mhurhangee/patent-ind-claim-en huggingface dataset:
A fluid control valve connected to a wet gas flow passage in order to control a flow of wet gas, comprising: an introduction passage for introducing the wet gas into the fluid control valve ; a filter including mesh for removing foreign matter contained in the wet gas flowing through the introduction passage ; a guiding passage provided to extend upward from an upper portion of the filter ; a valve port disposed above the introduction passage and constituted by an upper portion open end of the guiding passage ; a discharge passage that discharges the wet gas that has passed through the filter from the fluid control valve through the valve port ; and a valve portion that opens and closes the valve port using a valve body , characterized in that the filter is disposed in a lowermost portion of the introduction passage , is formed in a cylindrical shape and mesh formed with a large number of small holes is provided on a side face of a cylinder such that water is suctioned up over the cylinder side face with utilizing the surface tension of water forming the water film in the small hole of the mesh , and the discharge passage is branched from the introduction passage via the guiding passage , the introduction passage communicating with the wet gas flow passage . an introduction passage for introducing the wet gas into the fluid control valve ; a filter including mesh for removing foreign matter contained in the wet gas flowing through the introduction passage ; a guiding passage provided to extend upward from an upper portion of the filter ; a valve port disposed above the introduction passage and constituted by an upper portion open end of the guiding passage ; a discharge passage that discharges the wet gas that has passed through the filter from the fluid control valve through the valve port ; and a valve portion that opens and closes the valve port using a valve body , characterized in that the filter is disposed in a lowermost portion of the introduction passage , is formed in a cylindrical shape and mesh formed with a large number of small holes is provided on a side face of a cylinder such that water is suctioned up over the cylinder side face with utilizing the surface tension of water forming the water film in the small hole of the mesh , and the discharge passage is branched from the introduction passage via the guiding passage , the introduction passage communicating with the wet gas flow passage .
A forming belt for producing a nonwoven fabric comprising a first surface and a second surface, and at least a first visually discernible zone on at least one of the first surface and the second surface, the first visually discernable zone having a pattern of three-dimensional features, each of the three-dimensional features defining a microzone comprising a first region and a second region, the first and second regions having a difference in values for an intensive property, wherein the intensive property is thickness, basis weight or volumetric density as measured by the Micro-CT Intensive Property Measurement Test Method disclosed in the description; wherein the first visually discernable zone has a Gray Level Variation of between about 0.1 and about 10.0, according to the Intra-Article Gray Level Variation Test Method detailed herein; and wherein the forming belt has a %KA of between about 2% and about 35% calculated by dividing the area of the forming belt that contains knuckles by the overall area of the entire forming belt; wherein the forming belt has an air permeability in the range of about 400 cfm to about 800 cfm, according to the Air Permeability Test Method detailed herein; and wherein the forming belt has an overburden in the range of about 0.508 mm to about 1.270 mm. wherein the first visually discernable zone has a Gray Level Variation of between about 0.1 and about 10.0, according to the Intra-Article Gray Level Variation Test Method detailed herein; and wherein the forming belt has a %KA of between about 2% and about 35% calculated by dividing the area of the forming belt that contains knuckles by the overall area of the entire forming belt; wherein the forming belt has an air permeability in the range of about 400 cfm to about 800 cfm, according to the Air Permeability Test Method detailed herein; and wherein the forming belt has an overburden in the range of about 0.508 mm to about 1.270 mm.
A heat recovery oven with dishwasher comprising: - a carrier body that contains two separate doors, namely, the oven door (2.2) and the dishwasher door (3.2), external body sheets, namely, the upper sheet (1.2) and the side sheet (1.3), and feet (1.5), - an oven section in which the cooking function is performed and that contains oven firebox (2.3), cooling fan (2.6), turbo fan (2.8), wire racks, trays, lighting lamp, safety thermostat, oven upper resistance (2.10), oven lower resistance (2.13), a water tank (2.4) a water level sensor (2.12) that measures the amount of water taken into the water tank, a temperature sensor (2.9), an electric solenoid valve (2.14) to direct the water to the dishwasher after the water is heated, - a dishwasher section in which the dishwashing function is performed and that contains dishwasher boiler (3.3), resistances, water transfer hose between the oven and dishwasher (1.6), dishwasher basket (3.4), water pump, water spray propeller, water drain filter, wastewater hose, detergent compartment, dishwasher water temperature sensor (3.5), water level meter, water tank, mains water inlet, temperature sensor, solenoid valve (2.14), water level sensor (2.12), upper water spray propeller, lower water spray propeller; the heat recovery oven with dishwasher is characterized in that the water tank (2.4) is located around the oven firebox (2.3). - a carrier body that contains two separate doors, namely, the oven door (2.2) and the dishwasher door (3.2), external body sheets, namely, the upper sheet (1.2) and the side sheet (1.3), and feet (1.5), - an oven section in which the cooking function is performed and that contains oven firebox (2.3), cooling fan (2.6), turbo fan (2.8), wire racks, trays, lighting lamp, safety thermostat, oven upper resistance (2.10), oven lower resistance (2.13), a water tank (2.4) a water level sensor (2.12) that measures the amount of water taken into the water tank, a temperature sensor (2.9), an electric solenoid valve (2.14) to direct the water to the dishwasher after the water is heated, - a dishwasher section in which the dishwashing function is performed and that contains dishwasher boiler (3.3), resistances, water transfer hose between the oven and dishwasher (1.6), dishwasher basket (3.4), water pump, water spray propeller, water drain filter, wastewater hose, detergent compartment, dishwasher water temperature sensor (3.5), water level meter, water tank, mains water inlet, temperature sensor, solenoid valve (2.14), water level sensor (2.12), upper water spray propeller, lower water spray propeller; the heat recovery oven with dishwasher is characterized in that the water tank (2.4) is located around the oven firebox (2.3).
A dishwashing detergent composition comprising a xylanase and an ethylene oxide - propylene oxide block copolymer having a cloud point of 20°C or greater than 20°C.
A method for determining a next hop, comprising: receiving , by a control device, first routing information sent by a first forwarding device, wherein the first routing information comprises an identifier of the first forwarding device; determining , by the control device, a first routing path according to the identifier of the first forwarding device, an identifier of a second forwarding device and a routing path group, wherein the first routing path includes the identifier of the first forwarding device and the identifier of the second forwarding device, and the first routing path is in the routing path group; and determining , by the control device, a next hop in second routing information for the second forwarding device according to the first routing path, wherein the second forwarding device is a receiver of the second routing information advertised by the control device. receiving , by a control device, first routing information sent by a first forwarding device, wherein the first routing information comprises an identifier of the first forwarding device; determining , by the control device, a first routing path according to the identifier of the first forwarding device, an identifier of a second forwarding device and a routing path group, wherein the first routing path includes the identifier of the first forwarding device and the identifier of the second forwarding device, and the first routing path is in the routing path group; and determining , by the control device, a next hop in second routing information for the second forwarding device according to the first routing path, wherein the second forwarding device is a receiver of the second routing information advertised by the control device.
A device , comprising: a plurality of ports to receive a plurality of audio or video, AV, streams; an electronic program guide, EPG, decoder to decode program names and information about the programs embedded in at least one of the plurality of AV streams; a port to receive input from a navigation device including an estimated time of arrival at a destination; an AV content control unit configured to recursively modify a playback length of a selected program of at least one of the plurality of AV streams by modifying a playback rate of the AV stream, in dependence on the selected program length, to fit the entire playback within an input time interval determined from the estimated time of arrival; an AV decoder to decode the selected program; and a memory buffer coupled to the AV decoder and the AV content control unit , wherein the memory buffer is used by the AV content control unit to buffer at least one of the plurality of AV streams. a plurality of ports to receive a plurality of audio or video, AV, streams; an electronic program guide, EPG, decoder to decode program names and information about the programs embedded in at least one of the plurality of AV streams; a port to receive input from a navigation device including an estimated time of arrival at a destination; an AV content control unit configured to recursively modify a playback length of a selected program of at least one of the plurality of AV streams by modifying a playback rate of the AV stream, in dependence on the selected program length, to fit the entire playback within an input time interval determined from the estimated time of arrival; an AV decoder to decode the selected program; and a memory buffer coupled to the AV decoder and the AV content control unit , wherein the memory buffer is used by the AV content control unit to buffer at least one of the plurality of AV streams.
A power cable comprising at least one cable core comprising an electric conductor surrounded by a crosslinked insulating system made of at least one polyolefin crosslinked by reaction with at least one peroxide crosslinker and comprising: - an inner semiconducting layer surrounding the electric conductor; - an electrically insulating layer surrounding the inner semiconducting layer; - an outer semiconducting layer surrounding the electrically insulating layer; wherein a zeolite system comprising particles of a first zeolite and particles of a second zeolite is placed in the cable core, the first zeolite having a SiO 2 /Al 2 O 3 ratio higher than 5 and equal to or lower than 20, and a maximum diameter of a sphere than can diffuse along at least one of the cell axes directions higher than 5 Å; and the second zeolite having a SiO 2 /Al 2 O 3 ratio equal of 5 at most, and a maximum diameter of a sphere than can diffuse along at least one of the cell axes directions of from 3 Å to 5 Å. - an inner semiconducting layer surrounding the electric conductor; - an electrically insulating layer surrounding the inner semiconducting layer; - an outer semiconducting layer surrounding the electrically insulating layer; wherein a zeolite system comprising particles of a first zeolite and particles of a second zeolite is placed in the cable core, the first zeolite having a SiO 2 /Al 2 O 3 ratio higher than 5 and equal to or lower than 20, and a maximum diameter of a sphere than can diffuse along at least one of the cell axes directions higher than 5 Å; and the second zeolite having a SiO 2 /Al 2 O 3 ratio equal of 5 at most, and a maximum diameter of a sphere than can diffuse along at least one of the cell axes directions of from 3 Å to 5 Å.
An access cannula (Z) comprising a dwell tube configured to serve as an access during treatment, a fixing base or a fixing pad configured for fixing of the dwell tube to a patient's surface and a blocking device configured to maintain the dwell tube kinked in an idle position, characterized in that the blocking device includes a spring element which is arranged with a first end at a first position (P1) of the dwell tube and which is connected or connectable with a second end at a second position (P2) on the dwell tube , wherein the second position (P2) is distanced along a longitudinal axis (L) of the dwell tube at a distance from the first position (P1), and wherein the a fixing base or the fixing pad is provided at the first position (P1) or at the second position (P2).
A support material ink for use in three-dimensional printing comprising: a urethane wax comprising the reaction product between monofunctional polyethylene oxide and polyisocyanate; a monomeric curable material, an oligomeric curable material, or mixtures thereof, and one or more photoinitiators. a urethane wax comprising the reaction product between monofunctional polyethylene oxide and polyisocyanate; a monomeric curable material, an oligomeric curable material, or mixtures thereof, and one or more photoinitiators.
A percutaneous blood pump for percutaneous insertion into a patient's circulatory system, the blood pump comprising a pump housing with an impeller housed in the pump housing , the impeller being rotatable so as to cause blood to be drawn into and through the pump housing , and a motor housing housing an electric motor for causing a rotational movement, the motor housing being distinct from the pump housing and spaced apart from the pump housing in a proximal direction, the blood pump further comprising at least one flexible sheath extending between the motor housing and the pump housing and at least one flexible cable extending through the flexible sheath so as to transfer a rotational movement from the electric motor to the impeller .
A composition comprising: • more than 5 wt.% (by total weight of the composition) of a glycol selected from the group consisting of monoethylene glycol, monopropylene glycol, 1,3-propanediol, glycerol or combinations thereof; and • more than 2 wt.% (by total weight of the composition) of a short-chain organic carboxylic acid or salt thereof selected from the group consisting of C2 organic carboxylic acids or salts thereof, C3 organic carboxylic acids or salts thereof and combinations thereof; wherein the combined amount of the glycol and the short-chain organic carboxylic acid or salt thereof is more than 15 wt.% (by total weight of the composition); wherein the composition exhibits an aluminium pitting corrosion potential of more than 2500 mV when determined by rapid cyclic potentiokinetic polarization scanning (RCP), preferably employing an AlMgSi0.5 alloy working electrode; wherein the composition further comprises a long-chain organic carboxylic acid corrosion inhibitor selected from the group consisting of C6-C16 organic carboxylic acids or salts thereof, preferably C6-C11 organic carboxylic acids or salts thereof; and wherein the composition comprises less than 10 wt.% (by total weight of the composition) of the short-chain organic carboxylic acid or salt thereof. • more than 5 wt.% (by total weight of the composition) of a glycol selected from the group consisting of monoethylene glycol, monopropylene glycol, 1,3-propanediol, glycerol or combinations thereof; and • more than 2 wt.% (by total weight of the composition) of a short-chain organic carboxylic acid or salt thereof selected from the group consisting of C2 organic carboxylic acids or salts thereof, C3 organic carboxylic acids or salts thereof and combinations thereof; wherein the combined amount of the glycol and the short-chain organic carboxylic acid or salt thereof is more than 15 wt.% (by total weight of the composition); wherein the composition exhibits an aluminium pitting corrosion potential of more than 2500 mV when determined by rapid cyclic potentiokinetic polarization scanning (RCP), preferably employing an AlMgSi0.5 alloy working electrode; wherein the composition further comprises a long-chain organic carboxylic acid corrosion inhibitor selected from the group consisting of C6-C16 organic carboxylic acids or salts thereof, preferably C6-C11 organic carboxylic acids or salts thereof; and wherein the composition comprises less than 10 wt.% (by total weight of the composition) of the short-chain organic carboxylic acid or salt thereof.
An engine control device that controls a spark ignition engine equipped with an EGR device to recirculate an exhaust to a combustion chamber, and detects an air-fuel ratio (Rabf) of each cylinder, wherein, when the air-fuel ratio (Rabf) of each cylinder varies between a rich air-fuel ratio and a lean air-fuel ratio due to a variation in exhaust recirculation amount at the time when the exhaust is recirculated by the EGR device, an ignition timing (Advl, Adv2, Adv3, Adv4) of a cylinder having the rich air-fuel ratio is corrected to be advanced, or an ignition energy of the cylinder having the rich air-fuel ratio is increased, wherein, when a combustion stability of the cylinder having the rich air-fuel ratio departs from a predetermined range, the ignition timing (Advl, Adv2, Adv3, Adv4) of the cylinder having the rich air-fuel ratio is corrected to be advanced, or the ignition energy of the cylinder having the rich air-fuel ratio is increased, and wherein, when an angular acceleration of the cylinder having the rich air-fuel ratio is equal to or less than a predetermined value, the ignition timing (Advl, Adv2, Adv3, Adv4) of the cylinder having the rich air-fuel ratio is corrected to be advanced, or the ignition energy of the cylinder having the rich air-fuel ratio is increased.
An endoscopic device that comprises a handle section, an insertion tube connected to said handle section, a distal tip at the distal end of said insertion tube , a plurality of tubes , wires, and cables that pass through the interior of said insertion tube , and empty spaces between said plurality of tubes , wires, and cables , wherein said empty spaces are configured to be utilized as a channel that enables liquid or gas to flow from said handle section to said distal tip ; characterized in that said distal tip comprises a pattern of alternating grooves and lands on its outer circumferential surface and said 10 endoscopic device comprises a cap comprising a circular hole at the center of a distal surface of said cylindrical cap surrounded by an annular curved portion , wherein said cap is fitted tightly over said lands thereby forming hermetic seals that convert said grooves into closed channels between said lands through which liquid or gas flowing through said empty spaces can continue on its way to a circular nozzle that is formed by a gap around the circumference of the circular hole in said cap , wherein the shape of said annular curved portion of said cap causes the gap to function as said circular nozzle.
A valve device comprising: a drive source ; a base having a valve seat face formed with an inflow hole and an outflow hole for fluid; a case body which is placed on a valve seat face side of the base to section a valve chamber together with the base ; and a first valve body configured to open and close the outflow hole ; the valve device being characterized in further comprising: a second valve body configured to open and close the inflow hole ; wherein an output part of the drive source , the first valve body and the second valve body are accommodated in the valve chamber ; the first valve body is a substantially columnar-shaped member whose one end face slides on a peripheral edge part of the outflow hole of the valve seat face ; the second valve body is a substantially columnar-shaped member whose one end face slides on a peripheral edge part of the inflow hole of the valve seat face ; the first valve body is turned by driving force of the drive source to be switched between a state that the outflow hole is closed and a state that the whole or a part of the outflow hole is opened; and the second valve body is turned by driving force of the drive source to be switched between a state that the inflow hole is closed and a state that the whole or a part of the inflow hole is opened; and the valve device is configured to be in a closed state of the inflow hole and an open state of the outflow hole at a timing when a fluid flowing through the valve device is expected to flow backwards. a drive source ; a base having a valve seat face formed with an inflow hole and an outflow hole for fluid; a case body which is placed on a valve seat face side of the base to section a valve chamber together with the base ; and a first valve body configured to open and close the outflow hole ; the valve device being characterized in further comprising: a second valve body configured to open and close the inflow hole ; wherein an output part of the drive source , the first valve body and the second valve body are accommodated in the valve chamber ; the first valve body is a substantially columnar-shaped member whose one end face slides on a peripheral edge part of the outflow hole of the valve seat face ; the second valve body is a substantially columnar-shaped member whose one end face slides on a peripheral edge part of the inflow hole of the valve seat face ; the first valve body is turned by driving force of the drive source to be switched between a state that the outflow hole is closed and a state that the whole or a part of the outflow hole is opened; and the second valve body is turned by driving force of the drive source to be switched between a state that the inflow hole is closed and a state that the whole or a part of the inflow hole is opened; and the valve device is configured to be in a closed state of the inflow hole and an open state of the outflow hole at a timing when a fluid flowing through the valve device is expected to flow backwards.