mhurhangee/ep-ind-claims huggingface dataset:
A compound of formula or a pharmaceutically acceptable salt thereof: wherein, X is O, S, NR 11, or (CR 11 R 11') n, in which n is an integer selected from 1, 2, 3 and 4; Y is O, S, NR 11, or (CR 11 R 11') m, in which m is an integer selected from 1, 2, 3 and 4; R 1 is independently H, alkyl, or cycloalkyl; G 1 is ethyl; G 2 and G 3 are each independently selected from H, alkyl, alkoxy, trifluoromethyl, halogen, nitro, NR 11 R 11', alkylthio, amido, cyano, carboxyl and tetrazolyl; R 11 and R 11, are each independently selected from H and C 1 -C 6 alkyl. X is O, S, NR 11, or (CR 11 R 11') n, in which n is an integer selected from 1, 2, 3 and 4; Y is O, S, NR 11, or (CR 11 R 11') m, in which m is an integer selected from 1, 2, 3 and 4; R 1 is independently H, alkyl, or cycloalkyl; G 1 is ethyl; G 2 and G 3 are each independently selected from H, alkyl, alkoxy, trifluoromethyl, halogen, nitro, NR 11 R 11', alkylthio, amido, cyano, carboxyl and tetrazolyl; R 11 and R 11, are each independently selected from H and C 1 -C 6 alkyl.
Foam material sealing strip (2, 2', 2") which is suitable for sealing for example of a window frame and is impregnated for delayed recovery, wherein the foam material sealing strip (2, 2', 2") comprises, on the basis of a cross-section, two opposing narrow sides (3, 4) in each case facing the inner side or the outer side of the window frame in the installed state, and wide sides suitable for abutting the side of the window or reveal, wherein, furthermore, in the completely recovered state at least one edge region of the cross-section formed as a high region starting from a base face provided on the wide side has a greater height than a low region adjoining it in the width direction, wherein the high region and the low region extend in alignment with a longitudinal direction of the foam material sealing strip (2, 2', 2") and wherein the base face is a planar face and extends over the entire width, and wherein in the width direction the low region is one tenth or more of the dimension of a wide side, wherein in each case based on the completely reset state the height (h) of the low region is between 60 % and 80 % of the height of the high region, wherein in the completely recovered state a surface which is curved in cross-section is provided on the face opposite the base face, and wherein only one edge-side high region is provided and the width of the sealing strip is between 40 und 120 mm, or even more, characterised in that the base face is formed by the foam material itself having a one-piece cross-section and the line of curvature has an inflection point in cross-section.
A paint composition comprising: a. a carrier liquid; b. at least 20% up to 30% by weight of titanium dioxide; c. a latex binder polymer selected from acrylic binder, vinyl acrylic binder or styrene acrylic binder having a compatibility score of 0.7 or lower; wherein the compatibility of the binder is determined as described in the specification herein; and d. 0.25 to 3% by weight of a quaternary ammonium compound. a. a carrier liquid; b. at least 20% up to 30% by weight of titanium dioxide; c. a latex binder polymer selected from acrylic binder, vinyl acrylic binder or styrene acrylic binder having a compatibility score of 0.7 or lower; wherein the compatibility of the binder is determined as described in the specification herein; and d. 0.25 to 3% by weight of a quaternary ammonium compound.
An agent selected from: Captopril, Bucillamine, and Disulfiram; for use in a method of increasing lipogenesis in the meibomian gland or increasing lipid secretion from the meibomian gland, by topical administration to the eyelid margin of the patient. Captopril, Bucillamine, and Disulfiram; for use in a method of increasing lipogenesis in the meibomian gland or increasing lipid secretion from the meibomian gland, by topical administration to the eyelid margin of the patient.
An electromagnetic wave generator (200, 101, 300, 500, 600) comprising: a first electrode (110, 111, 310, 521, 611) and a second electrode (120, 121, 320, 522, 612) facing and spaced apart from the first electrode; a chargeable particle disposed between the first and the second electrodes; a voltage source (250, 350, 550, 650) which is arranged to apply a voltage between the first and the second electrodes; and an antenna (280, 380, 580, 680) which is electrically connected to one of the first and the second electrodes and which is arranged to radiate an electromagnetic wave due to induced current oscillation based on the applied voltage, characterised in that the voltage source is arranged to apply a direct current voltage between the first and the second electrodes, and wherein the electromagnetic wave generator is arranged to generate an induced current oscillation due to self-sustained oscillation of the chargeable particle based on the applied DC voltage. a first electrode (110, 111, 310, 521, 611) and a second electrode (120, 121, 320, 522, 612) facing and spaced apart from the first electrode; a chargeable particle disposed between the first and the second electrodes; a voltage source (250, 350, 550, 650) which is arranged to apply a voltage between the first and the second electrodes; and an antenna (280, 380, 580, 680) which is electrically connected to one of the first and the second electrodes and which is arranged to radiate an electromagnetic wave due to induced current oscillation based on the applied voltage, characterised in that the voltage source is arranged to apply a direct current voltage between the first and the second electrodes, and wherein the electromagnetic wave generator is arranged to generate an induced current oscillation due to self-sustained oscillation of the chargeable particle based on the applied DC voltage.
A process for making an elastomeric rubber article with a coating comprising synthetic polyisoprene rubber provided on a skin-contacting surface of the elastomeric rubber article, the process comprising: providing an elastomeric rubber article comprising a layer of elastomer selected from the group consisting of synthetic polyisoprene, polychloroprene, nitrile, carboxylated acrylonitrile butadiene rubber, styrene butadiene rubber, butadiene copolymer, polyurethane, polyvinyl chloride, and mixtures thereof; coating the article on at least a portion of the skin-contacting surface with a synthetic polyisoprene rubber coating composition to form a coated elastomeric article, wherein the synthetic polyisoprene rubber coating composition has a total solids content of from 3% to 15%.; and chlorinating the coated elastomeric article, wherein the coating is exposed directly to chlorination. providing an elastomeric rubber article comprising a layer of elastomer selected from the group consisting of synthetic polyisoprene, polychloroprene, nitrile, carboxylated acrylonitrile butadiene rubber, styrene butadiene rubber, butadiene copolymer, polyurethane, polyvinyl chloride, and mixtures thereof; coating the article on at least a portion of the skin-contacting surface with a synthetic polyisoprene rubber coating composition to form a coated elastomeric article, wherein the synthetic polyisoprene rubber coating composition has a total solids content of from 3% to 15%.; and chlorinating the coated elastomeric article, wherein the coating is exposed directly to chlorination.
Circuit for selectively supplying exactly one motor of a plurality of motors (12, 16) with energy provided by exactly one converter, comprising - a plurality of multi-phase motor terminals (9, 11) for connecting multi-phase motors (12, 16); - exactly one multi-phase converter terminal for connecting exactly one converter, - a plurality of electrical connections (5, 7), ∘ each of the electrical connections (5, 7) comprising a plurality of phase lines (51, 71), ∘ each of the electrical connections (5, 7) being connected to the converter terminal, and ∘ exactly one of the electrical connections (5, 7) being connected to exactly one of the motor terminals (9, 11) in each case, - exactly one MOSFET (21, 22), for selectively switching the relevant phase line, being arranged in each phase line (51, 71) of an electrical connection (5, 7); characterised in that the motors (12, 16) each have a star point in which the plurality of phases of the relevant motor (12, 16) meet, all of the source terminals of the MOSFETs (21, 22) being connected to the relevant motor terminal (9, 11) in at least one of the electrical connections (5, 7), and the control module having a bootstrap circuit. - a plurality of multi-phase motor terminals (9, 11) for connecting multi-phase motors (12, 16); - exactly one multi-phase converter terminal for connecting exactly one converter, - a plurality of electrical connections (5, 7), ∘ each of the electrical connections (5, 7) comprising a plurality of phase lines (51, 71), ∘ each of the electrical connections (5, 7) being connected to the converter terminal, and ∘ exactly one of the electrical connections (5, 7) being connected to exactly one of the motor terminals (9, 11) in each case, ∘ each of the electrical connections (5, 7) comprising a plurality of phase lines (51, 71), ∘ each of the electrical connections (5, 7) being connected to the converter terminal, and ∘ exactly one of the electrical connections (5, 7) being connected to exactly one of the motor terminals (9, 11) in each case, - exactly one MOSFET (21, 22), for selectively switching the relevant phase line, being arranged in each phase line (51, 71) of an electrical connection (5, 7); characterised in that the motors (12, 16) each have a star point in which the plurality of phases of the relevant motor (12, 16) meet, all of the source terminals of the MOSFETs (21, 22) being connected to the relevant motor terminal (9, 11) in at least one of the electrical connections (5, 7), and the control module having a bootstrap circuit. characterised in that the motors (12, 16) each have a star point in which the plurality of phases of the relevant motor (12, 16) meet, all of the source terminals of the MOSFETs (21, 22) being connected to the relevant motor terminal (9, 11) in at least one of the electrical connections (5, 7), and the control module having a bootstrap circuit.
A grain bin system, comprising: a sidewall having an interior surface and an exterior surface; a stiffener having an interior surface and an exterior surface, the interior surface facing the exterior surface of the sidewall; a stud bolt having a first threaded portion, a second threaded portion, and a feature between the first threaded portion and the second threaded portion; an inner nut on the first threaded portion; an outer nut on the second threaded portion, wherein the feature is between the interior surface of the stiffener and the exterior surface of the sidewall, the first threaded portion is exposed at the interior surface of the sidewall, and the second threaded portion is exposed at the exterior surface of the stiffener; and a compressible member between the feature and the exterior surface of the sidewall. a sidewall having an interior surface and an exterior surface; a stiffener having an interior surface and an exterior surface, the interior surface facing the exterior surface of the sidewall; a stud bolt having a first threaded portion, a second threaded portion, and a feature between the first threaded portion and the second threaded portion; an inner nut on the first threaded portion; an outer nut on the second threaded portion, wherein the feature is between the interior surface of the stiffener and the exterior surface of the sidewall, the first threaded portion is exposed at the interior surface of the sidewall, and the second threaded portion is exposed at the exterior surface of the stiffener; and a compressible member between the feature and the exterior surface of the sidewall.
A microfluidic apparatus (100, 300, 402, 404, 406, 408) comprising: a microfluidic device comprising: a channel; a chamber, wherein the chamber is in fluid communication with the channel and wherein the channel has a smaller width than the chamber; a sensor (116, 522) to sense a property of a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; an actuator (118, 524) positioned in line with the nozzle and operable to dispense less than all of a fluid contained in the chamber through the nozzle into wells of a substrate or other target location; and a controller (104, 502) configured to determine whether the sensed property of the fluid meets a predetermined condition and to perform a predefined action on the fluid contained in the chamber in response to the sensed property of the fluid meeting the predetermined condition. a microfluidic device comprising: a channel; a chamber, wherein the chamber is in fluid communication with the channel and wherein the channel has a smaller width than the chamber; a sensor (116, 522) to sense a property of a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; an actuator (118, 524) positioned in line with the nozzle and operable to dispense less than all of a fluid contained in the chamber through the nozzle into wells of a substrate or other target location; and a channel; a chamber, wherein the chamber is in fluid communication with the channel and wherein the channel has a smaller width than the chamber; a sensor (116, 522) to sense a property of a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; an actuator (118, 524) positioned in line with the nozzle and operable to dispense less than all of a fluid contained in the chamber through the nozzle into wells of a substrate or other target location; and a controller (104, 502) configured to determine whether the sensed property of the fluid meets a predetermined condition and to perform a predefined action on the fluid contained in the chamber in response to the sensed property of the fluid meeting the predetermined condition.
Airfoil to be arranged in and for exposure to flow in a gas duct of a turbomachine, the blade airfoil comprising, with respect to the exposure to flow in the gas duct, a suction side wall and a pressure side wall, which side walls (21, 22) converge in an upstream end region (24 A) toward a leading edge (20 A) and converge in a downstream end region (24 B) toward a trailing edge (20 B), and the airfoil comprising in the interior a cavity structure which, when viewed in a sectional plane axially parallel with respect to a longitudinal axis of the turbomachine, is enclosed between an inner wall surface (21 B) of the suction side wall and an inner wall surface (22 B) of the pressure side wall, the side walls (21, 22) each being uninterruptedly contiguous, that is to say side-wall material being uninterruptedly present between the respective inner wall surface (21 B, 22 B) and the respective outer wall surface (21 A, 22 A), characterized in that, when viewed in the sectional plane, at least one of the inner wall surfaces (21 B, 22 B) extends into each of the two end regions (24 A, B), normalized to a camber line of the airfoil as a reference, with a curvature change such that a clear width (26 A, B) of the cavity structure enlarges into each of the two end regions (24 A, B), the clear width (26 A, B) being an opening width of the cavity structure, which is taken between the inner wall surface of the suction side wall and the inner wall surface of the pressure side wall perpendicularly to the camber line in the axially parallel sectional plane. the blade airfoil comprising, with respect to the exposure to flow in the gas duct, a suction side wall and a pressure side wall, which side walls (21, 22) converge in an upstream end region (24 A) toward a leading edge (20 A) and converge in a downstream end region (24 B) toward a trailing edge (20 B), and the airfoil comprising in the interior a cavity structure which, when viewed in a sectional plane axially parallel with respect to a longitudinal axis of the turbomachine, is enclosed between an inner wall surface (21 B) of the suction side wall and an inner wall surface (22 B) of the pressure side wall, the side walls (21, 22) each being uninterruptedly contiguous, that is to say side-wall material being uninterruptedly present between the respective inner wall surface (21 B, 22 B) and the respective outer wall surface (21 A, 22 A), characterized in that, when viewed in the sectional plane, at least one of the inner wall surfaces (21 B, 22 B) extends into each of the two end regions (24 A, B), normalized to a camber line of the airfoil as a reference, with a curvature change such that a clear width (26 A, B) of the cavity structure enlarges into each of the two end regions (24 A, B), the clear width (26 A, B) being an opening width of the cavity structure, which is taken between the inner wall surface of the suction side wall and the inner wall surface of the pressure side wall perpendicularly to the camber line in the axially parallel sectional plane.
Flat heating element, comprising a main body, which serves as a heating resistor, in the form of an electrically conductive, flexible flat structure which contains carbon fibres, comprising at least two electrical contact elements (3, 4, 18), which are connected in a flat manner to the main body at a distance from one another, for feeding electric current into the main body, wherein the contact areas of the contact elements (3, 4, 18) are formed in such a way that they penetrate the main body, characterized in that the contact areas of the contact elements (3, 4, 18) have a surface structure with a plurality of deformations (28, 29) which contribute to establishing a connection between the contact elements (3, 4, 18) and the main body by way of penetrating the main body.
Method for deicing a heat exchanger on the exterior air side in a motor vehicle air-conditioning system having a heat pump, by means of which both a cooling function and a heating function can be provided for the vehicle interior when required, in which a switch is made temporarily to a cooling mode during a heating mode if a predetermined icing level of the heat exchanger on the exterior air side is detected or estimated in order to bring about complete or partial thawing of the ice on the heat exchanger on the exterior air side, wherein the temperature of the air impinging on the heat exchanger on the exterior air side is increased during the deicing process to maintain the heating of the vehicle interior, characterized in that the increase in the temperature of the air impinging on the heat exchanger on the exterior air side is achieved by simultaneously closing a radiator grille shutter during the deicing process and operating a fan associated with this heat exchanger and arranged downstream of the radiator grille shutter. in which a switch is made temporarily to a cooling mode during a heating mode if a predetermined icing level of the heat exchanger on the exterior air side is detected or estimated in order to bring about complete or partial thawing of the ice on the heat exchanger on the exterior air side, wherein the temperature of the air impinging on the heat exchanger on the exterior air side is increased during the deicing process to maintain the heating of the vehicle interior, characterized in that the increase in the temperature of the air impinging on the heat exchanger on the exterior air side is achieved by simultaneously closing a radiator grille shutter during the deicing process and operating a fan associated with this heat exchanger and arranged downstream of the radiator grille shutter.
A method of controlling a pulse output in a master oscillator-power amplifier type fiber pulse laser apparatus comprising a master oscillator unit which comprises a combination of a CW laser and an external optical modulator or a Q-switch laser with an internal optical modulator and a power amplifier unit which is connected to the master oscillator unit and outputs the pulse output, comprising performing a sequence of: keeping the master oscillator unit in an oscillating state before a pump LD of a power amplifier unit starts; transitioning the master oscillator unit into a continuous oscillation output operation or zero output operation when a pump LD unit of the power amplifier unit starts-up, such that no pulse signal is input to the power amplifier unit for a specified period of time, wherein during the specified period of time a population inversion inside a fiber for amplification of the power amplifier unit is increased, and such that during the specified period of time the output value of the pump LD is greater than output of the pump LD during master oscillator operating in pulse operation; and changing an operation of the master oscillator unit after a specified period of time from the continuous oscillation output operation to a pulse operation after a population inversion of an amplification medium of the power amplifier unit is stabilized, such that the population inversion of the amplification medium is kept constant from the first pulse, and such that the specified period of time is determined based on the magnitude of the CW output from the master oscillator unit and the intensity of driving current of the pump LD. keeping the master oscillator unit in an oscillating state before a pump LD of a power amplifier unit starts; transitioning the master oscillator unit into a continuous oscillation output operation or zero output operation when a pump LD unit of the power amplifier unit starts-up, such that no pulse signal is input to the power amplifier unit for a specified period of time, wherein during the specified period of time a population inversion inside a fiber for amplification of the power amplifier unit is increased, and such that during the specified period of time the output value of the pump LD is greater than output of the pump LD during master oscillator operating in pulse operation; and changing an operation of the master oscillator unit after a specified period of time from the continuous oscillation output operation to a pulse operation after a population inversion of an amplification medium of the power amplifier unit is stabilized, such that the population inversion of the amplification medium is kept constant from the first pulse, and such that the specified period of time is determined based on the magnitude of the CW output from the master oscillator unit and the intensity of driving current of the pump LD.
A sensor structure for an acoustical pressure sensor, comprising an optical waveguide closed-loop resonator and a plurality of sensor elements (3a-e), wherein the individual sensor elements (3a-e) of the plurality of sensor elements are configured to be affected by an acoustical pressure wave such that a physical property of the individual sensor element (3a-e) is changed; and characterized in that the optical waveguide closed-loop resonator is arranged at said plurality of sensor elements (3a-e) and associated with each of the individual sensor elements (3a-e) of the plurality of sensor elements such that a resonance frequency of the optical waveguide closed-loop resonator is shifted due to the affected physical properties of all individual sensor elements (3a-e) of the plurality of sensor elements (3a-e). an optical waveguide closed-loop resonator and a plurality of sensor elements (3a-e), wherein the individual sensor elements (3a-e) of the plurality of sensor elements are configured to be affected by an acoustical pressure wave such that a physical property of the individual sensor element (3a-e) is changed; and characterized in that the optical waveguide closed-loop resonator is arranged at said plurality of sensor elements (3a-e) and associated with each of the individual sensor elements (3a-e) of the plurality of sensor elements such that a resonance frequency of the optical waveguide closed-loop resonator is shifted due to the affected physical properties of all individual sensor elements (3a-e) of the plurality of sensor elements (3a-e).