier, comprising: an input amplifier comprising: a transistor arrangement; an output impedance arrangement; a degeneration impedance arrangement to provide degeneration; and a feedback impedance arrangement, wherein the degeneration impedance arrangement is purely reactive and the output impedance arrangement comprises a purely reactive arrangement matched in frequency behaviour to the degeneration impedance arrangement, wherein the degeneration impedance arrangement and output impedance arrangement comprise inductors, wherein the inductor of the output impedance arrangement has an output tap between the ends of the inductor, and wherein an output of the input amplifier comprises the output tap; and a buffer amplifier having as input the output of the input amplifier and providing the RF amplifier output. an input amplifier comprising: a transistor arrangement; an output impedance arrangement; a degeneration impedance arrangement to provide degeneration; and a feedback impedance arrangement, wherein the degeneration impedance arrangement is purely reactive and the output impedance arrangement comprises a purely reactive arrangement matched in frequency behaviour to the degeneration impedance arrangement, wherein the degeneration impedance arrangement and output impedance arrangement comprise inductors, wherein the inductor of the output impedance arrangement has an output tap between the ends of the inductor, and wherein an output of the input amplifier comprises the output tap; and a transistor arrangement; an output impedance arrangement; a degeneration impedance arrangement to provide degeneration; and a feedback impedance arrangement, wherein the degeneration impedance arrangement is purely reactive and the output impedance arrangement comprises a purely reactive arrangement matched in frequency behaviour to the degeneration impedance arrangement, wherein the degeneration impedance arrangement and output impedance arrangement comprise inductors, wherein the inductor of the output impedance arrangement has an output tap between the ends of the inductor, and wherein an output of the input amplifier comprises the output tap; and a buffer amplifier having as input the output of the input amplifier and providing the RF amplifier output.
Door drive, in particular a swivel door drive, with a housing, with an output shaft which is rotatably mounted in the housing and can be coupled to a door leaf or an outer frame, with a motor for driving the output shaft, and with a spring lever which is loaded during a respective opening movement of the door leaf and relaxes during a respective closing movement of the door leaf in order to deliver a closing torque, wherein the output shaft can be driven by the motor via a rack which, on the one hand, can be acted on by the motor via a multi-stage gear mechanism and, on the other hand, meshes with a toothing of the output shaft, characterized in that the rack is supported, in the region of its toothing portions (34, 36) in engagement with the output shaft and with the gear mechanism configured as a spur gear/bevel gear mechanism, in each case via at least one roller, in particular a rolling-bearing-mounted roller, arranged on the side of the rack that faces away from the respective toothing portion (34, 36).
Method for preparing a diisocyanate by reacting the corresponding primary diamine with phosgene in the gas phase wherein (i) the primary diamine is transferred into the gas phase at a pressure p1 separately from the phosgene to obtain a gaseous starting material stream A comprising the diamine, (ii) the starting material stream A obtained in (i) is led, optionally after superheating, through a pressure-raising element in which the pressure of starting material stream A is raised to a value p2 > p1, (iii)a phosgene-containing gaseous starting material stream P is mixed with the stream A from step (ii) in a mixing device, and (iv) the mixed stream obtained in (iii) out of said starting material streams A and P is converted in a reaction space into the diisocyanate. (i) the primary diamine is transferred into the gas phase at a pressure p1 separately from the phosgene to obtain a gaseous starting material stream A comprising the diamine, (ii) the starting material stream A obtained in (i) is led, optionally after superheating, through a pressure-raising element in which the pressure of starting material stream A is raised to a value p2 > p1, (iii)a phosgene-containing gaseous starting material stream P is mixed with the stream A from step (ii) in a mixing device, and (iv) the mixed stream obtained in (iii) out of said starting material streams A and P is converted in a reaction space into the diisocyanate.
A process for generating an electronic image from a sinogram characterized by the steps of: subdividing the sinogram into a plurality of subsinograms (14, 16, 18, 20) by performing a number of approximate subdivisions in which projections in the sinogram are shifted, resampled and truncated; backprojecting each of said subsinograms (14, 16, 18, 20) to produce a plurality of corresponding subimages (22, 24, 26, 28), and aggregating said subimages (22, 24, 26, 28) to create the electronic image. subdividing the sinogram into a plurality of subsinograms (14, 16, 18, 20) by performing a number of approximate subdivisions in which projections in the sinogram are shifted, resampled and truncated; backprojecting each of said subsinograms (14, 16, 18, 20) to produce a plurality of corresponding subimages (22, 24, 26, 28), and aggregating said subimages (22, 24, 26, 28) to create the electronic image.
A slat for the leading edge of an aircraft wing, the slat including two or more slat tracks that in use dictate the path of movement of the slat as it moves from a retracted positon to a fully deployed position, each slat track having a shape that follows a helical path, wherein the slat includes an aerofoil surface supported by the two or more slat tracks, the slat being so configured that each slat track has at least two external surfaces which are on opposite sides of the slat track when viewed in cross-section and wherein the two external surfaces are defined by the two surfaces swept out by two notional fixed shape lines when moved along the helical path relative to the aerofoil surface of the slat. the slat includes an aerofoil surface supported by the two or more slat tracks, the slat being so configured that each slat track has at least two external surfaces which are on opposite sides of the slat track when viewed in cross-section and wherein the two external surfaces are defined by the two surfaces swept out by two notional fixed shape lines when moved along the helical path relative to the aerofoil surface of the slat.
Dispensing system for the sales-oriented presentation of goods, comprising a rail with an elongated base extending in a longitudinal direction, which has an underside, an upper side, two longitudinal sides (8, 9), that are arranged opposite one another, a rear end face and a front end face and serves to receive goods, wherein the rail is produced in one piece from a blank of cardboard or corrugated cardboard, a carriage defining a product contact surface, which is movable on the base between the end faces (8, 9) in the longitudinal direction between a rear and a front carriage position and a tensioning means that is fastened in the front region of the rail as well as to a carriage and in the tensioned state, pre-loads the carriage in a direction towards the front end region of the rail, the base having a lower base layer that is provided with a through-hole and at least one upper base layer that is folded onto the lower base layer, in which an elongated through-opening is formed that is positioned congruently with the through-hole and, starting from the latter, extends in the longitudinal direction rearwardly to the rear carriage position, and wherein the clamping means, starting from its attachment in the front region of the rail is guided through the through-hole and the longitudinal through-opening to the carriage, characterized in that the longitudinal through-opening is formed in the blank.
An assistive device configured to assist in transferring a care receiver, the assistive device comprising: a base; an arm, being provided on the base, swingable in a front-rear direction; a support section, supporting a part of a body of the care receiver, which is provided on the arm to be swingable in a front-rear direction, the support section having an underarm support section; an actuator having a main body section, which is provided on the base and tiltable in a front-rear direction, and a movable section configured to extend and retract from the main body section; and a linking mechanism having a first linking member, which is swingably provided on the arm and connected to the movable section, characterized in that: the linking mechanism has a second linking member, which is fixed to the support section and engaged with the first linking member and a restricting member, said linking mechanism transfers a first motion, in which the movable section is extended from a shortened position to a predetermined intermediate position, to a forward swinging motion of the support section so that the underarm support section is tilted forward; and transfers a second motion, in which the movable section is extended from the intermediate position to a fully-extended position, to a forward swinging motion of the arm. a base; an arm, being provided on the base, swingable in a front-rear direction; a support section, supporting a part of a body of the care receiver, which is provided on the arm to be swingable in a front-rear direction, the support section having an underarm support section; an actuator having a main body section, which is provided on the base and tiltable in a front-rear direction, and a movable section configured to extend and retract from the main body section; and a linking mechanism having a first linking member, which is swingably provided on the arm and connected to the movable section, characterized in that: the linking mechanism has a second linking member, which is fixed to the support section and engaged with the first linking member and a restricting member, said linking mechanism transfers a first motion, in which the movable section is extended from a shortened position to a predetermined intermediate position, to a forward swinging motion of the support section so that the underarm support section is tilted forward; and transfers a second motion, in which the movable section is extended from the intermediate position to a fully-extended position, to a forward swinging motion of the arm.
A dust separator for use in treating flue gas produced in a combustion process to produce cleaned flue gas comprising: a dust separator housing defining an interior area with a dust trap arranged therein for capturing particulate matter from a flue gas as it flows in rotation around a horizontal axis H perpendicular to the flow of flue gas FG within the dust separator interior area, following a path between the housing interior surface and a curved inner wall 41a, characterized in that the dust trap is arranged at an inner end of the inner wall and is formed with opposed L-shaped angled arms (41, 51) which are integrally formed with or attached perpendicularly to the inner end of the inner wall forming a triangular plate (43(a)) between the opposed L shaped angled arms. a dust separator housing defining an interior area with a dust trap arranged therein for capturing particulate matter from a flue gas as it flows in rotation around a horizontal axis H perpendicular to the flow of flue gas FG within the dust separator interior area, following a path between the housing interior surface and a curved inner wall 41a, characterized in that the dust trap is arranged at an inner end of the inner wall and is formed with opposed L-shaped angled arms (41, 51) which are integrally formed with or attached perpendicularly to the inner end of the inner wall forming a triangular plate (43(a)) between the opposed L shaped angled arms.
A method for manufacturing a pneumatic tire comprising a tread, sidewalls and a first bead and a second bead, which beads (151, 152) are spaced apart, the first bead and the second bead comprising - a drop shaped bead core which is formed by using wire(s), the drop shaped bead core having a cross sectional area comprising or consisting of a circular portion and a tapering portion, the cross sectional area of the drop shaped bead core being in a range between 10 mm 2 and 100 mm 2, and - an apex positioned adjacent and/or against the bead core, the apex comprising a rubber and a resin, the method comprising: - connecting the apex to the drop shaped bead core, thereby obtaining an assembly comprising the drop shaped bead core and the apex, - pre-forming a tire comprising said assembly, and - vulcanizing the pre-formed tire, thereby obtaining the pneumatic tire. - a drop shaped bead core which is formed by using wire(s), the drop shaped bead core having a cross sectional area comprising or consisting of a circular portion and a tapering portion, the cross sectional area of the drop shaped bead core being in a range between 10 mm 2 and 100 mm 2, and - an apex positioned adjacent and/or against the bead core, the apex comprising a rubber and a resin, - connecting the apex to the drop shaped bead core, thereby obtaining an assembly comprising the drop shaped bead core and the apex, - pre-forming a tire comprising said assembly, and - vulcanizing the pre-formed tire, thereby obtaining the pneumatic tire.
Multi-layered air permeation preventing layer of pneumatic tires comprising: an inner liner layer of a non-drawn film formed from polymer composition comprising of 60 to 90 wt.% of a thermoplastic resin and 10 to 40 wt. % of an elastomer, and a carcass rubber layer adhered to the outside and inside of the non-drawn film; wherein, the multi-layered air permeation preventing layer has a -50 to -10°C of a steep decreasing range of an elastic modulus, wherein the inner liner layer of a non-drawn film has a fracture elongation of more than 200% at room temperature and a yield point of more than 10% at -35°C, wherein, the elastic modulus at the steep decreasing range of -50°C and -10°C satisfy the following equation 1: E ′ 1 / E ′ 2 = 100 ∼ 1, 000; wherein, the E' 1 is the elastic modulus value at -50°C, and E' 2 is the elastic modulus value at-10°C, wherein the thermoplastic resin is a polyamide resin and the elastomer is a polyamide elastomer. an inner liner layer of a non-drawn film formed from polymer composition comprising of 60 to 90 wt.% of a thermoplastic resin and 10 to 40 wt. % of an elastomer, and a carcass rubber layer adhered to the outside and inside of the non-drawn film; wherein, the multi-layered air permeation preventing layer has a -50 to -10°C of a steep decreasing range of an elastic modulus, wherein the inner liner layer of a non-drawn film has a fracture elongation of more than 200% at room temperature and a yield point of more than 10% at -35°C, wherein, the elastic modulus at the steep decreasing range of -50°C and -10°C satisfy the following equation 1: E ′ 1 / E ′ 2 = 100 ∼ 1, 000; wherein, the E' 1 is the elastic modulus value at -50°C, and E' 2 is the elastic modulus value at-10°C, wherein the thermoplastic resin is a polyamide resin and the elastomer is a polyamide elastomer.