mhurhangee/ep-ind-claims huggingface dataset:
A microfluidic apparatus (100, 300, 402, 404, 406, 408) comprising: a fluid slot; a microfluidic device comprising: a chamber, wherein the chamber is in fluid communication with the fluid slot via a channel having a relatively smaller width than the chamber; a sensor (116, 522, 524) to detect a presence of a particle of interest in a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; and an actuator positioned in line with the nozzle and operable to cause less than all of the fluid contained in the chamber to be expelled through the nozzle; and a controller (104, 502) configured to: receive information from the sensor; determine, from the received information, whether a preselected number of the particles of interest has passed through the channel; and control the actuator to expel fluid contained in the chamber through the nozzle based upon the determination until the controller determines that the preselected number of the particles of interest has been expelled. a fluid slot; a microfluidic device comprising: a chamber, wherein the chamber is in fluid communication with the fluid slot via a channel having a relatively smaller width than the chamber; a sensor (116, 522, 524) to detect a presence of a particle of interest in a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; and an actuator positioned in line with the nozzle and operable to cause less than all of the fluid contained in the chamber to be expelled through the nozzle; and a chamber, wherein the chamber is in fluid communication with the fluid slot via a channel having a relatively smaller width than the chamber; a sensor (116, 522, 524) to detect a presence of a particle of interest in a fluid passing through the channel into the chamber; a nozzle in fluid communication with the chamber; and an actuator positioned in line with the nozzle and operable to cause less than all of the fluid contained in the chamber to be expelled through the nozzle; and a controller (104, 502) configured to: receive information from the sensor; determine, from the received information, whether a preselected number of the particles of interest has passed through the channel; and control the actuator to expel fluid contained in the chamber through the nozzle based upon the determination until the controller determines that the preselected number of the particles of interest has been expelled. receive information from the sensor; determine, from the received information, whether a preselected number of the particles of interest has passed through the channel; and control the actuator to expel fluid contained in the chamber through the nozzle based upon the determination until the controller determines that the preselected number of the particles of interest has been expelled.
A safety apparatus for a brake of a vehicle, comprising a first line comprising an engine, an intake manifold, a check valve, a vacuum hose, and a brake booster, characterized in that: the first line further comprises an exhaust manifold, a vacuum switch, a booster, a check valve, a vacuum hose, a negative connection portion, and a vacuum switch; and the safety apparatus further comprises a second line including a vacuum hose, a check valve, a booster, a check value, a vacuum hose, and a vacuum pump, which are connected to the negative connection portion, wherein when the intake manifold lacks negative pressure, a negative terminal (-) of the vacuum switch connected to the first line is connected to a negative terminal (-) of the brake switch, and then, when a brake pedal is in an on-state, a negative signal (-) is applied to a four pin relay, and the four pin relay converts the negative signal (-) into a positive signal (B+) and applies the positive signal (B+) to the vacuum pump connected to the second line so as to supply electric power to the vacuum pump, thereby maintaining the brake booster in a vacuum state, and wherein a handbrake switch prepared for a handbrake and applying a negative signal (-) to the vacuum pump of the second line applies a negative signal (-) to a four pin relay when the handbrake is operated, and simultaneously, the four pin relay applies the negative signal (-) to the vacuum pump of the second line so that a vacuum is created in the brake booster of the first line. the first line further comprises an exhaust manifold, a vacuum switch, a booster, a check valve, a vacuum hose, a negative connection portion, and a vacuum switch; and the safety apparatus further comprises a second line including a vacuum hose, a check valve, a booster, a check value, a vacuum hose, and a vacuum pump, which are connected to the negative connection portion, wherein when the intake manifold lacks negative pressure, a negative terminal (-) of the vacuum switch connected to the first line is connected to a negative terminal (-) of the brake switch, and then, when a brake pedal is in an on-state, a negative signal (-) is applied to a four pin relay, and the four pin relay converts the negative signal (-) into a positive signal (B+) and applies the positive signal (B+) to the vacuum pump connected to the second line so as to supply electric power to the vacuum pump, thereby maintaining the brake booster in a vacuum state, and wherein a handbrake switch prepared for a handbrake and applying a negative signal (-) to the vacuum pump of the second line applies a negative signal (-) to a four pin relay when the handbrake is operated, and simultaneously, the four pin relay applies the negative signal (-) to the vacuum pump of the second line so that a vacuum is created in the brake booster of the first line.
A method of predicting the molecular composition of streams in a crude oil refinery comprising the following steps: (i) storing, in a first database, composition data for potential feed streams; (ii) selecting, from the first database, composition data for feed streams flowing to a first window of refinery operations during a time period; (iii) obtaining, from one or more RTO applications, analyzers, laboratory analyses, or any combination thereof, property measurements of actual intermediate and/or product streams produced in, or by, the first window of refinery operations during a time period; (iv) communicating the feed stream composition data selected in step (ii) above and the intermediate and/or product stream property data obtained in step (iii) above to a processing engine that comprises a string of multiple molecular accounting models for modeling the first window of refinery operations; (v) running the one or more molecular accounting models in the processing engine, using the feed stream composition data communicated in step (iv) above as an input to the first molecular accounting model in the string to obtain a prediction of product stream composition and then reconciling the prediction with intermediate and/or product stream property data; and (vi) storing the reconciled prediction in a second database that may be the same or different as the first database. (i) storing, in a first database, composition data for potential feed streams; (ii) selecting, from the first database, composition data for feed streams flowing to a first window of refinery operations during a time period; (iii) obtaining, from one or more RTO applications, analyzers, laboratory analyses, or any combination thereof, property measurements of actual intermediate and/or product streams produced in, or by, the first window of refinery operations during a time period; (iv) communicating the feed stream composition data selected in step (ii) above and the intermediate and/or product stream property data obtained in step (iii) above to a processing engine that comprises a string of multiple molecular accounting models for modeling the first window of refinery operations; (v) running the one or more molecular accounting models in the processing engine, using the feed stream composition data communicated in step (iv) above as an input to the first molecular accounting model in the string to obtain a prediction of product stream composition and then reconciling the prediction with intermediate and/or product stream property data; and (vi) storing the reconciled prediction in a second database that may be the same or different as the first database.
A method for abstracting an enclave platform by a computing system comprising a processor and memory, the method comprising: receiving, by an enclave abstraction platform implemented on the computing system, a first request from an enclave, wherein the first request conforms to an enclave abstraction protocol, which is an abstraction of an enclave native protocol associated with an enclave native platform and which provides enclave primitives that are capable of being implemented on multiple native platforms; converting the first request to a second request, wherein the second request conforms to the enclave native protocol associated with the enclave native platform; and sending the second request to the enclave native platform. receiving, by an enclave abstraction platform implemented on the computing system, a first request from an enclave, wherein the first request conforms to an enclave abstraction protocol, which is an abstraction of an enclave native protocol associated with an enclave native platform and which provides enclave primitives that are capable of being implemented on multiple native platforms; converting the first request to a second request, wherein the second request conforms to the enclave native protocol associated with the enclave native platform; and sending the second request to the enclave native platform.
A spherical annular seal member for use in an exhaust pipe joint comprising: a spherical annular base member defined by a cylindrical inner surface, a partially convex spherical surface, and large- and small-diameter side annular end faces of said partially convex spherical surface; and an outer layer formed integrally on said partially convex spherical surface of said spherical annular base member, whereby said spherical annular base member includes a reinforcing member made from a metal wire net and a heat-resistant material containing expanded graphite and at least a phosphate and compressed in such a manner as to fill meshes of the metal wire net of said reinforcing member and to be integrated with said reinforcing member in mixed form, and said outer layer includes a heat-resistant material containing expanded graphite and at least a phosphate and a reinforcing member made from a metal wire net integrated with said heat-resistant material in mixed form, characterized in that, the expanded graphite in said heat-resistant material has an ash content of not more than 0.1% by mass and a graphite content of not less than 99.7% by mass, wherein the expanded graphite in said heat-resistant material contains sulfur at a ratio of not more than 0.17% by mass (not more than 1700 ppm by mass).
A neutralization plate comprising: a main body; a pair of upper arms extending upwards from the main body a pair of lower arms extending downward from the main body to form a generally X-shape with the pair of upper arms; a horizontal channel formed across a rear side of a midsection of the main body; an aperture formed in the main body between the pair of lower arms and contiguous to a bottom edge of the horizontal channel; and a lower chute formed between the aperture and a lower edge of the horizontal channel; wherein the lower chute is configured for ends of a suture looped through a fractured bone to be passed through the aperture and down the lower chute to a front side of the main body to be anchored separately from the fractured bone. a main body; a pair of upper arms extending upwards from the main body a pair of lower arms extending downward from the main body to form a generally X-shape with the pair of upper arms; a horizontal channel formed across a rear side of a midsection of the main body; an aperture formed in the main body between the pair of lower arms and contiguous to a bottom edge of the horizontal channel; and a lower chute formed between the aperture and a lower edge of the horizontal channel; wherein the lower chute is configured for ends of a suture looped through a fractured bone to be passed through the aperture and down the lower chute to a front side of the main body to be anchored separately from the fractured bone.
A light system for aquatic photosynthetic organisms comprising: - at least one panel, having a plurality of light emitting diode, LED, sensors, said LED sensors being independent of each other and being RGB LED sensors for providing a three color light comprising blue, red and green; - three microchips coupled to the LED sensors for modifying the light color emitted by each LED sensor; - an electronic device, said electronic device being connected to said at least one panel; and - a computer said light system being characterized in that it is configured to combine the three colors with each other to obtain a wide range of different colors in the visible spectrum and wherein the light intensity of each color is independently between 0 and 600 μmol.m -2.s -1. - at least one panel, having a plurality of light emitting diode, LED, sensors, said LED sensors being independent of each other and being RGB LED sensors for providing a three color light comprising blue, red and green; - three microchips coupled to the LED sensors for modifying the light color emitted by each LED sensor; - an electronic device, said electronic device being connected to said at least one panel; and - a computer
A method of preparing an α,β-unsaturated or α -bromo ketone or aldehyde, comprising oxidation of a corresponding acylated enol with copper bromide (CuBr 2).
A compressor for a household appliance, comprising a compressor housing, wherein the compressor housing receives a compression chamber for compressing a gaseous phase of a refrigerant, and an accumulator for storing a liquid phase of the refrigerant, wherein the accumulator is provided inside the compressor housing, wherein the compressor housing encloses the accumulator and an internal volume which receives the compression chamber, and wherein the accumulator comprises a separation wall which separates the accumulator from the internal volume, wherein the accumulator comprises a backing pipe for holding back the liquid phase of the refrigerant in the accumulator, characterised in that the backing pipe is connected to a suction port of the compressor, wherein the backing pipe is arranged at least partly outside the compressor housing, wherein the backing pipe is guided through the compressor housing, and wherein the backing pipe is connected to the suction port outside the compressor housing.
Compound I, which is 1-[2-(2,4-dimethylphenylsulfanyl)phenyl]piperazine and pharmaceutically acceptable salts thereof for use in the treatment of a disease selected from mild cognitive impairment; vascular dementia; and cognitive impairment associated with Down's syndrome, tph gene mutations, epilepsy, traumatic brain injury or Asperger's syndrome.
Method for determining at least one parameter of a cooling lubricant emulsion for machine tools (110, 110'), where a cooling lubricant emulsion is provided in a tank (60, 60') and where the cooling lubricant emulsion is withdrawn from the tank (60, 60'), at least one parameter of the cooling lubricant emulsion is determined using at least one sensor (41, 42, 43) and the cooling lubricant emulsion is returned at least partly to the tank (60, 60'), characterized in that the method additionally comprises implementing a measurement wherein a sample is withdrawn from the tank (60, 60'), the sample is passed in a circuit continuously past the at least one sensor (41, 42, 43) to determine at least one parameter of the sample, where continuously or step-wise at least one measurement reagent is added and the at least one parameter is measured continuously until the at least one parameter reaches a predefined threshold, and subsequently at least part of the sample is conveyed back into the tank (60, 60').
Toilet bowl for use in a vacuum toilet, which toilet bowl comprises a first part and a second part, and the first part is a deep-drawn part and the second part is an investment casting and the first and the second part are joined to one another by a joint interface, characterised by a weld seam or a soldered seam at the joint interface to join the two parts (110, 120).
A patient interface device for coupling an eye of a patient to an ophthalmic surgical laser system, comprising: a hollow shell formed of a rigid material and defining an interior space, the shell having an upper rim and a lower portion; a lens disposed inside of and fixedly mounted to the lower portion of the hollow shell; and a flexible skirt having a circular shape, the flexible skirt being affixed to and extending downwardly from a lower end of the lower portion of the shell, wherein a lower rim of the flexible skirt is located below the applanation lens, characterised in that the lens is a transparent applanation lens; and the lower portion of the shell defines one or more through channels in a region between the applanation lens and a side wall of the lower portion, to provide air communication between the interior space of the shell above the applanation lens and a space which is located below the applanation lens and encircled by the flexible skirt. a hollow shell formed of a rigid material and defining an interior space, the shell having an upper rim and a lower portion; a lens disposed inside of and fixedly mounted to the lower portion of the hollow shell; and a flexible skirt having a circular shape, the flexible skirt being affixed to and extending downwardly from a lower end of the lower portion of the shell, wherein a lower rim of the flexible skirt is located below the applanation lens, characterised in that the lens is a transparent applanation lens; and the lower portion of the shell defines one or more through channels in a region between the applanation lens and a side wall of the lower portion, to provide air communication between the interior space of the shell above the applanation lens and a space which is located below the applanation lens and encircled by the flexible skirt.
A method of fabricating a three-dimensional object, the method comprising: (a) combining at least one of a meth(acrylate), a (meth)acrylamide, a (meth)acrylonitrile, a styrene, an acrylonitrile, a vinyl acetate, a vinylcarbazole, a vinylpyridine, a vinyl ether, a vinyl chloride monomers, a polyfunctional monomer, and a polyfunctional prepolymer with an organic photoredox catalyst and an initiator to provide a reaction mixture, wherein the organic photoredox catalyst is a phenothiazine derivative or a phenoxazine derivative and the initiator is ethyl 2-bromopropanoate or benzyl 2-bromopropanoate; (b) depositing the reaction mixture; (c) polymerizing the monomers by irradiating the reaction mixture with a light source, wherein polymerization in the reaction mixture is regulated by controlling the amount of time that the reaction mixture is exposed to light; and/or by controlling the intensity of light that reaches the reaction mixture; and (d) repeating steps (b) and (c) until the three-dimensional object is formed. (a) combining at least one of a meth(acrylate), a (meth)acrylamide, a (meth)acrylonitrile, a styrene, an acrylonitrile, a vinyl acetate, a vinylcarbazole, a vinylpyridine, a vinyl ether, a vinyl chloride monomers, a polyfunctional monomer, and a polyfunctional prepolymer with an organic photoredox catalyst and an initiator to provide a reaction mixture, wherein the organic photoredox catalyst is a phenothiazine derivative or a phenoxazine derivative and the initiator is ethyl 2-bromopropanoate or benzyl 2-bromopropanoate; (b) depositing the reaction mixture; (c) polymerizing the monomers by irradiating the reaction mixture with a light source, wherein polymerization in the reaction mixture is regulated by controlling the amount of time that the reaction mixture is exposed to light; and/or by controlling the intensity of light that reaches the reaction mixture; and (d) repeating steps (b) and (c) until the three-dimensional object is formed.
A coated balloon catheter comprising a catheter substrate and a coating on the catheter substrate, the coating comprising an outermost layer with a pharmaceutically active ingredient embedded in a binder matrix, characterized in that the binder matrix consists of a polyethylene glycol-polyvinyl alcohol copolymer (PEG-PVA copolymer) and optionally shellac.
Method for manufacturing Light Emitting Diodes including the steps of: - forming a lens over a thermally conductive substrate of the LED by means of multilayer placement of materials with variable size, viscosity and/or refraction index, said substrate being placed on a working table, comprising the the steps of: - forming the lens layer by layer, wherein the lens is formed in vertical direction with pre-defined form and thickness of each layer, and sequence of material type of the layers; - forming each layer as to contain one or more types of material; - curing each layer by UV light to form the final lens so as to obtain the pre-defined shape and form of a layer which serves as a basis for the next layer in the final lens; the method being characterised in that, - applying each material of each layer at a variable angle (α) of placement, said angle (α) being defined with respect to a normal direction to the working table, using materials with varying viscosity and controlling the time of exposure to external UV light in the range from 0,001 second to 1 minute, in order to obtain pre-defined form of each layer. - forming a lens over a thermally conductive substrate of the LED by means of multilayer placement of materials with variable size, viscosity and/or refraction index, said substrate being placed on a working table, comprising the the steps of: - forming the lens layer by layer, wherein the lens is formed in vertical direction with pre-defined form and thickness of each layer, and sequence of material type of the layers; - forming each layer as to contain one or more types of material; - curing each layer by UV light to form the final lens so as to obtain the pre-defined shape and form of a layer which serves as a basis for the next layer in the final lens; the method being characterised in that, - forming the lens layer by layer, wherein the lens is formed in vertical direction with pre-defined form and thickness of each layer, and sequence of material type of the layers; - forming each layer as to contain one or more types of material; - curing each layer by UV light to form the final lens so as to obtain the pre-defined shape and form of a layer which serves as a basis for the next layer in the final lens; - applying each material of each layer at a variable angle (α) of placement, said angle (α) being defined with respect to a normal direction to the working table, using materials with varying viscosity and controlling the time of exposure to external UV light in the range from 0,001 second to 1 minute, in order to obtain pre-defined form of each layer.