mhurhangee/patent-ind-claim-en huggingface dataset:
A pharmaceutical composition for use in preventing or treating ischemia-reperfusion injury caused by myocardial ischemia, the composition comprising a bile acid or pharmaceutically acceptable salt thereof, wherein the bile acid is at least one selected from the group consisting of deoxycholic acid and cholic acid and the bile acid or pharmaceutically acceptable salt thereof is to be administered in an amount of 0.1 mg/kg/day to 10 mg/kg/day.
A self-regulating heater cable comprising: a heating element including a first bus wire and a second bus wire both encapsulated, in a cross-sectional profile of the heater cable, by a monolithic positive temperature coefficient PTC core having a connecting portion that extends between and spaces apart the first and second bus wires, the connecting portion having a first thickness at each of a first end of the connecting portion approximate the first bus wire and a second end of the connecting portion approximate the second bus wire , and the connecting portion further having a second thickness at a center of the connecting portion , the self-regulating heater cable being characterized in that the second thickness is greater than the first thickness at a ratio of at least 1.5, wherein the first thickness and the second thickness are selected such that the ratio is below a threshold at which primary heat generation of the self-regulating heater cable shifts from the center of the connecting portion to one or both of the first end and the second end of the connecting portion . a heating element including a first bus wire and a second bus wire both encapsulated, in a cross-sectional profile of the heater cable, by a monolithic positive temperature coefficient PTC core having a connecting portion that extends between and spaces apart the first and second bus wires, the connecting portion having a first thickness at each of a first end of the connecting portion approximate the first bus wire and a second end of the connecting portion approximate the second bus wire , and the connecting portion further having a second thickness at a center of the connecting portion , the self-regulating heater cable being characterized in that the second thickness is greater than the first thickness at a ratio of at least 1.5, wherein the first thickness and the second thickness are selected such that the ratio is below a threshold at which primary heat generation of the self-regulating heater cable shifts from the center of the connecting portion to one or both of the first end and the second end of the connecting portion .
An injection unit comprising: a cylinder that heats a molding material; a screw which is disposed to be rotatable and movable forward or backward in the cylinder ; a plasticizing motor which rotates the screw ; an injection motor which moves the screw forward or backward; a coupling which is connected to the screw and which includes a spline shaft which is splined to a tubular rotor of the plasticizing motor inside the rotor such that a driving force of the plasticizing motor and a driving force of the injection motor are transmitted to the screw ; annular packing which is held by one of the rotor and the coupling and is in contact with the other of the rotor and the coupling in a slidable manner to seal a gap between the rotor and the coupling ; characterized by that the injection unit further comprises: a slide ring which is held by one of the rotor and the coupling and is in contact with the other of the rotor and the coupling in a slidable manner such that the center line of the rotor matches the center line of the coupling . a cylinder that heats a molding material; a screw which is disposed to be rotatable and movable forward or backward in the cylinder ; a plasticizing motor which rotates the screw ; an injection motor which moves the screw forward or backward; a coupling which is connected to the screw and which includes a spline shaft which is splined to a tubular rotor of the plasticizing motor inside the rotor such that a driving force of the plasticizing motor and a driving force of the injection motor are transmitted to the screw ; annular packing which is held by one of the rotor and the coupling and is in contact with the other of the rotor and the coupling in a slidable manner to seal a gap between the rotor and the coupling ;
A process comprising: shutting down a reactor wherein ethylbenzene is undergoing dehydrogenation to styrene in the presence of steam and a catalyst, adapted to catalyze dehydrogenation of ethylbenzene to styrene, wherein the catalyst comprises potassium, and wherein shutting down the reactor comprises: - reducing a temperature of the reactor to range of 550°C to 450°C; - increasing a steam-to-ethylbenzene molar ratio of an input stream to the reactor to form a purge stream, wherein a steam-to-ethylbenzene molar ratio is from 12: 1 to 50: 1; and - supplying the purge stream to the reactor, wherein shutting down the reactor is performed without use of a steam-only purge stream, and wherein the steam-to-ethylbenzene molar ratio of the purge stream is continuously maintained at from 12: 1 to 50: 1 while the temperature of the reactor is within the range of 550°C to 450°C during the shutting down of the reactor. shutting down a reactor wherein ethylbenzene is undergoing dehydrogenation to styrene in the presence of steam and a catalyst, adapted to catalyze dehydrogenation of ethylbenzene to styrene, wherein the catalyst comprises potassium, and wherein shutting down the reactor comprises: - reducing a temperature of the reactor to range of 550°C to 450°C; - increasing a steam-to-ethylbenzene molar ratio of an input stream to the reactor to form a purge stream, wherein a steam-to-ethylbenzene molar ratio is from 12: 1 to 50: 1; and - reducing a temperature of the reactor to range of 550°C to 450°C; - increasing a steam-to-ethylbenzene molar ratio of an input stream to the reactor to form a purge stream, wherein a steam-to-ethylbenzene molar ratio is from 12: 1 to 50: 1; and - supplying the purge stream to the reactor, wherein shutting down the reactor is performed without use of a steam-only purge stream, and wherein the steam-to-ethylbenzene molar ratio of the purge stream is continuously maintained at from 12: 1 to 50: 1 while the temperature of the reactor is within the range of 550°C to 450°C during the shutting down of the reactor.
A sound processing device comprising: a first sound collector configured to collect a first noise signal from a noise source of noise leaking into a casing mounted to a user's ear; a first signal filter circuit configured to receive as input the first noise signal and to form a first noise reduction signal used to reduce noise at a predetermined cancellation point; a second signal filter circuit configured to receive as input a first pseudo noise signal and to form a second noise reduction signal used to reduce noise at a predetermined cancellation point; a second sound collector being provided outside the casing and configured to collect a second noise signal from the noise source; a third filter circuit configured to receive as input the second noise signal collected by the second sound collector and to form a signal in phase; an adder configured to add the first noise reduction signal, the second noise reduction signal and the signal in phase formed by the filter circuit ; a sound emitter configured to emit an output of the adder into the casing as sound; a characteristic applying unit configured to receive as input an output of the adder , and configured to simulate a transfer characteristic from the sound emitter to the first sound collector , and wherein the first pseudo noise signal is a signal obtained by subtracting an output of the characteristic applying unit from an output of the first sound collector . a first sound collector configured to collect a first noise signal from a noise source of noise leaking into a casing mounted to a user's ear; a first signal filter circuit configured to receive as input the first noise signal and to form a first noise reduction signal used to reduce noise at a predetermined cancellation point; a second signal filter circuit configured to receive as input a first pseudo noise signal and to form a second noise reduction signal used to reduce noise at a predetermined cancellation point; a second sound collector being provided outside the casing and configured to collect a second noise signal from the noise source; a third filter circuit configured to receive as input the second noise signal collected by the second sound collector and to form a signal in phase; an adder configured to add the first noise reduction signal, the second noise reduction signal and the signal in phase formed by the filter circuit ; a sound emitter configured to emit an output of the adder into the casing as sound; a characteristic applying unit configured to receive as input an output of the adder , and configured to simulate a transfer characteristic from the sound emitter to the first sound collector , and wherein the first pseudo noise signal is a signal obtained by subtracting an output of the characteristic applying unit from an output of the first sound collector .
A method of performing preconfigured uplink resource, PUR, transmission using a PUR by a user equipment, UE, in a wireless communication system, the method comprising: receiving, from a base station, PUR configuration information for the PUR transmission in a Radio Resource Control, RRC, connected state (S2810); and performing the PUR transmission to the base station based on the PUR configuration information in an RRC idle state (S2820); wherein the PUR configuration information includes channel information for transmitting an acknowledgement, ACK, or negative-acknowledgement, NACK, in response to a downlink feedback. receiving, from a base station, PUR configuration information for the PUR transmission in a Radio Resource Control, RRC, connected state (S2810); and performing the PUR transmission to the base station based on the PUR configuration information in an RRC idle state (S2820); wherein the PUR configuration information includes channel information for transmitting an acknowledgement, ACK, or negative-acknowledgement, NACK, in response to a downlink feedback.
Wind turbine tower comprising at least one device for damping vibrations in said wind turbine tower , comprising a first element rotatably mounted around a rotational axis and a second element rotatably mounted around said rotational axis , a radius (R1) of a circle portion delimitating the first element with respect to the rotational axis being smaller than a radius (r2) of a circle portion delimitating the second element with respect to the rotational axis , the first element being called inner element , and the second element being called outer element , wherein the inner element and the outer element rotate with opposed directions around the rotational axis , and characterized in that : - the first element has a general shape such that a cross section of a given thickness (t1), called first thickness, is delimited by an angular sector (a1), called first angular sector, and a given height, called first height (h1), - the second element has a general shape such that a cross section of a given thickness (t2), called second thickness, is delimited by an angular sector (a2), called second angular sector, and a given height, called second height (h2), and - the inner element and the outer element are configured such that at least a plane (P) perpendicular to the rotational axis intercepts both the center of mass of the inner element and the center of mass of the outer element . - the first element has a general shape such that a cross section of a given thickness (t1), called first thickness, is delimited by an angular sector (a1), called first angular sector, and a given height, called first height (h1), - the second element has a general shape such that a cross section of a given thickness (t2), called second thickness, is delimited by an angular sector (a2), called second angular sector, and a given height, called second height (h2), and - the inner element and the outer element are configured such that at least a plane (P) perpendicular to the rotational axis intercepts both the center of mass of the inner element and the center of mass of the outer element .
An antenna system with enhanced gain at low elevations, the antenna system comprising: a printed circuit board ; at least one ground layer ; at least one driven radiator element connected to the printed circuit board , wherein the at least one driven radiator element is at least one crossed-dipole element ; at least one conductive post oriented nominally orthogonal to a plane of the printed circuit board, associated with each driven radiator element , each conductive post including a first end and a second end, the first end coupled to the at least one ground layer through a connecting passage of the printed circuit board ; and foam air displacer material , the at least one conductive post received within a cavity of the foam air displacer material , with only the second end of the conductive post attached to the foam air displacer material . a printed circuit board ; at least one ground layer ; at least one driven radiator element connected to the printed circuit board , wherein the at least one driven radiator element is at least one crossed-dipole element ; at least one conductive post oriented nominally orthogonal to a plane of the printed circuit board, associated with each driven radiator element , each conductive post including a first end and a second end, the first end coupled to the at least one ground layer through a connecting passage of the printed circuit board ; and foam air displacer material , the at least one conductive post received within a cavity of the foam air displacer material , with only the second end of the conductive post attached to the foam air displacer material .
Aircraft anti-collision light comprising: a first group of light sources arranged in a first annular configuration around an axis (A); a second group of light sources arranged in a second annular configuration, wherein the first group of light sources is surrounded by the second group of light sources ; a first lens structure , which is configured for generating a first light output from light emitted by the first group of light sources ; a second lens structure , which is configured for generating a second light output from light emitted by the second group of light sources ; and a light transmissive cover , which is arranged over the first lens structure and the second lens structure and which passes the first light output and the second light output for emitting a total light output ; characterized in that the total light output has its peak light intensity (I 100 ) in an angular range of between 80° and 90° with respect to the axis (A); in that the first lens structure is a first lens structure ring; and in that the second lens structure is a second lens structure ring surrounding the first lens structure ring. a first group of light sources arranged in a first annular configuration around an axis (A); a second group of light sources arranged in a second annular configuration, wherein the first group of light sources is surrounded by the second group of light sources ; a first lens structure , which is configured for generating a first light output from light emitted by the first group of light sources ; a second lens structure , which is configured for generating a second light output from light emitted by the second group of light sources ; and a light transmissive cover , which is arranged over the first lens structure and the second lens structure and which passes the first light output and the second light output for emitting a total light output ; the total light output has its peak light intensity (I 100 ) in an angular range of between 80° and 90° with respect to the axis (A); in that the first lens structure is a first lens structure ring; and in that the second lens structure is a second lens structure ring surrounding the first lens structure ring.
Level monitoring system with at least an electrode designed to monitor the level of a medium flowing through a tube, characterized in that the electrode has an integrated temperature sensor , wherein the level monitoring system has an evaluation unit, which is designed to monitor the filling degree of the tube, and wherein said evaluation unit emits a warning signal if the filling degree falls below a limit value, particularly a filling degree of less than 55 % of the tube diameter, wherein the electrode has an electrode head , said electrode head having a front face with a center point (M) and at least a first peripheral zone (R) spaced radially from said point, wherein at least the first peripheral zone (R) defines a first arc (K) curved in the direction of the medium or a parabola curved in the direction of the medium, wherein the electrode head is formed in a rotationally symmetric manner in relation to a longitudinal axis (A) of the electrode, characterized in that the center point (M) of the front face is spaced at a distance from the arc (K) or the parabola in the direction of the medium.
A polyol composition comprising: a dispersion of polyisocyanate polyaddition particles in a carrier polyol, wherein the polyisocyanate polyaddition particles have an average particle diameter from 0.1 to 10.0 microns, and the dispersion has a solids content from 5 wt% to 50 wt% based upon a total weight of the dispersion; and a polyester polyol that is from 1 wt % to 98 wt % of the polyol composition based upon a total weight of the polyol composition. a dispersion of polyisocyanate polyaddition particles in a carrier polyol, wherein the polyisocyanate polyaddition particles have an average particle diameter from 0.1 to 10.0 microns, and the dispersion has a solids content from 5 wt% to 50 wt% based upon a total weight of the dispersion; and a polyester polyol that is from 1 wt % to 98 wt % of the polyol composition based upon a total weight of the polyol composition.
A decoating system comprising: a decoating kiln ; a dust cyclone configured to: receive an exhaust gas from the decoating kiln ; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and a cooled conveyor comprising a screw rotatably positioned in a trough , wherein at least one of the screw or the trough is internally cooled with a coolant and wherein the cooled conveyer is configured to: receive the dust from the dust cyclone ; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature. a decoating kiln ; a dust cyclone configured to: receive an exhaust gas from the decoating kiln ; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and receive an exhaust gas from the decoating kiln ; filter organic particulate matter from the exhaust gas as dust; and discharge the dust at a cyclone discharge temperature; and a cooled conveyor comprising a screw rotatably positioned in a trough , wherein at least one of the screw or the trough is internally cooled with a coolant and wherein the cooled conveyer is configured to: receive the dust from the dust cyclone ; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature. receive the dust from the dust cyclone ; and cool the dust to a dust processing temperature that is less than the cyclone discharge temperature.
Method for checking the weighing accuracy of a scale , which is arranged within a conveyor track, during ongoing operation, wherein the scale determines a weight during a continuous material flow during ongoing operation, the scale preferably being a belt scale or a weighfeeder, wherein - a stable mode of operation is identified by means of an evaluation unit , - a material weight is determined by the evaluation unit when a stable mode of operation is achieved, - wherein subsequently a known test weight is placed onto the scale , - the evaluation unit determines a total weight, made up of the test weight and the material weight, - wherein the evaluation unit determines from the total weight and the material weight whether the weighing accuracy of the scale is in a permissible range, characterized in that the stable mode of operation is determined by a processability index, wherein the processability index is determined using the following formula: c p = USL − LSL / 6 ∗ σ where USL represents an upper specification limit, LSL represents a lower specification limit and σ is a standard deviation, the stable manner of operation being present at a processability index c p ≥ 1.33. - a stable mode of operation is identified by means of an evaluation unit , - a material weight is determined by the evaluation unit when a stable mode of operation is achieved, - wherein subsequently a known test weight is placed onto the scale , - the evaluation unit determines a total weight, made up of the test weight and the material weight, - wherein the evaluation unit determines from the total weight and the material weight whether the weighing accuracy of the scale is in a permissible range, characterized in that the stable mode of operation is determined by a processability index, wherein the processability index is determined using the following formula: c p = USL − LSL / 6 ∗ σ where USL represents an upper specification limit, LSL represents a lower specification limit and σ is a standard deviation, the stable manner of operation being present at a processability index c p ≥ 1.33.
A method of manufacture of a product from a composite material comprising winding a material comprising fibres and a resin material onto a mandrel , monitoring the material , before it is wound onto the mandrel , as it is wound onto the mandrel or once it is wound onto the mandrel , to ascertain at least one dimension of the material , and monitoring the weight of the material wound onto the mandrel , and controlling the winding of the material onto the mandrel to take into account variations in the material being wound using the at least one dimension and the weight values derived during the monitoring, and deriving, from the monitored at least one dimension, a cross-sectional area value for the material being wound.