mhurhangee/patent-ind-claim-en huggingface dataset:
A powder supply device which ejects a powder (P) stored in a tank from an ejection port to supply the powder (P), the powder supply device comprising: a powder fluidizing unit which blows air into the powder in the tank to fluidize the powder (P); a powder supply path forming member which forms a powder supply path in which one end is the ejection port and the other end is an inflow port connected to the tank , wherein the powder (P) in the tank which is fluidized by the powder fluidizing unit flows into the inflow port so as to be ejected from the ejection port through the powder supply path ; characterized by an air blowing unit which blows air toward the powder (P) that is about to flow into the inflow port such that as the air blowing amount increases, the inflow amount of the powder (P) to the inflow port , that is, a powder ejection amount from the ejection port is suppressed; and a control unit , wherein the control unit is capable of executing supply flow rate control of controlling the powder ejection amount from the ejection port according to the air blowing amount by the air blowing unit by controlling the air blowing amount. a powder fluidizing unit which blows air into the powder in the tank to fluidize the powder (P); a powder supply path forming member which forms a powder supply path in which one end is the ejection port and the other end is an inflow port connected to the tank , wherein the powder (P) in the tank which is fluidized by the powder fluidizing unit flows into the inflow port so as to be ejected from the ejection port through the powder supply path ; characterized by an air blowing unit which blows air toward the powder (P) that is about to flow into the inflow port such that as the air blowing amount increases, the inflow amount of the powder (P) to the inflow port , that is, a powder ejection amount from the ejection port is suppressed; and a control unit , wherein the control unit is capable of executing supply flow rate control of controlling the powder ejection amount from the ejection port according to the air blowing amount by the air blowing unit by controlling the air blowing amount.
Apparatus for endovascularly replacing a patient's heart valve, the apparatus comprising: an expandable anchor supporting a replacement valve , the anchor and replacement valve being adapted for percutaneous delivery and deployment to replace the patient's heart valve; and a delivery system comprising a delivery catheter adapted to deliver the anchor and replacement valve to a vicinity of the heart, characterized in that the delivery system comprises proximal and distal anchor actuation elements , which are configured to actuate proximal and distal regions of the anchor independently, the anchor and the replacement valve being further adapted to permit blood flow through the replacement valve and to prevent blood backflow through the replacement valve after the replacement valve exits the catheter and before final deployment of the anchor. an expandable anchor supporting a replacement valve , the anchor and replacement valve being adapted for percutaneous delivery and deployment to replace the patient's heart valve; and a delivery system comprising a delivery catheter adapted to deliver the anchor and replacement valve to a vicinity of the heart, characterized in that the delivery system comprises proximal and distal anchor actuation elements , which are configured to actuate proximal and distal regions of the anchor independently, the anchor and the replacement valve being further adapted to permit blood flow through the replacement valve and to prevent blood backflow through the replacement valve after the replacement valve exits the catheter and before final deployment of the anchor.
A vinyl chloride-based resin composition comprising: a vinyl chloride-based resin in an amount of 100 parts by mass; an organic acid zinc salt as a component (A) in an amount of 0.01 to 10.0 parts by mass; a β-diketone compound as a component (B) in an amount of 0.01 to 10.0 parts by mass; and one or more triazine-based compounds as a component (C) in an amount of 0.01 to 20.0 parts by mass, the triazine-based compounds being selected from the following compounds No. 1 to 5: a vinyl chloride-based resin in an amount of 100 parts by mass; an organic acid zinc salt as a component (A) in an amount of 0.01 to 10.0 parts by mass; a β-diketone compound as a component (B) in an amount of 0.01 to 10.0 parts by mass; and one or more triazine-based compounds as a component (C) in an amount of 0.01 to 20.0 parts by mass, the triazine-based compounds being selected from the following compounds No. 1 to 5:
A method comprising: generating, by a traffic monitor operating on a network device , an IPFIX exception packet comprising: a unique exception code that identifies a cause for a forwarding component in the network device to discard a transit packet , and a nexthop index identifying a forwarding path that the transit packet experiencing the exception would take, the nexthop index identifying information for an egress path the transit packet would take from the network device to a destination network device, the information comprising outgoing interface information and forwarding features for the egress path; and forwarding the exception packet to a collector to be processed. a unique exception code that identifies a cause for a forwarding component in the network device to discard a transit packet , and a nexthop index identifying a forwarding path that the transit packet experiencing the exception would take, the nexthop index identifying information for an egress path the transit packet would take from the network device to a destination network device, the information comprising outgoing interface information and forwarding features for the egress path; and forwarding the exception packet to a collector to be processed.
A liquid-gas mixer comprising: a central passageway provided about an injector axis; a first gas passageway and a second gas passageway , the first gas passageway radially outward of the central passageway and radially inward of the second gas passageway ; and a turbulator provided between the first and second gas passageways , the turbulator including a plurality of first disturbance generators characterised by the turbulator including a plurality of second disturbance generators , the first and second disturbance generators provided about the turbulator in an alternating arrangement; wherein the turbulator includes a main body portion having a free end and an end supported by a strut , the first and second disturbance generators extending in opposite directions from the free end of the main body portion ; wherein the first disturbance generators extend radially inward from the free end of the main body portion into the first gas passageway ; and wherein the second disturbance generators extend radially outward from the free end of the main body portion into the second gas passageway . a central passageway provided about an injector axis; a first gas passageway and a second gas passageway , the first gas passageway radially outward of the central passageway and radially inward of the second gas passageway ; and a turbulator provided between the first and second gas passageways , the turbulator including a plurality of first disturbance generators characterised by the turbulator including a plurality of second disturbance generators , the first and second disturbance generators provided about the turbulator in an alternating arrangement; wherein the turbulator includes a main body portion having a free end and an end supported by a strut , the first and second disturbance generators extending in opposite directions from the free end of the main body portion ; wherein the first disturbance generators extend radially inward from the free end of the main body portion into the first gas passageway ; and wherein the second disturbance generators extend radially outward from the free end of the main body portion into the second gas passageway .
Method of indicating the degree of ageing experienced by a tire as it is being driven on by a vehicle, characterized in that the temperature is measured locally at at least one point of the tire, in that the time of exposure to the said temperature is measured and in that these measurements are analyzed using a model of the said tire .
A method of foaming and shaping a thermoplastic sheet, comprising: foaming a thermoplastic sheet with supercritical carbon dioxide to form a foamed thermoplastic sheet; wherein the thermoplastic sheet comprises a thermoplastic composition comprising a poly(phenylene ether), a polyetherimide, or a combination thereof; and wherein the thermoplastic composition having a glass transition temperature of 20 to 300 °C determined by differential scanning calorimetry according to ASTM D3418-15 at heating rate of 20 °C/minute; and characterized in that the method further comprises shaping the foamed thermoplastic sheet to form a shaped foamed thermoplastic sheet; wherein the shaping comprises compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate; wherein a surface of the first metal plate and a surface of the second metal plate comprise a plurality of grooves, each groove having a width of 0.1 to 1 millimeter and a depth of 0.1 to 1 millimeter, and each groove being separated from the nearest groove by a center-to-center distance of 0.5 to 5 millimeters; wherein the first metal plate and the second metal plate are connected by a flexible linkage capable of modulating a separation between the first metal plate and the second metal plate; and wherein the compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate comprises controlling a minimum separation of the first metal plate and the second metal plate. foaming a thermoplastic sheet with supercritical carbon dioxide to form a foamed thermoplastic sheet; wherein the thermoplastic sheet comprises a thermoplastic composition comprising a poly(phenylene ether), a polyetherimide, or a combination thereof; and wherein the thermoplastic composition having a glass transition temperature of 20 to 300 °C determined by differential scanning calorimetry according to ASTM D3418-15 at heating rate of 20 °C/minute; and characterized in that the method further comprises shaping the foamed thermoplastic sheet to form a shaped foamed thermoplastic sheet; wherein the shaping comprises compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate; wherein a surface of the first metal plate and a surface of the second metal plate comprise a plurality of grooves, each groove having a width of 0.1 to 1 millimeter and a depth of 0.1 to 1 millimeter, and each groove being separated from the nearest groove by a center-to-center distance of 0.5 to 5 millimeters; wherein the first metal plate and the second metal plate are connected by a flexible linkage capable of modulating a separation between the first metal plate and the second metal plate; and wherein the compressing the foamed thermoplastic sheet between a first metal plate and a second metal plate comprises controlling a minimum separation of the first metal plate and the second metal plate.
Method for controlling an actuator intended to activate the opening of a current switch connected to a power line, the method being characterized in that it comprises: - a measurement of voltage (U) of the power line, - a determination of a control time (T) of the actuator as a function of the voltage (U) measured and of a predefined nominal control time (Tn), the control time (T) being greater than or equal to the nominal control time (Tn) when the measured voltage (U) is less than a predefined nominal voltage (Un), and - a control of the actuator for the determined control time (T). - a measurement of voltage (U) of the power line, - a determination of a control time (T) of the actuator as a function of the voltage (U) measured and of a predefined nominal control time (Tn), the control time (T) being greater than or equal to the nominal control time (Tn) when the measured voltage (U) is less than a predefined nominal voltage (Un), and - a control of the actuator for the determined control time (T).
An attenuator configured to be installed in an air-conditioning duct , comprising a cylindrical frame , flow openings in a direction of a mantle of the frame, and at least one adjusting plug , where the frame is manufactured from a porous, sound-absorbing, flexible material so that the mantle of the installed attenuator presses against an inner surface of the air-conditioning duct, where the cross-sectional shape and dimensions of the at least one adjusting plug correspond to a corresponding flow opening so that the at least one adjusting plug can be fitted into the corresponding flow opening in order to adjust the amount of air flow in the air-conditioning duct, characterized in that an angle (TV) between a surface (PI) formed by a supply air end of the attenuator and the mantle, and an angle (PV) between a surface (PI) formed by an exhaust air end of the attenuator and the mantle are sharp angles (TV, PV) achieving a narrowing (KA) of a middle part of the frame, where a diameter (VH) of a cross-section of the attenuator is smaller than diameters (PH) of the surfaces (PI) formed by the supply air end and exhaust air end in order to improve a pressing of the mantle against the inner surface of the air-conditioning duct. a cylindrical frame , flow openings in a direction of a mantle of the frame, and at least one adjusting plug , where the frame is manufactured from a porous, sound-absorbing, flexible material so that the mantle of the installed attenuator presses against an inner surface of the air-conditioning duct, where the cross-sectional shape and dimensions of the at least one adjusting plug correspond to a corresponding flow opening so that the at least one adjusting plug can be fitted into the corresponding flow opening in order to adjust the amount of air flow in the air-conditioning duct, characterized in that an angle (TV) between a surface (PI) formed by a supply air end of the attenuator and the mantle, and an angle (PV) between a surface (PI) formed by an exhaust air end of the attenuator and the mantle are sharp angles (TV, PV) achieving a narrowing (KA) of a middle part of the frame, where a diameter (VH) of a cross-section of the attenuator is smaller than diameters (PH) of the surfaces (PI) formed by the supply air end and exhaust air end in order to improve a pressing of the mantle against the inner surface of the air-conditioning duct.
A method of delivering an agriculturally active ingredient directly to seeds in a field as they are being planted in-furrow, comprising the steps of; (i) providing a liquid agricultural formulation comprising: - the agriculturally active ingredient selected from the group consisting of insecticides, pesticides, fungicides, herbicides, fertilizers and combinations thereof, - at least one foaming agent; - at least one foam stabilizer; (ii) forming the liquid agricultural formulation into a stable foam by an expansion factor of at least 15 using a gas, wherein the gas is air; and (iii) administering the foam to seeds in furrow. (i) providing a liquid agricultural formulation comprising: - the agriculturally active ingredient selected from the group consisting of insecticides, pesticides, fungicides, herbicides, fertilizers and combinations thereof, - at least one foaming agent; - at least one foam stabilizer; - the agriculturally active ingredient selected from the group consisting of insecticides, pesticides, fungicides, herbicides, fertilizers and combinations thereof, - at least one foaming agent; - at least one foam stabilizer; (ii) forming the liquid agricultural formulation into a stable foam by an expansion factor of at least 15 using a gas, wherein the gas is air; and (iii) administering the foam to seeds in furrow.
An active molecule delivery system comprising: a plurality of microcells , each microcell containing a mixture comprising an active molecule, each microcell having a substrate and being sealed with a sealing layer on the opposed side of the microcell from the substrate ; and a microneedle array comprising a plurality of microneedles ; the active molecule delivery system being characterized in that the microneedle array is disposed adjacent the substrates of the microcells , and a compressible layer is disposed between the microneedle array and the substrates of the plurality of microcells , wherein each of the microneedles is configured to penetrate through a microcell , thereby piercing both the substrate and the sealing layer of the microcell and releasing the active molecule from the microcell . a plurality of microcells , each microcell containing a mixture comprising an active molecule, each microcell having a substrate and being sealed with a sealing layer on the opposed side of the microcell from the substrate ; and a microneedle array comprising a plurality of microneedles ; the active molecule delivery system being characterized in that the microneedle array is disposed adjacent the substrates of the microcells , and a compressible layer is disposed between the microneedle array and the substrates of the plurality of microcells , wherein each of the microneedles is configured to penetrate through a microcell , thereby piercing both the substrate and the sealing layer of the microcell and releasing the active molecule from the microcell .
A control device for controlling a magnetic levitation system, the control device comprising: - a signal input for receiving a position signal indicative of a position of an object levitated by one or more magnetic fluxes, and - a controller for controlling one or more voltages directed to one or more windings of the magnetic levitation system on the basis of a deviation of the position of the object from a reference position so as to control a resultant magnetic force directed to the object, wherein the controller is configured to: - select, for each of temporally successive control periods, a control direction so that changing the resultant magnetic force in the selected control direction improves ability of a total force acting on the object to decrease the deviation of the position, and - set, for each of the temporally successive control periods, the one or more voltages in accordance with the selected control direction so as to decrease the deviation of the position by changing the resultant magnetic force with the one or more voltages, characterized in that the controller is configured to select the control direction from among a set of selectable control directions (x+, x-, y+, y-, x+/y+, x+/y-, x-/y+, x-/y-, z+, z-) and to select, for each of the one or more voltages, a voltage value from among a set of selectable voltage values (+U DC , 0, -U DC ) in accordance with the selected control direction. - a signal input for receiving a position signal indicative of a position of an object levitated by one or more magnetic fluxes, and - a controller for controlling one or more voltages directed to one or more windings of the magnetic levitation system on the basis of a deviation of the position of the object from a reference position so as to control a resultant magnetic force directed to the object, - select, for each of temporally successive control periods, a control direction so that changing the resultant magnetic force in the selected control direction improves ability of a total force acting on the object to decrease the deviation of the position, and - set, for each of the temporally successive control periods, the one or more voltages in accordance with the selected control direction so as to decrease the deviation of the position by changing the resultant magnetic force with the one or more voltages,
System for isolating multipotent stromal cells (MSCs), the system comprising a) a separation unit comprising a separation column comprising separation means in the form of a separation filter, separation beads or a separation gel for separating MSCs by physical and/or chemical affinity or physicochemical affinity, comprised in a sample, with a port for introduction of a sample, and an MSC outlet; b) communication means for transferring an MSC rich fraction obtained from the separation unit to a concentration unit, c) a concentration unit for concentrating the harvested MSCs; wherein the concentration unit is a hollow fiber dead-end ultrafiltration unit; and d) an MSC receiving vessel; wherein the system is a completely closed system. a) a separation unit comprising a separation column comprising separation means in the form of a separation filter, separation beads or a separation gel for separating MSCs by physical and/or chemical affinity or physicochemical affinity, comprised in a sample, with a port for introduction of a sample, and an MSC outlet; b) communication means for transferring an MSC rich fraction obtained from the separation unit to a concentration unit, c) a concentration unit for concentrating the harvested MSCs; wherein the concentration unit is a hollow fiber dead-end ultrafiltration unit; and d) an MSC receiving vessel;
A filter element comprising: (a) a tubular construction of pleated filter media defining an interior volume; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) means for supporting the pleated filter media and operably oriented in the interior volume, wherein the means for supporting includes a support structure between and against opposing faces of the pleated filter media, wherein the support structure comprising a pleated construction having pleats extending in a direction non-parallel and angled relative to a direction of pleats of the pleated filter media, wherein the pleated construction comprises a semi-rigid pleated screen, (a) a tubular construction of pleated filter media defining an interior volume; (b) first and second opposite end caps secured to opposite ends of the filter media; and (c) means for supporting the pleated filter media and operably oriented in the interior volume, wherein the means for supporting includes a support structure between and against opposing faces of the pleated filter media, wherein the support structure comprising a pleated construction having pleats extending in a direction non-parallel and angled relative to a direction of pleats of the pleated filter media, wherein the pleated construction comprises a semi-rigid pleated screen,