mhurhangee/ep-ind-claims huggingface dataset:
A multi-directional selector valve comprising a valve case provided with a suction port into which a fluid flows and at least two discharge ports (4a-4d) from which the fluid flows out, at least two valve bodies (5a-5d) for opening or closing the at least two discharge ports, a drive body formed into a rod-like shape and provided for driving the valve bodies and a drive source for rotating the drive body, wherein the multi-directional selector valve is configured such that any of convex portions (11a-11d) provided on the side of the drive body are pressed onto any of the at least two valve bodies (5a-5d) by the rotation of the drive body, thereby opening or closing the at least two discharge ports in order, wherein the valve bodies (5a-5d) and the drive body are disposed in a path of the fluid from the suction port to the discharge ports (4a-4d) in the valve case; wherein the valve bodies (5a-5d) are provided with a main body portion having a through-hole penetrating the valve body, and the drive body is inserted into the through-holes of the at least two valve bodies (5a-5d); characterized in that a thick portion for forming a wall surface is formed on the main body portion; the thick portion protrudes toward an axial direction of the drive body from a surface of the main body portion; and the convex portion (11a-11d) is pressed onto the wall surface.
A multi-item sample analyzer, comprising: a sample measuring apparatus (2, 3) for measuring a sample collected from a patient, the sample measuring apparatus being configured to perform an initial measurement on the sample and, when a predetermined condition is met, a re-measurement on the sample, wherein the re-measurement is performed for a measurement item different from a measurement item performed for the initial measurement; a display section; an input device; and a controller programmed to perform, when the sample measuring apparatus (2, 3) performs the re-measurement on the sample, processes of: causing the display section to display a first result screen which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen which shows the result of the re-measurement on the sample. a sample measuring apparatus (2, 3) for measuring a sample collected from a patient, the sample measuring apparatus being configured to perform an initial measurement on the sample and, when a predetermined condition is met, a re-measurement on the sample, wherein the re-measurement is performed for a measurement item different from a measurement item performed for the initial measurement; a display section; an input device; and a controller programmed to perform, when the sample measuring apparatus (2, 3) performs the re-measurement on the sample, processes of: causing the display section to display a first result screen which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen which shows the result of the re-measurement on the sample. causing the display section to display a first result screen which shows a result of the initial measurement on the sample, the first result screen including an object (X3; X4) associated with a result of re-measurement on the sample; receiving a predefined operation by use of the object (X3; X4) through the input device while displaying the first result screen; and causing the display section to display, in a response to the predefined operation, a second result screen which shows the result of the re-measurement on the sample.
A variable voltage electronic pet training apparatus comprising: a trigger circuit producing a stimulus request; a controller in communication with said trigger circuit, said controller producing a correction pulse switch activation signal in response to receipt of said stimulus request, said controller producing power converter drive signal corresponding to a desired stimulus intensity; a power converter having an input in communication with said controller, said power converter producing an output voltage corresponding to said power converter drive signal at an output; a transformer having a primary and a secondary, said primary in communication with said power converter output; a correction pulse switch in communication with said controller, said correction pulse switch in communication with said primary, said correction pulse switch connecting said primary to a node having a voltage and producing a potential across said primary equal to a difference between said power converter output voltage and said node voltage; and a pair of electrodes, each of said pair of electrodes being connected to said secondary, said pair of electrodes for transferring a correction stimulus to an animal, said correction stimulus having a voltage stepped from said potential across said primary, and an energy storage circuit in communication with said power converter and said transformer, characterized in that said voltage electronic pet training apparatus further comprises an energy recovery circuit in communication with said energy storage circuit and said controller. a trigger circuit producing a stimulus request; a controller in communication with said trigger circuit, said controller producing a correction pulse switch activation signal in response to receipt of said stimulus request, said controller producing power converter drive signal corresponding to a desired stimulus intensity; a power converter having an input in communication with said controller, said power converter producing an output voltage corresponding to said power converter drive signal at an output; a transformer having a primary and a secondary, said primary in communication with said power converter output; a correction pulse switch in communication with said controller, said correction pulse switch in communication with said primary, said correction pulse switch connecting said primary to a node having a voltage and producing a potential across said primary equal to a difference between said power converter output voltage and said node voltage; and a pair of electrodes, each of said pair of electrodes being connected to said secondary, said pair of electrodes for transferring a correction stimulus to an animal, said correction stimulus having a voltage stepped from said potential across said primary, and an energy storage circuit in communication with said power converter and said transformer, characterized in that said voltage electronic pet training apparatus further comprises an energy recovery circuit in communication with said energy storage circuit and said controller.
Circuit for managing transients and process and product anomalies, placed in a plant for the production of polymer granules or polymer extruded products, along which are positioned: - a mixing device suitable for mixing additives and expanding agent within a stream of molten polymer; - a polymer granulator or an extrusion device, positioned downstream of the mixing device; - a deviation valve suitable for molten polymers, placed along the line connecting the mixing device to the polymer granulator or to the extrusion device, upstream of said granulator or extruder; said deviation valve being provided with at least one inlet, a Stand-by position (A→C) and a Run position (A→B); said circuit being characterized in that it comprises a heating device downstream of said valve, a separation device downstream of the heating device, suitable for physically separating the blowing agent from the polymer and any additives present therein, and a cooling device positioned between the separation device and the mixing device. - a mixing device suitable for mixing additives and expanding agent within a stream of molten polymer; - a polymer granulator or an extrusion device, positioned downstream of the mixing device; - a deviation valve suitable for molten polymers, placed along the line connecting the mixing device to the polymer granulator or to the extrusion device, upstream of said granulator or extruder; said deviation valve being provided with at least one inlet, a Stand-by position (A→C) and a Run position (A→B);
A method of forming an asymmetric graphene oxide membrane suitable for the separation of molecules with a molecular weight in the range of 200-800 Da in a membrane separation process, wherein the membrane is prepared by a method of forming a film of a stabilised solution of discotic graphene oxide on a substrate surface, the method including: applying an amount of the solution of discotic graphene oxide in a nematic liquid crystalline state with a graphene oxide concentration of 16 mg/ml or greater to the substrate surface; drawing the solution through a rectangular channel defined by two opposing surfaces having a gap there between at a shear rate of from 1,000 to 10,000 per second determined according to the Navier-Stokes equation assuming that fluid flow is Newtonian as disclosed herein, wherein a first opposing surface of the channel is the substrate surface; and forming a film of the solution of aligned discotic graphene oxide having a thickness corresponding to a length of the gap; wherein the substrate is a porous substrate selected from the group consisting of polymers, metals, and ceramics, having pore sizes in the range of from 20 nm to 1000 nm; wherein the step of drawing the solution through the channel includes moving the two opposing surfaces relative to one another, a second opposing surface is an applicator surface of a coating apparatus selected from the group consisting of: a rod coater, a roll coater, a knife coater, a flexible applicator, a curtain coater, and a gravure coater. applying an amount of the solution of discotic graphene oxide in a nematic liquid crystalline state with a graphene oxide concentration of 16 mg/ml or greater to the substrate surface; drawing the solution through a rectangular channel defined by two opposing surfaces having a gap there between at a shear rate of from 1,000 to 10,000 per second determined according to the Navier-Stokes equation assuming that fluid flow is Newtonian as disclosed herein, wherein a first opposing surface of the channel is the substrate surface; and forming a film of the solution of aligned discotic graphene oxide having a thickness corresponding to a length of the gap; wherein the substrate is a porous substrate selected from the group consisting of polymers, metals, and ceramics, having pore sizes in the range of from 20 nm to 1000 nm; wherein the step of drawing the solution through the channel includes moving the two opposing surfaces relative to one another, a second opposing surface is an applicator surface of a coating apparatus selected from the group consisting of: a rod coater, a roll coater, a knife coater, a flexible applicator, a curtain coater, and a gravure coater.
A device, comprising: a first antenna; an RF source coupled to the first antenna; a capacitive sensor capable of detecting a capacitance of the antenna, the capacitive sensor configured to detect a change of the capacitance of the antenna from a preselected target value; a feedback controller coupled to the capacitive sensor; and a first variable capacitor coupled to the antenna and to the feedback controller, wherein the first variable capacitor, the feedback controller and the capacitive sensor are connected in series with the antenna and in that order from the antenna, and wherein the feedback controller is configured to continuously change the capacitance of the first variable capacitor in response to the change of the capacitance of the antenna so that the adjusted capacitance of the antenna returns to the preselected target value. a first antenna; an RF source coupled to the first antenna; a capacitive sensor capable of detecting a capacitance of the antenna, the capacitive sensor configured to detect a change of the capacitance of the antenna from a preselected target value; a feedback controller coupled to the capacitive sensor; and a first variable capacitor coupled to the antenna and to the feedback controller, wherein the first variable capacitor, the feedback controller and the capacitive sensor are connected in series with the antenna and in that order from the antenna, and wherein the feedback controller is configured to continuously change the capacitance of the first variable capacitor in response to the change of the capacitance of the antenna so that the adjusted capacitance of the antenna returns to the preselected target value.
A method of determining a capacitor degradation parameter associated with the degree of degradation of a cell capacitor in a converter cell (7; 7-1; 7-2) of a power converter comprising a plurality of identical converter cells (7; 7-1; 7-2), including redundant converter cells, which converter cell (7; 7-1; 7-2), prior to determining the capacitor degradation parameter, has been bypassed (7; 7-1; 7-2), wherein the capacitor degradation parameter is the capacitance of the cell capacitor, and wherein the method comprises: a) obtaining a measurement parameter value associated with discharging of the cell capacitor, forming a dc-link, from a measurement start voltage level at a measurement start time to a measurement end voltage level at a measurement end time, wherein the measurement start voltage level and the measurement end voltage level are predetermined, wherein the measurement parameter value is a time difference between the measurement start time and the measurement end time or wherein measurement start time and measurement end time are predetermined and the measurement parameter value is the measurement end voltage, and b) determining a value of the capacitor degradation parameter based on a time difference between the measurement start time and the measurement end time, wherein the determining of the value of the capacitor degradation parameter is further based on the measurement start voltage level and the measurement end voltage level, wherein the capacitor degradation parameter is directly proportional to the time difference between the measurement start time and the measurement end time. a) obtaining a measurement parameter value associated with discharging of the cell capacitor, forming a dc-link, from a measurement start voltage level at a measurement start time to a measurement end voltage level at a measurement end time, wherein the measurement start voltage level and the measurement end voltage level are predetermined, wherein the measurement parameter value is a time difference between the measurement start time and the measurement end time or wherein measurement start time and measurement end time are predetermined and the measurement parameter value is the measurement end voltage, and b) determining a value of the capacitor degradation parameter based on a time difference between the measurement start time and the measurement end time, wherein the determining of the value of the capacitor degradation parameter is further based on the measurement start voltage level and the measurement end voltage level, wherein the capacitor degradation parameter is directly proportional to the time difference between the measurement start time and the measurement end time.
System for cooling a fluid of a circuit, referred to as a fluid circuit, for lubricating or cooling at least one component of a propulsion engine of an aircraft, the engine comprising an outer casing which extends in a longitudinal direction between an air inlet opening and an ejection nozzle, a turbomachine having a turbomachine casing secured inside said outer casing by rectifier arms, and a fan arranged at said air inlet opening of said outer casing, upstream of said turbomachine, and designed to be able to generate a primary air flow feeding said turbomachine and a secondary air flow feeding a channel, referred to as a secondary channel, formed between said outer casing and said turbomachine casing, characterized in that said cooling system comprises: - a lubricating or cooling fluid reservoir; - a plurality of components of said engine to be lubricated and/or cooled; and - at least one fluid flow pipe connecting said fluid reservoir and said plurality of components of said engine to be lubricated and/or cooled, - a cooling system of said fluid comprising a smooth heat exchanger, referred to as a skin exchanger, formed from two metal sheets (31, 32) facing one another and defining between them channels for the circulation of the said fluid, one of which sheets, referred to as the interface sheet, is intended to extend over the periphery of the inner wall of the outer casing so that the said skin exchanger does not comprise any fins immersed in the said secondary air flow and is configured to be arranged on an inner wall of said outer casing, said skin exchanger being in fluid communication with said fluid circuit and designed to be able to provide heat exchanges between said fluid of said fluid circuit and the air flowing through said secondary channel, the fluid circuit being characterized in that the exchanger is configured to be longitudinally arranged between said fan and the said rectifier arms. - a lubricating or cooling fluid reservoir; - a plurality of components of said engine to be lubricated and/or cooled; and - at least one fluid flow pipe connecting said fluid reservoir and said plurality of components of said engine to be lubricated and/or cooled, - a cooling system of said fluid comprising a smooth heat exchanger, referred to as a skin exchanger, formed from two metal sheets (31, 32) facing one another and defining between them channels for the circulation of the said fluid, one of which sheets, referred to as the interface sheet, is intended to extend over the periphery of the inner wall of the outer casing so that the said skin exchanger does not comprise any fins immersed in the said secondary air flow and is configured to be arranged on an inner wall of said outer casing, said skin exchanger being in fluid communication with said fluid circuit and designed to be able to provide heat exchanges between said fluid of said fluid circuit and the air flowing through said secondary channel, the fluid circuit being characterized in that the exchanger is configured to be longitudinally arranged between said fan and the said rectifier arms.
A chewing gum base comprising: (a) an elastomer; (b) a natural softener chosen from plant sterols, plant sterol esters, lanolin, cholesterol NF, damar resin, copal resin, sandarac resin, mastic resin, mastic powder, ursolic acid, lycopene and squalene; and (c) a filler comprising at least one natural component, wherein said natural component comprises at least one cellulose fiber. (a) an elastomer; (b) a natural softener chosen from plant sterols, plant sterol esters, lanolin, cholesterol NF, damar resin, copal resin, sandarac resin, mastic resin, mastic powder, ursolic acid, lycopene and squalene; and (c) a filler comprising at least one natural component, wherein said natural component comprises at least one cellulose fiber.
Method of producing a plurality of optoelectronic components, comprising the steps: a) providing a plurality of semiconductor bodies with in each case a semiconductor layer sequence, wherein the semiconductor bodies are arranged on an auxiliary carrier, which is formed as a film, and the semiconductor bodies are formed in each case on a growth substrate body for the semiconductor layer sequence of the semiconductor body; b) providing a plurality of component carriers within a component carrier assembly, wherein the component carriers comprise in each case at least one connection pad; c) positioning the semiconductor bodies relative to the component carriers; d) producing an electrically conductive connection between the connection pads of the component carriers and the semiconductor bodies assigned to the connection pads and attaching these semiconductor bodies to the component carrier, wherein semiconductor bodies are selectively detached from the auxiliary carrier by reducing the adhesive properties of the film by means of electromagnetic radiation; e) finishing the plurality of optoelectronic components, wherein the growth substrate bodies are removed completely or only partially from the respective semiconductor bodies and the component carrier assembly is singulated into the component carriers. a) providing a plurality of semiconductor bodies with in each case a semiconductor layer sequence, wherein the semiconductor bodies are arranged on an auxiliary carrier, which is formed as a film, and the semiconductor bodies are formed in each case on a growth substrate body for the semiconductor layer sequence of the semiconductor body; b) providing a plurality of component carriers within a component carrier assembly, wherein the component carriers comprise in each case at least one connection pad; c) positioning the semiconductor bodies relative to the component carriers; d) producing an electrically conductive connection between the connection pads of the component carriers and the semiconductor bodies assigned to the connection pads and attaching these semiconductor bodies to the component carrier, wherein semiconductor bodies are selectively detached from the auxiliary carrier by reducing the adhesive properties of the film by means of electromagnetic radiation; e) finishing the plurality of optoelectronic components, wherein the growth substrate bodies are removed completely or only partially from the respective semiconductor bodies and the component carrier assembly is singulated into the component carriers.
A multilayer piston insulator, comprising: a plurality of axially aligned disks of a disk stack comprising a first disk, a second disk, and a third disk, wherein the second disk is coupled coaxially between the first disk and the third disk and comprises a different material than the first disk and the third disk, and wherein the disk stack is configured to couple to a hydraulic piston; the multilayer piston insulator characterized in that the second disk comprises a first circumferential wall extending perpendicular to the second disk proximate an outer diameter of the second disk defining a disk cup. a plurality of axially aligned disks of a disk stack comprising a first disk, a second disk, and a third disk, wherein the second disk is coupled coaxially between the first disk and the third disk and comprises a different material than the first disk and the third disk, and wherein the disk stack is configured to couple to a hydraulic piston; the multilayer piston insulator characterized in that the second disk comprises a first circumferential wall extending perpendicular to the second disk proximate an outer diameter of the second disk defining a disk cup.