mhurhangee/patent-ind-claim-en huggingface dataset:
A coated abrasive article comprising: a backing having first and second opposed major surfaces; a make layer secured to at least a portion of the first major surface of the backing; crushed abrasive particles comprising, on a total weight basis: 35 to 100 weight percent of initial crushed abrasive particles having a first composition and first size grade, wherein a majority of the initial crushed abrasive particles are platey crushed abrasive particles, and wherein each platey crushed abrasive particle has a respective length, width, and thickness; and 0 to 65 weight percent of crushed filler particles having a second composition and a second size grade, wherein: i) the first and second compositions are different; ii) the first and second size grades are different; or iii) both of i) and ii); a size layer disposed on and secured to at least a portion of the make layer and platey crushed abrasive particles, wherein the coated abrasive article has a direction of intended use, and wherein a majority of the platey crushed abrasive particles are positioned with their thickness axis oriented substantially parallel to the direction of intended use. a backing having first and second opposed major surfaces; a make layer secured to at least a portion of the first major surface of the backing; crushed abrasive particles comprising, on a total weight basis: 35 to 100 weight percent of initial crushed abrasive particles having a first composition and first size grade, wherein a majority of the initial crushed abrasive particles are platey crushed abrasive particles, and wherein each platey crushed abrasive particle has a respective length, width, and thickness; and 0 to 65 weight percent of crushed filler particles having a second composition and a second size grade, wherein: i) the first and second compositions are different; ii) the first and second size grades are different; or iii) both of i) and ii); 35 to 100 weight percent of initial crushed abrasive particles having a first composition and first size grade, wherein a majority of the initial crushed abrasive particles are platey crushed abrasive particles, and wherein each platey crushed abrasive particle has a respective length, width, and thickness; and 0 to 65 weight percent of crushed filler particles having a second composition and a second size grade, wherein: i) the first and second compositions are different; ii) the first and second size grades are different; or iii) both of i) and ii); i) the first and second compositions are different; ii) the first and second size grades are different; or iii) both of i) and ii); a size layer disposed on and secured to at least a portion of the make layer and platey crushed abrasive particles, wherein the coated abrasive article has a direction of intended use, and wherein a majority of the platey crushed abrasive particles are positioned with their thickness axis oriented substantially parallel to the direction of intended use.
Nickel based coating consisting of: 15 to 40 weight percent of cobalt, 10 to 23 weight percent of chromium, 5 to 15 weight percent of aluminum, 0,05 to 1 weight percent of yttrium and/or at least one of elements from lanthanum series, 0,05 to 5 weight percent of ruthenium, 0 to 2 weight percent of iridium, 0,05 to 5 weight percent of molybdenum, 0 to 3 weight percent of silicon, 0 to 20 weight percent of iron 0 to 5 weight percent of tantalum, 0 to 2 weight percent of hafnium, and unavoidable impurities such as sulfur, optional, wherein the content of sulfur is reduced to below 10ppm, parts per million, and a balance of nickel.
Motorizing system for powering a wheel associated with a suspension of an aircraft so that the latter can be moved around on the ground, comprising a motor unit , a drive member capable to be secured to the wheel , and a clutch device connecting the output shaft of the motor unit to the drive member , wherein the motor unit comprises an electric motor and is capable to be carried by an un-sprung part of a suspension strut and the transmission between the output shaft and the drive member is a positive transmission, characterized in that the clutch device is configured in such a way as to be able to move the motor unit into an engaged position in which this unit is connected to the drive member , and a disengaged position in which this unit is separated therefrom..
Adapter for a front-mountad implement of a self-propelled working machine, whereby the adapter has a connector part on the front-mounted implement side and an adapter part connected to the connector part , the connector part is connected to the front-mounted implement by means of a connecting zone shaped specifically for the front-mounted implement, the connector part has connector elements designed specifically for the adapter part, the adapter part has connector elements specific to the connector part designed to match these and connector elements for connecting the adapter to the working machine, and the connector part and adapter part are connected to one another so as to be detachable by means of the connector elements connecting them to one another, whereby the connector part has at least two flat brackets extending at least approximately in the vertical direction (V) which are welded onto the front-mounted implement at a lateral distance from one another, the brackets respectively having at least one web likewise extending in an at least approximately vertical direction which stands up from the surface of the brackets , at least three connector sleeves are provided on the respective web constituting connector elements designed specifically for the adapter part which form a uniform hole pattern for connecting to the adapter part , characterised in that connector sleeves are likewise disposed on the adapter part , the spatial layout of which in their fitted position corresponds to the hole pattern of the connector sleeves in the connector part , and the mutually associated connector sleeves are connected to one another by means of a plug bolt extending respectively through them when the adapter part is in the position fitted to the connector part .
An inactivating apparatus for bacteria or viruses, comprising: a light source that emits ultraviolet light (L1) with an optical output in a specific wavelength band belonging to a range of 190 nm to 235 nm; a controller for lighting control of the light source ; and a detector that detects whether or not a human being is present in a detection target area , which is a part of an irradiation area of the ultraviolet light (L1) or an area adjacent to the irradiation area, wherein the controller controls the light source to increase an integrated irradiation dose of the ultraviolet light (L1) per unit time when the detector detects the absence of a human being; characterised in that the controller is configured to be capable of executing a specific operation mode in which a first control to turn on the light source at a relatively high emission intensity and a second control to turn on the light source at a relatively lower emission intensity than that during the execution of the first control or to turn off the light source are repeated, and the controller continues to execute the specific operation mode with the integrated irradiation dose of the ultraviolet light (L1) per unit time increased when the detector detects the absence of a human being during the execution of the specific operation mode. a light source that emits ultraviolet light (L1) with an optical output in a specific wavelength band belonging to a range of 190 nm to 235 nm; a controller for lighting control of the light source ; and a detector that detects whether or not a human being is present in a detection target area , which is a part of an irradiation area of the ultraviolet light (L1) or an area adjacent to the irradiation area, wherein the controller controls the light source to increase an integrated irradiation dose of the ultraviolet light (L1) per unit time when the detector detects the absence of a human being; characterised in that the controller is configured to be capable of executing a specific operation mode in which a first control to turn on the light source at a relatively high emission intensity and a second control to turn on the light source at a relatively lower emission intensity than that during the execution of the first control or to turn off the light source are repeated, and the controller continues to execute the specific operation mode with the integrated irradiation dose of the ultraviolet light (L1) per unit time increased when the detector detects the absence of a human being during the execution of the specific operation mode.
Machine for preparing infused beverages, comprising: - an infusion assembly provided with a first infusing element provided with at least one cavity for at least partially accommodating one capsule or pod and a second infusing element shaped to cooperate with said first infusing element so that to define, when coupled therewith, an infusion chamber; - at least one between the first or the second infusing element being movable between an open position, wherein said second infusing element is away from said first infusing element , and a closed position, wherein said first infusing element is coupled with the second infusing element so that to define said infusion chamber; - a shell shaped to at least partially contain said infusion assembly ; - an inlet opening to allow the access of the capsule or pod 20 to said infusion assembly ; - said shell having said inlet opening ; characterized by comprising: - a code reader arranged at least partially outside of said shell , above and in the proximity of said inlet opening ; - said code reader is movable between a working position and a rest position, wherein in said working position the code reader it is at least partially outside of said shell in a position such as to allow the reading of a code placed on a capsule or pod entering said inlet opening and wherein at said rest position, said code reader is at least partially contained in said shell . - an infusion assembly provided with a first infusing element provided with at least one cavity for at least partially accommodating one capsule or pod and a second infusing element shaped to cooperate with said first infusing element so that to define, when coupled therewith, an infusion chamber; - at least one between the first or the second infusing element being movable between an open position, wherein said second infusing element is away from said first infusing element , and a closed position, wherein said first infusing element is coupled with the second infusing element so that to define said infusion chamber; - a shell shaped to at least partially contain said infusion assembly ; - an inlet opening to allow the access of the capsule or pod 20 to said infusion assembly ; - said shell having said inlet opening ; - a code reader arranged at least partially outside of said shell , above and in the proximity of said inlet opening ; - said code reader is movable between a working position and a rest position, wherein in said working position the code reader it is at least partially outside of said shell in a position such as to allow the reading of a code placed on a capsule or pod entering said inlet opening and wherein at said rest position, said code reader is at least partially contained in said shell .
A network switching system for an industrial plant comprising: a switch comprising a central processor unit, CPU, side channel (D), a first input channel (A), a second input channel (B) and a third input channel (C); an internal CPU connected to the switch via the CPU side channel (D); a first external port connected to the first input channel (A) of the switch; a multiplexer, MUX, comprising at least two MUX switches, wherein a first MUX switch is connected to the second input channel (B) of the switch and a second MUX switch is connected to the third input channel (C) of the switch; a second external port connected to the first MUX switch of the multiplexer; a third external port connected to the second MUX switch of the multiplexer; and a means configured to receive a configuration parameter that transitions the network switching system between a first mode that configures the first external port, the second external port, and the third external port for operation on a single network, and a second mode that configures the first external port and the second external port for operation on a first network and configures the third external port for operation on a second network, wherein the first external port and the second external port are configured to operate with at least one of an EtherNet/IP ENIP, network protocol, a NEO backplane protocol, and an EtherNet/IP ENIP, network protocol on a local area network a switch comprising a central processor unit, CPU, side channel (D), a first input channel (A), a second input channel (B) and a third input channel (C); an internal CPU connected to the switch via the CPU side channel (D); a first external port connected to the first input channel (A) of the switch; a multiplexer, MUX, comprising at least two MUX switches, wherein a first MUX switch is connected to the second input channel (B) of the switch and a second MUX switch is connected to the third input channel (C) of the switch; a second external port connected to the first MUX switch of the multiplexer; a third external port connected to the second MUX switch of the multiplexer; and a means configured to receive a configuration parameter that transitions the network switching system between a first mode that configures the first external port, the second external port, and the third external port for operation on a single network, and a second mode that configures the first external port and the second external port for operation on a first network and configures the third external port for operation on a second network, wherein the first external port and the second external port are configured to operate with at least one of an EtherNet/IP ENIP, network protocol, a NEO backplane protocol, and an EtherNet/IP ENIP, network protocol on a local area network
Method for diagnosing a pressure sensor , which method is carried out in a method for introducing a reagent into an exhaust duct of an internal combustion engine , wherein the pressure sensor senses the pressure of the reagent, characterized in that in at least one first time interval (t8, t10) in which a steady-state pressure condition is expected when a rest pressure or an operating pressure is present, it is checked whether the pressure signal which is made available by the pressure sensor corresponds to the rest pressure or to the operating pressure , in that in at least one second time interval (t9, t11) in which a change in pressure occurs, it is checked whether the pressure signal exhibits a predefined change with respect to the rest pressure or the operating pressure , and in that a fault signal is made available if the condition which is predefined in the first interval and in the second interval (t8, t10; t9, t11) is not satisfied.
A method of evaluating deodorizing ability of a superabsorbent polymer, the method comprising the steps of: mixing a superabsorbent polymer with urea and urease; leaving the superabsorbent polymer, which is mixed with urea and urease, under an enclosed environment; and measuring a concentration of ammonia generated from the superabsorbent polymer, wherein the urea and urease are mixed after being dissolved in a saline solution (0.9 wt% NaCl solution); a concentration of urea is 1% by weight to 10% by weight with respect to the saline solution; and the step of leaving the superabsorbent polymer, which is mixed with urea and urease, under an enclosed environment is performed at 37+-1°C, wherein changes in the ammonia concentration is measured for 12 hours to 24 hours at time intervals of 30 minutes, 1 hour, 2 hours, or 3 hours after mixing the superabsorbent polymer with the urea and urease, wherein the changes in the ammonia concentration measured is compared with those of a control in which no superabsorbent polymer is used, thereby measuring deodorizing ability of the corresponding superabsorbent polymer. mixing a superabsorbent polymer with urea and urease; leaving the superabsorbent polymer, which is mixed with urea and urease, under an enclosed environment; and measuring a concentration of ammonia generated from the superabsorbent polymer, wherein the urea and urease are mixed after being dissolved in a saline solution (0.9 wt% NaCl solution); a concentration of urea is 1% by weight to 10% by weight with respect to the saline solution; and the step of leaving the superabsorbent polymer, which is mixed with urea and urease, under an enclosed environment is performed at 37+-1°C, wherein changes in the ammonia concentration is measured for 12 hours to 24 hours at time intervals of 30 minutes, 1 hour, 2 hours, or 3 hours after mixing the superabsorbent polymer with the urea and urease, wherein the changes in the ammonia concentration measured is compared with those of a control in which no superabsorbent polymer is used, thereby measuring deodorizing ability of the corresponding superabsorbent polymer.
A photoacoustic spectrometer for analyzing a plurality of gas components of a gas mixture, comprising an infrared emitter comprising a micro-heating element a measuring cell that can be filled with the gas mixture, and a sound pressure detector, wherein the measuring cell is in the beam path of the infrared emitter , so that the infrared radiation that can be emitted by the infrared emitter can stimulate gas in the measuring cell to form sound pressure waves which can be measured using the sound pressure detector, wherein the infrared emitter comprises a MEMS Fabry-Pérot interferometer which is monolithically integrated on the micro-heating element and enabling a time- and wavelength-dependent modulation of the infrared radiation, characterized in that the infrared emitter comprises at least two substrate layers and is formed by bonding at least two wafers , wherein a cover wafer comprises the MEMS Fabry-Pérot interferometer and a device wafer comprises the micro-heating element and wherein the cover wafer has a cavity under which the micro-heating element defined on the device wafer is located after the cover wafer and device wafer have been bonded. an infrared emitter comprising a micro-heating element a measuring cell that can be filled with the gas mixture, and a sound pressure detector, wherein the measuring cell is in the beam path of the infrared emitter , so that the infrared radiation that can be emitted by the infrared emitter can stimulate gas in the measuring cell to form sound pressure waves which can be measured using the sound pressure detector, wherein the infrared emitter comprises a MEMS Fabry-Pérot interferometer which is monolithically integrated on the micro-heating element and enabling a time- and wavelength-dependent modulation of the infrared radiation, characterized in that the infrared emitter comprises at least two substrate layers and is formed by bonding at least two wafers , wherein a cover wafer comprises the MEMS Fabry-Pérot interferometer and a device wafer comprises the micro-heating element and wherein the cover wafer has a cavity under which the micro-heating element defined on the device wafer is located after the cover wafer and device wafer have been bonded.
A method, comprising: disposing a plurality of solid features on a first surface , the first surface having a first roll off angle; communicating an impregnating liquid into the interstitial regions between the plurality of solid features , the impregnating liquid and the plurality of solid features at least partially forming a second surfacehaving a second roll off angle less than the first roll off angle; and reapplying the impregnating liquid via a liquid delivery mechanism to maintain the second roll off angle of the second surface less than the first roll off angle, the liquid delivery mechanism including a reservoir configured to contain a supply of impregnating liquid and a pumping mechanism configured to transfer impregnating liquid from the reservoir to the interstitial regions. disposing a plurality of solid features on a first surface , the first surface having a first roll off angle; communicating an impregnating liquid into the interstitial regions between the plurality of solid features , the impregnating liquid and the plurality of solid features at least partially forming a second surfacehaving a second roll off angle less than the first roll off angle; and reapplying the impregnating liquid via a liquid delivery mechanism to maintain the second roll off angle of the second surface less than the first roll off angle, the liquid delivery mechanism including a reservoir configured to contain a supply of impregnating liquid and a pumping mechanism configured to transfer impregnating liquid from the reservoir to the interstitial regions.
An anti CD4 antibody, selected from the group consisting of: i) antibody 16H5.chimIgG4; ii) an antibody obtainable from a cell line CD4.16H5.chimlgG4 deposited with the DSMZ on December 2, 2011; iii) an antibody comprising the VH and the VK of antibody 16H5.chimlgG4; and iv) an antibody comprising a VH and a VK of an antibody obtainable from a cell line CD4.16H5.chimlgG4 deposited with the DSMZ on December 2, 2011. i) antibody 16H5.chimIgG4; ii) an antibody obtainable from a cell line CD4.16H5.chimlgG4 deposited with the DSMZ on December 2, 2011; iii) an antibody comprising the VH and the VK of antibody 16H5.chimlgG4; and iv) an antibody comprising a VH and a VK of an antibody obtainable from a cell line CD4.16H5.chimlgG4 deposited with the DSMZ on December 2, 2011.
A method of manufacturing a container made of plastic, comprising the following steps: - continuously extruding a hose , - positioning an opened blow mold around the hose , so that the hose is arranged between two blow mold halves , - closing a hose gripper arranged at the blow mold to clamp the hose and simultaneously holding the hose open on its upper side to form an inlet opening , - separating the hose above the hose gripper to form a preform , - horizontally moving the blow mold together with the preform hanging therein and held by the hose gripper in a blowing position , - inserting a blow mandrel assembly from above into the inlet opening of the preform , - closing the blow mold halves , and - inflating the preform in the blow mold to form a container , - wherein the hose gripper clamps the hose with two gripping areas at two locations spaced apart from each other, so that the inlet opening comprises an oval cross-section. - continuously extruding a hose , - positioning an opened blow mold around the hose , so that the hose is arranged between two blow mold halves , - closing a hose gripper arranged at the blow mold to clamp the hose and simultaneously holding the hose open on its upper side to form an inlet opening , - separating the hose above the hose gripper to form a preform , - horizontally moving the blow mold together with the preform hanging therein and held by the hose gripper in a blowing position , - inserting a blow mandrel assembly from above into the inlet opening of the preform , - closing the blow mold halves , and - inflating the preform in the blow mold to form a container , - wherein the hose gripper clamps the hose with two gripping areas at two locations spaced apart from each other, so that the inlet opening comprises an oval cross-section.